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Working python window

This commit is contained in:
Seth Hillbrand 2021-03-08 06:54:22 -08:00
parent 6fbbba8db3
commit 81d58bcea9
557 changed files with 95774 additions and 59718 deletions
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169
CMakeLists.txt
View File

@ -54,14 +54,6 @@ cmake_dependent_option( BUILD_SMALL_DEBUG_FILES "In debug build: create smaller
# so that build option settings can be included in bug reports.
#
option( KICAD_SCRIPTING_PYTHON3
"Build for Python 3 instead of 2 (default OFF)."
OFF )
option( KICAD_SCRIPTING_WXPYTHON_PHOENIX
"Use new wxPython binding (default OFF)."
OFF )
option( KICAD_USE_OCE
"Build tools and plugins related to OpenCascade Community Edition (default ON)"
ON )
@ -457,30 +449,6 @@ if( MSVC )
endif()
endif()
if( KICAD_SCRIPTING )
add_definitions( -DKICAD_SCRIPTING )
endif()
if( KICAD_SCRIPTING_MODULES )
add_definitions( -DKICAD_SCRIPTING_MODULES )
endif()
if( KICAD_SCRIPTING_PYTHON3 )
add_definitions( -DKICAD_SCRIPTING_PYTHON3 )
endif()
if( KICAD_SCRIPTING_WXPYTHON )
add_definitions( -DKICAD_SCRIPTING_WXPYTHON )
endif()
if( KICAD_SCRIPTING_WXPYTHON_PHOENIX )
add_definitions( -DKICAD_SCRIPTING_WXPYTHON_PHOENIX )
endif()
if( KICAD_SCRIPTING_ACTION_MENU )
add_definitions( -DKICAD_SCRIPTING_ACTION_MENU )
endif()
if( KICAD_SPICE )
add_definitions( -DKICAD_SPICE )
endif()
@ -785,32 +753,24 @@ set( INC_AFTER
#
# Find Python and other scripting resources
#
if( KICAD_SCRIPTING OR KICAD_SCRIPTING_MODULES )
# SWIG 3.0 or later require for C++11 support.
find_package( SWIG 3.0 REQUIRED )
include( ${SWIG_USE_FILE} )
# SWIG 3.0 or later require for C++11 support.
find_package( SWIG 3.0 REQUIRED )
include( ${SWIG_USE_FILE} )
if( KICAD_SCRIPTING_PYTHON3 )
set( PythonInterp_FIND_VERSION 3.3 )
set( PythonLibs_FIND_VERSION 3.3 )
else()
# force a python version < 3.0
set( PythonInterp_FIND_VERSION 2.6 )
set( PythonLibs_FIND_VERSION 2.6 )
endif()
# pybind11 is header-only, so include the subdir
add_subdirectory(thirdparty/pybind11)
find_package( PythonInterp )
set( PythonInterp_FIND_VERSION 3.6 )
set( PythonLibs_FIND_VERSION 3.6 )
check_find_package_result( PYTHONINTERP_FOUND "Python Interpreter" )
find_package( PythonInterp )
if( NOT KICAD_SCRIPTING_PYTHON3 AND NOT PYTHON_VERSION_MAJOR EQUAL 2 )
message( FATAL_ERROR "Python 2.x is required." )
endif()
check_find_package_result( PYTHONINTERP_FOUND "Python Interpreter" )
# Get the correct Python site package install path from the Python interpreter found by
# FindPythonInterp unless the user specifically defined a custom path.
if( NOT PYTHON_SITE_PACKAGE_PATH )
# Get the correct Python site package install path from the Python interpreter found by
# FindPythonInterp unless the user specifically defined a custom path.
if( NOT PYTHON_SITE_PACKAGE_PATH )
execute_process( COMMAND ${PYTHON_EXECUTABLE} -c "import distutils.sysconfig;print(\"%s\"%distutils.sysconfig.get_python_lib(plat_specific=0, standard_lib=0, prefix=''))"
OUTPUT_VARIABLE PYTHON_SITE_PACKAGE_PATH
OUTPUT_STRIP_TRAILING_WHITESPACE
@ -819,9 +779,9 @@ if( KICAD_SCRIPTING OR KICAD_SCRIPTING_MODULES )
if( NOT PYTHON_SITE_PACKAGE_PATH )
message( FATAL_ERROR "Error occurred while attempting to find the Python site library path." )
endif()
endif()
endif()
if( APPLE )
if( APPLE )
set( OSX_BUNDLE_PYTHON_SITE_PACKAGES_DIR ${OSX_BUNDLE_LIB_DIR}/Python.framework/Versions/${PYTHON_VERSION_MAJOR}.${PYTHON_VERSION_MINOR}/lib/python${PYTHON_VERSION_MAJOR}.${PYTHON_VERSION_MINOR}/site-packages)
set( OSX_BUNDLE_INSTALL_PYTHON_SITE_PACKAGES_DIR "${OSX_BUNDLE_INSTALL_DIR}/${OSX_BUNDLE_PYTHON_SITE_PACKAGES_DIR}")
set( PYTHON_DEST "${OSX_BUNDLE_BUILD_DIR}/${OSX_BUNDLE_PYTHON_SITE_PACKAGES_DIR}"
@ -829,60 +789,41 @@ if( KICAD_SCRIPTING OR KICAD_SCRIPTING_MODULES )
)
# change to add_compile_definitions() after minimum required CMake version is 3.12
set_property( DIRECTORY APPEND PROPERTY COMPILE_DEFINITIONS OSX_BUNDLE_PYTHON_SITE_PACKAGES_DIR="${OSX_BUNDLE_PYTHON_SITE_PACKAGES_DIR}")
elseif( VCPKG_TOOLCHAIN )
elseif( VCPKG_TOOLCHAIN )
set( PYTHON_DEST "${CMAKE_INSTALL_PREFIX}/bin/Lib/site-packages"
CACHE PATH "Python module install path."
)
else()
else()
set( PYTHON_DEST "${PYTHON_SITE_PACKAGE_PATH}"
CACHE PATH "Python module install path."
)
endif()
mark_as_advanced( PYTHON_DEST )
message( STATUS "Python module install path: ${PYTHON_DEST}" )
endif()
message( STATUS "Python module install path: ${PYTHON_DEST}" )
if( KICAD_SCRIPTING_PYTHON3 )
find_package( PythonLibs 3.3 REQUIRED )
else()
find_package( PythonLibs 2.6 REQUIRED )
endif()
find_package( PythonLibs 3.6 REQUIRED )
# Infrequently needed headers go at end of search paths, append to INC_AFTER which
# although is used for all components, should be a harmless hit for something like eeschema
# so long as unused search paths are at the end like this.
set( INC_AFTER ${INC_AFTER} ${PYTHON_INCLUDE_DIRS} ${CMAKE_CURRENT_SOURCE_DIR}/scripting )
# Infrequently needed headers go at end of search paths, append to INC_AFTER which
# although is used for all components, should be a harmless hit for something like eeschema
# so long as unused search paths are at the end like this.
set( INC_AFTER ${INC_AFTER} ${PYTHON_INCLUDE_DIRS} ${CMAKE_CURRENT_SOURCE_DIR}/scripting )
# Find the wxPython installation
find_package( wxPython REQUIRED )
if( WXPYTHON_VERSION VERSION_LESS 4.0.0 )
message( FATAL_ERROR "wxPython Phoenix is required" )
endif()
# Find the wxPython installation if requested
if( KICAD_SCRIPTING_WXPYTHON )
find_package( wxPython REQUIRED )
if( KICAD_SCRIPTING_WXPYTHON_PHOENIX AND WXPYTHON_VERSION VERSION_LESS 4.0.0 )
message( FATAL_ERROR
"Unable to find wxPython Phoenix,"
" instead found wxPython Classic ${WXPYTHON_VERSION}" )
endif()
# The test VERSION_GREATER_EQUAL is only available in cmake >3.7, so use the max possible
# version for the 3.0 line as the basis of the comparison
if( NOT KICAD_SCRIPTING_WXPYTHON_PHOENIX AND WXPYTHON_VERSION VERSION_GREATER 3.9.999 )
message( FATAL_ERROR
"Unable to find wxPython Classic,"
" instead found wxPython Phoenix ${WXPYTHON_VERSION}" )
endif()
# GTK3 is required on Linux
if( UNIX AND NOT APPLE )
# GTK3 is required on Linux
if( UNIX AND NOT APPLE )
if( NOT "${WXPYTHON_TOOLKIT}" STREQUAL "gtk3" )
message( FATAL_ERROR "GTK3-based wxPython/Phoenix toolkit is required.")
endif()
endif()
message( STATUS "Found ${WXPYTHON_FLAVOR} "
"${WXPYTHON_VERSION}/${WXPYTHON_TOOLKIT} "
"(wxWidgets ${WXPYTHON_WXVERSION})" )
endif()
message( STATUS "Found ${WXPYTHON_FLAVOR} "
"${WXPYTHON_VERSION}/${WXPYTHON_TOOLKIT} "
"(wxWidgets ${WXPYTHON_WXVERSION})" )
#
# Find wxWidgets library, required
@ -891,31 +832,27 @@ endif()
# Turn on wxWidgets compatibility mode for some classes
add_definitions( -DWX_COMPATIBILITY )
if( KICAD_SCRIPTING_WXPYTHON )
# Check if '--toolkit=xxx' option has been passed
string( REGEX MATCH "--toolkit=([a-zA-Z0-9]+)"
# Check if '--toolkit=xxx' option has been passed
string( REGEX MATCH "--toolkit=([a-zA-Z0-9]+)"
WXWIDGETS_REQUESTED_TOOLKIT "${wxWidgets_CONFIG_OPTIONS}" )
if( WXWIDGETS_REQUESTED_TOOLKIT
if( WXWIDGETS_REQUESTED_TOOLKIT
AND NOT WXWIDGETS_REQUESTED_TOOLKIT STREQUAL "--toolkit=${WXPYTHON_TOOLKIT}" )
message( WARNING "wxWidgets and wxPython must be based on the same toolkit.\n"
"It will be fixed automatically if you skip the '--toolkit=xxx' "
"wxWidgets_CONFIG_OPTIONS parameter.")
elseif( UNIX AND NOT APPLE )
elseif( UNIX AND NOT APPLE )
# Force the use of GTK3 on Linux
set( wxWidgets_CONFIG_OPTIONS ${wxWidgets_CONFIG_OPTIONS} "--toolkit=gtk3" )
else()
else()
# Use the same toolkit as wxPython otherwise there will be a symbol conflict
set( wxWidgets_CONFIG_OPTIONS ${wxWidgets_CONFIG_OPTIONS} "--toolkit=${WXPYTHON_TOOLKIT}" )
endif()
# Require the same wxWidgets version as is used by wxPython
set( wxWidgets_REQ_VERSION ${WXPYTHON_WXVERSION} )
else()
# Require wxWidgets 3.0.0 as the minimum when wxPython is disabled
set( wxWidgets_REQ_VERSION 3.0.0 )
endif()
# Require the same wxWidgets version as is used by wxPython
set( wxWidgets_REQ_VERSION ${WXPYTHON_WXVERSION} )
# See line 49 of CMakeModules/FindwxWidgets.cmake
set( wxWidgets_CONFIG_OPTIONS ${wxWidgets_CONFIG_OPTIONS} --static=no )
@ -924,25 +861,6 @@ find_package( wxWidgets ${wxWidgets_REQ_VERSION} COMPONENTS gl aui adv html core
# Include wxWidgets macros.
include( ${wxWidgets_USE_FILE} )
if( KICAD_SCRIPTING_WXPYTHON AND NOT KICAD_SCRIPTING_WXPYTHON_PHOENIX )
# wxPython appears to be installed and valid so make sure the headers are available.
foreach( path ${wxWidgets_INCLUDE_DIRS} )
#message( STATUS "Searching for wx/wxPython/wxPython.h in ${path}" )
find_path( wxPYTHON_INCLUDE_DIRS wx/wxPython/wxPython.h
PATHS "${path}" )
if( wxPYTHON_INCLUDE_DIRS )
message( STATUS "Found wxPython.h in ${path}/wx/wxPython" )
break()
endif()
endforeach()
if( NOT wxPYTHON_INCLUDE_DIRS )
message( FATAL_ERROR "Cannot find wxPython.h" )
endif()
endif()
if( MINGW )
# This needs to be on a separate line to protect against a broken FindWxWidgets.cmake in vcpkg
if( ${wxWidgets_VERSION_STRING} VERSION_LESS 3.1 )
@ -1051,6 +969,7 @@ add_subdirectory( resources )
add_subdirectory( thirdparty )
add_subdirectory( bitmaps_png )
add_subdirectory( libs )
add_subdirectory( scripting )
add_subdirectory( common )
add_subdirectory( 3d-viewer )
add_subdirectory( eeschema )

58
common/CMakeLists.txt
View File

@ -682,61 +682,3 @@ make_lexer(
add_executable( dsntest EXCLUDE_FROM_ALL dsnlexer.cpp )
target_link_libraries( dsntest common ${wxWidgets_LIBRARIES} rt )
# _kiway.so
if( false ) # future
#if( KICAD_SCRIPTING OR KICAD_SCRIPTING_MODULES )
set( SWIG_FLAGS
-I${CMAKE_CURRENT_SOURCE_DIR}/../include
)
if( DEBUG )
set( SWIG_FLAGS ${SWIG_FLAGS} -DDEBUG )
endif()
# call SWIG in C++ mode: https://cmake.org/cmake/help/v3.2/module/UseSWIG.html
set_source_files_properties( swig/kiway.i PROPERTIES CPLUSPLUS ON )
# collect CFLAGS , and pass them to swig later
get_directory_property( DirDefs DIRECTORY ${CMAKE_CURRENT_SOURCE_DIR} COMPILE_DEFINITIONS )
foreach( d ${DirDefs} )
set( SWIG_FLAGS ${SWIG_FLAGS} -D${d} )
endforeach()
set( CMAKE_SWIG_FLAGS ${SWIG_FLAGS} )
include_directories( BEFORE ${INC_BEFORE} )
include_directories(
${CMAKE_SOURCE_DIR}/common
${INC_AFTER}
)
set( SWIG_MODULE_kiway_EXTRA_DEPS
${CMAKE_SOURCE_DIR}/common/swig/ki_exception.i
${CMAKE_SOURCE_DIR}/common/swig/kicad.i
)
swig_add_module( kiway python
swig/kiway.i
)
swig_link_libraries( kiway
common
${wxWidgets_LIBRARIES}
${PYTHON_LIBRARIES}
)
set_source_files_properties( ${swig_generated_file_fullname} PROPERTIES
# See section 16.3 "The SWIG runtime code"
# http://www.swig.org/Doc3.0/SWIGDocumentation.html#Modules_nn2
COMPILE_FLAGS "-DSWIG_TYPE_TABLE=WXPYTHON_TYPE_TABLE -Wno-delete-non-virtual-dtor"
)
if( MAKE_LINK_MAPS )
set_target_properties( _kiway PROPERTIES
LINK_FLAGS "-Wl,-cref,-Map=_kiway.so.map"
)
endif()
endif()

14
common/build_version.cpp
View File

@ -208,20 +208,6 @@ wxString GetVersionInfoData( const wxString& aTitle, bool aHtml, bool aBrief )
// Add build settings config (build options):
aMsg << "Build settings:" << eol;
aMsg << indent4 << "KICAD_SCRIPTING_PYTHON3=";
#ifdef KICAD_SCRIPTING_PYTHON3
aMsg << ON;
#else
aMsg << OFF;
#endif
aMsg << indent4 << "KICAD_SCRIPTING_WXPYTHON_PHOENIX=";
#ifdef KICAD_SCRIPTING_WXPYTHON_PHOENIX
aMsg << ON;
#else
aMsg << OFF;
#endif
#ifdef KICAD_USE_OCE
aMsg << indent4 << "KICAD_USE_OCE=" << ON;
#endif

5
common/kiway.cpp
View File

@ -109,6 +109,7 @@ const wxString KIWAY::dso_search_path( FACE_T aFaceId )
case FACE_PL_EDITOR: name = KIFACE_PREFIX "pl_editor"; break;
case FACE_PCB_CALCULATOR: name = KIFACE_PREFIX "pcb_calculator"; break;
case FACE_BMP2CMP: name = KIFACE_PREFIX "bitmap2component"; break;
case FACE_PYTHON: name = KIFACE_PREFIX "kipython"; break;
default:
wxASSERT_MSG( 0, wxT( "caller has a bug, passed a bad aFaceId" ) );
@ -122,7 +123,6 @@ const wxString KIWAY::dso_search_path( FACE_T aFaceId )
{
// The 2 *.cpp program launchers: single_top.cpp and kicad.cpp expect
// the *.kiface's to reside in same directory as their binaries do.
// Not so for python launcher, identified by KFCTL_PY_PROJECT_SUITE
path = wxStandardPaths::Get().GetExecutablePath();
}
@ -338,6 +338,9 @@ KIWAY::FACE_T KIWAY::KifaceType( FRAME_T aFrameType )
case FRAME_CVPCB_DISPLAY:
return FACE_CVPCB;
case FRAME_PYTHON:
return FACE_PYTHON;
case FRAME_GERBER:
return FACE_GERBVIEW;

249
common/swig/kiway.i
View File

@ -1,249 +0,0 @@
//%module(directors="1") kiway
%module kiway
%import(module="wx") wx_kiway_player_hierarchy.h
%include ki_exception.i // affects all that follow it
/*
By default we do not translate exceptions for EVERY C++ function since not every
C++ function throws, and that would be unused and very bulky mapping code.
Therefore please help gather the subset of C++ functions for this class that do
throw and add them here, before the class declarations.
*/
HANDLE_EXCEPTIONS(KIWAY::Player)
%include pgm_base.h
%include frame_type.h
%include mail_type.h
%include project.h
%include kiway.h
%include kiway_express.h
%include kiway_player.i
%constant KIWAY Kiway;
%pythoncode
%{
#import wx
%}
%{
#include <kiway.h>
#include <kiway_express.h>
#include <pgm_base.h>
#include <wx/app.h>
#include <wx/stdpaths.h>
#include <wx/wxPython/wxPython_int.h>
// Only a single KIWAY is supported in this single_top top level component,
// which is dedicated to loading only a single DSO.
KIWAY Kiway( &Pgm(), KFCTL_PY_PROJECT_SUITE );
// a dummy to quiet linking with EDA_BASE_FRAME::config();
#include <kiface_i.h>
KIFACE_I& Kiface()
{
// This function should never be called. It is only referenced from
// EDA_BASE_FRAME::config() and this is only provided to satisfy the linker,
// not to be actually called.
wxLogFatalError( wxT( "Unexpected call to Kiface() in kicad/kicad.cpp" ) );
return (KIFACE_I&) *(KIFACE_I*) 0;
}
/**
* Struct PGM_PYTHON
* implements PGM_BASE with its own OnPgmInit() and OnPgmExit().
*/
static struct PGM_PYTHON : public PGM_BASE
{
#if 0
bool OnPgmInit( wxApp* aWxApp )
{
// first thing: set m_wx_app
SetApp( aWxApp );
if( !initPgm() )
return false;
// Use KIWAY to create a top window, which registers its existence also.
// "TOP_FRAME" is a macro that is passed on compiler command line from CMake,
// and is one of the types in FRAME_T.
KIWAY_PLAYER* frame = Kiway.Player( FRAME_PCB, true );
Kiway.SetTop( frame );
App().SetTopWindow( frame ); // wxApp gets a face.
// Open project or file specified on the command line:
int argc = App().argc;
if( argc > 1 )
{
/*
gerbview handles multiple project data files, i.e. gerber files on
cmd line. Others currently do not, they handle only one. For common
code simplicity we simply pass all the arguments in however, each
program module can do with them what they want, ignore, complain
whatever. We don't establish policy here, as this is a multi-purpose
launcher.
*/
std::vector<wxString> argSet;
for( int i=1; i<argc; ++i )
{
argSet.push_back( App().argv[i] );
}
// special attention to the first argument: argv[1] (==argSet[0])
wxFileName argv1( argSet[0] );
if( argc == 2 )
{
#if defined(PGM_DATA_FILE_EXT)
// PGM_DATA_FILE_EXT, if present, may be different for each compile,
// it may come from CMake on the compiler command line, but often does not.
// This facillity is mostly useful for those program footprints
// supporting a single argv[1].
if( !argv1.GetExt() )
argv1.SetExt( wxT( PGM_DATA_FILE_EXT ) );
#endif
argv1.MakeAbsolute();
argSet[0] = argv1.GetFullPath();
}
// Use the KIWAY_PLAYER::OpenProjectFiles() API function:
if( !frame->OpenProjectFiles( argSet ) )
{
// OpenProjectFiles() API asks that it report failure to the UI.
// Nothing further to say here.
// We've already initialized things at this point, but wx won't call OnExit if
// we fail out. Call our own cleanup routine here to ensure the relevant resources
// are freed at the right time (if they aren't, segfaults will occur).
OnPgmExit();
// Fail the process startup if the file could not be opened,
// although this is an optional choice, one that can be reversed
// also in the KIFACE specific OpenProjectFiles() return value.
return false;
}
}
frame->Show();
return true;
}
void OnPgmExit()
{
Kiway.OnKiwayEnd();
saveCommonSettings();
// Destroy everything in PGM_BASE, especially wxSingleInstanceCheckerImpl
// earlier than wxApp and earlier than static destruction would.
PGM_BASE::destroy();
}
#endif
#if 0 // multi-project
void PGM_KICAD::MacOpenFile( const wxString& aFileName )
{
#if defined(__WXMAC__)
KICAD_MANAGER_FRAME* frame = (KICAD_MANAGER_FRAME*) App().GetTopWindow();
frame->SetProjectFileName( aFileName );
wxCommandEvent loadEvent( 0, wxID_ANY );
frame->OnLoadProject( loadEvent );
#endif
}
#else
void MacOpenFile( const wxString& aFileName ) override
{
wxFileName filename( aFileName );
if( filename.FileExists() )
{
#if 0
// this pulls in EDA_DRAW_FRAME type info, which we don't want in
// the link image.
KIWAY_PLAYER* frame = dynamic_cast<KIWAY_PLAYER*>( App().GetTopWindow() );
#else
KIWAY_PLAYER* frame = (KIWAY_PLAYER*) App().GetTopWindow();
#endif
if( frame )
frame->OpenProjectFiles( std::vector<wxString>( 1, aFileName ) );
}
}
#endif
} program;
PGM_BASE& Pgm()
{
return program;
}
%}
/*
import ctypes, os, sys
libcef_so = os.path.join(os.path.dirname(os.path.abspath(__file__)), 'libcef.so')
if os.path.exists(libcef_so):
*/
%extend PGM_BASE {
%pythoncode
%{
def OnPgmInit(self):
print("hereA")
if not self.InitPgm():
return False;
print("hereB")
try:
# A KIWAY_PLAYER is a wx.Window
frame = Kiway.Player( FRAME_SCH, True )
print("here0")
except IOError as e:
print('Player()', e)
return None
print("here1")
Kiway.SetTop(frame)
print("here2")
return frame
%}
};

8
common/swig/kiway_player.i
View File

@ -1,8 +0,0 @@
// Swig interface to classes KIWAY_PLAYER and KIWAY_HOLDER
%include kiway_player.h
%{
#include <kiway_player.h>
%}

28
common/swig/wx_python_helpers.cpp
View File

@ -74,29 +74,17 @@ wxString* newWxStringFromPy( PyObject* src )
PyObject* uni_str = src;
// if not an str or unicode, try to str(src)
#if PY_MAJOR_VERSION >= 3
if( !PyBytes_Check( src ) && !PyUnicode_Check( src ) )
#else
if( !PyString_Check( src ) && !PyUnicode_Check( src ) )
#endif
{
obj = PyObject_Str( src );
#if PY_MAJOR_VERSION >= 3
uni_str = obj; // in case of Python 3 our string is already correctly encoded
#endif
must_unref_obj = true;
if( PyErr_Occurred() )
return NULL;
}
#if PY_MAJOR_VERSION >= 3
if( PyBytes_Check( obj ) )
#else
if( PyString_Check( obj ) )
#endif
{
uni_str = PyUnicode_FromEncodedObject( obj, wxPythonEncoding, "strict" );
must_unref_str = true;
@ -106,21 +94,11 @@ wxString* newWxStringFromPy( PyObject* src )
}
result = new wxString();
#if PY_MAJOR_VERSION >= 3
size_t len = PyUnicode_GET_LENGTH( uni_str );
#else
size_t len = PyUnicode_GET_SIZE( uni_str );
#endif
if( len )
{
#if PY_MAJOR_VERSION >= 3
PyUnicode_AsWideChar( uni_str,
wxStringBuffer( *result, len ), len );
#else
PyUnicode_AsWideChar( (PyUnicodeObject*) uni_str,
wxStringBuffer( *result, len ), len );
#endif
PyUnicode_AsWideChar( uni_str, wxStringBuffer( *result, len ), len );
}
if( must_unref_str )
@ -144,11 +122,7 @@ wxString* newWxStringFromPy( PyObject* src )
if( PyErr_Occurred() )
return NULL;
}
#if PY_MAJOR_VERSION >= 3
else if( !PyUnicode_Check( src ) )
#else
else if( !PyString_Check( src ) ) // if it's not a string, str(obj)
#endif
{
str = PyObject_Str( src );
must_unref_str = true;

4
include/frame_type.h
View File

@ -2,7 +2,7 @@
* This program source code file is part of KiCad, a free EDA CAD application.
*
* Copyright (C) 2014 CERN
* Copyright (C) 1992-2020 KiCad Developers, see AUTHORS.txt for contributors.
* Copyright (C) 1992-2021 KiCad Developers, see AUTHORS.txt for contributors.
* @author Maciej Suminski <maciej.suminski@cern.ch>
*
* This program is free software; you can redistribute it and/or
@ -48,6 +48,8 @@ enum FRAME_T
FRAME_CVPCB,
FRAME_CVPCB_DISPLAY,
FRAME_PYTHON,
FRAME_GERBER,
FRAME_PL_EDITOR,

3
include/kiface_ids.h
View File

@ -55,7 +55,8 @@ enum KIFACE_ADDR_ID : int
KIFACE_NEW_DRC_ENGINE,
KIFACE_LOAD_PCB,
KIFACE_LOAD_SCHEMATIC,
KIFACE_NETLIST_SCHEMATIC
KIFACE_NETLIST_SCHEMATIC,
KIFACE_SCRIPTING_WINDOW
};
#endif // KIFACE_IDS

1
include/kiway.h
View File

@ -154,7 +154,6 @@ struct KIFACE
#define KFCTL_STANDALONE (1<<0) ///< Running as a standalone Top.
#define KFCTL_CPP_PROJECT_SUITE (1<<1) ///< Running under C++ project mgr, possibly with others.
#define KFCTL_PY_PROJECT_SUITE (1<<2) ///< Running under python project mgr, possibly with others.
/**

4
kicad/CMakeLists.txt
View File

@ -98,11 +98,7 @@ install( TARGETS kicad
if( APPLE )
# "install( CODE ... )" will launch its own CMake, so no variables from
# this CMake instance are accessible... use helper to transfer
if( KICAD_SCRIPTING OR KICAD_SCRIPTING_MODULES )
set( SCRIPTING_HELPER "1" )
else()
set( SCRIPTING_HELPER "0" )
endif()
if( KICAD_SPICE )
set( SPICE_HELPER "1" )

142
pcbnew/CMakeLists.txt
View File

@ -17,15 +17,12 @@ add_subdirectory(router)
# psnrouter depends on make_lexer outputs in common (bug #1285878 )
add_dependencies( pnsrouter pcbcommon )
if( KICAD_SCRIPTING OR KICAD_SCRIPTING_MODULES )
file( MAKE_DIRECTORY ${CMAKE_CURRENT_BINARY_DIR}/swig )
# Infrequently needed headers go at end of search paths, append to INC_AFTER
set( INC_AFTER ${INC_AFTER} swig )
set( INC_AFTER ${INC_AFTER} ${CMAKE_SOURCE_DIR}/common/swig )
file( MAKE_DIRECTORY ${CMAKE_CURRENT_BINARY_DIR}/swig )
#message( STATUS "pcbnew INC_AFTER:${INC_AFTER}" )
endif()
# Infrequently needed headers go at end of search paths, append to INC_AFTER
set( INC_AFTER ${INC_AFTER} swig )
set( INC_AFTER ${INC_AFTER} ${CMAKE_SOURCE_DIR}/common/swig )
include_directories( BEFORE ${INC_BEFORE} )
include_directories(
@ -158,6 +155,8 @@ set( PCBNEW_DIALOGS
dialogs/panel_fp_editor_color_settings.cpp
dialogs/panel_fp_editor_defaults.cpp
dialogs/panel_fp_editor_defaults_base.cpp
dialogs/panel_pcbnew_action_plugins.cpp
dialogs/panel_pcbnew_action_plugins_base.cpp
dialogs/panel_pcbnew_color_settings.cpp
dialogs/panel_pcbnew_display_origin.cpp
dialogs/panel_pcbnew_display_origin_base.cpp
@ -178,13 +177,6 @@ set( PCBNEW_DIALOGS
footprint_wizard_frame_functions.cpp
)
if( KICAD_SCRIPTING AND KICAD_SCRIPTING_ACTION_MENU )
set( PCBNEW_DIALOGS ${PCBNEW_DIALOGS}
dialogs/panel_pcbnew_action_plugins.cpp
dialogs/panel_pcbnew_action_plugins_base.cpp
)
endif()
set( PCBNEW_BRDSTACKUP_MGR
board_stackup_manager/dielectric_material.cpp
board_stackup_manager/stackup_predefined_prms.cpp
@ -382,7 +374,7 @@ set( PCBNEW_SCRIPTING_PYTHON_HELPERS
swig/pcbnew_action_plugins.cpp
swig/pcbnew_footprint_wizards.cpp
swig/pcbnew_scripting_helpers.cpp
swig/python_scripting.cpp
swig/pcbnew_scripting.cpp
)
@ -396,10 +388,8 @@ if( COMPILER_SUPPORTS_WARNINGS )
endif()
if( KICAD_SCRIPTING )
# Disable all warnings for the SWIG file
if( CMAKE_COMPILER_IS_GNUCXX OR CMAKE_CXX_COMPILER_ID MATCHES "Clang" )
# Disable all warnings for the SWIG file
if( CMAKE_COMPILER_IS_GNUCXX OR CMAKE_CXX_COMPILER_ID MATCHES "Clang" )
if( MSYS )
# For some reason the .cxx file generated by SWIG cannot be linked if compiled with debug options:
# it creates a *lot* of not found symbols. So compile it with release mode
@ -407,19 +397,15 @@ if( KICAD_SCRIPTING )
else()
set_source_files_properties( pcbnew_wrap.cxx PROPERTIES COMPILE_FLAGS "-Wno-everything" )
endif()
endif()
endif()
set( PCBNEW_SCRIPTING_SRCS
set( PCBNEW_SCRIPTING_SRCS
${PCBNEW_SCRIPTING_DIALOGS}
pcbnew_wrap.cxx
${PCBNEW_SCRIPTING_PYTHON_HELPERS}
)
endif()
if( KICAD_SCRIPTING OR KICAD_SCRIPTING_MODULES )
set( SWIG_FLAGS
set( SWIG_FLAGS
-I${CMAKE_CURRENT_SOURCE_DIR}
-I${CMAKE_SOURCE_DIR}/include
-I${CMAKE_SOURCE_DIR}/scripting
@ -427,39 +413,34 @@ if( KICAD_SCRIPTING OR KICAD_SCRIPTING_MODULES )
-I${CMAKE_SOURCE_DIR}/libs/kimath/include
)
if( DEBUG )
if( DEBUG )
set( SWIG_FLAGS ${SWIG_FLAGS} -DDEBUG )
endif()
# collect CFLAGS , and pass them to swig later
get_directory_property( DirDefs DIRECTORY ${CMAKE_CURRENT_SOURCE_DIR} COMPILE_DEFINITIONS )
foreach( d ${DirDefs} )
set( SWIG_FLAGS ${SWIG_FLAGS} -D${d} )
endforeach()
endif()
# collect CFLAGS , and pass them to swig later
get_directory_property( DirDefs DIRECTORY ${CMAKE_CURRENT_SOURCE_DIR} COMPILE_DEFINITIONS )
foreach( d ${DirDefs} )
set( SWIG_FLAGS ${SWIG_FLAGS} -D${d} )
endforeach()
if( KICAD_SCRIPTING ) # Generate pcbnew.py and pcbnew_wrap.cxx using swig
# We deliberately do not use the CMake support for swig here,
# i.e. swig_add_footprint()) because we want full control.
# We deliberately do not use the CMake support for swig here,
# i.e. swig_add_footprint()) because we want full control.
# Avoid threading in SWIG (breaks threads in pcbnew)
set( SWIG_OPTS -python -c++ -nothreads )
# Avoid threading in SWIG (breaks threads in pcbnew)
set( SWIG_OPTS -python -c++ -nothreads )
if( KICAD_SCRIPTING_PYTHON3 )
set( SWIG_OPTS ${SWIG_OPTS} -py3 )
endif()
# Use python3-specific features
set( SWIG_OPTS ${SWIG_OPTS} -py3 )
set( SWIG_OPTS ${SWIG_OPTS} -outdir ${CMAKE_CURRENT_BINARY_DIR} ${SWIG_FLAGS} )
set( SWIG_OPTS ${SWIG_OPTS} -outdir ${CMAKE_CURRENT_BINARY_DIR} ${SWIG_FLAGS} )
if( EXISTS ${CMAKE_CURRENT_BINARY_DIR}/doxygen-xml )
if( EXISTS ${CMAKE_CURRENT_BINARY_DIR}/doxygen-xml )
set( SWIG_OPTS ${SWIG_OPTS} -DENABLE_DOCSTRINGS_FROM_DOXYGEN )
set( SWIG_OPTS ${SWIG_OPTS} -I${CMAKE_CURRENT_BINARY_DIR}/docstrings )
endif()
endif()
add_custom_command( OUTPUT ${CMAKE_CURRENT_BINARY_DIR}/pcbnew_wrap.cxx
add_custom_command( OUTPUT ${CMAKE_CURRENT_BINARY_DIR}/pcbnew_wrap.cxx
OUTPUT ${CMAKE_CURRENT_BINARY_DIR}/pcbnew.py
DEPENDS pcbcommon
@ -511,7 +492,6 @@ if( KICAD_SCRIPTING ) # Generate pcbnew.py and pcbnew_wrap.cxx using swig
WORKING_DIRECTORY ${CMAKE_CURRENT_SOURCE_DIR}
)
endif()
if( UNIX AND NOT APPLE )
list( APPEND PCBNEW_EXTRA_LIBS rt )
@ -523,8 +503,6 @@ endif()
###
if( DOXYGEN_FOUND )
if( KICAD_SCRIPTING )
# create XML files from doxygen parsing
add_custom_target( doxygen-python-xml
${CMAKE_COMMAND} -E remove_directory doxygen-python-xml
@ -568,7 +546,6 @@ if( DOXYGEN_FOUND )
DEPENDS ${DOXYGEN_PYTHON_SOURCES}
COMMENT "building doxygen docs into directory doxygen-python/html"
)
endif()
endif()
@ -632,6 +609,7 @@ target_link_libraries( pcbnew
# There's way too much crap coming in from common yet.
common
gal
scripting
${wxWidgets_LIBRARIES}
)
@ -708,6 +686,7 @@ set( PCBNEW_KIFACE_LIBRARIES
kiplatform
common
gal
scripting
dxflib_qcad
tinyspline_lib
idf3
@ -787,10 +766,10 @@ else()
)
endif()
if( KICAD_SCRIPTING )
if( NOT APPLE )
if( NOT APPLE )
install( FILES ${CMAKE_BINARY_DIR}/pcbnew/pcbnew.py DESTINATION ${PYTHON_DEST} )
else()
else()
# put into bundle at build time, it is relocated at install
add_custom_target( ScriptingPcbnewPyCopy ALL
COMMAND ${CMAKE_COMMAND} -E copy "${CMAKE_BINARY_DIR}/pcbnew/pcbnew.py" "${PYTHON_DEST}/"
@ -798,46 +777,22 @@ if( KICAD_SCRIPTING )
COMMENT "Copying pcbnew.py into ${PYTHON_DEST}"
)
add_dependencies( ScriptingPcbnewPyCopy ScriptingPythonDirectoryCreation )
endif()
# python plugins
install( DIRECTORY ${PROJECT_SOURCE_DIR}/pcbnew/python/plugins/
DESTINATION ${KICAD_DATA}/scripting/plugins
FILE_PERMISSIONS OWNER_EXECUTE OWNER_READ OWNER_WRITE GROUP_EXECUTE GROUP_READ WORLD_EXECUTE WORLD_READ
)
# python shell
if ( KICAD_SCRIPTING_WXPYTHON )
install( DIRECTORY ${PROJECT_SOURCE_DIR}/pcbnew/python/kicad_pyshell/
DESTINATION ${KICAD_DATA}/scripting/kicad_pyshell
FILE_PERMISSIONS OWNER_EXECUTE OWNER_READ OWNER_WRITE GROUP_EXECUTE GROUP_READ WORLD_EXECUTE WORLD_READ
)
endif()
endif()
# python plugins
install( DIRECTORY ${PROJECT_SOURCE_DIR}/pcbnew/python/plugins/
DESTINATION ${KICAD_DATA}/scripting/plugins
FILE_PERMISSIONS OWNER_EXECUTE OWNER_READ OWNER_WRITE GROUP_EXECUTE GROUP_READ WORLD_EXECUTE WORLD_READ
)
if( KICAD_SCRIPTING_MODULES )
# 1) KICAD_SCRIPTING enables python inside _pcbnew.kiface.
# 2) KICAD_SCRIPTING_MODULES enables python from the OS command line for pcbnew.
# When python is running within _pcbnew.kiface (case 1 above) it uses said
# kiface for the native part of the pcbnew python module. This is a kind of
# circular dependency that works well. When running python from
# the command line (case 2 above) then python needs a native portion of the pcbnew
# python module also, and this is _pcbnew.{so,pyd}. It turns out that the
# kiface file is built adequately to serve the needs of 2) for now if it is
# merely renamed. This is phase 1 of a 2 step plan.
# In phase 2 we will use the _pcbnew.kiface file without renaming, by doctoring
# what the python portion of the pcbnew python module wants to load when run
# from the command line, case 2 above.
# Here is built the _pcbnew.{so,pyd} which is the native part of the pcbnew Python library
# when Python is used from the command line.
# Here is built the _pcbnew.{so,pyd} which is the native part of the pcbnew Python library
# when Python is used from the command line.
if( MINGW OR VCPKG_TOOLCHAIN )
if( MINGW OR VCPKG_TOOLCHAIN )
install( FILES ${CMAKE_BINARY_DIR}/pcbnew/_pcbnew.pyd DESTINATION ${PYTHON_DEST} )
set( PYMOD_EXT "pyd" )
elseif( APPLE )
elseif( APPLE )
# put everything into bundle at build time, it is relocated at install
add_custom_target( ScriptingModulesPcbnewSoCopy ALL
COMMAND ${CMAKE_COMMAND} -E copy "${CMAKE_BINARY_DIR}/pcbnew/_pcbnew.so" "${PYTHON_DEST}/"
@ -846,12 +801,12 @@ if( KICAD_SCRIPTING_MODULES )
)
add_dependencies( ScriptingModulesPcbnewSoCopy ScriptingPythonDirectoryCreation )
set( PYMOD_EXT "so" )
else() # only linux remains among supported platforms
else() # only linux remains among supported platforms
install( FILES ${CMAKE_CURRENT_BINARY_DIR}/_pcbnew.kiface DESTINATION ${PYTHON_DEST} COMPONENT binary RENAME "_pcbnew.so" )
set( PYMOD_EXT "so" )
endif()
endif()
if( APPLE )
if( APPLE )
add_custom_command( OUTPUT ${CMAKE_CURRENT_BINARY_DIR}/_pcbnew.${PYMOD_EXT}
DEPENDS pcbnew_kiface
COMMAND ${CMAKE_COMMAND} -E copy ${OSX_BUNDLE_BUILD_KIFACE_DIR}/_pcbnew.kiface _pcbnew.${PYMOD_EXT}
@ -861,7 +816,7 @@ if( KICAD_SCRIPTING_MODULES )
pcbnew_python_module ALL
DEPENDS ${CMAKE_CURRENT_BINARY_DIR}/_pcbnew.${PYMOD_EXT}
)
else()
else()
# For phase 1, copy _pcbnew.kiface to the python module.
add_custom_command( OUTPUT ${CMAKE_CURRENT_BINARY_DIR}/_pcbnew.${PYMOD_EXT}
DEPENDS pcbnew_kiface
@ -872,18 +827,13 @@ if( KICAD_SCRIPTING_MODULES )
pcbnew_python_module ALL
DEPENDS ${CMAKE_CURRENT_BINARY_DIR}/_pcbnew.${PYMOD_EXT}
)
endif()
endif()
if( APPLE )
if( KICAD_SCRIPTING OR KICAD_SCRIPTING_MODULES )
# If we don't have wxPython, then we must create the site-packages directory
add_custom_target( ScriptingPythonDirectoryCreation ALL
COMMAND ${CMAKE_COMMAND} -E make_directory "${PYTHON_DEST}"
COMMENT "Creating Python library directory ${PYTHON_DEST}"
)
endif()
endif()

2
pcbnew/dialogs/dialog_footprint_wizard_list.cpp
View File

@ -36,7 +36,7 @@
#include <dialog_footprint_wizard_list.h>
#include <footprint_wizard_frame.h>
#include <python_scripting.h>
#include <swig/pcbnew_scripting.h>
enum FPGeneratorRowNames
{

2
pcbnew/dialogs/panel_pcbnew_action_plugins.cpp
View File

@ -30,7 +30,7 @@
#include <grid_tricks.h>
#include <widgets/wx_grid.h>
#include <python_scripting.h>
#include <pcbnew_scripting.h>
#define GRID_CELL_MARGIN 4

35
pcbnew/pcb_edit_frame.cpp
View File

@ -50,6 +50,7 @@
#include <project/project_file.h>
#include <project/project_local_settings.h>
#include <project/net_settings.h>
#include <python_scripting.h>
#include <settings/common_settings.h>
#include <settings/settings_manager.h>
#include <tool/tool_manager.h>
@ -96,8 +97,8 @@
#include <widgets/panel_selection_filter.h>
#include <kiplatform/app.h>
#include <python_scripting.h>
#include <action_plugin.h>
#include "../scripting/python_scripting.h"
using namespace std::placeholders;
@ -1292,18 +1293,26 @@ void PCB_EDIT_FRAME::UpdateUserInterface()
void PCB_EDIT_FRAME::ScriptingConsoleEnableDisable()
{
wxWindow * pythonPanelFrame = findPythonConsole();
bool pythonPanelShown = true;
KIWAY_PLAYER* frame = Kiway().Player( FRAME_PYTHON, false );
if( pythonPanelFrame == NULL )
pythonPanelFrame = CreatePythonShellWindow( this, pythonConsoleNameId() );
else
pythonPanelShown = ! pythonPanelFrame->IsShown();
if( !frame )
{
frame = Kiway().Player( FRAME_PYTHON, true, this );
if( !frame->IsVisible() )
frame->Show( true );
// On Windows, Raise() does not bring the window on screen, when iconized
if( frame->IsIconized() )
frame->Iconize( false );
frame->Raise();
return;
}
frame->Show( !frame->IsVisible() );
if( pythonPanelFrame )
pythonPanelFrame->Show( pythonPanelShown );
else
wxMessageBox( wxT( "Error: unable to create the Python Console" ) );
}
@ -1558,7 +1567,7 @@ void PCB_EDIT_FRAME::PythonSyncEnvironmentVariables()
// Set the environment variables for python scripts
// note: the string will be encoded UTF8 for python env
for( auto& var : vars )
pcbnewUpdatePythonEnvVar( var.first, var.second.GetValue() );
UpdatePythonEnvVar( var.first, var.second.GetValue() );
// Because the env vars can de modified by the python scripts (rewritten in UTF8),
// regenerate them (in Unicode) for our normal environment
@ -1571,7 +1580,7 @@ void PCB_EDIT_FRAME::PythonSyncProjectName()
{
wxString evValue;
wxGetEnv( PROJECT_VAR_NAME, &evValue );
pcbnewUpdatePythonEnvVar( wxString( PROJECT_VAR_NAME ).ToStdString(), evValue );
UpdatePythonEnvVar( wxString( PROJECT_VAR_NAME ).ToStdString(), evValue );
// Because PROJECT_VAR_NAME can be modified by the python scripts (rewritten in UTF8),
// regenerate it (in Unicode) for our normal environment

104
pcbnew/pcbnew.cpp
View File

@ -28,7 +28,6 @@
* @brief Pcbnew main program.
*/
#include <python_scripting.h>
#include <pcbnew_scripting_helpers.h>
#include <pgm_base.h>
#include <kiface_i.h>
@ -53,6 +52,9 @@
#include <footprint_preview_panel.h>
#include <footprint_info_impl.h>
#include <dialogs/dialog_configure_paths.h>
#include <paths.h>
#include <python_scripting.h>
#include "invoke_pcb_dialog.h"
#include "dialog_global_fp_lib_table_config.h"
#include <wildcards_and_files_ext.h>
@ -208,97 +210,6 @@ PGM_BASE* PgmOrNull()
#endif
static bool scriptingSetup()
{
#if defined( __WINDOWS__ )
// If our python.exe (in kicad/bin) exists, force our kicad python environment
wxString kipython = FindKicadFile( "python.exe" );
// we need only the path:
wxFileName fn( kipython );
kipython = fn.GetPath();
// If our python install is existing inside kicad, use it
// Note: this is useful only when another python version is installed
if( wxDirExists( kipython ) )
{
// clear any PYTHONPATH and PYTHONHOME env var definition: the default
// values work fine inside Kicad:
wxSetEnv( wxT( "PYTHONPATH" ), wxEmptyString );
wxSetEnv( wxT( "PYTHONHOME" ), wxEmptyString );
// Add our python executable path in first position:
wxString ppath;
wxGetEnv( wxT( "PATH" ), &ppath );
kipython << wxT( ";" ) << ppath;
wxSetEnv( wxT( "PATH" ), kipython );
}
#elif defined( __WXMAC__ )
// Add default paths to PYTHONPATH
wxString pypath;
// Bundle scripting folder (<kicad.app>/Contents/SharedSupport/scripting)
pypath += PATHS::GetOSXKicadDataDir() + wxT( "/scripting" );
// $(KICAD_PATH)/scripting/plugins is always added in kicadplugins.i
if( wxGetenv("KICAD_PATH") != NULL )
{
pypath += wxT( ":" ) + wxString( wxGetenv("KICAD_PATH") );
}
// OSX_BUNDLE_PYTHON_SITE_PACKAGES_DIR is provided via the build system.
pypath += wxT( ":" ) + Pgm().GetExecutablePath() + wxT( OSX_BUNDLE_PYTHON_SITE_PACKAGES_DIR );
// Original content of $PYTHONPATH
if( wxGetenv( wxT( "PYTHONPATH" ) ) != NULL )
{
pypath = wxString( wxGetenv( wxT( "PYTHONPATH" ) ) ) + wxT( ":" ) + pypath;
}
// set $PYTHONPATH
wxSetEnv( "PYTHONPATH", pypath );
wxString pyhome;
pyhome += Pgm().GetExecutablePath() +
wxT( "Contents/Frameworks/Python.framework/Versions/Current" );
// set $PYTHONHOME
wxSetEnv( "PYTHONHOME", pyhome );
#else
wxString pypath;
// PYTHON_DEST is the scripts install dir as determined by the build system.
pypath = Pgm().GetExecutablePath() + wxT( "../" PYTHON_DEST );
if( !wxIsEmpty( wxGetenv( wxT( "PYTHONPATH" ) ) ) )
pypath = wxString( wxGetenv( wxT( "PYTHONPATH" ) ) ) + wxT( ":" ) + pypath;
wxSetEnv( wxT( "PYTHONPATH" ), pypath );
#endif
wxFileName path( PyPluginsPath( true ) + wxT("/") );
// Ensure the user plugin path exists, and create it if not.
// However, if it cannot be created, this is not a fatal error.
if( !path.DirExists() && !path.Mkdir( wxS_DIR_DEFAULT, wxPATH_MKDIR_FULL ) )
wxLogError( "Warning: could not create user scripting path %s", path.GetPath() );
if( !pcbnewInitPythonScripting( TO_UTF8( PyScriptingPath() ), TO_UTF8( PyScriptingPath( true ) ) ) )
{
wxLogError( "pcbnewInitPythonScripting() failed." );
return false;
}
return true;
}
void PythonPluginsReloadBase()
{
// Reload plugin list: reload Python plugins if they are newer than the already loaded,
@ -371,21 +282,12 @@ bool IFACE::OnKifaceStart( PGM_BASE* aProgram, int aCtlBits )
}
}
scriptingSetup();
return true;
}
void IFACE::OnKifaceEnd()
{
// Restore the thread state and tell Python to cleanup after itself.
// wxPython will do its own cleanup as part of that process.
// This should only be called if python was setup correctly.
if( IsWxPythonLoaded() )
pcbnewFinishPythonScripting();
end_common();
}

11
pcbnew/swig/TODO.txt
View File

@ -1,11 +0,0 @@
* think about documentation, how to do it
* Action plugins:
right click hooks,
toolbar hooks,
menu hooks,
* IO plugins
* better footprint wizard (preview in footprint wizard list)

2
pcbnew/swig/pcbnew_action_plugins.cpp
View File

@ -29,9 +29,9 @@
#include <zone.h>
#include <menus_helpers.h>
#include <pcbnew_settings.h>
#include <python_scripting.h>
#include <tool/action_menu.h>
#include <tool/action_toolbar.h>
#include "../../scripting/python_scripting.h"
PYTHON_ACTION_PLUGIN::PYTHON_ACTION_PLUGIN( PyObject* aAction )
{

13
pcbnew/swig/pcbnew_footprint_wizards.cpp
View File

@ -30,7 +30,7 @@
#include "pcbnew_footprint_wizards.h"
#include <cstdio>
#include <macros.h>
#include <python_scripting.h>
#include "../../scripting/python_scripting.h"
PYTHON_FOOTPRINT_WIZARD::PYTHON_FOOTPRINT_WIZARD( PyObject* aWizard )
@ -175,17 +175,10 @@ int PYTHON_FOOTPRINT_WIZARD::GetNumParameterPages()
if( result )
{
#if PY_MAJOR_VERSION >= 3
if( !PyLong_Check( result ) )
return -1;
ret = PyLong_AsLong( result );
#else
if( !PyInt_Check( result ) )
return -1;
ret = PyInt_AsLong( result );
#endif
Py_DECREF( result );
}
@ -316,11 +309,7 @@ wxString PYTHON_FOOTPRINT_WIZARD::SetParameterValues( int aPage, wxArrayString&
for( int i = 0; i < len; i++ )
{
wxString& str = aValues[i];
#if PY_MAJOR_VERSION >= 3
PyObject* py_str = PyUnicode_FromString( (const char*) str.mb_str() );
#else
PyObject* py_str = PyString_FromString( (const char*) str.mb_str() );
#endif
PyList_SetItem( py_list, i, py_str );
}

186
pcbnew/swig/pcbnew_scripting.cpp Normal file
View File

@ -0,0 +1,186 @@
/*
* This program source code file is part of KiCad, a free EDA CAD application.
*
* Copyright (C) 2012 NBEE Embedded Systems, Miguel Angel Ajo <miguelangel@nbee.es>
* Copyright (C) 1992-2019 KiCad Developers, see AUTHORS.txt for contributors.
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License
* as published by the Free Software Foundation; either version 2
* of the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, you may find one here:
* http://www.gnu.org/licenses/old-licenses/gpl-2.0.html
* or you may search the http://www.gnu.org website for the version 2 license,
* or you may write to the Free Software Foundation, Inc.,
* 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA
*/
/**
* @file python_scripting.cpp
* @brief methods to add scripting capabilities inside pcbnew
*/
#include "../../scripting/python_scripting.h"
#include <cstdlib>
#include <cstring>
#include <Python.h>
#include <sstream>
#include <eda_base_frame.h>
#include <gal/color4d.h>
#include <trace_helpers.h>
#include <kicad_string.h>
#include <paths.h>
#include <pgm_base.h>
#include <settings/settings_manager.h>
#include <kiplatform/environment.h>
#include <wx/app.h>
#include <config.h>
/**
* Initialize the python environment and publish the Pcbnew interface inside it.
*
* This initializes all the wxPython interface and returns the python thread control structure
*/
bool pcbnewInitPythonScripting( const char* aStockScriptingPath, const char* aUserScriptingPath )
{
int retv;
char cmd[1024];
// Load pcbnew inside Python and load all the user plugins and package-based plugins
{
PyLOCK lock;
// Load os so that we can modify the environment variables through python
snprintf( cmd, sizeof( cmd ), "import sys, os, traceback\n"
"sys.path.append(\".\")\n"
"import pcbnew\n"
"pcbnew.LoadPlugins(\"%s\", \"%s\")",
aStockScriptingPath, aUserScriptingPath );
retv = PyRun_SimpleString( cmd );
if( retv != 0 )
wxLogError( "Python error %d occurred running command:\n\n`%s`", retv, cmd );
}
return true;
}
/**
* Run a python method from the pcbnew module.
*
* @param aMethodName is the name of the method (like "pcbnew.myfunction" )
* @param aNames will contain the returned string
*/
static void pcbnewRunPythonMethodWithReturnedString( const char* aMethodName, wxString& aNames )
{
aNames.Clear();
PyLOCK lock;
PyErr_Clear();
PyObject* builtins = PyImport_ImportModule( "pcbnew" );
wxASSERT( builtins );
if( !builtins ) // Something is wrong in pcbnew.py module (incorrect version?)
return;
PyObject* globals = PyDict_New();
PyDict_SetItemString( globals, "pcbnew", builtins );
Py_DECREF( builtins );
// Build the python code
char cmd[1024];
snprintf( cmd, sizeof(cmd), "result = %s()", aMethodName );
// Execute the python code and get the returned data
PyObject* localDict = PyDict_New();
PyObject* pobj = PyRun_String( cmd, Py_file_input, globals, localDict);
Py_DECREF( globals );
if( pobj )
{
PyObject* str = PyDict_GetItemString(localDict, "result" );
const char* str_res = NULL;
if(str)
{
PyObject* temp_bytes = PyUnicode_AsEncodedString( str, "UTF-8", "strict" );
if( temp_bytes != NULL )
{
str_res = PyBytes_AS_STRING( temp_bytes );
aNames = FROM_UTF8( str_res );
Py_DECREF( temp_bytes );
}
else
{
wxLogMessage( "cannot encode unicode python string" );
}
}
else
{
aNames = wxString();
}
Py_DECREF( pobj );
}
Py_DECREF( localDict );
if( PyErr_Occurred() )
wxLogMessage( PyErrStringWithTraceback() );
}
void pcbnewGetUnloadableScriptNames( wxString& aNames )
{
pcbnewRunPythonMethodWithReturnedString( "pcbnew.GetUnLoadableWizards", aNames );
}
void pcbnewGetScriptsSearchPaths( wxString& aNames )
{
pcbnewRunPythonMethodWithReturnedString( "pcbnew.GetWizardsSearchPaths", aNames );
}
void pcbnewGetWizardsBackTrace( wxString& aTrace )
{
pcbnewRunPythonMethodWithReturnedString( "pcbnew.GetWizardsBackTrace", aTrace );
// Filter message before displaying them
// a trace starts by "Traceback" and is followed by 2 useless lines
// for our purpose
wxArrayString traces;
wxStringSplit( aTrace, traces, '\n' );
// Build the filtered message (remove useless lines)
aTrace.Clear();
for( unsigned ii = 0; ii < traces.Count(); ++ii )
{
if( traces[ii].Contains( "Traceback" ) )
{
ii += 2; // Skip this line and next lines which are related to pcbnew.py module
if( !aTrace.IsEmpty() ) // Add separator for the next trace block
aTrace << "\n**********************************\n";
}
else
aTrace += traces[ii] + "\n";
}
}

57
pcbnew/swig/pcbnew_scripting.h Normal file
View File

@ -0,0 +1,57 @@
/*
* This program source code file is part of KiCad, a free EDA CAD application.
*
* Copyright (C) 1992-2019 KiCad Developers, see AUTHORS.txt for contributors.
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License
* as published by the Free Software Foundation; either version 2
* of the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, you may find one here:
* http://www.gnu.org/licenses/old-licenses/gpl-2.0.html
* or you may search the http://www.gnu.org website for the version 2 license,
* or you may write to the Free Software Foundation, Inc.,
* 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA
*/
#ifndef __PYTHON_SCRIPTING_H
#define __PYTHON_SCRIPTING_H
#include <wx/string.h>
/**
* Initialize the Python engine inside pcbnew.
*/
bool pcbnewInitPythonScripting( const char* aStockScriptingPath, const char* aUserScriptingPath );
/**
* Collect the list of python scripts which could not be loaded.
*
* @param aNames is a wxString which will contain the filenames (separated by '\n')
*/
void pcbnewGetUnloadableScriptNames( wxString& aNames );
/**
* Collect the list of paths where python scripts are searched.
*
* @param aNames is a wxString which will contain the paths (separated by '\n')
*/
void pcbnewGetScriptsSearchPaths( wxString& aNames );
/**
* Return the backtrace of errors (if any) when wizard python scripts are loaded.
*
* @param aNames is a wxString which will contain the trace
*/
void pcbnewGetWizardsBackTrace( wxString& aNames );
#endif // __PYTHON_SCRIPTING_H

11
pcbnew/swig/tests/test1.py
View File

@ -1,11 +0,0 @@
from __future__ import print_function
import pcbnew
pcb = pcbnew.GetBoard()
for m in pcb.GetFootprints():
print(m.GetPosition())
for p in m.Pads():
print("p=>", p.GetPosition(), p.GetName())
print(p.GetPosition())

10
pcbnew/swig/tests/test2.py
View File

@ -1,10 +0,0 @@
from __future__ import print_function
import pcbnew
pcb = pcbnew.GetBoard()
for m in pcb.GetFootprints():
print(m.GetReference(), "(", m.GetValue(), ") at ", m.GetPosition())
for p in m.Pads():
print(" pad", p.GetName(), "at", p.GetPosition())

15
pcbnew/swig/tests/test_archive_modules.py
View File

@ -1,15 +0,0 @@
#
# manual test session for "Tools -> Scripting Console"
# verify that "board-archive.pretty" folder is present
# result should be identical to "File -> Archive -> ..."
#
import os
import pcbnew
board = pcbnew.GetBoard()
board_path = board.GetFileName()
path_tuple = os.path.splitext(board_path)
board_prefix = path_tuple[0]
aStoreInNewLib = True
aLibName = "footprint-export"
aLibPath = board_prefix + "-archive.pretty"
pcbnew.ArchiveModulesOnBoard(aStoreInNewLib,aLibName,aLibPath)

13
pcbnew/swig/tests/test_specctra_export.py
View File

@ -1,13 +0,0 @@
#
# manual test session for "Tools -> Scripting Console"
# verify that "board.dsn" file is created after this session
# result should be identical to "File -> Export -> Specctra DSN"
#
import os
import pcbnew
board = pcbnew.GetBoard()
board_path = board.GetFileName()
path_tuple = os.path.splitext(board_path)
board_prefix = path_tuple[0]
export_path = board_prefix + ".dsn"
pcbnew.ExportSpecctraDSN(export_path)

13
pcbnew/swig/tests/test_specctra_import.py
View File

@ -1,13 +0,0 @@
#
# manual test session for "Tools -> Scripting Console"
# verify that "board.ses" file is applied after this session
# result should be identical to "File -> Import -> Specctra Session"
#
import os
import pcbnew
board = pcbnew.GetBoard()
board_path = board.GetFileName()
path_tuple = os.path.splitext(board_path)
board_prefix = path_tuple[0]
import_path = board_prefix + ".ses"
pcbnew.ImportSpecctraSES(import_path)

2
pcbnew/toolbars_pcb_editor.cpp
View File

@ -48,7 +48,7 @@
#include <wx/wupdlock.h>
#include <wx/dcmemory.h>
#include <python_scripting.h>
#include "../scripting/python_scripting.h"
/* Data to build the layer pair indicator button */

18
qa/CMakeLists.txt
View File

@ -21,25 +21,21 @@
include(KiCadQABuildUtils)
if( KICAD_SCRIPTING_MODULES )
if( KICAD_TEST_XML_OUTPUT )
if( KICAD_TEST_XML_OUTPUT )
# To do this, you will need xmlrunner
set( PY_TEST_ARGS --xml=${CMAKE_CURRENT_BINARY_DIR}/python.xunit-results )
endif()
endif()
# Test that runs the QA tests through scripting
add_test( NAME qa_python
# Test that runs the QA tests through scripting
add_test( NAME qa_python
COMMAND ${PYTHON_EXECUTABLE} test.py ${PY_TEST_ARGS}
WORKING_DIRECTORY ${CMAKE_CURRENT_SOURCE_DIR}
)
)
set_property( TEST qa_python
set_property( TEST qa_python
PROPERTY ENVIRONMENT "PYTHONPATH=${CMAKE_BINARY_DIR}/pcbnew${PYTHON_QA_PATH}"
)
endif()
)
# Shared QA helper libraries
add_subdirectory( qa_utils )

1
qa/pcbnew/CMakeLists.txt
View File

@ -73,6 +73,7 @@ target_link_libraries( qa_pcbnew
gal
common
gal
scripting
qa_utils
dxflib_qcad
tinyspline_lib

1
qa/pcbnew_tools/CMakeLists.txt
View File

@ -54,6 +54,7 @@ target_link_libraries( qa_pcbnew_tools
common
qa_utils
markdown_lib
scripting
${PCBNEW_IO_LIBRARIES}
${wxWidgets_LIBRARIES}
${GDI_PLUS_LIBRARIES}

79
scripting/CMakeLists.txt Normal file
View File

@ -0,0 +1,79 @@
set( KIPYTHON_SRCS
kipython_settings.cpp
python_scripting.cpp
)
add_library( scripting STATIC
${KIPYTHON_SRCS}
)
add_subdirectory( pybind11 )
target_link_libraries( scripting
${wxWidgets_LIBRARIES} # wxLogDebug, wxASSERT
${Boost_LIBRARIES} # Because of the OPT types
common
)
target_include_directories( scripting PUBLIC
${PYTHON_INCLUDE_DIRS}
${PROJECT_BINARY_DIR}
${CMAKE_CURRENT_SOURCE_DIR}
)
target_include_directories( scripting PRIVATE
$<TARGET_PROPERTY:nlohmann_json,INTERFACE_INCLUDE_DIRECTORIES>
${PROJECT_SOURCE_DIR}/bitmaps_png/include
${PROJECT_SOURCE_DIR}/include
${wxWidgets_LIBRARIES}
${Boost_INCLUDE_DIR}
)
# Setup the KIFACE
add_library( scripting_kiface MODULE
kicad_scripting_main.cpp
${KIPYTHON_SRCS}
)
set_source_files_properties( kicad_scripting_main.cpp PROPERTIES
# The KIFACE is in kicad_scripting_main.cpp, export it:
COMPILE_DEFINITIONS "BUILD_KIWAY_DLL;COMPILING_DLL"
)
target_include_directories( scripting_kiface PRIVATE
${PROJECT_SOURCE_DIR}/bitmaps_png/include
${PROJECT_SOURCE_DIR}/include
${wxWidgets_LIBRARIES}
${Boost_INCLUDE_DIR}
)
target_link_libraries( scripting_kiface
scripting
)
set_target_properties( scripting_kiface PROPERTIES
OUTPUT_NAME kipython
PREFIX ${KIFACE_PREFIX}
SUFFIX ${KIFACE_SUFFIX}
)
if( MAKE_LINK_MAPS )
set_target_properties( scripting_kiface PROPERTIES
LINK_FLAGS "-Wl,-cref,-Map=_scripting.kiface.map" )
endif()
if( APPLE )
set_target_properties( scripting_kiface PROPERTIES
LIBRARY_OUTPUT_DIRECTORY ${OSX_BUNDLE_BUILD_KIFACE_DIR}
)
else()
install( TARGETS scripting_kiface
DESTINATION ${KICAD_BIN}
COMPONENT binary
)
endif()
# python shell installation
install( DIRECTORY ${PROJECT_SOURCE_DIR}/scripting/kicad_pyshell/
DESTINATION ${KICAD_DATA}/scripting/kicad_pyshell
FILE_PERMISSIONS OWNER_EXECUTE OWNER_READ OWNER_WRITE GROUP_EXECUTE GROUP_READ WORLD_EXECUTE WORLD_READ
)

36
pcbnew/python/kicad_pyshell/__init__.py → scripting/kicad_pyshell/__init__.py
View File

@ -3,15 +3,12 @@
This module provides the python shell for KiCad.
Currently the shell is only available inside PCBNEW.
PCBNEW starts the shell once, by calling makePcbnewShellWindow() the
KiCad starts the shell once, by calling makePcbnewShellWindow() the
first time it is opened, subsequently the shell window is just hidden
or shown, as per user requirements.
IF makePcbnewShellWindow() is called again, a second/third shell window
can be created. PCBNEW does not do this, but a user may call this from
the first shell if they require.
can be created.
"""
import wx
@ -23,12 +20,12 @@ from wx.py.editor import EditorNotebook
import pcbnew
INTRO = "KiCAD:PCBNEW - Python Shell - PyAlaMode %s" % version.VERSION
INTRO = "KiCad - Python Shell"
class PcbnewPyShell(editor.EditorNotebookFrame):
class KiCadPyShell(editor.EditorNotebookFrame):
"""The Pythonshell of PCBNEW."""
"""The KiCad Pythonshell based on wxPyShell"""
def _setup_startup(self):
"""Initialise the startup script."""
@ -43,14 +40,16 @@ class PcbnewPyShell(editor.EditorNotebookFrame):
default_startup = open(self.startup_file, 'w')
# provide the content for the default startup file.
default_startup.write(
"### DEFAULT STARTUP FILE FOR KiCad:PCBNEW Python Shell\n" +
"### DEFAULT STARTUP FILE FOR KiCad Python Shell\n" +
"# Enter any Python code you would like to execute when" +
" the PCBNEW python shell first runs.\n" +
"\n" +
"# Eg:\n" +
"# For example, uncomment the following lines to import the current board\n" +
"\n" +
"# import pcbnew\n" +
"# board = pcbnew.GetBoard()\n")
"# import eeschema\n" +
"# board = pcbnew.GetBoard()\n" +
"# sch = eeschema.GetSchematic()\n")
default_startup.close()
def _setup(self):
@ -62,13 +61,9 @@ class PcbnewPyShell(editor.EditorNotebookFrame):
self.notebook = EditorNotebook(parent=self)
intro = 'Py %s' % version.VERSION
import imp
module = imp.new_module('__main__')
if sys.version_info >= (3,):
import builtins
module = imp.new_module('__main__')
module.__dict__['__builtins__'] = builtins
else:
import __builtin__
module.__dict__['__builtins__'] = __builtin__
namespace = module.__dict__.copy()
self.config_dir = pcbnew.SETTINGS_MANAGER.GetUserSettingsPath()
@ -112,12 +107,9 @@ class PcbnewPyShell(editor.EditorNotebookFrame):
def OnAbout(self, event):
"""Display an About window."""
title = 'About : KiCad:PCBNEW - Python Shell'
text = "Enhanced Python Shell for KiCad:PCBNEW\n\n" + \
"This KiCad Python Shell is based on wxPython PyAlaMode.\n\n" + \
"see: http://wiki.wxpython.org/PyAlaMode\n\n" + \
title = 'About : KiCad - Python Shell'
text = "Enhanced Python Shell for KiCad\n\n" + \
"KiCad Revision: %s\n" % "??.??" + \
"PyAlaMode Revision : %s\n" % version.VERSION + \
"Platform: %s\n" % sys.platform + \
"Python Version: %s\n" % sys.version.split()[0] + \
"wxPython Version: %s\n" % wx.VERSION_STRING + \
@ -227,6 +219,6 @@ def makePcbnewShellWindow(parent=None):
Returns:
The handle to the new window.
"""
pyshell = PcbnewPyShell(parent, id=-1, title=INTRO)
pyshell = KiCadPyShell(parent, id=-1, title=INTRO)
pyshell.Show()
return pyshell

106
scripting/kicad_scripting_main.cpp
View File

@ -18,10 +18,16 @@
*/
#include <kiface_i.h>
#include <kiface_ids.h>
#include <kiway.h>
#include <pgm_base.h>
#include <settings/settings_manager.h>
#include <kipython_settings.h>
#include <python_scripting.h>
#include <sstream>
//-----<KIFACE>-----------------------------------------------------------------
@ -31,11 +37,88 @@ static struct IFACE : public KIFACE_I
{
bool OnKifaceStart( PGM_BASE* aProgram, int aCtlBits ) override;
void OnKifaceEnd() override;
wxWindow* CreateWindow( wxWindow* aParent, int aClassId, KIWAY* aKiway, int aCtlBits = 0 ) override
{
InitSettings( new BITMAP2CMP_SETTINGS );
InitSettings( new KIPYTHON_SETTINGS );
Pgm().GetSettingsManager().RegisterSettings( KifaceSettings() );
return new BM2CMP_FRAME( aKiway, aParent );
// passing window ids instead of pointers is because wxPython is not
// exposing the needed c++ apis to make that possible.
std::stringstream pcbnew_pyshell_one_step;
pcbnew_pyshell_one_step << "import kicad_pyshell\n";
pcbnew_pyshell_one_step << "import wx\n";
pcbnew_pyshell_one_step << "\n";
// parent is actually *PCB_EDIT_FRAME
if( aParent )
{
pcbnew_pyshell_one_step << "parent = wx.FindWindowById( " << aParent->GetId() << " )\n";
pcbnew_pyshell_one_step << "newshell = kicad_pyshell.makePcbnewShellWindow( parent )\n";
}
else
{
pcbnew_pyshell_one_step << "newshell = kicad_pyshell.makePcbnewShellWindow()\n";
}
pcbnew_pyshell_one_step << "newshell.SetName( \"KiCad Shell\" )\n";
// return value goes into a "global". It's not actually global, but rather
// the dict that is passed to PyRun_String
pcbnew_pyshell_one_step << "retval = newshell.GetId()\n";
// As always, first grab the GIL
PyLOCK lock;
// Now make a dictionary to serve as the global namespace when the code is
// executed. Put a reference to the builtins module in it.
PyObject* globals = PyDict_New();
PyObject* builtins = PyImport_ImportModule( "builtins" );
wxASSERT( builtins );
PyDict_SetItemString( globals, "__builtins__", builtins );
Py_DECREF( builtins );
// Execute the code to make the makeWindow function we defined above
PyObject* result = PyRun_String( pcbnew_pyshell_one_step.str().c_str(), Py_file_input,
globals, globals );
// Was there an exception?
if( !result )
{
PyErr_Print();
return NULL;
}
Py_DECREF( result );
result = PyDict_GetItemString( globals, "retval" );
if( !PyLong_Check( result ) )
{
wxLogError( "creation of scripting window didn't return a number" );
return NULL;
}
const long windowId = PyLong_AsLong( result );
// It's important not to decref globals before extracting the window id.
// If you do it early, globals, and the retval int it contains, may/will be garbage collected.
// We do not need to decref result, because GetItemString returns a borrowed reference.
Py_DECREF( globals );
wxWindow* window = wxWindow::FindWindowById( windowId );
if( !window )
{
wxLogError( "unable to find pyshell window with id %d", windowId );
return NULL;
}
return window;
}
/**
@ -58,7 +141,7 @@ static struct IFACE : public KIFACE_I
KIFACE_I( aDSOname, aType )
{}
} kiface( "BMP2CMP", KIWAY::FACE_PYTHON );
} kiface( "KIPYTHON", KIWAY::FACE_PYTHON );
} // namespace KIPYTHON
@ -81,16 +164,29 @@ KIFACE* KIFACE_GETTER( int* aKIFACEversion, int aKIWAYversion, PGM_BASE* aProgra
}
#if defined(BUILD_KIWAY_DLLS)
PGM_BASE& Pgm()
{
wxASSERT( process ); // KIFACE_GETTER has already been called.
return *process;
}
#endif
// Similar to PGM_BASE& Pgm(), but return nullptr when a *.ki_face is run from
// a python script or something else.
PGM_BASE* PgmOrNull()
{
return process;
}
bool IFACE::OnKifaceStart( PGM_BASE* aProgram, int aCtlBits )
{
ScriptingSetup();
return start_common( aCtlBits );
}
void IFACE::OnKifaceEnd()
{
end_common();
}

32
scripting/kipython_settings.cpp Normal file
View File

@ -0,0 +1,32 @@
/*
* This program source code file is part of KICAD, a free EDA CAD application.
*
* Copyright (C) 2021 Kicad Developers, see AUTHORS.txt for contributors.
*
* This program is free software: you can redistribute it and/or modify it
* under the terms of the GNU General Public License as published by the
* Free Software Foundation, either version 3 of the License, or (at your
* option) any later version.
*
* This program is distributed in the hope that it will be useful, but
* WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* General Public License for more details.
*
* You should have received a copy of the GNU General Public License along
* with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include <kipython_settings.h>
#include <settings/parameters.h>
#include <wx/config.h>
///! Update the schema version whenever a migration is required
const int kipythonSchemaVersion = 0;
KIPYTHON_SETTINGS::KIPYTHON_SETTINGS() :
APP_SETTINGS_BASE( "kipython", kipythonSchemaVersion )
{
}

38
scripting/kipython_settings.h Normal file
View File

@ -0,0 +1,38 @@
/*
* This program source code file is part of KICAD, a free EDA CAD application.
*
* Copyright (C) 2021 Kicad Developers, see AUTHORS.txt for contributors.
*
* This program is free software: you can redistribute it and/or modify it
* under the terms of the GNU General Public License as published by the
* Free Software Foundation, either version 3 of the License, or (at your
* option) any later version.
*
* This program is distributed in the hope that it will be useful, but
* WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* General Public License for more details.
*
* You should have received a copy of the GNU General Public License along
* with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#ifndef _KIPYTHON_SETTINGS_H
#define _KIPYTHON_SETTINGS_H
#include <settings/app_settings.h>
class KIPYTHON_SETTINGS : public APP_SETTINGS_BASE
{
public:
KIPYTHON_SETTINGS();
virtual ~KIPYTHON_SETTINGS() {}
protected:
virtual std::string getLegacyFrameName() const override { return "Python_"; }
};
#endif

13
scripting/pybind11/.clang-tidy Normal file
View File

@ -0,0 +1,13 @@
FormatStyle: file
Checks: '
llvm-namespace-comment,
modernize-use-override,
readability-container-size-empty,
modernize-use-using,
modernize-use-equals-default,
modernize-use-auto,
modernize-use-emplace,
'
HeaderFilterRegex: 'pybind11/.*h'

43
scripting/pybind11/.gitignore vendored Normal file
View File

@ -0,0 +1,43 @@
CMakeCache.txt
CMakeFiles
Makefile
cmake_install.cmake
cmake_uninstall.cmake
.DS_Store
*.so
*.pyd
*.dll
*.sln
*.sdf
*.opensdf
*.vcxproj
*.vcxproj.user
*.filters
example.dir
Win32
x64
Release
Debug
.vs
CTestTestfile.cmake
Testing
autogen
MANIFEST
/.ninja_*
/*.ninja
/docs/.build
*.py[co]
*.egg-info
*~
.*.swp
.DS_Store
/dist
/*build*
.cache/
sosize-*.txt
pybind11Config*.cmake
pybind11Targets.cmake
/*env*
/.vscode
/pybind11/include/*
/pybind11/share/*

1
scripting/pybind11/.modules
View File

@ -1 +0,0 @@
EDA_UNIT_UTILS KIGFX wxPrivate

125
scripting/pybind11/.sources
View File

@ -1,125 +0,0 @@
.cpp
core/typeinfo.cpp
unknown/unknown.cpp
unknown/unknown_1.cpp
bits/types/struct_tm.cpp
unknown/unknown_2.cpp
unknown/unknown_3.cpp
unknown/unknown_4.cpp
unknown/unknown_5.cpp
unknown/unknown_6.cpp
unknown/unknown_7.cpp
unknown/unknown_8.cpp
unknown/unknown_9.cpp
unknown/unknown_10.cpp
unknown/unknown_11.cpp
unknown/unknown_12.cpp
unknown/unknown_13.cpp
unknown/unknown_14.cpp
unknown/unknown_15.cpp
unknown/unknown_16.cpp
unknown/unknown_17.cpp
unknown/unknown_18.cpp
unknown/unknown_19.cpp
unknown/unknown_20.cpp
unknown/unknown_21.cpp
unknown/unknown_22.cpp
unknown/unknown_23.cpp
unknown/unknown_24.cpp
unknown/unknown_25.cpp
unknown/unknown_26.cpp
unknown/unknown_27.cpp
unknown/unknown_28.cpp
unknown/unknown_29.cpp
unknown/unknown_30.cpp
unknown/unknown_31.cpp
unknown/unknown_32.cpp
unknown/unknown_33.cpp
unknown/unknown_34.cpp
unknown/unknown_35.cpp
unknown/unknown_36.cpp
unknown/unknown_37.cpp
unknown/unknown_38.cpp
unknown/unknown_39.cpp
unknown/unknown_40.cpp
unknown/unknown_41.cpp
unknown/unknown_42.cpp
unknown/unknown_43.cpp
unknown/unknown_44.cpp
unknown/unknown_45.cpp
unknown/unknown_46.cpp
unknown/unknown_47.cpp
unknown/unknown_48.cpp
unknown/unknown_49.cpp
unknown/unknown_50.cpp
unknown/unknown_51.cpp
unknown/unknown_52.cpp
unknown/unknown_53.cpp
unknown/unknown_54.cpp
unknown/unknown_55.cpp
unknown/unknown_56.cpp
unknown/unknown_57.cpp
unknown/unknown_58.cpp
unknown/unknown_59.cpp
unknown/unknown_60.cpp
unknown/unknown_61.cpp
unknown/unknown_62.cpp
unknown/unknown_63.cpp
unknown/unknown_64.cpp
unknown/unknown_65.cpp
unknown/unknown_66.cpp
unknown/unknown_67.cpp
unknown/unknown_68.cpp
unknown/unknown_69.cpp
unknown/unknown_70.cpp
unknown/unknown_71.cpp
unknown/unknown_72.cpp
unknown/unknown_73.cpp
unknown/unknown_74.cpp
unknown/unknown_75.cpp
unknown/unknown_76.cpp
unknown/unknown_77.cpp
unknown/unknown_78.cpp
unknown/unknown_79.cpp
eda_units.cpp
eda_units_1.cpp
unknown/unknown_80.cpp
wx/confbase.cpp
unknown/unknown_81.cpp
wx/fileconf.cpp
wx/process.cpp
macros.cpp
common.cpp
unknown/unknown_82.cpp
unknown/unknown_83.cpp
unknown/unknown_84.cpp
unknown/unknown_85.cpp
wx/propgrid/property.cpp
wx/propgrid/property_1.cpp
wx/propgrid/property_2.cpp
unknown/unknown_86.cpp
inspectable.cpp
view/view_item.cpp
kiid.cpp
eda_rect.cpp
gal/color4d.cpp
gal/color4d_1.cpp
wx/pen.cpp
unknown/unknown_87.cpp
unknown/unknown_88.cpp
unknown/unknown_89.cpp
wx/dc.cpp
wx/dc_1.cpp
gr_basic.cpp
layers_id_colors_and_visibility.cpp
layers_id_colors_and_visibility_1.cpp
render_settings.cpp
lib_item.cpp
lib_circle.cpp
lib_field.cpp
ki_exception.cpp
richio.cpp
lib_symbol.cpp
lib_pin.cpp
lib_rectangle.cpp
tool/tool_event.cpp

283
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# CMakeLists.txt -- Build system for the pybind11 modules
#
# Copyright (c) 2015 Wenzel Jakob <wenzel@inf.ethz.ch>
#
# All rights reserved. Use of this source code is governed by a
# BSD-style license that can be found in the LICENSE file.
cmake_minimum_required(VERSION 3.4)
# The `cmake_minimum_required(VERSION 3.4...3.18)` syntax does not work with
# some versions of VS that have a patched CMake 3.11. This forces us to emulate
# the behavior using the following workaround:
if(${CMAKE_VERSION} VERSION_LESS 3.18)
cmake_policy(VERSION ${CMAKE_MAJOR_VERSION}.${CMAKE_MINOR_VERSION})
else()
cmake_policy(VERSION 3.18)
endif()
# Extract project version from source
file(STRINGS "${CMAKE_CURRENT_SOURCE_DIR}/include/pybind11/detail/common.h"
pybind11_version_defines REGEX "#define PYBIND11_VERSION_(MAJOR|MINOR|PATCH) ")
foreach(ver ${pybind11_version_defines})
if(ver MATCHES [[#define PYBIND11_VERSION_(MAJOR|MINOR|PATCH) +([^ ]+)$]])
set(PYBIND11_VERSION_${CMAKE_MATCH_1} "${CMAKE_MATCH_2}")
endif()
endforeach()
if(PYBIND11_VERSION_PATCH MATCHES [[\.([a-zA-Z0-9]+)$]])
set(pybind11_VERSION_TYPE "${CMAKE_MATCH_1}")
endif()
string(REGEX MATCH "^[0-9]+" PYBIND11_VERSION_PATCH "${PYBIND11_VERSION_PATCH}")
project(
pybind11
LANGUAGES CXX
VERSION "${PYBIND11_VERSION_MAJOR}.${PYBIND11_VERSION_MINOR}.${PYBIND11_VERSION_PATCH}")
# Standard includes
include(GNUInstallDirs)
include(CMakePackageConfigHelpers)
include(CMakeDependentOption)
if(NOT pybind11_FIND_QUIETLY)
message(STATUS "pybind11 v${pybind11_VERSION} ${pybind11_VERSION_TYPE}")
endif()
# Avoid infinite recursion if tests include this as a subdirectory
if(DEFINED PYBIND11_MASTER_PROJECT)
set(PYBIND11_TEST OFF)
endif()
# Check if pybind11 is being used directly or via add_subdirectory
if(CMAKE_SOURCE_DIR STREQUAL PROJECT_SOURCE_DIR AND NOT DEFINED PYBIND11_MASTER_PROJECT)
### Warn if not an out-of-source builds
if(CMAKE_CURRENT_SOURCE_DIR STREQUAL CMAKE_CURRENT_BINARY_DIR)
set(lines
"You are building in-place. If that is not what you intended to "
"do, you can clean the source directory with:\n"
"rm -r CMakeCache.txt CMakeFiles/ cmake_uninstall.cmake pybind11Config.cmake "
"pybind11ConfigVersion.cmake tests/CMakeFiles/\n")
message(AUTHOR_WARNING ${lines})
endif()
set(PYBIND11_MASTER_PROJECT ON)
if(OSX AND CMAKE_VERSION VERSION_LESS 3.7)
# Bug in macOS CMake < 3.7 is unable to download catch
message(WARNING "CMAKE 3.7+ needed on macOS to download catch, and newer HIGHLY recommended")
elseif(WINDOWS AND CMAKE_VERSION VERSION_LESS 3.8)
# Only tested with 3.8+ in CI.
message(WARNING "CMAKE 3.8+ tested on Windows, previous versions untested")
endif()
message(STATUS "CMake ${CMAKE_VERSION}")
if(CMAKE_CXX_STANDARD)
set(CMAKE_CXX_EXTENSIONS OFF)
set(CMAKE_CXX_STANDARD_REQUIRED ON)
endif()
set(pybind11_system "")
else()
set(PYBIND11_MASTER_PROJECT OFF)
set(pybind11_system SYSTEM)
endif()
# Options
option(PYBIND11_INSTALL "Install pybind11 header files?" ${PYBIND11_MASTER_PROJECT})
option(PYBIND11_TEST "Build pybind11 test suite?" ${PYBIND11_MASTER_PROJECT})
option(PYBIND11_NOPYTHON "Disable search for Python" OFF)
cmake_dependent_option(
USE_PYTHON_INCLUDE_DIR
"Install pybind11 headers in Python include directory instead of default installation prefix"
OFF "PYBIND11_INSTALL" OFF)
cmake_dependent_option(PYBIND11_FINDPYTHON "Force new FindPython" OFF
"NOT CMAKE_VERSION VERSION_LESS 3.12" OFF)
# NB: when adding a header don't forget to also add it to setup.py
set(PYBIND11_HEADERS
include/pybind11/detail/class.h
include/pybind11/detail/common.h
include/pybind11/detail/descr.h
include/pybind11/detail/init.h
include/pybind11/detail/internals.h
include/pybind11/detail/type_caster_base.h
include/pybind11/detail/typeid.h
include/pybind11/attr.h
include/pybind11/buffer_info.h
include/pybind11/cast.h
include/pybind11/chrono.h
include/pybind11/common.h
include/pybind11/complex.h
include/pybind11/options.h
include/pybind11/eigen.h
include/pybind11/embed.h
include/pybind11/eval.h
include/pybind11/gil.h
include/pybind11/iostream.h
include/pybind11/functional.h
include/pybind11/numpy.h
include/pybind11/operators.h
include/pybind11/pybind11.h
include/pybind11/pytypes.h
include/pybind11/stl.h
include/pybind11/stl_bind.h)
# Compare with grep and warn if mismatched
if(PYBIND11_MASTER_PROJECT AND NOT CMAKE_VERSION VERSION_LESS 3.12)
file(
GLOB_RECURSE _pybind11_header_check
LIST_DIRECTORIES false
RELATIVE "${CMAKE_CURRENT_SOURCE_DIR}"
CONFIGURE_DEPENDS "include/pybind11/*.h")
set(_pybind11_here_only ${PYBIND11_HEADERS})
set(_pybind11_disk_only ${_pybind11_header_check})
list(REMOVE_ITEM _pybind11_here_only ${_pybind11_header_check})
list(REMOVE_ITEM _pybind11_disk_only ${PYBIND11_HEADERS})
if(_pybind11_here_only)
message(AUTHOR_WARNING "PYBIND11_HEADERS has extra files:" ${_pybind11_here_only})
endif()
if(_pybind11_disk_only)
message(AUTHOR_WARNING "PYBIND11_HEADERS is missing files:" ${_pybind11_disk_only})
endif()
endif()
# CMake 3.12 added list(TRANSFORM <list> PREPEND
# But we can't use it yet
string(REPLACE "include/" "${CMAKE_CURRENT_SOURCE_DIR}/include/" PYBIND11_HEADERS
"${PYBIND11_HEADERS}")
# Cache variable so this can be used in parent projects
set(pybind11_INCLUDE_DIR
"${CMAKE_CURRENT_LIST_DIR}/include"
CACHE INTERNAL "Directory where pybind11 headers are located")
# Backward compatible variable for add_subdirectory mode
if(NOT PYBIND11_MASTER_PROJECT)
set(PYBIND11_INCLUDE_DIR
"${pybind11_INCLUDE_DIR}"
CACHE INTERNAL "")
endif()
# Note: when creating targets, you cannot use if statements at configure time -
# you need generator expressions, because those will be placed in the target file.
# You can also place ifs *in* the Config.in, but not here.
# This section builds targets, but does *not* touch Python
# Non-IMPORT targets cannot be defined twice
if(NOT TARGET pybind11_headers)
# Build the headers-only target (no Python included):
# (long name used here to keep this from clashing in subdirectory mode)
add_library(pybind11_headers INTERFACE)
add_library(pybind11::pybind11_headers ALIAS pybind11_headers) # to match exported target
add_library(pybind11::headers ALIAS pybind11_headers) # easier to use/remember
target_include_directories(
pybind11_headers ${pybind11_system} INTERFACE $<BUILD_INTERFACE:${pybind11_INCLUDE_DIR}>
$<INSTALL_INTERFACE:${CMAKE_INSTALL_INCLUDEDIR}>)
target_compile_features(pybind11_headers INTERFACE cxx_inheriting_constructors cxx_user_literals
cxx_right_angle_brackets)
else()
# It is invalid to install a target twice, too.
set(PYBIND11_INSTALL OFF)
endif()
include("${CMAKE_CURRENT_SOURCE_DIR}/tools/pybind11Common.cmake")
# Relative directory setting
if(USE_PYTHON_INCLUDE_DIR AND DEFINED Python_INCLUDE_DIRS)
file(RELATIVE_PATH CMAKE_INSTALL_INCLUDEDIR ${CMAKE_INSTALL_PREFIX} ${Python_INCLUDE_DIRS})
elseif(USE_PYTHON_INCLUDE_DIR AND DEFINED PYTHON_INCLUDE_DIR)
file(RELATIVE_PATH CMAKE_INSTALL_INCLUDEDIR ${CMAKE_INSTALL_PREFIX} ${PYTHON_INCLUDE_DIRS})
endif()
if(PYBIND11_INSTALL)
install(DIRECTORY ${pybind11_INCLUDE_DIR}/pybind11 DESTINATION ${CMAKE_INSTALL_INCLUDEDIR})
set(PYBIND11_CMAKECONFIG_INSTALL_DIR
"${CMAKE_INSTALL_DATAROOTDIR}/cmake/${PROJECT_NAME}"
CACHE STRING "install path for pybind11Config.cmake")
configure_package_config_file(
tools/${PROJECT_NAME}Config.cmake.in "${CMAKE_CURRENT_BINARY_DIR}/${PROJECT_NAME}Config.cmake"
INSTALL_DESTINATION ${PYBIND11_CMAKECONFIG_INSTALL_DIR})
if(CMAKE_VERSION VERSION_LESS 3.14)
# Remove CMAKE_SIZEOF_VOID_P from ConfigVersion.cmake since the library does
# not depend on architecture specific settings or libraries.
set(_PYBIND11_CMAKE_SIZEOF_VOID_P ${CMAKE_SIZEOF_VOID_P})
unset(CMAKE_SIZEOF_VOID_P)
write_basic_package_version_file(
${CMAKE_CURRENT_BINARY_DIR}/${PROJECT_NAME}ConfigVersion.cmake
VERSION ${PROJECT_VERSION}
COMPATIBILITY AnyNewerVersion)
set(CMAKE_SIZEOF_VOID_P ${_PYBIND11_CMAKE_SIZEOF_VOID_P})
else()
# CMake 3.14+ natively supports header-only libraries
write_basic_package_version_file(
${CMAKE_CURRENT_BINARY_DIR}/${PROJECT_NAME}ConfigVersion.cmake
VERSION ${PROJECT_VERSION}
COMPATIBILITY AnyNewerVersion ARCH_INDEPENDENT)
endif()
install(
FILES ${CMAKE_CURRENT_BINARY_DIR}/${PROJECT_NAME}Config.cmake
${CMAKE_CURRENT_BINARY_DIR}/${PROJECT_NAME}ConfigVersion.cmake
tools/FindPythonLibsNew.cmake
tools/pybind11Common.cmake
tools/pybind11Tools.cmake
tools/pybind11NewTools.cmake
DESTINATION ${PYBIND11_CMAKECONFIG_INSTALL_DIR})
if(NOT PYBIND11_EXPORT_NAME)
set(PYBIND11_EXPORT_NAME "${PROJECT_NAME}Targets")
endif()
install(TARGETS pybind11_headers EXPORT "${PYBIND11_EXPORT_NAME}")
install(
EXPORT "${PYBIND11_EXPORT_NAME}"
NAMESPACE "pybind11::"
DESTINATION ${PYBIND11_CMAKECONFIG_INSTALL_DIR})
# Uninstall target
if(PYBIND11_MASTER_PROJECT)
configure_file("${CMAKE_CURRENT_SOURCE_DIR}/tools/cmake_uninstall.cmake.in"
"${CMAKE_CURRENT_BINARY_DIR}/cmake_uninstall.cmake" IMMEDIATE @ONLY)
add_custom_target(uninstall COMMAND ${CMAKE_COMMAND} -P
${CMAKE_CURRENT_BINARY_DIR}/cmake_uninstall.cmake)
endif()
endif()
# BUILD_TESTING takes priority, but only if this is the master project
if(PYBIND11_MASTER_PROJECT AND DEFINED BUILD_TESTING)
if(BUILD_TESTING)
if(_pybind11_nopython)
message(FATAL_ERROR "Cannot activate tests in NOPYTHON mode")
else()
add_subdirectory(tests)
endif()
endif()
else()
if(PYBIND11_TEST)
if(_pybind11_nopython)
message(FATAL_ERROR "Cannot activate tests in NOPYTHON mode")
else()
add_subdirectory(tests)
endif()
endif()
endif()
# Better symmetry with find_package(pybind11 CONFIG) mode.
if(NOT PYBIND11_MASTER_PROJECT)
set(pybind11_FOUND
TRUE
CACHE INTERNAL "True if pybind11 and all required components found on the system")
endif()

29
scripting/pybind11/LICENSE Normal file
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@ -0,0 +1,29 @@
Copyright (c) 2016 Wenzel Jakob <wenzel.jakob@epfl.ch>, All rights reserved.
Redistribution and use in source and binary forms, with or without
modification, are permitted provided that the following conditions are met:
1. Redistributions of source code must retain the above copyright notice, this
list of conditions and the following disclaimer.
2. Redistributions in binary form must reproduce the above copyright notice,
this list of conditions and the following disclaimer in the documentation
and/or other materials provided with the distribution.
3. Neither the name of the copyright holder nor the names of its contributors
may be used to endorse or promote products derived from this software
without specific prior written permission.
THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" AND
ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED
WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT HOLDER OR CONTRIBUTORS BE LIABLE
FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR
SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER
CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY,
OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
Please also refer to the file .github/CONTRIBUTING.md, which clarifies licensing of
external contributions to this project including patches, pull requests, etc.

6
scripting/pybind11/MANIFEST.in Normal file
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@ -0,0 +1,6 @@
recursive-include pybind11/include/pybind11 *.h
recursive-include pybind11 *.py
recursive-include pybind11 py.typed
recursive-include pybind11 *.pyi
include pybind11/share/cmake/pybind11/*.cmake
include LICENSE README.rst pyproject.toml setup.py setup.cfg

191
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.. figure:: https://github.com/pybind/pybind11/raw/master/docs/pybind11-logo.png
:alt: pybind11 logo
**pybind11 — Seamless operability between C++11 and Python**
|Latest Documentation Status| |Stable Documentation Status| |Gitter chat| |CI| |Build status|
|Repology| |PyPI package| |Conda-forge| |Python Versions|
`Setuptools example <https://github.com/pybind/python_example>`_
• `Scikit-build example <https://github.com/pybind/scikit_build_example>`_
• `CMake example <https://github.com/pybind/cmake_example>`_
.. start
.. warning::
Combining older versions of pybind11 (< 2.6.0) with Python 3.9.0 will
trigger undefined behavior that typically manifests as crashes during
interpreter shutdown (but could also destroy your data. **You have been
warned.**)
We recommend that you update to the latest patch release of Python (3.9.1),
which includes a `fix <https://github.com/python/cpython/pull/22670>`_
that resolves this problem. If you do use Python 3.9.0, please update to
the latest version of pybind11 (2.6.0 or newer), which includes a temporary
workaround specifically when Python 3.9.0 is detected at runtime.
**pybind11** is a lightweight header-only library that exposes C++ types
in Python and vice versa, mainly to create Python bindings of existing
C++ code. Its goals and syntax are similar to the excellent
`Boost.Python <http://www.boost.org/doc/libs/1_58_0/libs/python/doc/>`_
library by David Abrahams: to minimize boilerplate code in traditional
extension modules by inferring type information using compile-time
introspection.
The main issue with Boost.Python—and the reason for creating such a
similar project—is Boost. Boost is an enormously large and complex suite
of utility libraries that works with almost every C++ compiler in
existence. This compatibility has its cost: arcane template tricks and
workarounds are necessary to support the oldest and buggiest of compiler
specimens. Now that C++11-compatible compilers are widely available,
this heavy machinery has become an excessively large and unnecessary
dependency.
Think of this library as a tiny self-contained version of Boost.Python
with everything stripped away that isn’t relevant for binding
generation. Without comments, the core header files only require ~4K
lines of code and depend on Python (2.7 or 3.5+, or PyPy) and the C++
standard library. This compact implementation was possible thanks to
some of the new C++11 language features (specifically: tuples, lambda
functions and variadic templates). Since its creation, this library has
grown beyond Boost.Python in many ways, leading to dramatically simpler
binding code in many common situations.
Tutorial and reference documentation is provided at
`pybind11.readthedocs.io <https://pybind11.readthedocs.io/en/latest>`_.
A PDF version of the manual is available
`here <https://pybind11.readthedocs.io/_/downloads/en/latest/pdf/>`_.
And the source code is always available at
`github.com/pybind/pybind11 <https://github.com/pybind/pybind11>`_.
Core features
-------------
pybind11 can map the following core C++ features to Python:
- Functions accepting and returning custom data structures per value,
reference, or pointer
- Instance methods and static methods
- Overloaded functions
- Instance attributes and static attributes
- Arbitrary exception types
- Enumerations
- Callbacks
- Iterators and ranges
- Custom operators
- Single and multiple inheritance
- STL data structures
- Smart pointers with reference counting like ``std::shared_ptr``
- Internal references with correct reference counting
- C++ classes with virtual (and pure virtual) methods can be extended
in Python
Goodies
-------
In addition to the core functionality, pybind11 provides some extra
goodies:
- Python 2.7, 3.5+, and PyPy/PyPy3 7.3 are supported with an
implementation-agnostic interface.
- It is possible to bind C++11 lambda functions with captured
variables. The lambda capture data is stored inside the resulting
Python function object.
- pybind11 uses C++11 move constructors and move assignment operators
whenever possible to efficiently transfer custom data types.
- It’s easy to expose the internal storage of custom data types through
Pythons’ buffer protocols. This is handy e.g. for fast conversion
between C++ matrix classes like Eigen and NumPy without expensive
copy operations.
- pybind11 can automatically vectorize functions so that they are
transparently applied to all entries of one or more NumPy array
arguments.
- Python’s slice-based access and assignment operations can be
supported with just a few lines of code.
- Everything is contained in just a few header files; there is no need
to link against any additional libraries.
- Binaries are generally smaller by a factor of at least 2 compared to
equivalent bindings generated by Boost.Python. A recent pybind11
conversion of PyRosetta, an enormous Boost.Python binding project,
`reported <http://graylab.jhu.edu/RosettaCon2016/PyRosetta-4.pdf>`_
a binary size reduction of **5.4x** and compile time reduction by
**5.8x**.
- Function signatures are precomputed at compile time (using
``constexpr``), leading to smaller binaries.
- With little extra effort, C++ types can be pickled and unpickled
similar to regular Python objects.
Supported compilers
-------------------
1. Clang/LLVM 3.3 or newer (for Apple Xcode’s clang, this is 5.0.0 or
newer)
2. GCC 4.8 or newer
3. Microsoft Visual Studio 2015 Update 3 or newer
4. Intel classic C++ compiler 18 or newer (ICC 20.2 tested in CI)
5. Cygwin/GCC (previously tested on 2.5.1)
6. NVCC (CUDA 11.0 tested in CI)
7. NVIDIA PGI (20.9 tested in CI)
About
-----
This project was created by `Wenzel
Jakob <http://rgl.epfl.ch/people/wjakob>`_. Significant features and/or
improvements to the code were contributed by Jonas Adler, Lori A. Burns,
Sylvain Corlay, Eric Cousineau, Ralf Grosse-Kunstleve, Trent Houliston, Axel
Huebl, @hulucc, Yannick Jadoul, Sergey Lyskov Johan Mabille, Tomasz Miąsko,
Dean Moldovan, Ben Pritchard, Jason Rhinelander, Boris Schäling, Pim
Schellart, Henry Schreiner, Ivan Smirnov, Boris Staletic, and Patrick Stewart.
We thank Google for a generous financial contribution to the continuous
integration infrastructure used by this project.
Contributing
~~~~~~~~~~~~
See the `contributing
guide <https://github.com/pybind/pybind11/blob/master/.github/CONTRIBUTING.md>`_
for information on building and contributing to pybind11.
License
~~~~~~~
pybind11 is provided under a BSD-style license that can be found in the
`LICENSE <https://github.com/pybind/pybind11/blob/master/LICENSE>`_
file. By using, distributing, or contributing to this project, you agree
to the terms and conditions of this license.
.. |Latest Documentation Status| image:: https://readthedocs.org/projects/pybind11/badge?version=latest
:target: http://pybind11.readthedocs.org/en/latest
.. |Stable Documentation Status| image:: https://img.shields.io/badge/docs-stable-blue.svg
:target: http://pybind11.readthedocs.org/en/stable
.. |Gitter chat| image:: https://img.shields.io/gitter/room/gitterHQ/gitter.svg
:target: https://gitter.im/pybind/Lobby
.. |CI| image:: https://github.com/pybind/pybind11/workflows/CI/badge.svg
:target: https://github.com/pybind/pybind11/actions
.. |Build status| image:: https://ci.appveyor.com/api/projects/status/riaj54pn4h08xy40?svg=true
:target: https://ci.appveyor.com/project/wjakob/pybind11
.. |PyPI package| image:: https://img.shields.io/pypi/v/pybind11.svg
:target: https://pypi.org/project/pybind11/
.. |Conda-forge| image:: https://img.shields.io/conda/vn/conda-forge/pybind11.svg
:target: https://github.com/conda-forge/pybind11-feedstock
.. |Repology| image:: https://repology.org/badge/latest-versions/python:pybind11.svg
:target: https://repology.org/project/python:pybind11/versions
.. |Python Versions| image:: https://img.shields.io/pypi/pyversions/pybind11.svg
:target: https://pypi.org/project/pybind11/

98
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#include <cstdio> // _IO_FILE
#include <sstream> // __str__
#include <time.h> // asctime
#include <time.h> // asctime_r
#include <time.h> // clock
#include <time.h> // clock_getcpuclockid
#include <time.h> // clock_getres
#include <time.h> // clock_gettime
#include <time.h> // clock_nanosleep
#include <time.h> // clock_settime
#include <time.h> // ctime
#include <time.h> // ctime_r
#include <time.h> // difftime
#include <time.h> // dysize
#include <time.h> // getdate
#include <time.h> // getdate_r
#include <time.h> // gmtime
#include <time.h> // gmtime_r
#include <time.h> // itimerspec
#include <time.h> // localtime
#include <time.h> // localtime_r
#include <time.h> // mktime
#include <time.h> // nanosleep
#include <time.h> // strftime
#include <time.h> // strftime_l
#include <time.h> // strptime
#include <time.h> // strptime_l
#include <time.h> // time
#include <time.h> // timegm
#include <time.h> // timelocal
#include <time.h> // timer_delete
#include <time.h> // timer_getoverrun
#include <time.h> // timer_gettime
#include <time.h> // timer_settime
#include <time.h> // timespec
#include <time.h> // timespec_get
#include <time.h> // tm
#include <time.h> // tzset
#include <pybind11/pybind11.h>
#include <functional>
#include <string>
#ifndef BINDER_PYBIND11_TYPE_CASTER
#define BINDER_PYBIND11_TYPE_CASTER
PYBIND11_DECLARE_HOLDER_TYPE(T, std::shared_ptr<T>);
PYBIND11_DECLARE_HOLDER_TYPE(T, T*);
PYBIND11_MAKE_OPAQUE(std::shared_ptr<void>);
#endif
void bind_bits_types_struct_tm(std::function< pybind11::module &(std::string const &namespace_) > &M)
{
{ // tm file:bits/types/struct_tm.h line:7
pybind11::class_<tm, std::shared_ptr<tm>> cl(M(""), "tm", "");
cl.def( pybind11::init( [](){ return new tm(); } ) );
cl.def( pybind11::init( [](tm const &o){ return new tm(o); } ) );
cl.def_readwrite("tm_sec", &tm::tm_sec);
cl.def_readwrite("tm_min", &tm::tm_min);
cl.def_readwrite("tm_hour", &tm::tm_hour);
cl.def_readwrite("tm_mday", &tm::tm_mday);
cl.def_readwrite("tm_mon", &tm::tm_mon);
cl.def_readwrite("tm_year", &tm::tm_year);
cl.def_readwrite("tm_wday", &tm::tm_wday);
cl.def_readwrite("tm_yday", &tm::tm_yday);
cl.def_readwrite("tm_isdst", &tm::tm_isdst);
cl.def_readwrite("tm_gmtoff", &tm::tm_gmtoff);
}
// wxUpdateLocaleIsUtf8() file: line:124
M("").def("wxUpdateLocaleIsUtf8", (void (*)()) &wxUpdateLocaleIsUtf8, "C++: wxUpdateLocaleIsUtf8() --> void");
// wxCRT_PutsW(const wchar_t *) file: line:505
M("").def("wxCRT_PutsW", (int (*)(const wchar_t *)) &wxCRT_PutsW, "C++: wxCRT_PutsW(const wchar_t *) --> int", pybind11::arg("ws"));
// wxCRT_FputcW(wchar_t, struct _IO_FILE *) file: line:513
M("").def("wxCRT_FputcW", (int (*)(wchar_t, struct _IO_FILE *)) &wxCRT_FputcW, "C++: wxCRT_FputcW(wchar_t, struct _IO_FILE *) --> int", pybind11::arg("wc"), pybind11::arg("stream"));
// wxCRT_GetenvW(const wchar_t *) file: line:550
M("").def("wxCRT_GetenvW", (wchar_t * (*)(const wchar_t *)) &wxCRT_GetenvW, "C++: wxCRT_GetenvW(const wchar_t *) --> wchar_t *", pybind11::return_value_policy::automatic, pybind11::arg("name"));
// wxStrlen(const char *) file: line:675
M("").def("wxStrlen", (unsigned long (*)(const char *)) &wxStrlen, "C++: wxStrlen(const char *) --> unsigned long", pybind11::arg("s"));
// wxStrlen(const wchar_t *) file: line:676
M("").def("wxStrlen", (unsigned long (*)(const wchar_t *)) &wxStrlen, "C++: wxStrlen(const wchar_t *) --> unsigned long", pybind11::arg("s"));
// wxStrlen(const unsigned short *) file: line:678
M("").def("wxStrlen", (unsigned long (*)(const unsigned short *)) &wxStrlen, "C++: wxStrlen(const unsigned short *) --> unsigned long", pybind11::arg("s"));
// wxStrdup(const char *) file: line:687
M("").def("wxStrdup", (char * (*)(const char *)) &wxStrdup, "C++: wxStrdup(const char *) --> char *", pybind11::return_value_policy::automatic, pybind11::arg("s"));
// wxStrdup(const wchar_t *) file: line:688
M("").def("wxStrdup", (wchar_t * (*)(const wchar_t *)) &wxStrdup, "C++: wxStrdup(const wchar_t *) --> wchar_t *", pybind11::return_value_policy::automatic, pybind11::arg("s"));
// wxStrdup(const unsigned short *) file: line:690
M("").def("wxStrdup", (unsigned short * (*)(const unsigned short *)) &wxStrdup, "C++: wxStrdup(const unsigned short *) --> unsigned short *", pybind11::return_value_policy::automatic, pybind11::arg("s"));
}

148
scripting/pybind11/common.cpp
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@ -1,148 +0,0 @@
#include <common.h> // TimestampDir
#include <eda_units.h> // EDA_UNITS
#include <functional> // std::function
#include <inspectable.h> // INSPECTABLE
#include <iterator> // __gnu_cxx::__normal_iterator
#include <memory> // std::allocator
#include <sstream> // __str__
#include <string> // std::basic_string
#include <string> // std::char_traits
#include <wx/propgrid/property.h> // wxPGChoices
#include <pybind11/pybind11.h>
#include <functional>
#include <string>
#ifndef BINDER_PYBIND11_TYPE_CASTER
#define BINDER_PYBIND11_TYPE_CASTER
PYBIND11_DECLARE_HOLDER_TYPE(T, std::shared_ptr<T>);
PYBIND11_DECLARE_HOLDER_TYPE(T, T*);
PYBIND11_MAKE_OPAQUE(std::shared_ptr<void>);
#endif
void bind_common(std::function< pybind11::module &(std::string const &namespace_) > &M)
{
// TimestampDir(const class wxString &, const class wxString &) file:common.h line:173
M("").def("TimestampDir", (long long (*)(const class wxString &, const class wxString &)) &TimestampDir, "C++: TimestampDir(const class wxString &, const class wxString &) --> long long", pybind11::arg("aDirPath"), pybind11::arg("aFilespec"));
{ // PROPERTY_MANAGER file: line:63
pybind11::class_<PROPERTY_MANAGER, std::shared_ptr<PROPERTY_MANAGER>> cl(M(""), "PROPERTY_MANAGER", "Provide class metadata. Each class handled by PROPERTY_MANAGER\n needs to be described using AddProperty(), AddTypeCast() and InheritsAfter() methods.\n\n Enum types use a dedicated property type (PROPERTY_ENUM), define its possible values\n with ENUM_MAP class, then describe the type using macros:\n - DECLARE_ENUM_TO_WXANY (in header files)\n - IMPLEMENT_ENUM_TO_WXANY (in source files)\n - ENUM_TO_WXANY (*most often used*; combines DECLARE and IMPLEMENT macros,\n if there is no need to share the description using header files)\n\n Once all classes are described, the property list must be build using\n Rebuild() method.");
cl.def( pybind11::init( [](PROPERTY_MANAGER const &o){ return new PROPERTY_MANAGER(o); } ) );
cl.def_static("Instance", (class PROPERTY_MANAGER & (*)()) &PROPERTY_MANAGER::Instance, "C++: PROPERTY_MANAGER::Instance() --> class PROPERTY_MANAGER &", pybind11::return_value_policy::automatic);
cl.def("RegisterType", (void (PROPERTY_MANAGER::*)(unsigned long, const class wxString &)) &PROPERTY_MANAGER::RegisterType, "Associate a name with a type.\n\n Build a map to provide faster type look-up.\n\n \n is the type identifier (obtained using TYPE_HASH()).\n \n\n is the type name.\n\nC++: PROPERTY_MANAGER::RegisterType(unsigned long, const class wxString &) --> void", pybind11::arg("aType"), pybind11::arg("aName"));
cl.def("ResolveType", (const class wxString & (PROPERTY_MANAGER::*)(unsigned long) const) &PROPERTY_MANAGER::ResolveType, "Return name of a type.\n\n \n is the type identifier (obtained using TYPE_HASH()).\n \n\n Name of the type or empty string, if not available.\n\nC++: PROPERTY_MANAGER::ResolveType(unsigned long) const --> const class wxString &", pybind11::return_value_policy::automatic, pybind11::arg("aType"));
cl.def("GetProperty", (class PROPERTY_BASE * (PROPERTY_MANAGER::*)(unsigned long, const class wxString &) const) &PROPERTY_MANAGER::GetProperty, "Return a property for a specific type.\n\n \n is the type identifier (obtained using TYPE_HASH()).\n \n\n is the property name used during class registration.\n \n\n Requested property or null pointer if requested property does not exist.\n\nC++: PROPERTY_MANAGER::GetProperty(unsigned long, const class wxString &) const --> class PROPERTY_BASE *", pybind11::return_value_policy::automatic, pybind11::arg("aType"), pybind11::arg("aProperty"));
cl.def("GetProperties", (const int & (PROPERTY_MANAGER::*)(unsigned long) const) &PROPERTY_MANAGER::GetProperties, "Return all properties for a specific type.\n\n \n is the type identifier (obtained using TYPE_HASH()).\n \n\n Vector storing all properties of the requested type.\n\nC++: PROPERTY_MANAGER::GetProperties(unsigned long) const --> const int &", pybind11::return_value_policy::automatic, pybind11::arg("aType"));
cl.def("TypeCast", (const void * (PROPERTY_MANAGER::*)(const void *, unsigned long, unsigned long) const) &PROPERTY_MANAGER::TypeCast, "Cast a type to another type. Used for correct type-casting of types with\n multi-inheritance. Requires registration of an appropriate converter (AddTypeCast).\n\n \n is a pointer to the casted object.\n \n\n is aSource type identifier (obtained using TYPE_HASH()).\n \n\n is the desired type identifier (obtained using TYPE_HASH()).\n \n\n Properly casted pointer of aTarget type. *\n\n \n AddTypeCast\n\nC++: PROPERTY_MANAGER::TypeCast(const void *, unsigned long, unsigned long) const --> const void *", pybind11::return_value_policy::automatic, pybind11::arg("aSource"), pybind11::arg("aBase"), pybind11::arg("aTarget"));
cl.def("TypeCast", (void * (PROPERTY_MANAGER::*)(void *, unsigned long, unsigned long) const) &PROPERTY_MANAGER::TypeCast, "C++: PROPERTY_MANAGER::TypeCast(void *, unsigned long, unsigned long) const --> void *", pybind11::return_value_policy::automatic, pybind11::arg("aSource"), pybind11::arg("aBase"), pybind11::arg("aTarget"));
cl.def("AddProperty", (void (PROPERTY_MANAGER::*)(class PROPERTY_BASE *)) &PROPERTY_MANAGER::AddProperty, "Register a property.\n\n \n is the property to register.\n\nC++: PROPERTY_MANAGER::AddProperty(class PROPERTY_BASE *) --> void", pybind11::arg("aProperty"));
cl.def("ReplaceProperty", (void (PROPERTY_MANAGER::*)(unsigned long, const class wxString &, class PROPERTY_BASE *)) &PROPERTY_MANAGER::ReplaceProperty, "Replace an existing property for a specific type.\n\n It is used to modify a property that has been inherited from a base class.\n This method is used instead of AddProperty().\n\n \n is the base class type the delivers the original property.\n \n\n is the name of the replaced property.\n \n\n is the property replacing the inherited one.\n\nC++: PROPERTY_MANAGER::ReplaceProperty(unsigned long, const class wxString &, class PROPERTY_BASE *) --> void", pybind11::arg("aBase"), pybind11::arg("aName"), pybind11::arg("aNew"));
cl.def("AddTypeCast", (void (PROPERTY_MANAGER::*)(class TYPE_CAST_BASE *)) &PROPERTY_MANAGER::AddTypeCast, "Register a type converter. Required prior TypeCast() usage.\n\n \n is the type converter to register.\n\nC++: PROPERTY_MANAGER::AddTypeCast(class TYPE_CAST_BASE *) --> void", pybind11::arg("aCast"));
cl.def("InheritsAfter", (void (PROPERTY_MANAGER::*)(unsigned long, unsigned long)) &PROPERTY_MANAGER::InheritsAfter, "Declare an inheritance relationship between types.\n\n \n is the base type identifier (obtained using TYPE_HASH()).\n \n\n is the derived type identifier (obtained using TYPE_HASH()).\n\nC++: PROPERTY_MANAGER::InheritsAfter(unsigned long, unsigned long) --> void", pybind11::arg("aDerived"), pybind11::arg("aBase"));
cl.def("IsOfType", (bool (PROPERTY_MANAGER::*)(unsigned long, unsigned long) const) &PROPERTY_MANAGER::IsOfType, "Return true if aDerived is inherited from aBase.\n\nC++: PROPERTY_MANAGER::IsOfType(unsigned long, unsigned long) const --> bool", pybind11::arg("aDerived"), pybind11::arg("aBase"));
cl.def("GetUnits", (enum EDA_UNITS (PROPERTY_MANAGER::*)() const) &PROPERTY_MANAGER::GetUnits, "C++: PROPERTY_MANAGER::GetUnits() const --> enum EDA_UNITS");
cl.def("SetUnits", (void (PROPERTY_MANAGER::*)(enum EDA_UNITS)) &PROPERTY_MANAGER::SetUnits, "C++: PROPERTY_MANAGER::SetUnits(enum EDA_UNITS) --> void", pybind11::arg("aUnits"));
cl.def("Rebuild", (void (PROPERTY_MANAGER::*)()) &PROPERTY_MANAGER::Rebuild, "Rebuild the list of all registered properties. Needs to be called\n once before GetProperty()/GetProperties() are used.\n\nC++: PROPERTY_MANAGER::Rebuild() --> void");
cl.def("GetAllClasses", (int (PROPERTY_MANAGER::*)()) &PROPERTY_MANAGER::GetAllClasses, "C++: PROPERTY_MANAGER::GetAllClasses() --> int");
cl.def("GetMatchingClasses", (int (PROPERTY_MANAGER::*)(class PROPERTY_BASE *)) &PROPERTY_MANAGER::GetMatchingClasses, "C++: PROPERTY_MANAGER::GetMatchingClasses(class PROPERTY_BASE *) --> int", pybind11::arg("aProperty"));
{ // PROPERTY_MANAGER::CLASS_INFO file: line:180
auto & enclosing_class = cl;
pybind11::class_<PROPERTY_MANAGER::CLASS_INFO, std::shared_ptr<PROPERTY_MANAGER::CLASS_INFO>> cl(enclosing_class, "CLASS_INFO", "");
cl.def( pybind11::init( [](){ return new PROPERTY_MANAGER::CLASS_INFO(); } ) );
cl.def( pybind11::init( [](PROPERTY_MANAGER::CLASS_INFO const &o){ return new PROPERTY_MANAGER::CLASS_INFO(o); } ) );
cl.def_readwrite("name", &PROPERTY_MANAGER::CLASS_INFO::name);
cl.def_readwrite("type", &PROPERTY_MANAGER::CLASS_INFO::type);
cl.def_readwrite("properties", &PROPERTY_MANAGER::CLASS_INFO::properties);
cl.def("assign", (struct PROPERTY_MANAGER::CLASS_INFO & (PROPERTY_MANAGER::CLASS_INFO::*)(const struct PROPERTY_MANAGER::CLASS_INFO &)) &PROPERTY_MANAGER::CLASS_INFO::operator=, "C++: PROPERTY_MANAGER::CLASS_INFO::operator=(const struct PROPERTY_MANAGER::CLASS_INFO &) --> struct PROPERTY_MANAGER::CLASS_INFO &", pybind11::return_value_policy::automatic, pybind11::arg(""));
}
{ // PROPERTY_MANAGER::CLASS_DESC file: line:200
auto & enclosing_class = cl;
pybind11::class_<PROPERTY_MANAGER::CLASS_DESC, std::shared_ptr<PROPERTY_MANAGER::CLASS_DESC>> cl(enclosing_class, "CLASS_DESC", "");
cl.def( pybind11::init<unsigned long>(), pybind11::arg("aId") );
cl.def_readonly("m_id", &PROPERTY_MANAGER::CLASS_DESC::m_id);
cl.def_readwrite("m_bases", &PROPERTY_MANAGER::CLASS_DESC::m_bases);
cl.def_readwrite("m_ownProperties", &PROPERTY_MANAGER::CLASS_DESC::m_ownProperties);
cl.def_readwrite("m_typeCasts", &PROPERTY_MANAGER::CLASS_DESC::m_typeCasts);
cl.def_readwrite("m_allProperties", &PROPERTY_MANAGER::CLASS_DESC::m_allProperties);
cl.def_readwrite("m_replaced", &PROPERTY_MANAGER::CLASS_DESC::m_replaced);
cl.def("rebuild", (void (PROPERTY_MANAGER::CLASS_DESC::*)()) &PROPERTY_MANAGER::CLASS_DESC::rebuild, "C++: PROPERTY_MANAGER::CLASS_DESC::rebuild() --> void");
cl.def("collectPropsRecur", (void (PROPERTY_MANAGER::CLASS_DESC::*)(int &, int &) const) &PROPERTY_MANAGER::CLASS_DESC::collectPropsRecur, "C++: PROPERTY_MANAGER::CLASS_DESC::collectPropsRecur(int &, int &) const --> void", pybind11::arg("aResult"), pybind11::arg("aReplaced"));
}
}
{ // wxAssert_wxArrayPGProperty file: line:377
pybind11::class_<wxAssert_wxArrayPGProperty, std::shared_ptr<wxAssert_wxArrayPGProperty>> cl(M(""), "wxAssert_wxArrayPGProperty", "");
cl.def( pybind11::init( [](){ return new wxAssert_wxArrayPGProperty(); } ) );
cl.def_readwrite("TypeTooBigToBeStoredInwxBaseArrayPtrVoid", &wxAssert_wxArrayPGProperty::TypeTooBigToBeStoredInwxBaseArrayPtrVoid);
}
{ // wxArrayPGProperty file: line:295
pybind11::class_<wxArrayPGProperty, std::shared_ptr<wxArrayPGProperty>, wxBaseArrayPtrVoid> cl(M(""), "wxArrayPGProperty", "");
cl.def( pybind11::init( [](){ return new wxArrayPGProperty(); } ) );
cl.def( pybind11::init<unsigned long>(), pybind11::arg("n") );
cl.def( pybind11::init<unsigned long, class wxPGProperty *const &>(), pybind11::arg("n"), pybind11::arg("v") );
cl.def( pybind11::init( [](wxArrayPGProperty const &o){ return new wxArrayPGProperty(o); } ) );
cl.def("__getitem__", (class wxPGProperty *& (wxArrayPGProperty::*)(unsigned long) const) &wxArrayPGProperty::operator[], "C++: wxArrayPGProperty::operator[](unsigned long) const --> class wxPGProperty *&", pybind11::return_value_policy::automatic, pybind11::arg("uiIndex"));
cl.def("Item", (class wxPGProperty *& (wxArrayPGProperty::*)(unsigned long) const) &wxArrayPGProperty::Item, "C++: wxArrayPGProperty::Item(unsigned long) const --> class wxPGProperty *&", pybind11::return_value_policy::automatic, pybind11::arg("uiIndex"));
cl.def("Last", (class wxPGProperty *& (wxArrayPGProperty::*)() const) &wxArrayPGProperty::Last, "C++: wxArrayPGProperty::Last() const --> class wxPGProperty *&", pybind11::return_value_policy::automatic);
cl.def("Index", [](wxArrayPGProperty const &o, class wxPGProperty * a0) -> int { return o.Index(a0); }, "", pybind11::arg("lItem"));
cl.def("Index", (int (wxArrayPGProperty::*)(class wxPGProperty *, bool) const) &wxArrayPGProperty::Index, "C++: wxArrayPGProperty::Index(class wxPGProperty *, bool) const --> int", pybind11::arg("lItem"), pybind11::arg("bFromEnd"));
cl.def("Add", [](wxArrayPGProperty &o, class wxPGProperty * a0) -> void { return o.Add(a0); }, "", pybind11::arg("lItem"));
cl.def("Add", (void (wxArrayPGProperty::*)(class wxPGProperty *, unsigned long)) &wxArrayPGProperty::Add, "C++: wxArrayPGProperty::Add(class wxPGProperty *, unsigned long) --> void", pybind11::arg("lItem"), pybind11::arg("nInsert"));
cl.def("Insert", [](wxArrayPGProperty &o, class wxPGProperty * a0, unsigned long const & a1) -> void { return o.Insert(a0, a1); }, "", pybind11::arg("lItem"), pybind11::arg("uiIndex"));
cl.def("Insert", (void (wxArrayPGProperty::*)(class wxPGProperty *, unsigned long, unsigned long)) &wxArrayPGProperty::Insert, "C++: wxArrayPGProperty::Insert(class wxPGProperty *, unsigned long, unsigned long) --> void", pybind11::arg("lItem"), pybind11::arg("uiIndex"), pybind11::arg("nInsert"));
cl.def("RemoveAt", [](wxArrayPGProperty &o, unsigned long const & a0) -> void { return o.RemoveAt(a0); }, "", pybind11::arg("uiIndex"));
cl.def("RemoveAt", (void (wxArrayPGProperty::*)(unsigned long, unsigned long)) &wxArrayPGProperty::RemoveAt, "C++: wxArrayPGProperty::RemoveAt(unsigned long, unsigned long) --> void", pybind11::arg("uiIndex"), pybind11::arg("nRemove"));
cl.def("Remove", (void (wxArrayPGProperty::*)(class wxPGProperty *)) &wxArrayPGProperty::Remove, "C++: wxArrayPGProperty::Remove(class wxPGProperty *) --> void", pybind11::arg("lItem"));
cl.def("assign", (void (wxArrayPGProperty::*)(unsigned long, class wxPGProperty *const &)) &wxArrayPGProperty::assign, "C++: wxArrayPGProperty::assign(unsigned long, class wxPGProperty *const &) --> void", pybind11::arg("n"), pybind11::arg("v"));
cl.def("back", (class wxPGProperty *& (wxArrayPGProperty::*)()) &wxArrayPGProperty::back, "C++: wxArrayPGProperty::back() --> class wxPGProperty *&", pybind11::return_value_policy::automatic);
cl.def("begin", (class wxPGProperty ** (wxArrayPGProperty::*)()) &wxArrayPGProperty::begin, "C++: wxArrayPGProperty::begin() --> class wxPGProperty **", pybind11::return_value_policy::automatic);
cl.def("capacity", (unsigned long (wxArrayPGProperty::*)() const) &wxArrayPGProperty::capacity, "C++: wxArrayPGProperty::capacity() const --> unsigned long");
cl.def("end", (class wxPGProperty ** (wxArrayPGProperty::*)()) &wxArrayPGProperty::end, "C++: wxArrayPGProperty::end() --> class wxPGProperty **", pybind11::return_value_policy::automatic);
cl.def("front", (class wxPGProperty *& (wxArrayPGProperty::*)()) &wxArrayPGProperty::front, "C++: wxArrayPGProperty::front() --> class wxPGProperty *&", pybind11::return_value_policy::automatic);
cl.def("pop_back", (void (wxArrayPGProperty::*)()) &wxArrayPGProperty::pop_back, "C++: wxArrayPGProperty::pop_back() --> void");
cl.def("push_back", (void (wxArrayPGProperty::*)(class wxPGProperty *const &)) &wxArrayPGProperty::push_back, "C++: wxArrayPGProperty::push_back(class wxPGProperty *const &) --> void", pybind11::arg("v"));
cl.def("rbegin", (class wxArrayPGProperty::reverse_iterator (wxArrayPGProperty::*)()) &wxArrayPGProperty::rbegin, "C++: wxArrayPGProperty::rbegin() --> class wxArrayPGProperty::reverse_iterator");
cl.def("rend", (class wxArrayPGProperty::reverse_iterator (wxArrayPGProperty::*)()) &wxArrayPGProperty::rend, "C++: wxArrayPGProperty::rend() --> class wxArrayPGProperty::reverse_iterator");
cl.def("reserve", (void (wxArrayPGProperty::*)(unsigned long)) &wxArrayPGProperty::reserve, "C++: wxArrayPGProperty::reserve(unsigned long) --> void", pybind11::arg("n"));
cl.def("resize", [](wxArrayPGProperty &o, unsigned long const & a0) -> void { return o.resize(a0); }, "", pybind11::arg("n"));
cl.def("resize", (void (wxArrayPGProperty::*)(unsigned long, class wxPGProperty *)) &wxArrayPGProperty::resize, "C++: wxArrayPGProperty::resize(unsigned long, class wxPGProperty *) --> void", pybind11::arg("n"), pybind11::arg("v"));
cl.def("swap", (void (wxArrayPGProperty::*)(class wxArrayPGProperty &)) &wxArrayPGProperty::swap, "C++: wxArrayPGProperty::swap(class wxArrayPGProperty &) --> void", pybind11::arg("other"));
cl.def("assign", (class wxArrayPGProperty & (wxArrayPGProperty::*)(const class wxArrayPGProperty &)) &wxArrayPGProperty::operator=, "C++: wxArrayPGProperty::operator=(const class wxArrayPGProperty &) --> class wxArrayPGProperty &", pybind11::return_value_policy::automatic, pybind11::arg(""));
{ // wxArrayPGProperty::reverse_iterator file: line:400
auto & enclosing_class = cl;
pybind11::class_<wxArrayPGProperty::reverse_iterator, std::shared_ptr<wxArrayPGProperty::reverse_iterator>> cl(enclosing_class, "reverse_iterator", "");
cl.def( pybind11::init( [](){ return new wxArrayPGProperty::reverse_iterator(); } ) );
cl.def( pybind11::init( [](wxArrayPGProperty::reverse_iterator const &o){ return new wxArrayPGProperty::reverse_iterator(o); } ) );
cl.def("__mul__", (class wxPGProperty *& (wxArrayPGProperty::reverse_iterator::*)() const) &wxArrayPGProperty::reverse_iterator::operator*, "C++: wxArrayPGProperty::reverse_iterator::operator*() const --> class wxPGProperty *&", pybind11::return_value_policy::automatic);
cl.def("plus_plus", (class wxArrayPGProperty::reverse_iterator & (wxArrayPGProperty::reverse_iterator::*)()) &wxArrayPGProperty::reverse_iterator::operator++, "C++: wxArrayPGProperty::reverse_iterator::operator++() --> class wxArrayPGProperty::reverse_iterator &", pybind11::return_value_policy::automatic);
cl.def("plus_plus", (const class wxArrayPGProperty::reverse_iterator (wxArrayPGProperty::reverse_iterator::*)(int)) &wxArrayPGProperty::reverse_iterator::operator++, "C++: wxArrayPGProperty::reverse_iterator::operator++(int) --> const class wxArrayPGProperty::reverse_iterator", pybind11::arg(""));
cl.def("minus_minus", (class wxArrayPGProperty::reverse_iterator & (wxArrayPGProperty::reverse_iterator::*)()) &wxArrayPGProperty::reverse_iterator::operator--, "C++: wxArrayPGProperty::reverse_iterator::operator--() --> class wxArrayPGProperty::reverse_iterator &", pybind11::return_value_policy::automatic);
cl.def("minus_minus", (const class wxArrayPGProperty::reverse_iterator (wxArrayPGProperty::reverse_iterator::*)(int)) &wxArrayPGProperty::reverse_iterator::operator--, "C++: wxArrayPGProperty::reverse_iterator::operator--(int) --> const class wxArrayPGProperty::reverse_iterator", pybind11::arg(""));
cl.def("__eq__", (bool (wxArrayPGProperty::reverse_iterator::*)(const class wxArrayPGProperty::reverse_iterator &) const) &wxArrayPGProperty::reverse_iterator::operator==, "C++: wxArrayPGProperty::reverse_iterator::operator==(const class wxArrayPGProperty::reverse_iterator &) const --> bool", pybind11::arg("it"));
cl.def("__ne__", (bool (wxArrayPGProperty::reverse_iterator::*)(const class wxArrayPGProperty::reverse_iterator &) const) &wxArrayPGProperty::reverse_iterator::operator!=, "C++: wxArrayPGProperty::reverse_iterator::operator!=(const class wxArrayPGProperty::reverse_iterator &) const --> bool", pybind11::arg("it"));
}
{ // wxArrayPGProperty::const_reverse_iterator file: line:432
auto & enclosing_class = cl;
pybind11::class_<wxArrayPGProperty::const_reverse_iterator, std::shared_ptr<wxArrayPGProperty::const_reverse_iterator>> cl(enclosing_class, "const_reverse_iterator", "");
cl.def( pybind11::init( [](){ return new wxArrayPGProperty::const_reverse_iterator(); } ) );
cl.def( pybind11::init( [](wxArrayPGProperty::const_reverse_iterator const &o){ return new wxArrayPGProperty::const_reverse_iterator(o); } ) );
cl.def( pybind11::init<const class wxArrayPGProperty::reverse_iterator &>(), pybind11::arg("it") );
cl.def("__mul__", (class wxPGProperty *const & (wxArrayPGProperty::const_reverse_iterator::*)() const) &wxArrayPGProperty::const_reverse_iterator::operator*, "C++: wxArrayPGProperty::const_reverse_iterator::operator*() const --> class wxPGProperty *const &", pybind11::return_value_policy::automatic);
cl.def("plus_plus", (class wxArrayPGProperty::const_reverse_iterator & (wxArrayPGProperty::const_reverse_iterator::*)()) &wxArrayPGProperty::const_reverse_iterator::operator++, "C++: wxArrayPGProperty::const_reverse_iterator::operator++() --> class wxArrayPGProperty::const_reverse_iterator &", pybind11::return_value_policy::automatic);
cl.def("plus_plus", (const class wxArrayPGProperty::const_reverse_iterator (wxArrayPGProperty::const_reverse_iterator::*)(int)) &wxArrayPGProperty::const_reverse_iterator::operator++, "C++: wxArrayPGProperty::const_reverse_iterator::operator++(int) --> const class wxArrayPGProperty::const_reverse_iterator", pybind11::arg(""));
cl.def("minus_minus", (class wxArrayPGProperty::const_reverse_iterator & (wxArrayPGProperty::const_reverse_iterator::*)()) &wxArrayPGProperty::const_reverse_iterator::operator--, "C++: wxArrayPGProperty::const_reverse_iterator::operator--() --> class wxArrayPGProperty::const_reverse_iterator &", pybind11::return_value_policy::automatic);
cl.def("minus_minus", (const class wxArrayPGProperty::const_reverse_iterator (wxArrayPGProperty::const_reverse_iterator::*)(int)) &wxArrayPGProperty::const_reverse_iterator::operator--, "C++: wxArrayPGProperty::const_reverse_iterator::operator--(int) --> const class wxArrayPGProperty::const_reverse_iterator", pybind11::arg(""));
cl.def("__eq__", (bool (wxArrayPGProperty::const_reverse_iterator::*)(const class wxArrayPGProperty::const_reverse_iterator &) const) &wxArrayPGProperty::const_reverse_iterator::operator==, "C++: wxArrayPGProperty::const_reverse_iterator::operator==(const class wxArrayPGProperty::const_reverse_iterator &) const --> bool", pybind11::arg("it"));
cl.def("__ne__", (bool (wxArrayPGProperty::const_reverse_iterator::*)(const class wxArrayPGProperty::const_reverse_iterator &) const) &wxArrayPGProperty::const_reverse_iterator::operator!=, "C++: wxArrayPGProperty::const_reverse_iterator::operator!=(const class wxArrayPGProperty::const_reverse_iterator &) const --> bool", pybind11::arg("it"));
}
}
}

273
scripting/pybind11/core/typeinfo.cpp
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@ -1,273 +0,0 @@
#include <assert.h> // __assert
#include <assert.h> // __assert_fail
#include <assert.h> // __assert_perror_fail
#include <bits/types/__locale_t.h> // __locale_struct
#include <core/typeinfo.h> // BaseType
#include <core/typeinfo.h> // KICAD_T
#include <cstdio> // _IO_FILE
#include <cwchar> // btowc
#include <cwchar> // fgetwc
#include <cwchar> // fgetwc_unlocked
#include <cwchar> // fgetws
#include <cwchar> // fgetws_unlocked
#include <cwchar> // fputwc
#include <cwchar> // fputwc_unlocked
#include <cwchar> // fputws
#include <cwchar> // fputws_unlocked
#include <cwchar> // fwide
#include <cwchar> // fwprintf
#include <cwchar> // fwscanf
#include <cwchar> // getwc
#include <cwchar> // getwc_unlocked
#include <cwchar> // getwchar
#include <cwchar> // getwchar_unlocked
#include <cwchar> // putwc
#include <cwchar> // putwc_unlocked
#include <cwchar> // putwchar
#include <cwchar> // putwchar_unlocked
#include <cwchar> // swprintf
#include <cwchar> // swscanf
#include <cwchar> // ungetwc
#include <cwchar> // wcpcpy
#include <cwchar> // wcpncpy
#include <cwchar> // wcscasecmp
#include <cwchar> // wcscasecmp_l
#include <cwchar> // wcscat
#include <cwchar> // wcschr
#include <cwchar> // wcschrnul
#include <cwchar> // wcscmp
#include <cwchar> // wcscoll
#include <cwchar> // wcscoll_l
#include <cwchar> // wcscpy
#include <cwchar> // wcscspn
#include <cwchar> // wcsdup
#include <cwchar> // wcsftime
#include <cwchar> // wcsftime_l
#include <cwchar> // wcslen
#include <cwchar> // wcsncasecmp
#include <cwchar> // wcsncasecmp_l
#include <cwchar> // wcsncat
#include <cwchar> // wcsncmp
#include <cwchar> // wcsncpy
#include <cwchar> // wcsnlen
#include <cwchar> // wcspbrk
#include <cwchar> // wcsrchr
#include <cwchar> // wcsspn
#include <cwchar> // wcsstr
#include <cwchar> // wcswcs
#include <cwchar> // wcswidth
#include <cwchar> // wcsxfrm
#include <cwchar> // wcsxfrm_l
#include <cwchar> // wctob
#include <cwchar> // wcwidth
#include <cwchar> // wmemchr
#include <cwchar> // wmemcmp
#include <cwchar> // wmemcpy
#include <cwchar> // wmemmove
#include <cwchar> // wmempcpy
#include <cwchar> // wmemset
#include <cwchar> // wprintf
#include <cwchar> // wscanf
#include <iterator> // __gnu_cxx::__normal_iterator
#include <memory> // std::allocator
#include <sstream> // __str__
#include <string> // std::basic_string
#include <string> // std::char_traits
#include <time.h> // tm
#include <pybind11/pybind11.h>
#include <functional>
#include <string>
#ifndef BINDER_PYBIND11_TYPE_CASTER
#define BINDER_PYBIND11_TYPE_CASTER
PYBIND11_DECLARE_HOLDER_TYPE(T, std::shared_ptr<T>);
PYBIND11_DECLARE_HOLDER_TYPE(T, T*);
PYBIND11_MAKE_OPAQUE(std::shared_ptr<void>);
#endif
void bind_core_typeinfo(std::function< pybind11::module &(std::string const &namespace_) > &M)
{
// KICAD_T file:core/typeinfo.h line:77
pybind11::enum_<KICAD_T>(M(""), "KICAD_T", pybind11::arithmetic(), "The set of class identification values stored in #EDA_ITEM::m_structType")
.value("NOT_USED", NOT_USED)
.value("EOT", EOT)
.value("TYPE_NOT_INIT", TYPE_NOT_INIT)
.value("PCB_T", PCB_T)
.value("SCREEN_T", SCREEN_T)
.value("PCB_FOOTPRINT_T", PCB_FOOTPRINT_T)
.value("PCB_PAD_T", PCB_PAD_T)
.value("PCB_SHAPE_T", PCB_SHAPE_T)
.value("PCB_TEXT_T", PCB_TEXT_T)
.value("PCB_FP_TEXT_T", PCB_FP_TEXT_T)
.value("PCB_FP_SHAPE_T", PCB_FP_SHAPE_T)
.value("PCB_FP_ZONE_T", PCB_FP_ZONE_T)
.value("PCB_TRACE_T", PCB_TRACE_T)
.value("PCB_VIA_T", PCB_VIA_T)
.value("PCB_ARC_T", PCB_ARC_T)
.value("PCB_MARKER_T", PCB_MARKER_T)
.value("PCB_DIMENSION_T", PCB_DIMENSION_T)
.value("PCB_DIM_ALIGNED_T", PCB_DIM_ALIGNED_T)
.value("PCB_DIM_LEADER_T", PCB_DIM_LEADER_T)
.value("PCB_DIM_CENTER_T", PCB_DIM_CENTER_T)
.value("PCB_DIM_ORTHOGONAL_T", PCB_DIM_ORTHOGONAL_T)
.value("PCB_TARGET_T", PCB_TARGET_T)
.value("PCB_ZONE_T", PCB_ZONE_T)
.value("PCB_ITEM_LIST_T", PCB_ITEM_LIST_T)
.value("PCB_NETINFO_T", PCB_NETINFO_T)
.value("PCB_GROUP_T", PCB_GROUP_T)
.value("PCB_LOCATE_STDVIA_T", PCB_LOCATE_STDVIA_T)
.value("PCB_LOCATE_UVIA_T", PCB_LOCATE_UVIA_T)
.value("PCB_LOCATE_BBVIA_T", PCB_LOCATE_BBVIA_T)
.value("PCB_LOCATE_TEXT_T", PCB_LOCATE_TEXT_T)
.value("PCB_LOCATE_GRAPHIC_T", PCB_LOCATE_GRAPHIC_T)
.value("PCB_LOCATE_HOLE_T", PCB_LOCATE_HOLE_T)
.value("PCB_LOCATE_PTH_T", PCB_LOCATE_PTH_T)
.value("PCB_LOCATE_NPTH_T", PCB_LOCATE_NPTH_T)
.value("PCB_LOCATE_BOARD_EDGE_T", PCB_LOCATE_BOARD_EDGE_T)
.value("SCH_MARKER_T", SCH_MARKER_T)
.value("SCH_JUNCTION_T", SCH_JUNCTION_T)
.value("SCH_NO_CONNECT_T", SCH_NO_CONNECT_T)
.value("SCH_BUS_WIRE_ENTRY_T", SCH_BUS_WIRE_ENTRY_T)
.value("SCH_BUS_BUS_ENTRY_T", SCH_BUS_BUS_ENTRY_T)
.value("SCH_LINE_T", SCH_LINE_T)
.value("SCH_BITMAP_T", SCH_BITMAP_T)
.value("SCH_TEXT_T", SCH_TEXT_T)
.value("SCH_LABEL_T", SCH_LABEL_T)
.value("SCH_GLOBAL_LABEL_T", SCH_GLOBAL_LABEL_T)
.value("SCH_HIER_LABEL_T", SCH_HIER_LABEL_T)
.value("SCH_FIELD_T", SCH_FIELD_T)
.value("SCH_COMPONENT_T", SCH_COMPONENT_T)
.value("SCH_SHEET_PIN_T", SCH_SHEET_PIN_T)
.value("SCH_SHEET_T", SCH_SHEET_T)
.value("SCH_PIN_T", SCH_PIN_T)
.value("SCH_FIELD_LOCATE_REFERENCE_T", SCH_FIELD_LOCATE_REFERENCE_T)
.value("SCH_FIELD_LOCATE_VALUE_T", SCH_FIELD_LOCATE_VALUE_T)
.value("SCH_FIELD_LOCATE_FOOTPRINT_T", SCH_FIELD_LOCATE_FOOTPRINT_T)
.value("SCH_FIELD_LOCATE_DATASHEET_T", SCH_FIELD_LOCATE_DATASHEET_T)
.value("SCH_LINE_LOCATE_WIRE_T", SCH_LINE_LOCATE_WIRE_T)
.value("SCH_LINE_LOCATE_BUS_T", SCH_LINE_LOCATE_BUS_T)
.value("SCH_LINE_LOCATE_GRAPHIC_LINE_T", SCH_LINE_LOCATE_GRAPHIC_LINE_T)
.value("SCH_LABEL_LOCATE_WIRE_T", SCH_LABEL_LOCATE_WIRE_T)
.value("SCH_LABEL_LOCATE_BUS_T", SCH_LABEL_LOCATE_BUS_T)
.value("SCH_COMPONENT_LOCATE_POWER_T", SCH_COMPONENT_LOCATE_POWER_T)
.value("SCH_LOCATE_ANY_T", SCH_LOCATE_ANY_T)
.value("SCH_SCREEN_T", SCH_SCREEN_T)
.value("SCHEMATIC_T", SCHEMATIC_T)
.value("LIB_PART_T", LIB_PART_T)
.value("LIB_ALIAS_T", LIB_ALIAS_T)
.value("LIB_ARC_T", LIB_ARC_T)
.value("LIB_CIRCLE_T", LIB_CIRCLE_T)
.value("LIB_TEXT_T", LIB_TEXT_T)
.value("LIB_RECTANGLE_T", LIB_RECTANGLE_T)
.value("LIB_POLYLINE_T", LIB_POLYLINE_T)
.value("LIB_BEZIER_T", LIB_BEZIER_T)
.value("LIB_PIN_T", LIB_PIN_T)
.value("LIB_FIELD_T", LIB_FIELD_T)
.value("GERBER_LAYOUT_T", GERBER_LAYOUT_T)
.value("GERBER_DRAW_ITEM_T", GERBER_DRAW_ITEM_T)
.value("GERBER_IMAGE_T", GERBER_IMAGE_T)
.value("WSG_LINE_T", WSG_LINE_T)
.value("WSG_RECT_T", WSG_RECT_T)
.value("WSG_POLY_T", WSG_POLY_T)
.value("WSG_TEXT_T", WSG_TEXT_T)
.value("WSG_BITMAP_T", WSG_BITMAP_T)
.value("WSG_PAGE_T", WSG_PAGE_T)
.value("WS_PROXY_UNDO_ITEM_T", WS_PROXY_UNDO_ITEM_T)
.value("WS_PROXY_UNDO_ITEM_PLUS_T", WS_PROXY_UNDO_ITEM_PLUS_T)
.value("SYMBOL_LIB_TABLE_T", SYMBOL_LIB_TABLE_T)
.value("FP_LIB_TABLE_T", FP_LIB_TABLE_T)
.value("PART_LIBS_T", PART_LIBS_T)
.value("SEARCH_STACK_T", SEARCH_STACK_T)
.value("S3D_CACHE_T", S3D_CACHE_T)
.value("MAX_STRUCT_TYPE_ID", MAX_STRUCT_TYPE_ID)
.export_values();
;
// BaseType(const enum KICAD_T) file:core/typeinfo.h line:235
M("").def("BaseType", (enum KICAD_T (*)(const enum KICAD_T)) &BaseType, "Returns the underlying type of the given type.\n\n This is useful for finding the element type given one of the \"non-type\" types such as\n SCH_LINE_LOCATE_WIRE_T.\n\n \n Given type to resolve.\n \n\n Base type.\n\nC++: BaseType(const enum KICAD_T) --> enum KICAD_T", pybind11::arg("aType"));
// wxSetDefaultAssertHandler() file: line:127
M("").def("wxSetDefaultAssertHandler", (void (*)()) &wxSetDefaultAssertHandler, "C++: wxSetDefaultAssertHandler() --> void");
// wxDisableAsserts() file: line:145
M("").def("wxDisableAsserts", (void (*)()) &wxDisableAsserts, "C++: wxDisableAsserts() --> void");
// wxOnAssert(const char *, int, const char *, const char *) file: line:180
M("").def("wxOnAssert", (void (*)(const char *, int, const char *, const char *)) &wxOnAssert, "C++: wxOnAssert(const char *, int, const char *, const char *) --> void", pybind11::arg("file"), pybind11::arg("line"), pybind11::arg("func"), pybind11::arg("cond"));
// wxOnAssert(const char *, int, const char *, const char *, const char *) file: line:185
M("").def("wxOnAssert", (void (*)(const char *, int, const char *, const char *, const char *)) &wxOnAssert, "C++: wxOnAssert(const char *, int, const char *, const char *, const char *) --> void", pybind11::arg("file"), pybind11::arg("line"), pybind11::arg("func"), pybind11::arg("cond"), pybind11::arg("msg"));
// wxOnAssert(const char *, int, const char *, const char *, const wchar_t *) file: line:191
M("").def("wxOnAssert", (void (*)(const char *, int, const char *, const char *, const wchar_t *)) &wxOnAssert, "C++: wxOnAssert(const char *, int, const char *, const char *, const wchar_t *) --> void", pybind11::arg("file"), pybind11::arg("line"), pybind11::arg("func"), pybind11::arg("cond"), pybind11::arg("msg"));
// wxOnAssert(const wchar_t *, int, const char *, const wchar_t *, const wchar_t *) file: line:201
M("").def("wxOnAssert", [](const wchar_t * a0, int const & a1, const char * a2, const wchar_t * a3) -> void { return wxOnAssert(a0, a1, a2, a3); }, "", pybind11::arg("file"), pybind11::arg("line"), pybind11::arg("func"), pybind11::arg("cond"));
M("").def("wxOnAssert", (void (*)(const wchar_t *, int, const char *, const wchar_t *, const wchar_t *)) &wxOnAssert, "C++: wxOnAssert(const wchar_t *, int, const char *, const wchar_t *, const wchar_t *) --> void", pybind11::arg("file"), pybind11::arg("line"), pybind11::arg("func"), pybind11::arg("cond"), pybind11::arg("msg"));
// wxOnAssert(const class wxString &, int, const class wxString &, const class wxString &, const class wxString &) file: line:210
M("").def("wxOnAssert", (void (*)(const class wxString &, int, const class wxString &, const class wxString &, const class wxString &)) &wxOnAssert, "C++: wxOnAssert(const class wxString &, int, const class wxString &, const class wxString &, const class wxString &) --> void", pybind11::arg("file"), pybind11::arg("line"), pybind11::arg("func"), pybind11::arg("cond"), pybind11::arg("msg"));
// wxOnAssert(const class wxString &, int, const class wxString &, const class wxString &) file: line:216
M("").def("wxOnAssert", (void (*)(const class wxString &, int, const class wxString &, const class wxString &)) &wxOnAssert, "C++: wxOnAssert(const class wxString &, int, const class wxString &, const class wxString &) --> void", pybind11::arg("file"), pybind11::arg("line"), pybind11::arg("func"), pybind11::arg("cond"));
// wxOnAssert(const char *, int, const char *, const char *, const class wxCStrData &) file: line:221
M("").def("wxOnAssert", (void (*)(const char *, int, const char *, const char *, const class wxCStrData &)) &wxOnAssert, "C++: wxOnAssert(const char *, int, const char *, const char *, const class wxCStrData &) --> void", pybind11::arg("file"), pybind11::arg("line"), pybind11::arg("func"), pybind11::arg("cond"), pybind11::arg("msg"));
// wxOnAssert(const char *, int, const char *, const char *, const class wxString &) file: line:227
M("").def("wxOnAssert", (void (*)(const char *, int, const char *, const char *, const class wxString &)) &wxOnAssert, "C++: wxOnAssert(const char *, int, const char *, const char *, const class wxString &) --> void", pybind11::arg("file"), pybind11::arg("line"), pybind11::arg("func"), pybind11::arg("cond"), pybind11::arg("msg"));
// wxTrap() file: line:262
M("").def("wxTrap", (void (*)()) &wxTrap, "C++: wxTrap() --> void");
// wxAbort() file: line:332
M("").def("wxAbort", (void (*)()) &wxAbort, "C++: wxAbort() --> void");
// wxIsDebuggerRunning() file: line:469
M("").def("wxIsDebuggerRunning", (bool (*)()) &wxIsDebuggerRunning, "C++: wxIsDebuggerRunning() --> bool");
// wxAssertIsEqual(int, int) file: line:479
M("").def("wxAssertIsEqual", (bool (*)(int, int)) &wxAssertIsEqual, "C++: wxAssertIsEqual(int, int) --> bool", pybind11::arg("x"), pybind11::arg("y"));
// wxSwap(unsigned long &, unsigned long &) file: line:775
M("").def("wxSwap", (void (*)(unsigned long &, unsigned long &)) &wxSwap<unsigned long>, "C++: wxSwap(unsigned long &, unsigned long &) --> void", pybind11::arg("first"), pybind11::arg("second"));
// wxSwap(class wxString *&, class wxString *&) file: line:775
M("").def("wxSwap", (void (*)(class wxString *&, class wxString *&)) &wxSwap<wxString *>, "C++: wxSwap(class wxString *&, class wxString *&) --> void", pybind11::arg("first"), pybind11::arg("second"));
// wxSwap(bool &, bool &) file: line:775
M("").def("wxSwap", (void (*)(bool &, bool &)) &wxSwap<bool>, "C++: wxSwap(bool &, bool &) --> void", pybind11::arg("first"), pybind11::arg("second"));
// wxSwap(char *&, char *&) file: line:775
M("").def("wxSwap", (void (*)(char *&, char *&)) &wxSwap<char *>, "C++: wxSwap(char *&, char *&) --> void", pybind11::arg("first"), pybind11::arg("second"));
// wxSwap(short *&, short *&) file: line:775
M("").def("wxSwap", (void (*)(short *&, short *&)) &wxSwap<short *>, "C++: wxSwap(short *&, short *&) --> void", pybind11::arg("first"), pybind11::arg("second"));
// wxSwap(int *&, int *&) file: line:775
M("").def("wxSwap", (void (*)(int *&, int *&)) &wxSwap<int *>, "C++: wxSwap(int *&, int *&) --> void", pybind11::arg("first"), pybind11::arg("second"));
// wxSwap(long *&, long *&) file: line:775
M("").def("wxSwap", (void (*)(long *&, long *&)) &wxSwap<long *>, "C++: wxSwap(long *&, long *&) --> void", pybind11::arg("first"), pybind11::arg("second"));
// wxSwap(unsigned long *&, unsigned long *&) file: line:775
M("").def("wxSwap", (void (*)(unsigned long *&, unsigned long *&)) &wxSwap<unsigned long *>, "C++: wxSwap(unsigned long *&, unsigned long *&) --> void", pybind11::arg("first"), pybind11::arg("second"));
// wxSwap(double *&, double *&) file: line:775
M("").def("wxSwap", (void (*)(double *&, double *&)) &wxSwap<double *>, "C++: wxSwap(double *&, double *&) --> void", pybind11::arg("first"), pybind11::arg("second"));
// wxUnusedVar(const int &) file: line:912
M("").def("wxUnusedVar", (void (*)(const int &)) &wxUnusedVar<int>, "C++: wxUnusedVar(const int &) --> void", pybind11::arg(""));
// wxUnusedVar(const union wxAnyValueBuffer &) file: line:912
M("").def("wxUnusedVar", (void (*)(const union wxAnyValueBuffer &)) &wxUnusedVar<wxAnyValueBuffer>, "C++: wxUnusedVar(const union wxAnyValueBuffer &) --> void", pybind11::arg(""));
// wxUnusedVar(class wxAnyValueType *const &) file: line:912
M("").def("wxUnusedVar", (void (*)(class wxAnyValueType *const &)) &wxUnusedVar<wxAnyValueType *>, "C++: wxUnusedVar(class wxAnyValueType *const &) --> void", pybind11::arg(""));
// wxUnusedVar(const bool &) file: line:912
M("").def("wxUnusedVar", (void (*)(const bool &)) &wxUnusedVar<bool>, "C++: wxUnusedVar(const bool &) --> void", pybind11::arg(""));
}

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PROJECT_NAME = pybind11
INPUT = ../include/pybind11/
RECURSIVE = YES
GENERATE_HTML = NO
GENERATE_LATEX = NO
GENERATE_XML = YES
XML_OUTPUT = .build/doxygenxml
XML_PROGRAMLISTING = YES
MACRO_EXPANSION = YES
EXPAND_ONLY_PREDEF = YES
EXPAND_AS_DEFINED = PYBIND11_RUNTIME_EXCEPTION
ALIASES = "rst=\verbatim embed:rst"
ALIASES += "endrst=\endverbatim"
QUIET = YES
WARNINGS = YES
WARN_IF_UNDOCUMENTED = NO
PREDEFINED = DOXYGEN_SHOULD_SKIP_THIS \
PY_MAJOR_VERSION=3 \
PYBIND11_NOINLINE

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.wy-table-responsive table td,
.wy-table-responsive table th {
white-space: initial !important;
}
.rst-content table.docutils td {
vertical-align: top !important;
}
div[class^='highlight'] pre {
white-space: pre;
white-space: pre-wrap;
}

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Chrono
======
When including the additional header file :file:`pybind11/chrono.h` conversions
from C++11 chrono datatypes to python datetime objects are automatically enabled.
This header also enables conversions of python floats (often from sources such
as ``time.monotonic()``, ``time.perf_counter()`` and ``time.process_time()``)
into durations.
An overview of clocks in C++11
------------------------------
A point of confusion when using these conversions is the differences between
clocks provided in C++11. There are three clock types defined by the C++11
standard and users can define their own if needed. Each of these clocks have
different properties and when converting to and from python will give different
results.
The first clock defined by the standard is ``std::chrono::system_clock``. This
clock measures the current date and time. However, this clock changes with to
updates to the operating system time. For example, if your time is synchronised
with a time server this clock will change. This makes this clock a poor choice
for timing purposes but good for measuring the wall time.
The second clock defined in the standard is ``std::chrono::steady_clock``.
This clock ticks at a steady rate and is never adjusted. This makes it excellent
for timing purposes, however the value in this clock does not correspond to the
current date and time. Often this clock will be the amount of time your system
has been on, although it does not have to be. This clock will never be the same
clock as the system clock as the system clock can change but steady clocks
cannot.
The third clock defined in the standard is ``std::chrono::high_resolution_clock``.
This clock is the clock that has the highest resolution out of the clocks in the
system. It is normally a typedef to either the system clock or the steady clock
but can be its own independent clock. This is important as when using these
conversions as the types you get in python for this clock might be different
depending on the system.
If it is a typedef of the system clock, python will get datetime objects, but if
it is a different clock they will be timedelta objects.
Provided conversions
--------------------
.. rubric:: C++ to Python
- ``std::chrono::system_clock::time_point`` → ``datetime.datetime``
System clock times are converted to python datetime instances. They are
in the local timezone, but do not have any timezone information attached
to them (they are naive datetime objects).
- ``std::chrono::duration`` → ``datetime.timedelta``
Durations are converted to timedeltas, any precision in the duration
greater than microseconds is lost by rounding towards zero.
- ``std::chrono::[other_clocks]::time_point`` → ``datetime.timedelta``
Any clock time that is not the system clock is converted to a time delta.
This timedelta measures the time from the clocks epoch to now.
.. rubric:: Python to C++
- ``datetime.datetime`` or ``datetime.date`` or ``datetime.time`` → ``std::chrono::system_clock::time_point``
Date/time objects are converted into system clock timepoints. Any
timezone information is ignored and the type is treated as a naive
object.
- ``datetime.timedelta`` → ``std::chrono::duration``
Time delta are converted into durations with microsecond precision.
- ``datetime.timedelta`` → ``std::chrono::[other_clocks]::time_point``
Time deltas that are converted into clock timepoints are treated as
the amount of time from the start of the clocks epoch.
- ``float`` → ``std::chrono::duration``
Floats that are passed to C++ as durations be interpreted as a number of
seconds. These will be converted to the duration using ``duration_cast``
from the float.
- ``float`` → ``std::chrono::[other_clocks]::time_point``
Floats that are passed to C++ as time points will be interpreted as the
number of seconds from the start of the clocks epoch.

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Custom type casters
===================
In very rare cases, applications may require custom type casters that cannot be
expressed using the abstractions provided by pybind11, thus requiring raw
Python C API calls. This is fairly advanced usage and should only be pursued by
experts who are familiar with the intricacies of Python reference counting.
The following snippets demonstrate how this works for a very simple ``inty``
type that that should be convertible from Python types that provide a
``__int__(self)`` method.
.. code-block:: cpp
struct inty { long long_value; };
void print(inty s) {
std::cout << s.long_value << std::endl;
}
The following Python snippet demonstrates the intended usage from the Python side:
.. code-block:: python
class A:
def __int__(self):
return 123
from example import print
print(A())
To register the necessary conversion routines, it is necessary to add an
instantiation of the ``pybind11::detail::type_caster<T>`` template.
Although this is an implementation detail, adding an instantiation of this
type is explicitly allowed.
.. code-block:: cpp
namespace pybind11 { namespace detail {
template <> struct type_caster<inty> {
public:
/**
* This macro establishes the name 'inty' in
* function signatures and declares a local variable
* 'value' of type inty
*/
PYBIND11_TYPE_CASTER(inty, _("inty"));
/**
* Conversion part 1 (Python->C++): convert a PyObject into a inty
* instance or return false upon failure. The second argument
* indicates whether implicit conversions should be applied.
*/
bool load(handle src, bool) {
/* Extract PyObject from handle */
PyObject *source = src.ptr();
/* Try converting into a Python integer value */
PyObject *tmp = PyNumber_Long(source);
if (!tmp)
return false;
/* Now try to convert into a C++ int */
value.long_value = PyLong_AsLong(tmp);
Py_DECREF(tmp);
/* Ensure return code was OK (to avoid out-of-range errors etc) */
return !(value.long_value == -1 && !PyErr_Occurred());
}
/**
* Conversion part 2 (C++ -> Python): convert an inty instance into
* a Python object. The second and third arguments are used to
* indicate the return value policy and parent object (for
* ``return_value_policy::reference_internal``) and are generally
* ignored by implicit casters.
*/
static handle cast(inty src, return_value_policy /* policy */, handle /* parent */) {
return PyLong_FromLong(src.long_value);
}
};
}} // namespace pybind11::detail
.. note::
A ``type_caster<T>`` defined with ``PYBIND11_TYPE_CASTER(T, ...)`` requires
that ``T`` is default-constructible (``value`` is first default constructed
and then ``load()`` assigns to it).
.. warning::
When using custom type casters, it's important to declare them consistently
in every compilation unit of the Python extension module. Otherwise,
undefined behavior can ensue.

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Eigen
#####
`Eigen <http://eigen.tuxfamily.org>`_ is C++ header-based library for dense and
sparse linear algebra. Due to its popularity and widespread adoption, pybind11
provides transparent conversion and limited mapping support between Eigen and
Scientific Python linear algebra data types.
To enable the built-in Eigen support you must include the optional header file
:file:`pybind11/eigen.h`.
Pass-by-value
=============
When binding a function with ordinary Eigen dense object arguments (for
example, ``Eigen::MatrixXd``), pybind11 will accept any input value that is
already (or convertible to) a ``numpy.ndarray`` with dimensions compatible with
the Eigen type, copy its values into a temporary Eigen variable of the
appropriate type, then call the function with this temporary variable.
Sparse matrices are similarly copied to or from
``scipy.sparse.csr_matrix``/``scipy.sparse.csc_matrix`` objects.
Pass-by-reference
=================
One major limitation of the above is that every data conversion implicitly
involves a copy, which can be both expensive (for large matrices) and disallows
binding functions that change their (Matrix) arguments. Pybind11 allows you to
work around this by using Eigen's ``Eigen::Ref<MatrixType>`` class much as you
would when writing a function taking a generic type in Eigen itself (subject to
some limitations discussed below).
When calling a bound function accepting a ``Eigen::Ref<const MatrixType>``
type, pybind11 will attempt to avoid copying by using an ``Eigen::Map`` object
that maps into the source ``numpy.ndarray`` data: this requires both that the
data types are the same (e.g. ``dtype='float64'`` and ``MatrixType::Scalar`` is
``double``); and that the storage is layout compatible. The latter limitation
is discussed in detail in the section below, and requires careful
consideration: by default, numpy matrices and Eigen matrices are *not* storage
compatible.
If the numpy matrix cannot be used as is (either because its types differ, e.g.
passing an array of integers to an Eigen parameter requiring doubles, or
because the storage is incompatible), pybind11 makes a temporary copy and
passes the copy instead.
When a bound function parameter is instead ``Eigen::Ref<MatrixType>`` (note the
lack of ``const``), pybind11 will only allow the function to be called if it
can be mapped *and* if the numpy array is writeable (that is
``a.flags.writeable`` is true). Any access (including modification) made to
the passed variable will be transparently carried out directly on the
``numpy.ndarray``.
This means you can can write code such as the following and have it work as
expected:
.. code-block:: cpp
void scale_by_2(Eigen::Ref<Eigen::VectorXd> v) {
v *= 2;
}
Note, however, that you will likely run into limitations due to numpy and
Eigen's difference default storage order for data; see the below section on
:ref:`storage_orders` for details on how to bind code that won't run into such
limitations.
.. note::
Passing by reference is not supported for sparse types.
Returning values to Python
==========================
When returning an ordinary dense Eigen matrix type to numpy (e.g.
``Eigen::MatrixXd`` or ``Eigen::RowVectorXf``) pybind11 keeps the matrix and
returns a numpy array that directly references the Eigen matrix: no copy of the
data is performed. The numpy array will have ``array.flags.owndata`` set to
``False`` to indicate that it does not own the data, and the lifetime of the
stored Eigen matrix will be tied to the returned ``array``.
If you bind a function with a non-reference, ``const`` return type (e.g.
``const Eigen::MatrixXd``), the same thing happens except that pybind11 also
sets the numpy array's ``writeable`` flag to false.
If you return an lvalue reference or pointer, the usual pybind11 rules apply,
as dictated by the binding function's return value policy (see the
documentation on :ref:`return_value_policies` for full details). That means,
without an explicit return value policy, lvalue references will be copied and
pointers will be managed by pybind11. In order to avoid copying, you should
explicitly specify an appropriate return value policy, as in the following
example:
.. code-block:: cpp
class MyClass {
Eigen::MatrixXd big_mat = Eigen::MatrixXd::Zero(10000, 10000);
public:
Eigen::MatrixXd &getMatrix() { return big_mat; }
const Eigen::MatrixXd &viewMatrix() { return big_mat; }
};
// Later, in binding code:
py::class_<MyClass>(m, "MyClass")
.def(py::init<>())
.def("copy_matrix", &MyClass::getMatrix) // Makes a copy!
.def("get_matrix", &MyClass::getMatrix, py::return_value_policy::reference_internal)
.def("view_matrix", &MyClass::viewMatrix, py::return_value_policy::reference_internal)
;
.. code-block:: python
a = MyClass()
m = a.get_matrix() # flags.writeable = True, flags.owndata = False
v = a.view_matrix() # flags.writeable = False, flags.owndata = False
c = a.copy_matrix() # flags.writeable = True, flags.owndata = True
# m[5,6] and v[5,6] refer to the same element, c[5,6] does not.
Note in this example that ``py::return_value_policy::reference_internal`` is
used to tie the life of the MyClass object to the life of the returned arrays.
You may also return an ``Eigen::Ref``, ``Eigen::Map`` or other map-like Eigen
object (for example, the return value of ``matrix.block()`` and related
methods) that map into a dense Eigen type. When doing so, the default
behaviour of pybind11 is to simply reference the returned data: you must take
care to ensure that this data remains valid! You may ask pybind11 to
explicitly *copy* such a return value by using the
``py::return_value_policy::copy`` policy when binding the function. You may
also use ``py::return_value_policy::reference_internal`` or a
``py::keep_alive`` to ensure the data stays valid as long as the returned numpy
array does.
When returning such a reference of map, pybind11 additionally respects the
readonly-status of the returned value, marking the numpy array as non-writeable
if the reference or map was itself read-only.
.. note::
Sparse types are always copied when returned.
.. _storage_orders:
Storage orders
==============
Passing arguments via ``Eigen::Ref`` has some limitations that you must be
aware of in order to effectively pass matrices by reference. First and
foremost is that the default ``Eigen::Ref<MatrixType>`` class requires
contiguous storage along columns (for column-major types, the default in Eigen)
or rows if ``MatrixType`` is specifically an ``Eigen::RowMajor`` storage type.
The former, Eigen's default, is incompatible with ``numpy``'s default row-major
storage, and so you will not be able to pass numpy arrays to Eigen by reference
without making one of two changes.
(Note that this does not apply to vectors (or column or row matrices): for such
types the "row-major" and "column-major" distinction is meaningless).
The first approach is to change the use of ``Eigen::Ref<MatrixType>`` to the
more general ``Eigen::Ref<MatrixType, 0, Eigen::Stride<Eigen::Dynamic,
Eigen::Dynamic>>`` (or similar type with a fully dynamic stride type in the
third template argument). Since this is a rather cumbersome type, pybind11
provides a ``py::EigenDRef<MatrixType>`` type alias for your convenience (along
with EigenDMap for the equivalent Map, and EigenDStride for just the stride
type).
This type allows Eigen to map into any arbitrary storage order. This is not
the default in Eigen for performance reasons: contiguous storage allows
vectorization that cannot be done when storage is not known to be contiguous at
compile time. The default ``Eigen::Ref`` stride type allows non-contiguous
storage along the outer dimension (that is, the rows of a column-major matrix
or columns of a row-major matrix), but not along the inner dimension.
This type, however, has the added benefit of also being able to map numpy array
slices. For example, the following (contrived) example uses Eigen with a numpy
slice to multiply by 2 all coefficients that are both on even rows (0, 2, 4,
...) and in columns 2, 5, or 8:
.. code-block:: cpp
m.def("scale", [](py::EigenDRef<Eigen::MatrixXd> m, double c) { m *= c; });
.. code-block:: python
# a = np.array(...)
scale_by_2(myarray[0::2, 2:9:3])
The second approach to avoid copying is more intrusive: rearranging the
underlying data types to not run into the non-contiguous storage problem in the
first place. In particular, that means using matrices with ``Eigen::RowMajor``
storage, where appropriate, such as:
.. code-block:: cpp
using RowMatrixXd = Eigen::Matrix<double, Eigen::Dynamic, Eigen::Dynamic, Eigen::RowMajor>;
// Use RowMatrixXd instead of MatrixXd
Now bound functions accepting ``Eigen::Ref<RowMatrixXd>`` arguments will be
callable with numpy's (default) arrays without involving a copying.
You can, alternatively, change the storage order that numpy arrays use by
adding the ``order='F'`` option when creating an array:
.. code-block:: python
myarray = np.array(source, order='F')
Such an object will be passable to a bound function accepting an
``Eigen::Ref<MatrixXd>`` (or similar column-major Eigen type).
One major caveat with this approach, however, is that it is not entirely as
easy as simply flipping all Eigen or numpy usage from one to the other: some
operations may alter the storage order of a numpy array. For example, ``a2 =
array.transpose()`` results in ``a2`` being a view of ``array`` that references
the same data, but in the opposite storage order!
While this approach allows fully optimized vectorized calculations in Eigen, it
cannot be used with array slices, unlike the first approach.
When *returning* a matrix to Python (either a regular matrix, a reference via
``Eigen::Ref<>``, or a map/block into a matrix), no special storage
consideration is required: the created numpy array will have the required
stride that allows numpy to properly interpret the array, whatever its storage
order.
Failing rather than copying
===========================
The default behaviour when binding ``Eigen::Ref<const MatrixType>`` Eigen
references is to copy matrix values when passed a numpy array that does not
conform to the element type of ``MatrixType`` or does not have a compatible
stride layout. If you want to explicitly avoid copying in such a case, you
should bind arguments using the ``py::arg().noconvert()`` annotation (as
described in the :ref:`nonconverting_arguments` documentation).
The following example shows an example of arguments that don't allow data
copying to take place:
.. code-block:: cpp
// The method and function to be bound:
class MyClass {
// ...
double some_method(const Eigen::Ref<const MatrixXd> &matrix) { /* ... */ }
};
float some_function(const Eigen::Ref<const MatrixXf> &big,
const Eigen::Ref<const MatrixXf> &small) {
// ...
}
// The associated binding code:
using namespace pybind11::literals; // for "arg"_a
py::class_<MyClass>(m, "MyClass")
// ... other class definitions
.def("some_method", &MyClass::some_method, py::arg().noconvert());
m.def("some_function", &some_function,
"big"_a.noconvert(), // <- Don't allow copying for this arg
"small"_a // <- This one can be copied if needed
);
With the above binding code, attempting to call the the ``some_method(m)``
method on a ``MyClass`` object, or attempting to call ``some_function(m, m2)``
will raise a ``RuntimeError`` rather than making a temporary copy of the array.
It will, however, allow the ``m2`` argument to be copied into a temporary if
necessary.
Note that explicitly specifying ``.noconvert()`` is not required for *mutable*
Eigen references (e.g. ``Eigen::Ref<MatrixXd>`` without ``const`` on the
``MatrixXd``): mutable references will never be called with a temporary copy.
Vectors versus column/row matrices
==================================
Eigen and numpy have fundamentally different notions of a vector. In Eigen, a
vector is simply a matrix with the number of columns or rows set to 1 at
compile time (for a column vector or row vector, respectively). NumPy, in
contrast, has comparable 2-dimensional 1xN and Nx1 arrays, but *also* has
1-dimensional arrays of size N.
When passing a 2-dimensional 1xN or Nx1 array to Eigen, the Eigen type must
have matching dimensions: That is, you cannot pass a 2-dimensional Nx1 numpy
array to an Eigen value expecting a row vector, or a 1xN numpy array as a
column vector argument.
On the other hand, pybind11 allows you to pass 1-dimensional arrays of length N
as Eigen parameters. If the Eigen type can hold a column vector of length N it
will be passed as such a column vector. If not, but the Eigen type constraints
will accept a row vector, it will be passed as a row vector. (The column
vector takes precedence when both are supported, for example, when passing a
1D numpy array to a MatrixXd argument). Note that the type need not be
explicitly a vector: it is permitted to pass a 1D numpy array of size 5 to an
Eigen ``Matrix<double, Dynamic, 5>``: you would end up with a 1x5 Eigen matrix.
Passing the same to an ``Eigen::MatrixXd`` would result in a 5x1 Eigen matrix.
When returning an Eigen vector to numpy, the conversion is ambiguous: a row
vector of length 4 could be returned as either a 1D array of length 4, or as a
2D array of size 1x4. When encountering such a situation, pybind11 compromises
by considering the returned Eigen type: if it is a compile-time vector--that
is, the type has either the number of rows or columns set to 1 at compile
time--pybind11 converts to a 1D numpy array when returning the value. For
instances that are a vector only at run-time (e.g. ``MatrixXd``,
``Matrix<float, Dynamic, 4>``), pybind11 returns the vector as a 2D array to
numpy. If this isn't want you want, you can use ``array.reshape(...)`` to get
a view of the same data in the desired dimensions.
.. seealso::
The file :file:`tests/test_eigen.cpp` contains a complete example that
shows how to pass Eigen sparse and dense data types in more detail.

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Functional
##########
The following features must be enabled by including :file:`pybind11/functional.h`.
Callbacks and passing anonymous functions
=========================================
The C++11 standard brought lambda functions and the generic polymorphic
function wrapper ``std::function<>`` to the C++ programming language, which
enable powerful new ways of working with functions. Lambda functions come in
two flavors: stateless lambda function resemble classic function pointers that
link to an anonymous piece of code, while stateful lambda functions
additionally depend on captured variables that are stored in an anonymous
*lambda closure object*.
Here is a simple example of a C++ function that takes an arbitrary function
(stateful or stateless) with signature ``int -> int`` as an argument and runs
it with the value 10.
.. code-block:: cpp
int func_arg(const std::function<int(int)> &f) {
return f(10);
}
The example below is more involved: it takes a function of signature ``int -> int``
and returns another function of the same kind. The return value is a stateful
lambda function, which stores the value ``f`` in the capture object and adds 1 to
its return value upon execution.
.. code-block:: cpp
std::function<int(int)> func_ret(const std::function<int(int)> &f) {
return [f](int i) {
return f(i) + 1;
};
}
This example demonstrates using python named parameters in C++ callbacks which
requires using ``py::cpp_function`` as a wrapper. Usage is similar to defining
methods of classes:
.. code-block:: cpp
py::cpp_function func_cpp() {
return py::cpp_function([](int i) { return i+1; },
py::arg("number"));
}
After including the extra header file :file:`pybind11/functional.h`, it is almost
trivial to generate binding code for all of these functions.
.. code-block:: cpp
#include <pybind11/functional.h>
PYBIND11_MODULE(example, m) {
m.def("func_arg", &func_arg);
m.def("func_ret", &func_ret);
m.def("func_cpp", &func_cpp);
}
The following interactive session shows how to call them from Python.
.. code-block:: pycon
$ python
>>> import example
>>> def square(i):
... return i * i
...
>>> example.func_arg(square)
100L
>>> square_plus_1 = example.func_ret(square)
>>> square_plus_1(4)
17L
>>> plus_1 = func_cpp()
>>> plus_1(number=43)
44L
.. warning::
Keep in mind that passing a function from C++ to Python (or vice versa)
will instantiate a piece of wrapper code that translates function
invocations between the two languages. Naturally, this translation
increases the computational cost of each function call somewhat. A
problematic situation can arise when a function is copied back and forth
between Python and C++ many times in a row, in which case the underlying
wrappers will accumulate correspondingly. The resulting long sequence of
C++ -> Python -> C++ -> ... roundtrips can significantly decrease
performance.
There is one exception: pybind11 detects case where a stateless function
(i.e. a function pointer or a lambda function without captured variables)
is passed as an argument to another C++ function exposed in Python. In this
case, there is no overhead. Pybind11 will extract the underlying C++
function pointer from the wrapped function to sidestep a potential C++ ->
Python -> C++ roundtrip. This is demonstrated in :file:`tests/test_callbacks.cpp`.
.. note::
This functionality is very useful when generating bindings for callbacks in
C++ libraries (e.g. GUI libraries, asynchronous networking libraries, etc.).
The file :file:`tests/test_callbacks.cpp` contains a complete example
that demonstrates how to work with callbacks and anonymous functions in
more detail.

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.. _type-conversions:
Type conversions
################
Apart from enabling cross-language function calls, a fundamental problem
that a binding tool like pybind11 must address is to provide access to
native Python types in C++ and vice versa. There are three fundamentally
different ways to do this—which approach is preferable for a particular type
depends on the situation at hand.
1. Use a native C++ type everywhere. In this case, the type must be wrapped
using pybind11-generated bindings so that Python can interact with it.
2. Use a native Python type everywhere. It will need to be wrapped so that
C++ functions can interact with it.
3. Use a native C++ type on the C++ side and a native Python type on the
Python side. pybind11 refers to this as a *type conversion*.
Type conversions are the most "natural" option in the sense that native
(non-wrapped) types are used everywhere. The main downside is that a copy
of the data must be made on every Python ↔ C++ transition: this is
needed since the C++ and Python versions of the same type generally won't
have the same memory layout.
pybind11 can perform many kinds of conversions automatically. An overview
is provided in the table ":ref:`conversion_table`".
The following subsections discuss the differences between these options in more
detail. The main focus in this section is on type conversions, which represent
the last case of the above list.
.. toctree::
:maxdepth: 1
overview
strings
stl
functional
chrono
eigen
custom

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Overview
########
.. rubric:: 1. Native type in C++, wrapper in Python
Exposing a custom C++ type using :class:`py::class_` was covered in detail
in the :doc:`/classes` section. There, the underlying data structure is
always the original C++ class while the :class:`py::class_` wrapper provides
a Python interface. Internally, when an object like this is sent from C++ to
Python, pybind11 will just add the outer wrapper layer over the native C++
object. Getting it back from Python is just a matter of peeling off the
wrapper.
.. rubric:: 2. Wrapper in C++, native type in Python
This is the exact opposite situation. Now, we have a type which is native to
Python, like a ``tuple`` or a ``list``. One way to get this data into C++ is
with the :class:`py::object` family of wrappers. These are explained in more
detail in the :doc:`/advanced/pycpp/object` section. We'll just give a quick
example here:
.. code-block:: cpp
void print_list(py::list my_list) {
for (auto item : my_list)
std::cout << item << " ";
}
.. code-block:: pycon
>>> print_list([1, 2, 3])
1 2 3
The Python ``list`` is not converted in any way -- it's just wrapped in a C++
:class:`py::list` class. At its core it's still a Python object. Copying a
:class:`py::list` will do the usual reference-counting like in Python.
Returning the object to Python will just remove the thin wrapper.
.. rubric:: 3. Converting between native C++ and Python types
In the previous two cases we had a native type in one language and a wrapper in
the other. Now, we have native types on both sides and we convert between them.
.. code-block:: cpp
void print_vector(const std::vector<int> &v) {
for (auto item : v)
std::cout << item << "\n";
}
.. code-block:: pycon
>>> print_vector([1, 2, 3])
1 2 3
In this case, pybind11 will construct a new ``std::vector<int>`` and copy each
element from the Python ``list``. The newly constructed object will be passed
to ``print_vector``. The same thing happens in the other direction: a new
``list`` is made to match the value returned from C++.
Lots of these conversions are supported out of the box, as shown in the table
below. They are very convenient, but keep in mind that these conversions are
fundamentally based on copying data. This is perfectly fine for small immutable
types but it may become quite expensive for large data structures. This can be
avoided by overriding the automatic conversion with a custom wrapper (i.e. the
above-mentioned approach 1). This requires some manual effort and more details
are available in the :ref:`opaque` section.
.. _conversion_table:
List of all builtin conversions
-------------------------------
The following basic data types are supported out of the box (some may require
an additional extension header to be included). To pass other data structures
as arguments and return values, refer to the section on binding :ref:`classes`.
+------------------------------------+---------------------------+-------------------------------+
| Data type | Description | Header file |
+====================================+===========================+===============================+
| ``int8_t``, ``uint8_t`` | 8-bit integers | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``int16_t``, ``uint16_t`` | 16-bit integers | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``int32_t``, ``uint32_t`` | 32-bit integers | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``int64_t``, ``uint64_t`` | 64-bit integers | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``ssize_t``, ``size_t`` | Platform-dependent size | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``float``, ``double`` | Floating point types | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``bool`` | Two-state Boolean type | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``char`` | Character literal | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``char16_t`` | UTF-16 character literal | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``char32_t`` | UTF-32 character literal | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``wchar_t`` | Wide character literal | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``const char *`` | UTF-8 string literal | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``const char16_t *`` | UTF-16 string literal | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``const char32_t *`` | UTF-32 string literal | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``const wchar_t *`` | Wide string literal | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::string`` | STL dynamic UTF-8 string | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::u16string`` | STL dynamic UTF-16 string | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::u32string`` | STL dynamic UTF-32 string | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::wstring`` | STL dynamic wide string | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::string_view``, | STL C++17 string views | :file:`pybind11/pybind11.h` |
| ``std::u16string_view``, etc. | | |
+------------------------------------+---------------------------+-------------------------------+
| ``std::pair<T1, T2>`` | Pair of two custom types | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::tuple<...>`` | Arbitrary tuple of types | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::reference_wrapper<...>`` | Reference type wrapper | :file:`pybind11/pybind11.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::complex<T>`` | Complex numbers | :file:`pybind11/complex.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::array<T, Size>`` | STL static array | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::vector<T>`` | STL dynamic array | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::deque<T>`` | STL double-ended queue | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::valarray<T>`` | STL value array | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::list<T>`` | STL linked list | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::map<T1, T2>`` | STL ordered map | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::unordered_map<T1, T2>`` | STL unordered map | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::set<T>`` | STL ordered set | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::unordered_set<T>`` | STL unordered set | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::optional<T>`` | STL optional type (C++17) | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::experimental::optional<T>`` | STL optional type (exp.) | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::variant<...>`` | Type-safe union (C++17) | :file:`pybind11/stl.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::function<...>`` | STL polymorphic function | :file:`pybind11/functional.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::chrono::duration<...>`` | STL time duration | :file:`pybind11/chrono.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``std::chrono::time_point<...>`` | STL date/time | :file:`pybind11/chrono.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``Eigen::Matrix<...>`` | Eigen: dense matrix | :file:`pybind11/eigen.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``Eigen::Map<...>`` | Eigen: mapped memory | :file:`pybind11/eigen.h` |
+------------------------------------+---------------------------+-------------------------------+
| ``Eigen::SparseMatrix<...>`` | Eigen: sparse matrix | :file:`pybind11/eigen.h` |
+------------------------------------+---------------------------+-------------------------------+

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STL containers
##############
Automatic conversion
====================
When including the additional header file :file:`pybind11/stl.h`, conversions
between ``std::vector<>``/``std::deque<>``/``std::list<>``/``std::array<>``/``std::valarray<>``,
``std::set<>``/``std::unordered_set<>``, and
``std::map<>``/``std::unordered_map<>`` and the Python ``list``, ``set`` and
``dict`` data structures are automatically enabled. The types ``std::pair<>``
and ``std::tuple<>`` are already supported out of the box with just the core
:file:`pybind11/pybind11.h` header.
The major downside of these implicit conversions is that containers must be
converted (i.e. copied) on every Python->C++ and C++->Python transition, which
can have implications on the program semantics and performance. Please read the
next sections for more details and alternative approaches that avoid this.
.. note::
Arbitrary nesting of any of these types is possible.
.. seealso::
The file :file:`tests/test_stl.cpp` contains a complete
example that demonstrates how to pass STL data types in more detail.
.. _cpp17_container_casters:
C++17 library containers
========================
The :file:`pybind11/stl.h` header also includes support for ``std::optional<>``
and ``std::variant<>``. These require a C++17 compiler and standard library.
In C++14 mode, ``std::experimental::optional<>`` is supported if available.
Various versions of these containers also exist for C++11 (e.g. in Boost).
pybind11 provides an easy way to specialize the ``type_caster`` for such
types:
.. code-block:: cpp
// `boost::optional` as an example -- can be any `std::optional`-like container
namespace pybind11 { namespace detail {
template <typename T>
struct type_caster<boost::optional<T>> : optional_caster<boost::optional<T>> {};
}}
The above should be placed in a header file and included in all translation units
where automatic conversion is needed. Similarly, a specialization can be provided
for custom variant types:
.. code-block:: cpp
// `boost::variant` as an example -- can be any `std::variant`-like container
namespace pybind11 { namespace detail {
template <typename... Ts>
struct type_caster<boost::variant<Ts...>> : variant_caster<boost::variant<Ts...>> {};
// Specifies the function used to visit the variant -- `apply_visitor` instead of `visit`
template <>
struct visit_helper<boost::variant> {
template <typename... Args>
static auto call(Args &&...args) -> decltype(boost::apply_visitor(args...)) {
return boost::apply_visitor(args...);
}
};
}} // namespace pybind11::detail
The ``visit_helper`` specialization is not required if your ``name::variant`` provides
a ``name::visit()`` function. For any other function name, the specialization must be
included to tell pybind11 how to visit the variant.
.. warning::
When converting a ``variant`` type, pybind11 follows the same rules as when
determining which function overload to call (:ref:`overload_resolution`), and
so the same caveats hold. In particular, the order in which the ``variant``'s
alternatives are listed is important, since pybind11 will try conversions in
this order. This means that, for example, when converting ``variant<int, bool>``,
the ``bool`` variant will never be selected, as any Python ``bool`` is already
an ``int`` and is convertible to a C++ ``int``. Changing the order of alternatives
(and using ``variant<bool, int>``, in this example) provides a solution.
.. note::
pybind11 only supports the modern implementation of ``boost::variant``
which makes use of variadic templates. This requires Boost 1.56 or newer.
Additionally, on Windows, MSVC 2017 is required because ``boost::variant``
falls back to the old non-variadic implementation on MSVC 2015.
.. _opaque:
Making opaque types
===================
pybind11 heavily relies on a template matching mechanism to convert parameters
and return values that are constructed from STL data types such as vectors,
linked lists, hash tables, etc. This even works in a recursive manner, for
instance to deal with lists of hash maps of pairs of elementary and custom
types, etc.
However, a fundamental limitation of this approach is that internal conversions
between Python and C++ types involve a copy operation that prevents
pass-by-reference semantics. What does this mean?
Suppose we bind the following function
.. code-block:: cpp
void append_1(std::vector<int> &v) {
v.push_back(1);
}
and call it from Python, the following happens:
.. code-block:: pycon
>>> v = [5, 6]
>>> append_1(v)
>>> print(v)
[5, 6]
As you can see, when passing STL data structures by reference, modifications
are not propagated back the Python side. A similar situation arises when
exposing STL data structures using the ``def_readwrite`` or ``def_readonly``
functions:
.. code-block:: cpp
/* ... definition ... */
class MyClass {
std::vector<int> contents;
};
/* ... binding code ... */
py::class_<MyClass>(m, "MyClass")
.def(py::init<>())
.def_readwrite("contents", &MyClass::contents);
In this case, properties can be read and written in their entirety. However, an
``append`` operation involving such a list type has no effect:
.. code-block:: pycon
>>> m = MyClass()
>>> m.contents = [5, 6]
>>> print(m.contents)
[5, 6]
>>> m.contents.append(7)
>>> print(m.contents)
[5, 6]
Finally, the involved copy operations can be costly when dealing with very
large lists. To deal with all of the above situations, pybind11 provides a
macro named ``PYBIND11_MAKE_OPAQUE(T)`` that disables the template-based
conversion machinery of types, thus rendering them *opaque*. The contents of
opaque objects are never inspected or extracted, hence they *can* be passed by
reference. For instance, to turn ``std::vector<int>`` into an opaque type, add
the declaration
.. code-block:: cpp
PYBIND11_MAKE_OPAQUE(std::vector<int>);
before any binding code (e.g. invocations to ``class_::def()``, etc.). This
macro must be specified at the top level (and outside of any namespaces), since
it adds a template instantiation of ``type_caster``. If your binding code consists of
multiple compilation units, it must be present in every file (typically via a
common header) preceding any usage of ``std::vector<int>``. Opaque types must
also have a corresponding ``class_`` declaration to associate them with a name
in Python, and to define a set of available operations, e.g.:
.. code-block:: cpp
py::class_<std::vector<int>>(m, "IntVector")
.def(py::init<>())
.def("clear", &std::vector<int>::clear)
.def("pop_back", &std::vector<int>::pop_back)
.def("__len__", [](const std::vector<int> &v) { return v.size(); })
.def("__iter__", [](std::vector<int> &v) {
return py::make_iterator(v.begin(), v.end());
}, py::keep_alive<0, 1>()) /* Keep vector alive while iterator is used */
// ....
.. seealso::
The file :file:`tests/test_opaque_types.cpp` contains a complete
example that demonstrates how to create and expose opaque types using
pybind11 in more detail.
.. _stl_bind:
Binding STL containers
======================
The ability to expose STL containers as native Python objects is a fairly
common request, hence pybind11 also provides an optional header file named
:file:`pybind11/stl_bind.h` that does exactly this. The mapped containers try
to match the behavior of their native Python counterparts as much as possible.
The following example showcases usage of :file:`pybind11/stl_bind.h`:
.. code-block:: cpp
// Don't forget this
#include <pybind11/stl_bind.h>
PYBIND11_MAKE_OPAQUE(std::vector<int>);
PYBIND11_MAKE_OPAQUE(std::map<std::string, double>);
// ...
// later in binding code:
py::bind_vector<std::vector<int>>(m, "VectorInt");
py::bind_map<std::map<std::string, double>>(m, "MapStringDouble");
When binding STL containers pybind11 considers the types of the container's
elements to decide whether the container should be confined to the local module
(via the :ref:`module_local` feature). If the container element types are
anything other than already-bound custom types bound without
``py::module_local()`` the container binding will have ``py::module_local()``
applied. This includes converting types such as numeric types, strings, Eigen
types; and types that have not yet been bound at the time of the stl container
binding. This module-local binding is designed to avoid potential conflicts
between module bindings (for example, from two separate modules each attempting
to bind ``std::vector<int>`` as a python type).
It is possible to override this behavior to force a definition to be either
module-local or global. To do so, you can pass the attributes
``py::module_local()`` (to make the binding module-local) or
``py::module_local(false)`` (to make the binding global) into the
``py::bind_vector`` or ``py::bind_map`` arguments:
.. code-block:: cpp
py::bind_vector<std::vector<int>>(m, "VectorInt", py::module_local(false));
Note, however, that such a global binding would make it impossible to load this
module at the same time as any other pybind module that also attempts to bind
the same container type (``std::vector<int>`` in the above example).
See :ref:`module_local` for more details on module-local bindings.
.. seealso::
The file :file:`tests/test_stl_binders.cpp` shows how to use the
convenience STL container wrappers.

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Strings, bytes and Unicode conversions
######################################
.. note::
This section discusses string handling in terms of Python 3 strings. For
Python 2.7, replace all occurrences of ``str`` with ``unicode`` and
``bytes`` with ``str``. Python 2.7 users may find it best to use ``from
__future__ import unicode_literals`` to avoid unintentionally using ``str``
instead of ``unicode``.
Passing Python strings to C++
=============================
When a Python ``str`` is passed from Python to a C++ function that accepts
``std::string`` or ``char *`` as arguments, pybind11 will encode the Python
string to UTF-8. All Python ``str`` can be encoded in UTF-8, so this operation
does not fail.
The C++ language is encoding agnostic. It is the responsibility of the
programmer to track encodings. It's often easiest to simply `use UTF-8
everywhere <http://utf8everywhere.org/>`_.
.. code-block:: c++
m.def("utf8_test",
[](const std::string &s) {
cout << "utf-8 is icing on the cake.\n";
cout << s;
}
);
m.def("utf8_charptr",
[](const char *s) {
cout << "My favorite food is\n";
cout << s;
}
);
.. code-block:: python
>>> utf8_test('🎂')
utf-8 is icing on the cake.
🎂
>>> utf8_charptr('🍕')
My favorite food is
🍕
.. note::
Some terminal emulators do not support UTF-8 or emoji fonts and may not
display the example above correctly.
The results are the same whether the C++ function accepts arguments by value or
reference, and whether or not ``const`` is used.
Passing bytes to C++
--------------------
A Python ``bytes`` object will be passed to C++ functions that accept
``std::string`` or ``char*`` *without* conversion. On Python 3, in order to
make a function *only* accept ``bytes`` (and not ``str``), declare it as taking
a ``py::bytes`` argument.
Returning C++ strings to Python
===============================
When a C++ function returns a ``std::string`` or ``char*`` to a Python caller,
**pybind11 will assume that the string is valid UTF-8** and will decode it to a
native Python ``str``, using the same API as Python uses to perform
``bytes.decode('utf-8')``. If this implicit conversion fails, pybind11 will
raise a ``UnicodeDecodeError``.
.. code-block:: c++
m.def("std_string_return",
[]() {
return std::string("This string needs to be UTF-8 encoded");
}
);
.. code-block:: python
>>> isinstance(example.std_string_return(), str)
True
Because UTF-8 is inclusive of pure ASCII, there is never any issue with
returning a pure ASCII string to Python. If there is any possibility that the
string is not pure ASCII, it is necessary to ensure the encoding is valid
UTF-8.
.. warning::
Implicit conversion assumes that a returned ``char *`` is null-terminated.
If there is no null terminator a buffer overrun will occur.
Explicit conversions
--------------------
If some C++ code constructs a ``std::string`` that is not a UTF-8 string, one
can perform a explicit conversion and return a ``py::str`` object. Explicit
conversion has the same overhead as implicit conversion.
.. code-block:: c++
// This uses the Python C API to convert Latin-1 to Unicode
m.def("str_output",
[]() {
std::string s = "Send your r\xe9sum\xe9 to Alice in HR"; // Latin-1
py::str py_s = PyUnicode_DecodeLatin1(s.data(), s.length());
return py_s;
}
);
.. code-block:: python
>>> str_output()
'Send your résumé to Alice in HR'
The `Python C API
<https://docs.python.org/3/c-api/unicode.html#built-in-codecs>`_ provides
several built-in codecs.
One could also use a third party encoding library such as libiconv to transcode
to UTF-8.
Return C++ strings without conversion
-------------------------------------
If the data in a C++ ``std::string`` does not represent text and should be
returned to Python as ``bytes``, then one can return the data as a
``py::bytes`` object.
.. code-block:: c++
m.def("return_bytes",
[]() {
std::string s("\xba\xd0\xba\xd0"); // Not valid UTF-8
return py::bytes(s); // Return the data without transcoding
}
);
.. code-block:: python
>>> example.return_bytes()
b'\xba\xd0\xba\xd0'
Note the asymmetry: pybind11 will convert ``bytes`` to ``std::string`` without
encoding, but cannot convert ``std::string`` back to ``bytes`` implicitly.
.. code-block:: c++
m.def("asymmetry",
[](std::string s) { // Accepts str or bytes from Python
return s; // Looks harmless, but implicitly converts to str
}
);
.. code-block:: python
>>> isinstance(example.asymmetry(b"have some bytes"), str)
True
>>> example.asymmetry(b"\xba\xd0\xba\xd0") # invalid utf-8 as bytes
UnicodeDecodeError: 'utf-8' codec can't decode byte 0xba in position 0: invalid start byte
Wide character strings
======================
When a Python ``str`` is passed to a C++ function expecting ``std::wstring``,
``wchar_t*``, ``std::u16string`` or ``std::u32string``, the ``str`` will be
encoded to UTF-16 or UTF-32 depending on how the C++ compiler implements each
type, in the platform's native endianness. When strings of these types are
returned, they are assumed to contain valid UTF-16 or UTF-32, and will be
decoded to Python ``str``.
.. code-block:: c++
#define UNICODE
#include <windows.h>
m.def("set_window_text",
[](HWND hwnd, std::wstring s) {
// Call SetWindowText with null-terminated UTF-16 string
::SetWindowText(hwnd, s.c_str());
}
);
m.def("get_window_text",
[](HWND hwnd) {
const int buffer_size = ::GetWindowTextLength(hwnd) + 1;
auto buffer = std::make_unique< wchar_t[] >(buffer_size);
::GetWindowText(hwnd, buffer.data(), buffer_size);
std::wstring text(buffer.get());
// wstring will be converted to Python str
return text;
}
);
.. warning::
Wide character strings may not work as described on Python 2.7 or Python
3.3 compiled with ``--enable-unicode=ucs2``.
Strings in multibyte encodings such as Shift-JIS must transcoded to a
UTF-8/16/32 before being returned to Python.
Character literals
==================
C++ functions that accept character literals as input will receive the first
character of a Python ``str`` as their input. If the string is longer than one
Unicode character, trailing characters will be ignored.
When a character literal is returned from C++ (such as a ``char`` or a
``wchar_t``), it will be converted to a ``str`` that represents the single
character.
.. code-block:: c++
m.def("pass_char", [](char c) { return c; });
m.def("pass_wchar", [](wchar_t w) { return w; });
.. code-block:: python
>>> example.pass_char('A')
'A'
While C++ will cast integers to character types (``char c = 0x65;``), pybind11
does not convert Python integers to characters implicitly. The Python function
``chr()`` can be used to convert integers to characters.
.. code-block:: python
>>> example.pass_char(0x65)
TypeError
>>> example.pass_char(chr(0x65))
'A'
If the desire is to work with an 8-bit integer, use ``int8_t`` or ``uint8_t``
as the argument type.
Grapheme clusters
-----------------
A single grapheme may be represented by two or more Unicode characters. For
example 'é' is usually represented as U+00E9 but can also be expressed as the
combining character sequence U+0065 U+0301 (that is, the letter 'e' followed by
a combining acute accent). The combining character will be lost if the
two-character sequence is passed as an argument, even though it renders as a
single grapheme.
.. code-block:: python
>>> example.pass_wchar('é')
'é'
>>> combining_e_acute = 'e' + '\u0301'
>>> combining_e_acute
'é'
>>> combining_e_acute == 'é'
False
>>> example.pass_wchar(combining_e_acute)
'e'
Normalizing combining characters before passing the character literal to C++
may resolve *some* of these issues:
.. code-block:: python
>>> example.pass_wchar(unicodedata.normalize('NFC', combining_e_acute))
'é'
In some languages (Thai for example), there are `graphemes that cannot be
expressed as a single Unicode code point
<http://unicode.org/reports/tr29/#Grapheme_Cluster_Boundaries>`_, so there is
no way to capture them in a C++ character type.
C++17 string views
==================
C++17 string views are automatically supported when compiling in C++17 mode.
They follow the same rules for encoding and decoding as the corresponding STL
string type (for example, a ``std::u16string_view`` argument will be passed
UTF-16-encoded data, and a returned ``std::string_view`` will be decoded as
UTF-8).
References
==========
* `The Absolute Minimum Every Software Developer Absolutely, Positively Must Know About Unicode and Character Sets (No Excuses!) <https://www.joelonsoftware.com/2003/10/08/the-absolute-minimum-every-software-developer-absolutely-positively-must-know-about-unicode-and-character-sets-no-excuses/>`_
* `C++ - Using STL Strings at Win32 API Boundaries <https://msdn.microsoft.com/en-ca/magazine/mt238407.aspx>`_

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.. _embedding:
Embedding the interpreter
#########################
While pybind11 is mainly focused on extending Python using C++, it's also
possible to do the reverse: embed the Python interpreter into a C++ program.
All of the other documentation pages still apply here, so refer to them for
general pybind11 usage. This section will cover a few extra things required
for embedding.
Getting started
===============
A basic executable with an embedded interpreter can be created with just a few
lines of CMake and the ``pybind11::embed`` target, as shown below. For more
information, see :doc:`/compiling`.
.. code-block:: cmake
cmake_minimum_required(VERSION 3.4)
project(example)
find_package(pybind11 REQUIRED) # or `add_subdirectory(pybind11)`
add_executable(example main.cpp)
target_link_libraries(example PRIVATE pybind11::embed)
The essential structure of the ``main.cpp`` file looks like this:
.. code-block:: cpp
#include <pybind11/embed.h> // everything needed for embedding
namespace py = pybind11;
int main() {
py::scoped_interpreter guard{}; // start the interpreter and keep it alive
py::print("Hello, World!"); // use the Python API
}
The interpreter must be initialized before using any Python API, which includes
all the functions and classes in pybind11. The RAII guard class `scoped_interpreter`
takes care of the interpreter lifetime. After the guard is destroyed, the interpreter
shuts down and clears its memory. No Python functions can be called after this.
Executing Python code
=====================
There are a few different ways to run Python code. One option is to use `eval`,
`exec` or `eval_file`, as explained in :ref:`eval`. Here is a quick example in
the context of an executable with an embedded interpreter:
.. code-block:: cpp
#include <pybind11/embed.h>
namespace py = pybind11;
int main() {
py::scoped_interpreter guard{};
py::exec(R"(
kwargs = dict(name="World", number=42)
message = "Hello, {name}! The answer is {number}".format(**kwargs)
print(message)
)");
}
Alternatively, similar results can be achieved using pybind11's API (see
:doc:`/advanced/pycpp/index` for more details).
.. code-block:: cpp
#include <pybind11/embed.h>
namespace py = pybind11;
using namespace py::literals;
int main() {
py::scoped_interpreter guard{};
auto kwargs = py::dict("name"_a="World", "number"_a=42);
auto message = "Hello, {name}! The answer is {number}"_s.format(**kwargs);
py::print(message);
}
The two approaches can also be combined:
.. code-block:: cpp
#include <pybind11/embed.h>
#include <iostream>
namespace py = pybind11;
using namespace py::literals;
int main() {
py::scoped_interpreter guard{};
auto locals = py::dict("name"_a="World", "number"_a=42);
py::exec(R"(
message = "Hello, {name}! The answer is {number}".format(**locals())
)", py::globals(), locals);
auto message = locals["message"].cast<std::string>();
std::cout << message;
}
Importing modules
=================
Python modules can be imported using `module_::import()`:
.. code-block:: cpp
py::module_ sys = py::module_::import("sys");
py::print(sys.attr("path"));
For convenience, the current working directory is included in ``sys.path`` when
embedding the interpreter. This makes it easy to import local Python files:
.. code-block:: python
"""calc.py located in the working directory"""
def add(i, j):
return i + j
.. code-block:: cpp
py::module_ calc = py::module_::import("calc");
py::object result = calc.attr("add")(1, 2);
int n = result.cast<int>();
assert(n == 3);
Modules can be reloaded using `module_::reload()` if the source is modified e.g.
by an external process. This can be useful in scenarios where the application
imports a user defined data processing script which needs to be updated after
changes by the user. Note that this function does not reload modules recursively.
.. _embedding_modules:
Adding embedded modules
=======================
Embedded binary modules can be added using the `PYBIND11_EMBEDDED_MODULE` macro.
Note that the definition must be placed at global scope. They can be imported
like any other module.
.. code-block:: cpp
#include <pybind11/embed.h>
namespace py = pybind11;
PYBIND11_EMBEDDED_MODULE(fast_calc, m) {
// `m` is a `py::module_` which is used to bind functions and classes
m.def("add", [](int i, int j) {
return i + j;
});
}
int main() {
py::scoped_interpreter guard{};
auto fast_calc = py::module_::import("fast_calc");
auto result = fast_calc.attr("add")(1, 2).cast<int>();
assert(result == 3);
}
Unlike extension modules where only a single binary module can be created, on
the embedded side an unlimited number of modules can be added using multiple
`PYBIND11_EMBEDDED_MODULE` definitions (as long as they have unique names).
These modules are added to Python's list of builtins, so they can also be
imported in pure Python files loaded by the interpreter. Everything interacts
naturally:
.. code-block:: python
"""py_module.py located in the working directory"""
import cpp_module
a = cpp_module.a
b = a + 1
.. code-block:: cpp
#include <pybind11/embed.h>
namespace py = pybind11;
PYBIND11_EMBEDDED_MODULE(cpp_module, m) {
m.attr("a") = 1;
}
int main() {
py::scoped_interpreter guard{};
auto py_module = py::module_::import("py_module");
auto locals = py::dict("fmt"_a="{} + {} = {}", **py_module.attr("__dict__"));
assert(locals["a"].cast<int>() == 1);
assert(locals["b"].cast<int>() == 2);
py::exec(R"(
c = a + b
message = fmt.format(a, b, c)
)", py::globals(), locals);
assert(locals["c"].cast<int>() == 3);
assert(locals["message"].cast<std::string>() == "1 + 2 = 3");
}
Interpreter lifetime
====================
The Python interpreter shuts down when `scoped_interpreter` is destroyed. After
this, creating a new instance will restart the interpreter. Alternatively, the
`initialize_interpreter` / `finalize_interpreter` pair of functions can be used
to directly set the state at any time.
Modules created with pybind11 can be safely re-initialized after the interpreter
has been restarted. However, this may not apply to third-party extension modules.
The issue is that Python itself cannot completely unload extension modules and
there are several caveats with regard to interpreter restarting. In short, not
all memory may be freed, either due to Python reference cycles or user-created
global data. All the details can be found in the CPython documentation.
.. warning::
Creating two concurrent `scoped_interpreter` guards is a fatal error. So is
calling `initialize_interpreter` for a second time after the interpreter
has already been initialized.
Do not use the raw CPython API functions ``Py_Initialize`` and
``Py_Finalize`` as these do not properly handle the lifetime of
pybind11's internal data.
Sub-interpreter support
=======================
Creating multiple copies of `scoped_interpreter` is not possible because it
represents the main Python interpreter. Sub-interpreters are something different
and they do permit the existence of multiple interpreters. This is an advanced
feature of the CPython API and should be handled with care. pybind11 does not
currently offer a C++ interface for sub-interpreters, so refer to the CPython
documentation for all the details regarding this feature.
We'll just mention a couple of caveats the sub-interpreters support in pybind11:
1. Sub-interpreters will not receive independent copies of embedded modules.
Instead, these are shared and modifications in one interpreter may be
reflected in another.
2. Managing multiple threads, multiple interpreters and the GIL can be
challenging and there are several caveats here, even within the pure
CPython API (please refer to the Python docs for details). As for
pybind11, keep in mind that `gil_scoped_release` and `gil_scoped_acquire`
do not take sub-interpreters into account.

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Exceptions
##########
Built-in C++ to Python exception translation
============================================
When Python calls C++ code through pybind11, pybind11 provides a C++ exception handler
that will trap C++ exceptions, translate them to the corresponding Python exception,
and raise them so that Python code can handle them.
pybind11 defines translations for ``std::exception`` and its standard
subclasses, and several special exception classes that translate to specific
Python exceptions. Note that these are not actually Python exceptions, so they
cannot be examined using the Python C API. Instead, they are pure C++ objects
that pybind11 will translate the corresponding Python exception when they arrive
at its exception handler.
.. tabularcolumns:: |p{0.5\textwidth}|p{0.45\textwidth}|
+--------------------------------------+--------------------------------------+
| Exception thrown by C++ | Translated to Python exception type |
+======================================+======================================+
| :class:`std::exception` | ``RuntimeError`` |
+--------------------------------------+--------------------------------------+
| :class:`std::bad_alloc` | ``MemoryError`` |
+--------------------------------------+--------------------------------------+
| :class:`std::domain_error` | ``ValueError`` |
+--------------------------------------+--------------------------------------+
| :class:`std::invalid_argument` | ``ValueError`` |
+--------------------------------------+--------------------------------------+
| :class:`std::length_error` | ``ValueError`` |
+--------------------------------------+--------------------------------------+
| :class:`std::out_of_range` | ``IndexError`` |
+--------------------------------------+--------------------------------------+
| :class:`std::range_error` | ``ValueError`` |
+--------------------------------------+--------------------------------------+
| :class:`std::overflow_error` | ``OverflowError`` |
+--------------------------------------+--------------------------------------+
| :class:`pybind11::stop_iteration` | ``StopIteration`` (used to implement |
| | custom iterators) |
+--------------------------------------+--------------------------------------+
| :class:`pybind11::index_error` | ``IndexError`` (used to indicate out |
| | of bounds access in ``__getitem__``, |
| | ``__setitem__``, etc.) |
+--------------------------------------+--------------------------------------+
| :class:`pybind11::key_error` | ``KeyError`` (used to indicate out |
| | of bounds access in ``__getitem__``, |
| | ``__setitem__`` in dict-like |
| | objects, etc.) |
+--------------------------------------+--------------------------------------+
| :class:`pybind11::value_error` | ``ValueError`` (used to indicate |
| | wrong value passed in |
| | ``container.remove(...)``) |
+--------------------------------------+--------------------------------------+
| :class:`pybind11::type_error` | ``TypeError`` |
+--------------------------------------+--------------------------------------+
| :class:`pybind11::buffer_error` | ``BufferError`` |
+--------------------------------------+--------------------------------------+
| :class:`pybind11::import_error` | ``import_error`` |
+--------------------------------------+--------------------------------------+
| Any other exception | ``RuntimeError`` |
+--------------------------------------+--------------------------------------+
Exception translation is not bidirectional. That is, *catching* the C++
exceptions defined above above will not trap exceptions that originate from
Python. For that, catch :class:`pybind11::error_already_set`. See :ref:`below
<handling_python_exceptions_cpp>` for further details.
There is also a special exception :class:`cast_error` that is thrown by
:func:`handle::call` when the input arguments cannot be converted to Python
objects.
Registering custom translators
==============================
If the default exception conversion policy described above is insufficient,
pybind11 also provides support for registering custom exception translators.
To register a simple exception conversion that translates a C++ exception into
a new Python exception using the C++ exception's ``what()`` method, a helper
function is available:
.. code-block:: cpp
py::register_exception<CppExp>(module, "PyExp");
This call creates a Python exception class with the name ``PyExp`` in the given
module and automatically converts any encountered exceptions of type ``CppExp``
into Python exceptions of type ``PyExp``.
It is possible to specify base class for the exception using the third
parameter, a `handle`:
.. code-block:: cpp
py::register_exception<CppExp>(module, "PyExp", PyExc_RuntimeError);
Then `PyExp` can be caught both as `PyExp` and `RuntimeError`.
The class objects of the built-in Python exceptions are listed in the Python
documentation on `Standard Exceptions <https://docs.python.org/3/c-api/exceptions.html#standard-exceptions>`_.
The default base class is `PyExc_Exception`.
When more advanced exception translation is needed, the function
``py::register_exception_translator(translator)`` can be used to register
functions that can translate arbitrary exception types (and which may include
additional logic to do so). The function takes a stateless callable (e.g. a
function pointer or a lambda function without captured variables) with the call
signature ``void(std::exception_ptr)``.
When a C++ exception is thrown, the registered exception translators are tried
in reverse order of registration (i.e. the last registered translator gets the
first shot at handling the exception).
Inside the translator, ``std::rethrow_exception`` should be used within
a try block to re-throw the exception. One or more catch clauses to catch
the appropriate exceptions should then be used with each clause using
``PyErr_SetString`` to set a Python exception or ``ex(string)`` to set
the python exception to a custom exception type (see below).
To declare a custom Python exception type, declare a ``py::exception`` variable
and use this in the associated exception translator (note: it is often useful
to make this a static declaration when using it inside a lambda expression
without requiring capturing).
The following example demonstrates this for a hypothetical exception classes
``MyCustomException`` and ``OtherException``: the first is translated to a
custom python exception ``MyCustomError``, while the second is translated to a
standard python RuntimeError:
.. code-block:: cpp
static py::exception<MyCustomException> exc(m, "MyCustomError");
py::register_exception_translator([](std::exception_ptr p) {
try {
if (p) std::rethrow_exception(p);
} catch (const MyCustomException &e) {
exc(e.what());
} catch (const OtherException &e) {
PyErr_SetString(PyExc_RuntimeError, e.what());
}
});
Multiple exceptions can be handled by a single translator, as shown in the
example above. If the exception is not caught by the current translator, the
previously registered one gets a chance.
If none of the registered exception translators is able to handle the
exception, it is handled by the default converter as described in the previous
section.
.. seealso::
The file :file:`tests/test_exceptions.cpp` contains examples
of various custom exception translators and custom exception types.
.. note::
Call either ``PyErr_SetString`` or a custom exception's call
operator (``exc(string)``) for every exception caught in a custom exception
translator. Failure to do so will cause Python to crash with ``SystemError:
error return without exception set``.
Exceptions that you do not plan to handle should simply not be caught, or
may be explicitly (re-)thrown to delegate it to the other,
previously-declared existing exception translators.
.. _handling_python_exceptions_cpp:
Handling exceptions from Python in C++
======================================
When C++ calls Python functions, such as in a callback function or when
manipulating Python objects, and Python raises an ``Exception``, pybind11
converts the Python exception into a C++ exception of type
:class:`pybind11::error_already_set` whose payload contains a C++ string textual
summary and the actual Python exception. ``error_already_set`` is used to
propagate Python exception back to Python (or possibly, handle them in C++).
.. tabularcolumns:: |p{0.5\textwidth}|p{0.45\textwidth}|
+--------------------------------------+--------------------------------------+
| Exception raised in Python | Thrown as C++ exception type |
+======================================+======================================+
| Any Python ``Exception`` | :class:`pybind11::error_already_set` |
+--------------------------------------+--------------------------------------+
For example:
.. code-block:: cpp
try {
// open("missing.txt", "r")
auto file = py::module_::import("io").attr("open")("missing.txt", "r");
auto text = file.attr("read")();
file.attr("close")();
} catch (py::error_already_set &e) {
if (e.matches(PyExc_FileNotFoundError)) {
py::print("missing.txt not found");
} else if (e.matches(PyExc_PermissionError)) {
py::print("missing.txt found but not accessible");
} else {
throw;
}
}
Note that C++ to Python exception translation does not apply here, since that is
a method for translating C++ exceptions to Python, not vice versa. The error raised
from Python is always ``error_already_set``.
This example illustrates this behavior:
.. code-block:: cpp
try {
py::eval("raise ValueError('The Ring')");
} catch (py::value_error &boromir) {
// Boromir never gets the ring
assert(false);
} catch (py::error_already_set &frodo) {
// Frodo gets the ring
py::print("I will take the ring");
}
try {
// py::value_error is a request for pybind11 to raise a Python exception
throw py::value_error("The ball");
} catch (py::error_already_set &cat) {
// cat won't catch the ball since
// py::value_error is not a Python exception
assert(false);
} catch (py::value_error &dog) {
// dog will catch the ball
py::print("Run Spot run");
throw; // Throw it again (pybind11 will raise ValueError)
}
Handling errors from the Python C API
=====================================
Where possible, use :ref:`pybind11 wrappers <wrappers>` instead of calling
the Python C API directly. When calling the Python C API directly, in
addition to manually managing reference counts, one must follow the pybind11
error protocol, which is outlined here.
After calling the Python C API, if Python returns an error,
``throw py::error_already_set();``, which allows pybind11 to deal with the
exception and pass it back to the Python interpreter. This includes calls to
the error setting functions such as ``PyErr_SetString``.
.. code-block:: cpp
PyErr_SetString(PyExc_TypeError, "C API type error demo");
throw py::error_already_set();
// But it would be easier to simply...
throw py::type_error("pybind11 wrapper type error");
Alternately, to ignore the error, call `PyErr_Clear
<https://docs.python.org/3/c-api/exceptions.html#c.PyErr_Clear>`_.
Any Python error must be thrown or cleared, or Python/pybind11 will be left in
an invalid state.
.. _unraisable_exceptions:
Handling unraisable exceptions
==============================
If a Python function invoked from a C++ destructor or any function marked
``noexcept(true)`` (collectively, "noexcept functions") throws an exception, there
is no way to propagate the exception, as such functions may not throw.
Should they throw or fail to catch any exceptions in their call graph,
the C++ runtime calls ``std::terminate()`` to abort immediately.
Similarly, Python exceptions raised in a class's ``__del__`` method do not
propagate, but are logged by Python as an unraisable error. In Python 3.8+, a
`system hook is triggered
<https://docs.python.org/3/library/sys.html#sys.unraisablehook>`_
and an auditing event is logged.
Any noexcept function should have a try-catch block that traps
class:`error_already_set` (or any other exception that can occur). Note that
pybind11 wrappers around Python exceptions such as
:class:`pybind11::value_error` are *not* Python exceptions; they are C++
exceptions that pybind11 catches and converts to Python exceptions. Noexcept
functions cannot propagate these exceptions either. A useful approach is to
convert them to Python exceptions and then ``discard_as_unraisable`` as shown
below.
.. code-block:: cpp
void nonthrowing_func() noexcept(true) {
try {
// ...
} catch (py::error_already_set &eas) {
// Discard the Python error using Python APIs, using the C++ magic
// variable __func__. Python already knows the type and value and of the
// exception object.
eas.discard_as_unraisable(__func__);
} catch (const std::exception &e) {
// Log and discard C++ exceptions.
third_party::log(e);
}
}
.. versionadded:: 2.6

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@ -0,0 +1,563 @@
Functions
#########
Before proceeding with this section, make sure that you are already familiar
with the basics of binding functions and classes, as explained in :doc:`/basics`
and :doc:`/classes`. The following guide is applicable to both free and member
functions, i.e. *methods* in Python.
.. _return_value_policies:
Return value policies
=====================
Python and C++ use fundamentally different ways of managing the memory and
lifetime of objects managed by them. This can lead to issues when creating
bindings for functions that return a non-trivial type. Just by looking at the
type information, it is not clear whether Python should take charge of the
returned value and eventually free its resources, or if this is handled on the
C++ side. For this reason, pybind11 provides a several *return value policy*
annotations that can be passed to the :func:`module_::def` and
:func:`class_::def` functions. The default policy is
:enum:`return_value_policy::automatic`.
Return value policies are tricky, and it's very important to get them right.
Just to illustrate what can go wrong, consider the following simple example:
.. code-block:: cpp
/* Function declaration */
Data *get_data() { return _data; /* (pointer to a static data structure) */ }
...
/* Binding code */
m.def("get_data", &get_data); // <-- KABOOM, will cause crash when called from Python
What's going on here? When ``get_data()`` is called from Python, the return
value (a native C++ type) must be wrapped to turn it into a usable Python type.
In this case, the default return value policy (:enum:`return_value_policy::automatic`)
causes pybind11 to assume ownership of the static ``_data`` instance.
When Python's garbage collector eventually deletes the Python
wrapper, pybind11 will also attempt to delete the C++ instance (via ``operator
delete()``) due to the implied ownership. At this point, the entire application
will come crashing down, though errors could also be more subtle and involve
silent data corruption.
In the above example, the policy :enum:`return_value_policy::reference` should have
been specified so that the global data instance is only *referenced* without any
implied transfer of ownership, i.e.:
.. code-block:: cpp
m.def("get_data", &get_data, py::return_value_policy::reference);
On the other hand, this is not the right policy for many other situations,
where ignoring ownership could lead to resource leaks.
As a developer using pybind11, it's important to be familiar with the different
return value policies, including which situation calls for which one of them.
The following table provides an overview of available policies:
.. tabularcolumns:: |p{0.5\textwidth}|p{0.45\textwidth}|
+--------------------------------------------------+----------------------------------------------------------------------------+
| Return value policy | Description |
+==================================================+============================================================================+
| :enum:`return_value_policy::take_ownership` | Reference an existing object (i.e. do not create a new copy) and take |
| | ownership. Python will call the destructor and delete operator when the |
| | object's reference count reaches zero. Undefined behavior ensues when the |
| | C++ side does the same, or when the data was not dynamically allocated. |
+--------------------------------------------------+----------------------------------------------------------------------------+
| :enum:`return_value_policy::copy` | Create a new copy of the returned object, which will be owned by Python. |
| | This policy is comparably safe because the lifetimes of the two instances |
| | are decoupled. |
+--------------------------------------------------+----------------------------------------------------------------------------+
| :enum:`return_value_policy::move` | Use ``std::move`` to move the return value contents into a new instance |
| | that will be owned by Python. This policy is comparably safe because the |
| | lifetimes of the two instances (move source and destination) are decoupled.|
+--------------------------------------------------+----------------------------------------------------------------------------+
| :enum:`return_value_policy::reference` | Reference an existing object, but do not take ownership. The C++ side is |
| | responsible for managing the object's lifetime and deallocating it when |
| | it is no longer used. Warning: undefined behavior will ensue when the C++ |
| | side deletes an object that is still referenced and used by Python. |
+--------------------------------------------------+----------------------------------------------------------------------------+
| :enum:`return_value_policy::reference_internal` | Indicates that the lifetime of the return value is tied to the lifetime |
| | of a parent object, namely the implicit ``this``, or ``self`` argument of |
| | the called method or property. Internally, this policy works just like |
| | :enum:`return_value_policy::reference` but additionally applies a |
| | ``keep_alive<0, 1>`` *call policy* (described in the next section) that |
| | prevents the parent object from being garbage collected as long as the |
| | return value is referenced by Python. This is the default policy for |
| | property getters created via ``def_property``, ``def_readwrite``, etc. |
+--------------------------------------------------+----------------------------------------------------------------------------+
| :enum:`return_value_policy::automatic` | **Default policy.** This policy falls back to the policy |
| | :enum:`return_value_policy::take_ownership` when the return value is a |
| | pointer. Otherwise, it uses :enum:`return_value_policy::move` or |
| | :enum:`return_value_policy::copy` for rvalue and lvalue references, |
| | respectively. See above for a description of what all of these different |
| | policies do. |
+--------------------------------------------------+----------------------------------------------------------------------------+
| :enum:`return_value_policy::automatic_reference` | As above, but use policy :enum:`return_value_policy::reference` when the |
| | return value is a pointer. This is the default conversion policy for |
| | function arguments when calling Python functions manually from C++ code |
| | (i.e. via handle::operator()). You probably won't need to use this. |
+--------------------------------------------------+----------------------------------------------------------------------------+
Return value policies can also be applied to properties:
.. code-block:: cpp
class_<MyClass>(m, "MyClass")
.def_property("data", &MyClass::getData, &MyClass::setData,
py::return_value_policy::copy);
Technically, the code above applies the policy to both the getter and the
setter function, however, the setter doesn't really care about *return*
value policies which makes this a convenient terse syntax. Alternatively,
targeted arguments can be passed through the :class:`cpp_function` constructor:
.. code-block:: cpp
class_<MyClass>(m, "MyClass")
.def_property("data"
py::cpp_function(&MyClass::getData, py::return_value_policy::copy),
py::cpp_function(&MyClass::setData)
);
.. warning::
Code with invalid return value policies might access uninitialized memory or
free data structures multiple times, which can lead to hard-to-debug
non-determinism and segmentation faults, hence it is worth spending the
time to understand all the different options in the table above.
.. note::
One important aspect of the above policies is that they only apply to
instances which pybind11 has *not* seen before, in which case the policy
clarifies essential questions about the return value's lifetime and
ownership. When pybind11 knows the instance already (as identified by its
type and address in memory), it will return the existing Python object
wrapper rather than creating a new copy.
.. note::
The next section on :ref:`call_policies` discusses *call policies* that can be
specified *in addition* to a return value policy from the list above. Call
policies indicate reference relationships that can involve both return values
and parameters of functions.
.. note::
As an alternative to elaborate call policies and lifetime management logic,
consider using smart pointers (see the section on :ref:`smart_pointers` for
details). Smart pointers can tell whether an object is still referenced from
C++ or Python, which generally eliminates the kinds of inconsistencies that
can lead to crashes or undefined behavior. For functions returning smart
pointers, it is not necessary to specify a return value policy.
.. _call_policies:
Additional call policies
========================
In addition to the above return value policies, further *call policies* can be
specified to indicate dependencies between parameters or ensure a certain state
for the function call.
Keep alive
----------
In general, this policy is required when the C++ object is any kind of container
and another object is being added to the container. ``keep_alive<Nurse, Patient>``
indicates that the argument with index ``Patient`` should be kept alive at least
until the argument with index ``Nurse`` is freed by the garbage collector. Argument
indices start at one, while zero refers to the return value. For methods, index
``1`` refers to the implicit ``this`` pointer, while regular arguments begin at
index ``2``. Arbitrarily many call policies can be specified. When a ``Nurse``
with value ``None`` is detected at runtime, the call policy does nothing.
When the nurse is not a pybind11-registered type, the implementation internally
relies on the ability to create a *weak reference* to the nurse object. When
the nurse object is not a pybind11-registered type and does not support weak
references, an exception will be thrown.
Consider the following example: here, the binding code for a list append
operation ties the lifetime of the newly added element to the underlying
container:
.. code-block:: cpp
py::class_<List>(m, "List")
.def("append", &List::append, py::keep_alive<1, 2>());
For consistency, the argument indexing is identical for constructors. Index
``1`` still refers to the implicit ``this`` pointer, i.e. the object which is
being constructed. Index ``0`` refers to the return type which is presumed to
be ``void`` when a constructor is viewed like a function. The following example
ties the lifetime of the constructor element to the constructed object:
.. code-block:: cpp
py::class_<Nurse>(m, "Nurse")
.def(py::init<Patient &>(), py::keep_alive<1, 2>());
.. note::
``keep_alive`` is analogous to the ``with_custodian_and_ward`` (if Nurse,
Patient != 0) and ``with_custodian_and_ward_postcall`` (if Nurse/Patient ==
0) policies from Boost.Python.
Call guard
----------
The ``call_guard<T>`` policy allows any scope guard type ``T`` to be placed
around the function call. For example, this definition:
.. code-block:: cpp
m.def("foo", foo, py::call_guard<T>());
is equivalent to the following pseudocode:
.. code-block:: cpp
m.def("foo", [](args...) {
T scope_guard;
return foo(args...); // forwarded arguments
});
The only requirement is that ``T`` is default-constructible, but otherwise any
scope guard will work. This is very useful in combination with `gil_scoped_release`.
See :ref:`gil`.
Multiple guards can also be specified as ``py::call_guard<T1, T2, T3...>``. The
constructor order is left to right and destruction happens in reverse.
.. seealso::
The file :file:`tests/test_call_policies.cpp` contains a complete example
that demonstrates using `keep_alive` and `call_guard` in more detail.
.. _python_objects_as_args:
Python objects as arguments
===========================
pybind11 exposes all major Python types using thin C++ wrapper classes. These
wrapper classes can also be used as parameters of functions in bindings, which
makes it possible to directly work with native Python types on the C++ side.
For instance, the following statement iterates over a Python ``dict``:
.. code-block:: cpp
void print_dict(py::dict dict) {
/* Easily interact with Python types */
for (auto item : dict)
std::cout << "key=" << std::string(py::str(item.first)) << ", "
<< "value=" << std::string(py::str(item.second)) << std::endl;
}
It can be exported:
.. code-block:: cpp
m.def("print_dict", &print_dict);
And used in Python as usual:
.. code-block:: pycon
>>> print_dict({'foo': 123, 'bar': 'hello'})
key=foo, value=123
key=bar, value=hello
For more information on using Python objects in C++, see :doc:`/advanced/pycpp/index`.
Accepting \*args and \*\*kwargs
===============================
Python provides a useful mechanism to define functions that accept arbitrary
numbers of arguments and keyword arguments:
.. code-block:: python
def generic(*args, **kwargs):
... # do something with args and kwargs
Such functions can also be created using pybind11:
.. code-block:: cpp
void generic(py::args args, py::kwargs kwargs) {
/// .. do something with args
if (kwargs)
/// .. do something with kwargs
}
/// Binding code
m.def("generic", &generic);
The class ``py::args`` derives from ``py::tuple`` and ``py::kwargs`` derives
from ``py::dict``.
You may also use just one or the other, and may combine these with other
arguments as long as the ``py::args`` and ``py::kwargs`` arguments are the last
arguments accepted by the function.
Please refer to the other examples for details on how to iterate over these,
and on how to cast their entries into C++ objects. A demonstration is also
available in ``tests/test_kwargs_and_defaults.cpp``.
.. note::
When combining \*args or \*\*kwargs with :ref:`keyword_args` you should
*not* include ``py::arg`` tags for the ``py::args`` and ``py::kwargs``
arguments.
Default arguments revisited
===========================
The section on :ref:`default_args` previously discussed basic usage of default
arguments using pybind11. One noteworthy aspect of their implementation is that
default arguments are converted to Python objects right at declaration time.
Consider the following example:
.. code-block:: cpp
py::class_<MyClass>("MyClass")
.def("myFunction", py::arg("arg") = SomeType(123));
In this case, pybind11 must already be set up to deal with values of the type
``SomeType`` (via a prior instantiation of ``py::class_<SomeType>``), or an
exception will be thrown.
Another aspect worth highlighting is that the "preview" of the default argument
in the function signature is generated using the object's ``__repr__`` method.
If not available, the signature may not be very helpful, e.g.:
.. code-block:: pycon
FUNCTIONS
...
| myFunction(...)
| Signature : (MyClass, arg : SomeType = <SomeType object at 0x101b7b080>) -> NoneType
...
The first way of addressing this is by defining ``SomeType.__repr__``.
Alternatively, it is possible to specify the human-readable preview of the
default argument manually using the ``arg_v`` notation:
.. code-block:: cpp
py::class_<MyClass>("MyClass")
.def("myFunction", py::arg_v("arg", SomeType(123), "SomeType(123)"));
Sometimes it may be necessary to pass a null pointer value as a default
argument. In this case, remember to cast it to the underlying type in question,
like so:
.. code-block:: cpp
py::class_<MyClass>("MyClass")
.def("myFunction", py::arg("arg") = static_cast<SomeType *>(nullptr));
Keyword-only arguments
======================
Python 3 introduced keyword-only arguments by specifying an unnamed ``*``
argument in a function definition:
.. code-block:: python
def f(a, *, b): # a can be positional or via keyword; b must be via keyword
pass
f(a=1, b=2) # good
f(b=2, a=1) # good
f(1, b=2) # good
f(1, 2) # TypeError: f() takes 1 positional argument but 2 were given
Pybind11 provides a ``py::kw_only`` object that allows you to implement
the same behaviour by specifying the object between positional and keyword-only
argument annotations when registering the function:
.. code-block:: cpp
m.def("f", [](int a, int b) { /* ... */ },
py::arg("a"), py::kw_only(), py::arg("b"));
Note that you currently cannot combine this with a ``py::args`` argument. This
feature does *not* require Python 3 to work.
.. versionadded:: 2.6
Positional-only arguments
=========================
Python 3.8 introduced a new positional-only argument syntax, using ``/`` in the
function definition (note that this has been a convention for CPython
positional arguments, such as in ``pow()``, since Python 2). You can
do the same thing in any version of Python using ``py::pos_only()``:
.. code-block:: cpp
m.def("f", [](int a, int b) { /* ... */ },
py::arg("a"), py::pos_only(), py::arg("b"));
You now cannot give argument ``a`` by keyword. This can be combined with
keyword-only arguments, as well.
.. versionadded:: 2.6
.. _nonconverting_arguments:
Non-converting arguments
========================
Certain argument types may support conversion from one type to another. Some
examples of conversions are:
* :ref:`implicit_conversions` declared using ``py::implicitly_convertible<A,B>()``
* Calling a method accepting a double with an integer argument
* Calling a ``std::complex<float>`` argument with a non-complex python type
(for example, with a float). (Requires the optional ``pybind11/complex.h``
header).
* Calling a function taking an Eigen matrix reference with a numpy array of the
wrong type or of an incompatible data layout. (Requires the optional
``pybind11/eigen.h`` header).
This behaviour is sometimes undesirable: the binding code may prefer to raise
an error rather than convert the argument. This behaviour can be obtained
through ``py::arg`` by calling the ``.noconvert()`` method of the ``py::arg``
object, such as:
.. code-block:: cpp
m.def("floats_only", [](double f) { return 0.5 * f; }, py::arg("f").noconvert());
m.def("floats_preferred", [](double f) { return 0.5 * f; }, py::arg("f"));
Attempting the call the second function (the one without ``.noconvert()``) with
an integer will succeed, but attempting to call the ``.noconvert()`` version
will fail with a ``TypeError``:
.. code-block:: pycon
>>> floats_preferred(4)
2.0
>>> floats_only(4)
Traceback (most recent call last):
File "<stdin>", line 1, in <module>
TypeError: floats_only(): incompatible function arguments. The following argument types are supported:
1. (f: float) -> float
Invoked with: 4
You may, of course, combine this with the :var:`_a` shorthand notation (see
:ref:`keyword_args`) and/or :ref:`default_args`. It is also permitted to omit
the argument name by using the ``py::arg()`` constructor without an argument
name, i.e. by specifying ``py::arg().noconvert()``.
.. note::
When specifying ``py::arg`` options it is necessary to provide the same
number of options as the bound function has arguments. Thus if you want to
enable no-convert behaviour for just one of several arguments, you will
need to specify a ``py::arg()`` annotation for each argument with the
no-convert argument modified to ``py::arg().noconvert()``.
.. _none_arguments:
Allow/Prohibiting None arguments
================================
When a C++ type registered with :class:`py::class_` is passed as an argument to
a function taking the instance as pointer or shared holder (e.g. ``shared_ptr``
or a custom, copyable holder as described in :ref:`smart_pointers`), pybind
allows ``None`` to be passed from Python which results in calling the C++
function with ``nullptr`` (or an empty holder) for the argument.
To explicitly enable or disable this behaviour, using the
``.none`` method of the :class:`py::arg` object:
.. code-block:: cpp
py::class_<Dog>(m, "Dog").def(py::init<>());
py::class_<Cat>(m, "Cat").def(py::init<>());
m.def("bark", [](Dog *dog) -> std::string {
if (dog) return "woof!"; /* Called with a Dog instance */
else return "(no dog)"; /* Called with None, dog == nullptr */
}, py::arg("dog").none(true));
m.def("meow", [](Cat *cat) -> std::string {
// Can't be called with None argument
return "meow";
}, py::arg("cat").none(false));
With the above, the Python call ``bark(None)`` will return the string ``"(no
dog)"``, while attempting to call ``meow(None)`` will raise a ``TypeError``:
.. code-block:: pycon
>>> from animals import Dog, Cat, bark, meow
>>> bark(Dog())
'woof!'
>>> meow(Cat())
'meow'
>>> bark(None)
'(no dog)'
>>> meow(None)
Traceback (most recent call last):
File "<stdin>", line 1, in <module>
TypeError: meow(): incompatible function arguments. The following argument types are supported:
1. (cat: animals.Cat) -> str
Invoked with: None
The default behaviour when the tag is unspecified is to allow ``None``.
.. note::
Even when ``.none(true)`` is specified for an argument, ``None`` will be converted to a
``nullptr`` *only* for custom and :ref:`opaque <opaque>` types. Pointers to built-in types
(``double *``, ``int *``, ...) and STL types (``std::vector<T> *``, ...; if ``pybind11/stl.h``
is included) are copied when converted to C++ (see :doc:`/advanced/cast/overview`) and will
not allow ``None`` as argument. To pass optional argument of these copied types consider
using ``std::optional<T>``
.. _overload_resolution:
Overload resolution order
=========================
When a function or method with multiple overloads is called from Python,
pybind11 determines which overload to call in two passes. The first pass
attempts to call each overload without allowing argument conversion (as if
every argument had been specified as ``py::arg().noconvert()`` as described
above).
If no overload succeeds in the no-conversion first pass, a second pass is
attempted in which argument conversion is allowed (except where prohibited via
an explicit ``py::arg().noconvert()`` attribute in the function definition).
If the second pass also fails a ``TypeError`` is raised.
Within each pass, overloads are tried in the order they were registered with
pybind11. If the ``py::prepend()`` tag is added to the definition, a function
can be placed at the beginning of the overload sequence instead, allowing user
overloads to proceed built in functions.
What this means in practice is that pybind11 will prefer any overload that does
not require conversion of arguments to an overload that does, but otherwise
prefers earlier-defined overloads to later-defined ones.
.. note::
pybind11 does *not* further prioritize based on the number/pattern of
overloaded arguments. That is, pybind11 does not prioritize a function
requiring one conversion over one requiring three, but only prioritizes
overloads requiring no conversion at all to overloads that require
conversion of at least one argument.
.. versionadded:: 2.6
The ``py::prepend()`` tag.

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Miscellaneous
#############
.. _macro_notes:
General notes regarding convenience macros
==========================================
pybind11 provides a few convenience macros such as
:func:`PYBIND11_DECLARE_HOLDER_TYPE` and ``PYBIND11_OVERRIDE_*``. Since these
are "just" macros that are evaluated in the preprocessor (which has no concept
of types), they *will* get confused by commas in a template argument; for
example, consider:
.. code-block:: cpp
PYBIND11_OVERRIDE(MyReturnType<T1, T2>, Class<T3, T4>, func)
The limitation of the C preprocessor interprets this as five arguments (with new
arguments beginning after each comma) rather than three. To get around this,
there are two alternatives: you can use a type alias, or you can wrap the type
using the ``PYBIND11_TYPE`` macro:
.. code-block:: cpp
// Version 1: using a type alias
using ReturnType = MyReturnType<T1, T2>;
using ClassType = Class<T3, T4>;
PYBIND11_OVERRIDE(ReturnType, ClassType, func);
// Version 2: using the PYBIND11_TYPE macro:
PYBIND11_OVERRIDE(PYBIND11_TYPE(MyReturnType<T1, T2>),
PYBIND11_TYPE(Class<T3, T4>), func)
The ``PYBIND11_MAKE_OPAQUE`` macro does *not* require the above workarounds.
.. _gil:
Global Interpreter Lock (GIL)
=============================
When calling a C++ function from Python, the GIL is always held.
The classes :class:`gil_scoped_release` and :class:`gil_scoped_acquire` can be
used to acquire and release the global interpreter lock in the body of a C++
function call. In this way, long-running C++ code can be parallelized using
multiple Python threads. Taking :ref:`overriding_virtuals` as an example, this
could be realized as follows (important changes highlighted):
.. code-block:: cpp
:emphasize-lines: 8,9,31,32
class PyAnimal : public Animal {
public:
/* Inherit the constructors */
using Animal::Animal;
/* Trampoline (need one for each virtual function) */
std::string go(int n_times) {
/* Acquire GIL before calling Python code */
py::gil_scoped_acquire acquire;
PYBIND11_OVERRIDE_PURE(
std::string, /* Return type */
Animal, /* Parent class */
go, /* Name of function */
n_times /* Argument(s) */
);
}
};
PYBIND11_MODULE(example, m) {
py::class_<Animal, PyAnimal> animal(m, "Animal");
animal
.def(py::init<>())
.def("go", &Animal::go);
py::class_<Dog>(m, "Dog", animal)
.def(py::init<>());
m.def("call_go", [](Animal *animal) -> std::string {
/* Release GIL before calling into (potentially long-running) C++ code */
py::gil_scoped_release release;
return call_go(animal);
});
}
The ``call_go`` wrapper can also be simplified using the `call_guard` policy
(see :ref:`call_policies`) which yields the same result:
.. code-block:: cpp
m.def("call_go", &call_go, py::call_guard<py::gil_scoped_release>());
Binding sequence data types, iterators, the slicing protocol, etc.
==================================================================
Please refer to the supplemental example for details.
.. seealso::
The file :file:`tests/test_sequences_and_iterators.cpp` contains a
complete example that shows how to bind a sequence data type, including
length queries (``__len__``), iterators (``__iter__``), the slicing
protocol and other kinds of useful operations.
Partitioning code over multiple extension modules
=================================================
It's straightforward to split binding code over multiple extension modules,
while referencing types that are declared elsewhere. Everything "just" works
without any special precautions. One exception to this rule occurs when
extending a type declared in another extension module. Recall the basic example
from Section :ref:`inheritance`.
.. code-block:: cpp
py::class_<Pet> pet(m, "Pet");
pet.def(py::init<const std::string &>())
.def_readwrite("name", &Pet::name);
py::class_<Dog>(m, "Dog", pet /* <- specify parent */)
.def(py::init<const std::string &>())
.def("bark", &Dog::bark);
Suppose now that ``Pet`` bindings are defined in a module named ``basic``,
whereas the ``Dog`` bindings are defined somewhere else. The challenge is of
course that the variable ``pet`` is not available anymore though it is needed
to indicate the inheritance relationship to the constructor of ``class_<Dog>``.
However, it can be acquired as follows:
.. code-block:: cpp
py::object pet = (py::object) py::module_::import("basic").attr("Pet");
py::class_<Dog>(m, "Dog", pet)
.def(py::init<const std::string &>())
.def("bark", &Dog::bark);
Alternatively, you can specify the base class as a template parameter option to
``class_``, which performs an automated lookup of the corresponding Python
type. Like the above code, however, this also requires invoking the ``import``
function once to ensure that the pybind11 binding code of the module ``basic``
has been executed:
.. code-block:: cpp
py::module_::import("basic");
py::class_<Dog, Pet>(m, "Dog")
.def(py::init<const std::string &>())
.def("bark", &Dog::bark);
Naturally, both methods will fail when there are cyclic dependencies.
Note that pybind11 code compiled with hidden-by-default symbol visibility (e.g.
via the command line flag ``-fvisibility=hidden`` on GCC/Clang), which is
required for proper pybind11 functionality, can interfere with the ability to
access types defined in another extension module. Working around this requires
manually exporting types that are accessed by multiple extension modules;
pybind11 provides a macro to do just this:
.. code-block:: cpp
class PYBIND11_EXPORT Dog : public Animal {
...
};
Note also that it is possible (although would rarely be required) to share arbitrary
C++ objects between extension modules at runtime. Internal library data is shared
between modules using capsule machinery [#f6]_ which can be also utilized for
storing, modifying and accessing user-defined data. Note that an extension module
will "see" other extensions' data if and only if they were built with the same
pybind11 version. Consider the following example:
.. code-block:: cpp
auto data = reinterpret_cast<MyData *>(py::get_shared_data("mydata"));
if (!data)
data = static_cast<MyData *>(py::set_shared_data("mydata", new MyData(42)));
If the above snippet was used in several separately compiled extension modules,
the first one to be imported would create a ``MyData`` instance and associate
a ``"mydata"`` key with a pointer to it. Extensions that are imported later
would be then able to access the data behind the same pointer.
.. [#f6] https://docs.python.org/3/extending/extending.html#using-capsules
Module Destructors
==================
pybind11 does not provide an explicit mechanism to invoke cleanup code at
module destruction time. In rare cases where such functionality is required, it
is possible to emulate it using Python capsules or weak references with a
destruction callback.
.. code-block:: cpp
auto cleanup_callback = []() {
// perform cleanup here -- this function is called with the GIL held
};
m.add_object("_cleanup", py::capsule(cleanup_callback));
This approach has the potential downside that instances of classes exposed
within the module may still be alive when the cleanup callback is invoked
(whether this is acceptable will generally depend on the application).
Alternatively, the capsule may also be stashed within a type object, which
ensures that it not called before all instances of that type have been
collected:
.. code-block:: cpp
auto cleanup_callback = []() { /* ... */ };
m.attr("BaseClass").attr("_cleanup") = py::capsule(cleanup_callback);
Both approaches also expose a potentially dangerous ``_cleanup`` attribute in
Python, which may be undesirable from an API standpoint (a premature explicit
call from Python might lead to undefined behavior). Yet another approach that
avoids this issue involves weak reference with a cleanup callback:
.. code-block:: cpp
// Register a callback function that is invoked when the BaseClass object is collected
py::cpp_function cleanup_callback(
[](py::handle weakref) {
// perform cleanup here -- this function is called with the GIL held
weakref.dec_ref(); // release weak reference
}
);
// Create a weak reference with a cleanup callback and initially leak it
(void) py::weakref(m.attr("BaseClass"), cleanup_callback).release();
.. note::
PyPy does not garbage collect objects when the interpreter exits. An alternative
approach (which also works on CPython) is to use the :py:mod:`atexit` module [#f7]_,
for example:
.. code-block:: cpp
auto atexit = py::module_::import("atexit");
atexit.attr("register")(py::cpp_function([]() {
// perform cleanup here -- this function is called with the GIL held
}));
.. [#f7] https://docs.python.org/3/library/atexit.html
Generating documentation using Sphinx
=====================================
Sphinx [#f4]_ has the ability to inspect the signatures and documentation
strings in pybind11-based extension modules to automatically generate beautiful
documentation in a variety formats. The python_example repository [#f5]_ contains a
simple example repository which uses this approach.
There are two potential gotchas when using this approach: first, make sure that
the resulting strings do not contain any :kbd:`TAB` characters, which break the
docstring parsing routines. You may want to use C++11 raw string literals,
which are convenient for multi-line comments. Conveniently, any excess
indentation will be automatically be removed by Sphinx. However, for this to
work, it is important that all lines are indented consistently, i.e.:
.. code-block:: cpp
// ok
m.def("foo", &foo, R"mydelimiter(
The foo function
Parameters
----------
)mydelimiter");
// *not ok*
m.def("foo", &foo, R"mydelimiter(The foo function
Parameters
----------
)mydelimiter");
By default, pybind11 automatically generates and prepends a signature to the docstring of a function
registered with ``module_::def()`` and ``class_::def()``. Sometimes this
behavior is not desirable, because you want to provide your own signature or remove
the docstring completely to exclude the function from the Sphinx documentation.
The class ``options`` allows you to selectively suppress auto-generated signatures:
.. code-block:: cpp
PYBIND11_MODULE(example, m) {
py::options options;
options.disable_function_signatures();
m.def("add", [](int a, int b) { return a + b; }, "A function which adds two numbers");
}
Note that changes to the settings affect only function bindings created during the
lifetime of the ``options`` instance. When it goes out of scope at the end of the module's init function,
the default settings are restored to prevent unwanted side effects.
.. [#f4] http://www.sphinx-doc.org
.. [#f5] http://github.com/pybind/python_example
.. _avoiding-cpp-types-in-docstrings:
Avoiding C++ types in docstrings
================================
Docstrings are generated at the time of the declaration, e.g. when ``.def(...)`` is called.
At this point parameter and return types should be known to pybind11.
If a custom type is not exposed yet through a ``py::class_`` constructor or a custom type caster,
its C++ type name will be used instead to generate the signature in the docstring:
.. code-block:: text
| __init__(...)
| __init__(self: example.Foo, arg0: ns::Bar) -> None
^^^^^^^
This limitation can be circumvented by ensuring that C++ classes are registered with pybind11
before they are used as a parameter or return type of a function:
.. code-block:: cpp
PYBIND11_MODULE(example, m) {
auto pyFoo = py::class_<ns::Foo>(m, "Foo");
auto pyBar = py::class_<ns::Bar>(m, "Bar");
pyFoo.def(py::init<const ns::Bar&>());
pyBar.def(py::init<const ns::Foo&>());
}

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Python C++ interface
####################
pybind11 exposes Python types and functions using thin C++ wrappers, which
makes it possible to conveniently call Python code from C++ without resorting
to Python's C API.
.. toctree::
:maxdepth: 2
object
numpy
utilities

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.. _numpy:
NumPy
#####
Buffer protocol
===============
Python supports an extremely general and convenient approach for exchanging
data between plugin libraries. Types can expose a buffer view [#f2]_, which
provides fast direct access to the raw internal data representation. Suppose we
want to bind the following simplistic Matrix class:
.. code-block:: cpp
class Matrix {
public:
Matrix(size_t rows, size_t cols) : m_rows(rows), m_cols(cols) {
m_data = new float[rows*cols];
}
float *data() { return m_data; }
size_t rows() const { return m_rows; }
size_t cols() const { return m_cols; }
private:
size_t m_rows, m_cols;
float *m_data;
};
The following binding code exposes the ``Matrix`` contents as a buffer object,
making it possible to cast Matrices into NumPy arrays. It is even possible to
completely avoid copy operations with Python expressions like
``np.array(matrix_instance, copy = False)``.
.. code-block:: cpp
py::class_<Matrix>(m, "Matrix", py::buffer_protocol())
.def_buffer([](Matrix &m) -> py::buffer_info {
return py::buffer_info(
m.data(), /* Pointer to buffer */
sizeof(float), /* Size of one scalar */
py::format_descriptor<float>::format(), /* Python struct-style format descriptor */
2, /* Number of dimensions */
{ m.rows(), m.cols() }, /* Buffer dimensions */
{ sizeof(float) * m.cols(), /* Strides (in bytes) for each index */
sizeof(float) }
);
});
Supporting the buffer protocol in a new type involves specifying the special
``py::buffer_protocol()`` tag in the ``py::class_`` constructor and calling the
``def_buffer()`` method with a lambda function that creates a
``py::buffer_info`` description record on demand describing a given matrix
instance. The contents of ``py::buffer_info`` mirror the Python buffer protocol
specification.
.. code-block:: cpp
struct buffer_info {
void *ptr;
py::ssize_t itemsize;
std::string format;
py::ssize_t ndim;
std::vector<py::ssize_t> shape;
std::vector<py::ssize_t> strides;
};
To create a C++ function that can take a Python buffer object as an argument,
simply use the type ``py::buffer`` as one of its arguments. Buffers can exist
in a great variety of configurations, hence some safety checks are usually
necessary in the function body. Below, you can see a basic example on how to
define a custom constructor for the Eigen double precision matrix
(``Eigen::MatrixXd``) type, which supports initialization from compatible
buffer objects (e.g. a NumPy matrix).
.. code-block:: cpp
/* Bind MatrixXd (or some other Eigen type) to Python */
typedef Eigen::MatrixXd Matrix;
typedef Matrix::Scalar Scalar;
constexpr bool rowMajor = Matrix::Flags & Eigen::RowMajorBit;
py::class_<Matrix>(m, "Matrix", py::buffer_protocol())
.def(py::init([](py::buffer b) {
typedef Eigen::Stride<Eigen::Dynamic, Eigen::Dynamic> Strides;
/* Request a buffer descriptor from Python */
py::buffer_info info = b.request();
/* Some sanity checks ... */
if (info.format != py::format_descriptor<Scalar>::format())
throw std::runtime_error("Incompatible format: expected a double array!");
if (info.ndim != 2)
throw std::runtime_error("Incompatible buffer dimension!");
auto strides = Strides(
info.strides[rowMajor ? 0 : 1] / (py::ssize_t)sizeof(Scalar),
info.strides[rowMajor ? 1 : 0] / (py::ssize_t)sizeof(Scalar));
auto map = Eigen::Map<Matrix, 0, Strides>(
static_cast<Scalar *>(info.ptr), info.shape[0], info.shape[1], strides);
return Matrix(map);
}));
For reference, the ``def_buffer()`` call for this Eigen data type should look
as follows:
.. code-block:: cpp
.def_buffer([](Matrix &m) -> py::buffer_info {
return py::buffer_info(
m.data(), /* Pointer to buffer */
sizeof(Scalar), /* Size of one scalar */
py::format_descriptor<Scalar>::format(), /* Python struct-style format descriptor */
2, /* Number of dimensions */
{ m.rows(), m.cols() }, /* Buffer dimensions */
{ sizeof(Scalar) * (rowMajor ? m.cols() : 1),
sizeof(Scalar) * (rowMajor ? 1 : m.rows()) }
/* Strides (in bytes) for each index */
);
})
For a much easier approach of binding Eigen types (although with some
limitations), refer to the section on :doc:`/advanced/cast/eigen`.
.. seealso::
The file :file:`tests/test_buffers.cpp` contains a complete example
that demonstrates using the buffer protocol with pybind11 in more detail.
.. [#f2] http://docs.python.org/3/c-api/buffer.html
Arrays
======
By exchanging ``py::buffer`` with ``py::array`` in the above snippet, we can
restrict the function so that it only accepts NumPy arrays (rather than any
type of Python object satisfying the buffer protocol).
In many situations, we want to define a function which only accepts a NumPy
array of a certain data type. This is possible via the ``py::array_t<T>``
template. For instance, the following function requires the argument to be a
NumPy array containing double precision values.
.. code-block:: cpp
void f(py::array_t<double> array);
When it is invoked with a different type (e.g. an integer or a list of
integers), the binding code will attempt to cast the input into a NumPy array
of the requested type. This feature requires the :file:`pybind11/numpy.h`
header to be included. Note that :file:`pybind11/numpy.h` does not depend on
the NumPy headers, and thus can be used without declaring a build-time
dependency on NumPy; NumPy>=1.7.0 is a runtime dependency.
Data in NumPy arrays is not guaranteed to packed in a dense manner;
furthermore, entries can be separated by arbitrary column and row strides.
Sometimes, it can be useful to require a function to only accept dense arrays
using either the C (row-major) or Fortran (column-major) ordering. This can be
accomplished via a second template argument with values ``py::array::c_style``
or ``py::array::f_style``.
.. code-block:: cpp
void f(py::array_t<double, py::array::c_style | py::array::forcecast> array);
The ``py::array::forcecast`` argument is the default value of the second
template parameter, and it ensures that non-conforming arguments are converted
into an array satisfying the specified requirements instead of trying the next
function overload.
Structured types
================
In order for ``py::array_t`` to work with structured (record) types, we first
need to register the memory layout of the type. This can be done via
``PYBIND11_NUMPY_DTYPE`` macro, called in the plugin definition code, which
expects the type followed by field names:
.. code-block:: cpp
struct A {
int x;
double y;
};
struct B {
int z;
A a;
};
// ...
PYBIND11_MODULE(test, m) {
// ...
PYBIND11_NUMPY_DTYPE(A, x, y);
PYBIND11_NUMPY_DTYPE(B, z, a);
/* now both A and B can be used as template arguments to py::array_t */
}
The structure should consist of fundamental arithmetic types, ``std::complex``,
previously registered substructures, and arrays of any of the above. Both C++
arrays and ``std::array`` are supported. While there is a static assertion to
prevent many types of unsupported structures, it is still the user's
responsibility to use only "plain" structures that can be safely manipulated as
raw memory without violating invariants.
Vectorizing functions
=====================
Suppose we want to bind a function with the following signature to Python so
that it can process arbitrary NumPy array arguments (vectors, matrices, general
N-D arrays) in addition to its normal arguments:
.. code-block:: cpp
double my_func(int x, float y, double z);
After including the ``pybind11/numpy.h`` header, this is extremely simple:
.. code-block:: cpp
m.def("vectorized_func", py::vectorize(my_func));
Invoking the function like below causes 4 calls to be made to ``my_func`` with
each of the array elements. The significant advantage of this compared to
solutions like ``numpy.vectorize()`` is that the loop over the elements runs
entirely on the C++ side and can be crunched down into a tight, optimized loop
by the compiler. The result is returned as a NumPy array of type
``numpy.dtype.float64``.
.. code-block:: pycon
>>> x = np.array([[1, 3],[5, 7]])
>>> y = np.array([[2, 4],[6, 8]])
>>> z = 3
>>> result = vectorized_func(x, y, z)
The scalar argument ``z`` is transparently replicated 4 times. The input
arrays ``x`` and ``y`` are automatically converted into the right types (they
are of type ``numpy.dtype.int64`` but need to be ``numpy.dtype.int32`` and
``numpy.dtype.float32``, respectively).
.. note::
Only arithmetic, complex, and POD types passed by value or by ``const &``
reference are vectorized; all other arguments are passed through as-is.
Functions taking rvalue reference arguments cannot be vectorized.
In cases where the computation is too complicated to be reduced to
``vectorize``, it will be necessary to create and access the buffer contents
manually. The following snippet contains a complete example that shows how this
works (the code is somewhat contrived, since it could have been done more
simply using ``vectorize``).
.. code-block:: cpp
#include <pybind11/pybind11.h>
#include <pybind11/numpy.h>
namespace py = pybind11;
py::array_t<double> add_arrays(py::array_t<double> input1, py::array_t<double> input2) {
py::buffer_info buf1 = input1.request(), buf2 = input2.request();
if (buf1.ndim != 1 || buf2.ndim != 1)
throw std::runtime_error("Number of dimensions must be one");
if (buf1.size != buf2.size)
throw std::runtime_error("Input shapes must match");
/* No pointer is passed, so NumPy will allocate the buffer */
auto result = py::array_t<double>(buf1.size);
py::buffer_info buf3 = result.request();
double *ptr1 = static_cast<double *>(buf1.ptr);
double *ptr2 = static_cast<double *>(buf2.ptr);
double *ptr3 = static_cast<double *>(buf3.ptr);
for (size_t idx = 0; idx < buf1.shape[0]; idx++)
ptr3[idx] = ptr1[idx] + ptr2[idx];
return result;
}
PYBIND11_MODULE(test, m) {
m.def("add_arrays", &add_arrays, "Add two NumPy arrays");
}
.. seealso::
The file :file:`tests/test_numpy_vectorize.cpp` contains a complete
example that demonstrates using :func:`vectorize` in more detail.
Direct access
=============
For performance reasons, particularly when dealing with very large arrays, it
is often desirable to directly access array elements without internal checking
of dimensions and bounds on every access when indices are known to be already
valid. To avoid such checks, the ``array`` class and ``array_t<T>`` template
class offer an unchecked proxy object that can be used for this unchecked
access through the ``unchecked<N>`` and ``mutable_unchecked<N>`` methods,
where ``N`` gives the required dimensionality of the array:
.. code-block:: cpp
m.def("sum_3d", [](py::array_t<double> x) {
auto r = x.unchecked<3>(); // x must have ndim = 3; can be non-writeable
double sum = 0;
for (py::ssize_t i = 0; i < r.shape(0); i++)
for (py::ssize_t j = 0; j < r.shape(1); j++)
for (py::ssize_t k = 0; k < r.shape(2); k++)
sum += r(i, j, k);
return sum;
});
m.def("increment_3d", [](py::array_t<double> x) {
auto r = x.mutable_unchecked<3>(); // Will throw if ndim != 3 or flags.writeable is false
for (py::ssize_t i = 0; i < r.shape(0); i++)
for (py::ssize_t j = 0; j < r.shape(1); j++)
for (py::ssize_t k = 0; k < r.shape(2); k++)
r(i, j, k) += 1.0;
}, py::arg().noconvert());
To obtain the proxy from an ``array`` object, you must specify both the data
type and number of dimensions as template arguments, such as ``auto r =
myarray.mutable_unchecked<float, 2>()``.
If the number of dimensions is not known at compile time, you can omit the
dimensions template parameter (i.e. calling ``arr_t.unchecked()`` or
``arr.unchecked<T>()``. This will give you a proxy object that works in the
same way, but results in less optimizable code and thus a small efficiency
loss in tight loops.
Note that the returned proxy object directly references the array's data, and
only reads its shape, strides, and writeable flag when constructed. You must
take care to ensure that the referenced array is not destroyed or reshaped for
the duration of the returned object, typically by limiting the scope of the
returned instance.
The returned proxy object supports some of the same methods as ``py::array`` so
that it can be used as a drop-in replacement for some existing, index-checked
uses of ``py::array``:
- ``r.ndim()`` returns the number of dimensions
- ``r.data(1, 2, ...)`` and ``r.mutable_data(1, 2, ...)``` returns a pointer to
the ``const T`` or ``T`` data, respectively, at the given indices. The
latter is only available to proxies obtained via ``a.mutable_unchecked()``.
- ``itemsize()`` returns the size of an item in bytes, i.e. ``sizeof(T)``.
- ``ndim()`` returns the number of dimensions.
- ``shape(n)`` returns the size of dimension ``n``
- ``size()`` returns the total number of elements (i.e. the product of the shapes).
- ``nbytes()`` returns the number of bytes used by the referenced elements
(i.e. ``itemsize()`` times ``size()``).
.. seealso::
The file :file:`tests/test_numpy_array.cpp` contains additional examples
demonstrating the use of this feature.
Ellipsis
========
Python 3 provides a convenient ``...`` ellipsis notation that is often used to
slice multidimensional arrays. For instance, the following snippet extracts the
middle dimensions of a tensor with the first and last index set to zero.
In Python 2, the syntactic sugar ``...`` is not available, but the singleton
``Ellipsis`` (of type ``ellipsis``) can still be used directly.
.. code-block:: python
a = # a NumPy array
b = a[0, ..., 0]
The function ``py::ellipsis()`` function can be used to perform the same
operation on the C++ side:
.. code-block:: cpp
py::array a = /* A NumPy array */;
py::array b = a[py::make_tuple(0, py::ellipsis(), 0)];
.. versionchanged:: 2.6
``py::ellipsis()`` is now also avaliable in Python 2.
Memory view
===========
For a case when we simply want to provide a direct accessor to C/C++ buffer
without a concrete class object, we can return a ``memoryview`` object. Suppose
we wish to expose a ``memoryview`` for 2x4 uint8_t array, we can do the
following:
.. code-block:: cpp
const uint8_t buffer[] = {
0, 1, 2, 3,
4, 5, 6, 7
};
m.def("get_memoryview2d", []() {
return py::memoryview::from_buffer(
buffer, // buffer pointer
{ 2, 4 }, // shape (rows, cols)
{ sizeof(uint8_t) * 4, sizeof(uint8_t) } // strides in bytes
);
})
This approach is meant for providing a ``memoryview`` for a C/C++ buffer not
managed by Python. The user is responsible for managing the lifetime of the
buffer. Using a ``memoryview`` created in this way after deleting the buffer in
C++ side results in undefined behavior.
We can also use ``memoryview::from_memory`` for a simple 1D contiguous buffer:
.. code-block:: cpp
m.def("get_memoryview1d", []() {
return py::memoryview::from_memory(
buffer, // buffer pointer
sizeof(uint8_t) * 8 // buffer size
);
})
.. note::
``memoryview::from_memory`` is not available in Python 2.
.. versionchanged:: 2.6
``memoryview::from_memory`` added.

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Python types
############
.. _wrappers:
Available wrappers
==================
All major Python types are available as thin C++ wrapper classes. These
can also be used as function parameters -- see :ref:`python_objects_as_args`.
Available types include :class:`handle`, :class:`object`, :class:`bool_`,
:class:`int_`, :class:`float_`, :class:`str`, :class:`bytes`, :class:`tuple`,
:class:`list`, :class:`dict`, :class:`slice`, :class:`none`, :class:`capsule`,
:class:`iterable`, :class:`iterator`, :class:`function`, :class:`buffer`,
:class:`array`, and :class:`array_t`.
.. warning::
Be sure to review the :ref:`pytypes_gotchas` before using this heavily in
your C++ API.
.. _casting_back_and_forth:
Casting back and forth
======================
In this kind of mixed code, it is often necessary to convert arbitrary C++
types to Python, which can be done using :func:`py::cast`:
.. code-block:: cpp
MyClass *cls = ..;
py::object obj = py::cast(cls);
The reverse direction uses the following syntax:
.. code-block:: cpp
py::object obj = ...;
MyClass *cls = obj.cast<MyClass *>();
When conversion fails, both directions throw the exception :class:`cast_error`.
.. _python_libs:
Accessing Python libraries from C++
===================================
It is also possible to import objects defined in the Python standard
library or available in the current Python environment (``sys.path``) and work
with these in C++.
This example obtains a reference to the Python ``Decimal`` class.
.. code-block:: cpp
// Equivalent to "from decimal import Decimal"
py::object Decimal = py::module_::import("decimal").attr("Decimal");
.. code-block:: cpp
// Try to import scipy
py::object scipy = py::module_::import("scipy");
return scipy.attr("__version__");
.. _calling_python_functions:
Calling Python functions
========================
It is also possible to call Python classes, functions and methods
via ``operator()``.
.. code-block:: cpp
// Construct a Python object of class Decimal
py::object pi = Decimal("3.14159");
.. code-block:: cpp
// Use Python to make our directories
py::object os = py::module_::import("os");
py::object makedirs = os.attr("makedirs");
makedirs("/tmp/path/to/somewhere");
One can convert the result obtained from Python to a pure C++ version
if a ``py::class_`` or type conversion is defined.
.. code-block:: cpp
py::function f = <...>;
py::object result_py = f(1234, "hello", some_instance);
MyClass &result = result_py.cast<MyClass>();
.. _calling_python_methods:
Calling Python methods
========================
To call an object's method, one can again use ``.attr`` to obtain access to the
Python method.
.. code-block:: cpp
// Calculate e^π in decimal
py::object exp_pi = pi.attr("exp")();
py::print(py::str(exp_pi));
In the example above ``pi.attr("exp")`` is a *bound method*: it will always call
the method for that same instance of the class. Alternately one can create an
*unbound method* via the Python class (instead of instance) and pass the ``self``
object explicitly, followed by other arguments.
.. code-block:: cpp
py::object decimal_exp = Decimal.attr("exp");
// Compute the e^n for n=0..4
for (int n = 0; n < 5; n++) {
py::print(decimal_exp(Decimal(n));
}
Keyword arguments
=================
Keyword arguments are also supported. In Python, there is the usual call syntax:
.. code-block:: python
def f(number, say, to):
... # function code
f(1234, say="hello", to=some_instance) # keyword call in Python
In C++, the same call can be made using:
.. code-block:: cpp
using namespace pybind11::literals; // to bring in the `_a` literal
f(1234, "say"_a="hello", "to"_a=some_instance); // keyword call in C++
Unpacking arguments
===================
Unpacking of ``*args`` and ``**kwargs`` is also possible and can be mixed with
other arguments:
.. code-block:: cpp
// * unpacking
py::tuple args = py::make_tuple(1234, "hello", some_instance);
f(*args);
// ** unpacking
py::dict kwargs = py::dict("number"_a=1234, "say"_a="hello", "to"_a=some_instance);
f(**kwargs);
// mixed keywords, * and ** unpacking
py::tuple args = py::make_tuple(1234);
py::dict kwargs = py::dict("to"_a=some_instance);
f(*args, "say"_a="hello", **kwargs);
Generalized unpacking according to PEP448_ is also supported:
.. code-block:: cpp
py::dict kwargs1 = py::dict("number"_a=1234);
py::dict kwargs2 = py::dict("to"_a=some_instance);
f(**kwargs1, "say"_a="hello", **kwargs2);
.. seealso::
The file :file:`tests/test_pytypes.cpp` contains a complete
example that demonstrates passing native Python types in more detail. The
file :file:`tests/test_callbacks.cpp` presents a few examples of calling
Python functions from C++, including keywords arguments and unpacking.
.. _PEP448: https://www.python.org/dev/peps/pep-0448/
.. _implicit_casting:
Implicit casting
================
When using the C++ interface for Python types, or calling Python functions,
objects of type :class:`object` are returned. It is possible to invoke implicit
conversions to subclasses like :class:`dict`. The same holds for the proxy objects
returned by ``operator[]`` or ``obj.attr()``.
Casting to subtypes improves code readability and allows values to be passed to
C++ functions that require a specific subtype rather than a generic :class:`object`.
.. code-block:: cpp
#include <pybind11/numpy.h>
using namespace pybind11::literals;
py::module_ os = py::module_::import("os");
py::module_ path = py::module_::import("os.path"); // like 'import os.path as path'
py::module_ np = py::module_::import("numpy"); // like 'import numpy as np'
py::str curdir_abs = path.attr("abspath")(path.attr("curdir"));
py::print(py::str("Current directory: ") + curdir_abs);
py::dict environ = os.attr("environ");
py::print(environ["HOME"]);
py::array_t<float> arr = np.attr("ones")(3, "dtype"_a="float32");
py::print(py::repr(arr + py::int_(1)));
These implicit conversions are available for subclasses of :class:`object`; there
is no need to call ``obj.cast()`` explicitly as for custom classes, see
:ref:`casting_back_and_forth`.
.. note::
If a trivial conversion via move constructor is not possible, both implicit and
explicit casting (calling ``obj.cast()``) will attempt a "rich" conversion.
For instance, ``py::list env = os.attr("environ");`` will succeed and is
equivalent to the Python code ``env = list(os.environ)`` that produces a
list of the dict keys.
.. TODO: Adapt text once PR #2349 has landed
Handling exceptions
===================
Python exceptions from wrapper classes will be thrown as a ``py::error_already_set``.
See :ref:`Handling exceptions from Python in C++
<handling_python_exceptions_cpp>` for more information on handling exceptions
raised when calling C++ wrapper classes.
.. _pytypes_gotchas:
Gotchas
=======
Default-Constructed Wrappers
----------------------------
When a wrapper type is default-constructed, it is **not** a valid Python object (i.e. it is not ``py::none()``). It is simply the same as
``PyObject*`` null pointer. To check for this, use
``static_cast<bool>(my_wrapper)``.
Assigning py::none() to wrappers
--------------------------------
You may be tempted to use types like ``py::str`` and ``py::dict`` in C++
signatures (either pure C++, or in bound signatures), and assign them default
values of ``py::none()``. However, in a best case scenario, it will fail fast
because ``None`` is not convertible to that type (e.g. ``py::dict``), or in a
worse case scenario, it will silently work but corrupt the types you want to
work with (e.g. ``py::str(py::none())`` will yield ``"None"`` in Python).

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Utilities
#########
Using Python's print function in C++
====================================
The usual way to write output in C++ is using ``std::cout`` while in Python one
would use ``print``. Since these methods use different buffers, mixing them can
lead to output order issues. To resolve this, pybind11 modules can use the
:func:`py::print` function which writes to Python's ``sys.stdout`` for consistency.
Python's ``print`` function is replicated in the C++ API including optional
keyword arguments ``sep``, ``end``, ``file``, ``flush``. Everything works as
expected in Python:
.. code-block:: cpp
py::print(1, 2.0, "three"); // 1 2.0 three
py::print(1, 2.0, "three", "sep"_a="-"); // 1-2.0-three
auto args = py::make_tuple("unpacked", true);
py::print("->", *args, "end"_a="<-"); // -> unpacked True <-
.. _ostream_redirect:
Capturing standard output from ostream
======================================
Often, a library will use the streams ``std::cout`` and ``std::cerr`` to print,
but this does not play well with Python's standard ``sys.stdout`` and ``sys.stderr``
redirection. Replacing a library's printing with `py::print <print>` may not
be feasible. This can be fixed using a guard around the library function that
redirects output to the corresponding Python streams:
.. code-block:: cpp
#include <pybind11/iostream.h>
...
// Add a scoped redirect for your noisy code
m.def("noisy_func", []() {
py::scoped_ostream_redirect stream(
std::cout, // std::ostream&
py::module_::import("sys").attr("stdout") // Python output
);
call_noisy_func();
});
This method respects flushes on the output streams and will flush if needed
when the scoped guard is destroyed. This allows the output to be redirected in
real time, such as to a Jupyter notebook. The two arguments, the C++ stream and
the Python output, are optional, and default to standard output if not given. An
extra type, `py::scoped_estream_redirect <scoped_estream_redirect>`, is identical
except for defaulting to ``std::cerr`` and ``sys.stderr``; this can be useful with
`py::call_guard`, which allows multiple items, but uses the default constructor:
.. code-block:: py
// Alternative: Call single function using call guard
m.def("noisy_func", &call_noisy_function,
py::call_guard<py::scoped_ostream_redirect,
py::scoped_estream_redirect>());
The redirection can also be done in Python with the addition of a context
manager, using the `py::add_ostream_redirect() <add_ostream_redirect>` function:
.. code-block:: cpp
py::add_ostream_redirect(m, "ostream_redirect");
The name in Python defaults to ``ostream_redirect`` if no name is passed. This
creates the following context manager in Python:
.. code-block:: python
with ostream_redirect(stdout=True, stderr=True):
noisy_function()
It defaults to redirecting both streams, though you can use the keyword
arguments to disable one of the streams if needed.
.. note::
The above methods will not redirect C-level output to file descriptors, such
as ``fprintf``. For those cases, you'll need to redirect the file
descriptors either directly in C or with Python's ``os.dup2`` function
in an operating-system dependent way.
.. _eval:
Evaluating Python expressions from strings and files
====================================================
pybind11 provides the `eval`, `exec` and `eval_file` functions to evaluate
Python expressions and statements. The following example illustrates how they
can be used.
.. code-block:: cpp
// At beginning of file
#include <pybind11/eval.h>
...
// Evaluate in scope of main module
py::object scope = py::module_::import("__main__").attr("__dict__");
// Evaluate an isolated expression
int result = py::eval("my_variable + 10", scope).cast<int>();
// Evaluate a sequence of statements
py::exec(
"print('Hello')\n"
"print('world!');",
scope);
// Evaluate the statements in an separate Python file on disk
py::eval_file("script.py", scope);
C++11 raw string literals are also supported and quite handy for this purpose.
The only requirement is that the first statement must be on a new line following
the raw string delimiter ``R"(``, ensuring all lines have common leading indent:
.. code-block:: cpp
py::exec(R"(
x = get_answer()
if x == 42:
print('Hello World!')
else:
print('Bye!')
)", scope
);
.. note::
`eval` and `eval_file` accept a template parameter that describes how the
string/file should be interpreted. Possible choices include ``eval_expr``
(isolated expression), ``eval_single_statement`` (a single statement, return
value is always ``none``), and ``eval_statements`` (sequence of statements,
return value is always ``none``). `eval` defaults to ``eval_expr``,
`eval_file` defaults to ``eval_statements`` and `exec` is just a shortcut
for ``eval<eval_statements>``.

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Smart pointers
##############
std::unique_ptr
===============
Given a class ``Example`` with Python bindings, it's possible to return
instances wrapped in C++11 unique pointers, like so
.. code-block:: cpp
std::unique_ptr<Example> create_example() { return std::unique_ptr<Example>(new Example()); }
.. code-block:: cpp
m.def("create_example", &create_example);
In other words, there is nothing special that needs to be done. While returning
unique pointers in this way is allowed, it is *illegal* to use them as function
arguments. For instance, the following function signature cannot be processed
by pybind11.
.. code-block:: cpp
void do_something_with_example(std::unique_ptr<Example> ex) { ... }
The above signature would imply that Python needs to give up ownership of an
object that is passed to this function, which is generally not possible (for
instance, the object might be referenced elsewhere).
std::shared_ptr
===============
The binding generator for classes, :class:`class_`, can be passed a template
type that denotes a special *holder* type that is used to manage references to
the object. If no such holder type template argument is given, the default for
a type named ``Type`` is ``std::unique_ptr<Type>``, which means that the object
is deallocated when Python's reference count goes to zero.
It is possible to switch to other types of reference counting wrappers or smart
pointers, which is useful in codebases that rely on them. For instance, the
following snippet causes ``std::shared_ptr`` to be used instead.
.. code-block:: cpp
py::class_<Example, std::shared_ptr<Example> /* <- holder type */> obj(m, "Example");
Note that any particular class can only be associated with a single holder type.
One potential stumbling block when using holder types is that they need to be
applied consistently. Can you guess what's broken about the following binding
code?
.. code-block:: cpp
class Child { };
class Parent {
public:
Parent() : child(std::make_shared<Child>()) { }
Child *get_child() { return child.get(); } /* Hint: ** DON'T DO THIS ** */
private:
std::shared_ptr<Child> child;
};
PYBIND11_MODULE(example, m) {
py::class_<Child, std::shared_ptr<Child>>(m, "Child");
py::class_<Parent, std::shared_ptr<Parent>>(m, "Parent")
.def(py::init<>())
.def("get_child", &Parent::get_child);
}
The following Python code will cause undefined behavior (and likely a
segmentation fault).
.. code-block:: python
from example import Parent
print(Parent().get_child())
The problem is that ``Parent::get_child()`` returns a pointer to an instance of
``Child``, but the fact that this instance is already managed by
``std::shared_ptr<...>`` is lost when passing raw pointers. In this case,
pybind11 will create a second independent ``std::shared_ptr<...>`` that also
claims ownership of the pointer. In the end, the object will be freed **twice**
since these shared pointers have no way of knowing about each other.
There are two ways to resolve this issue:
1. For types that are managed by a smart pointer class, never use raw pointers
in function arguments or return values. In other words: always consistently
wrap pointers into their designated holder types (such as
``std::shared_ptr<...>``). In this case, the signature of ``get_child()``
should be modified as follows:
.. code-block:: cpp
std::shared_ptr<Child> get_child() { return child; }
2. Adjust the definition of ``Child`` by specifying
``std::enable_shared_from_this<T>`` (see cppreference_ for details) as a
base class. This adds a small bit of information to ``Child`` that allows
pybind11 to realize that there is already an existing
``std::shared_ptr<...>`` and communicate with it. In this case, the
declaration of ``Child`` should look as follows:
.. _cppreference: http://en.cppreference.com/w/cpp/memory/enable_shared_from_this
.. code-block:: cpp
class Child : public std::enable_shared_from_this<Child> { };
.. _smart_pointers:
Custom smart pointers
=====================
pybind11 supports ``std::unique_ptr`` and ``std::shared_ptr`` right out of the
box. For any other custom smart pointer, transparent conversions can be enabled
using a macro invocation similar to the following. It must be declared at the
top namespace level before any binding code:
.. code-block:: cpp
PYBIND11_DECLARE_HOLDER_TYPE(T, SmartPtr<T>);
The first argument of :func:`PYBIND11_DECLARE_HOLDER_TYPE` should be a
placeholder name that is used as a template parameter of the second argument.
Thus, feel free to use any identifier, but use it consistently on both sides;
also, don't use the name of a type that already exists in your codebase.
The macro also accepts a third optional boolean parameter that is set to false
by default. Specify
.. code-block:: cpp
PYBIND11_DECLARE_HOLDER_TYPE(T, SmartPtr<T>, true);
if ``SmartPtr<T>`` can always be initialized from a ``T*`` pointer without the
risk of inconsistencies (such as multiple independent ``SmartPtr`` instances
believing that they are the sole owner of the ``T*`` pointer). A common
situation where ``true`` should be passed is when the ``T`` instances use
*intrusive* reference counting.
Please take a look at the :ref:`macro_notes` before using this feature.
By default, pybind11 assumes that your custom smart pointer has a standard
interface, i.e. provides a ``.get()`` member function to access the underlying
raw pointer. If this is not the case, pybind11's ``holder_helper`` must be
specialized:
.. code-block:: cpp
// Always needed for custom holder types
PYBIND11_DECLARE_HOLDER_TYPE(T, SmartPtr<T>);
// Only needed if the type's `.get()` goes by another name
namespace pybind11 { namespace detail {
template <typename T>
struct holder_helper<SmartPtr<T>> { // <-- specialization
static const T *get(const SmartPtr<T> &p) { return p.getPointer(); }
};
}}
The above specialization informs pybind11 that the custom ``SmartPtr`` class
provides ``.get()`` functionality via ``.getPointer()``.
.. seealso::
The file :file:`tests/test_smart_ptr.cpp` contains a complete example
that demonstrates how to work with custom reference-counting holder types
in more detail.

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.. _basics:
First steps
###########
This sections demonstrates the basic features of pybind11. Before getting
started, make sure that development environment is set up to compile the
included set of test cases.
Compiling the test cases
========================
Linux/macOS
-----------
On Linux you'll need to install the **python-dev** or **python3-dev** packages as
well as **cmake**. On macOS, the included python version works out of the box,
but **cmake** must still be installed.
After installing the prerequisites, run
.. code-block:: bash
mkdir build
cd build
cmake ..
make check -j 4
The last line will both compile and run the tests.
Windows
-------
On Windows, only **Visual Studio 2015** and newer are supported since pybind11 relies
on various C++11 language features that break older versions of Visual Studio.
.. Note::
To use the C++17 in Visual Studio 2017 (MSVC 14.1), pybind11 requires the flag
``/permissive-`` to be passed to the compiler `to enforce standard conformance`_. When
building with Visual Studio 2019, this is not strictly necessary, but still advised.
.. _`to enforce standard conformance`: https://docs.microsoft.com/en-us/cpp/build/reference/permissive-standards-conformance?view=vs-2017
To compile and run the tests:
.. code-block:: batch
mkdir build
cd build
cmake ..
cmake --build . --config Release --target check
This will create a Visual Studio project, compile and run the target, all from the
command line.
.. Note::
If all tests fail, make sure that the Python binary and the testcases are compiled
for the same processor type and bitness (i.e. either **i386** or **x86_64**). You
can specify **x86_64** as the target architecture for the generated Visual Studio
project using ``cmake -A x64 ..``.
.. seealso::
Advanced users who are already familiar with Boost.Python may want to skip
the tutorial and look at the test cases in the :file:`tests` directory,
which exercise all features of pybind11.
Header and namespace conventions
================================
For brevity, all code examples assume that the following two lines are present:
.. code-block:: cpp
#include <pybind11/pybind11.h>
namespace py = pybind11;
Some features may require additional headers, but those will be specified as needed.
.. _simple_example:
Creating bindings for a simple function
=======================================
Let's start by creating Python bindings for an extremely simple function, which
adds two numbers and returns their result:
.. code-block:: cpp
int add(int i, int j) {
return i + j;
}
For simplicity [#f1]_, we'll put both this function and the binding code into
a file named :file:`example.cpp` with the following contents:
.. code-block:: cpp
#include <pybind11/pybind11.h>
int add(int i, int j) {
return i + j;
}
PYBIND11_MODULE(example, m) {
m.doc() = "pybind11 example plugin"; // optional module docstring
m.def("add", &add, "A function which adds two numbers");
}
.. [#f1] In practice, implementation and binding code will generally be located
in separate files.
The :func:`PYBIND11_MODULE` macro creates a function that will be called when an
``import`` statement is issued from within Python. The module name (``example``)
is given as the first macro argument (it should not be in quotes). The second
argument (``m``) defines a variable of type :class:`py::module_ <module>` which
is the main interface for creating bindings. The method :func:`module_::def`
generates binding code that exposes the ``add()`` function to Python.
.. note::
Notice how little code was needed to expose our function to Python: all
details regarding the function's parameters and return value were
automatically inferred using template metaprogramming. This overall
approach and the used syntax are borrowed from Boost.Python, though the
underlying implementation is very different.
pybind11 is a header-only library, hence it is not necessary to link against
any special libraries and there are no intermediate (magic) translation steps.
On Linux, the above example can be compiled using the following command:
.. code-block:: bash
$ c++ -O3 -Wall -shared -std=c++11 -fPIC $(python3 -m pybind11 --includes) example.cpp -o example$(python3-config --extension-suffix)
.. note::
If you used :ref:`include_as_a_submodule` to get the pybind11 source, then
use ``$(python3-config --includes) -Iextern/pybind11/include`` instead of
``$(python3 -m pybind11 --includes)`` in the above compilation, as
explained in :ref:`building_manually`.
For more details on the required compiler flags on Linux and macOS, see
:ref:`building_manually`. For complete cross-platform compilation instructions,
refer to the :ref:`compiling` page.
The `python_example`_ and `cmake_example`_ repositories are also a good place
to start. They are both complete project examples with cross-platform build
systems. The only difference between the two is that `python_example`_ uses
Python's ``setuptools`` to build the module, while `cmake_example`_ uses CMake
(which may be preferable for existing C++ projects).
.. _python_example: https://github.com/pybind/python_example
.. _cmake_example: https://github.com/pybind/cmake_example
Building the above C++ code will produce a binary module file that can be
imported to Python. Assuming that the compiled module is located in the
current directory, the following interactive Python session shows how to
load and execute the example:
.. code-block:: pycon
$ python
Python 2.7.10 (default, Aug 22 2015, 20:33:39)
[GCC 4.2.1 Compatible Apple LLVM 7.0.0 (clang-700.0.59.1)] on darwin
Type "help", "copyright", "credits" or "license" for more information.
>>> import example
>>> example.add(1, 2)
3L
>>>
.. _keyword_args:
Keyword arguments
=================
With a simple code modification, it is possible to inform Python about the
names of the arguments ("i" and "j" in this case).
.. code-block:: cpp
m.def("add", &add, "A function which adds two numbers",
py::arg("i"), py::arg("j"));
:class:`arg` is one of several special tag classes which can be used to pass
metadata into :func:`module_::def`. With this modified binding code, we can now
call the function using keyword arguments, which is a more readable alternative
particularly for functions taking many parameters:
.. code-block:: pycon
>>> import example
>>> example.add(i=1, j=2)
3L
The keyword names also appear in the function signatures within the documentation.
.. code-block:: pycon
>>> help(example)
....
FUNCTIONS
add(...)
Signature : (i: int, j: int) -> int
A function which adds two numbers
A shorter notation for named arguments is also available:
.. code-block:: cpp
// regular notation
m.def("add1", &add, py::arg("i"), py::arg("j"));
// shorthand
using namespace pybind11::literals;
m.def("add2", &add, "i"_a, "j"_a);
The :var:`_a` suffix forms a C++11 literal which is equivalent to :class:`arg`.
Note that the literal operator must first be made visible with the directive
``using namespace pybind11::literals``. This does not bring in anything else
from the ``pybind11`` namespace except for literals.
.. _default_args:
Default arguments
=================
Suppose now that the function to be bound has default arguments, e.g.:
.. code-block:: cpp
int add(int i = 1, int j = 2) {
return i + j;
}
Unfortunately, pybind11 cannot automatically extract these parameters, since they
are not part of the function's type information. However, they are simple to specify
using an extension of :class:`arg`:
.. code-block:: cpp
m.def("add", &add, "A function which adds two numbers",
py::arg("i") = 1, py::arg("j") = 2);
The default values also appear within the documentation.
.. code-block:: pycon
>>> help(example)
....
FUNCTIONS
add(...)
Signature : (i: int = 1, j: int = 2) -> int
A function which adds two numbers
The shorthand notation is also available for default arguments:
.. code-block:: cpp
// regular notation
m.def("add1", &add, py::arg("i") = 1, py::arg("j") = 2);
// shorthand
m.def("add2", &add, "i"_a=1, "j"_a=2);
Exporting variables
===================
To expose a value from C++, use the ``attr`` function to register it in a
module as shown below. Built-in types and general objects (more on that later)
are automatically converted when assigned as attributes, and can be explicitly
converted using the function ``py::cast``.
.. code-block:: cpp
PYBIND11_MODULE(example, m) {
m.attr("the_answer") = 42;
py::object world = py::cast("World");
m.attr("what") = world;
}
These are then accessible from Python:
.. code-block:: pycon
>>> import example
>>> example.the_answer
42
>>> example.what
'World'
.. _supported_types:
Supported data types
====================
A large number of data types are supported out of the box and can be used
seamlessly as functions arguments, return values or with ``py::cast`` in general.
For a full overview, see the :doc:`advanced/cast/index` section.

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# -*- coding: utf-8 -*-
import random
import os
import time
import datetime as dt
nfns = 4 # Functions per class
nargs = 4 # Arguments per function
def generate_dummy_code_pybind11(nclasses=10):
decl = ""
bindings = ""
for cl in range(nclasses):
decl += "class cl%03i;\n" % cl
decl += "\n"
for cl in range(nclasses):
decl += "class cl%03i {\n" % cl
decl += "public:\n"
bindings += ' py::class_<cl%03i>(m, "cl%03i")\n' % (cl, cl)
for fn in range(nfns):
ret = random.randint(0, nclasses - 1)
params = [random.randint(0, nclasses - 1) for i in range(nargs)]
decl += " cl%03i *fn_%03i(" % (ret, fn)
decl += ", ".join("cl%03i *" % p for p in params)
decl += ");\n"
bindings += ' .def("fn_%03i", &cl%03i::fn_%03i)\n' % (fn, cl, fn)
decl += "};\n\n"
bindings += " ;\n"
result = "#include <pybind11/pybind11.h>\n\n"
result += "namespace py = pybind11;\n\n"
result += decl + "\n"
result += "PYBIND11_MODULE(example, m) {\n"
result += bindings
result += "}"
return result
def generate_dummy_code_boost(nclasses=10):
decl = ""
bindings = ""
for cl in range(nclasses):
decl += "class cl%03i;\n" % cl
decl += "\n"
for cl in range(nclasses):
decl += "class cl%03i {\n" % cl
decl += "public:\n"
bindings += ' py::class_<cl%03i>("cl%03i")\n' % (cl, cl)
for fn in range(nfns):
ret = random.randint(0, nclasses - 1)
params = [random.randint(0, nclasses - 1) for i in range(nargs)]
decl += " cl%03i *fn_%03i(" % (ret, fn)
decl += ", ".join("cl%03i *" % p for p in params)
decl += ");\n"
bindings += (
' .def("fn_%03i", &cl%03i::fn_%03i, py::return_value_policy<py::manage_new_object>())\n'
% (fn, cl, fn)
)
decl += "};\n\n"
bindings += " ;\n"
result = "#include <boost/python.hpp>\n\n"
result += "namespace py = boost::python;\n\n"
result += decl + "\n"
result += "BOOST_PYTHON_MODULE(example) {\n"
result += bindings
result += "}"
return result
for codegen in [generate_dummy_code_pybind11, generate_dummy_code_boost]:
print("{")
for i in range(0, 10):
nclasses = 2 ** i
with open("test.cpp", "w") as f:
f.write(codegen(nclasses))
n1 = dt.datetime.now()
os.system(
"g++ -Os -shared -rdynamic -undefined dynamic_lookup "
"-fvisibility=hidden -std=c++14 test.cpp -I include "
"-I /System/Library/Frameworks/Python.framework/Headers -o test.so"
)
n2 = dt.datetime.now()
elapsed = (n2 - n1).total_seconds()
size = os.stat("test.so").st_size
print(" {%i, %f, %i}," % (nclasses * nfns, elapsed, size))
print("}")

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Benchmark
=========
The following is the result of a synthetic benchmark comparing both compilation
time and module size of pybind11 against Boost.Python. A detailed report about a
Boost.Python to pybind11 conversion of a real project is available here: [#f1]_.
.. [#f1] http://graylab.jhu.edu/RosettaCon2016/PyRosetta-4.pdf
Setup
-----
A python script (see the ``docs/benchmark.py`` file) was used to generate a set
of files with dummy classes whose count increases for each successive benchmark
(between 1 and 2048 classes in powers of two). Each class has four methods with
a randomly generated signature with a return value and four arguments. (There
was no particular reason for this setup other than the desire to generate many
unique function signatures whose count could be controlled in a simple way.)
Here is an example of the binding code for one class:
.. code-block:: cpp
...
class cl034 {
public:
cl279 *fn_000(cl084 *, cl057 *, cl065 *, cl042 *);
cl025 *fn_001(cl098 *, cl262 *, cl414 *, cl121 *);
cl085 *fn_002(cl445 *, cl297 *, cl145 *, cl421 *);
cl470 *fn_003(cl200 *, cl323 *, cl332 *, cl492 *);
};
...
PYBIND11_MODULE(example, m) {
...
py::class_<cl034>(m, "cl034")
.def("fn_000", &cl034::fn_000)
.def("fn_001", &cl034::fn_001)
.def("fn_002", &cl034::fn_002)
.def("fn_003", &cl034::fn_003)
...
}
The Boost.Python version looks almost identical except that a return value
policy had to be specified as an argument to ``def()``. For both libraries,
compilation was done with
.. code-block:: bash
Apple LLVM version 7.0.2 (clang-700.1.81)
and the following compilation flags
.. code-block:: bash
g++ -Os -shared -rdynamic -undefined dynamic_lookup -fvisibility=hidden -std=c++14
Compilation time
----------------
The following log-log plot shows how the compilation time grows for an
increasing number of class and function declarations. pybind11 includes many
fewer headers, which initially leads to shorter compilation times, but the
performance is ultimately fairly similar (pybind11 is 19.8 seconds faster for
the largest largest file with 2048 classes and a total of 8192 methods -- a
modest **1.2x** speedup relative to Boost.Python, which required 116.35
seconds).
.. only:: not latex
.. image:: pybind11_vs_boost_python1.svg
.. only:: latex
.. image:: pybind11_vs_boost_python1.png
Module size
-----------
Differences between the two libraries become much more pronounced when
considering the file size of the generated Python plugin: for the largest file,
the binary generated by Boost.Python required 16.8 MiB, which was **2.17
times** / **9.1 megabytes** larger than the output generated by pybind11. For
very small inputs, Boost.Python has an edge in the plot below -- however, note
that it stores many definitions in an external library, whose size was not
included here, hence the comparison is slightly shifted in Boost.Python's
favor.
.. only:: not latex
.. image:: pybind11_vs_boost_python2.svg
.. only:: latex
.. image:: pybind11_vs_boost_python2.png

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.. _classes:
Object-oriented code
####################
Creating bindings for a custom type
===================================
Let's now look at a more complex example where we'll create bindings for a
custom C++ data structure named ``Pet``. Its definition is given below:
.. code-block:: cpp
struct Pet {
Pet(const std::string &name) : name(name) { }
void setName(const std::string &name_) { name = name_; }
const std::string &getName() const { return name; }
std::string name;
};
The binding code for ``Pet`` looks as follows:
.. code-block:: cpp
#include <pybind11/pybind11.h>
namespace py = pybind11;
PYBIND11_MODULE(example, m) {
py::class_<Pet>(m, "Pet")
.def(py::init<const std::string &>())
.def("setName", &Pet::setName)
.def("getName", &Pet::getName);
}
:class:`class_` creates bindings for a C++ *class* or *struct*-style data
structure. :func:`init` is a convenience function that takes the types of a
constructor's parameters as template arguments and wraps the corresponding
constructor (see the :ref:`custom_constructors` section for details). An
interactive Python session demonstrating this example is shown below:
.. code-block:: pycon
% python
>>> import example
>>> p = example.Pet('Molly')
>>> print(p)
<example.Pet object at 0x10cd98060>
>>> p.getName()
u'Molly'
>>> p.setName('Charly')
>>> p.getName()
u'Charly'
.. seealso::
Static member functions can be bound in the same way using
:func:`class_::def_static`.
Keyword and default arguments
=============================
It is possible to specify keyword and default arguments using the syntax
discussed in the previous chapter. Refer to the sections :ref:`keyword_args`
and :ref:`default_args` for details.
Binding lambda functions
========================
Note how ``print(p)`` produced a rather useless summary of our data structure in the example above:
.. code-block:: pycon
>>> print(p)
<example.Pet object at 0x10cd98060>
To address this, we could bind a utility function that returns a human-readable
summary to the special method slot named ``__repr__``. Unfortunately, there is no
suitable functionality in the ``Pet`` data structure, and it would be nice if
we did not have to change it. This can easily be accomplished by binding a
Lambda function instead:
.. code-block:: cpp
py::class_<Pet>(m, "Pet")
.def(py::init<const std::string &>())
.def("setName", &Pet::setName)
.def("getName", &Pet::getName)
.def("__repr__",
[](const Pet &a) {
return "<example.Pet named '" + a.name + "'>";
}
);
Both stateless [#f1]_ and stateful lambda closures are supported by pybind11.
With the above change, the same Python code now produces the following output:
.. code-block:: pycon
>>> print(p)
<example.Pet named 'Molly'>
.. [#f1] Stateless closures are those with an empty pair of brackets ``[]`` as the capture object.
.. _properties:
Instance and static fields
==========================
We can also directly expose the ``name`` field using the
:func:`class_::def_readwrite` method. A similar :func:`class_::def_readonly`
method also exists for ``const`` fields.
.. code-block:: cpp
py::class_<Pet>(m, "Pet")
.def(py::init<const std::string &>())
.def_readwrite("name", &Pet::name)
// ... remainder ...
This makes it possible to write
.. code-block:: pycon
>>> p = example.Pet('Molly')
>>> p.name
u'Molly'
>>> p.name = 'Charly'
>>> p.name
u'Charly'
Now suppose that ``Pet::name`` was a private internal variable
that can only be accessed via setters and getters.
.. code-block:: cpp
class Pet {
public:
Pet(const std::string &name) : name(name) { }
void setName(const std::string &name_) { name = name_; }
const std::string &getName() const { return name; }
private:
std::string name;
};
In this case, the method :func:`class_::def_property`
(:func:`class_::def_property_readonly` for read-only data) can be used to
provide a field-like interface within Python that will transparently call
the setter and getter functions:
.. code-block:: cpp
py::class_<Pet>(m, "Pet")
.def(py::init<const std::string &>())
.def_property("name", &Pet::getName, &Pet::setName)
// ... remainder ...
Write only properties can be defined by passing ``nullptr`` as the
input for the read function.
.. seealso::
Similar functions :func:`class_::def_readwrite_static`,
:func:`class_::def_readonly_static` :func:`class_::def_property_static`,
and :func:`class_::def_property_readonly_static` are provided for binding
static variables and properties. Please also see the section on
:ref:`static_properties` in the advanced part of the documentation.
Dynamic attributes
==================
Native Python classes can pick up new attributes dynamically:
.. code-block:: pycon
>>> class Pet:
... name = 'Molly'
...
>>> p = Pet()
>>> p.name = 'Charly' # overwrite existing
>>> p.age = 2 # dynamically add a new attribute
By default, classes exported from C++ do not support this and the only writable
attributes are the ones explicitly defined using :func:`class_::def_readwrite`
or :func:`class_::def_property`.
.. code-block:: cpp
py::class_<Pet>(m, "Pet")
.def(py::init<>())
.def_readwrite("name", &Pet::name);
Trying to set any other attribute results in an error:
.. code-block:: pycon
>>> p = example.Pet()
>>> p.name = 'Charly' # OK, attribute defined in C++
>>> p.age = 2 # fail
AttributeError: 'Pet' object has no attribute 'age'
To enable dynamic attributes for C++ classes, the :class:`py::dynamic_attr` tag
must be added to the :class:`py::class_` constructor:
.. code-block:: cpp
py::class_<Pet>(m, "Pet", py::dynamic_attr())
.def(py::init<>())
.def_readwrite("name", &Pet::name);
Now everything works as expected:
.. code-block:: pycon
>>> p = example.Pet()
>>> p.name = 'Charly' # OK, overwrite value in C++
>>> p.age = 2 # OK, dynamically add a new attribute
>>> p.__dict__ # just like a native Python class
{'age': 2}
Note that there is a small runtime cost for a class with dynamic attributes.
Not only because of the addition of a ``__dict__``, but also because of more
expensive garbage collection tracking which must be activated to resolve
possible circular references. Native Python classes incur this same cost by
default, so this is not anything to worry about. By default, pybind11 classes
are more efficient than native Python classes. Enabling dynamic attributes
just brings them on par.
.. _inheritance:
Inheritance and automatic downcasting
=====================================
Suppose now that the example consists of two data structures with an
inheritance relationship:
.. code-block:: cpp
struct Pet {
Pet(const std::string &name) : name(name) { }
std::string name;
};
struct Dog : Pet {
Dog(const std::string &name) : Pet(name) { }
std::string bark() const { return "woof!"; }
};
There are two different ways of indicating a hierarchical relationship to
pybind11: the first specifies the C++ base class as an extra template
parameter of the :class:`class_`:
.. code-block:: cpp
py::class_<Pet>(m, "Pet")
.def(py::init<const std::string &>())
.def_readwrite("name", &Pet::name);
// Method 1: template parameter:
py::class_<Dog, Pet /* <- specify C++ parent type */>(m, "Dog")
.def(py::init<const std::string &>())
.def("bark", &Dog::bark);
Alternatively, we can also assign a name to the previously bound ``Pet``
:class:`class_` object and reference it when binding the ``Dog`` class:
.. code-block:: cpp
py::class_<Pet> pet(m, "Pet");
pet.def(py::init<const std::string &>())
.def_readwrite("name", &Pet::name);
// Method 2: pass parent class_ object:
py::class_<Dog>(m, "Dog", pet /* <- specify Python parent type */)
.def(py::init<const std::string &>())
.def("bark", &Dog::bark);
Functionality-wise, both approaches are equivalent. Afterwards, instances will
expose fields and methods of both types:
.. code-block:: pycon
>>> p = example.Dog('Molly')
>>> p.name
u'Molly'
>>> p.bark()
u'woof!'
The C++ classes defined above are regular non-polymorphic types with an
inheritance relationship. This is reflected in Python:
.. code-block:: cpp
// Return a base pointer to a derived instance
m.def("pet_store", []() { return std::unique_ptr<Pet>(new Dog("Molly")); });
.. code-block:: pycon
>>> p = example.pet_store()
>>> type(p) # `Dog` instance behind `Pet` pointer
Pet # no pointer downcasting for regular non-polymorphic types
>>> p.bark()
AttributeError: 'Pet' object has no attribute 'bark'
The function returned a ``Dog`` instance, but because it's a non-polymorphic
type behind a base pointer, Python only sees a ``Pet``. In C++, a type is only
considered polymorphic if it has at least one virtual function and pybind11
will automatically recognize this:
.. code-block:: cpp
struct PolymorphicPet {
virtual ~PolymorphicPet() = default;
};
struct PolymorphicDog : PolymorphicPet {
std::string bark() const { return "woof!"; }
};
// Same binding code
py::class_<PolymorphicPet>(m, "PolymorphicPet");
py::class_<PolymorphicDog, PolymorphicPet>(m, "PolymorphicDog")
.def(py::init<>())
.def("bark", &PolymorphicDog::bark);
// Again, return a base pointer to a derived instance
m.def("pet_store2", []() { return std::unique_ptr<PolymorphicPet>(new PolymorphicDog); });
.. code-block:: pycon
>>> p = example.pet_store2()
>>> type(p)
PolymorphicDog # automatically downcast
>>> p.bark()
u'woof!'
Given a pointer to a polymorphic base, pybind11 performs automatic downcasting
to the actual derived type. Note that this goes beyond the usual situation in
C++: we don't just get access to the virtual functions of the base, we get the
concrete derived type including functions and attributes that the base type may
not even be aware of.
.. seealso::
For more information about polymorphic behavior see :ref:`overriding_virtuals`.
Overloaded methods
==================
Sometimes there are several overloaded C++ methods with the same name taking
different kinds of input arguments:
.. code-block:: cpp
struct Pet {
Pet(const std::string &name, int age) : name(name), age(age) { }
void set(int age_) { age = age_; }
void set(const std::string &name_) { name = name_; }
std::string name;
int age;
};
Attempting to bind ``Pet::set`` will cause an error since the compiler does not
know which method the user intended to select. We can disambiguate by casting
them to function pointers. Binding multiple functions to the same Python name
automatically creates a chain of function overloads that will be tried in
sequence.
.. code-block:: cpp
py::class_<Pet>(m, "Pet")
.def(py::init<const std::string &, int>())
.def("set", static_cast<void (Pet::*)(int)>(&Pet::set), "Set the pet's age")
.def("set", static_cast<void (Pet::*)(const std::string &)>(&Pet::set), "Set the pet's name");
The overload signatures are also visible in the method's docstring:
.. code-block:: pycon
>>> help(example.Pet)
class Pet(__builtin__.object)
| Methods defined here:
|
| __init__(...)
| Signature : (Pet, str, int) -> NoneType
|
| set(...)
| 1. Signature : (Pet, int) -> NoneType
|
| Set the pet's age
|
| 2. Signature : (Pet, str) -> NoneType
|
| Set the pet's name
If you have a C++14 compatible compiler [#cpp14]_, you can use an alternative
syntax to cast the overloaded function:
.. code-block:: cpp
py::class_<Pet>(m, "Pet")
.def("set", py::overload_cast<int>(&Pet::set), "Set the pet's age")
.def("set", py::overload_cast<const std::string &>(&Pet::set), "Set the pet's name");
Here, ``py::overload_cast`` only requires the parameter types to be specified.
The return type and class are deduced. This avoids the additional noise of
``void (Pet::*)()`` as seen in the raw cast. If a function is overloaded based
on constness, the ``py::const_`` tag should be used:
.. code-block:: cpp
struct Widget {
int foo(int x, float y);
int foo(int x, float y) const;
};
py::class_<Widget>(m, "Widget")
.def("foo_mutable", py::overload_cast<int, float>(&Widget::foo))
.def("foo_const", py::overload_cast<int, float>(&Widget::foo, py::const_));
If you prefer the ``py::overload_cast`` syntax but have a C++11 compatible compiler only,
you can use ``py::detail::overload_cast_impl`` with an additional set of parentheses:
.. code-block:: cpp
template <typename... Args>
using overload_cast_ = pybind11::detail::overload_cast_impl<Args...>;
py::class_<Pet>(m, "Pet")
.def("set", overload_cast_<int>()(&Pet::set), "Set the pet's age")
.def("set", overload_cast_<const std::string &>()(&Pet::set), "Set the pet's name");
.. [#cpp14] A compiler which supports the ``-std=c++14`` flag
or Visual Studio 2015 Update 2 and newer.
.. note::
To define multiple overloaded constructors, simply declare one after the
other using the ``.def(py::init<...>())`` syntax. The existing machinery
for specifying keyword and default arguments also works.
Enumerations and internal types
===============================
Let's now suppose that the example class contains an internal enumeration type,
e.g.:
.. code-block:: cpp
struct Pet {
enum Kind {
Dog = 0,
Cat
};
Pet(const std::string &name, Kind type) : name(name), type(type) { }
std::string name;
Kind type;
};
The binding code for this example looks as follows:
.. code-block:: cpp
py::class_<Pet> pet(m, "Pet");
pet.def(py::init<const std::string &, Pet::Kind>())
.def_readwrite("name", &Pet::name)
.def_readwrite("type", &Pet::type);
py::enum_<Pet::Kind>(pet, "Kind")
.value("Dog", Pet::Kind::Dog)
.value("Cat", Pet::Kind::Cat)
.export_values();
To ensure that the ``Kind`` type is created within the scope of ``Pet``, the
``pet`` :class:`class_` instance must be supplied to the :class:`enum_`.
constructor. The :func:`enum_::export_values` function exports the enum entries
into the parent scope, which should be skipped for newer C++11-style strongly
typed enums.
.. code-block:: pycon
>>> p = Pet('Lucy', Pet.Cat)
>>> p.type
Kind.Cat
>>> int(p.type)
1L
The entries defined by the enumeration type are exposed in the ``__members__`` property:
.. code-block:: pycon
>>> Pet.Kind.__members__
{'Dog': Kind.Dog, 'Cat': Kind.Cat}
The ``name`` property returns the name of the enum value as a unicode string.
.. note::
It is also possible to use ``str(enum)``, however these accomplish different
goals. The following shows how these two approaches differ.
.. code-block:: pycon
>>> p = Pet( "Lucy", Pet.Cat )
>>> pet_type = p.type
>>> pet_type
Pet.Cat
>>> str(pet_type)
'Pet.Cat'
>>> pet_type.name
'Cat'
.. note::
When the special tag ``py::arithmetic()`` is specified to the ``enum_``
constructor, pybind11 creates an enumeration that also supports rudimentary
arithmetic and bit-level operations like comparisons, and, or, xor, negation,
etc.
.. code-block:: cpp
py::enum_<Pet::Kind>(pet, "Kind", py::arithmetic())
...
By default, these are omitted to conserve space.

8
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CMake helpers
-------------
Pybind11 can be used with ``add_subdirectory(extern/pybind11)``, or from an
install with ``find_package(pybind11 CONFIG)``. The interface provided in
either case is functionally identical.
.. cmake-module:: ../../tools/pybind11Config.cmake.in

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.. _compiling:
Build systems
#############
.. _build-setuptools:
Building with setuptools
========================
For projects on PyPI, building with setuptools is the way to go. Sylvain Corlay
has kindly provided an example project which shows how to set up everything,
including automatic generation of documentation using Sphinx. Please refer to
the [python_example]_ repository.
.. [python_example] https://github.com/pybind/python_example
A helper file is provided with pybind11 that can simplify usage with setuptools.
To use pybind11 inside your ``setup.py``, you have to have some system to
ensure that ``pybind11`` is installed when you build your package. There are
four possible ways to do this, and pybind11 supports all four: You can ask all
users to install pybind11 beforehand (bad), you can use
:ref:`setup_helpers-pep518` (good, but very new and requires Pip 10),
:ref:`setup_helpers-setup_requires` (discouraged by Python packagers now that
PEP 518 is available, but it still works everywhere), or you can
:ref:`setup_helpers-copy-manually` (always works but you have to manually sync
your copy to get updates).
An example of a ``setup.py`` using pybind11's helpers:
.. code-block:: python
from glob import glob
from setuptools import setup
from pybind11.setup_helpers import Pybind11Extension
ext_modules = [
Pybind11Extension(
"python_example",
sorted(glob("src/*.cpp")), # Sort source files for reproducibility
),
]
setup(
...,
ext_modules=ext_modules
)
If you want to do an automatic search for the highest supported C++ standard,
that is supported via a ``build_ext`` command override; it will only affect
``Pybind11Extensions``:
.. code-block:: python
from glob import glob
from setuptools import setup
from pybind11.setup_helpers import Pybind11Extension, build_ext
ext_modules = [
Pybind11Extension(
"python_example",
sorted(glob("src/*.cpp")),
),
]
setup(
...,
cmdclass={"build_ext": build_ext},
ext_modules=ext_modules
)
Since pybind11 does not require NumPy when building, a light-weight replacement
for NumPy's parallel compilation distutils tool is included. Use it like this:
.. code-block:: python
from pybind11.setup_helpers import ParallelCompile
# Optional multithreaded build
ParallelCompile("NPY_NUM_BUILD_JOBS").install()
setup(...)
The argument is the name of an environment variable to control the number of
threads, such as ``NPY_NUM_BUILD_JOBS`` (as used by NumPy), though you can set
something different if you want; ``CMAKE_BUILD_PARALLEL_LEVEL`` is another choice
a user might expect. You can also pass ``default=N`` to set the default number
of threads (0 will take the number of threads available) and ``max=N``, the
maximum number of threads; if you have a large extension you may want set this
to a memory dependent number.
If you are developing rapidly and have a lot of C++ files, you may want to
avoid rebuilding files that have not changed. For simple cases were you are
using ``pip install -e .`` and do not have local headers, you can skip the
rebuild if a object file is newer than it's source (headers are not checked!)
with the following:
.. code-block:: python
from pybind11.setup_helpers import ParallelCompile, naive_recompile
SmartCompile("NPY_NUM_BUILD_JOBS", needs_recompile=naive_recompile).install()
If you have a more complex build, you can implement a smarter function and pass
it to ``needs_recompile``, or you can use [Ccache]_ instead. ``CXX="cache g++"
pip install -e .`` would be the way to use it with GCC, for example. Unlike the
simple solution, this even works even when not compiling in editable mode, but
it does require Ccache to be installed.
Keep in mind that Pip will not even attempt to rebuild if it thinks it has
already built a copy of your code, which it deduces from the version number.
One way to avoid this is to use [setuptools_scm]_, which will generate a
version number that includes the number of commits since your last tag and a
hash for a dirty directory. Another way to force a rebuild is purge your cache
or use Pip's ``--no-cache-dir`` option.
.. [Ccache] https://ccache.dev
.. [setuptools_scm] https://github.com/pypa/setuptools_scm
.. _setup_helpers-pep518:
PEP 518 requirements (Pip 10+ required)
---------------------------------------
If you use `PEP 518's <https://www.python.org/dev/peps/pep-0518/>`_
``pyproject.toml`` file, you can ensure that ``pybind11`` is available during
the compilation of your project. When this file exists, Pip will make a new
virtual environment, download just the packages listed here in ``requires=``,
and build a wheel (binary Python package). It will then throw away the
environment, and install your wheel.
Your ``pyproject.toml`` file will likely look something like this:
.. code-block:: toml
[build-system]
requires = ["setuptools>=42", "wheel", "pybind11~=2.6.1"]
build-backend = "setuptools.build_meta"
.. note::
The main drawback to this method is that a `PEP 517`_ compliant build tool,
such as Pip 10+, is required for this approach to work; older versions of
Pip completely ignore this file. If you distribute binaries (called wheels
in Python) using something like `cibuildwheel`_, remember that ``setup.py``
and ``pyproject.toml`` are not even contained in the wheel, so this high
Pip requirement is only for source builds, and will not affect users of
your binary wheels. If you are building SDists and wheels, then
`pypa-build`_ is the recommended offical tool.
.. _PEP 517: https://www.python.org/dev/peps/pep-0517/
.. _cibuildwheel: https://cibuildwheel.readthedocs.io
.. _pypa-build: https://pypa-build.readthedocs.io/en/latest/
.. _setup_helpers-setup_requires:
Classic ``setup_requires``
--------------------------
If you want to support old versions of Pip with the classic
``setup_requires=["pybind11"]`` keyword argument to setup, which triggers a
two-phase ``setup.py`` run, then you will need to use something like this to
ensure the first pass works (which has not yet installed the ``setup_requires``
packages, since it can't install something it does not know about):
.. code-block:: python
try:
from pybind11.setup_helpers import Pybind11Extension
except ImportError:
from setuptools import Extension as Pybind11Extension
It doesn't matter that the Extension class is not the enhanced subclass for the
first pass run; and the second pass will have the ``setup_requires``
requirements.
This is obviously more of a hack than the PEP 518 method, but it supports
ancient versions of Pip.
.. _setup_helpers-copy-manually:
Copy manually
-------------
You can also copy ``setup_helpers.py`` directly to your project; it was
designed to be usable standalone, like the old example ``setup.py``. You can
set ``include_pybind11=False`` to skip including the pybind11 package headers,
so you can use it with git submodules and a specific git version. If you use
this, you will need to import from a local file in ``setup.py`` and ensure the
helper file is part of your MANIFEST.
Closely related, if you include pybind11 as a subproject, you can run the
``setup_helpers.py`` inplace. If loaded correctly, this should even pick up
the correct include for pybind11, though you can turn it off as shown above if
you want to input it manually.
Suggested usage if you have pybind11 as a submodule in ``extern/pybind11``:
.. code-block:: python
DIR = os.path.abspath(os.path.dirname(__file__))
sys.path.append(os.path.join(DIR, "extern", "pybind11"))
from pybind11.setup_helpers import Pybind11Extension # noqa: E402
del sys.path[-1]
.. versionchanged:: 2.6
Added ``setup_helpers`` file.
Building with cppimport
========================
[cppimport]_ is a small Python import hook that determines whether there is a C++
source file whose name matches the requested module. If there is, the file is
compiled as a Python extension using pybind11 and placed in the same folder as
the C++ source file. Python is then able to find the module and load it.
.. [cppimport] https://github.com/tbenthompson/cppimport
.. _cmake:
Building with CMake
===================
For C++ codebases that have an existing CMake-based build system, a Python
extension module can be created with just a few lines of code:
.. code-block:: cmake
cmake_minimum_required(VERSION 3.4...3.18)
project(example LANGUAGES CXX)
add_subdirectory(pybind11)
pybind11_add_module(example example.cpp)
This assumes that the pybind11 repository is located in a subdirectory named
:file:`pybind11` and that the code is located in a file named :file:`example.cpp`.
The CMake command ``add_subdirectory`` will import the pybind11 project which
provides the ``pybind11_add_module`` function. It will take care of all the
details needed to build a Python extension module on any platform.
A working sample project, including a way to invoke CMake from :file:`setup.py` for
PyPI integration, can be found in the [cmake_example]_ repository.
.. [cmake_example] https://github.com/pybind/cmake_example
.. versionchanged:: 2.6
CMake 3.4+ is required.
Further information can be found at :doc:`cmake/index`.
pybind11_add_module
-------------------
To ease the creation of Python extension modules, pybind11 provides a CMake
function with the following signature:
.. code-block:: cmake
pybind11_add_module(<name> [MODULE | SHARED] [EXCLUDE_FROM_ALL]
[NO_EXTRAS] [THIN_LTO] [OPT_SIZE] source1 [source2 ...])
This function behaves very much like CMake's builtin ``add_library`` (in fact,
it's a wrapper function around that command). It will add a library target
called ``<name>`` to be built from the listed source files. In addition, it
will take care of all the Python-specific compiler and linker flags as well
as the OS- and Python-version-specific file extension. The produced target
``<name>`` can be further manipulated with regular CMake commands.
``MODULE`` or ``SHARED`` may be given to specify the type of library. If no
type is given, ``MODULE`` is used by default which ensures the creation of a
Python-exclusive module. Specifying ``SHARED`` will create a more traditional
dynamic library which can also be linked from elsewhere. ``EXCLUDE_FROM_ALL``
removes this target from the default build (see CMake docs for details).
Since pybind11 is a template library, ``pybind11_add_module`` adds compiler
flags to ensure high quality code generation without bloat arising from long
symbol names and duplication of code in different translation units. It
sets default visibility to *hidden*, which is required for some pybind11
features and functionality when attempting to load multiple pybind11 modules
compiled under different pybind11 versions. It also adds additional flags
enabling LTO (Link Time Optimization) and strip unneeded symbols. See the
:ref:`FAQ entry <faq:symhidden>` for a more detailed explanation. These
latter optimizations are never applied in ``Debug`` mode. If ``NO_EXTRAS`` is
given, they will always be disabled, even in ``Release`` mode. However, this
will result in code bloat and is generally not recommended.
As stated above, LTO is enabled by default. Some newer compilers also support
different flavors of LTO such as `ThinLTO`_. Setting ``THIN_LTO`` will cause
the function to prefer this flavor if available. The function falls back to
regular LTO if ``-flto=thin`` is not available. If
``CMAKE_INTERPROCEDURAL_OPTIMIZATION`` is set (either ``ON`` or ``OFF``), then
that will be respected instead of the built-in flag search.
.. note::
If you want to set the property form on targets or the
``CMAKE_INTERPROCEDURAL_OPTIMIZATION_<CONFIG>`` versions of this, you should
still use ``set(CMAKE_INTERPROCEDURAL_OPTIMIZATION OFF)`` (otherwise a
no-op) to disable pybind11's ipo flags.
The ``OPT_SIZE`` flag enables size-based optimization equivalent to the
standard ``/Os`` or ``-Os`` compiler flags and the ``MinSizeRel`` build type,
which avoid optimizations that that can substantially increase the size of the
resulting binary. This flag is particularly useful in projects that are split
into performance-critical parts and associated bindings. In this case, we can
compile the project in release mode (and hence, optimize performance globally),
and specify ``OPT_SIZE`` for the binding target, where size might be the main
concern as performance is often less critical here. A ~25% size reduction has
been observed in practice. This flag only changes the optimization behavior at
a per-target level and takes precedence over the global CMake build type
(``Release``, ``RelWithDebInfo``) except for ``Debug`` builds, where
optimizations remain disabled.
.. _ThinLTO: http://clang.llvm.org/docs/ThinLTO.html
Configuration variables
-----------------------
By default, pybind11 will compile modules with the compiler default or the
minimum standard required by pybind11, whichever is higher. You can set the
standard explicitly with
`CMAKE_CXX_STANDARD <https://cmake.org/cmake/help/latest/variable/CMAKE_CXX_STANDARD.html>`_:
.. code-block:: cmake
set(CMAKE_CXX_STANDARD 14 CACHE STRING "C++ version selection") # or 11, 14, 17, 20
set(CMAKE_CXX_STANDARD_REQUIRED ON) # optional, ensure standard is supported
set(CMAKE_CXX_EXTENSIONS OFF) # optional, keep compiler extensionsn off
The variables can also be set when calling CMake from the command line using
the ``-D<variable>=<value>`` flag. You can also manually set ``CXX_STANDARD``
on a target or use ``target_compile_features`` on your targets - anything that
CMake supports.
Classic Python support: The target Python version can be selected by setting
``PYBIND11_PYTHON_VERSION`` or an exact Python installation can be specified
with ``PYTHON_EXECUTABLE``. For example:
.. code-block:: bash
cmake -DPYBIND11_PYTHON_VERSION=3.6 ..
# Another method:
cmake -DPYTHON_EXECUTABLE=/path/to/python ..
# This often is a good way to get the current Python, works in environments:
cmake -DPYTHON_EXECUTABLE=$(python3 -c "import sys; print(sys.executable)") ..
find_package vs. add_subdirectory
---------------------------------
For CMake-based projects that don't include the pybind11 repository internally,
an external installation can be detected through ``find_package(pybind11)``.
See the `Config file`_ docstring for details of relevant CMake variables.
.. code-block:: cmake
cmake_minimum_required(VERSION 3.4...3.18)
project(example LANGUAGES CXX)
find_package(pybind11 REQUIRED)
pybind11_add_module(example example.cpp)
Note that ``find_package(pybind11)`` will only work correctly if pybind11
has been correctly installed on the system, e. g. after downloading or cloning
the pybind11 repository :
.. code-block:: bash
# Classic CMake
cd pybind11
mkdir build
cd build
cmake ..
make install
# CMake 3.15+
cd pybind11
cmake -S . -B build
cmake --build build -j 2 # Build on 2 cores
cmake --install build
Once detected, the aforementioned ``pybind11_add_module`` can be employed as
before. The function usage and configuration variables are identical no matter
if pybind11 is added as a subdirectory or found as an installed package. You
can refer to the same [cmake_example]_ repository for a full sample project
-- just swap out ``add_subdirectory`` for ``find_package``.
.. _Config file: https://github.com/pybind/pybind11/blob/master/tools/pybind11Config.cmake.in
.. _find-python-mode:
FindPython mode
---------------
CMake 3.12+ (3.15+ recommended, 3.18.2+ ideal) added a new module called
FindPython that had a highly improved search algorithm and modern targets
and tools. If you use FindPython, pybind11 will detect this and use the
existing targets instead:
.. code-block:: cmake
cmake_minumum_required(VERSION 3.15...3.19)
project(example LANGUAGES CXX)
find_package(Python COMPONENTS Interpreter Development REQUIRED)
find_package(pybind11 CONFIG REQUIRED)
# or add_subdirectory(pybind11)
pybind11_add_module(example example.cpp)
You can also use the targets (as listed below) with FindPython. If you define
``PYBIND11_FINDPYTHON``, pybind11 will perform the FindPython step for you
(mostly useful when building pybind11's own tests, or as a way to change search
algorithms from the CMake invocation, with ``-DPYBIND11_FINDPYTHON=ON``.
.. warning::
If you use FindPython2 and FindPython3 to dual-target Python, use the
individual targets listed below, and avoid targets that directly include
Python parts.
There are `many ways to hint or force a discovery of a specific Python
installation <https://cmake.org/cmake/help/latest/module/FindPython.html>`_),
setting ``Python_ROOT_DIR`` may be the most common one (though with
virtualenv/venv support, and Conda support, this tends to find the correct
Python version more often than the old system did).
.. warning::
When the Python libraries (i.e. ``libpythonXX.a`` and ``libpythonXX.so``
on Unix) are not available, as is the case on a manylinux image, the
``Development`` component will not be resolved by ``FindPython``. When not
using the embedding functionality, CMake 3.18+ allows you to specify
``Development.Module`` instead of ``Development`` to resolve this issue.
.. versionadded:: 2.6
Advanced: interface library targets
-----------------------------------
Pybind11 supports modern CMake usage patterns with a set of interface targets,
available in all modes. The targets provided are:
``pybind11::headers``
Just the pybind11 headers and minimum compile requirements
``pybind11::python2_no_register``
Quiets the warning/error when mixing C++14 or higher and Python 2
``pybind11::pybind11``
Python headers + ``pybind11::headers`` + ``pybind11::python2_no_register`` (Python 2 only)
``pybind11::python_link_helper``
Just the "linking" part of pybind11:module
``pybind11::module``
Everything for extension modules - ``pybind11::pybind11`` + ``Python::Module`` (FindPython CMake 3.15+) or ``pybind11::python_link_helper``
``pybind11::embed``
Everything for embedding the Python interpreter - ``pybind11::pybind11`` + ``Python::Embed`` (FindPython) or Python libs
``pybind11::lto`` / ``pybind11::thin_lto``
An alternative to `INTERPROCEDURAL_OPTIMIZATION` for adding link-time optimization.
``pybind11::windows_extras``
``/bigobj`` and ``/mp`` for MSVC.
``pybind11::opt_size``
``/Os`` for MSVC, ``-Os`` for other compilers. Does nothing for debug builds.
Two helper functions are also provided:
``pybind11_strip(target)``
Strips a target (uses ``CMAKE_STRIP`` after the target is built)
``pybind11_extension(target)``
Sets the correct extension (with SOABI) for a target.
You can use these targets to build complex applications. For example, the
``add_python_module`` function is identical to:
.. code-block:: cmake
cmake_minimum_required(VERSION 3.4)
project(example LANGUAGES CXX)
find_package(pybind11 REQUIRED) # or add_subdirectory(pybind11)
add_library(example MODULE main.cpp)
target_link_libraries(example PRIVATE pybind11::module pybind11::lto pybind11::windows_extras)
pybind11_extension(example)
pybind11_strip(example)
set_target_properties(example PROPERTIES CXX_VISIBILITY_PRESET "hidden"
CUDA_VISIBILITY_PRESET "hidden")
Instead of setting properties, you can set ``CMAKE_*`` variables to initialize these correctly.
.. warning::
Since pybind11 is a metatemplate library, it is crucial that certain
compiler flags are provided to ensure high quality code generation. In
contrast to the ``pybind11_add_module()`` command, the CMake interface
provides a *composable* set of targets to ensure that you retain flexibility.
It can be expecially important to provide or set these properties; the
:ref:`FAQ <faq:symhidden>` contains an explanation on why these are needed.
.. versionadded:: 2.6
.. _nopython-mode:
Advanced: NOPYTHON mode
-----------------------
If you want complete control, you can set ``PYBIND11_NOPYTHON`` to completely
disable Python integration (this also happens if you run ``FindPython2`` and
``FindPython3`` without running ``FindPython``). This gives you complete
freedom to integrate into an existing system (like `Scikit-Build's
<https://scikit-build.readthedocs.io>`_ ``PythonExtensions``).
``pybind11_add_module`` and ``pybind11_extension`` will be unavailable, and the
targets will be missing any Python specific behavior.
.. versionadded:: 2.6
Embedding the Python interpreter
--------------------------------
In addition to extension modules, pybind11 also supports embedding Python into
a C++ executable or library. In CMake, simply link with the ``pybind11::embed``
target. It provides everything needed to get the interpreter running. The Python
headers and libraries are attached to the target. Unlike ``pybind11::module``,
there is no need to manually set any additional properties here. For more
information about usage in C++, see :doc:`/advanced/embedding`.
.. code-block:: cmake
cmake_minimum_required(VERSION 3.4...3.18)
project(example LANGUAGES CXX)
find_package(pybind11 REQUIRED) # or add_subdirectory(pybind11)
add_executable(example main.cpp)
target_link_libraries(example PRIVATE pybind11::embed)
.. _building_manually:
Building manually
=================
pybind11 is a header-only library, hence it is not necessary to link against
any special libraries and there are no intermediate (magic) translation steps.
On Linux, you can compile an example such as the one given in
:ref:`simple_example` using the following command:
.. code-block:: bash
$ c++ -O3 -Wall -shared -std=c++11 -fPIC $(python3 -m pybind11 --includes) example.cpp -o example$(python3-config --extension-suffix)
The flags given here assume that you're using Python 3. For Python 2, just
change the executable appropriately (to ``python`` or ``python2``).
The ``python3 -m pybind11 --includes`` command fetches the include paths for
both pybind11 and Python headers. This assumes that pybind11 has been installed
using ``pip`` or ``conda``. If it hasn't, you can also manually specify
``-I <path-to-pybind11>/include`` together with the Python includes path
``python3-config --includes``.
Note that Python 2.7 modules don't use a special suffix, so you should simply
use ``example.so`` instead of ``example$(python3-config --extension-suffix)``.
Besides, the ``--extension-suffix`` option may or may not be available, depending
on the distribution; in the latter case, the module extension can be manually
set to ``.so``.
On macOS: the build command is almost the same but it also requires passing
the ``-undefined dynamic_lookup`` flag so as to ignore missing symbols when
building the module:
.. code-block:: bash
$ c++ -O3 -Wall -shared -std=c++11 -undefined dynamic_lookup $(python3 -m pybind11 --includes) example.cpp -o example$(python3-config --extension-suffix)
In general, it is advisable to include several additional build parameters
that can considerably reduce the size of the created binary. Refer to section
:ref:`cmake` for a detailed example of a suitable cross-platform CMake-based
build system that works on all platforms including Windows.
.. note::
On Linux and macOS, it's better to (intentionally) not link against
``libpython``. The symbols will be resolved when the extension library
is loaded into a Python binary. This is preferable because you might
have several different installations of a given Python version (e.g. the
system-provided Python, and one that ships with a piece of commercial
software). In this way, the plugin will work with both versions, instead
of possibly importing a second Python library into a process that already
contains one (which will lead to a segfault).
Building with Bazel
===================
You can build with the Bazel build system using the `pybind11_bazel
<https://github.com/pybind/pybind11_bazel>`_ repository.
Generating binding code automatically
=====================================
The ``Binder`` project is a tool for automatic generation of pybind11 binding
code by introspecting existing C++ codebases using LLVM/Clang. See the
[binder]_ documentation for details.
.. [binder] http://cppbinder.readthedocs.io/en/latest/about.html
[AutoWIG]_ is a Python library that wraps automatically compiled libraries into
high-level languages. It parses C++ code using LLVM/Clang technologies and
generates the wrappers using the Mako templating engine. The approach is automatic,
extensible, and applies to very complex C++ libraries, composed of thousands of
classes or incorporating modern meta-programming constructs.
.. [AutoWIG] https://github.com/StatisKit/AutoWIG
[robotpy-build]_ is a is a pure python, cross platform build tool that aims to
simplify creation of python wheels for pybind11 projects, and provide
cross-project dependency management. Additionally, it is able to autogenerate
customizable pybind11-based wrappers by parsing C++ header files.
.. [robotpy-build] https://robotpy-build.readthedocs.io

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#!/usr/bin/env python3
# -*- coding: utf-8 -*-
#
# pybind11 documentation build configuration file, created by
# sphinx-quickstart on Sun Oct 11 19:23:48 2015.
#
# This file is execfile()d with the current directory set to its
# containing dir.
#
# Note that not all possible configuration values are present in this
# autogenerated file.
#
# All configuration values have a default; values that are commented out
# serve to show the default.
import sys
import os
import shlex
import subprocess
from pathlib import Path
import re
DIR = Path(__file__).parent.resolve()
# If extensions (or modules to document with autodoc) are in another directory,
# add these directories to sys.path here. If the directory is relative to the
# documentation root, use os.path.abspath to make it absolute, like shown here.
# sys.path.insert(0, os.path.abspath('.'))
# -- General configuration ------------------------------------------------
# If your documentation needs a minimal Sphinx version, state it here.
# needs_sphinx = '1.0'
# Add any Sphinx extension module names here, as strings. They can be
# extensions coming with Sphinx (named 'sphinx.ext.*') or your custom
# ones.
extensions = [
"breathe",
"sphinxcontrib.rsvgconverter",
"sphinxcontrib.moderncmakedomain",
]
breathe_projects = {"pybind11": ".build/doxygenxml/"}
breathe_default_project = "pybind11"
breathe_domain_by_extension = {"h": "cpp"}
# Add any paths that contain templates here, relative to this directory.
templates_path = [".templates"]
# The suffix(es) of source filenames.
# You can specify multiple suffix as a list of string:
# source_suffix = ['.rst', '.md']
source_suffix = ".rst"
# The encoding of source files.
# source_encoding = 'utf-8-sig'
# The master toctree document.
master_doc = "index"
# General information about the project.
project = "pybind11"
copyright = "2017, Wenzel Jakob"
author = "Wenzel Jakob"
# The version info for the project you're documenting, acts as replacement for
# |version| and |release|, also used in various other places throughout the
# built documents.
# Read the listed version
with open("../pybind11/_version.py") as f:
code = compile(f.read(), "../pybind11/_version.py", "exec")
loc = {}
exec(code, loc)
# The full version, including alpha/beta/rc tags.
version = loc["__version__"]
# The language for content autogenerated by Sphinx. Refer to documentation
# for a list of supported languages.
#
# This is also used if you do content translation via gettext catalogs.
# Usually you set "language" from the command line for these cases.
language = None
# There are two options for replacing |today|: either, you set today to some
# non-false value, then it is used:
# today = ''
# Else, today_fmt is used as the format for a strftime call.
# today_fmt = '%B %d, %Y'
# List of patterns, relative to source directory, that match files and
# directories to ignore when looking for source files.
exclude_patterns = [".build", "release.rst"]
# The reST default role (used for this markup: `text`) to use for all
# documents.
default_role = "any"
# If true, '()' will be appended to :func: etc. cross-reference text.
# add_function_parentheses = True
# If true, the current module name will be prepended to all description
# unit titles (such as .. function::).
# add_module_names = True
# If true, sectionauthor and moduleauthor directives will be shown in the
# output. They are ignored by default.
# show_authors = False
# The name of the Pygments (syntax highlighting) style to use.
# pygments_style = 'monokai'
# A list of ignored prefixes for module index sorting.
# modindex_common_prefix = []
# If true, keep warnings as "system message" paragraphs in the built documents.
# keep_warnings = False
# If true, `todo` and `todoList` produce output, else they produce nothing.
todo_include_todos = False
# -- Options for HTML output ----------------------------------------------
# The theme to use for HTML and HTML Help pages. See the documentation for
# a list of builtin themes.
on_rtd = os.environ.get("READTHEDOCS", None) == "True"
if not on_rtd: # only import and set the theme if we're building docs locally
import sphinx_rtd_theme
html_theme = "sphinx_rtd_theme"
html_theme_path = [sphinx_rtd_theme.get_html_theme_path()]
html_context = {"css_files": ["_static/theme_overrides.css"]}
else:
html_context = {
"css_files": [
"//media.readthedocs.org/css/sphinx_rtd_theme.css",
"//media.readthedocs.org/css/readthedocs-doc-embed.css",
"_static/theme_overrides.css",
]
}
# Theme options are theme-specific and customize the look and feel of a theme
# further. For a list of options available for each theme, see the
# documentation.
# html_theme_options = {}
# Add any paths that contain custom themes here, relative to this directory.
# html_theme_path = []
# The name for this set of Sphinx documents. If None, it defaults to
# "<project> v<version> documentation".
# html_title = None
# A shorter title for the navigation bar. Default is the same as html_title.
# html_short_title = None
# The name of an image file (relative to this directory) to place at the top
# of the sidebar.
# html_logo = None
# The name of an image file (within the static path) to use as favicon of the
# docs. This file should be a Windows icon file (.ico) being 16x16 or 32x32
# pixels large.
# html_favicon = None
# Add any paths that contain custom static files (such as style sheets) here,
# relative to this directory. They are copied after the builtin static files,
# so a file named "default.css" will overwrite the builtin "default.css".
html_static_path = ["_static"]
# Add any extra paths that contain custom files (such as robots.txt or
# .htaccess) here, relative to this directory. These files are copied
# directly to the root of the documentation.
# html_extra_path = []
# If not '', a 'Last updated on:' timestamp is inserted at every page bottom,
# using the given strftime format.
# html_last_updated_fmt = '%b %d, %Y'
# If true, SmartyPants will be used to convert quotes and dashes to
# typographically correct entities.
# html_use_smartypants = True
# Custom sidebar templates, maps document names to template names.
# html_sidebars = {}
# Additional templates that should be rendered to pages, maps page names to
# template names.
# html_additional_pages = {}
# If false, no module index is generated.
# html_domain_indices = True
# If false, no index is generated.
# html_use_index = True
# If true, the index is split into individual pages for each letter.
# html_split_index = False
# If true, links to the reST sources are added to the pages.
# html_show_sourcelink = True
# If true, "Created using Sphinx" is shown in the HTML footer. Default is True.
# html_show_sphinx = True
# If true, "(C) Copyright ..." is shown in the HTML footer. Default is True.
# html_show_copyright = True
# If true, an OpenSearch description file will be output, and all pages will
# contain a <link> tag referring to it. The value of this option must be the
# base URL from which the finished HTML is served.
# html_use_opensearch = ''
# This is the file name suffix for HTML files (e.g. ".xhtml").
# html_file_suffix = None
# Language to be used for generating the HTML full-text search index.
# Sphinx supports the following languages:
# 'da', 'de', 'en', 'es', 'fi', 'fr', 'h', 'it', 'ja'
# 'nl', 'no', 'pt', 'ro', 'r', 'sv', 'tr'
# html_search_language = 'en'
# A dictionary with options for the search language support, empty by default.
# Now only 'ja' uses this config value
# html_search_options = {'type': 'default'}
# The name of a javascript file (relative to the configuration directory) that
# implements a search results scorer. If empty, the default will be used.
# html_search_scorer = 'scorer.js'
# Output file base name for HTML help builder.
htmlhelp_basename = "pybind11doc"
# -- Options for LaTeX output ---------------------------------------------
latex_engine = "pdflatex"
latex_elements = {
# The paper size ('letterpaper' or 'a4paper').
# 'papersize': 'letterpaper',
#
# The font size ('10pt', '11pt' or '12pt').
# 'pointsize': '10pt',
#
# Additional stuff for the LaTeX preamble.
# remove blank pages (between the title page and the TOC, etc.)
"classoptions": ",openany,oneside",
"preamble": r"""
\usepackage{fontawesome}
\usepackage{textgreek}
\DeclareUnicodeCharacter{00A0}{}
\DeclareUnicodeCharacter{2194}{\faArrowsH}
\DeclareUnicodeCharacter{1F382}{\faBirthdayCake}
\DeclareUnicodeCharacter{1F355}{\faAdjust}
\DeclareUnicodeCharacter{0301}{'}
\DeclareUnicodeCharacter{03C0}{\textpi}
""",
# Latex figure (float) alignment
# 'figure_align': 'htbp',
}
# Grouping the document tree into LaTeX files. List of tuples
# (source start file, target name, title,
# author, documentclass [howto, manual, or own class]).
latex_documents = [
(master_doc, "pybind11.tex", "pybind11 Documentation", "Wenzel Jakob", "manual"),
]
# The name of an image file (relative to this directory) to place at the top of
# the title page.
# latex_logo = 'pybind11-logo.png'
# For "manual" documents, if this is true, then toplevel headings are parts,
# not chapters.
# latex_use_parts = False
# If true, show page references after internal links.
# latex_show_pagerefs = False
# If true, show URL addresses after external links.
# latex_show_urls = False
# Documents to append as an appendix to all manuals.
# latex_appendices = []
# If false, no module index is generated.
# latex_domain_indices = True
# -- Options for manual page output ---------------------------------------
# One entry per manual page. List of tuples
# (source start file, name, description, authors, manual section).
man_pages = [(master_doc, "pybind11", "pybind11 Documentation", [author], 1)]
# If true, show URL addresses after external links.
# man_show_urls = False
# -- Options for Texinfo output -------------------------------------------
# Grouping the document tree into Texinfo files. List of tuples
# (source start file, target name, title, author,
# dir menu entry, description, category)
texinfo_documents = [
(
master_doc,
"pybind11",
"pybind11 Documentation",
author,
"pybind11",
"One line description of project.",
"Miscellaneous",
),
]
# Documents to append as an appendix to all manuals.
# texinfo_appendices = []
# If false, no module index is generated.
# texinfo_domain_indices = True
# How to display URL addresses: 'footnote', 'no', or 'inline'.
# texinfo_show_urls = 'footnote'
# If true, do not generate a @detailmenu in the "Top" node's menu.
# texinfo_no_detailmenu = False
primary_domain = "cpp"
highlight_language = "cpp"
def generate_doxygen_xml(app):
build_dir = os.path.join(app.confdir, ".build")
if not os.path.exists(build_dir):
os.mkdir(build_dir)
try:
subprocess.call(["doxygen", "--version"])
retcode = subprocess.call(["doxygen"], cwd=app.confdir)
if retcode < 0:
sys.stderr.write("doxygen error code: {}\n".format(-retcode))
except OSError as e:
sys.stderr.write("doxygen execution failed: {}\n".format(e))
def prepare(app):
with open(DIR.parent / "README.rst") as f:
contents = f.read()
if app.builder.name == "latex":
# Remove badges and stuff from start
contents = contents[contents.find(r".. start") :]
# Filter out section titles for index.rst for LaTeX
contents = re.sub(r"^(.*)\n[-~]{3,}$", r"**\1**", contents, flags=re.MULTILINE)
with open(DIR / "readme.rst", "w") as f:
f.write(contents)
def clean_up(app, exception):
(DIR / "readme.rst").unlink()
def setup(app):
# Add hook for building doxygen xml when needed
app.connect("builder-inited", generate_doxygen_xml)
# Copy the readme in
app.connect("builder-inited", prepare)
# Clean up the generated readme
app.connect("build-finished", clean_up)

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Frequently asked questions
##########################
"ImportError: dynamic module does not define init function"
===========================================================
1. Make sure that the name specified in PYBIND11_MODULE is identical to the
filename of the extension library (without suffixes such as .so)
2. If the above did not fix the issue, you are likely using an incompatible
version of Python (for instance, the extension library was compiled against
Python 2, while the interpreter is running on top of some version of Python
3, or vice versa).
"Symbol not found: ``__Py_ZeroStruct`` / ``_PyInstanceMethod_Type``"
========================================================================
See the first answer.
"SystemError: dynamic module not initialized properly"
======================================================
See the first answer.
The Python interpreter immediately crashes when importing my module
===================================================================
See the first answer.
.. _faq_reference_arguments:
Limitations involving reference arguments
=========================================
In C++, it's fairly common to pass arguments using mutable references or
mutable pointers, which allows both read and write access to the value
supplied by the caller. This is sometimes done for efficiency reasons, or to
realize functions that have multiple return values. Here are two very basic
examples:
.. code-block:: cpp
void increment(int &i) { i++; }
void increment_ptr(int *i) { (*i)++; }
In Python, all arguments are passed by reference, so there is no general
issue in binding such code from Python.
However, certain basic Python types (like ``str``, ``int``, ``bool``,
``float``, etc.) are **immutable**. This means that the following attempt
to port the function to Python doesn't have the same effect on the value
provided by the caller -- in fact, it does nothing at all.
.. code-block:: python
def increment(i):
i += 1 # nope..
pybind11 is also affected by such language-level conventions, which means that
binding ``increment`` or ``increment_ptr`` will also create Python functions
that don't modify their arguments.
Although inconvenient, one workaround is to encapsulate the immutable types in
a custom type that does allow modifications.
An other alternative involves binding a small wrapper lambda function that
returns a tuple with all output arguments (see the remainder of the
documentation for examples on binding lambda functions). An example:
.. code-block:: cpp
int foo(int &i) { i++; return 123; }
and the binding code
.. code-block:: cpp
m.def("foo", [](int i) { int rv = foo(i); return std::make_tuple(rv, i); });
How can I reduce the build time?
================================
It's good practice to split binding code over multiple files, as in the
following example:
:file:`example.cpp`:
.. code-block:: cpp
void init_ex1(py::module_ &);
void init_ex2(py::module_ &);
/* ... */
PYBIND11_MODULE(example, m) {
init_ex1(m);
init_ex2(m);
/* ... */
}
:file:`ex1.cpp`:
.. code-block:: cpp
void init_ex1(py::module_ &m) {
m.def("add", [](int a, int b) { return a + b; });
}
:file:`ex2.cpp`:
.. code-block:: cpp
void init_ex2(py::module_ &m) {
m.def("sub", [](int a, int b) { return a - b; });
}
:command:`python`:
.. code-block:: pycon
>>> import example
>>> example.add(1, 2)
3
>>> example.sub(1, 1)
0
As shown above, the various ``init_ex`` functions should be contained in
separate files that can be compiled independently from one another, and then
linked together into the same final shared object. Following this approach
will:
1. reduce memory requirements per compilation unit.
2. enable parallel builds (if desired).
3. allow for faster incremental builds. For instance, when a single class
definition is changed, only a subset of the binding code will generally need
to be recompiled.
"recursive template instantiation exceeded maximum depth of 256"
================================================================
If you receive an error about excessive recursive template evaluation, try
specifying a larger value, e.g. ``-ftemplate-depth=1024`` on GCC/Clang. The
culprit is generally the generation of function signatures at compile time
using C++14 template metaprogramming.
.. _`faq:hidden_visibility`:
"‘SomeClass’ declared with greater visibility than the type of its field ‘SomeClass::member’ [-Wattributes]"
============================================================================================================
This error typically indicates that you are compiling without the required
``-fvisibility`` flag. pybind11 code internally forces hidden visibility on
all internal code, but if non-hidden (and thus *exported*) code attempts to
include a pybind type (for example, ``py::object`` or ``py::list``) you can run
into this warning.
To avoid it, make sure you are specifying ``-fvisibility=hidden`` when
compiling pybind code.
As to why ``-fvisibility=hidden`` is necessary, because pybind modules could
have been compiled under different versions of pybind itself, it is also
important that the symbols defined in one module do not clash with the
potentially-incompatible symbols defined in another. While Python extension
modules are usually loaded with localized symbols (under POSIX systems
typically using ``dlopen`` with the ``RTLD_LOCAL`` flag), this Python default
can be changed, but even if it isn't it is not always enough to guarantee
complete independence of the symbols involved when not using
``-fvisibility=hidden``.
Additionally, ``-fvisibility=hidden`` can deliver considerably binary size
savings. (See the following section for more details).
.. _`faq:symhidden`:
How can I create smaller binaries?
==================================
To do its job, pybind11 extensively relies on a programming technique known as
*template metaprogramming*, which is a way of performing computation at compile
time using type information. Template metaprogamming usually instantiates code
involving significant numbers of deeply nested types that are either completely
removed or reduced to just a few instructions during the compiler's optimization
phase. However, due to the nested nature of these types, the resulting symbol
names in the compiled extension library can be extremely long. For instance,
the included test suite contains the following symbol:
.. only:: html
.. code-block:: none
_​_​Z​N​8​p​y​b​i​n​d​1​1​1​2​c​p​p​_​f​u​n​c​t​i​o​n​C​1​I​v​8​E​x​a​m​p​l​e​2​J​R​N​S​t​3​_​_​1​6​v​e​c​t​o​r​I​N​S​3​_​1​2​b​a​s​i​c​_​s​t​r​i​n​g​I​w​N​S​3​_​1​1​c​h​a​r​_​t​r​a​i​t​s​I​w​E​E​N​S​3​_​9​a​l​l​o​c​a​t​o​r​I​w​E​E​E​E​N​S​8​_​I​S​A​_​E​E​E​E​E​J​N​S​_​4​n​a​m​e​E​N​S​_​7​s​i​b​l​i​n​g​E​N​S​_​9​i​s​_​m​e​t​h​o​d​E​A​2​8​_​c​E​E​E​M​T​0​_​F​T​_​D​p​T​1​_​E​D​p​R​K​T​2​_
.. only:: not html
.. code-block:: cpp
__ZN8pybind1112cpp_functionC1Iv8Example2JRNSt3__16vectorINS3_12basic_stringIwNS3_11char_traitsIwEENS3_9allocatorIwEEEENS8_ISA_EEEEEJNS_4nameENS_7siblingENS_9is_methodEA28_cEEEMT0_FT_DpT1_EDpRKT2_
which is the mangled form of the following function type:
.. code-block:: cpp
pybind11::cpp_function::cpp_function<void, Example2, std::__1::vector<std::__1::basic_string<wchar_t, std::__1::char_traits<wchar_t>, std::__1::allocator<wchar_t> >, std::__1::allocator<std::__1::basic_string<wchar_t, std::__1::char_traits<wchar_t>, std::__1::allocator<wchar_t> > > >&, pybind11::name, pybind11::sibling, pybind11::is_method, char [28]>(void (Example2::*)(std::__1::vector<std::__1::basic_string<wchar_t, std::__1::char_traits<wchar_t>, std::__1::allocator<wchar_t> >, std::__1::allocator<std::__1::basic_string<wchar_t, std::__1::char_traits<wchar_t>, std::__1::allocator<wchar_t> > > >&), pybind11::name const&, pybind11::sibling const&, pybind11::is_method const&, char const (&) [28])
The memory needed to store just the mangled name of this function (196 bytes)
is larger than the actual piece of code (111 bytes) it represents! On the other
hand, it's silly to even give this function a name -- after all, it's just a
tiny cog in a bigger piece of machinery that is not exposed to the outside
world. So we'll generally only want to export symbols for those functions which
are actually called from the outside.
This can be achieved by specifying the parameter ``-fvisibility=hidden`` to GCC
and Clang, which sets the default symbol visibility to *hidden*, which has a
tremendous impact on the final binary size of the resulting extension library.
(On Visual Studio, symbols are already hidden by default, so nothing needs to
be done there.)
In addition to decreasing binary size, ``-fvisibility=hidden`` also avoids
potential serious issues when loading multiple modules and is required for
proper pybind operation. See the previous FAQ entry for more details.
Working with ancient Visual Studio 2008 builds on Windows
=========================================================
The official Windows distributions of Python are compiled using truly
ancient versions of Visual Studio that lack good C++11 support. Some users
implicitly assume that it would be impossible to load a plugin built with
Visual Studio 2015 into a Python distribution that was compiled using Visual
Studio 2008. However, no such issue exists: it's perfectly legitimate to
interface DLLs that are built with different compilers and/or C libraries.
Common gotchas to watch out for involve not ``free()``-ing memory region
that that were ``malloc()``-ed in another shared library, using data
structures with incompatible ABIs, and so on. pybind11 is very careful not
to make these types of mistakes.
How can I properly handle Ctrl-C in long-running functions?
===========================================================
Ctrl-C is received by the Python interpreter, and holds it until the GIL
is released, so a long-running function won't be interrupted.
To interrupt from inside your function, you can use the ``PyErr_CheckSignals()``
function, that will tell if a signal has been raised on the Python side. This
function merely checks a flag, so its impact is negligible. When a signal has
been received, you must either explicitly interrupt execution by throwing
``py::error_already_set`` (which will propagate the existing
``KeyboardInterrupt``), or clear the error (which you usually will not want):
.. code-block:: cpp
PYBIND11_MODULE(example, m)
{
m.def("long running_func", []()
{
for (;;) {
if (PyErr_CheckSignals() != 0)
throw py::error_already_set();
// Long running iteration
}
});
}
CMake doesn't detect the right Python version
=============================================
The CMake-based build system will try to automatically detect the installed
version of Python and link against that. When this fails, or when there are
multiple versions of Python and it finds the wrong one, delete
``CMakeCache.txt`` and then add ``-DPYTHON_EXECUTABLE=$(which python)`` to your
CMake configure line. (Replace ``$(which python)`` with a path to python if
your prefer.)
You can alternatively try ``-DPYBIND11_FINDPYTHON=ON``, which will activate the
new CMake FindPython support instead of pybind11's custom search. Requires
CMake 3.12+, and 3.15+ or 3.18.2+ are even better. You can set this in your
``CMakeLists.txt`` before adding or finding pybind11, as well.
Inconsistent detection of Python version in CMake and pybind11
==============================================================
The functions ``find_package(PythonInterp)`` and ``find_package(PythonLibs)``
provided by CMake for Python version detection are modified by pybind11 due to
unreliability and limitations that make them unsuitable for pybind11's needs.
Instead pybind11 provides its own, more reliable Python detection CMake code.
Conflicts can arise, however, when using pybind11 in a project that *also* uses
the CMake Python detection in a system with several Python versions installed.
This difference may cause inconsistencies and errors if *both* mechanisms are
used in the same project. Consider the following CMake code executed in a
system with Python 2.7 and 3.x installed:
.. code-block:: cmake
find_package(PythonInterp)
find_package(PythonLibs)
find_package(pybind11)
It will detect Python 2.7 and pybind11 will pick it as well.
In contrast this code:
.. code-block:: cmake
find_package(pybind11)
find_package(PythonInterp)
find_package(PythonLibs)
will detect Python 3.x for pybind11 and may crash on
``find_package(PythonLibs)`` afterwards.
There are three possible solutions:
1. Avoid using ``find_package(PythonInterp)`` and ``find_package(PythonLibs)``
from CMake and rely on pybind11 in detecting Python version. If this is not
possible, the CMake machinery should be called *before* including pybind11.
2. Set ``PYBIND11_FINDPYTHON`` to ``True`` or use ``find_package(Python
COMPONENTS Interpreter Development)`` on modern CMake (3.12+, 3.15+ better,
3.18.2+ best). Pybind11 in these cases uses the new CMake FindPython instead
of the old, deprecated search tools, and these modules are much better at
finding the correct Python.
3. Set ``PYBIND11_NOPYTHON`` to ``TRUE``. Pybind11 will not search for Python.
However, you will have to use the target-based system, and do more setup
yourself, because it does not know about or include things that depend on
Python, like ``pybind11_add_module``. This might be ideal for integrating
into an existing system, like scikit-build's Python helpers.
How to cite this project?
=========================
We suggest the following BibTeX template to cite pybind11 in scientific
discourse:
.. code-block:: bash
@misc{pybind11,
author = {Wenzel Jakob and Jason Rhinelander and Dean Moldovan},
year = {2017},
note = {https://github.com/pybind/pybind11},
title = {pybind11 -- Seamless operability between C++11 and Python}
}

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.. only:: latex
Intro
=====
.. include:: readme.rst
.. only:: not latex
Contents:
.. toctree::
:maxdepth: 1
changelog
upgrade
.. toctree::
:caption: The Basics
:maxdepth: 2
installing
basics
classes
compiling
.. toctree::
:caption: Advanced Topics
:maxdepth: 2
advanced/functions
advanced/classes
advanced/exceptions
advanced/smart_ptrs
advanced/cast/index
advanced/pycpp/index
advanced/embedding
advanced/misc
.. toctree::
:caption: Extra Information
:maxdepth: 1
faq
benchmark
limitations
reference
cmake/index

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.. _installing:
Installing the library
######################
There are several ways to get the pybind11 source, which lives at
`pybind/pybind11 on GitHub <https://github.com/pybind/pybind11>`_. The pybind11
developers recommend one of the first three ways listed here, submodule, PyPI,
or conda-forge, for obtaining pybind11.
.. _include_as_a_submodule:
Include as a submodule
======================
When you are working on a project in Git, you can use the pybind11 repository
as a submodule. From your git repository, use:
.. code-block:: bash
git submodule add -b stable ../../pybind/pybind11 extern/pybind11
git submodule update --init
This assumes you are placing your dependencies in ``extern/``, and that you are
using GitHub; if you are not using GitHub, use the full https or ssh URL
instead of the relative URL ``../../pybind/pybind11`` above. Some other servers
also require the ``.git`` extension (GitHub does not).
From here, you can now include ``extern/pybind11/include``, or you can use
the various integration tools (see :ref:`compiling`) pybind11 provides directly
from the local folder.
Include with PyPI
=================
You can download the sources and CMake files as a Python package from PyPI
using Pip. Just use:
.. code-block:: bash
pip install pybind11
This will provide pybind11 in a standard Python package format. If you want
pybind11 available directly in your environment root, you can use:
.. code-block:: bash
pip install "pybind11[global]"
This is not recommended if you are installing with your system Python, as it
will add files to ``/usr/local/include/pybind11`` and
``/usr/local/share/cmake/pybind11``, so unless that is what you want, it is
recommended only for use in virtual environments or your ``pyproject.toml``
file (see :ref:`compiling`).
Include with conda-forge
========================
You can use pybind11 with conda packaging via `conda-forge
<https://github.com/conda-forge/pybind11-feedstock>`_:
.. code-block:: bash
conda install -c conda-forge pybind11
Include with vcpkg
==================
You can download and install pybind11 using the Microsoft `vcpkg
<https://github.com/Microsoft/vcpkg/>`_ dependency manager:
.. code-block:: bash
git clone https://github.com/Microsoft/vcpkg.git
cd vcpkg
./bootstrap-vcpkg.sh
./vcpkg integrate install
vcpkg install pybind11
The pybind11 port in vcpkg is kept up to date by Microsoft team members and
community contributors. If the version is out of date, please `create an issue
or pull request <https://github.com/Microsoft/vcpkg/>`_ on the vcpkg
repository.
Global install with brew
========================
The brew package manager (Homebrew on macOS, or Linuxbrew on Linux) has a
`pybind11 package
<https://github.com/Homebrew/homebrew-core/blob/master/Formula/pybind11.rb>`_.
To install:
.. code-block:: bash
brew install pybind11
.. We should list Conan, and possibly a few other C++ package managers (hunter,
.. perhaps). Conan has a very clean CMake integration that would be good to show.
Other options
=============
Other locations you can find pybind11 are `listed here
<https://repology.org/project/python:pybind11/versions>`_; these are maintained
by various packagers and the community.

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Limitations
###########
Design choices
^^^^^^^^^^^^^^
pybind11 strives to be a general solution to binding generation, but it also has
certain limitations:
- pybind11 casts away ``const``-ness in function arguments and return values.
This is in line with the Python language, which has no concept of ``const``
values. This means that some additional care is needed to avoid bugs that
would be caught by the type checker in a traditional C++ program.
- The NumPy interface ``pybind11::array`` greatly simplifies accessing
numerical data from C++ (and vice versa), but it's not a full-blown array
class like ``Eigen::Array`` or ``boost.multi_array``. ``Eigen`` objects are
directly supported, however, with ``pybind11/eigen.h``.
Large but useful features could be implemented in pybind11 but would lead to a
significant increase in complexity. Pybind11 strives to be simple and compact.
Users who require large new features are encouraged to write an extension to
pybind11; see `pybind11_json <https://github.com/pybind/pybind11_json>`_ for an
example.
Known bugs
^^^^^^^^^^
These are issues that hopefully will one day be fixed, but currently are
unsolved. If you know how to help with one of these issues, contributions
are welcome!
- Intel 20.2 is currently having an issue with the test suite.
`#2573 <https://github.com/pybind/pybind11/pull/2573>`_
- Debug mode Python does not support 1-5 tests in the test suite currently.
`#2422 <https://github.com/pybind/pybind11/pull/2422>`_
- PyPy3 7.3.1 and 7.3.2 have issues with several tests on 32-bit Windows.
Known limitations
^^^^^^^^^^^^^^^^^
These are issues that are probably solvable, but have not been fixed yet. A
clean, well written patch would likely be accepted to solve them.
- Type casters are not kept alive recursively.
`#2527 <https://github.com/pybind/pybind11/issues/2527>`_
One consequence is that containers of ``char *`` are currently not supported.
`#2245 <https://github.com/pybind/pybind11/issues/2245>`_
- The ``cpptest`` does not run on Windows with Python 3.8 or newer, due to DLL
loader changes. User code that is correctly installed should not be affected.
`#2560 <https://github.com/pybind/pybind11/issue/2560>`_
Python 3.9.0 warning
^^^^^^^^^^^^^^^^^^^^
Combining older versions of pybind11 (< 2.6.0) with Python on 3.9.0 will
trigger undefined behavior that typically manifests as crashes during
interpreter shutdown (but could also destroy your data. **You have been
warned**).
This issue has been
`fixed in Python <https://github.com/python/cpython/pull/22670>`_. As a
mitigation until 3.9.1 is released and commonly used, pybind11 (2.6.0 or newer)
includes a temporary workaround specifically when Python 3.9.0 is detected at
runtime, leaking about 50 bytes of memory when a callback function is garbage
collected. For reference; the pybind11 test suite has about 2,000 such
callbacks, but only 49 are garbage collected before the end-of-process. Wheels
built with Python 3.9.0 will correctly avoid the leak when run in Python 3.9.1.

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.. _reference:
.. warning::
Please be advised that the reference documentation discussing pybind11
internals is currently incomplete. Please refer to the previous sections
and the pybind11 header files for the nitty gritty details.
Reference
#########
.. _macros:
Macros
======
.. doxygendefine:: PYBIND11_MODULE
.. _core_types:
Convenience classes for arbitrary Python types
==============================================
Common member functions
-----------------------
.. doxygenclass:: object_api
:members:
Without reference counting
--------------------------
.. doxygenclass:: handle
:members:
With reference counting
-----------------------
.. doxygenclass:: object
:members:
.. doxygenfunction:: reinterpret_borrow
.. doxygenfunction:: reinterpret_steal
Convenience classes for specific Python types
=============================================
.. doxygenclass:: module_
:members:
.. doxygengroup:: pytypes
:members:
Convenience functions converting to Python types
================================================
.. doxygenfunction:: make_tuple(Args&&...)
.. doxygenfunction:: make_iterator(Iterator, Sentinel, Extra &&...)
.. doxygenfunction:: make_iterator(Type &, Extra&&...)
.. doxygenfunction:: make_key_iterator(Iterator, Sentinel, Extra &&...)
.. doxygenfunction:: make_key_iterator(Type &, Extra&&...)
.. _extras:
Passing extra arguments to ``def`` or ``class_``
================================================
.. doxygengroup:: annotations
:members:
Embedding the interpreter
=========================
.. doxygendefine:: PYBIND11_EMBEDDED_MODULE
.. doxygenfunction:: initialize_interpreter
.. doxygenfunction:: finalize_interpreter
.. doxygenclass:: scoped_interpreter
Redirecting C++ streams
=======================
.. doxygenclass:: scoped_ostream_redirect
.. doxygenclass:: scoped_estream_redirect
.. doxygenfunction:: add_ostream_redirect
Python built-in functions
=========================
.. doxygengroup:: python_builtins
:members:
Inheritance
===========
See :doc:`/classes` and :doc:`/advanced/classes` for more detail.
.. doxygendefine:: PYBIND11_OVERRIDE
.. doxygendefine:: PYBIND11_OVERRIDE_PURE
.. doxygendefine:: PYBIND11_OVERRIDE_NAME
.. doxygendefine:: PYBIND11_OVERRIDE_PURE_NAME
.. doxygenfunction:: get_override
Exceptions
==========
.. doxygenclass:: error_already_set
:members:
.. doxygenclass:: builtin_exception
:members:
Literals
========
.. doxygennamespace:: literals

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On version numbers
^^^^^^^^^^^^^^^^^^
The two version numbers (C++ and Python) must match when combined (checked when
you build the PyPI package), and must be a valid `PEP 440
<https://www.python.org/dev/peps/pep-0440>`_ version when combined.
For example:
.. code-block:: C++
#define PYBIND11_VERSION_MAJOR X
#define PYBIND11_VERSION_MINOR Y
#define PYBIND11_VERSION_PATCH Z.dev1
For beta, ``PYBIND11_VERSION_PATCH`` should be ``Z.b1``. RC's can be ``Z.rc1``.
Always include the dot (even though PEP 440 allows it to be dropped). For a
final release, this must be a simple integer.
To release a new version of pybind11:
^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
- Update the version number
- Update ``PYBIND11_VERSION_MAJOR`` etc. in
``include/pybind11/detail/common.h``. PATCH should be a simple integer.
- Update ``pybind11/_version.py`` (match above)
- Ensure that all the information in ``setup.cfg`` is up-to-date, like
supported Python versions.
- Add release date in ``docs/changelog.rst``.
- Check to make sure
`needs-changelog <https://github.com/pybind/pybind11/pulls?q=is%3Apr+is%3Aclosed+label%3A%22needs+changelog%22>`_
issues are entered in the changelog (clear the label when done).
- ``git add`` and ``git commit``, ``git push``. **Ensure CI passes**. (If it
fails due to a known flake issue, either ignore or restart CI.)
- Add a release branch if this is a new minor version, or update the existing release branch if it is a patch version
- New branch: ``git checkout -b vX.Y``, ``git push -u origin vX.Y``
- Update branch: ``git checkout vX.Y``, ``git merge <release branch>``, ``git push``
- Update tags (optional; if you skip this, the GitHub release makes a
non-annotated tag for you)
- ``git tag -a vX.Y.Z -m 'vX.Y.Z release'``.
- ``git push --tags``.
- Update stable
- ``git checkout stable``
- ``git merge master``
- ``git push``
- Make a GitHub release (this shows up in the UI, sends new release
notifications to users watching releases, and also uploads PyPI packages).
(Note: if you do not use an existing tag, this creates a new lightweight tag
for you, so you could skip the above step).
- GUI method: click "Create a new release" on the far right, fill in the tag
name (if you didn't tag above, it will be made here), fill in a release
name like "Version X.Y.Z", and optionally copy-and-paste the changelog into
the description (processed as markdown by Pandoc). Check "pre-release" if
this is a beta/RC. You can get partway there with
``cat docs/changelog.rst | pandsoc -f rst -t markdown``.
- CLI method: with ``gh`` installed, run ``gh release create vX.Y.Z -t "Version X.Y.Z"``
If this is a pre-release, add ``-p``.
- Get back to work
- Make sure you are on master, not somewhere else: ``git checkout master``
- Update version macros in ``include/pybind11/detail/common.h`` (set PATCH to
``0.dev1`` and increment MINOR).
- Update ``_version.py`` to match
- Add a spot for in-development updates in ``docs/changelog.rst``.
- ``git add``, ``git commit``, ``git push``
If a version branch is updated, remember to set PATCH to ``1.dev1``.
If you'd like to bump homebrew, run:
.. code-block::
brew bump-formula-pr --url https://github.com/pybind/pybind11/archive/vX.Y.Z.tar.gz
Conda-forge should automatically make a PR in a few hours, and automatically
merge it if there are no issues.
Manual packaging
^^^^^^^^^^^^^^^^
If you need to manually upload releases, you can download the releases from the job artifacts and upload them with twine. You can also make the files locally (not recommended in general, as your local directory is more likely to be "dirty" and SDists love picking up random unrelated/hidden files); this is the procedure:
.. code-block:: bash
python3 -m pip install build
python3 -m build
PYBIND11_SDIST_GLOBAL=1 python3 -m build
twine upload dist/*
This makes SDists and wheels, and the final line uploads them.

7
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@ -0,0 +1,7 @@
breathe==4.26.1
commonmark==0.9.1
recommonmark==0.7.1
sphinx==3.3.1
sphinx_rtd_theme==0.5.0
sphinxcontrib-moderncmakedomain==3.17
sphinxcontrib-svg2pdfconverter==1.1.0

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Upgrade guide
#############
This is a companion guide to the :doc:`changelog`. While the changelog briefly
lists all of the new features, improvements and bug fixes, this upgrade guide
focuses only the subset which directly impacts your experience when upgrading
to a new version. But it goes into more detail. This includes things like
deprecated APIs and their replacements, build system changes, general code
modernization and other useful information.
.. _upgrade-guide-2.6:
v2.7
====
*Before* v2.7, ``py::str`` can hold ``PyUnicodeObject`` or ``PyBytesObject``,
and ``py::isinstance<str>()`` is ``true`` for both ``py::str`` and
``py::bytes``. Starting with v2.7, ``py::str`` exclusively holds
``PyUnicodeObject`` (`#2409 <https://github.com/pybind/pybind11/pull/2409>`_),
and ``py::isinstance<str>()`` is ``true`` only for ``py::str``. To help in
the transition of user code, the ``PYBIND11_STR_LEGACY_PERMISSIVE`` macro
is provided as an escape hatch to go back to the legacy behavior. This macro
will be removed in future releases. Two types of required fixes are expected
to be common:
* Accidental use of ``py::str`` instead of ``py::bytes``, masked by the legacy
behavior. These are probably very easy to fix, by changing from
``py::str`` to ``py::bytes``.
* Reliance on py::isinstance<str>(obj) being ``true`` for
``py::bytes``. This is likely to be easy to fix in most cases by adding
``|| py::isinstance<bytes>(obj)``, but a fix may be more involved, e.g. if
``py::isinstance<T>`` appears in a template. Such situations will require
careful review and custom fixes.
v2.6
====
Usage of the ``PYBIND11_OVERLOAD*`` macros and ``get_overload`` function should
be replaced by ``PYBIND11_OVERRIDE*`` and ``get_override``. In the future, the
old macros may be deprecated and removed.
``py::module`` has been renamed ``py::module_``, but a backward compatible
typedef has been included. This change was to avoid a language change in C++20
that requires unqualified ``module`` not be placed at the start of a logical
line. Qualified usage is unaffected and the typedef will remain unless the
C++ language rules change again.
The public constructors of ``py::module_`` have been deprecated. Use
``PYBIND11_MODULE`` or ``module_::create_extension_module`` instead.
An error is now thrown when ``__init__`` is forgotten on subclasses. This was
incorrect before, but was not checked. Add a call to ``__init__`` if it is
missing.
A ``py::type_error`` is now thrown when casting to a subclass (like
``py::bytes`` from ``py::object``) if the conversion is not valid. Make a valid
conversion instead.
The undocumented ``h.get_type()`` method has been deprecated and replaced by
``py::type::of(h)``.
Enums now have a ``__str__`` method pre-defined; if you want to override it,
the simplest fix is to add the new ``py::prepend()`` tag when defining
``"__str__"``.
If ``__eq__`` defined but not ``__hash__``, ``__hash__`` is now set to
``None``, as in normal CPython. You should add ``__hash__`` if you intended the
class to be hashable, possibly using the new ``py::hash`` shortcut.
The constructors for ``py::array`` now always take signed integers for size,
for consistency. This may lead to compiler warnings on some systems. Cast to
``py::ssize_t`` instead of ``std::size_t``.
The ``tools/clang`` submodule and ``tools/mkdoc.py`` have been moved to a
standalone package, `pybind11-mkdoc`_. If you were using those tools, please
use them via a pip install from the new location.
The ``pybind11`` package on PyPI no longer fills the wheel "headers" slot - if
you were using the headers from this slot, they are available by requesting the
``global`` extra, that is, ``pip install "pybind11[global]"``. (Most users will
be unaffected, as the ``pybind11/include`` location is reported by ``python -m
pybind11 --includes`` and ``pybind11.get_include()`` is still correct and has
not changed since 2.5).
.. _pybind11-mkdoc: https://github.com/pybind/pybind11-mkdoc
CMake support:
--------------
The minimum required version of CMake is now 3.4. Several details of the CMake
support have been deprecated; warnings will be shown if you need to change
something. The changes are:
* ``PYBIND11_CPP_STANDARD=<platform-flag>`` is deprecated, please use
``CMAKE_CXX_STANDARD=<number>`` instead, or any other valid CMake CXX or CUDA
standard selection method, like ``target_compile_features``.
* If you do not request a standard, pybind11 targets will compile with the
compiler default, but not less than C++11, instead of forcing C++14 always.
If you depend on the old behavior, please use ``set(CMAKE_CXX_STANDARD 14 CACHE STRING "")``
instead.
* Direct ``pybind11::module`` usage should always be accompanied by at least
``set(CMAKE_CXX_VISIBILITY_PRESET hidden)`` or similar - it used to try to
manually force this compiler flag (but not correctly on all compilers or with
CUDA).
* ``pybind11_add_module``'s ``SYSTEM`` argument is deprecated and does nothing;
linking now behaves like other imported libraries consistently in both
config and submodule mode, and behaves like a ``SYSTEM`` library by
default.
* If ``PYTHON_EXECUTABLE`` is not set, virtual environments (``venv``,
``virtualenv``, and ``conda``) are prioritized over the standard search
(similar to the new FindPython mode).
In addition, the following changes may be of interest:
* ``CMAKE_INTERPROCEDURAL_OPTIMIZATION`` will be respected by
``pybind11_add_module`` if set instead of linking to ``pybind11::lto`` or
``pybind11::thin_lto``.
* Using ``find_package(Python COMPONENTS Interpreter Development)`` before
pybind11 will cause pybind11 to use the new Python mechanisms instead of its
own custom search, based on a patched version of classic ``FindPythonInterp``
/ ``FindPythonLibs``. In the future, this may become the default. A recent
(3.15+ or 3.18.2+) version of CMake is recommended.
v2.5
====
The Python package now includes the headers as data in the package itself, as
well as in the "headers" wheel slot. ``pybind11 --includes`` and
``pybind11.get_include()`` report the new location, which is always correct
regardless of how pybind11 was installed, making the old ``user=`` argument
meaningless. If you are not using the function to get the location already, you
are encouraged to switch to the package location.
v2.2
====
Deprecation of the ``PYBIND11_PLUGIN`` macro
--------------------------------------------
``PYBIND11_MODULE`` is now the preferred way to create module entry points.
The old macro emits a compile-time deprecation warning.
.. code-block:: cpp
// old
PYBIND11_PLUGIN(example) {
py::module m("example", "documentation string");
m.def("add", [](int a, int b) { return a + b; });
return m.ptr();
}
// new
PYBIND11_MODULE(example, m) {
m.doc() = "documentation string"; // optional
m.def("add", [](int a, int b) { return a + b; });
}
New API for defining custom constructors and pickling functions
---------------------------------------------------------------
The old placement-new custom constructors have been deprecated. The new approach
uses ``py::init()`` and factory functions to greatly improve type safety.
Placement-new can be called accidentally with an incompatible type (without any
compiler errors or warnings), or it can initialize the same object multiple times
if not careful with the Python-side ``__init__`` calls. The new-style custom
constructors prevent such mistakes. See :ref:`custom_constructors` for details.
.. code-block:: cpp
// old -- deprecated (runtime warning shown only in debug mode)
py::class<Foo>(m, "Foo")
.def("__init__", [](Foo &self, ...) {
new (&self) Foo(...); // uses placement-new
});
// new
py::class<Foo>(m, "Foo")
.def(py::init([](...) { // Note: no `self` argument
return new Foo(...); // return by raw pointer
// or: return std::make_unique<Foo>(...); // return by holder
// or: return Foo(...); // return by value (move constructor)
}));
Mirroring the custom constructor changes, ``py::pickle()`` is now the preferred
way to get and set object state. See :ref:`pickling` for details.
.. code-block:: cpp
// old -- deprecated (runtime warning shown only in debug mode)
py::class<Foo>(m, "Foo")
...
.def("__getstate__", [](const Foo &self) {
return py::make_tuple(self.value1(), self.value2(), ...);
})
.def("__setstate__", [](Foo &self, py::tuple t) {
new (&self) Foo(t[0].cast<std::string>(), ...);
});
// new
py::class<Foo>(m, "Foo")
...
.def(py::pickle(
[](const Foo &self) { // __getstate__
return py::make_tuple(self.value1(), self.value2(), ...); // unchanged
},
[](py::tuple t) { // __setstate__, note: no `self` argument
return new Foo(t[0].cast<std::string>(), ...);
// or: return std::make_unique<Foo>(...); // return by holder
// or: return Foo(...); // return by value (move constructor)
}
));
For both the constructors and pickling, warnings are shown at module
initialization time (on import, not when the functions are called).
They're only visible when compiled in debug mode. Sample warning:
.. code-block:: none
pybind11-bound class 'mymodule.Foo' is using an old-style placement-new '__init__'
which has been deprecated. See the upgrade guide in pybind11's docs.
Stricter enforcement of hidden symbol visibility for pybind11 modules
---------------------------------------------------------------------
pybind11 now tries to actively enforce hidden symbol visibility for modules.
If you're using either one of pybind11's :doc:`CMake or Python build systems
<compiling>` (the two example repositories) and you haven't been exporting any
symbols, there's nothing to be concerned about. All the changes have been done
transparently in the background. If you were building manually or relied on
specific default visibility, read on.
Setting default symbol visibility to *hidden* has always been recommended for
pybind11 (see :ref:`faq:symhidden`). On Linux and macOS, hidden symbol
visibility (in conjunction with the ``strip`` utility) yields much smaller
module binaries. `CPython's extension docs`_ also recommend hiding symbols
by default, with the goal of avoiding symbol name clashes between modules.
Starting with v2.2, pybind11 enforces this more strictly: (1) by declaring
all symbols inside the ``pybind11`` namespace as hidden and (2) by including
the ``-fvisibility=hidden`` flag on Linux and macOS (only for extension
modules, not for embedding the interpreter).
.. _CPython's extension docs: https://docs.python.org/3/extending/extending.html#providing-a-c-api-for-an-extension-module
The namespace-scope hidden visibility is done automatically in pybind11's
headers and it's generally transparent to users. It ensures that:
* Modules compiled with different pybind11 versions don't clash with each other.
* Some new features, like ``py::module_local`` bindings, can work as intended.
The ``-fvisibility=hidden`` flag applies the same visibility to user bindings
outside of the ``pybind11`` namespace. It's now set automatic by pybind11's
CMake and Python build systems, but this needs to be done manually by users
of other build systems. Adding this flag:
* Minimizes the chances of symbol conflicts between modules. E.g. if two
unrelated modules were statically linked to different (ABI-incompatible)
versions of the same third-party library, a symbol clash would be likely
(and would end with unpredictable results).
* Produces smaller binaries on Linux and macOS, as pointed out previously.
Within pybind11's CMake build system, ``pybind11_add_module`` has always been
setting the ``-fvisibility=hidden`` flag in release mode. From now on, it's
being applied unconditionally, even in debug mode and it can no longer be opted
out of with the ``NO_EXTRAS`` option. The ``pybind11::module`` target now also
adds this flag to it's interface. The ``pybind11::embed`` target is unchanged.
The most significant change here is for the ``pybind11::module`` target. If you
were previously relying on default visibility, i.e. if your Python module was
doubling as a shared library with dependents, you'll need to either export
symbols manually (recommended for cross-platform libraries) or factor out the
shared library (and have the Python module link to it like the other
dependents). As a temporary workaround, you can also restore default visibility
using the CMake code below, but this is not recommended in the long run:
.. code-block:: cmake
target_link_libraries(mymodule PRIVATE pybind11::module)
add_library(restore_default_visibility INTERFACE)
target_compile_options(restore_default_visibility INTERFACE -fvisibility=default)
target_link_libraries(mymodule PRIVATE restore_default_visibility)
Local STL container bindings
----------------------------
Previous pybind11 versions could only bind types globally -- all pybind11
modules, even unrelated ones, would have access to the same exported types.
However, this would also result in a conflict if two modules exported the
same C++ type, which is especially problematic for very common types, e.g.
``std::vector<int>``. :ref:`module_local` were added to resolve this (see
that section for a complete usage guide).
``py::class_`` still defaults to global bindings (because these types are
usually unique across modules), however in order to avoid clashes of opaque
types, ``py::bind_vector`` and ``py::bind_map`` will now bind STL containers
as ``py::module_local`` if their elements are: builtins (``int``, ``float``,
etc.), not bound using ``py::class_``, or bound as ``py::module_local``. For
example, this change allows multiple modules to bind ``std::vector<int>``
without causing conflicts. See :ref:`stl_bind` for more details.
When upgrading to this version, if you have multiple modules which depend on
a single global binding of an STL container, note that all modules can still
accept foreign ``py::module_local`` types in the direction of Python-to-C++.
The locality only affects the C++-to-Python direction. If this is needed in
multiple modules, you'll need to either:
* Add a copy of the same STL binding to all of the modules which need it.
* Restore the global status of that single binding by marking it
``py::module_local(false)``.
The latter is an easy workaround, but in the long run it would be best to
localize all common type bindings in order to avoid conflicts with
third-party modules.
Negative strides for Python buffer objects and numpy arrays
-----------------------------------------------------------
Support for negative strides required changing the integer type from unsigned
to signed in the interfaces of ``py::buffer_info`` and ``py::array``. If you
have compiler warnings enabled, you may notice some new conversion warnings
after upgrading. These can be resolved using ``static_cast``.
Deprecation of some ``py::object`` APIs
---------------------------------------
To compare ``py::object`` instances by pointer, you should now use
``obj1.is(obj2)`` which is equivalent to ``obj1 is obj2`` in Python.
Previously, pybind11 used ``operator==`` for this (``obj1 == obj2``), but
that could be confusing and is now deprecated (so that it can eventually
be replaced with proper rich object comparison in a future release).
For classes which inherit from ``py::object``, ``borrowed`` and ``stolen``
were previously available as protected constructor tags. Now the types
should be used directly instead: ``borrowed_t{}`` and ``stolen_t{}``
(`#771 <https://github.com/pybind/pybind11/pull/771>`_).
Stricter compile-time error checking
------------------------------------
Some error checks have been moved from run time to compile time. Notably,
automatic conversion of ``std::shared_ptr<T>`` is not possible when ``T`` is
not directly registered with ``py::class_<T>`` (e.g. ``std::shared_ptr<int>``
or ``std::shared_ptr<std::vector<T>>`` are not automatically convertible).
Attempting to bind a function with such arguments now results in a compile-time
error instead of waiting to fail at run time.
``py::init<...>()`` constructor definitions are also stricter and now prevent
bindings which could cause unexpected behavior:
.. code-block:: cpp
struct Example {
Example(int &);
};
py::class_<Example>(m, "Example")
.def(py::init<int &>()); // OK, exact match
// .def(py::init<int>()); // compile-time error, mismatch
A non-``const`` lvalue reference is not allowed to bind to an rvalue. However,
note that a constructor taking ``const T &`` can still be registered using
``py::init<T>()`` because a ``const`` lvalue reference can bind to an rvalue.
v2.1
====
Minimum compiler versions are enforced at compile time
------------------------------------------------------
The minimums also apply to v2.0 but the check is now explicit and a compile-time
error is raised if the compiler does not meet the requirements:
* GCC >= 4.8
* clang >= 3.3 (appleclang >= 5.0)
* MSVC >= 2015u3
* Intel C++ >= 15.0
The ``py::metaclass`` attribute is not required for static properties
---------------------------------------------------------------------
Binding classes with static properties is now possible by default. The
zero-parameter version of ``py::metaclass()`` is deprecated. However, a new
one-parameter ``py::metaclass(python_type)`` version was added for rare
cases when a custom metaclass is needed to override pybind11's default.
.. code-block:: cpp
// old -- emits a deprecation warning
py::class_<Foo>(m, "Foo", py::metaclass())
.def_property_readonly_static("foo", ...);
// new -- static properties work without the attribute
py::class_<Foo>(m, "Foo")
.def_property_readonly_static("foo", ...);
// new -- advanced feature, override pybind11's default metaclass
py::class_<Bar>(m, "Bar", py::metaclass(custom_python_type))
...
v2.0
====
Breaking changes in ``py::class_``
----------------------------------
These changes were necessary to make type definitions in pybind11
future-proof, to support PyPy via its ``cpyext`` mechanism (`#527
<https://github.com/pybind/pybind11/pull/527>`_), and to improve efficiency
(`rev. 86d825 <https://github.com/pybind/pybind11/commit/86d825>`_).
1. Declarations of types that provide access via the buffer protocol must
now include the ``py::buffer_protocol()`` annotation as an argument to
the ``py::class_`` constructor.
.. code-block:: cpp
py::class_<Matrix>("Matrix", py::buffer_protocol())
.def(py::init<...>())
.def_buffer(...);
2. Classes which include static properties (e.g. ``def_readwrite_static()``)
must now include the ``py::metaclass()`` attribute. Note: this requirement
has since been removed in v2.1. If you're upgrading from 1.x, it's
recommended to skip directly to v2.1 or newer.
3. This version of pybind11 uses a redesigned mechanism for instantiating
trampoline classes that are used to override virtual methods from within
Python. This led to the following user-visible syntax change:
.. code-block:: cpp
// old v1.x syntax
py::class_<TrampolineClass>("MyClass")
.alias<MyClass>()
...
// new v2.x syntax
py::class_<MyClass, TrampolineClass>("MyClass")
...
Importantly, both the original and the trampoline class are now specified
as arguments to the ``py::class_`` template, and the ``alias<..>()`` call
is gone. The new scheme has zero overhead in cases when Python doesn't
override any functions of the underlying C++ class.
`rev. 86d825 <https://github.com/pybind/pybind11/commit/86d825>`_.
The class type must be the first template argument given to ``py::class_``
while the trampoline can be mixed in arbitrary order with other arguments
(see the following section).
Deprecation of the ``py::base<T>()`` attribute
----------------------------------------------
``py::base<T>()`` was deprecated in favor of specifying ``T`` as a template
argument to ``py::class_``. This new syntax also supports multiple inheritance.
Note that, while the type being exported must be the first argument in the
``py::class_<Class, ...>`` template, the order of the following types (bases,
holder and/or trampoline) is not important.
.. code-block:: cpp
// old v1.x
py::class_<Derived>("Derived", py::base<Base>());
// new v2.x
py::class_<Derived, Base>("Derived");
// new -- multiple inheritance
py::class_<Derived, Base1, Base2>("Derived");
// new -- apart from `Derived` the argument order can be arbitrary
py::class_<Derived, Base1, Holder, Base2, Trampoline>("Derived");
Out-of-the-box support for ``std::shared_ptr``
----------------------------------------------
The relevant type caster is now built in, so it's no longer necessary to
include a declaration of the form:
.. code-block:: cpp
PYBIND11_DECLARE_HOLDER_TYPE(T, std::shared_ptr<T>)
Continuing to do so won’t cause an error or even a deprecation warning,
but it's completely redundant.
Deprecation of a few ``py::object`` APIs
----------------------------------------
All of the old-style calls emit deprecation warnings.
+---------------------------------------+---------------------------------------------+
| Old syntax | New syntax |
+=======================================+=============================================+
| ``obj.call(args...)`` | ``obj(args...)`` |
+---------------------------------------+---------------------------------------------+
| ``obj.str()`` | ``py::str(obj)`` |
+---------------------------------------+---------------------------------------------+
| ``auto l = py::list(obj); l.check()`` | ``py::isinstance<py::list>(obj)`` |
+---------------------------------------+---------------------------------------------+
| ``py::object(ptr, true)`` | ``py::reinterpret_borrow<py::object>(ptr)`` |
+---------------------------------------+---------------------------------------------+
| ``py::object(ptr, false)`` | ``py::reinterpret_steal<py::object>(ptr)`` |
+---------------------------------------+---------------------------------------------+
| ``if (obj.attr("foo"))`` | ``if (py::hasattr(obj, "foo"))`` |
+---------------------------------------+---------------------------------------------+
| ``if (obj["bar"])`` | ``if (obj.contains("bar"))`` |
+---------------------------------------+---------------------------------------------+

143
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@ -1,143 +0,0 @@
#include <eda_rect.h> // EDA_RECT
#include <fill_type.h> // FILL_TYPE
#include <gal/color4d.h> // EDA_COLOR_T
#include <sstream> // __str__
#include <transform.h> // TRANSFORM
#include <pybind11/pybind11.h>
#include <functional>
#include <string>
#ifndef BINDER_PYBIND11_TYPE_CASTER
#define BINDER_PYBIND11_TYPE_CASTER
PYBIND11_DECLARE_HOLDER_TYPE(T, std::shared_ptr<T>);
PYBIND11_DECLARE_HOLDER_TYPE(T, T*);
PYBIND11_MAKE_OPAQUE(std::shared_ptr<void>);
#endif
void bind_eda_rect(std::function< pybind11::module &(std::string const &namespace_) > &M)
{
{ // EDA_RECT file:eda_rect.h line:42
pybind11::class_<EDA_RECT, std::shared_ptr<EDA_RECT>> cl(M(""), "EDA_RECT", "Handle the component boundary box.\n\n This class is similar to wxRect, but some wxRect functions are very curious, and are\n working only if dimensions are >= 0 (not always the case in KiCad) and also KiCad needs\n some specific method which makes this a more suitable class.");
cl.def( pybind11::init( [](){ return new EDA_RECT(); } ) );
cl.def( pybind11::init<const class wxPoint &, const class wxSize &>(), pybind11::arg("aPos"), pybind11::arg("aSize") );
cl.def( pybind11::init( [](EDA_RECT const &o){ return new EDA_RECT(o); } ) );
cl.def("Centre", (class wxPoint (EDA_RECT::*)() const) &EDA_RECT::Centre, "C++: EDA_RECT::Centre() const --> class wxPoint");
cl.def("Move", (void (EDA_RECT::*)(const class wxPoint &)) &EDA_RECT::Move, "Move the rectangle by the \n\n \n A wxPoint that is the value to move this rectangle.\n\nC++: EDA_RECT::Move(const class wxPoint &) --> void", pybind11::arg("aMoveVector"));
cl.def("Normalize", (void (EDA_RECT::*)()) &EDA_RECT::Normalize, "Ensures that the height ant width are positive.\n\nC++: EDA_RECT::Normalize() --> void");
cl.def("Contains", (bool (EDA_RECT::*)(const class wxPoint &) const) &EDA_RECT::Contains, "the wxPoint to test.\n \n\n true if aPoint is inside the boundary box. A point on a edge is seen as inside.\n\nC++: EDA_RECT::Contains(const class wxPoint &) const --> bool", pybind11::arg("aPoint"));
cl.def("Contains", (bool (EDA_RECT::*)(int, int) const) &EDA_RECT::Contains, "the x coordinate of the point to test.\n \n\n the x coordinate of the point to test.\n \n\n true if point is inside the boundary box. A point on a edge is seen as inside\n\nC++: EDA_RECT::Contains(int, int) const --> bool", pybind11::arg("x"), pybind11::arg("y"));
cl.def("Contains", (bool (EDA_RECT::*)(const class EDA_RECT &) const) &EDA_RECT::Contains, "the EDA_RECT to test.\n \n\n true if aRect is Contained. A common edge is seen as contained.\n\nC++: EDA_RECT::Contains(const class EDA_RECT &) const --> bool", pybind11::arg("aRect"));
cl.def("GetSize", (const class wxSize (EDA_RECT::*)() const) &EDA_RECT::GetSize, "C++: EDA_RECT::GetSize() const --> const class wxSize");
cl.def("GetSizeMax", (int (EDA_RECT::*)() const) &EDA_RECT::GetSizeMax, "the max size dimension.\n\nC++: EDA_RECT::GetSizeMax() const --> int");
cl.def("GetX", (int (EDA_RECT::*)() const) &EDA_RECT::GetX, "C++: EDA_RECT::GetX() const --> int");
cl.def("GetY", (int (EDA_RECT::*)() const) &EDA_RECT::GetY, "C++: EDA_RECT::GetY() const --> int");
cl.def("GetOrigin", (const class wxPoint (EDA_RECT::*)() const) &EDA_RECT::GetOrigin, "C++: EDA_RECT::GetOrigin() const --> const class wxPoint");
cl.def("GetPosition", (const class wxPoint (EDA_RECT::*)() const) &EDA_RECT::GetPosition, "C++: EDA_RECT::GetPosition() const --> const class wxPoint");
cl.def("GetEnd", (const class wxPoint (EDA_RECT::*)() const) &EDA_RECT::GetEnd, "C++: EDA_RECT::GetEnd() const --> const class wxPoint");
cl.def("GetCenter", (const class wxPoint (EDA_RECT::*)() const) &EDA_RECT::GetCenter, "C++: EDA_RECT::GetCenter() const --> const class wxPoint");
cl.def("GetWidth", (int (EDA_RECT::*)() const) &EDA_RECT::GetWidth, "C++: EDA_RECT::GetWidth() const --> int");
cl.def("GetHeight", (int (EDA_RECT::*)() const) &EDA_RECT::GetHeight, "C++: EDA_RECT::GetHeight() const --> int");
cl.def("GetRight", (int (EDA_RECT::*)() const) &EDA_RECT::GetRight, "C++: EDA_RECT::GetRight() const --> int");
cl.def("GetLeft", (int (EDA_RECT::*)() const) &EDA_RECT::GetLeft, "C++: EDA_RECT::GetLeft() const --> int");
cl.def("GetTop", (int (EDA_RECT::*)() const) &EDA_RECT::GetTop, "C++: EDA_RECT::GetTop() const --> int");
cl.def("GetBottom", (int (EDA_RECT::*)() const) &EDA_RECT::GetBottom, "C++: EDA_RECT::GetBottom() const --> int");
cl.def("IsValid", (bool (EDA_RECT::*)() const) &EDA_RECT::IsValid, "C++: EDA_RECT::IsValid() const --> bool");
cl.def("SetOrigin", (void (EDA_RECT::*)(const class wxPoint &)) &EDA_RECT::SetOrigin, "C++: EDA_RECT::SetOrigin(const class wxPoint &) --> void", pybind11::arg("pos"));
cl.def("SetOrigin", (void (EDA_RECT::*)(int, int)) &EDA_RECT::SetOrigin, "C++: EDA_RECT::SetOrigin(int, int) --> void", pybind11::arg("x"), pybind11::arg("y"));
cl.def("SetSize", (void (EDA_RECT::*)(const class wxSize &)) &EDA_RECT::SetSize, "C++: EDA_RECT::SetSize(const class wxSize &) --> void", pybind11::arg("size"));
cl.def("SetSize", (void (EDA_RECT::*)(int, int)) &EDA_RECT::SetSize, "C++: EDA_RECT::SetSize(int, int) --> void", pybind11::arg("w"), pybind11::arg("h"));
cl.def("Offset", (void (EDA_RECT::*)(int, int)) &EDA_RECT::Offset, "C++: EDA_RECT::Offset(int, int) --> void", pybind11::arg("dx"), pybind11::arg("dy"));
cl.def("Offset", (void (EDA_RECT::*)(const class wxPoint &)) &EDA_RECT::Offset, "C++: EDA_RECT::Offset(const class wxPoint &) --> void", pybind11::arg("offset"));
cl.def("SetX", (void (EDA_RECT::*)(int)) &EDA_RECT::SetX, "C++: EDA_RECT::SetX(int) --> void", pybind11::arg("val"));
cl.def("SetY", (void (EDA_RECT::*)(int)) &EDA_RECT::SetY, "C++: EDA_RECT::SetY(int) --> void", pybind11::arg("val"));
cl.def("SetWidth", (void (EDA_RECT::*)(int)) &EDA_RECT::SetWidth, "C++: EDA_RECT::SetWidth(int) --> void", pybind11::arg("val"));
cl.def("SetHeight", (void (EDA_RECT::*)(int)) &EDA_RECT::SetHeight, "C++: EDA_RECT::SetHeight(int) --> void", pybind11::arg("val"));
cl.def("SetEnd", (void (EDA_RECT::*)(int, int)) &EDA_RECT::SetEnd, "C++: EDA_RECT::SetEnd(int, int) --> void", pybind11::arg("x"), pybind11::arg("y"));
cl.def("SetEnd", (void (EDA_RECT::*)(const class wxPoint &)) &EDA_RECT::SetEnd, "C++: EDA_RECT::SetEnd(const class wxPoint &) --> void", pybind11::arg("pos"));
cl.def("RevertYAxis", (void (EDA_RECT::*)()) &EDA_RECT::RevertYAxis, "Mirror the rectangle from the X axis (negate Y pos and size).\n\nC++: EDA_RECT::RevertYAxis() --> void");
cl.def("Intersects", (bool (EDA_RECT::*)(const class EDA_RECT &) const) &EDA_RECT::Intersects, "Test for a common area between rectangles.\n\n \n A rectangle to test intersection with.\n \n\n true if the argument rectangle intersects this rectangle.\n (i.e. if the 2 rectangles have at least a common point)\n\nC++: EDA_RECT::Intersects(const class EDA_RECT &) const --> bool", pybind11::arg("aRect"));
cl.def("Intersects", (bool (EDA_RECT::*)(const class EDA_RECT &, double) const) &EDA_RECT::Intersects, "Tests for a common area between this rectangle, and a rectangle with arbitrary rotation\n\n \n a rectangle to test intersection with.\n \n\n rectangle rotation (in 1/10 degrees).\n\nC++: EDA_RECT::Intersects(const class EDA_RECT &, double) const --> bool", pybind11::arg("aRect"), pybind11::arg("aRot"));
cl.def("Intersects", (bool (EDA_RECT::*)(const class wxPoint &, const class wxPoint &) const) &EDA_RECT::Intersects, "Test for a common area between a segment and this rectangle.\n\n \n First point of the segment to test intersection with.\n \n\n Second point of the segment to test intersection with.\n \n\n true if the argument segment intersects this rectangle.\n (i.e. if the segment and rectangle have at least a common point)\n\nC++: EDA_RECT::Intersects(const class wxPoint &, const class wxPoint &) const --> bool", pybind11::arg("aPoint1"), pybind11::arg("aPoint2"));
cl.def("Intersects", (bool (EDA_RECT::*)(const class wxPoint &, const class wxPoint &, class wxPoint *, class wxPoint *) const) &EDA_RECT::Intersects, "Test for intersection between a segment and this rectangle, returning the intersections.\n\n \n is the first point of the segment to test intersection with.\n \n\n is the second point of the segment to test intersection with.\n \n\n will be filled with the first intersection point, if any.\n \n\n will be filled with the second intersection point, if any.\n \n\n true if the segment intersects the rect.\n\nC++: EDA_RECT::Intersects(const class wxPoint &, const class wxPoint &, class wxPoint *, class wxPoint *) const --> bool", pybind11::arg("aPoint1"), pybind11::arg("aPoint2"), pybind11::arg("aIntersection1"), pybind11::arg("aIntersection2"));
cl.def("ClosestPointTo", (const class wxPoint (EDA_RECT::*)(const class wxPoint &) const) &EDA_RECT::ClosestPointTo, "Return the point in this rect that is closest to the provided point\n\nC++: EDA_RECT::ClosestPointTo(const class wxPoint &) const --> const class wxPoint", pybind11::arg("aPoint"));
cl.def("FarthestPointTo", (const class wxPoint (EDA_RECT::*)(const class wxPoint &) const) &EDA_RECT::FarthestPointTo, "Return the point in this rect that is farthest from the provided point\n\nC++: EDA_RECT::FarthestPointTo(const class wxPoint &) const --> const class wxPoint", pybind11::arg("aPoint"));
cl.def("IntersectsCircle", (bool (EDA_RECT::*)(const class wxPoint &, const int) const) &EDA_RECT::IntersectsCircle, "Test for a common area between a circle and this rectangle.\n\n \n center of the circle.\n \n\n radius of the circle.\n\nC++: EDA_RECT::IntersectsCircle(const class wxPoint &, const int) const --> bool", pybind11::arg("aCenter"), pybind11::arg("aRadius"));
cl.def("IntersectsCircleEdge", (bool (EDA_RECT::*)(const class wxPoint &, const int, const int) const) &EDA_RECT::IntersectsCircleEdge, "Test for intersection between this rect and the edge (radius) of a circle.\n\n \n center of the circle.\n \n\n radius of the circle.\n \n\n width of the circle edge.\n\nC++: EDA_RECT::IntersectsCircleEdge(const class wxPoint &, const int, const int) const --> bool", pybind11::arg("aCenter"), pybind11::arg("aRadius"), pybind11::arg("aWidth"));
cl.def("Inflate", (class EDA_RECT & (EDA_RECT::*)(int)) &EDA_RECT::Inflate, "Inflate the rectangle horizontally and vertically by If \n is negative the rectangle is deflated.\n\nC++: EDA_RECT::Inflate(int) --> class EDA_RECT &", pybind11::return_value_policy::automatic, pybind11::arg("aDelta"));
cl.def("Merge", (void (EDA_RECT::*)(const class EDA_RECT &)) &EDA_RECT::Merge, "Modify the position and size of the rectangle in order to contain \n\n It is mainly used to calculate bounding boxes.\n\n \n The rectangle to merge with this rectangle.\n\nC++: EDA_RECT::Merge(const class EDA_RECT &) --> void", pybind11::arg("aRect"));
cl.def("Merge", (void (EDA_RECT::*)(const class wxPoint &)) &EDA_RECT::Merge, "Modify the position and size of the rectangle in order to contain the given point.\n\n \n The point to merge with the rectangle.\n\nC++: EDA_RECT::Merge(const class wxPoint &) --> void", pybind11::arg("aPoint"));
cl.def("GetArea", (double (EDA_RECT::*)() const) &EDA_RECT::GetArea, "Return the area of the rectangle.\n\n \n The area of the rectangle.\n\nC++: EDA_RECT::GetArea() const --> double");
cl.def("Common", (class EDA_RECT (EDA_RECT::*)(const class EDA_RECT &) const) &EDA_RECT::Common, "Return the area that is common with another rectangle.\n\n \n is the rectangle to find the common area with.\n \n\n The common area rect or 0-sized rectangle if there is no intersection.\n\nC++: EDA_RECT::Common(const class EDA_RECT &) const --> class EDA_RECT", pybind11::arg("aRect"));
cl.def("GetBoundingBoxRotated", (const class EDA_RECT (EDA_RECT::*)(class wxPoint, double) const) &EDA_RECT::GetBoundingBoxRotated, "Useful to calculate bounding box of rotated items, when rotation if not k*90 degrees.\n\n \n the bounding box of this, after rotation.\n \n\n the rotation angle in 0.1 deg.\n \n\n the rotation point.\n\nC++: EDA_RECT::GetBoundingBoxRotated(class wxPoint, double) const --> const class EDA_RECT", pybind11::arg("aRotCenter"), pybind11::arg("aAngle"));
cl.def("assign", (class EDA_RECT & (EDA_RECT::*)(const class EDA_RECT &)) &EDA_RECT::operator=, "C++: EDA_RECT::operator=(const class EDA_RECT &) --> class EDA_RECT &", pybind11::return_value_policy::automatic, pybind11::arg(""));
}
// FILL_TYPE file:fill_type.h line:28
pybind11::enum_<FILL_TYPE>(M(""), "FILL_TYPE", "The set of fill types used in plotting or drawing enclosed areas.\n\n \n Do not renumber this enum, the legacy schematic plugin demands on these values.")
.value("NO_FILL", FILL_TYPE::NO_FILL)
.value("FILLED_SHAPE", FILL_TYPE::FILLED_SHAPE)
.value("FILLED_WITH_BG_BODYCOLOR", FILL_TYPE::FILLED_WITH_BG_BODYCOLOR)
.value("FILLED_WITH_COLOR", FILL_TYPE::FILLED_WITH_COLOR);
;
{ // TRANSFORM file:transform.h line:45
pybind11::class_<TRANSFORM, std::shared_ptr<TRANSFORM>> cl(M(""), "TRANSFORM", "for transforming drawing coordinates for a wxDC device context.\n\n This probably should be a base class with all pure virtual methods and a WXDC_TRANSFORM\n derived class. Then in the future if some new device context is used, a new transform could\n be derived from the base class and all the drawable objects would have to do is provide\n overloaded draw methods to use the new transorm.");
cl.def( pybind11::init( [](){ return new TRANSFORM(); } ) );
cl.def( pybind11::init<int, int, int, int>(), pybind11::arg("ax1"), pybind11::arg("ay1"), pybind11::arg("ax2"), pybind11::arg("ay2") );
cl.def( pybind11::init( [](TRANSFORM const &o){ return new TRANSFORM(o); } ) );
cl.def_readwrite("x1", &TRANSFORM::x1);
cl.def_readwrite("y1", &TRANSFORM::y1);
cl.def_readwrite("x2", &TRANSFORM::x2);
cl.def_readwrite("y2", &TRANSFORM::y2);
cl.def("__eq__", (bool (TRANSFORM::*)(const class TRANSFORM &) const) &TRANSFORM::operator==, "C++: TRANSFORM::operator==(const class TRANSFORM &) const --> bool", pybind11::arg("aTransform"));
cl.def("__ne__", (bool (TRANSFORM::*)(const class TRANSFORM &) const) &TRANSFORM::operator!=, "C++: TRANSFORM::operator!=(const class TRANSFORM &) const --> bool", pybind11::arg("aTransform"));
cl.def("TransformCoordinate", (class wxPoint (TRANSFORM::*)(const class wxPoint &) const) &TRANSFORM::TransformCoordinate, "Calculate a new coordinate according to the mirror/rotation transform.\n Useful to calculate actual coordinates of a point\n from coordinates relative to a component\n which are given for a non rotated, non mirrored item\n \n\n = The position to transform\n \n\n The transformed coordinate.\n\nC++: TRANSFORM::TransformCoordinate(const class wxPoint &) const --> class wxPoint", pybind11::arg("aPoint"));
cl.def("TransformCoordinate", (class EDA_RECT (TRANSFORM::*)(const class EDA_RECT &) const) &TRANSFORM::TransformCoordinate, "Calculate a new rect according to the mirror/rotation transform.\n Useful to calculate actual coordinates of a point\n from coordinates relative to a component\n which are given for a non rotated, non mirrored item\n \n\n = The rectangle to transform\n \n\n The transformed rectangle.\n\nC++: TRANSFORM::TransformCoordinate(const class EDA_RECT &) const --> class EDA_RECT", pybind11::arg("aRect"));
cl.def("InverseTransform", (class TRANSFORM (TRANSFORM::*)() const) &TRANSFORM::InverseTransform, "Calculate the Inverse mirror/rotation transform.\n Useful to calculate coordinates relative to a component\n which must be for a non rotated, non mirrored item\n from the actual coordinate.\n \n\n The inverse transform.\n\nC++: TRANSFORM::InverseTransform() const --> class TRANSFORM");
cl.def("MapAngles", (bool (TRANSFORM::*)(int *, int *) const) &TRANSFORM::MapAngles, "Calculate new angles according to the transform.\n\n \n = The first angle to transform\n \n\n = The second angle to transform\n \n\n True if the angles were swapped during the transform.\n\nC++: TRANSFORM::MapAngles(int *, int *) const --> bool", pybind11::arg("aAngle1"), pybind11::arg("aAngle2"));
cl.def("assign", (class TRANSFORM & (TRANSFORM::*)(const class TRANSFORM &)) &TRANSFORM::operator=, "C++: TRANSFORM::operator=(const class TRANSFORM &) --> class TRANSFORM &", pybind11::return_value_policy::automatic, pybind11::arg(""));
}
// EDA_COLOR_T file:gal/color4d.h line:41
pybind11::enum_<EDA_COLOR_T>(M(""), "EDA_COLOR_T", pybind11::arithmetic(), "Legacy color enumeration. Also contains a flag and the alpha value in the upper bits")
.value("UNSPECIFIED_COLOR", UNSPECIFIED_COLOR)
.value("BLACK", BLACK)
.value("DARKDARKGRAY", DARKDARKGRAY)
.value("DARKGRAY", DARKGRAY)
.value("LIGHTGRAY", LIGHTGRAY)
.value("WHITE", WHITE)
.value("LIGHTYELLOW", LIGHTYELLOW)
.value("DARKBLUE", DARKBLUE)
.value("DARKGREEN", DARKGREEN)
.value("DARKCYAN", DARKCYAN)
.value("DARKRED", DARKRED)
.value("DARKMAGENTA", DARKMAGENTA)
.value("DARKBROWN", DARKBROWN)
.value("BLUE", BLUE)
.value("GREEN", GREEN)
.value("CYAN", CYAN)
.value("RED", RED)
.value("MAGENTA", MAGENTA)
.value("BROWN", BROWN)
.value("LIGHTBLUE", LIGHTBLUE)
.value("LIGHTGREEN", LIGHTGREEN)
.value("LIGHTCYAN", LIGHTCYAN)
.value("LIGHTRED", LIGHTRED)
.value("LIGHTMAGENTA", LIGHTMAGENTA)
.value("YELLOW", YELLOW)
.value("PUREBLUE", PUREBLUE)
.value("PUREGREEN", PUREGREEN)
.value("PURECYAN", PURECYAN)
.value("PURERED", PURERED)
.value("PUREMAGENTA", PUREMAGENTA)
.value("PUREYELLOW", PUREYELLOW)
.value("NBCOLORS", NBCOLORS)
.value("HIGHLIGHT_FLAG", HIGHLIGHT_FLAG)
.value("MASKCOLOR", MASKCOLOR)
.export_values();
;
}

36
scripting/pybind11/eda_units.cpp
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#include <eda_units.h> // EDA_DATA_TYPE
#include <eda_units.h> // EDA_UNITS
#include <pybind11/pybind11.h>
#include <functional>
#include <string>
#ifndef BINDER_PYBIND11_TYPE_CASTER
#define BINDER_PYBIND11_TYPE_CASTER
PYBIND11_DECLARE_HOLDER_TYPE(T, std::shared_ptr<T>);
PYBIND11_DECLARE_HOLDER_TYPE(T, T*);
PYBIND11_MAKE_OPAQUE(std::shared_ptr<void>);
#endif
void bind_eda_units(std::function< pybind11::module &(std::string const &namespace_) > &M)
{
// EDA_DATA_TYPE file:eda_units.h line:31
pybind11::enum_<EDA_DATA_TYPE>(M(""), "EDA_DATA_TYPE", "The type of unit.")
.value("DISTANCE", EDA_DATA_TYPE::DISTANCE)
.value("AREA", EDA_DATA_TYPE::AREA)
.value("VOLUME", EDA_DATA_TYPE::VOLUME);
;
// EDA_UNITS file:eda_units.h line:38
pybind11::enum_<EDA_UNITS>(M(""), "EDA_UNITS", "")
.value("INCHES", EDA_UNITS::INCHES)
.value("MILLIMETRES", EDA_UNITS::MILLIMETRES)
.value("UNSCALED", EDA_UNITS::UNSCALED)
.value("DEGREES", EDA_UNITS::DEGREES)
.value("PERCENT", EDA_UNITS::PERCENT)
.value("MILS", EDA_UNITS::MILS);
;
}

24
scripting/pybind11/eda_units_1.cpp
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#include <eda_units.h> // EDA_UNITS
#include <eda_units.h> // EDA_UNIT_UTILS::IsImperialUnit
#include <eda_units.h> // EDA_UNIT_UTILS::IsMetricUnit
#include <pybind11/pybind11.h>
#include <functional>
#include <string>
#ifndef BINDER_PYBIND11_TYPE_CASTER
#define BINDER_PYBIND11_TYPE_CASTER
PYBIND11_DECLARE_HOLDER_TYPE(T, std::shared_ptr<T>);
PYBIND11_DECLARE_HOLDER_TYPE(T, T*);
PYBIND11_MAKE_OPAQUE(std::shared_ptr<void>);
#endif
void bind_eda_units_1(std::function< pybind11::module &(std::string const &namespace_) > &M)
{
// EDA_UNIT_UTILS::IsImperialUnit(enum EDA_UNITS) file:eda_units.h line:50
M("EDA_UNIT_UTILS").def("IsImperialUnit", (bool (*)(enum EDA_UNITS)) &EDA_UNIT_UTILS::IsImperialUnit, "C++: EDA_UNIT_UTILS::IsImperialUnit(enum EDA_UNITS) --> bool", pybind11::arg("aUnit"));
// EDA_UNIT_UTILS::IsMetricUnit(enum EDA_UNITS) file:eda_units.h line:52
M("EDA_UNIT_UTILS").def("IsMetricUnit", (bool (*)(enum EDA_UNITS)) &EDA_UNIT_UTILS::IsMetricUnit, "C++: EDA_UNIT_UTILS::IsMetricUnit(enum EDA_UNITS) --> bool", pybind11::arg("aUnit"));
}

33
scripting/pybind11/gal/color4d.cpp
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#include <gal/color4d.h> // StructColors
#include <gal/color4d.h> // colorRefs
#include <sstream> // __str__
#include <pybind11/pybind11.h>
#include <functional>
#include <string>
#ifndef BINDER_PYBIND11_TYPE_CASTER
#define BINDER_PYBIND11_TYPE_CASTER
PYBIND11_DECLARE_HOLDER_TYPE(T, std::shared_ptr<T>);
PYBIND11_DECLARE_HOLDER_TYPE(T, T*);
PYBIND11_MAKE_OPAQUE(std::shared_ptr<void>);
#endif
void bind_gal_color4d(std::function< pybind11::module &(std::string const &namespace_) > &M)
{
{ // StructColors file:gal/color4d.h line:79
pybind11::class_<StructColors, std::shared_ptr<StructColors>> cl(M(""), "StructColors", "");
cl.def( pybind11::init( [](){ return new StructColors(); } ) );
cl.def( pybind11::init( [](StructColors const &o){ return new StructColors(o); } ) );
cl.def_readwrite("m_Blue", &StructColors::m_Blue);
cl.def_readwrite("m_Green", &StructColors::m_Green);
cl.def_readwrite("m_Red", &StructColors::m_Red);
cl.def_readwrite("m_Numcolor", &StructColors::m_Numcolor);
cl.def_readwrite("m_ColorName", &StructColors::m_ColorName);
cl.def_readwrite("m_LightColor", &StructColors::m_LightColor);
cl.def("assign", (struct StructColors & (StructColors::*)(const struct StructColors &)) &StructColors::operator=, "C++: StructColors::operator=(const struct StructColors &) --> struct StructColors &", pybind11::return_value_policy::automatic, pybind11::arg(""));
}
// colorRefs() file:gal/color4d.h line:90
M("").def("colorRefs", (const struct StructColors * (*)()) &colorRefs, "Global list of legacy color names, still used all over the place for constructing COLOR4D's\n\nC++: colorRefs() --> const struct StructColors *", pybind11::return_value_policy::automatic);
}

58
scripting/pybind11/gal/color4d_1.cpp
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#include <gal/color4d.h> // EDA_COLOR_T
#include <gal/color4d.h> // KIGFX::COLOR4D
#include <gal/color4d.h> // KIGFX::from_json
#include <gal/color4d.h> // KIGFX::to_json
#include <sstream> // __str__
#include <pybind11/pybind11.h>
#include <functional>
#include <string>
#ifndef BINDER_PYBIND11_TYPE_CASTER
#define BINDER_PYBIND11_TYPE_CASTER
PYBIND11_DECLARE_HOLDER_TYPE(T, std::shared_ptr<T>);
PYBIND11_DECLARE_HOLDER_TYPE(T, T*);
PYBIND11_MAKE_OPAQUE(std::shared_ptr<void>);
#endif
void bind_gal_color4d_1(std::function< pybind11::module &(std::string const &namespace_) > &M)
{
{ // KIGFX::COLOR4D file:gal/color4d.h line:98
pybind11::class_<KIGFX::COLOR4D, std::shared_ptr<KIGFX::COLOR4D>> cl(M("KIGFX"), "COLOR4D", "A color representation with 4 components: red, green, blue, alpha.");
cl.def( pybind11::init( [](){ return new KIGFX::COLOR4D(); } ) );
cl.def( pybind11::init<double, double, double, double>(), pybind11::arg("aRed"), pybind11::arg("aGreen"), pybind11::arg("aBlue"), pybind11::arg("aAlpha") );
cl.def( pybind11::init<enum EDA_COLOR_T>(), pybind11::arg("aColor") );
cl.def( pybind11::init( [](KIGFX::COLOR4D const &o){ return new KIGFX::COLOR4D(o); } ) );
cl.def_readwrite("r", &KIGFX::COLOR4D::r);
cl.def_readwrite("g", &KIGFX::COLOR4D::g);
cl.def_readwrite("b", &KIGFX::COLOR4D::b);
cl.def_readwrite("a", &KIGFX::COLOR4D::a);
cl.def("FromCSSRGBA", [](KIGFX::COLOR4D &o, int const & a0, int const & a1, int const & a2) -> KIGFX::COLOR4D & { return o.FromCSSRGBA(a0, a1, a2); }, "", pybind11::return_value_policy::automatic, pybind11::arg("aRed"), pybind11::arg("aGreen"), pybind11::arg("aBlue"));
cl.def("FromCSSRGBA", (class KIGFX::COLOR4D & (KIGFX::COLOR4D::*)(int, int, int, double)) &KIGFX::COLOR4D::FromCSSRGBA, "Initialize the color from a RGBA value with 0-255 red/green/blue and 0-1 alpha.\n\n Suitable for taking the values directly from the \"CSS syntax\" from ToWxString.\n\n \n this color.\n\nC++: KIGFX::COLOR4D::FromCSSRGBA(int, int, int, double) --> class KIGFX::COLOR4D &", pybind11::return_value_policy::automatic, pybind11::arg("aRed"), pybind11::arg("aGreen"), pybind11::arg("aBlue"), pybind11::arg("aAlpha"));
cl.def("ToHSL", (void (KIGFX::COLOR4D::*)(double &, double &, double &) const) &KIGFX::COLOR4D::ToHSL, "Converts current color (stored in RGB) to HSL format.\n\n \n is the conversion result for hue component, in degrees 0 ... 360.0.\n \n\n is the conversion result for saturation component (0 ... 1.0).\n \n\n is conversion result for value component (0 ... 1.0).\n \n\n saturation is set to 0.0 for black color if r = g = b,\n\nC++: KIGFX::COLOR4D::ToHSL(double &, double &, double &) const --> void", pybind11::arg("aOutHue"), pybind11::arg("aOutSaturation"), pybind11::arg("aOutValue"));
cl.def("FromHSL", (void (KIGFX::COLOR4D::*)(double, double, double)) &KIGFX::COLOR4D::FromHSL, "Change currently used color to the one given by hue, saturation and lightness parameters.\n\n \n is hue component, in degrees (0.0 - 360.0).\n \n\n is saturation component (0.0 - 1.0).\n \n\n is lightness component (0.0 - 1.0).\n\nC++: KIGFX::COLOR4D::FromHSL(double, double, double) --> void", pybind11::arg("aInHue"), pybind11::arg("aInSaturation"), pybind11::arg("aInLightness"));
cl.def("Brighten", (class KIGFX::COLOR4D & (KIGFX::COLOR4D::*)(double)) &KIGFX::COLOR4D::Brighten, "Makes the color brighter by a given factor.\n\n \n Specifies how bright the color should become (valid values: 0.0 .. 1.0).\n \n\n COLOR4D& Brightened color.\n\nC++: KIGFX::COLOR4D::Brighten(double) --> class KIGFX::COLOR4D &", pybind11::return_value_policy::automatic, pybind11::arg("aFactor"));
cl.def("Darken", (class KIGFX::COLOR4D & (KIGFX::COLOR4D::*)(double)) &KIGFX::COLOR4D::Darken, "Makes the color darker by a given factor.\n\n \n Specifies how dark the color should become (valid values: 0.0 .. 1.0).\n \n\n COLOR4D& Darkened color.\n\nC++: KIGFX::COLOR4D::Darken(double) --> class KIGFX::COLOR4D &", pybind11::return_value_policy::automatic, pybind11::arg("aFactor"));
cl.def("Invert", (class KIGFX::COLOR4D & (KIGFX::COLOR4D::*)()) &KIGFX::COLOR4D::Invert, "Makes the color inverted, alpha remains the same.\n\n \n COLOR4D& Inverted color.\n\nC++: KIGFX::COLOR4D::Invert() --> class KIGFX::COLOR4D &", pybind11::return_value_policy::automatic);
cl.def("Saturate", (class KIGFX::COLOR4D & (KIGFX::COLOR4D::*)(double)) &KIGFX::COLOR4D::Saturate, "Saturates the color to a given factor (in HSV model)\n\nC++: KIGFX::COLOR4D::Saturate(double) --> class KIGFX::COLOR4D &", pybind11::return_value_policy::automatic, pybind11::arg("aFactor"));
cl.def("Brightened", (class KIGFX::COLOR4D (KIGFX::COLOR4D::*)(double) const) &KIGFX::COLOR4D::Brightened, "Return a color that is brighter by a given factor, without modifying object.\n\n \n Specifies how bright the color should become (valid values: 0.0 .. 1.0).\n \n\n COLOR4D Highlighted color.\n\nC++: KIGFX::COLOR4D::Brightened(double) const --> class KIGFX::COLOR4D", pybind11::arg("aFactor"));
cl.def("Darkened", (class KIGFX::COLOR4D (KIGFX::COLOR4D::*)(double) const) &KIGFX::COLOR4D::Darkened, "Return a color that is darker by a given factor, without modifying object.\n\n \n Specifies how dark the color should become (valid values: 0.0 .. 1.0).\n \n\n COLOR4D Darkened color.\n\nC++: KIGFX::COLOR4D::Darkened(double) const --> class KIGFX::COLOR4D", pybind11::arg("aFactor"));
cl.def("Mix", (class KIGFX::COLOR4D (KIGFX::COLOR4D::*)(const class KIGFX::COLOR4D &, double) const) &KIGFX::COLOR4D::Mix, "Return a color that is mixed with the input by a factor.\n\n \n Specifies how much of the original color to keep (valid values: 0.0 .. 1.0).\n \n\n COLOR4D Mixed color.\n\nC++: KIGFX::COLOR4D::Mix(const class KIGFX::COLOR4D &, double) const --> class KIGFX::COLOR4D", pybind11::arg("aColor"), pybind11::arg("aFactor"));
cl.def("WithAlpha", (class KIGFX::COLOR4D (KIGFX::COLOR4D::*)(double) const) &KIGFX::COLOR4D::WithAlpha, "Return a color with the same color, but the given alpha.\n\n \n specifies the alpha of the new color\n \n\n COLOR4D color with that alpha\n\nC++: KIGFX::COLOR4D::WithAlpha(double) const --> class KIGFX::COLOR4D", pybind11::arg("aAlpha"));
cl.def("Inverted", (class KIGFX::COLOR4D (KIGFX::COLOR4D::*)() const) &KIGFX::COLOR4D::Inverted, "Returns an inverted color, alpha remains the same.\n\n \n COLOR4D& Inverted color.\n\nC++: KIGFX::COLOR4D::Inverted() const --> class KIGFX::COLOR4D");
cl.def("GetBrightness", (double (KIGFX::COLOR4D::*)() const) &KIGFX::COLOR4D::GetBrightness, "Returns the brightness value of the color ranged from 0.0 to 1.0.\n\n \n The brightness value.\n\nC++: KIGFX::COLOR4D::GetBrightness() const --> double");
cl.def("ToHSV", [](KIGFX::COLOR4D const &o, double & a0, double & a1, double & a2) -> void { return o.ToHSV(a0, a1, a2); }, "", pybind11::arg("aOutHue"), pybind11::arg("aOutSaturation"), pybind11::arg("aOutValue"));
cl.def("ToHSV", (void (KIGFX::COLOR4D::*)(double &, double &, double &, bool) const) &KIGFX::COLOR4D::ToHSV, "Convert current color (stored in RGB) to HSV format.\n\n \n is the conversion result for hue component, in degrees 0 ... 360.0.\n \n\n is the conversion result for saturation component (0 ... 1.0).\n \n\n is conversion result for value component (0 ... 1.0).\n \n\n controls the way hue is defined when r = v = b\n \n\n saturation is set to 0.0 for black color (r = v = b = 0), and if r = v = b,\n hue is set to 0.0 if aAlwaysDefineHue = true, and set to NAN if aAlwaysDefineHue = false.\n this option is useful to convert a 4D color to a legacy color, because Red has hue = 0,\n therefore aAlwaysDefineHue = false makes difference between Red and Gray colors.\n\nC++: KIGFX::COLOR4D::ToHSV(double &, double &, double &, bool) const --> void", pybind11::arg("aOutHue"), pybind11::arg("aOutSaturation"), pybind11::arg("aOutValue"), pybind11::arg("aAlwaysDefineHue"));
cl.def("FromHSV", (void (KIGFX::COLOR4D::*)(double, double, double)) &KIGFX::COLOR4D::FromHSV, "Changes currently used color to the one given by hue, saturation and value parameters.\n\n \n is hue component, in degrees.\n \n\n is saturation component.\n \n\n is value component.\n\nC++: KIGFX::COLOR4D::FromHSV(double, double, double) --> void", pybind11::arg("aInH"), pybind11::arg("aInS"), pybind11::arg("aInV"));
cl.def_static("FindNearestLegacyColor", (enum EDA_COLOR_T (*)(int, int, int)) &KIGFX::COLOR4D::FindNearestLegacyColor, "Returns a legacy color ID that is closest to the given 8-bit RGB values.\n\nC++: KIGFX::COLOR4D::FindNearestLegacyColor(int, int, int) --> enum EDA_COLOR_T", pybind11::arg("aR"), pybind11::arg("aG"), pybind11::arg("aB"));
cl.def("assign", (class KIGFX::COLOR4D & (KIGFX::COLOR4D::*)(const class KIGFX::COLOR4D &)) &KIGFX::COLOR4D::operator=, "C++: KIGFX::COLOR4D::operator=(const class KIGFX::COLOR4D &) --> class KIGFX::COLOR4D &", pybind11::return_value_policy::automatic, pybind11::arg(""));
}
// KIGFX::to_json(int &, const class KIGFX::COLOR4D &) file:gal/color4d.h line:384
M("KIGFX").def("to_json", (void (*)(int &, const class KIGFX::COLOR4D &)) &KIGFX::to_json, "C++: KIGFX::to_json(int &, const class KIGFX::COLOR4D &) --> void", pybind11::arg("aJson"), pybind11::arg("aColor"));
// KIGFX::from_json(const int &, class KIGFX::COLOR4D &) file:gal/color4d.h line:387
M("KIGFX").def("from_json", (void (*)(const int &, class KIGFX::COLOR4D &)) &KIGFX::from_json, "C++: KIGFX::from_json(const int &, class KIGFX::COLOR4D &) --> void", pybind11::arg("aJson"), pybind11::arg("aColor"));
}

248
scripting/pybind11/gr_basic.cpp
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@ -1,248 +0,0 @@
#include <eda_rect.h> // EDA_RECT
#include <gal/color4d.h> // EDA_COLOR_T
#include <gal/color4d.h> // KIGFX::COLOR4D
#include <gr_basic.h> // GRCSegm
#include <gr_basic.h> // GRDrawAnchor
#include <gr_basic.h> // GRDrawWrappedText
#include <gr_basic.h> // GRFillCSegm
#include <gr_basic.h> // GRFilledArc
#include <gr_basic.h> // GRFilledRect
#include <gr_basic.h> // GRFilledSegment
#include <gr_basic.h> // GRGetColor
#include <gr_basic.h> // GRLineArray
#include <gr_basic.h> // GRPutPixel
#include <gr_basic.h> // GRRect
#include <gr_basic.h> // GRRectPs
#include <gr_basic.h> // GRSFilledRect
#include <gr_basic.h> // GRSetColor
#include <gr_basic.h> // GRSetDefaultPalette
#include <iterator> // __gnu_cxx::__normal_iterator
#include <layers_id_colors_and_visibility.h> // GAL_LAYER_ID
#include <layers_id_colors_and_visibility.h> // NETNAMES_LAYER_ID
#include <layers_id_colors_and_visibility.h> // PCB_LAYER_ID
#include <memory> // std::allocator
#include <string> // std::basic_string
#include <string> // std::char_traits
#include <wx/dc.h> // wxDC
#include <wx/dc.h> // wxDCImpl
#include <wx/dc.h> // wxDrawObject
#include <wx/dc.h> // wxFloodFillStyle
#include <wx/dc.h> // wxFontMetrics
#include <wx/dc.h> // wxMappingMode
#include <wx/dc.h> // wxRasterOperationMode
#include <wx/pen.h> // wxPenCap
#include <wx/pen.h> // wxPenJoin
#include <wx/pen.h> // wxPenStyle
#include <pybind11/pybind11.h>
#include <functional>
#include <string>
#ifndef BINDER_PYBIND11_TYPE_CASTER
#define BINDER_PYBIND11_TYPE_CASTER
PYBIND11_DECLARE_HOLDER_TYPE(T, std::shared_ptr<T>);
PYBIND11_DECLARE_HOLDER_TYPE(T, T*);
PYBIND11_MAKE_OPAQUE(std::shared_ptr<void>);
#endif
void bind_gr_basic(std::function< pybind11::module &(std::string const &namespace_) > &M)
{
// GRFilledArc(class EDA_RECT *, class wxDC *, int, int, double, double, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D) file:gr_basic.h line:186
M("").def("GRFilledArc", (void (*)(class EDA_RECT *, class wxDC *, int, int, double, double, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D)) &GRFilledArc, "C++: GRFilledArc(class EDA_RECT *, class wxDC *, int, int, double, double, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("x"), pybind11::arg("y"), pybind11::arg("StAngle"), pybind11::arg("EndAngle"), pybind11::arg("r"), pybind11::arg("Color"), pybind11::arg("BgColor"));
// GRFilledArc(class EDA_RECT *, class wxDC *, int, int, double, double, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D) file:gr_basic.h line:188
M("").def("GRFilledArc", (void (*)(class EDA_RECT *, class wxDC *, int, int, double, double, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D)) &GRFilledArc, "C++: GRFilledArc(class EDA_RECT *, class wxDC *, int, int, double, double, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("x"), pybind11::arg("y"), pybind11::arg("StAngle"), pybind11::arg("EndAngle"), pybind11::arg("r"), pybind11::arg("width"), pybind11::arg("Color"), pybind11::arg("BgColor"));
// GRCSegm(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D) file:gr_basic.h line:190
M("").def("GRCSegm", (void (*)(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D)) &GRCSegm, "C++: GRCSegm(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("x1"), pybind11::arg("y1"), pybind11::arg("x2"), pybind11::arg("y2"), pybind11::arg("width"), pybind11::arg("Color"));
// GRFillCSegm(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D) file:gr_basic.h line:193
M("").def("GRFillCSegm", (void (*)(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D)) &GRFillCSegm, "C++: GRFillCSegm(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("x1"), pybind11::arg("y1"), pybind11::arg("x2"), pybind11::arg("y2"), pybind11::arg("width"), pybind11::arg("Color"));
// GRFilledSegment(class EDA_RECT *, class wxDC *, class wxPoint, class wxPoint, int, class KIGFX::COLOR4D) file:gr_basic.h line:195
M("").def("GRFilledSegment", (void (*)(class EDA_RECT *, class wxDC *, class wxPoint, class wxPoint, int, class KIGFX::COLOR4D)) &GRFilledSegment, "C++: GRFilledSegment(class EDA_RECT *, class wxDC *, class wxPoint, class wxPoint, int, class KIGFX::COLOR4D) --> void", pybind11::arg("aClipBox"), pybind11::arg("aDC"), pybind11::arg("aStart"), pybind11::arg("aEnd"), pybind11::arg("aWidth"), pybind11::arg("aColor"));
// GRCSegm(class EDA_RECT *, class wxDC *, int, int, int, int, int, int, class KIGFX::COLOR4D) file:gr_basic.h line:198
M("").def("GRCSegm", (void (*)(class EDA_RECT *, class wxDC *, int, int, int, int, int, int, class KIGFX::COLOR4D)) &GRCSegm, "C++: GRCSegm(class EDA_RECT *, class wxDC *, int, int, int, int, int, int, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("x1"), pybind11::arg("y1"), pybind11::arg("x2"), pybind11::arg("y2"), pybind11::arg("width"), pybind11::arg("aPenSize"), pybind11::arg("Color"));
// GRCSegm(class EDA_RECT *, class wxDC *, class wxPoint, class wxPoint, int, class KIGFX::COLOR4D) file:gr_basic.h line:200
M("").def("GRCSegm", (void (*)(class EDA_RECT *, class wxDC *, class wxPoint, class wxPoint, int, class KIGFX::COLOR4D)) &GRCSegm, "C++: GRCSegm(class EDA_RECT *, class wxDC *, class wxPoint, class wxPoint, int, class KIGFX::COLOR4D) --> void", pybind11::arg("aClipBox"), pybind11::arg("aDC"), pybind11::arg("aStart"), pybind11::arg("aEnd"), pybind11::arg("aWidth"), pybind11::arg("aColor"));
// GRSetColor(class KIGFX::COLOR4D) file:gr_basic.h line:203
M("").def("GRSetColor", (void (*)(class KIGFX::COLOR4D)) &GRSetColor, "C++: GRSetColor(class KIGFX::COLOR4D) --> void", pybind11::arg("Color"));
// GRSetDefaultPalette() file:gr_basic.h line:204
M("").def("GRSetDefaultPalette", (void (*)()) &GRSetDefaultPalette, "C++: GRSetDefaultPalette() --> void");
// GRGetColor() file:gr_basic.h line:205
M("").def("GRGetColor", (class KIGFX::COLOR4D (*)()) &GRGetColor, "C++: GRGetColor() --> class KIGFX::COLOR4D");
// GRPutPixel(class EDA_RECT *, class wxDC *, int, int, class KIGFX::COLOR4D) file:gr_basic.h line:206
M("").def("GRPutPixel", (void (*)(class EDA_RECT *, class wxDC *, int, int, class KIGFX::COLOR4D)) &GRPutPixel, "C++: GRPutPixel(class EDA_RECT *, class wxDC *, int, int, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("x"), pybind11::arg("y"), pybind11::arg("color"));
// GRFilledRect(class EDA_RECT *, class wxDC *, int, int, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D) file:gr_basic.h line:207
M("").def("GRFilledRect", (void (*)(class EDA_RECT *, class wxDC *, int, int, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D)) &GRFilledRect, "C++: GRFilledRect(class EDA_RECT *, class wxDC *, int, int, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("x1"), pybind11::arg("y1"), pybind11::arg("x2"), pybind11::arg("y2"), pybind11::arg("Color"), pybind11::arg("BgColor"));
// GRFilledRect(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D) file:gr_basic.h line:209
M("").def("GRFilledRect", (void (*)(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D)) &GRFilledRect, "C++: GRFilledRect(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("x1"), pybind11::arg("y1"), pybind11::arg("x2"), pybind11::arg("y2"), pybind11::arg("width"), pybind11::arg("Color"), pybind11::arg("BgColor"));
// GRRect(class EDA_RECT *, class wxDC *, int, int, int, int, class KIGFX::COLOR4D) file:gr_basic.h line:211
M("").def("GRRect", (void (*)(class EDA_RECT *, class wxDC *, int, int, int, int, class KIGFX::COLOR4D)) &GRRect, "C++: GRRect(class EDA_RECT *, class wxDC *, int, int, int, int, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("x1"), pybind11::arg("y1"), pybind11::arg("x2"), pybind11::arg("y2"), pybind11::arg("Color"));
// GRRect(class EDA_RECT *, class wxDC *, const class EDA_RECT &, int, class KIGFX::COLOR4D) file:gr_basic.h line:212
M("").def("GRRect", (void (*)(class EDA_RECT *, class wxDC *, const class EDA_RECT &, int, class KIGFX::COLOR4D)) &GRRect, "C++: GRRect(class EDA_RECT *, class wxDC *, const class EDA_RECT &, int, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("aRect"), pybind11::arg("aWidth"), pybind11::arg("Color"));
// GRRect(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D) file:gr_basic.h line:213
M("").def("GRRect", (void (*)(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D)) &GRRect, "C++: GRRect(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("x1"), pybind11::arg("y1"), pybind11::arg("x2"), pybind11::arg("y2"), pybind11::arg("width"), pybind11::arg("Color"));
// GRRectPs(class EDA_RECT *, class wxDC *, const class EDA_RECT &, int, class KIGFX::COLOR4D, enum wxPenStyle) file:gr_basic.h line:215
M("").def("GRRectPs", [](class EDA_RECT * a0, class wxDC * a1, const class EDA_RECT & a2, int const & a3, class KIGFX::COLOR4D const & a4) -> void { return GRRectPs(a0, a1, a2, a3, a4); }, "", pybind11::arg("aClipBox"), pybind11::arg("aDC"), pybind11::arg("aRect"), pybind11::arg("aWidth"), pybind11::arg("aColor"));
M("").def("GRRectPs", (void (*)(class EDA_RECT *, class wxDC *, const class EDA_RECT &, int, class KIGFX::COLOR4D, enum wxPenStyle)) &GRRectPs, "C++: GRRectPs(class EDA_RECT *, class wxDC *, const class EDA_RECT &, int, class KIGFX::COLOR4D, enum wxPenStyle) --> void", pybind11::arg("aClipBox"), pybind11::arg("aDC"), pybind11::arg("aRect"), pybind11::arg("aWidth"), pybind11::arg("aColor"), pybind11::arg("aStyle"));
// GRSFilledRect(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D) file:gr_basic.h line:218
M("").def("GRSFilledRect", (void (*)(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D)) &GRSFilledRect, "C++: GRSFilledRect(class EDA_RECT *, class wxDC *, int, int, int, int, int, class KIGFX::COLOR4D, class KIGFX::COLOR4D) --> void", pybind11::arg("ClipBox"), pybind11::arg("DC"), pybind11::arg("x1"), pybind11::arg("y1"), pybind11::arg("x2"), pybind11::arg("y2"), pybind11::arg("width"), pybind11::arg("Color"), pybind11::arg("BgColor"));
// GRLineArray(class EDA_RECT *, class wxDC *, int &, int, class KIGFX::COLOR4D) file:gr_basic.h line:231
M("").def("GRLineArray", (void (*)(class EDA_RECT *, class wxDC *, int &, int, class KIGFX::COLOR4D)) &GRLineArray, "Draw an array of lines (not a polygon).\n\n \n the clip box.\n \n\n the device context into which drawing should occur.\n \n\n a list of pair of coordinate in user space: a pair for each line.\n \n\n the width of each line.\n \n\n the color of the lines.\n \n\n COLOR4D\n\nC++: GRLineArray(class EDA_RECT *, class wxDC *, int &, int, class KIGFX::COLOR4D) --> void", pybind11::arg("aClipBox"), pybind11::arg("aDC"), pybind11::arg("aLines"), pybind11::arg("aWidth"), pybind11::arg("aColor"));
// GRDrawAnchor(class EDA_RECT *, class wxDC *, int, int, int, class KIGFX::COLOR4D) file:gr_basic.h line:234
M("").def("GRDrawAnchor", (void (*)(class EDA_RECT *, class wxDC *, int, int, int, class KIGFX::COLOR4D)) &GRDrawAnchor, "C++: GRDrawAnchor(class EDA_RECT *, class wxDC *, int, int, int, class KIGFX::COLOR4D) --> void", pybind11::arg("aClipBox"), pybind11::arg("aDC"), pybind11::arg("x"), pybind11::arg("y"), pybind11::arg("aSize"), pybind11::arg("aColor"));
// GRDrawWrappedText(class wxDC &, const class wxString &) file:gr_basic.h line:242
M("").def("GRDrawWrappedText", (void (*)(class wxDC &, const class wxString &)) &GRDrawWrappedText, "Draw text centered on a wxDC with wrapping.\n\n \n wxDC instance onto which the text will be drawn.\n \n\n the text to draw.\n\nC++: GRDrawWrappedText(class wxDC &, const class wxString &) --> void", pybind11::arg("aDC"), pybind11::arg("aText"));
// PCB_LAYER_ID file:layers_id_colors_and_visibility.h line:69
pybind11::enum_<PCB_LAYER_ID>(M(""), "PCB_LAYER_ID", pybind11::arithmetic(), "This is the definition of all layers used in Pcbnew.\n\n The PCB layer types are fixed at value 0 through LAYER_ID_COUNT to ensure compatibility\n with legacy board files.")
.value("UNDEFINED_LAYER", UNDEFINED_LAYER)
.value("UNSELECTED_LAYER", UNSELECTED_LAYER)
.value("PCBNEW_LAYER_ID_START", PCBNEW_LAYER_ID_START)
.value("F_Cu", F_Cu)
.value("In1_Cu", In1_Cu)
.value("In2_Cu", In2_Cu)
.value("In3_Cu", In3_Cu)
.value("In4_Cu", In4_Cu)
.value("In5_Cu", In5_Cu)
.value("In6_Cu", In6_Cu)
.value("In7_Cu", In7_Cu)
.value("In8_Cu", In8_Cu)
.value("In9_Cu", In9_Cu)
.value("In10_Cu", In10_Cu)
.value("In11_Cu", In11_Cu)
.value("In12_Cu", In12_Cu)
.value("In13_Cu", In13_Cu)
.value("In14_Cu", In14_Cu)
.value("In15_Cu", In15_Cu)
.value("In16_Cu", In16_Cu)
.value("In17_Cu", In17_Cu)
.value("In18_Cu", In18_Cu)
.value("In19_Cu", In19_Cu)
.value("In20_Cu", In20_Cu)
.value("In21_Cu", In21_Cu)
.value("In22_Cu", In22_Cu)
.value("In23_Cu", In23_Cu)
.value("In24_Cu", In24_Cu)
.value("In25_Cu", In25_Cu)
.value("In26_Cu", In26_Cu)
.value("In27_Cu", In27_Cu)
.value("In28_Cu", In28_Cu)
.value("In29_Cu", In29_Cu)
.value("In30_Cu", In30_Cu)
.value("B_Cu", B_Cu)
.value("B_Adhes", B_Adhes)
.value("F_Adhes", F_Adhes)
.value("B_Paste", B_Paste)
.value("F_Paste", F_Paste)
.value("B_SilkS", B_SilkS)
.value("F_SilkS", F_SilkS)
.value("B_Mask", B_Mask)
.value("F_Mask", F_Mask)
.value("Dwgs_User", Dwgs_User)
.value("Cmts_User", Cmts_User)
.value("Eco1_User", Eco1_User)
.value("Eco2_User", Eco2_User)
.value("Edge_Cuts", Edge_Cuts)
.value("Margin", Margin)
.value("B_CrtYd", B_CrtYd)
.value("F_CrtYd", F_CrtYd)
.value("B_Fab", B_Fab)
.value("F_Fab", F_Fab)
.value("User_1", User_1)
.value("User_2", User_2)
.value("User_3", User_3)
.value("User_4", User_4)
.value("User_5", User_5)
.value("User_6", User_6)
.value("User_7", User_7)
.value("User_8", User_8)
.value("User_9", User_9)
.value("Rescue", Rescue)
.value("PCB_LAYER_ID_COUNT", PCB_LAYER_ID_COUNT)
.export_values();
;
// NETNAMES_LAYER_ID file:layers_id_colors_and_visibility.h line:154
pybind11::enum_<NETNAMES_LAYER_ID>(M(""), "NETNAMES_LAYER_ID", pybind11::arithmetic(), "Dedicated layers for net names used in Pcbnew")
.value("NETNAMES_LAYER_ID_START", NETNAMES_LAYER_ID_START)
.value("NETNAMES_LAYER_ID_RESERVED", NETNAMES_LAYER_ID_RESERVED)
.value("LAYER_PAD_FR_NETNAMES", LAYER_PAD_FR_NETNAMES)
.value("LAYER_PAD_BK_NETNAMES", LAYER_PAD_BK_NETNAMES)
.value("LAYER_PAD_NETNAMES", LAYER_PAD_NETNAMES)
.value("LAYER_VIA_NETNAMES", LAYER_VIA_NETNAMES)
.value("NETNAMES_LAYER_ID_END", NETNAMES_LAYER_ID_END)
.export_values();
;
// GAL_LAYER_ID file:layers_id_colors_and_visibility.h line:189
pybind11::enum_<GAL_LAYER_ID>(M(""), "GAL_LAYER_ID", pybind11::arithmetic(), "GAL layers are \"virtual\" layers, i.e. not tied into design data.\n Some layers here are shared between applications.\n\n NOTE: Be very careful where you add new layers here. Layers below GAL_LAYER_ID_BITMASK_END\n must never be re-ordered and new layers must always be added after this value, because the\n layers before this value are mapped to bit locations in legacy board files.\n\n The values in this enum that are used to store visibility state are explicitly encoded with an\n offset from GAL_LAYER_ID_START, which is explicitly encoded itself. The exact value of\n GAL_LAYER_ID_START is not that sensitive, but the offsets should never be changed or else any\n existing visibility settings will be disrupted.")
.value("GAL_LAYER_ID_START", GAL_LAYER_ID_START)
.value("LAYER_VIAS", LAYER_VIAS)
.value("LAYER_VIA_MICROVIA", LAYER_VIA_MICROVIA)
.value("LAYER_VIA_BBLIND", LAYER_VIA_BBLIND)
.value("LAYER_VIA_THROUGH", LAYER_VIA_THROUGH)
.value("LAYER_NON_PLATEDHOLES", LAYER_NON_PLATEDHOLES)
.value("LAYER_MOD_TEXT_FR", LAYER_MOD_TEXT_FR)
.value("LAYER_MOD_TEXT_BK", LAYER_MOD_TEXT_BK)
.value("LAYER_MOD_TEXT_INVISIBLE", LAYER_MOD_TEXT_INVISIBLE)
.value("LAYER_ANCHOR", LAYER_ANCHOR)
.value("LAYER_PAD_FR", LAYER_PAD_FR)
.value("LAYER_PAD_BK", LAYER_PAD_BK)
.value("LAYER_RATSNEST", LAYER_RATSNEST)
.value("LAYER_GRID", LAYER_GRID)
.value("LAYER_GRID_AXES", LAYER_GRID_AXES)
.value("LAYER_NO_CONNECTS", LAYER_NO_CONNECTS)
.value("LAYER_MOD_FR", LAYER_MOD_FR)
.value("LAYER_MOD_BK", LAYER_MOD_BK)
.value("LAYER_MOD_VALUES", LAYER_MOD_VALUES)
.value("LAYER_MOD_REFERENCES", LAYER_MOD_REFERENCES)
.value("LAYER_TRACKS", LAYER_TRACKS)
.value("LAYER_PADS_TH", LAYER_PADS_TH)
.value("LAYER_PAD_PLATEDHOLES", LAYER_PAD_PLATEDHOLES)
.value("LAYER_VIA_HOLES", LAYER_VIA_HOLES)
.value("LAYER_DRC_ERROR", LAYER_DRC_ERROR)
.value("LAYER_DRAWINGSHEET", LAYER_DRAWINGSHEET)
.value("LAYER_GP_OVERLAY", LAYER_GP_OVERLAY)
.value("LAYER_SELECT_OVERLAY", LAYER_SELECT_OVERLAY)
.value("LAYER_PCB_BACKGROUND", LAYER_PCB_BACKGROUND)
.value("LAYER_CURSOR", LAYER_CURSOR)
.value("LAYER_AUX_ITEMS", LAYER_AUX_ITEMS)
.value("LAYER_DRAW_BITMAPS", LAYER_DRAW_BITMAPS)
.value("GAL_LAYER_ID_BITMASK_END", GAL_LAYER_ID_BITMASK_END)
.value("LAYER_PADS", LAYER_PADS)
.value("LAYER_ZONES", LAYER_ZONES)
.value("LAYER_PAD_HOLEWALLS", LAYER_PAD_HOLEWALLS)
.value("LAYER_VIA_HOLEWALLS", LAYER_VIA_HOLEWALLS)
.value("LAYER_DRC_WARNING", LAYER_DRC_WARNING)
.value("LAYER_DRC_EXCLUSION", LAYER_DRC_EXCLUSION)
.value("LAYER_MARKER_SHADOWS", LAYER_MARKER_SHADOWS)
.value("LAYER_DRAWINGSHEET_PAGE1", LAYER_DRAWINGSHEET_PAGE1)
.value("LAYER_DRAWINGSHEET_PAGEn", LAYER_DRAWINGSHEET_PAGEn)
.value("LAYER_ZONE_START", LAYER_ZONE_START)
.value("LAYER_ZONE_END", LAYER_ZONE_END)
.value("GAL_LAYER_ID_END", GAL_LAYER_ID_END)
.export_values();
;
}

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/*
pybind11/attr.h: Infrastructure for processing custom
type and function attributes
Copyright (c) 2016 Wenzel Jakob <wenzel.jakob@epfl.ch>
All rights reserved. Use of this source code is governed by a
BSD-style license that can be found in the LICENSE file.
*/
#pragma once
#include "cast.h"
PYBIND11_NAMESPACE_BEGIN(PYBIND11_NAMESPACE)
/// \addtogroup annotations
/// @{
/// Annotation for methods
struct is_method { handle class_; is_method(const handle &c) : class_(c) { } };
/// Annotation for operators
struct is_operator { };
/// Annotation for classes that cannot be subclassed
struct is_final { };
/// Annotation for parent scope
struct scope { handle value; scope(const handle &s) : value(s) { } };
/// Annotation for documentation
struct doc { const char *value; doc(const char *value) : value(value) { } };
/// Annotation for function names
struct name { const char *value; name(const char *value) : value(value) { } };
/// Annotation indicating that a function is an overload associated with a given "sibling"
struct sibling { handle value; sibling(const handle &value) : value(value.ptr()) { } };
/// Annotation indicating that a class derives from another given type
template <typename T> struct base {
PYBIND11_DEPRECATED("base<T>() was deprecated in favor of specifying 'T' as a template argument to class_")
base() { } // NOLINT(modernize-use-equals-default): breaks MSVC 2015 when adding an attribute
};
/// Keep patient alive while nurse lives
template <size_t Nurse, size_t Patient> struct keep_alive { };
/// Annotation indicating that a class is involved in a multiple inheritance relationship
struct multiple_inheritance { };
/// Annotation which enables dynamic attributes, i.e. adds `__dict__` to a class
struct dynamic_attr { };
/// Annotation which enables the buffer protocol for a type
struct buffer_protocol { };
/// Annotation which requests that a special metaclass is created for a type
struct metaclass {
handle value;
PYBIND11_DEPRECATED("py::metaclass() is no longer required. It's turned on by default now.")
metaclass() { } // NOLINT(modernize-use-equals-default): breaks MSVC 2015 when adding an attribute
/// Override pybind11's default metaclass
explicit metaclass(handle value) : value(value) { }
};
/// Annotation that marks a class as local to the module:
struct module_local { const bool value; constexpr module_local(bool v = true) : value(v) { } };
/// Annotation to mark enums as an arithmetic type
struct arithmetic { };
/// Mark a function for addition at the beginning of the existing overload chain instead of the end
struct prepend { };
/** \rst
A call policy which places one or more guard variables (``Ts...``) around the function call.
For example, this definition:
.. code-block:: cpp
m.def("foo", foo, py::call_guard<T>());
is equivalent to the following pseudocode:
.. code-block:: cpp
m.def("foo", [](args...) {
T scope_guard;
return foo(args...); // forwarded arguments
});
\endrst */
template <typename... Ts> struct call_guard;
template <> struct call_guard<> { using type = detail::void_type; };
template <typename T>
struct call_guard<T> {
static_assert(std::is_default_constructible<T>::value,
"The guard type must be default constructible");
using type = T;
};
template <typename T, typename... Ts>
struct call_guard<T, Ts...> {
struct type {
T guard{}; // Compose multiple guard types with left-to-right default-constructor order
typename call_guard<Ts...>::type next{};
};
};
/// @} annotations
PYBIND11_NAMESPACE_BEGIN(detail)
/* Forward declarations */
enum op_id : int;
enum op_type : int;
struct undefined_t;
template <op_id id, op_type ot, typename L = undefined_t, typename R = undefined_t> struct op_;
inline void keep_alive_impl(size_t Nurse, size_t Patient, function_call &call, handle ret);
/// Internal data structure which holds metadata about a keyword argument
struct argument_record {
const char *name; ///< Argument name
const char *descr; ///< Human-readable version of the argument value
handle value; ///< Associated Python object
bool convert : 1; ///< True if the argument is allowed to convert when loading
bool none : 1; ///< True if None is allowed when loading
argument_record(const char *name, const char *descr, handle value, bool convert, bool none)
: name(name), descr(descr), value(value), convert(convert), none(none) { }
};
/// Internal data structure which holds metadata about a bound function (signature, overloads, etc.)
struct function_record {
function_record()
: is_constructor(false), is_new_style_constructor(false), is_stateless(false),
is_operator(false), is_method(false), has_args(false),
has_kwargs(false), has_kw_only_args(false), prepend(false) { }
/// Function name
char *name = nullptr; /* why no C++ strings? They generate heavier code.. */
// User-specified documentation string
char *doc = nullptr;
/// Human-readable version of the function signature
char *signature = nullptr;
/// List of registered keyword arguments
std::vector<argument_record> args;
/// Pointer to lambda function which converts arguments and performs the actual call
handle (*impl) (function_call &) = nullptr;
/// Storage for the wrapped function pointer and captured data, if any
void *data[3] = { };
/// Pointer to custom destructor for 'data' (if needed)
void (*free_data) (function_record *ptr) = nullptr;
/// Return value policy associated with this function
return_value_policy policy = return_value_policy::automatic;
/// True if name == '__init__'
bool is_constructor : 1;
/// True if this is a new-style `__init__` defined in `detail/init.h`
bool is_new_style_constructor : 1;
/// True if this is a stateless function pointer
bool is_stateless : 1;
/// True if this is an operator (__add__), etc.
bool is_operator : 1;
/// True if this is a method
bool is_method : 1;
/// True if the function has a '*args' argument
bool has_args : 1;
/// True if the function has a '**kwargs' argument
bool has_kwargs : 1;
/// True once a 'py::kw_only' is encountered (any following args are keyword-only)
bool has_kw_only_args : 1;
/// True if this function is to be inserted at the beginning of the overload resolution chain
bool prepend : 1;
/// Number of arguments (including py::args and/or py::kwargs, if present)
std::uint16_t nargs;
/// Number of trailing arguments (counted in `nargs`) that are keyword-only
std::uint16_t nargs_kw_only = 0;
/// Number of leading arguments (counted in `nargs`) that are positional-only
std::uint16_t nargs_pos_only = 0;
/// Python method object
PyMethodDef *def = nullptr;
/// Python handle to the parent scope (a class or a module)
handle scope;
/// Python handle to the sibling function representing an overload chain
handle sibling;
/// Pointer to next overload
function_record *next = nullptr;
};
/// Special data structure which (temporarily) holds metadata about a bound class
struct type_record {
PYBIND11_NOINLINE type_record()
: multiple_inheritance(false), dynamic_attr(false), buffer_protocol(false),
default_holder(true), module_local(false), is_final(false) { }
/// Handle to the parent scope
handle scope;
/// Name of the class
const char *name = nullptr;
// Pointer to RTTI type_info data structure
const std::type_info *type = nullptr;
/// How large is the underlying C++ type?
size_t type_size = 0;
/// What is the alignment of the underlying C++ type?
size_t type_align = 0;
/// How large is the type's holder?
size_t holder_size = 0;
/// The global operator new can be overridden with a class-specific variant
void *(*operator_new)(size_t) = nullptr;
/// Function pointer to class_<..>::init_instance
void (*init_instance)(instance *, const void *) = nullptr;
/// Function pointer to class_<..>::dealloc
void (*dealloc)(detail::value_and_holder &) = nullptr;
/// List of base classes of the newly created type
list bases;
/// Optional docstring
const char *doc = nullptr;
/// Custom metaclass (optional)
handle metaclass;
/// Multiple inheritance marker
bool multiple_inheritance : 1;
/// Does the class manage a __dict__?
bool dynamic_attr : 1;
/// Does the class implement the buffer protocol?
bool buffer_protocol : 1;
/// Is the default (unique_ptr) holder type used?
bool default_holder : 1;
/// Is the class definition local to the module shared object?
bool module_local : 1;
/// Is the class inheritable from python classes?
bool is_final : 1;
PYBIND11_NOINLINE void add_base(const std::type_info &base, void *(*caster)(void *)) {
auto base_info = detail::get_type_info(base, false);
if (!base_info) {
std::string tname(base.name());
detail::clean_type_id(tname);
pybind11_fail("generic_type: type \"" + std::string(name) +
"\" referenced unknown base type \"" + tname + "\"");
}
if (default_holder != base_info->default_holder) {
std::string tname(base.name());
detail::clean_type_id(tname);
pybind11_fail("generic_type: type \"" + std::string(name) + "\" " +
(default_holder ? "does not have" : "has") +
" a non-default holder type while its base \"" + tname + "\" " +
(base_info->default_holder ? "does not" : "does"));
}
bases.append((PyObject *) base_info->type);
if (base_info->type->tp_dictoffset != 0)
dynamic_attr = true;
if (caster)
base_info->implicit_casts.emplace_back(type, caster);
}
};
inline function_call::function_call(const function_record &f, handle p) :
func(f), parent(p) {
args.reserve(f.nargs);
args_convert.reserve(f.nargs);
}
/// Tag for a new-style `__init__` defined in `detail/init.h`
struct is_new_style_constructor { };
/**
* Partial template specializations to process custom attributes provided to
* cpp_function_ and class_. These are either used to initialize the respective
* fields in the type_record and function_record data structures or executed at
* runtime to deal with custom call policies (e.g. keep_alive).
*/
template <typename T, typename SFINAE = void> struct process_attribute;
template <typename T> struct process_attribute_default {
/// Default implementation: do nothing
static void init(const T &, function_record *) { }
static void init(const T &, type_record *) { }
static void precall(function_call &) { }
static void postcall(function_call &, handle) { }
};
/// Process an attribute specifying the function's name
template <> struct process_attribute<name> : process_attribute_default<name> {
static void init(const name &n, function_record *r) { r->name = const_cast<char *>(n.value); }
};
/// Process an attribute specifying the function's docstring
template <> struct process_attribute<doc> : process_attribute_default<doc> {
static void init(const doc &n, function_record *r) { r->doc = const_cast<char *>(n.value); }
};
/// Process an attribute specifying the function's docstring (provided as a C-style string)
template <> struct process_attribute<const char *> : process_attribute_default<const char *> {
static void init(const char *d, function_record *r) { r->doc = const_cast<char *>(d); }
static void init(const char *d, type_record *r) { r->doc = const_cast<char *>(d); }
};
template <> struct process_attribute<char *> : process_attribute<const char *> { };
/// Process an attribute indicating the function's return value policy
template <> struct process_attribute<return_value_policy> : process_attribute_default<return_value_policy> {
static void init(const return_value_policy &p, function_record *r) { r->policy = p; }
};
/// Process an attribute which indicates that this is an overloaded function associated with a given sibling
template <> struct process_attribute<sibling> : process_attribute_default<sibling> {
static void init(const sibling &s, function_record *r) { r->sibling = s.value; }
};
/// Process an attribute which indicates that this function is a method
template <> struct process_attribute<is_method> : process_attribute_default<is_method> {
static void init(const is_method &s, function_record *r) { r->is_method = true; r->scope = s.class_; }
};
/// Process an attribute which indicates the parent scope of a method
template <> struct process_attribute<scope> : process_attribute_default<scope> {
static void init(const scope &s, function_record *r) { r->scope = s.value; }
};
/// Process an attribute which indicates that this function is an operator
template <> struct process_attribute<is_operator> : process_attribute_default<is_operator> {
static void init(const is_operator &, function_record *r) { r->is_operator = true; }
};
template <> struct process_attribute<is_new_style_constructor> : process_attribute_default<is_new_style_constructor> {
static void init(const is_new_style_constructor &, function_record *r) { r->is_new_style_constructor = true; }
};
inline void process_kw_only_arg(const arg &a, function_record *r) {
if (!a.name || strlen(a.name) == 0)
pybind11_fail("arg(): cannot specify an unnamed argument after an kw_only() annotation");
++r->nargs_kw_only;
}
/// Process a keyword argument attribute (*without* a default value)
template <> struct process_attribute<arg> : process_attribute_default<arg> {
static void init(const arg &a, function_record *r) {
if (r->is_method && r->args.empty())
r->args.emplace_back("self", nullptr, handle(), true /*convert*/, false /*none not allowed*/);
r->args.emplace_back(a.name, nullptr, handle(), !a.flag_noconvert, a.flag_none);
if (r->has_kw_only_args) process_kw_only_arg(a, r);
}
};
/// Process a keyword argument attribute (*with* a default value)
template <> struct process_attribute<arg_v> : process_attribute_default<arg_v> {
static void init(const arg_v &a, function_record *r) {
if (r->is_method && r->args.empty())
r->args.emplace_back("self", nullptr /*descr*/, handle() /*parent*/, true /*convert*/, false /*none not allowed*/);
if (!a.value) {
#if !defined(NDEBUG)
std::string descr("'");
if (a.name) descr += std::string(a.name) + ": ";
descr += a.type + "'";
if (r->is_method) {
if (r->name)
descr += " in method '" + (std::string) str(r->scope) + "." + (std::string) r->name + "'";
else
descr += " in method of '" + (std::string) str(r->scope) + "'";
} else if (r->name) {
descr += " in function '" + (std::string) r->name + "'";
}
pybind11_fail("arg(): could not convert default argument "
+ descr + " into a Python object (type not registered yet?)");
#else
pybind11_fail("arg(): could not convert default argument "
"into a Python object (type not registered yet?). "
"Compile in debug mode for more information.");
#endif
}
r->args.emplace_back(a.name, a.descr, a.value.inc_ref(), !a.flag_noconvert, a.flag_none);
if (r->has_kw_only_args) process_kw_only_arg(a, r);
}
};
/// Process a keyword-only-arguments-follow pseudo argument
template <> struct process_attribute<kw_only> : process_attribute_default<kw_only> {
static void init(const kw_only &, function_record *r) {
r->has_kw_only_args = true;
}
};
/// Process a positional-only-argument maker
template <> struct process_attribute<pos_only> : process_attribute_default<pos_only> {
static void init(const pos_only &, function_record *r) {
r->nargs_pos_only = static_cast<std::uint16_t>(r->args.size());
}
};
/// Process a parent class attribute. Single inheritance only (class_ itself already guarantees that)
template <typename T>
struct process_attribute<T, enable_if_t<is_pyobject<T>::value>> : process_attribute_default<handle> {
static void init(const handle &h, type_record *r) { r->bases.append(h); }
};
/// Process a parent class attribute (deprecated, does not support multiple inheritance)
template <typename T>
struct process_attribute<base<T>> : process_attribute_default<base<T>> {
static void init(const base<T> &, type_record *r) { r->add_base(typeid(T), nullptr); }
};
/// Process a multiple inheritance attribute
template <>
struct process_attribute<multiple_inheritance> : process_attribute_default<multiple_inheritance> {
static void init(const multiple_inheritance &, type_record *r) { r->multiple_inheritance = true; }
};
template <>
struct process_attribute<dynamic_attr> : process_attribute_default<dynamic_attr> {
static void init(const dynamic_attr &, type_record *r) { r->dynamic_attr = true; }
};
template <>
struct process_attribute<is_final> : process_attribute_default<is_final> {
static void init(const is_final &, type_record *r) { r->is_final = true; }
};
template <>
struct process_attribute<buffer_protocol> : process_attribute_default<buffer_protocol> {
static void init(const buffer_protocol &, type_record *r) { r->buffer_protocol = true; }
};
template <>
struct process_attribute<metaclass> : process_attribute_default<metaclass> {
static void init(const metaclass &m, type_record *r) { r->metaclass = m.value; }
};
template <>
struct process_attribute<module_local> : process_attribute_default<module_local> {
static void init(const module_local &l, type_record *r) { r->module_local = l.value; }
};
/// Process a 'prepend' attribute, putting this at the beginning of the overload chain
template <>
struct process_attribute<prepend> : process_attribute_default<prepend> {
static void init(const prepend &, function_record *r) { r->prepend = true; }
};
/// Process an 'arithmetic' attribute for enums (does nothing here)
template <>
struct process_attribute<arithmetic> : process_attribute_default<arithmetic> {};
template <typename... Ts>
struct process_attribute<call_guard<Ts...>> : process_attribute_default<call_guard<Ts...>> { };
/**
* Process a keep_alive call policy -- invokes keep_alive_impl during the
* pre-call handler if both Nurse, Patient != 0 and use the post-call handler
* otherwise
*/
template <size_t Nurse, size_t Patient> struct process_attribute<keep_alive<Nurse, Patient>> : public process_attribute_default<keep_alive<Nurse, Patient>> {
template <size_t N = Nurse, size_t P = Patient, enable_if_t<N != 0 && P != 0, int> = 0>
static void precall(function_call &call) { keep_alive_impl(Nurse, Patient, call, handle()); }
template <size_t N = Nurse, size_t P = Patient, enable_if_t<N != 0 && P != 0, int> = 0>
static void postcall(function_call &, handle) { }
template <size_t N = Nurse, size_t P = Patient, enable_if_t<N == 0 || P == 0, int> = 0>
static void precall(function_call &) { }
template <size_t N = Nurse, size_t P = Patient, enable_if_t<N == 0 || P == 0, int> = 0>
static void postcall(function_call &call, handle ret) { keep_alive_impl(Nurse, Patient, call, ret); }
};
/// Recursively iterate over variadic template arguments
template <typename... Args> struct process_attributes {
static void init(const Args&... args, function_record *r) {
int unused[] = { 0, (process_attribute<typename std::decay<Args>::type>::init(args, r), 0) ... };
ignore_unused(unused);
}
static void init(const Args&... args, type_record *r) {
int unused[] = { 0, (process_attribute<typename std::decay<Args>::type>::init(args, r), 0) ... };
ignore_unused(unused);
}
static void precall(function_call &call) {
int unused[] = { 0, (process_attribute<typename std::decay<Args>::type>::precall(call), 0) ... };
ignore_unused(unused);
}
static void postcall(function_call &call, handle fn_ret) {
int unused[] = { 0, (process_attribute<typename std::decay<Args>::type>::postcall(call, fn_ret), 0) ... };
ignore_unused(unused);
}
};
template <typename T>
using is_call_guard = is_instantiation<call_guard, T>;
/// Extract the ``type`` from the first `call_guard` in `Extras...` (or `void_type` if none found)
template <typename... Extra>
using extract_guard_t = typename exactly_one_t<is_call_guard, call_guard<>, Extra...>::type;
/// Check the number of named arguments at compile time
template <typename... Extra,
size_t named = constexpr_sum(std::is_base_of<arg, Extra>::value...),
size_t self = constexpr_sum(std::is_same<is_method, Extra>::value...)>
constexpr bool expected_num_args(size_t nargs, bool has_args, bool has_kwargs) {
return named == 0 || (self + named + size_t(has_args) + size_t(has_kwargs)) == nargs;
}
PYBIND11_NAMESPACE_END(detail)
PYBIND11_NAMESPACE_END(PYBIND11_NAMESPACE)

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/*
pybind11/buffer_info.h: Python buffer object interface
Copyright (c) 2016 Wenzel Jakob <wenzel.jakob@epfl.ch>
All rights reserved. Use of this source code is governed by a
BSD-style license that can be found in the LICENSE file.
*/
#pragma once
#include "detail/common.h"
PYBIND11_NAMESPACE_BEGIN(PYBIND11_NAMESPACE)
PYBIND11_NAMESPACE_BEGIN(detail)
// Default, C-style strides
inline std::vector<ssize_t> c_strides(const std::vector<ssize_t> &shape, ssize_t itemsize) {
auto ndim = shape.size();
std::vector<ssize_t> strides(ndim, itemsize);
if (ndim > 0)
for (size_t i = ndim - 1; i > 0; --i)
strides[i - 1] = strides[i] * shape[i];
return strides;
}
// F-style strides; default when constructing an array_t with `ExtraFlags & f_style`
inline std::vector<ssize_t> f_strides(const std::vector<ssize_t> &shape, ssize_t itemsize) {
auto ndim = shape.size();
std::vector<ssize_t> strides(ndim, itemsize);
for (size_t i = 1; i < ndim; ++i)
strides[i] = strides[i - 1] * shape[i - 1];
return strides;
}
PYBIND11_NAMESPACE_END(detail)
/// Information record describing a Python buffer object
struct buffer_info {
void *ptr = nullptr; // Pointer to the underlying storage
ssize_t itemsize = 0; // Size of individual items in bytes
ssize_t size = 0; // Total number of entries
std::string format; // For homogeneous buffers, this should be set to format_descriptor<T>::format()
ssize_t ndim = 0; // Number of dimensions
std::vector<ssize_t> shape; // Shape of the tensor (1 entry per dimension)
std::vector<ssize_t> strides; // Number of bytes between adjacent entries (for each per dimension)
bool readonly = false; // flag to indicate if the underlying storage may be written to
buffer_info() = default;
buffer_info(void *ptr, ssize_t itemsize, const std::string &format, ssize_t ndim,
detail::any_container<ssize_t> shape_in, detail::any_container<ssize_t> strides_in, bool readonly=false)
: ptr(ptr), itemsize(itemsize), size(1), format(format), ndim(ndim),
shape(std::move(shape_in)), strides(std::move(strides_in)), readonly(readonly) {
if (ndim != (ssize_t) shape.size() || ndim != (ssize_t) strides.size())
pybind11_fail("buffer_info: ndim doesn't match shape and/or strides length");
for (size_t i = 0; i < (size_t) ndim; ++i)
size *= shape[i];
}
template <typename T>
buffer_info(T *ptr, detail::any_container<ssize_t> shape_in, detail::any_container<ssize_t> strides_in, bool readonly=false)
: buffer_info(private_ctr_tag(), ptr, sizeof(T), format_descriptor<T>::format(), static_cast<ssize_t>(shape_in->size()), std::move(shape_in), std::move(strides_in), readonly) { }
buffer_info(void *ptr, ssize_t itemsize, const std::string &format, ssize_t size, bool readonly=false)
: buffer_info(ptr, itemsize, format, 1, {size}, {itemsize}, readonly) { }
template <typename T>
buffer_info(T *ptr, ssize_t size, bool readonly=false)
: buffer_info(ptr, sizeof(T), format_descriptor<T>::format(), size, readonly) { }
template <typename T>
buffer_info(const T *ptr, ssize_t size, bool readonly=true)
: buffer_info(const_cast<T*>(ptr), sizeof(T), format_descriptor<T>::format(), size, readonly) { }
explicit buffer_info(Py_buffer *view, bool ownview = true)
: buffer_info(view->buf, view->itemsize, view->format, view->ndim,
{view->shape, view->shape + view->ndim},
/* Though buffer::request() requests PyBUF_STRIDES, ctypes objects
* ignore this flag and return a view with NULL strides.
* When strides are NULL, build them manually. */
view->strides
? std::vector<ssize_t>(view->strides, view->strides + view->ndim)
: detail::c_strides({view->shape, view->shape + view->ndim}, view->itemsize),
view->readonly) {
this->m_view = view;
this->ownview = ownview;
}
buffer_info(const buffer_info &) = delete;
buffer_info& operator=(const buffer_info &) = delete;
buffer_info(buffer_info &&other) {
(*this) = std::move(other);
}
buffer_info& operator=(buffer_info &&rhs) {
ptr = rhs.ptr;
itemsize = rhs.itemsize;
size = rhs.size;
format = std::move(rhs.format);
ndim = rhs.ndim;
shape = std::move(rhs.shape);
strides = std::move(rhs.strides);
std::swap(m_view, rhs.m_view);
std::swap(ownview, rhs.ownview);
readonly = rhs.readonly;
return *this;
}
~buffer_info() {
if (m_view && ownview) { PyBuffer_Release(m_view); delete m_view; }
}
Py_buffer *view() const { return m_view; }
Py_buffer *&view() { return m_view; }
private:
struct private_ctr_tag { };
buffer_info(private_ctr_tag, void *ptr, ssize_t itemsize, const std::string &format, ssize_t ndim,
detail::any_container<ssize_t> &&shape_in, detail::any_container<ssize_t> &&strides_in, bool readonly)
: buffer_info(ptr, itemsize, format, ndim, std::move(shape_in), std::move(strides_in), readonly) { }
Py_buffer *m_view = nullptr;
bool ownview = false;
};
PYBIND11_NAMESPACE_BEGIN(detail)
template <typename T, typename SFINAE = void> struct compare_buffer_info {
static bool compare(const buffer_info& b) {
return b.format == format_descriptor<T>::format() && b.itemsize == (ssize_t) sizeof(T);
}
};
template <typename T> struct compare_buffer_info<T, detail::enable_if_t<std::is_integral<T>::value>> {
static bool compare(const buffer_info& b) {
return (size_t) b.itemsize == sizeof(T) && (b.format == format_descriptor<T>::value ||
((sizeof(T) == sizeof(long)) && b.format == (std::is_unsigned<T>::value ? "L" : "l")) ||
((sizeof(T) == sizeof(size_t)) && b.format == (std::is_unsigned<T>::value ? "N" : "n")));
}
};
PYBIND11_NAMESPACE_END(detail)
PYBIND11_NAMESPACE_END(PYBIND11_NAMESPACE)

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/*
pybind11/chrono.h: Transparent conversion between std::chrono and python's datetime
Copyright (c) 2016 Trent Houliston <trent@houliston.me> and
Wenzel Jakob <wenzel.jakob@epfl.ch>
All rights reserved. Use of this source code is governed by a
BSD-style license that can be found in the LICENSE file.
*/
#pragma once
#include "pybind11.h"
#include <cmath>
#include <ctime>
#include <chrono>
#include <datetime.h>
// Backport the PyDateTime_DELTA functions from Python3.3 if required
#ifndef PyDateTime_DELTA_GET_DAYS
#define PyDateTime_DELTA_GET_DAYS(o) (((PyDateTime_Delta*)o)->days)
#endif
#ifndef PyDateTime_DELTA_GET_SECONDS
#define PyDateTime_DELTA_GET_SECONDS(o) (((PyDateTime_Delta*)o)->seconds)
#endif
#ifndef PyDateTime_DELTA_GET_MICROSECONDS
#define PyDateTime_DELTA_GET_MICROSECONDS(o) (((PyDateTime_Delta*)o)->microseconds)
#endif
PYBIND11_NAMESPACE_BEGIN(PYBIND11_NAMESPACE)
PYBIND11_NAMESPACE_BEGIN(detail)
template <typename type> class duration_caster {
public:
using rep = typename type::rep;
using period = typename type::period;
using days = std::chrono::duration<uint_fast32_t, std::ratio<86400>>;
bool load(handle src, bool) {
using namespace std::chrono;
// Lazy initialise the PyDateTime import
if (!PyDateTimeAPI) { PyDateTime_IMPORT; }
if (!src) return false;
// If invoked with datetime.delta object
if (PyDelta_Check(src.ptr())) {
value = type(duration_cast<duration<rep, period>>(
days(PyDateTime_DELTA_GET_DAYS(src.ptr()))
+ seconds(PyDateTime_DELTA_GET_SECONDS(src.ptr()))
+ microseconds(PyDateTime_DELTA_GET_MICROSECONDS(src.ptr()))));
return true;
}
// If invoked with a float we assume it is seconds and convert
else if (PyFloat_Check(src.ptr())) {
value = type(duration_cast<duration<rep, period>>(duration<double>(PyFloat_AsDouble(src.ptr()))));
return true;
}
else return false;
}
// If this is a duration just return it back
static const std::chrono::duration<rep, period>& get_duration(const std::chrono::duration<rep, period> &src) {
return src;
}
// If this is a time_point get the time_since_epoch
template <typename Clock> static std::chrono::duration<rep, period> get_duration(const std::chrono::time_point<Clock, std::chrono::duration<rep, period>> &src) {
return src.time_since_epoch();
}
static handle cast(const type &src, return_value_policy /* policy */, handle /* parent */) {
using namespace std::chrono;
// Use overloaded function to get our duration from our source
// Works out if it is a duration or time_point and get the duration
auto d = get_duration(src);
// Lazy initialise the PyDateTime import
if (!PyDateTimeAPI) { PyDateTime_IMPORT; }
// Declare these special duration types so the conversions happen with the correct primitive types (int)
using dd_t = duration<int, std::ratio<86400>>;
using ss_t = duration<int, std::ratio<1>>;
using us_t = duration<int, std::micro>;
auto dd = duration_cast<dd_t>(d);
auto subd = d - dd;
auto ss = duration_cast<ss_t>(subd);
auto us = duration_cast<us_t>(subd - ss);
return PyDelta_FromDSU(dd.count(), ss.count(), us.count());
}
PYBIND11_TYPE_CASTER(type, _("datetime.timedelta"));
};
// This is for casting times on the system clock into datetime.datetime instances
template <typename Duration> class type_caster<std::chrono::time_point<std::chrono::system_clock, Duration>> {
public:
using type = std::chrono::time_point<std::chrono::system_clock, Duration>;
bool load(handle src, bool) {
using namespace std::chrono;
// Lazy initialise the PyDateTime import
if (!PyDateTimeAPI) { PyDateTime_IMPORT; }
if (!src) return false;
std::tm cal;
microseconds msecs;
if (PyDateTime_Check(src.ptr())) {
cal.tm_sec = PyDateTime_DATE_GET_SECOND(src.ptr());
cal.tm_min = PyDateTime_DATE_GET_MINUTE(src.ptr());
cal.tm_hour = PyDateTime_DATE_GET_HOUR(src.ptr());
cal.tm_mday = PyDateTime_GET_DAY(src.ptr());
cal.tm_mon = PyDateTime_GET_MONTH(src.ptr()) - 1;
cal.tm_year = PyDateTime_GET_YEAR(src.ptr()) - 1900;
cal.tm_isdst = -1;
msecs = microseconds(PyDateTime_DATE_GET_MICROSECOND(src.ptr()));
} else if (PyDate_Check(src.ptr())) {
cal.tm_sec = 0;
cal.tm_min = 0;
cal.tm_hour = 0;
cal.tm_mday = PyDateTime_GET_DAY(src.ptr());
cal.tm_mon = PyDateTime_GET_MONTH(src.ptr()) - 1;
cal.tm_year = PyDateTime_GET_YEAR(src.ptr()) - 1900;
cal.tm_isdst = -1;
msecs = microseconds(0);
} else if (PyTime_Check(src.ptr())) {
cal.tm_sec = PyDateTime_TIME_GET_SECOND(src.ptr());
cal.tm_min = PyDateTime_TIME_GET_MINUTE(src.ptr());
cal.tm_hour = PyDateTime_TIME_GET_HOUR(src.ptr());
cal.tm_mday = 1; // This date (day, month, year) = (1, 0, 70)
cal.tm_mon = 0; // represents 1-Jan-1970, which is the first
cal.tm_year = 70; // earliest available date for Python's datetime
cal.tm_isdst = -1;
msecs = microseconds(PyDateTime_TIME_GET_MICROSECOND(src.ptr()));
}
else return false;
value = time_point_cast<Duration>(system_clock::from_time_t(std::mktime(&cal)) + msecs);
return true;
}
static handle cast(const std::chrono::time_point<std::chrono::system_clock, Duration> &src, return_value_policy /* policy */, handle /* parent */) {
using namespace std::chrono;
// Lazy initialise the PyDateTime import
if (!PyDateTimeAPI) { PyDateTime_IMPORT; }
// Get out microseconds, and make sure they are positive, to avoid bug in eastern hemisphere time zones
// (cfr. https://github.com/pybind/pybind11/issues/2417)
using us_t = duration<int, std::micro>;
auto us = duration_cast<us_t>(src.time_since_epoch() % seconds(1));
if (us.count() < 0)
us += seconds(1);
// Subtract microseconds BEFORE `system_clock::to_time_t`, because:
// > If std::time_t has lower precision, it is implementation-defined whether the value is rounded or truncated.
// (https://en.cppreference.com/w/cpp/chrono/system_clock/to_time_t)
std::time_t tt = system_clock::to_time_t(time_point_cast<system_clock::duration>(src - us));
// std::localtime returns a pointer to a static internal std::tm object on success,
// or null pointer otherwise
std::tm *localtime_ptr = std::localtime(&tt);
if (!localtime_ptr)
throw cast_error("Unable to represent system_clock in local time");
// this function uses static memory so it's best to copy it out asap just in case
// otherwise other code that is using localtime may break this (not just python code)
std::tm localtime = *localtime_ptr;
return PyDateTime_FromDateAndTime(localtime.tm_year + 1900,
localtime.tm_mon + 1,
localtime.tm_mday,
localtime.tm_hour,
localtime.tm_min,
localtime.tm_sec,
us.count());
}
PYBIND11_TYPE_CASTER(type, _("datetime.datetime"));
};
// Other clocks that are not the system clock are not measured as datetime.datetime objects
// since they are not measured on calendar time. So instead we just make them timedeltas
// Or if they have passed us a time as a float we convert that
template <typename Clock, typename Duration> class type_caster<std::chrono::time_point<Clock, Duration>>
: public duration_caster<std::chrono::time_point<Clock, Duration>> {
};
template <typename Rep, typename Period> class type_caster<std::chrono::duration<Rep, Period>>
: public duration_caster<std::chrono::duration<Rep, Period>> {
};
PYBIND11_NAMESPACE_END(detail)
PYBIND11_NAMESPACE_END(PYBIND11_NAMESPACE)

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#include "detail/common.h"
#warning "Including 'common.h' is deprecated. It will be removed in v3.0. Use 'pybind11.h'."

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/*
pybind11/complex.h: Complex number support
Copyright (c) 2016 Wenzel Jakob <wenzel.jakob@epfl.ch>
All rights reserved. Use of this source code is governed by a
BSD-style license that can be found in the LICENSE file.
*/
#pragma once
#include "pybind11.h"
#include <complex>
/// glibc defines I as a macro which breaks things, e.g., boost template names
#ifdef I
# undef I
#endif
PYBIND11_NAMESPACE_BEGIN(PYBIND11_NAMESPACE)
template <typename T> struct format_descriptor<std::complex<T>, detail::enable_if_t<std::is_floating_point<T>::value>> {
static constexpr const char c = format_descriptor<T>::c;
static constexpr const char value[3] = { 'Z', c, '\0' };
static std::string format() { return std::string(value); }
};
#ifndef PYBIND11_CPP17
template <typename T> constexpr const char format_descriptor<
std::complex<T>, detail::enable_if_t<std::is_floating_point<T>::value>>::value[3];
#endif
PYBIND11_NAMESPACE_BEGIN(detail)
template <typename T> struct is_fmt_numeric<std::complex<T>, detail::enable_if_t<std::is_floating_point<T>::value>> {
static constexpr bool value = true;
static constexpr int index = is_fmt_numeric<T>::index + 3;
};
template <typename T> class type_caster<std::complex<T>> {
public:
bool load(handle src, bool convert) {
if (!src)
return false;
if (!convert && !PyComplex_Check(src.ptr()))
return false;
Py_complex result = PyComplex_AsCComplex(src.ptr());
if (result.real == -1.0 && PyErr_Occurred()) {
PyErr_Clear();
return false;
}
value = std::complex<T>((T) result.real, (T) result.imag);
return true;
}
static handle cast(const std::complex<T> &src, return_value_policy /* policy */, handle /* parent */) {
return PyComplex_FromDoubles((double) src.real(), (double) src.imag());
}
PYBIND11_TYPE_CASTER(std::complex<T>, _("complex"));
};
PYBIND11_NAMESPACE_END(detail)
PYBIND11_NAMESPACE_END(PYBIND11_NAMESPACE)

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/*
pybind11/detail/class.h: Python C API implementation details for py::class_
Copyright (c) 2017 Wenzel Jakob <wenzel.jakob@epfl.ch>
All rights reserved. Use of this source code is governed by a
BSD-style license that can be found in the LICENSE file.
*/
#pragma once
#include "../attr.h"
#include "../options.h"
PYBIND11_NAMESPACE_BEGIN(PYBIND11_NAMESPACE)
PYBIND11_NAMESPACE_BEGIN(detail)
#if PY_VERSION_HEX >= 0x03030000 && !defined(PYPY_VERSION)
# define PYBIND11_BUILTIN_QUALNAME
# define PYBIND11_SET_OLDPY_QUALNAME(obj, nameobj)
#else
// In pre-3.3 Python, we still set __qualname__ so that we can produce reliable function type
// signatures; in 3.3+ this macro expands to nothing:
# define PYBIND11_SET_OLDPY_QUALNAME(obj, nameobj) setattr((PyObject *) obj, "__qualname__", nameobj)
#endif
inline std::string get_fully_qualified_tp_name(PyTypeObject *type) {
#if !defined(PYPY_VERSION)
return type->tp_name;
#else
auto module_name = handle((PyObject *) type).attr("__module__").cast<std::string>();
if (module_name == PYBIND11_BUILTINS_MODULE)
return type->tp_name;
else
return std::move(module_name) + "." + type->tp_name;
#endif
}
inline PyTypeObject *type_incref(PyTypeObject *type) {
Py_INCREF(type);
return type;
}
#if !defined(PYPY_VERSION)
/// `pybind11_static_property.__get__()`: Always pass the class instead of the instance.
extern "C" inline PyObject *pybind11_static_get(PyObject *self, PyObject * /*ob*/, PyObject *cls) {
return PyProperty_Type.tp_descr_get(self, cls, cls);
}
/// `pybind11_static_property.__set__()`: Just like the above `__get__()`.
extern "C" inline int pybind11_static_set(PyObject *self, PyObject *obj, PyObject *value) {
PyObject *cls = PyType_Check(obj) ? obj : (PyObject *) Py_TYPE(obj);
return PyProperty_Type.tp_descr_set(self, cls, value);
}
/** A `static_property` is the same as a `property` but the `__get__()` and `__set__()`
methods are modified to always use the object type instead of a concrete instance.
Return value: New reference. */
inline PyTypeObject *make_static_property_type() {
constexpr auto *name = "pybind11_static_property";
auto name_obj = reinterpret_steal<object>(PYBIND11_FROM_STRING(name));
/* Danger zone: from now (and until PyType_Ready), make sure to
issue no Python C API calls which could potentially invoke the
garbage collector (the GC will call type_traverse(), which will in
turn find the newly constructed type in an invalid state) */
auto heap_type = (PyHeapTypeObject *) PyType_Type.tp_alloc(&PyType_Type, 0);
if (!heap_type)
pybind11_fail("make_static_property_type(): error allocating type!");
heap_type->ht_name = name_obj.inc_ref().ptr();
#ifdef PYBIND11_BUILTIN_QUALNAME
heap_type->ht_qualname = name_obj.inc_ref().ptr();
#endif
auto type = &heap_type->ht_type;
type->tp_name = name;
type->tp_base = type_incref(&PyProperty_Type);
type->tp_flags = Py_TPFLAGS_DEFAULT | Py_TPFLAGS_BASETYPE | Py_TPFLAGS_HEAPTYPE;
type->tp_descr_get = pybind11_static_get;
type->tp_descr_set = pybind11_static_set;
if (PyType_Ready(type) < 0)
pybind11_fail("make_static_property_type(): failure in PyType_Ready()!");
setattr((PyObject *) type, "__module__", str("pybind11_builtins"));
PYBIND11_SET_OLDPY_QUALNAME(type, name_obj);
return type;
}
#else // PYPY
/** PyPy has some issues with the above C API, so we evaluate Python code instead.
This function will only be called once so performance isn't really a concern.
Return value: New reference. */
inline PyTypeObject *make_static_property_type() {
auto d = dict();
PyObject *result = PyRun_String(R"(\
class pybind11_static_property(property):
def __get__(self, obj, cls):
return property.__get__(self, cls, cls)
def __set__(self, obj, value):
cls = obj if isinstance(obj, type) else type(obj)
property.__set__(self, cls, value)
)", Py_file_input, d.ptr(), d.ptr()
);
if (result == nullptr)
throw error_already_set();
Py_DECREF(result);
return (PyTypeObject *) d["pybind11_static_property"].cast<object>().release().ptr();
}
#endif // PYPY
/** Types with static properties need to handle `Type.static_prop = x` in a specific way.
By default, Python replaces the `static_property` itself, but for wrapped C++ types
we need to call `static_property.__set__()` in order to propagate the new value to
the underlying C++ data structure. */
extern "C" inline int pybind11_meta_setattro(PyObject* obj, PyObject* name, PyObject* value) {
// Use `_PyType_Lookup()` instead of `PyObject_GetAttr()` in order to get the raw
// descriptor (`property`) instead of calling `tp_descr_get` (`property.__get__()`).
PyObject *descr = _PyType_Lookup((PyTypeObject *) obj, name);
// The following assignment combinations are possible:
// 1. `Type.static_prop = value` --> descr_set: `Type.static_prop.__set__(value)`
// 2. `Type.static_prop = other_static_prop` --> setattro: replace existing `static_prop`
// 3. `Type.regular_attribute = value` --> setattro: regular attribute assignment
const auto static_prop = (PyObject *) get_internals().static_property_type;
const auto call_descr_set = descr && value && PyObject_IsInstance(descr, static_prop)
&& !PyObject_IsInstance(value, static_prop);
if (call_descr_set) {
// Call `static_property.__set__()` instead of replacing the `static_property`.
#if !defined(PYPY_VERSION)
return Py_TYPE(descr)->tp_descr_set(descr, obj, value);
#else
if (PyObject *result = PyObject_CallMethod(descr, "__set__", "OO", obj, value)) {
Py_DECREF(result);
return 0;
} else {
return -1;
}
#endif
} else {
// Replace existing attribute.
return PyType_Type.tp_setattro(obj, name, value);
}
}
#if PY_MAJOR_VERSION >= 3
/**
* Python 3's PyInstanceMethod_Type hides itself via its tp_descr_get, which prevents aliasing
* methods via cls.attr("m2") = cls.attr("m1"): instead the tp_descr_get returns a plain function,
* when called on a class, or a PyMethod, when called on an instance. Override that behaviour here
* to do a special case bypass for PyInstanceMethod_Types.
*/
extern "C" inline PyObject *pybind11_meta_getattro(PyObject *obj, PyObject *name) {
PyObject *descr = _PyType_Lookup((PyTypeObject *) obj, name);
if (descr && PyInstanceMethod_Check(descr)) {
Py_INCREF(descr);
return descr;
}
else {
return PyType_Type.tp_getattro(obj, name);
}
}
#endif
/// metaclass `__call__` function that is used to create all pybind11 objects.
extern "C" inline PyObject *pybind11_meta_call(PyObject *type, PyObject *args, PyObject *kwargs) {
// use the default metaclass call to create/initialize the object
PyObject *self = PyType_Type.tp_call(type, args, kwargs);
if (self == nullptr) {
return nullptr;
}
// This must be a pybind11 instance
auto instance = reinterpret_cast<detail::instance *>(self);
// Ensure that the base __init__ function(s) were called
for (const auto &vh : values_and_holders(instance)) {
if (!vh.holder_constructed()) {
PyErr_Format(PyExc_TypeError, "%.200s.__init__() must be called when overriding __init__",
get_fully_qualified_tp_name(vh.type->type).c_str());
Py_DECREF(self);
return nullptr;
}
}
return self;
}
/// Cleanup the type-info for a pybind11-registered type.
extern "C" inline void pybind11_meta_dealloc(PyObject *obj) {
auto *type = (PyTypeObject *) obj;
auto &internals = get_internals();
// A pybind11-registered type will:
// 1) be found in internals.registered_types_py
// 2) have exactly one associated `detail::type_info`
auto found_type = internals.registered_types_py.find(type);
if (found_type != internals.registered_types_py.end() &&
found_type->second.size() == 1 &&
found_type->second[0]->type == type) {
auto *tinfo = found_type->second[0];
auto tindex = std::type_index(*tinfo->cpptype);
internals.direct_conversions.erase(tindex);
if (tinfo->module_local)
registered_local_types_cpp().erase(tindex);
else
internals.registered_types_cpp.erase(tindex);
internals.registered_types_py.erase(tinfo->type);
// Actually just `std::erase_if`, but that's only available in C++20
auto &cache = internals.inactive_override_cache;
for (auto it = cache.begin(), last = cache.end(); it != last; ) {
if (it->first == (PyObject *) tinfo->type)
it = cache.erase(it);
else
++it;
}
delete tinfo;
}
PyType_Type.tp_dealloc(obj);
}
/** This metaclass is assigned by default to all pybind11 types and is required in order
for static properties to function correctly. Users may override this using `py::metaclass`.
Return value: New reference. */
inline PyTypeObject* make_default_metaclass() {
constexpr auto *name = "pybind11_type";
auto name_obj = reinterpret_steal<object>(PYBIND11_FROM_STRING(name));
/* Danger zone: from now (and until PyType_Ready), make sure to
issue no Python C API calls which could potentially invoke the
garbage collector (the GC will call type_traverse(), which will in
turn find the newly constructed type in an invalid state) */
auto heap_type = (PyHeapTypeObject *) PyType_Type.tp_alloc(&PyType_Type, 0);
if (!heap_type)
pybind11_fail("make_default_metaclass(): error allocating metaclass!");
heap_type->ht_name = name_obj.inc_ref().ptr();
#ifdef PYBIND11_BUILTIN_QUALNAME
heap_type->ht_qualname = name_obj.inc_ref().ptr();
#endif
auto type = &heap_type->ht_type;
type->tp_name = name;
type->tp_base = type_incref(&PyType_Type);
type->tp_flags = Py_TPFLAGS_DEFAULT | Py_TPFLAGS_BASETYPE | Py_TPFLAGS_HEAPTYPE;
type->tp_call = pybind11_meta_call;
type->tp_setattro = pybind11_meta_setattro;
#if PY_MAJOR_VERSION >= 3
type->tp_getattro = pybind11_meta_getattro;
#endif
type->tp_dealloc = pybind11_meta_dealloc;
if (PyType_Ready(type) < 0)
pybind11_fail("make_default_metaclass(): failure in PyType_Ready()!");
setattr((PyObject *) type, "__module__", str("pybind11_builtins"));
PYBIND11_SET_OLDPY_QUALNAME(type, name_obj);
return type;
}
/// For multiple inheritance types we need to recursively register/deregister base pointers for any
/// base classes with pointers that are difference from the instance value pointer so that we can
/// correctly recognize an offset base class pointer. This calls a function with any offset base ptrs.
inline void traverse_offset_bases(void *valueptr, const detail::type_info *tinfo, instance *self,
bool (*f)(void * /*parentptr*/, instance * /*self*/)) {
for (handle h : reinterpret_borrow<tuple>(tinfo->type->tp_bases)) {
if (auto parent_tinfo = get_type_info((PyTypeObject *) h.ptr())) {
for (auto &c : parent_tinfo->implicit_casts) {
if (c.first == tinfo->cpptype) {
auto *parentptr = c.second(valueptr);
if (parentptr != valueptr)
f(parentptr, self);
traverse_offset_bases(parentptr, parent_tinfo, self, f);
break;
}
}
}
}
}
inline bool register_instance_impl(void *ptr, instance *self) {
get_internals().registered_instances.emplace(ptr, self);
return true; // unused, but gives the same signature as the deregister func
}
inline bool deregister_instance_impl(void *ptr, instance *self) {
auto &registered_instances = get_internals().registered_instances;
auto range = registered_instances.equal_range(ptr);
for (auto it = range.first; it != range.second; ++it) {
if (self == it->second) {
registered_instances.erase(it);
return true;
}
}
return false;
}
inline void register_instance(instance *self, void *valptr, const type_info *tinfo) {
register_instance_impl(valptr, self);
if (!tinfo->simple_ancestors)
traverse_offset_bases(valptr, tinfo, self, register_instance_impl);
}
inline bool deregister_instance(instance *self, void *valptr, const type_info *tinfo) {
bool ret = deregister_instance_impl(valptr, self);
if (!tinfo->simple_ancestors)
traverse_offset_bases(valptr, tinfo, self, deregister_instance_impl);
return ret;
}
/// Instance creation function for all pybind11 types. It allocates the internal instance layout for
/// holding C++ objects and holders. Allocation is done lazily (the first time the instance is cast
/// to a reference or pointer), and initialization is done by an `__init__` function.
inline PyObject *make_new_instance(PyTypeObject *type) {
#if defined(PYPY_VERSION)
// PyPy gets tp_basicsize wrong (issue 2482) under multiple inheritance when the first inherited
// object is a a plain Python type (i.e. not derived from an extension type). Fix it.
ssize_t instance_size = static_cast<ssize_t>(sizeof(instance));
if (type->tp_basicsize < instance_size) {
type->tp_basicsize = instance_size;
}
#endif
PyObject *self = type->tp_alloc(type, 0);
auto inst = reinterpret_cast<instance *>(self);
// Allocate the value/holder internals:
inst->allocate_layout();
return self;
}
/// Instance creation function for all pybind11 types. It only allocates space for the
/// C++ object, but doesn't call the constructor -- an `__init__` function must do that.
extern "C" inline PyObject *pybind11_object_new(PyTypeObject *type, PyObject *, PyObject *) {
return make_new_instance(type);
}
/// An `__init__` function constructs the C++ object. Users should provide at least one
/// of these using `py::init` or directly with `.def(__init__, ...)`. Otherwise, the
/// following default function will be used which simply throws an exception.
extern "C" inline int pybind11_object_init(PyObject *self, PyObject *, PyObject *) {
PyTypeObject *type = Py_TYPE(self);
std::string msg = get_fully_qualified_tp_name(type) + ": No constructor defined!";
PyErr_SetString(PyExc_TypeError, msg.c_str());
return -1;
}
inline void add_patient(PyObject *nurse, PyObject *patient) {
auto &internals = get_internals();
auto instance = reinterpret_cast<detail::instance *>(nurse);
instance->has_patients = true;
Py_INCREF(patient);
internals.patients[nurse].push_back(patient);
}
inline void clear_patients(PyObject *self) {
auto instance = reinterpret_cast<detail::instance *>(self);
auto &internals = get_internals();
auto pos = internals.patients.find(self);
assert(pos != internals.patients.end());
// Clearing the patients can cause more Python code to run, which
// can invalidate the iterator. Extract the vector of patients
// from the unordered_map first.
auto patients = std::move(pos->second);
internals.patients.erase(pos);
instance->has_patients = false;
for (PyObject *&patient : patients)
Py_CLEAR(patient);
}
/// Clears all internal data from the instance and removes it from registered instances in
/// preparation for deallocation.
inline void clear_instance(PyObject *self) {
auto instance = reinterpret_cast<detail::instance *>(self);
// Deallocate any values/holders, if present:
for (auto &v_h : values_and_holders(instance)) {
if (v_h) {
// We have to deregister before we call dealloc because, for virtual MI types, we still
// need to be able to get the parent pointers.
if (v_h.instance_registered() && !deregister_instance(instance, v_h.value_ptr(), v_h.type))
pybind11_fail("pybind11_object_dealloc(): Tried to deallocate unregistered instance!");
if (instance->owned || v_h.holder_constructed())
v_h.type->dealloc(v_h);
}
}
// Deallocate the value/holder layout internals:
instance->deallocate_layout();
if (instance->weakrefs)
PyObject_ClearWeakRefs(self);
PyObject **dict_ptr = _PyObject_GetDictPtr(self);
if (dict_ptr)
Py_CLEAR(*dict_ptr);
if (instance->has_patients)
clear_patients(self);
}
/// Instance destructor function for all pybind11 types. It calls `type_info.dealloc`
/// to destroy the C++ object itself, while the rest is Python bookkeeping.
extern "C" inline void pybind11_object_dealloc(PyObject *self) {
clear_instance(self);
auto type = Py_TYPE(self);
type->tp_free(self);
#if PY_VERSION_HEX < 0x03080000
// `type->tp_dealloc != pybind11_object_dealloc` means that we're being called
// as part of a derived type's dealloc, in which case we're not allowed to decref
// the type here. For cross-module compatibility, we shouldn't compare directly
// with `pybind11_object_dealloc`, but with the common one stashed in internals.
auto pybind11_object_type = (PyTypeObject *) get_internals().instance_base;
if (type->tp_dealloc == pybind11_object_type->tp_dealloc)
Py_DECREF(type);
#else
// This was not needed before Python 3.8 (Python issue 35810)
// https://github.com/pybind/pybind11/issues/1946
Py_DECREF(type);
#endif
}
/** Create the type which can be used as a common base for all classes. This is
needed in order to satisfy Python's requirements for multiple inheritance.
Return value: New reference. */
inline PyObject *make_object_base_type(PyTypeObject *metaclass) {
constexpr auto *name = "pybind11_object";
auto name_obj = reinterpret_steal<object>(PYBIND11_FROM_STRING(name));
/* Danger zone: from now (and until PyType_Ready), make sure to
issue no Python C API calls which could potentially invoke the
garbage collector (the GC will call type_traverse(), which will in
turn find the newly constructed type in an invalid state) */
auto heap_type = (PyHeapTypeObject *) metaclass->tp_alloc(metaclass, 0);
if (!heap_type)
pybind11_fail("make_object_base_type(): error allocating type!");
heap_type->ht_name = name_obj.inc_ref().ptr();
#ifdef PYBIND11_BUILTIN_QUALNAME
heap_type->ht_qualname = name_obj.inc_ref().ptr();
#endif
auto type = &heap_type->ht_type;
type->tp_name = name;
type->tp_base = type_incref(&PyBaseObject_Type);
type->tp_basicsize = static_cast<ssize_t>(sizeof(instance));
type->tp_flags = Py_TPFLAGS_DEFAULT | Py_TPFLAGS_BASETYPE | Py_TPFLAGS_HEAPTYPE;
type->tp_new = pybind11_object_new;
type->tp_init = pybind11_object_init;
type->tp_dealloc = pybind11_object_dealloc;
/* Support weak references (needed for the keep_alive feature) */
type->tp_weaklistoffset = offsetof(instance, weakrefs);
if (PyType_Ready(type) < 0)
pybind11_fail("PyType_Ready failed in make_object_base_type():" + error_string());
setattr((PyObject *) type, "__module__", str("pybind11_builtins"));
PYBIND11_SET_OLDPY_QUALNAME(type, name_obj);
assert(!PyType_HasFeature(type, Py_TPFLAGS_HAVE_GC));
return (PyObject *) heap_type;
}
/// dynamic_attr: Support for `d = instance.__dict__`.
extern "C" inline PyObject *pybind11_get_dict(PyObject *self, void *) {
PyObject *&dict = *_PyObject_GetDictPtr(self);
if (!dict)
dict = PyDict_New();
Py_XINCREF(dict);
return dict;
}
/// dynamic_attr: Support for `instance.__dict__ = dict()`.
extern "C" inline int pybind11_set_dict(PyObject *self, PyObject *new_dict, void *) {
if (!PyDict_Check(new_dict)) {
PyErr_Format(PyExc_TypeError, "__dict__ must be set to a dictionary, not a '%.200s'",
get_fully_qualified_tp_name(Py_TYPE(new_dict)).c_str());
return -1;
}
PyObject *&dict = *_PyObject_GetDictPtr(self);
Py_INCREF(new_dict);
Py_CLEAR(dict);
dict = new_dict;
return 0;
}
/// dynamic_attr: Allow the garbage collector to traverse the internal instance `__dict__`.
extern "C" inline int pybind11_traverse(PyObject *self, visitproc visit, void *arg) {
PyObject *&dict = *_PyObject_GetDictPtr(self);
Py_VISIT(dict);
return 0;
}
/// dynamic_attr: Allow the GC to clear the dictionary.
extern "C" inline int pybind11_clear(PyObject *self) {
PyObject *&dict = *_PyObject_GetDictPtr(self);
Py_CLEAR(dict);
return 0;
}
/// Give instances of this type a `__dict__` and opt into garbage collection.
inline void enable_dynamic_attributes(PyHeapTypeObject *heap_type) {
auto type = &heap_type->ht_type;
type->tp_flags |= Py_TPFLAGS_HAVE_GC;
type->tp_dictoffset = type->tp_basicsize; // place dict at the end
type->tp_basicsize += (ssize_t)sizeof(PyObject *); // and allocate enough space for it
type->tp_traverse = pybind11_traverse;
type->tp_clear = pybind11_clear;
static PyGetSetDef getset[] = {
{const_cast<char*>("__dict__"), pybind11_get_dict, pybind11_set_dict, nullptr, nullptr},
{nullptr, nullptr, nullptr, nullptr, nullptr}
};
type->tp_getset = getset;
}
/// buffer_protocol: Fill in the view as specified by flags.
extern "C" inline int pybind11_getbuffer(PyObject *obj, Py_buffer *view, int flags) {
// Look for a `get_buffer` implementation in this type's info or any bases (following MRO).
type_info *tinfo = nullptr;
for (auto type : reinterpret_borrow<tuple>(Py_TYPE(obj)->tp_mro)) {
tinfo = get_type_info((PyTypeObject *) type.ptr());
if (tinfo && tinfo->get_buffer)
break;
}
if (view == nullptr || !tinfo || !tinfo->get_buffer) {
if (view)
view->obj = nullptr;
PyErr_SetString(PyExc_BufferError, "pybind11_getbuffer(): Internal error");
return -1;
}
std::memset(view, 0, sizeof(Py_buffer));
buffer_info *info = tinfo->get_buffer(obj, tinfo->get_buffer_data);
if ((flags & PyBUF_WRITABLE) == PyBUF_WRITABLE && info->readonly) {
delete info;
// view->obj = nullptr; // Was just memset to 0, so not necessary
PyErr_SetString(PyExc_BufferError, "Writable buffer requested for readonly storage");
return -1;
}
view->obj = obj;
view->ndim = 1;
view->internal = info;
view->buf = info->ptr;
view->itemsize = info->itemsize;
view->len = view->itemsize;
for (auto s : info->shape)
view->len *= s;
view->readonly = info->readonly;
if ((flags & PyBUF_FORMAT) == PyBUF_FORMAT)
view->format = const_cast<char *>(info->format.c_str());
if ((flags & PyBUF_STRIDES) == PyBUF_STRIDES) {
view->ndim = (int) info->ndim;
view->strides = &info->strides[0];
view->shape = &info->shape[0];
}
Py_INCREF(view->obj);
return 0;
}
/// buffer_protocol: Release the resources of the buffer.
extern "C" inline void pybind11_releasebuffer(PyObject *, Py_buffer *view) {
delete (buffer_info *) view->internal;
}
/// Give this type a buffer interface.
inline void enable_buffer_protocol(PyHeapTypeObject *heap_type) {
heap_type->ht_type.tp_as_buffer = &heap_type->as_buffer;
#if PY_MAJOR_VERSION < 3
heap_type->ht_type.tp_flags |= Py_TPFLAGS_HAVE_NEWBUFFER;
#endif
heap_type->as_buffer.bf_getbuffer = pybind11_getbuffer;
heap_type->as_buffer.bf_releasebuffer = pybind11_releasebuffer;
}
/** Create a brand new Python type according to the `type_record` specification.
Return value: New reference. */
inline PyObject* make_new_python_type(const type_record &rec) {
auto name = reinterpret_steal<object>(PYBIND11_FROM_STRING(rec.name));
auto qualname = name;
if (rec.scope && !PyModule_Check(rec.scope.ptr()) && hasattr(rec.scope, "__qualname__")) {
#if PY_MAJOR_VERSION >= 3
qualname = reinterpret_steal<object>(
PyUnicode_FromFormat("%U.%U", rec.scope.attr("__qualname__").ptr(), name.ptr()));
#else
qualname = str(rec.scope.attr("__qualname__").cast<std::string>() + "." + rec.name);
#endif
}
object module_;
if (rec.scope) {
if (hasattr(rec.scope, "__module__"))
module_ = rec.scope.attr("__module__");
else if (hasattr(rec.scope, "__name__"))
module_ = rec.scope.attr("__name__");
}
auto full_name = c_str(
#if !defined(PYPY_VERSION)
module_ ? str(module_).cast<std::string>() + "." + rec.name :
#endif
rec.name);
char *tp_doc = nullptr;
if (rec.doc && options::show_user_defined_docstrings()) {
/* Allocate memory for docstring (using PyObject_MALLOC, since
Python will free this later on) */
size_t size = strlen(rec.doc) + 1;
tp_doc = (char *) PyObject_MALLOC(size);
memcpy((void *) tp_doc, rec.doc, size);
}
auto &internals = get_internals();
auto bases = tuple(rec.bases);
auto base = (bases.empty()) ? internals.instance_base
: bases[0].ptr();
/* Danger zone: from now (and until PyType_Ready), make sure to
issue no Python C API calls which could potentially invoke the
garbage collector (the GC will call type_traverse(), which will in
turn find the newly constructed type in an invalid state) */
auto metaclass = rec.metaclass.ptr() ? (PyTypeObject *) rec.metaclass.ptr()
: internals.default_metaclass;
auto heap_type = (PyHeapTypeObject *) metaclass->tp_alloc(metaclass, 0);
if (!heap_type)
pybind11_fail(std::string(rec.name) + ": Unable to create type object!");
heap_type->ht_name = name.release().ptr();
#ifdef PYBIND11_BUILTIN_QUALNAME
heap_type->ht_qualname = qualname.inc_ref().ptr();
#endif
auto type = &heap_type->ht_type;
type->tp_name = full_name;
type->tp_doc = tp_doc;
type->tp_base = type_incref((PyTypeObject *)base);
type->tp_basicsize = static_cast<ssize_t>(sizeof(instance));
if (!bases.empty())
type->tp_bases = bases.release().ptr();
/* Don't inherit base __init__ */
type->tp_init = pybind11_object_init;
/* Supported protocols */
type->tp_as_number = &heap_type->as_number;
type->tp_as_sequence = &heap_type->as_sequence;
type->tp_as_mapping = &heap_type->as_mapping;
#if PY_VERSION_HEX >= 0x03050000
type->tp_as_async = &heap_type->as_async;
#endif
/* Flags */
type->tp_flags |= Py_TPFLAGS_DEFAULT | Py_TPFLAGS_HEAPTYPE;
#if PY_MAJOR_VERSION < 3
type->tp_flags |= Py_TPFLAGS_CHECKTYPES;
#endif
if (!rec.is_final)
type->tp_flags |= Py_TPFLAGS_BASETYPE;
if (rec.dynamic_attr)
enable_dynamic_attributes(heap_type);
if (rec.buffer_protocol)
enable_buffer_protocol(heap_type);
if (PyType_Ready(type) < 0)
pybind11_fail(std::string(rec.name) + ": PyType_Ready failed (" + error_string() + ")!");
assert(rec.dynamic_attr ? PyType_HasFeature(type, Py_TPFLAGS_HAVE_GC)
: !PyType_HasFeature(type, Py_TPFLAGS_HAVE_GC));
/* Register type with the parent scope */
if (rec.scope)
setattr(rec.scope, rec.name, (PyObject *) type);
else
Py_INCREF(type); // Keep it alive forever (reference leak)
if (module_) // Needed by pydoc
setattr((PyObject *) type, "__module__", module_);
PYBIND11_SET_OLDPY_QUALNAME(type, qualname);
return (PyObject *) type;
}
PYBIND11_NAMESPACE_END(detail)
PYBIND11_NAMESPACE_END(PYBIND11_NAMESPACE)

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scripting/pybind11/include/pybind11/detail/common.h Normal file
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/*
pybind11/detail/common.h -- Basic macros
Copyright (c) 2016 Wenzel Jakob <wenzel.jakob@epfl.ch>
All rights reserved. Use of this source code is governed by a
BSD-style license that can be found in the LICENSE file.
*/
#pragma once
#define PYBIND11_VERSION_MAJOR 2
#define PYBIND11_VERSION_MINOR 6
#define PYBIND11_VERSION_PATCH 3.dev1
#define PYBIND11_NAMESPACE_BEGIN(name) namespace name {
#define PYBIND11_NAMESPACE_END(name) }
// Robust support for some features and loading modules compiled against different pybind versions
// requires forcing hidden visibility on pybind code, so we enforce this by setting the attribute on
// the main `pybind11` namespace.
#if !defined(PYBIND11_NAMESPACE)
# ifdef __GNUG__
# define PYBIND11_NAMESPACE pybind11 __attribute__((visibility("hidden")))
# else
# define PYBIND11_NAMESPACE pybind11
# endif
#endif
#if !(defined(_MSC_VER) && __cplusplus == 199711L)
# if __cplusplus >= 201402L
# define PYBIND11_CPP14
# if __cplusplus >= 201703L
# define PYBIND11_CPP17
# endif
# endif
#elif defined(_MSC_VER) && __cplusplus == 199711L
// MSVC sets _MSVC_LANG rather than __cplusplus (supposedly until the standard is fully implemented)
// Unless you use the /Zc:__cplusplus flag on Visual Studio 2017 15.7 Preview 3 or newer
# if _MSVC_LANG >= 201402L
# define PYBIND11_CPP14
# if _MSVC_LANG > 201402L && _MSC_VER >= 1910
# define PYBIND11_CPP17
# endif
# endif
#endif
// Compiler version assertions
#if defined(__INTEL_COMPILER)
# if __INTEL_COMPILER < 1800
# error pybind11 requires Intel C++ compiler v18 or newer
# elif __INTEL_COMPILER < 1900 && defined(PYBIND11_CPP14)
# error pybind11 supports only C++11 with Intel C++ compiler v18. Use v19 or newer for C++14.
# endif
#elif defined(__clang__) && !defined(__apple_build_version__)
# if __clang_major__ < 3 || (__clang_major__ == 3 && __clang_minor__ < 3)
# error pybind11 requires clang 3.3 or newer
# endif
#elif defined(__clang__)
// Apple changes clang version macros to its Xcode version; the first Xcode release based on
// (upstream) clang 3.3 was Xcode 5:
# if __clang_major__ < 5
# error pybind11 requires Xcode/clang 5.0 or newer
# endif
#elif defined(__GNUG__)
# if __GNUC__ < 4 || (__GNUC__ == 4 && __GNUC_MINOR__ < 8)
# error pybind11 requires gcc 4.8 or newer
# endif
#elif defined(_MSC_VER)
// Pybind hits various compiler bugs in 2015u2 and earlier, and also makes use of some stl features
// (e.g. std::negation) added in 2015u3:
# if _MSC_FULL_VER < 190024210
# error pybind11 requires MSVC 2015 update 3 or newer
# endif
#endif
#if !defined(PYBIND11_EXPORT)
# if defined(WIN32) || defined(_WIN32)
# define PYBIND11_EXPORT __declspec(dllexport)
# else
# define PYBIND11_EXPORT __attribute__ ((visibility("default")))
# endif
#endif
#if defined(_MSC_VER)
# define PYBIND11_NOINLINE __declspec(noinline)
#else
# define PYBIND11_NOINLINE __attribute__ ((noinline))
#endif
#if defined(PYBIND11_CPP14)
# define PYBIND11_DEPRECATED(reason) [[deprecated(reason)]]
#else
# define PYBIND11_DEPRECATED(reason) __attribute__((deprecated(reason)))
#endif
#if defined(PYBIND11_CPP17)
# define PYBIND11_MAYBE_UNUSED [[maybe_unused]]
#elif defined(_MSC_VER) && !defined(__clang__)
# define PYBIND11_MAYBE_UNUSED
#else
# define PYBIND11_MAYBE_UNUSED __attribute__ ((__unused__))
#endif
/* Don't let Python.h #define (v)snprintf as macro because they are implemented
properly in Visual Studio since 2015. */
#if defined(_MSC_VER) && _MSC_VER >= 1900
# define HAVE_SNPRINTF 1
#endif
/// Include Python header, disable linking to pythonX_d.lib on Windows in debug mode
#if defined(_MSC_VER)
# if (PY_MAJOR_VERSION == 3 && PY_MINOR_VERSION < 4)
# define HAVE_ROUND 1
# endif
# pragma warning(push)
# pragma warning(disable: 4510 4610 4512 4005)
# if defined(_DEBUG) && !defined(Py_DEBUG)
# define PYBIND11_DEBUG_MARKER
# undef _DEBUG
# endif
#endif
#include <Python.h>
#include <frameobject.h>
#include <pythread.h>
/* Python #defines overrides on all sorts of core functions, which
tends to weak havok in C++ codebases that expect these to work
like regular functions (potentially with several overloads) */
#if defined(isalnum)
# undef isalnum
# undef isalpha
# undef islower
# undef isspace
# undef isupper
# undef tolower
# undef toupper
#endif
#if defined(copysign)
# undef copysign
#endif
#if defined(_MSC_VER)
# if defined(PYBIND11_DEBUG_MARKER)
# define _DEBUG
# undef PYBIND11_DEBUG_MARKER
# endif
# pragma warning(pop)
#endif
#include <cstddef>
#include <cstring>
#include <forward_list>
#include <vector>
#include <string>
#include <stdexcept>
#include <exception>
#include <unordered_set>
#include <unordered_map>
#include <memory>
#include <typeindex>
#include <type_traits>
#if defined(__has_include)
# if __has_include(<version>)
# include <version>
# endif
#endif
// #define PYBIND11_STR_LEGACY_PERMISSIVE
// If DEFINED, pybind11::str can hold PyUnicodeObject or PyBytesObject
// (probably surprising and never documented, but this was the
// legacy behavior until and including v2.6.x). As a side-effect,
// pybind11::isinstance<str>() is true for both pybind11::str and
// pybind11::bytes.
// If UNDEFINED, pybind11::str can only hold PyUnicodeObject, and
// pybind11::isinstance<str>() is true only for pybind11::str.
// However, for Python 2 only (!), the pybind11::str caster
// implicitly decodes bytes to PyUnicodeObject. This is to ease
// the transition from the legacy behavior to the non-permissive
// behavior.
#if PY_MAJOR_VERSION >= 3 /// Compatibility macros for various Python versions
#define PYBIND11_INSTANCE_METHOD_NEW(ptr, class_) PyInstanceMethod_New(ptr)
#define PYBIND11_INSTANCE_METHOD_CHECK PyInstanceMethod_Check
#define PYBIND11_INSTANCE_METHOD_GET_FUNCTION PyInstanceMethod_GET_FUNCTION
#define PYBIND11_BYTES_CHECK PyBytes_Check
#define PYBIND11_BYTES_FROM_STRING PyBytes_FromString
#define PYBIND11_BYTES_FROM_STRING_AND_SIZE PyBytes_FromStringAndSize
#define PYBIND11_BYTES_AS_STRING_AND_SIZE PyBytes_AsStringAndSize
#define PYBIND11_BYTES_AS_STRING PyBytes_AsString
#define PYBIND11_BYTES_SIZE PyBytes_Size
#define PYBIND11_LONG_CHECK(o) PyLong_Check(o)
#define PYBIND11_LONG_AS_LONGLONG(o) PyLong_AsLongLong(o)
#define PYBIND11_LONG_FROM_SIGNED(o) PyLong_FromSsize_t((ssize_t) o)
#define PYBIND11_LONG_FROM_UNSIGNED(o) PyLong_FromSize_t((size_t) o)
#define PYBIND11_BYTES_NAME "bytes"
#define PYBIND11_STRING_NAME "str"
#define PYBIND11_SLICE_OBJECT PyObject
#define PYBIND11_FROM_STRING PyUnicode_FromString
#define PYBIND11_STR_TYPE ::pybind11::str
#define PYBIND11_BOOL_ATTR "__bool__"
#define PYBIND11_NB_BOOL(ptr) ((ptr)->nb_bool)
#define PYBIND11_BUILTINS_MODULE "builtins"
// Providing a separate declaration to make Clang's -Wmissing-prototypes happy.
// See comment for PYBIND11_MODULE below for why this is marked "maybe unused".
#define PYBIND11_PLUGIN_IMPL(name) \
extern "C" PYBIND11_MAYBE_UNUSED PYBIND11_EXPORT PyObject *PyInit_##name(); \
extern "C" PYBIND11_EXPORT PyObject *PyInit_##name()
#else
#define PYBIND11_INSTANCE_METHOD_NEW(ptr, class_) PyMethod_New(ptr, nullptr, class_)
#define PYBIND11_INSTANCE_METHOD_CHECK PyMethod_Check
#define PYBIND11_INSTANCE_METHOD_GET_FUNCTION PyMethod_GET_FUNCTION
#define PYBIND11_BYTES_CHECK PyString_Check
#define PYBIND11_BYTES_FROM_STRING PyString_FromString
#define PYBIND11_BYTES_FROM_STRING_AND_SIZE PyString_FromStringAndSize
#define PYBIND11_BYTES_AS_STRING_AND_SIZE PyString_AsStringAndSize
#define PYBIND11_BYTES_AS_STRING PyString_AsString
#define PYBIND11_BYTES_SIZE PyString_Size
#define PYBIND11_LONG_CHECK(o) (PyInt_Check(o) || PyLong_Check(o))
#define PYBIND11_LONG_AS_LONGLONG(o) (PyInt_Check(o) ? (long long) PyLong_AsLong(o) : PyLong_AsLongLong(o))
#define PYBIND11_LONG_FROM_SIGNED(o) PyInt_FromSsize_t((ssize_t) o) // Returns long if needed.
#define PYBIND11_LONG_FROM_UNSIGNED(o) PyInt_FromSize_t((size_t) o) // Returns long if needed.
#define PYBIND11_BYTES_NAME "str"
#define PYBIND11_STRING_NAME "unicode"
#define PYBIND11_SLICE_OBJECT PySliceObject
#define PYBIND11_FROM_STRING PyString_FromString
#define PYBIND11_STR_TYPE ::pybind11::bytes
#define PYBIND11_BOOL_ATTR "__nonzero__"
#define PYBIND11_NB_BOOL(ptr) ((ptr)->nb_nonzero)
#define PYBIND11_BUILTINS_MODULE "__builtin__"
// Providing a separate PyInit decl to make Clang's -Wmissing-prototypes happy.
// See comment for PYBIND11_MODULE below for why this is marked "maybe unused".
#define PYBIND11_PLUGIN_IMPL(name) \
static PyObject *pybind11_init_wrapper(); \
extern "C" PYBIND11_MAYBE_UNUSED PYBIND11_EXPORT void init##name(); \
extern "C" PYBIND11_EXPORT void init##name() { \
(void)pybind11_init_wrapper(); \
} \
PyObject *pybind11_init_wrapper()
#endif
#if PY_VERSION_HEX >= 0x03050000 && PY_VERSION_HEX < 0x03050200
extern "C" {
struct _Py_atomic_address { void *value; };
PyAPI_DATA(_Py_atomic_address) _PyThreadState_Current;
}
#endif
#define PYBIND11_TRY_NEXT_OVERLOAD ((PyObject *) 1) // special failure return code
#define PYBIND11_STRINGIFY(x) #x
#define PYBIND11_TOSTRING(x) PYBIND11_STRINGIFY(x)
#define PYBIND11_CONCAT(first, second) first##second
#define PYBIND11_ENSURE_INTERNALS_READY \
pybind11::detail::get_internals();
#define PYBIND11_CHECK_PYTHON_VERSION \
{ \
const char *compiled_ver = PYBIND11_TOSTRING(PY_MAJOR_VERSION) \
"." PYBIND11_TOSTRING(PY_MINOR_VERSION); \
const char *runtime_ver = Py_GetVersion(); \
size_t len = std::strlen(compiled_ver); \
if (std::strncmp(runtime_ver, compiled_ver, len) != 0 \
|| (runtime_ver[len] >= '0' && runtime_ver[len] <= '9')) { \
PyErr_Format(PyExc_ImportError, \
"Python version mismatch: module was compiled for Python %s, " \
"but the interpreter version is incompatible: %s.", \
compiled_ver, runtime_ver); \
return nullptr; \
} \
}
#define PYBIND11_CATCH_INIT_EXCEPTIONS \
catch (pybind11::error_already_set &e) { \
PyErr_SetString(PyExc_ImportError, e.what()); \
return nullptr; \
} catch (const std::exception &e) { \
PyErr_SetString(PyExc_ImportError, e.what()); \
return nullptr; \
} \
/** \rst
***Deprecated in favor of PYBIND11_MODULE***
This macro creates the entry point that will be invoked when the Python interpreter
imports a plugin library. Please create a `module_` in the function body and return
the pointer to its underlying Python object at the end.
.. code-block:: cpp
PYBIND11_PLUGIN(example) {
pybind11::module_ m("example", "pybind11 example plugin");
/// Set up bindings here
return m.ptr();
}
\endrst */
#define PYBIND11_PLUGIN(name) \
PYBIND11_DEPRECATED("PYBIND11_PLUGIN is deprecated, use PYBIND11_MODULE") \
static PyObject *pybind11_init(); \
PYBIND11_PLUGIN_IMPL(name) { \
PYBIND11_CHECK_PYTHON_VERSION \
PYBIND11_ENSURE_INTERNALS_READY \
try { \
return pybind11_init(); \
} PYBIND11_CATCH_INIT_EXCEPTIONS \
} \
PyObject *pybind11_init()
/** \rst
This macro creates the entry point that will be invoked when the Python interpreter
imports an extension module. The module name is given as the fist argument and it
should not be in quotes. The second macro argument defines a variable of type
`py::module_` which can be used to initialize the module.
The entry point is marked as "maybe unused" to aid dead-code detection analysis:
since the entry point is typically only looked up at runtime and not referenced
during translation, it would otherwise appear as unused ("dead") code.
.. code-block:: cpp
PYBIND11_MODULE(example, m) {
m.doc() = "pybind11 example module";
// Add bindings here
m.def("foo", []() {
return "Hello, World!";
});
}
\endrst */
#define PYBIND11_MODULE(name, variable) \
static ::pybind11::module_::module_def \
PYBIND11_CONCAT(pybind11_module_def_, name) PYBIND11_MAYBE_UNUSED; \
PYBIND11_MAYBE_UNUSED \
static void PYBIND11_CONCAT(pybind11_init_, name)(::pybind11::module_ &); \
PYBIND11_PLUGIN_IMPL(name) { \
PYBIND11_CHECK_PYTHON_VERSION \
PYBIND11_ENSURE_INTERNALS_READY \
auto m = ::pybind11::module_::create_extension_module( \
PYBIND11_TOSTRING(name), nullptr, \
&PYBIND11_CONCAT(pybind11_module_def_, name)); \
try { \
PYBIND11_CONCAT(pybind11_init_, name)(m); \
return m.ptr(); \
} PYBIND11_CATCH_INIT_EXCEPTIONS \
} \
void PYBIND11_CONCAT(pybind11_init_, name)(::pybind11::module_ &variable)
PYBIND11_NAMESPACE_BEGIN(PYBIND11_NAMESPACE)
using ssize_t = Py_ssize_t;
using size_t = std::size_t;
/// Approach used to cast a previously unknown C++ instance into a Python object
enum class return_value_policy : uint8_t {
/** This is the default return value policy, which falls back to the policy
return_value_policy::take_ownership when the return value is a pointer.
Otherwise, it uses return_value::move or return_value::copy for rvalue
and lvalue references, respectively. See below for a description of what
all of these different policies do. */
automatic = 0,
/** As above, but use policy return_value_policy::reference when the return
value is a pointer. This is the default conversion policy for function
arguments when calling Python functions manually from C++ code (i.e. via
handle::operator()). You probably won't need to use this. */
automatic_reference,
/** Reference an existing object (i.e. do not create a new copy) and take
ownership. Python will call the destructor and delete operator when the
object’s reference count reaches zero. Undefined behavior ensues when
the C++ side does the same.. */
take_ownership,
/** Create a new copy of the returned object, which will be owned by
Python. This policy is comparably safe because the lifetimes of the two
instances are decoupled. */
copy,
/** Use std::move to move the return value contents into a new instance
that will be owned by Python. This policy is comparably safe because the
lifetimes of the two instances (move source and destination) are
decoupled. */
move,
/** Reference an existing object, but do not take ownership. The C++ side
is responsible for managing the object’s lifetime and deallocating it
when it is no longer used. Warning: undefined behavior will ensue when
the C++ side deletes an object that is still referenced and used by
Python. */
reference,
/** This policy only applies to methods and properties. It references the
object without taking ownership similar to the above
return_value_policy::reference policy. In contrast to that policy, the
function or property’s implicit this argument (called the parent) is
considered to be the the owner of the return value (the child).
pybind11 then couples the lifetime of the parent to the child via a
reference relationship that ensures that the parent cannot be garbage
collected while Python is still using the child. More advanced
variations of this scheme are also possible using combinations of
return_value_policy::reference and the keep_alive call policy */
reference_internal
};
PYBIND11_NAMESPACE_BEGIN(detail)
inline static constexpr int log2(size_t n, int k = 0) { return (n <= 1) ? k : log2(n >> 1, k + 1); }
// Returns the size as a multiple of sizeof(void *), rounded up.
inline static constexpr size_t size_in_ptrs(size_t s) { return 1 + ((s - 1) >> log2(sizeof(void *))); }
/**
* The space to allocate for simple layout instance holders (see below) in multiple of the size of
* a pointer (e.g. 2 means 16 bytes on 64-bit architectures). The default is the minimum required
* to holder either a std::unique_ptr or std::shared_ptr (which is almost always
* sizeof(std::shared_ptr<T>)).
*/
constexpr size_t instance_simple_holder_in_ptrs() {
static_assert(sizeof(std::shared_ptr<int>) >= sizeof(std::unique_ptr<int>),
"pybind assumes std::shared_ptrs are at least as big as std::unique_ptrs");
return size_in_ptrs(sizeof(std::shared_ptr<int>));
}
// Forward declarations
struct type_info;
struct value_and_holder;
struct nonsimple_values_and_holders {
void **values_and_holders;
uint8_t *status;
};
/// The 'instance' type which needs to be standard layout (need to be able to use 'offsetof')
struct instance {
PyObject_HEAD
/// Storage for pointers and holder; see simple_layout, below, for a description
union {
void *simple_value_holder[1 + instance_simple_holder_in_ptrs()];
nonsimple_values_and_holders nonsimple;
};
/// Weak references
PyObject *weakrefs;
/// If true, the pointer is owned which means we're free to manage it with a holder.
bool owned : 1;
/**
* An instance has two possible value/holder layouts.
*
* Simple layout (when this flag is true), means the `simple_value_holder` is set with a pointer
* and the holder object governing that pointer, i.e. [val1*][holder]. This layout is applied
* whenever there is no python-side multiple inheritance of bound C++ types *and* the type's
* holder will fit in the default space (which is large enough to hold either a std::unique_ptr
* or std::shared_ptr).
*
* Non-simple layout applies when using custom holders that require more space than `shared_ptr`
* (which is typically the size of two pointers), or when multiple inheritance is used on the
* python side. Non-simple layout allocates the required amount of memory to have multiple
* bound C++ classes as parents. Under this layout, `nonsimple.values_and_holders` is set to a
* pointer to allocated space of the required space to hold a sequence of value pointers and
* holders followed `status`, a set of bit flags (1 byte each), i.e.
* [val1*][holder1][val2*][holder2]...[bb...] where each [block] is rounded up to a multiple of
* `sizeof(void *)`. `nonsimple.status` is, for convenience, a pointer to the
* beginning of the [bb...] block (but not independently allocated).
*
* Status bits indicate whether the associated holder is constructed (&
* status_holder_constructed) and whether the value pointer is registered (&
* status_instance_registered) in `registered_instances`.
*/
bool simple_layout : 1;
/// For simple layout, tracks whether the holder has been constructed
bool simple_holder_constructed : 1;
/// For simple layout, tracks whether the instance is registered in `registered_instances`
bool simple_instance_registered : 1;
/// If true, get_internals().patients has an entry for this object
bool has_patients : 1;
/// Initializes all of the above type/values/holders data (but not the instance values themselves)
void allocate_layout();
/// Destroys/deallocates all of the above
void deallocate_layout();
/// Returns the value_and_holder wrapper for the given type (or the first, if `find_type`
/// omitted). Returns a default-constructed (with `.inst = nullptr`) object on failure if
/// `throw_if_missing` is false.
value_and_holder get_value_and_holder(const type_info *find_type = nullptr, bool throw_if_missing = true);
/// Bit values for the non-simple status flags
static constexpr uint8_t status_holder_constructed = 1;
static constexpr uint8_t status_instance_registered = 2;
};
static_assert(std::is_standard_layout<instance>::value, "Internal error: `pybind11::detail::instance` is not standard layout!");
/// from __cpp_future__ import (convenient aliases from C++14/17)
#if defined(PYBIND11_CPP14) && (!defined(_MSC_VER) || _MSC_VER >= 1910)
using std::enable_if_t;
using std::conditional_t;
using std::remove_cv_t;
using std::remove_reference_t;
#else
template <bool B, typename T = void> using enable_if_t = typename std::enable_if<B, T>::type;
template <bool B, typename T, typename F> using conditional_t = typename std::conditional<B, T, F>::type;
template <typename T> using remove_cv_t = typename std::remove_cv<T>::type;
template <typename T> using remove_reference_t = typename std::remove_reference<T>::type;
#endif
/// Index sequences
#if defined(PYBIND11_CPP14)
using std::index_sequence;
using std::make_index_sequence;
#else
template<size_t ...> struct index_sequence { };
template<size_t N, size_t ...S> struct make_index_sequence_impl : make_index_sequence_impl <N - 1, N - 1, S...> { };
template<size_t ...S> struct make_index_sequence_impl <0, S...> { using type = index_sequence<S...>; };
template<size_t N> using make_index_sequence = typename make_index_sequence_impl<N>::type;
#endif
/// Make an index sequence of the indices of true arguments
template <typename ISeq, size_t, bool...> struct select_indices_impl { using type = ISeq; };
template <size_t... IPrev, size_t I, bool B, bool... Bs> struct select_indices_impl<index_sequence<IPrev...>, I, B, Bs...>
: select_indices_impl<conditional_t<B, index_sequence<IPrev..., I>, index_sequence<IPrev...>>, I + 1, Bs...> {};
template <bool... Bs> using select_indices = typename select_indices_impl<index_sequence<>, 0, Bs...>::type;
/// Backports of std::bool_constant and std::negation to accommodate older compilers
template <bool B> using bool_constant = std::integral_constant<bool, B>;
template <typename T> struct negation : bool_constant<!T::value> { };
// PGI/Intel cannot detect operator delete with the "compatible" void_t impl, so
// using the new one (C++14 defect, so generally works on newer compilers, even
// if not in C++17 mode)
#if defined(__PGIC__) || defined(__INTEL_COMPILER)
template<typename... > using void_t = void;
#else
template <typename...> struct void_t_impl { using type = void; };
template <typename... Ts> using void_t = typename void_t_impl<Ts...>::type;
#endif
/// Compile-time all/any/none of that check the boolean value of all template types
#if defined(__cpp_fold_expressions) && !(defined(_MSC_VER) && (_MSC_VER < 1916))
template <class... Ts> using all_of = bool_constant<(Ts::value && ...)>;
template <class... Ts> using any_of = bool_constant<(Ts::value || ...)>;
#elif !defined(_MSC_VER)
template <bool...> struct bools {};
template <class... Ts> using all_of = std::is_same<
bools<Ts::value..., true>,
bools<true, Ts::value...>>;
template <class... Ts> using any_of = negation<all_of<negation<Ts>...>>;
#else
// MSVC has trouble with the above, but supports std::conjunction, which we can use instead (albeit
// at a slight loss of compilation efficiency).
template <class... Ts> using all_of = std::conjunction<Ts...>;
template <class... Ts> using any_of = std::disjunction<Ts...>;
#endif
template <class... Ts> using none_of = negation<any_of<Ts...>>;
template <class T, template<class> class... Predicates> using satisfies_all_of = all_of<Predicates<T>...>;
template <class T, template<class> class... Predicates> using satisfies_any_of = any_of<Predicates<T>...>;
template <class T, template<class> class... Predicates> using satisfies_none_of = none_of<Predicates<T>...>;
/// Strip the class from a method type
template <typename T> struct remove_class { };
template <typename C, typename R, typename... A> struct remove_class<R (C::*)(A...)> { using type = R (A...); };
template <typename C, typename R, typename... A> struct remove_class<R (C::*)(A...) const> { using type = R (A...); };
/// Helper template to strip away type modifiers
template <typename T> struct intrinsic_type { using type = T; };
template <typename T> struct intrinsic_type<const T> { using type = typename intrinsic_type<T>::type; };
template <typename T> struct intrinsic_type<T*> { using type = typename intrinsic_type<T>::type; };
template <typename T> struct intrinsic_type<T&> { using type = typename intrinsic_type<T>::type; };
template <typename T> struct intrinsic_type<T&&> { using type = typename intrinsic_type<T>::type; };
template <typename T, size_t N> struct intrinsic_type<const T[N]> { using type = typename intrinsic_type<T>::type; };
template <typename T, size_t N> struct intrinsic_type<T[N]> { using type = typename intrinsic_type<T>::type; };
template <typename T> using intrinsic_t = typename intrinsic_type<T>::type;
/// Helper type to replace 'void' in some expressions
struct void_type { };
/// Helper template which holds a list of types
template <typename...> struct type_list { };
/// Compile-time integer sum
#ifdef __cpp_fold_expressions
template <typename... Ts> constexpr size_t constexpr_sum(Ts... ns) { return (0 + ... + size_t{ns}); }
#else
constexpr size_t constexpr_sum() { return 0; }
template <typename T, typename... Ts>
constexpr size_t constexpr_sum(T n, Ts... ns) { return size_t{n} + constexpr_sum(ns...); }
#endif
PYBIND11_NAMESPACE_BEGIN(constexpr_impl)
/// Implementation details for constexpr functions
constexpr int first(int i) { return i; }
template <typename T, typename... Ts>
constexpr int first(int i, T v, Ts... vs) { return v ? i : first(i + 1, vs...); }
constexpr int last(int /*i*/, int result) { return result; }
template <typename T, typename... Ts>
constexpr int last(int i, int result, T v, Ts... vs) { return last(i + 1, v ? i : result, vs...); }
PYBIND11_NAMESPACE_END(constexpr_impl)
/// Return the index of the first type in Ts which satisfies Predicate<T>. Returns sizeof...(Ts) if
/// none match.
template <template<typename> class Predicate, typename... Ts>
constexpr int constexpr_first() { return constexpr_impl::first(0, Predicate<Ts>::value...); }
/// Return the index of the last type in Ts which satisfies Predicate<T>, or -1 if none match.
template <template<typename> class Predicate, typename... Ts>
constexpr int constexpr_last() { return constexpr_impl::last(0, -1, Predicate<Ts>::value...); }
/// Return the Nth element from the parameter pack
template <size_t N, typename T, typename... Ts>
struct pack_element { using type = typename pack_element<N - 1, Ts...>::type; };
template <typename T, typename... Ts>
struct pack_element<0, T, Ts...> { using type = T; };
/// Return the one and only type which matches the predicate, or Default if none match.
/// If more than one type matches the predicate, fail at compile-time.
template <template<typename> class Predicate, typename Default, typename... Ts>
struct exactly_one {
static constexpr auto found = constexpr_sum(Predicate<Ts>::value...);
static_assert(found <= 1, "Found more than one type matching the predicate");
static constexpr auto index = found ? constexpr_first<Predicate, Ts...>() : 0;
using type = conditional_t<found, typename pack_element<index, Ts...>::type, Default>;
};
template <template<typename> class P, typename Default>
struct exactly_one<P, Default> { using type = Default; };
template <template<typename> class Predicate, typename Default, typename... Ts>
using exactly_one_t = typename exactly_one<Predicate, Default, Ts...>::type;
/// Defer the evaluation of type T until types Us are instantiated
template <typename T, typename... /*Us*/> struct deferred_type { using type = T; };
template <typename T, typename... Us> using deferred_t = typename deferred_type<T, Us...>::type;
/// Like is_base_of, but requires a strict base (i.e. `is_strict_base_of<T, T>::value == false`,
/// unlike `std::is_base_of`)
template <typename Base, typename Derived> using is_strict_base_of = bool_constant<
std::is_base_of<Base, Derived>::value && !std::is_same<Base, Derived>::value>;
/// Like is_base_of, but also requires that the base type is accessible (i.e. that a Derived pointer
/// can be converted to a Base pointer)
/// For unions, `is_base_of<T, T>::value` is False, so we need to check `is_same` as well.
template <typename Base, typename Derived> using is_accessible_base_of = bool_constant<
(std::is_same<Base, Derived>::value || std::is_base_of<Base, Derived>::value) && std::is_convertible<Derived *, Base *>::value>;
template <template<typename...> class Base>
struct is_template_base_of_impl {
template <typename... Us> static std::true_type check(Base<Us...> *);
static std::false_type check(...);
};
/// Check if a template is the base of a type. For example:
/// `is_template_base_of<Base, T>` is true if `struct T : Base<U> {}` where U can be anything
template <template<typename...> class Base, typename T>
#if !defined(_MSC_VER)
using is_template_base_of = decltype(is_template_base_of_impl<Base>::check((intrinsic_t<T>*)nullptr));
#else // MSVC2015 has trouble with decltype in template aliases
struct is_template_base_of : decltype(is_template_base_of_impl<Base>::check((intrinsic_t<T>*)nullptr)) { };
#endif
/// Check if T is an instantiation of the template `Class`. For example:
/// `is_instantiation<shared_ptr, T>` is true if `T == shared_ptr<U>` where U can be anything.
template <template<typename...> class Class, typename T>
struct is_instantiation : std::false_type { };
template <template<typename...> class Class, typename... Us>
struct is_instantiation<Class, Class<Us...>> : std::true_type { };
/// Check if T is std::shared_ptr<U> where U can be anything
template <typename T> using is_shared_ptr = is_instantiation<std::shared_ptr, T>;
/// Check if T looks like an input iterator
template <typename T, typename = void> struct is_input_iterator : std::false_type {};
template <typename T>
struct is_input_iterator<T, void_t<decltype(*std::declval<T &>()), decltype(++std::declval<T &>())>>
: std::true_type {};
template <typename T> using is_function_pointer = bool_constant<
std::is_pointer<T>::value && std::is_function<typename std::remove_pointer<T>::type>::value>;
template <typename F> struct strip_function_object {
// If you are encountering an
// 'error: name followed by "::" must be a class or namespace name'
// with the Intel compiler and a noexcept function here,
// try to use noexcept(true) instead of plain noexcept.
using type = typename remove_class<decltype(&F::operator())>::type;
};
// Extracts the function signature from a function, function pointer or lambda.
template <typename Function, typename F = remove_reference_t<Function>>
using function_signature_t = conditional_t<
std::is_function<F>::value,
F,
typename conditional_t<
std::is_pointer<F>::value || std::is_member_pointer<F>::value,
std::remove_pointer<F>,
strip_function_object<F>
>::type
>;
/// Returns true if the type looks like a lambda: that is, isn't a function, pointer or member
/// pointer. Note that this can catch all sorts of other things, too; this is intended to be used
/// in a place where passing a lambda makes sense.
template <typename T> using is_lambda = satisfies_none_of<remove_reference_t<T>,
std::is_function, std::is_pointer, std::is_member_pointer>;
/// Ignore that a variable is unused in compiler warnings
inline void ignore_unused(const int *) { }
// [workaround(intel)] Internal error on fold expression
/// Apply a function over each element of a parameter pack
#if defined(__cpp_fold_expressions) && !defined(__INTEL_COMPILER)
// Intel compiler produces an internal error on this fold expression (tested with ICC 19.0.2)
#define PYBIND11_EXPAND_SIDE_EFFECTS(PATTERN) (((PATTERN), void()), ...)
#else
using expand_side_effects = bool[];
#define PYBIND11_EXPAND_SIDE_EFFECTS(PATTERN) (void)pybind11::detail::expand_side_effects{ ((PATTERN), void(), false)..., false }
#endif
PYBIND11_NAMESPACE_END(detail)
/// C++ bindings of builtin Python exceptions
class builtin_exception : public std::runtime_error {
public:
using std::runtime_error::runtime_error;
/// Set the error using the Python C API
virtual void set_error() const = 0;
};
#define PYBIND11_RUNTIME_EXCEPTION(name, type) \
class name : public builtin_exception { public: \
using builtin_exception::builtin_exception; \
name() : name("") { } \
void set_error() const override { PyErr_SetString(type, what()); } \
};
PYBIND11_RUNTIME_EXCEPTION(stop_iteration, PyExc_StopIteration)
PYBIND11_RUNTIME_EXCEPTION(index_error, PyExc_IndexError)
PYBIND11_RUNTIME_EXCEPTION(key_error, PyExc_KeyError)
PYBIND11_RUNTIME_EXCEPTION(value_error, PyExc_ValueError)
PYBIND11_RUNTIME_EXCEPTION(type_error, PyExc_TypeError)
PYBIND11_RUNTIME_EXCEPTION(buffer_error, PyExc_BufferError)
PYBIND11_RUNTIME_EXCEPTION(import_error, PyExc_ImportError)
PYBIND11_RUNTIME_EXCEPTION(cast_error, PyExc_RuntimeError) /// Thrown when pybind11::cast or handle::call fail due to a type casting error
PYBIND11_RUNTIME_EXCEPTION(reference_cast_error, PyExc_RuntimeError) /// Used internally
[[noreturn]] PYBIND11_NOINLINE inline void pybind11_fail(const char *reason) { throw std::runtime_error(reason); }
[[noreturn]] PYBIND11_NOINLINE inline void pybind11_fail(const std::string &reason) { throw std::runtime_error(reason); }
template <typename T, typename SFINAE = void> struct format_descriptor { };
PYBIND11_NAMESPACE_BEGIN(detail)
// Returns the index of the given type in the type char array below, and in the list in numpy.h
// The order here is: bool; 8 ints ((signed,unsigned)x(8,16,32,64)bits); float,double,long double;
// complex float,double,long double. Note that the long double types only participate when long
// double is actually longer than double (it isn't under MSVC).
// NB: not only the string below but also complex.h and numpy.h rely on this order.
template <typename T, typename SFINAE = void> struct is_fmt_numeric { static constexpr bool value = false; };
template <typename T> struct is_fmt_numeric<T, enable_if_t<std::is_arithmetic<T>::value>> {
static constexpr bool value = true;
static constexpr int index = std::is_same<T, bool>::value ? 0 : 1 + (
std::is_integral<T>::value ? detail::log2(sizeof(T))*2 + std::is_unsigned<T>::value : 8 + (
std::is_same<T, double>::value ? 1 : std::is_same<T, long double>::value ? 2 : 0));
};
PYBIND11_NAMESPACE_END(detail)
template <typename T> struct format_descriptor<T, detail::enable_if_t<std::is_arithmetic<T>::value>> {
static constexpr const char c = "?bBhHiIqQfdg"[detail::is_fmt_numeric<T>::index];
static constexpr const char value[2] = { c, '\0' };
static std::string format() { return std::string(1, c); }
};
#if !defined(PYBIND11_CPP17)
template <typename T> constexpr const char format_descriptor<
T, detail::enable_if_t<std::is_arithmetic<T>::value>>::value[2];
#endif
/// RAII wrapper that temporarily clears any Python error state
struct error_scope {
PyObject *type, *value, *trace;
error_scope() { PyErr_Fetch(&type, &value, &trace); }
~error_scope() { PyErr_Restore(type, value, trace); }
};
/// Dummy destructor wrapper that can be used to expose classes with a private destructor
struct nodelete { template <typename T> void operator()(T*) { } };
PYBIND11_NAMESPACE_BEGIN(detail)
template <typename... Args>
struct overload_cast_impl {
constexpr overload_cast_impl() {}; // NOLINT(modernize-use-equals-default): MSVC 2015 needs this
template <typename Return>
constexpr auto operator()(Return (*pf)(Args...)) const noexcept
-> decltype(pf) { return pf; }
template <typename Return, typename Class>
constexpr auto operator()(Return (Class::*pmf)(Args...), std::false_type = {}) const noexcept
-> decltype(pmf) { return pmf; }
template <typename Return, typename Class>
constexpr auto operator()(Return (Class::*pmf)(Args...) const, std::true_type) const noexcept
-> decltype(pmf) { return pmf; }
};
PYBIND11_NAMESPACE_END(detail)
// overload_cast requires variable templates: C++14
#if defined(PYBIND11_CPP14)
#define PYBIND11_OVERLOAD_CAST 1
/// Syntax sugar for resolving overloaded function pointers:
/// - regular: static_cast<Return (Class::*)(Arg0, Arg1, Arg2)>(&Class::func)
/// - sweet: overload_cast<Arg0, Arg1, Arg2>(&Class::func)
template <typename... Args>
static constexpr detail::overload_cast_impl<Args...> overload_cast = {};
// MSVC 2015 only accepts this particular initialization syntax for this variable template.
#endif
/// Const member function selector for overload_cast
/// - regular: static_cast<Return (Class::*)(Arg) const>(&Class::func)
/// - sweet: overload_cast<Arg>(&Class::func, const_)
static constexpr auto const_ = std::true_type{};
#if !defined(PYBIND11_CPP14) // no overload_cast: providing something that static_assert-fails:
template <typename... Args> struct overload_cast {
static_assert(detail::deferred_t<std::false_type, Args...>::value,
"pybind11::overload_cast<...> requires compiling in C++14 mode");
};
#endif // overload_cast
PYBIND11_NAMESPACE_BEGIN(detail)
// Adaptor for converting arbitrary container arguments into a vector; implicitly convertible from
// any standard container (or C-style array) supporting std::begin/std::end, any singleton
// arithmetic type (if T is arithmetic), or explicitly constructible from an iterator pair.
template <typename T>
class any_container {
std::vector<T> v;
public:
any_container() = default;
// Can construct from a pair of iterators
template <typename It, typename = enable_if_t<is_input_iterator<It>::value>>
any_container(It first, It last) : v(first, last) { }
// Implicit conversion constructor from any arbitrary container type with values convertible to T
template <typename Container, typename = enable_if_t<std::is_convertible<decltype(*std::begin(std::declval<const Container &>())), T>::value>>
any_container(const Container &c) : any_container(std::begin(c), std::end(c)) { }
// initializer_list's aren't deducible, so don't get matched by the above template; we need this
// to explicitly allow implicit conversion from one:
template <typename TIn, typename = enable_if_t<std::is_convertible<TIn, T>::value>>
any_container(const std::initializer_list<TIn> &c) : any_container(c.begin(), c.end()) { }
// Avoid copying if given an rvalue vector of the correct type.
any_container(std::vector<T> &&v) : v(std::move(v)) { }
// Moves the vector out of an rvalue any_container
operator std::vector<T> &&() && { return std::move(v); }
// Dereferencing obtains a reference to the underlying vector
std::vector<T> &operator*() { return v; }
const std::vector<T> &operator*() const { return v; }
// -> lets you call methods on the underlying vector
std::vector<T> *operator->() { return &v; }
const std::vector<T> *operator->() const { return &v; }
};
// Forward-declaration; see detail/class.h
std::string get_fully_qualified_tp_name(PyTypeObject*);
template <typename T>
inline static std::shared_ptr<T> try_get_shared_from_this(std::enable_shared_from_this<T> *holder_value_ptr) {
// Pre C++17, this code path exploits undefined behavior, but is known to work on many platforms.
// Use at your own risk!
// See also https://en.cppreference.com/w/cpp/memory/enable_shared_from_this, and in particular
// the `std::shared_ptr<Good> gp1 = not_so_good.getptr();` and `try`-`catch` parts of the example.
#if defined(__cpp_lib_enable_shared_from_this) && (!defined(_MSC_VER) || _MSC_VER >= 1912)
return holder_value_ptr->weak_from_this().lock();
#else
try {
return holder_value_ptr->shared_from_this();
}
catch (const std::bad_weak_ptr &) {
return nullptr;
}
#endif
}
PYBIND11_NAMESPACE_END(detail)
PYBIND11_NAMESPACE_END(PYBIND11_NAMESPACE)

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scripting/pybind11/include/pybind11/detail/descr.h Normal file
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/*
pybind11/detail/descr.h: Helper type for concatenating type signatures at compile time
Copyright (c) 2016 Wenzel Jakob <wenzel.jakob@epfl.ch>
All rights reserved. Use of this source code is governed by a
BSD-style license that can be found in the LICENSE file.
*/
#pragma once
#include "common.h"
PYBIND11_NAMESPACE_BEGIN(PYBIND11_NAMESPACE)
PYBIND11_NAMESPACE_BEGIN(detail)
#if !defined(_MSC_VER)
# define PYBIND11_DESCR_CONSTEXPR static constexpr
#else
# define PYBIND11_DESCR_CONSTEXPR const
#endif
/* Concatenate type signatures at compile time */
template <size_t N, typename... Ts>
struct descr {
char text[N + 1];
constexpr descr() : text{'\0'} { }
constexpr descr(char const (&s)[N+1]) : descr(s, make_index_sequence<N>()) { }
template <size_t... Is>
constexpr descr(char const (&s)[N+1], index_sequence<Is...>) : text{s[Is]..., '\0'} { }
template <typename... Chars>
constexpr descr(char c, Chars... cs) : text{c, static_cast<char>(cs)..., '\0'} { }
static constexpr std::array<const std::type_info *, sizeof...(Ts) + 1> types() {
return {{&typeid(Ts)..., nullptr}};
}
};
template <size_t N1, size_t N2, typename... Ts1, typename... Ts2, size_t... Is1, size_t... Is2>
constexpr descr<N1 + N2, Ts1..., Ts2...> plus_impl(const descr<N1, Ts1...> &a, const descr<N2, Ts2...> &b,
index_sequence<Is1...>, index_sequence<Is2...>) {
return {a.text[Is1]..., b.text[Is2]...};
}
template <size_t N1, size_t N2, typename... Ts1, typename... Ts2>
constexpr descr<N1 + N2, Ts1..., Ts2...> operator+(const descr<N1, Ts1...> &a, const descr<N2, Ts2...> &b) {
return plus_impl(a, b, make_index_sequence<N1>(), make_index_sequence<N2>());
}
template <size_t N>
constexpr descr<N - 1> _(char const(&text)[N]) { return descr<N - 1>(text); }
constexpr descr<0> _(char const(&)[1]) { return {}; }
template <size_t Rem, size_t... Digits> struct int_to_str : int_to_str<Rem/10, Rem%10, Digits...> { };
template <size_t...Digits> struct int_to_str<0, Digits...> {
static constexpr auto digits = descr<sizeof...(Digits)>(('0' + Digits)...);
};
// Ternary description (like std::conditional)
template <bool B, size_t N1, size_t N2>
constexpr enable_if_t<B, descr<N1 - 1>> _(char const(&text1)[N1], char const(&)[N2]) {
return _(text1);
}
template <bool B, size_t N1, size_t N2>
constexpr enable_if_t<!B, descr<N2 - 1>> _(char const(&)[N1], char const(&text2)[N2]) {
return _(text2);
}
template <bool B, typename T1, typename T2>
constexpr enable_if_t<B, T1> _(const T1 &d, const T2 &) { return d; }
template <bool B, typename T1, typename T2>
constexpr enable_if_t<!B, T2> _(const T1 &, const T2 &d) { return d; }
template <size_t Size> auto constexpr _() -> decltype(int_to_str<Size / 10, Size % 10>::digits) {
return int_to_str<Size / 10, Size % 10>::digits;
}
template <typename Type> constexpr descr<1, Type> _() { return {'%'}; }
constexpr descr<0> concat() { return {}; }
template <size_t N, typename... Ts>
constexpr descr<N, Ts...> concat(const descr<N, Ts...> &descr) { return descr; }
template <size_t N, typename... Ts, typename... Args>
constexpr auto concat(const descr<N, Ts...> &d, const Args &...args)
-> decltype(std::declval<descr<N + 2, Ts...>>() + concat(args...)) {
return d + _(", ") + concat(args...);
}
template <size_t N, typename... Ts>
constexpr descr<N + 2, Ts...> type_descr(const descr<N, Ts...> &descr) {
return _("{") + descr + _("}");
}
PYBIND11_NAMESPACE_END(detail)
PYBIND11_NAMESPACE_END(PYBIND11_NAMESPACE)

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/*
pybind11/detail/init.h: init factory function implementation and support code.
Copyright (c) 2017 Jason Rhinelander <jason@imaginary.ca>
All rights reserved. Use of this source code is governed by a
BSD-style license that can be found in the LICENSE file.
*/
#pragma once
#include "class.h"
PYBIND11_NAMESPACE_BEGIN(PYBIND11_NAMESPACE)
PYBIND11_NAMESPACE_BEGIN(detail)
template <>
class type_caster<value_and_holder> {
public:
bool load(handle h, bool) {
value = reinterpret_cast<value_and_holder *>(h.ptr());
return true;
}
template <typename> using cast_op_type = value_and_holder &;
operator value_and_holder &() { return *value; }
static constexpr auto name = _<value_and_holder>();
private:
value_and_holder *value = nullptr;
};
PYBIND11_NAMESPACE_BEGIN(initimpl)
inline void no_nullptr(void *ptr) {
if (!ptr) throw type_error("pybind11::init(): factory function returned nullptr");
}
// Implementing functions for all forms of py::init<...> and py::init(...)
template <typename Class> using Cpp = typename Class::type;
template <typename Class> using Alias = typename Class::type_alias;
template <typename Class> using Holder = typename Class::holder_type;
template <typename Class> using is_alias_constructible = std::is_constructible<Alias<Class>, Cpp<Class> &&>;
// Takes a Cpp pointer and returns true if it actually is a polymorphic Alias instance.
template <typename Class, enable_if_t<Class::has_alias, int> = 0>
bool is_alias(Cpp<Class> *ptr) {
return dynamic_cast<Alias<Class> *>(ptr) != nullptr;
}
// Failing fallback version of the above for a no-alias class (always returns false)
template <typename /*Class*/>
constexpr bool is_alias(void *) { return false; }
// Constructs and returns a new object; if the given arguments don't map to a constructor, we fall
// back to brace aggregate initiailization so that for aggregate initialization can be used with
// py::init, e.g. `py::init<int, int>` to initialize a `struct T { int a; int b; }`. For
// non-aggregate types, we need to use an ordinary T(...) constructor (invoking as `T{...}` usually
// works, but will not do the expected thing when `T` has an `initializer_list<T>` constructor).
template <typename Class, typename... Args, detail::enable_if_t<std::is_constructible<Class, Args...>::value, int> = 0>
inline Class *construct_or_initialize(Args &&...args) { return new Class(std::forward<Args>(args)...); }
template <typename Class, typename... Args, detail::enable_if_t<!std::is_constructible<Class, Args...>::value, int> = 0>
inline Class *construct_or_initialize(Args &&...args) { return new Class{std::forward<Args>(args)...}; }
// Attempts to constructs an alias using a `Alias(Cpp &&)` constructor. This allows types with
// an alias to provide only a single Cpp factory function as long as the Alias can be
// constructed from an rvalue reference of the base Cpp type. This means that Alias classes
// can, when appropriate, simply define a `Alias(Cpp &&)` constructor rather than needing to
// inherit all the base class constructors.
template <typename Class>
void construct_alias_from_cpp(std::true_type /*is_alias_constructible*/,
value_and_holder &v_h, Cpp<Class> &&base) {
v_h.value_ptr() = new Alias<Class>(std::move(base));
}
template <typename Class>
[[noreturn]] void construct_alias_from_cpp(std::false_type /*!is_alias_constructible*/,
value_and_holder &, Cpp<Class> &&) {
throw type_error("pybind11::init(): unable to convert returned instance to required "
"alias class: no `Alias<Class>(Class &&)` constructor available");
}
// Error-generating fallback for factories that don't match one of the below construction
// mechanisms.
template <typename Class>
void construct(...) {
static_assert(!std::is_same<Class, Class>::value /* always false */,
"pybind11::init(): init function must return a compatible pointer, "
"holder, or value");
}
// Pointer return v1: the factory function returns a class pointer for a registered class.
// If we don't need an alias (because this class doesn't have one, or because the final type is
// inherited on the Python side) we can simply take over ownership. Otherwise we need to try to
// construct an Alias from the returned base instance.
template <typename Class>
void construct(value_and_holder &v_h, Cpp<Class> *ptr, bool need_alias) {
no_nullptr(ptr);
if (Class::has_alias && need_alias && !is_alias<Class>(ptr)) {
// We're going to try to construct an alias by moving the cpp type. Whether or not
// that succeeds, we still need to destroy the original cpp pointer (either the
// moved away leftover, if the alias construction works, or the value itself if we
// throw an error), but we can't just call `delete ptr`: it might have a special
// deleter, or might be shared_from_this. So we construct a holder around it as if
// it was a normal instance, then steal the holder away into a local variable; thus
// the holder and destruction happens when we leave the C++ scope, and the holder
// class gets to handle the destruction however it likes.
v_h.value_ptr() = ptr;
v_h.set_instance_registered(true); // To prevent init_instance from registering it
v_h.type->init_instance(v_h.inst, nullptr); // Set up the holder
Holder<Class> temp_holder(std::move(v_h.holder<Holder<Class>>())); // Steal the holder
v_h.type->dealloc(v_h); // Destroys the moved-out holder remains, resets value ptr to null
v_h.set_instance_registered(false);
construct_alias_from_cpp<Class>(is_alias_constructible<Class>{}, v_h, std::move(*ptr));
} else {
// Otherwise the type isn't inherited, so we don't need an Alias
v_h.value_ptr() = ptr;
}
}
// Pointer return v2: a factory that always returns an alias instance ptr. We simply take over
// ownership of the pointer.
template <typename Class, enable_if_t<Class::has_alias, int> = 0>
void construct(value_and_holder &v_h, Alias<Class> *alias_ptr, bool) {
no_nullptr(alias_ptr);
v_h.value_ptr() = static_cast<Cpp<Class> *>(alias_ptr);
}
// Holder return: copy its pointer, and move or copy the returned holder into the new instance's
// holder. This also handles types like std::shared_ptr<T> and std::unique_ptr<T> where T is a
// derived type (through those holder's implicit conversion from derived class holder constructors).
template <typename Class>
void construct(value_and_holder &v_h, Holder<Class> holder, bool need_alias) {
auto *ptr = holder_helper<Holder<Class>>::get(holder);
no_nullptr(ptr);
// If we need an alias, check that the held pointer is actually an alias instance
if (Class::has_alias && need_alias && !is_alias<Class>(ptr))
throw type_error("pybind11::init(): construction failed: returned holder-wrapped instance "
"is not an alias instance");
v_h.value_ptr() = ptr;
v_h.type->init_instance(v_h.inst, &holder);
}
// return-by-value version 1: returning a cpp class by value. If the class has an alias and an
// alias is required the alias must have an `Alias(Cpp &&)` constructor so that we can construct
// the alias from the base when needed (i.e. because of Python-side inheritance). When we don't
// need it, we simply move-construct the cpp value into a new instance.
template <typename Class>
void construct(value_and_holder &v_h, Cpp<Class> &&result, bool need_alias) {
static_assert(std::is_move_constructible<Cpp<Class>>::value,
"pybind11::init() return-by-value factory function requires a movable class");
if (Class::has_alias && need_alias)
construct_alias_from_cpp<Class>(is_alias_constructible<Class>{}, v_h, std::move(result));
else
v_h.value_ptr() = new Cpp<Class>(std::move(result));
}
// return-by-value version 2: returning a value of the alias type itself. We move-construct an
// Alias instance (even if no the python-side inheritance is involved). The is intended for
// cases where Alias initialization is always desired.
template <typename Class>
void construct(value_and_holder &v_h, Alias<Class> &&result, bool) {
static_assert(std::is_move_constructible<Alias<Class>>::value,
"pybind11::init() return-by-alias-value factory function requires a movable alias class");
v_h.value_ptr() = new Alias<Class>(std::move(result));
}
// Implementing class for py::init<...>()
template <typename... Args>
struct constructor {
template <typename Class, typename... Extra, enable_if_t<!Class::has_alias, int> = 0>
static void execute(Class &cl, const Extra&... extra) {
cl.def("__init__", [](value_and_holder &v_h, Args... args) {
v_h.value_ptr() = construct_or_initialize<Cpp<Class>>(std::forward<Args>(args)...);
}, is_new_style_constructor(), extra...);
}
template <typename Class, typename... Extra,
enable_if_t<Class::has_alias &&
std::is_constructible<Cpp<Class>, Args...>::value, int> = 0>
static void execute(Class &cl, const Extra&... extra) {
cl.def("__init__", [](value_and_holder &v_h, Args... args) {
if (Py_TYPE(v_h.inst) == v_h.type->type)
v_h.value_ptr() = construct_or_initialize<Cpp<Class>>(std::forward<Args>(args)...);
else
v_h.value_ptr() = construct_or_initialize<Alias<Class>>(std::forward<Args>(args)...);
}, is_new_style_constructor(), extra...);
}
template <typename Class, typename... Extra,
enable_if_t<Class::has_alias &&
!std::is_constructible<Cpp<Class>, Args...>::value, int> = 0>
static void execute(Class &cl, const Extra&... extra) {
cl.def("__init__", [](value_and_holder &v_h, Args... args) {
v_h.value_ptr() = construct_or_initialize<Alias<Class>>(std::forward<Args>(args)...);
}, is_new_style_constructor(), extra...);
}
};
// Implementing class for py::init_alias<...>()
template <typename... Args> struct alias_constructor {
template <typename Class, typename... Extra,
enable_if_t<Class::has_alias && std::is_constructible<Alias<Class>, Args...>::value, int> = 0>
static void execute(Class &cl, const Extra&... extra) {
cl.def("__init__", [](value_and_holder &v_h, Args... args) {
v_h.value_ptr() = construct_or_initialize<Alias<Class>>(std::forward<Args>(args)...);
}, is_new_style_constructor(), extra...);
}
};
// Implementation class for py::init(Func) and py::init(Func, AliasFunc)
template <typename CFunc, typename AFunc = void_type (*)(),
typename = function_signature_t<CFunc>, typename = function_signature_t<AFunc>>
struct factory;
// Specialization for py::init(Func)
template <typename Func, typename Return, typename... Args>
struct factory<Func, void_type (*)(), Return(Args...)> {
remove_reference_t<Func> class_factory;
factory(Func &&f) : class_factory(std::forward<Func>(f)) { }
// The given class either has no alias or has no separate alias factory;
// this always constructs the class itself. If the class is registered with an alias
// type and an alias instance is needed (i.e. because the final type is a Python class
// inheriting from the C++ type) the returned value needs to either already be an alias
// instance, or the alias needs to be constructible from a `Class &&` argument.
template <typename Class, typename... Extra>
void execute(Class &cl, const Extra &...extra) && {
#if defined(PYBIND11_CPP14)
cl.def("__init__", [func = std::move(class_factory)]
#else
auto &func = class_factory;
cl.def("__init__", [func]
#endif
(value_and_holder &v_h, Args... args) {
construct<Class>(v_h, func(std::forward<Args>(args)...),
Py_TYPE(v_h.inst) != v_h.type->type);
}, is_new_style_constructor(), extra...);
}
};
// Specialization for py::init(Func, AliasFunc)
template <typename CFunc, typename AFunc,
typename CReturn, typename... CArgs, typename AReturn, typename... AArgs>
struct factory<CFunc, AFunc, CReturn(CArgs...), AReturn(AArgs...)> {
static_assert(sizeof...(CArgs) == sizeof...(AArgs),
"pybind11::init(class_factory, alias_factory): class and alias factories "
"must have identical argument signatures");
static_assert(all_of<std::is_same<CArgs, AArgs>...>::value,
"pybind11::init(class_factory, alias_factory): class and alias factories "
"must have identical argument signatures");
remove_reference_t<CFunc> class_factory;
remove_reference_t<AFunc> alias_factory;
factory(CFunc &&c, AFunc &&a)
: class_factory(std::forward<CFunc>(c)), alias_factory(std::forward<AFunc>(a)) { }
// The class factory is called when the `self` type passed to `__init__` is the direct
// class (i.e. not inherited), the alias factory when `self` is a Python-side subtype.
template <typename Class, typename... Extra>
void execute(Class &cl, const Extra&... extra) && {
static_assert(Class::has_alias, "The two-argument version of `py::init()` can "
"only be used if the class has an alias");
#if defined(PYBIND11_CPP14)
cl.def("__init__", [class_func = std::move(class_factory), alias_func = std::move(alias_factory)]
#else
auto &class_func = class_factory;
auto &alias_func = alias_factory;
cl.def("__init__", [class_func, alias_func]
#endif
(value_and_holder &v_h, CArgs... args) {
if (Py_TYPE(v_h.inst) == v_h.type->type)
// If the instance type equals the registered type we don't have inheritance, so
// don't need the alias and can construct using the class function:
construct<Class>(v_h, class_func(std::forward<CArgs>(args)...), false);
else
construct<Class>(v_h, alias_func(std::forward<CArgs>(args)...), true);
}, is_new_style_constructor(), extra...);
}
};
/// Set just the C++ state. Same as `__init__`.
template <typename Class, typename T>
void setstate(value_and_holder &v_h, T &&result, bool need_alias) {
construct<Class>(v_h, std::forward<T>(result), need_alias);
}
/// Set both the C++ and Python states
template <typename Class, typename T, typename O,
enable_if_t<std::is_convertible<O, handle>::value, int> = 0>
void setstate(value_and_holder &v_h, std::pair<T, O> &&result, bool need_alias) {
construct<Class>(v_h, std::move(result.first), need_alias);
setattr((PyObject *) v_h.inst, "__dict__", result.second);
}
/// Implementation for py::pickle(GetState, SetState)
template <typename Get, typename Set,
typename = function_signature_t<Get>, typename = function_signature_t<Set>>
struct pickle_factory;
template <typename Get, typename Set,
typename RetState, typename Self, typename NewInstance, typename ArgState>
struct pickle_factory<Get, Set, RetState(Self), NewInstance(ArgState)> {
static_assert(std::is_same<intrinsic_t<RetState>, intrinsic_t<ArgState>>::value,
"The type returned by `__getstate__` must be the same "
"as the argument accepted by `__setstate__`");
remove_reference_t<Get> get;
remove_reference_t<Set> set;
pickle_factory(Get get, Set set)
: get(std::forward<Get>(get)), set(std::forward<Set>(set)) { }
template <typename Class, typename... Extra>
void execute(Class &cl, const Extra &...extra) && {
cl.def("__getstate__", std::move(get));
#if defined(PYBIND11_CPP14)
cl.def("__setstate__", [func = std::move(set)]
#else
auto &func = set;
cl.def("__setstate__", [func]
#endif
(value_and_holder &v_h, ArgState state) {
setstate<Class>(v_h, func(std::forward<ArgState>(state)),
Py_TYPE(v_h.inst) != v_h.type->type);
}, is_new_style_constructor(), extra...);
}
};
PYBIND11_NAMESPACE_END(initimpl)
PYBIND11_NAMESPACE_END(detail)
PYBIND11_NAMESPACE_END(pybind11)

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