haskal
/
kicad
1
0
Fork 0
Code Issues Pull Requests Packages Projects Releases Wiki Activity
kicad/pcbnew/pcb_io/eagle/pcb_io_eagle.cpp

3325 lines
108 KiB
C++
Raw Blame History

/*
* This program source code file is part of KiCad, a free EDA CAD application.
*
* Copyright (C) 2012 SoftPLC Corporation, Dick Hollenbeck <dick@softplc.com>
* Copyright (C) 2012-2024 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
*/
/*
Pcbnew PLUGIN for Eagle 6.x XML *.brd and footprint format.
XML parsing and converting:
Getting line numbers and byte offsets from the source XML file is not
possible using currently available XML libraries within KiCad project:
wxXmlDocument and boost::property_tree.
property_tree will give line numbers but no byte offsets, and only during
document loading. This means that if we have a problem after the document is
successfully loaded, there is no way to correlate back to line number and byte
offset of the problem. So a different approach is taken, one which relies on the
XML elements themselves using an XPATH type of reporting mechanism. The path to
the problem is reported in the error messages. This means keeping track of that
path as we traverse the XML document for the sole purpose of accurate error
reporting.
User can load the source XML file into firefox or other xml browser and follow
our error message.
Load() TODO's
*) verify zone fill clearances are correct
*/
#include <cerrno>
#include <wx/string.h>
#include <wx/xml/xml.h>
#include <wx/filename.h>
#include <wx/log.h>
#include <wx/wfstream.h>
#include <wx/txtstrm.h>
#include <wx/window.h>
#include <convert_basic_shapes_to_polygon.h>
#include <string_utils.h>
#include <locale_io.h>
#include <string_utf8_map.h>
#include <trigo.h>
#include <progress_reporter.h>
#include <project.h>
#include <board.h>
#include <board_design_settings.h>
#include <footprint.h>
#include <pad.h>
#include <pcb_track.h>
#include <pcb_shape.h>
#include <zone.h>
#include <padstack.h>
#include <pcb_text.h>
#include <pcb_dimension.h>
#include <pcb_io/pcb_io.h>
#include <pcb_io/eagle/pcb_io_eagle.h>
using namespace std;
/// Parse an eagle distance which is either mm, or mils if there is "mil" suffix.
/// Return is in BIU.
static int parseEagle( const wxString& aDistance )
{
ECOORD::EAGLE_UNIT unit = ( aDistance.npos != aDistance.find( "mil" ) )
? ECOORD::EAGLE_UNIT::EU_MIL
: ECOORD::EAGLE_UNIT::EU_MM;
ECOORD coord( aDistance, unit );
return coord.ToPcbUnits();
}
// In Eagle one can specify DRC rules where min value > max value,
// in such case the max value has the priority
template<typename T>
static T eagleClamp( T aMin, T aValue, T aMax )
{
T ret = std::max( aMin, aValue );
return std::min( aMax, ret );
}
/// Assemble a two part key as a simple concatenation of aFirst and aSecond parts,
/// using a separator.
static wxString makeKey( const wxString& aFirst, const wxString& aSecond )
{
wxString key = aFirst + '\x02' + aSecond;
return key;
}
void PCB_IO_EAGLE::setKeepoutSettingsToZone( ZONE* aZone, int aLayer ) const
{
if( aLayer == EAGLE_LAYER::TRESTRICT || aLayer == EAGLE_LAYER::BRESTRICT )
{
aZone->SetIsRuleArea( true );
aZone->SetDoNotAllowVias( true );
aZone->SetDoNotAllowTracks( true );
aZone->SetDoNotAllowCopperPour( true );
aZone->SetDoNotAllowPads( true );
aZone->SetDoNotAllowFootprints( false );
if( aLayer == EAGLE_LAYER::TRESTRICT ) // front layer keepout
aZone->SetLayer( F_Cu );
else // bottom layer keepout
aZone->SetLayer( B_Cu );
}
else if( aLayer == EAGLE_LAYER::VRESTRICT )
{
aZone->SetIsRuleArea( true );
aZone->SetDoNotAllowVias( true );
aZone->SetDoNotAllowTracks( false );
aZone->SetDoNotAllowCopperPour( false );
aZone->SetDoNotAllowPads( false );
aZone->SetDoNotAllowFootprints( false );
aZone->SetLayerSet( LSET::AllCuMask() );
}
else // copper pour cutout
{
aZone->SetIsRuleArea( true );
aZone->SetDoNotAllowVias( false );
aZone->SetDoNotAllowTracks( false );
aZone->SetDoNotAllowCopperPour( true );
aZone->SetDoNotAllowPads( false );
aZone->SetDoNotAllowFootprints( false );
aZone->SetLayerSet( kicad_layer( aLayer ) );
}
}
void ERULES::parse( wxXmlNode* aRules, std::function<void()> aCheckpoint )
{
wxXmlNode* child = aRules->GetChildren();
while( child )
{
aCheckpoint();
if( child->GetName() == wxT( "param" ) )
{
const wxString& name = child->GetAttribute( wxT( "name" ) );
const wxString& value = child->GetAttribute( wxT( "value" ) );
if( name == wxT( "psElongationLong" ) )
psElongationLong = wxAtoi( value );
else if( name == wxT( "psElongationOffset" ) )
psElongationOffset = wxAtoi( value );
else if( name == wxT( "mvStopFrame" ) )
value.ToCDouble( &mvStopFrame );
else if( name == wxT( "mvCreamFrame" ) )
value.ToCDouble( &mvCreamFrame );
else if( name == wxT( "mlMinStopFrame" ) )
mlMinStopFrame = parseEagle( value );
else if( name == wxT( "mlMaxStopFrame" ) )
mlMaxStopFrame = parseEagle( value );
else if( name == wxT( "mlMinCreamFrame" ) )
mlMinCreamFrame = parseEagle( value );
else if( name == wxT( "mlMaxCreamFrame" ) )
mlMaxCreamFrame = parseEagle( value );
else if( name == wxT( "srRoundness" ) )
value.ToCDouble( &srRoundness );
else if( name == wxT( "srMinRoundness" ) )
srMinRoundness = parseEagle( value );
else if( name == wxT( "srMaxRoundness" ) )
srMaxRoundness = parseEagle( value );
else if( name == wxT( "psTop" ) )
psTop = wxAtoi( value );
else if( name == wxT( "psBottom" ) )
psBottom = wxAtoi( value );
else if( name == wxT( "psFirst" ) )
psFirst = wxAtoi( value );
else if( name == wxT( "rvPadTop" ) )
value.ToCDouble( &rvPadTop );
else if( name == wxT( "rlMinPadTop" ) )
rlMinPadTop = parseEagle( value );
else if( name == wxT( "rlMaxPadTop" ) )
rlMaxPadTop = parseEagle( value );
else if( name == wxT( "rvViaOuter" ) )
value.ToCDouble( &rvViaOuter );
else if( name == wxT( "rlMinViaOuter" ) )
rlMinViaOuter = parseEagle( value );
else if( name == wxT( "rlMaxViaOuter" ) )
rlMaxViaOuter = parseEagle( value );
else if( name == wxT( "mdWireWire" ) )
mdWireWire = parseEagle( value );
}
child = child->GetNext();
}
}
PCB_IO_EAGLE::PCB_IO_EAGLE() : PCB_IO( wxS( "Eagle" ) ),
m_rules( new ERULES() ),
m_xpath( new XPATH() ),
m_progressReporter( nullptr ),
m_doneCount( 0 ),
m_lastProgressCount( 0 ),
m_totalCount( 0 ),
m_mod_time( wxDateTime::Now() )
{
using namespace std::placeholders;
init( nullptr );
clear_cu_map();
RegisterLayerMappingCallback( std::bind( &PCB_IO_EAGLE::DefaultLayerMappingCallback,
this, _1 ) );
}
PCB_IO_EAGLE::~PCB_IO_EAGLE()
{
deleteTemplates();
delete m_rules;
delete m_xpath;
}
bool PCB_IO_EAGLE::CanReadBoard( const wxString& aFileName ) const
{
if( !PCB_IO::CanReadBoard( aFileName ) )
return false;
return checkHeader( aFileName );
}
bool PCB_IO_EAGLE::CanReadLibrary( const wxString& aFileName ) const
{
if( !PCB_IO::CanReadLibrary( aFileName ) )
return false;
return checkHeader( aFileName );
}
bool PCB_IO_EAGLE::CanReadFootprint( const wxString& aFileName ) const
{
return CanReadLibrary( aFileName );
}
bool PCB_IO_EAGLE::checkHeader(const wxString& aFileName) const
{
wxFileInputStream input( aFileName );
if( !input.IsOk() )
return false;
wxTextInputStream text( input );
for( int i = 0; i < 4; i++ )
{
if( input.Eof() )
return false;
if( text.ReadLine().Contains( wxS( "<eagle" ) ) )
return true;
}
return false;
}
void PCB_IO_EAGLE::checkpoint()
{
const unsigned PROGRESS_DELTA = 50;
if( m_progressReporter )
{
if( ++m_doneCount > m_lastProgressCount + PROGRESS_DELTA )
{
m_progressReporter->SetCurrentProgress( ( (double) m_doneCount )
/ std::max( 1U, m_totalCount ) );
if( !m_progressReporter->KeepRefreshing() )
THROW_IO_ERROR( _( "Open cancelled by user." ) );
m_lastProgressCount = m_doneCount;
}
}
}
VECTOR2I inline PCB_IO_EAGLE::kicad_fontsize( const ECOORD& d, int aTextThickness ) const
{
// Eagle includes stroke thickness in the text size, KiCAD does not
int kz = d.ToPcbUnits();
return VECTOR2I( kz - aTextThickness, kz - aTextThickness );
}
BOARD* PCB_IO_EAGLE::LoadBoard( const wxString& aFileName, BOARD* aAppendToMe,
const STRING_UTF8_MAP* aProperties, PROJECT* aProject )
{
LOCALE_IO toggle; // toggles on, then off, the C locale.
wxXmlNode* doc;
init( aProperties );
m_board = aAppendToMe ? aAppendToMe : new BOARD();
// Give the filename to the board if it's new
if( !aAppendToMe )
m_board->SetFileName( aFileName );
// delete on exception, if I own m_board, according to aAppendToMe
unique_ptr<BOARD> deleter( aAppendToMe ? nullptr : m_board );
try
{
if( m_progressReporter )
{
m_progressReporter->Report( wxString::Format( _( "Loading %s..." ), aFileName ) );
if( !m_progressReporter->KeepRefreshing() )
THROW_IO_ERROR( _( "Open cancelled by user." ) );
}
wxFileName fn = aFileName;
// Load the document
wxFFileInputStream stream( fn.GetFullPath() );
wxXmlDocument xmlDocument;
if( !stream.IsOk() || !xmlDocument.Load( stream ) )
{
THROW_IO_ERROR( wxString::Format( _( "Unable to read file '%s'" ),
fn.GetFullPath() ) );
}
doc = xmlDocument.GetRoot();
m_min_trace = INT_MAX;
m_min_hole = INT_MAX;
m_min_via = INT_MAX;
m_min_annulus = INT_MAX;
loadAllSections( doc );
BOARD_DESIGN_SETTINGS& bds = m_board->GetDesignSettings();
if( m_min_trace < bds.m_TrackMinWidth )
bds.m_TrackMinWidth = m_min_trace;
if( m_min_via < bds.m_ViasMinSize )
bds.m_ViasMinSize = m_min_via;
if( m_min_hole < bds.m_MinThroughDrill )
bds.m_MinThroughDrill = m_min_hole;
if( m_min_annulus < bds.m_ViasMinAnnularWidth )
bds.m_ViasMinAnnularWidth = m_min_annulus;
if( m_rules->mdWireWire )
bds.m_MinClearance = KiROUND( m_rules->mdWireWire );
NETCLASS defaults( wxT( "dummy" ) );
auto finishNetclass =
[&]( std::shared_ptr<NETCLASS> netclass )
{
// If Eagle has a clearance matrix then we'll build custom rules from that.
// Netclasses should just be the board minimum clearance.
netclass->SetClearance( KiROUND( bds.m_MinClearance ) );
if( netclass->GetTrackWidth() == INT_MAX )
netclass->SetTrackWidth( defaults.GetTrackWidth() );
if( netclass->GetViaDiameter() == INT_MAX )
netclass->SetViaDiameter( defaults.GetViaDiameter() );
if( netclass->GetViaDrill() == INT_MAX )
netclass->SetViaDrill( defaults.GetViaDrill() );
};
std::shared_ptr<NET_SETTINGS>& netSettings = bds.m_NetSettings;
finishNetclass( netSettings->m_DefaultNetClass );
for( const auto& [ name, netclass ] : netSettings->m_NetClasses )
finishNetclass( netclass );
m_board->m_LegacyNetclassesLoaded = true;
m_board->m_LegacyDesignSettingsLoaded = true;
fn.SetExt( wxT( "kicad_dru" ) );
wxFile rulesFile( fn.GetFullPath(), wxFile::write );
rulesFile.Write( m_customRules );
// should be empty, else missing m_xpath->pop()
wxASSERT( m_xpath->Contents().size() == 0 );
}
catch( const XML_PARSER_ERROR &exc )
{
wxString errmsg = exc.what();
errmsg += wxT( "\n@ " );
errmsg += m_xpath->Contents();
THROW_IO_ERROR( errmsg );
}
// IO_ERROR exceptions are left uncaught, they pass upwards from here.
m_board->SetCopperLayerCount( getMinimumCopperLayerCount() );
centerBoard();
deleter.release();
return m_board;
}
std::vector<FOOTPRINT*> PCB_IO_EAGLE::GetImportedCachedLibraryFootprints()
{
std::vector<FOOTPRINT*> retval;
for( const auto& [ name, footprint ] : m_templates )
retval.push_back( static_cast<FOOTPRINT*>( footprint->Clone() ) );
return retval;
}
void PCB_IO_EAGLE::init( const STRING_UTF8_MAP* aProperties )
{
m_hole_count = 0;
m_min_trace = 0;
m_min_hole = 0;
m_min_via = 0;
m_min_annulus = 0;
m_xpath->clear();
m_pads_to_nets.clear();
m_board = nullptr;
m_props = aProperties;
delete m_rules;
m_rules = new ERULES();
}
void PCB_IO_EAGLE::clear_cu_map()
{
// All cu layers are invalid until we see them in the <layers> section while
// loading either a board or library. See loadLayerDefs().
for( unsigned i = 0; i < arrayDim(m_cu_map); ++i )
m_cu_map[i] = -1;
}
void PCB_IO_EAGLE::loadAllSections( wxXmlNode* aDoc )
{
wxXmlNode* drawing = MapChildren( aDoc )["drawing"];
NODE_MAP drawingChildren = MapChildren( drawing );
wxXmlNode* board = drawingChildren["board"];
NODE_MAP boardChildren = MapChildren( board );
auto count_children = [this]( wxXmlNode* aNode )
{
if( aNode )
{
wxXmlNode* child = aNode->GetChildren();
while( child )
{
m_totalCount++;
child = child->GetNext();
}
}
};
wxXmlNode* designrules = boardChildren["designrules"];
wxXmlNode* layers = drawingChildren["layers"];
wxXmlNode* plain = boardChildren["plain"];
wxXmlNode* classes = boardChildren["classes"];
wxXmlNode* signals = boardChildren["signals"];
wxXmlNode* libs = boardChildren["libraries"];
wxXmlNode* elems = boardChildren["elements"];
if( m_progressReporter )
{
m_totalCount = 0;
m_doneCount = 0;
count_children( designrules );
count_children( layers );
count_children( plain );
count_children( signals );
count_children( elems );
while( libs )
{
count_children( MapChildren( libs )["packages"] );
libs = libs->GetNext();
}
// Rewind
libs = boardChildren["libraries"];
}
m_xpath->push( "eagle.drawing" );
{
m_xpath->push( "board" );
loadDesignRules( designrules );
m_xpath->pop();
}
{
m_xpath->push( "layers" );
loadLayerDefs( layers );
mapEagleLayersToKicad();
m_xpath->pop();
}
{
m_xpath->push( "board" );
loadPlain( plain );
loadClasses( classes );
loadSignals( signals );
loadLibraries( libs );
loadElements( elems );
m_xpath->pop();
}
m_xpath->pop(); // "eagle.drawing"
}
void PCB_IO_EAGLE::loadDesignRules( wxXmlNode* aDesignRules )
{
if( aDesignRules )
{
m_xpath->push( "designrules" );
m_rules->parse( aDesignRules, [this](){ checkpoint(); } );
m_xpath->pop(); // "designrules"
}
}
void PCB_IO_EAGLE::loadLayerDefs( wxXmlNode* aLayers )
{
if( !aLayers )
return;
ELAYERS cu; // copper layers
// Get the first layer and iterate
wxXmlNode* layerNode = aLayers->GetChildren();
m_eagleLayers.clear();
m_eagleLayersIds.clear();
while( layerNode )
{
ELAYER elayer( layerNode );
m_eagleLayers.insert( std::make_pair( elayer.number, elayer ) );
m_eagleLayersIds.insert( std::make_pair( elayer.name, elayer.number ) );
// find the subset of layers that are copper and active
if( elayer.number >= 1 && elayer.number <= 16 && ( !elayer.active || *elayer.active ) )
cu.push_back( elayer );
layerNode = layerNode->GetNext();
}
// establish cu layer map:
int ki_layer_count = 0;
for( EITER it = cu.begin(); it != cu.end(); ++it, ++ki_layer_count )
{
if( ki_layer_count == 0 )
{
m_cu_map[it->number] = F_Cu;
}
else if( ki_layer_count == int( cu.size()-1 ) )
{
m_cu_map[it->number] = B_Cu;
}
else
{
// some eagle boards do not have contiguous layer number sequences.
m_cu_map[it->number] = ki_layer_count;
}
}
// Set the layer names and cu count if we're loading a board.
if( m_board )
{
m_board->SetCopperLayerCount( cu.size() );
for( EITER it = cu.begin(); it != cu.end(); ++it )
{
PCB_LAYER_ID layer = kicad_layer( it->number );
// these function provide their own protection against non enabled layers:
if( layer >= 0 && layer < PCB_LAYER_ID_COUNT ) // layer should be valid
{
m_board->SetLayerName( layer, it->name );
m_board->SetLayerType( layer, LT_SIGNAL );
}
// could map the colors here
}
}
}
#define DIMENSION_PRECISION DIM_PRECISION::X_XX // 0.01 mm
void PCB_IO_EAGLE::loadPlain( wxXmlNode* aGraphics )
{
if( !aGraphics )
return;
m_xpath->push( "plain" );
// Get the first graphic and iterate
wxXmlNode* gr = aGraphics->GetChildren();
// (polygon | wire | text | circle | rectangle | frame | hole)*
while( gr )
{
checkpoint();
wxString grName = gr->GetName();
if( grName == wxT( "wire" ) )
{
m_xpath->push( "wire" );
EWIRE w( gr );
PCB_LAYER_ID layer = kicad_layer( w.layer );
VECTOR2I start( kicad_x( w.x1 ), kicad_y( w.y1 ) );
VECTOR2I end( kicad_x( w.x2 ), kicad_y( w.y2 ) );
if( layer != UNDEFINED_LAYER )
{
PCB_SHAPE* shape = new PCB_SHAPE( m_board );
int width = w.width.ToPcbUnits();
// KiCad cannot handle zero or negative line widths
if( width <= 0 )
width = m_board->GetDesignSettings().GetLineThickness( layer );
m_board->Add( shape, ADD_MODE::APPEND );
if( !w.curve )
{
shape->SetShape( SHAPE_T::SEGMENT );
shape->SetStart( start );
shape->SetEnd( end );
}
else
{
VECTOR2I center = ConvertArcCenter( start, end, *w.curve );
shape->SetShape( SHAPE_T::ARC );
shape->SetCenter( center );
shape->SetStart( start );
shape->SetArcAngleAndEnd( -EDA_ANGLE( *w.curve, DEGREES_T ), true ); // KiCad rotates the other way
}
shape->SetLayer( layer );
shape->SetStroke( STROKE_PARAMS( width, LINE_STYLE::SOLID ) );
}
m_xpath->pop();
}
else if( grName == wxT( "text" ) )
{
m_xpath->push( "text" );
ETEXT t( gr );
PCB_LAYER_ID layer = kicad_layer( t.layer );
if( layer != UNDEFINED_LAYER )
{
PCB_TEXT* pcbtxt = new PCB_TEXT( m_board );
m_board->Add( pcbtxt, ADD_MODE::APPEND );
pcbtxt->SetLayer( layer );
wxString kicadText = interpretText( t.text );
pcbtxt->SetText( kicadText );
pcbtxt->SetTextPos( VECTOR2I( kicad_x( t.x ), kicad_y( t.y ) ) );
double ratio = t.ratio ? *t.ratio : 8; // DTD says 8 is default
int textThickness = KiROUND( t.size.ToPcbUnits() * ratio / 100 );
pcbtxt->SetTextThickness( textThickness );
pcbtxt->SetTextSize( kicad_fontsize( t.size, textThickness ) );
int align = t.align ? *t.align : ETEXT::BOTTOM_LEFT;
if( t.rot )
{
int sign = t.rot->mirror ? -1 : 1;
pcbtxt->SetMirrored( t.rot->mirror );
double degrees = t.rot->degrees;
if( degrees == 90 || t.rot->spin )
{
pcbtxt->SetTextAngle( EDA_ANGLE( sign * degrees, DEGREES_T ) );
if( sign < 0 )
{
BOX2I bbox = pcbtxt->GetBoundingBox();
VECTOR2I pos = pcbtxt->GetTextPos();
pos.y -= sign * bbox.GetWidth(); // yes, width: bbox is unrotated
pcbtxt->SetTextPos( pos );
}
}
else if( degrees == 180 )
{
BOX2I bbox = pcbtxt->GetBoundingBox();
VECTOR2I pos = pcbtxt->GetTextPos();
pos.x -= sign * bbox.GetWidth();
pcbtxt->SetTextPos( pos );
switch( align )
{
case ETEXT::TOP_CENTER: align = ETEXT::BOTTOM_CENTER; break;
case ETEXT::TOP_LEFT: align = ETEXT::BOTTOM_LEFT; break;
case ETEXT::TOP_RIGHT: align = ETEXT::BOTTOM_RIGHT; break;
case ETEXT::BOTTOM_CENTER: align = ETEXT::TOP_CENTER; break;
case ETEXT::BOTTOM_LEFT: align = ETEXT::TOP_LEFT; break;
case ETEXT::BOTTOM_RIGHT: align = ETEXT::TOP_RIGHT; break;
}
}
else if( degrees == 270 )
{
if( sign < 0 )
{
BOX2I bbox = pcbtxt->GetBoundingBox();
VECTOR2I pos = pcbtxt->GetTextPos();
pos.y -= sign * bbox.GetWidth(); // yes, width; bbox is unrotated
pcbtxt->SetTextPos( pos );
}
pcbtxt->SetTextAngle( EDA_ANGLE( sign * 90, DEGREES_T ) );
switch( align )
{
case ETEXT::TOP_CENTER: align = ETEXT::BOTTOM_CENTER; break;
case ETEXT::TOP_LEFT: align = ETEXT::BOTTOM_LEFT; break;
case ETEXT::TOP_RIGHT: align = ETEXT::BOTTOM_RIGHT; break;
case ETEXT::BOTTOM_CENTER: align = ETEXT::TOP_CENTER; break;
case ETEXT::BOTTOM_LEFT: align = ETEXT::TOP_LEFT; break;
case ETEXT::BOTTOM_RIGHT: align = ETEXT::TOP_RIGHT; break;
}
}
else
{
// Ok so text is not at 90,180 or 270 so do some funny stuff to get
// placement right.
if( ( degrees > 0 ) && ( degrees < 90 ) )
{
pcbtxt->SetTextAngle( EDA_ANGLE( sign * degrees, DEGREES_T ) );
}
else if( ( degrees > 90 ) && ( degrees < 180 ) )
{
pcbtxt->SetTextAngle( EDA_ANGLE( sign * ( degrees + 180 ), DEGREES_T ) );
align = ETEXT::TOP_RIGHT;
}
else if( ( degrees > 180 ) && ( degrees < 270 ) )
{
pcbtxt->SetTextAngle( EDA_ANGLE( sign * ( degrees - 180 ), DEGREES_T ) );
align = ETEXT::TOP_RIGHT;
}
else if( ( degrees > 270 ) && ( degrees < 360 ) )
{
pcbtxt->SetTextAngle( EDA_ANGLE( sign * degrees, DEGREES_T ) );
align = ETEXT::BOTTOM_LEFT;
}
}
}
switch( align )
{
case ETEXT::CENTER:
pcbtxt->SetHorizJustify( GR_TEXT_H_ALIGN_CENTER );
pcbtxt->SetVertJustify( GR_TEXT_V_ALIGN_CENTER );
break;
case ETEXT::CENTER_LEFT:
pcbtxt->SetHorizJustify( GR_TEXT_H_ALIGN_LEFT );
pcbtxt->SetVertJustify( GR_TEXT_V_ALIGN_CENTER );
break;
case ETEXT::CENTER_RIGHT:
pcbtxt->SetHorizJustify( GR_TEXT_H_ALIGN_RIGHT );
pcbtxt->SetVertJustify( GR_TEXT_V_ALIGN_CENTER );
break;
case ETEXT::TOP_CENTER:
pcbtxt->SetHorizJustify( GR_TEXT_H_ALIGN_CENTER );
pcbtxt->SetVertJustify( GR_TEXT_V_ALIGN_TOP );
break;
case ETEXT::TOP_LEFT:
pcbtxt->SetHorizJustify( GR_TEXT_H_ALIGN_LEFT );
pcbtxt->SetVertJustify( GR_TEXT_V_ALIGN_TOP );
break;
case ETEXT::TOP_RIGHT:
pcbtxt->SetHorizJustify( GR_TEXT_H_ALIGN_RIGHT );
pcbtxt->SetVertJustify( GR_TEXT_V_ALIGN_TOP );
break;
case ETEXT::BOTTOM_CENTER:
pcbtxt->SetHorizJustify( GR_TEXT_H_ALIGN_CENTER );
pcbtxt->SetVertJustify( GR_TEXT_V_ALIGN_BOTTOM );
break;
case ETEXT::BOTTOM_LEFT:
pcbtxt->SetHorizJustify( GR_TEXT_H_ALIGN_LEFT );
pcbtxt->SetVertJustify( GR_TEXT_V_ALIGN_BOTTOM );
break;
case ETEXT::BOTTOM_RIGHT:
pcbtxt->SetHorizJustify( GR_TEXT_H_ALIGN_RIGHT );
pcbtxt->SetVertJustify( GR_TEXT_V_ALIGN_BOTTOM );
break;
}
}
m_xpath->pop();
}
else if( grName == wxT( "circle" ) )
{
m_xpath->push( "circle" );
ECIRCLE c( gr );
int width = c.width.ToPcbUnits();
int radius = c.radius.ToPcbUnits();
if( c.layer == EAGLE_LAYER::TRESTRICT || c.layer == EAGLE_LAYER::BRESTRICT
|| c.layer == EAGLE_LAYER::VRESTRICT )
{
ZONE* zone = new ZONE( m_board );
m_board->Add( zone, ADD_MODE::APPEND );
setKeepoutSettingsToZone( zone, c.layer );
// approximate circle as polygon
VECTOR2I center( kicad_x( c.x ), kicad_y( c.y ) );
int outlineRadius = radius + ( width / 2 );
int segsInCircle = GetArcToSegmentCount( outlineRadius, ARC_HIGH_DEF, FULL_CIRCLE );
EDA_ANGLE delta = ANGLE_360 / segsInCircle;
for( EDA_ANGLE angle = ANGLE_0; angle < ANGLE_360; angle += delta )
{
VECTOR2I rotatedPoint( outlineRadius, 0 );
RotatePoint( rotatedPoint, angle );
zone->AppendCorner( center + rotatedPoint, -1 );
}
if( width > 0 )
{
zone->NewHole();
int innerRadius = radius - ( width / 2 );
segsInCircle = GetArcToSegmentCount( innerRadius, ARC_HIGH_DEF, FULL_CIRCLE );
delta = ANGLE_360 / segsInCircle;
for( EDA_ANGLE angle = ANGLE_0; angle < ANGLE_360; angle += delta )
{
VECTOR2I rotatedPoint( innerRadius, 0 );
RotatePoint( rotatedPoint, angle );
zone->AppendCorner( center + rotatedPoint, 0 );
}
}
zone->SetBorderDisplayStyle( ZONE_BORDER_DISPLAY_STYLE::DIAGONAL_EDGE,
ZONE::GetDefaultHatchPitch(), true );
}
else
{
PCB_LAYER_ID layer = kicad_layer( c.layer );
if( layer != UNDEFINED_LAYER ) // unsupported layer
{
PCB_SHAPE* shape = new PCB_SHAPE( m_board, SHAPE_T::CIRCLE );
m_board->Add( shape, ADD_MODE::APPEND );
shape->SetFilled( false );
shape->SetLayer( layer );
shape->SetStart( VECTOR2I( kicad_x( c.x ), kicad_y( c.y ) ) );
shape->SetEnd( VECTOR2I( kicad_x( c.x ) + radius, kicad_y( c.y ) ) );
shape->SetStroke( STROKE_PARAMS( width, LINE_STYLE::SOLID ) );
}
}
m_xpath->pop();
}
else if( grName == wxT( "rectangle" ) )
{
// This seems to be a simplified rectangular [copper] zone, cannot find any
// net related info on it from the DTD.
m_xpath->push( "rectangle" );
ERECT r( gr );
PCB_LAYER_ID layer = kicad_layer( r.layer );
if( layer != UNDEFINED_LAYER )
{
ZONE* zone = new ZONE( m_board );
m_board->Add( zone, ADD_MODE::APPEND );
zone->SetLayer( layer );
zone->SetNetCode( NETINFO_LIST::UNCONNECTED );
ZONE_BORDER_DISPLAY_STYLE outline_hatch = ZONE_BORDER_DISPLAY_STYLE::DIAGONAL_EDGE;
const int outlineIdx = -1; // this is the id of the copper zone main outline
zone->AppendCorner( VECTOR2I( kicad_x( r.x1 ), kicad_y( r.y1 ) ), outlineIdx );
zone->AppendCorner( VECTOR2I( kicad_x( r.x2 ), kicad_y( r.y1 ) ), outlineIdx );
zone->AppendCorner( VECTOR2I( kicad_x( r.x2 ), kicad_y( r.y2 ) ), outlineIdx );
zone->AppendCorner( VECTOR2I( kicad_x( r.x1 ), kicad_y( r.y2 ) ), outlineIdx );
if( r.rot )
{
VECTOR2I center( ( kicad_x( r.x1 ) + kicad_x( r.x2 ) ) / 2,
( kicad_y( r.y1 ) + kicad_y( r.y2 ) ) / 2 );
zone->Rotate( center, EDA_ANGLE( r.rot->degrees, DEGREES_T ) );
}
// this is not my fault:
zone->SetBorderDisplayStyle( outline_hatch, ZONE::GetDefaultHatchPitch(), true );
}
m_xpath->pop();
}
else if( grName == wxT( "hole" ) )
{
m_xpath->push( "hole" );
// Fabricate a FOOTPRINT with a single PAD_ATTRIB::NPTH pad.
// Use m_hole_count to gen up a unique name.
FOOTPRINT* footprint = new FOOTPRINT( m_board );
m_board->Add( footprint, ADD_MODE::APPEND );
footprint->SetReference( wxString::Format( wxT( "@HOLE%d" ), m_hole_count++ ) );
footprint->Reference().SetVisible( false );
packageHole( footprint, gr, true );
m_xpath->pop();
}
else if( grName == wxT( "frame" ) )
{
// picture this
}
else if( grName == wxT( "polygon" ) )
{
m_xpath->push( "polygon" );
loadPolygon( gr );
m_xpath->pop(); // "polygon"
}
else if( grName == wxT( "dimension" ) )
{
const BOARD_DESIGN_SETTINGS& designSettings = m_board->GetDesignSettings();
EDIMENSION d( gr );
PCB_LAYER_ID layer = kicad_layer( d.layer );
VECTOR2I pt1( kicad_x( d.x1 ), kicad_y( d.y1 ) );
VECTOR2I pt2( kicad_x( d.x2 ), kicad_y( d.y2 ) );
VECTOR2I pt3( kicad_x( d.x3 ), kicad_y( d.y3 ) );
VECTOR2I textSize = designSettings.GetTextSize( layer );
int textThickness = designSettings.GetLineThickness( layer );
if( d.textsize )
{
double ratio = 8; // DTD says 8 is default
textThickness = KiROUND( d.textsize->ToPcbUnits() * ratio / 100 );
textSize = kicad_fontsize( *d.textsize, textThickness );
}
if( layer != UNDEFINED_LAYER )
{
if( d.dimensionType == wxT( "angle" ) )
{
// Kicad doesn't (at present) support angle dimensions
}
else if( d.dimensionType == wxT( "radius" ) )
{
PCB_DIM_RADIAL* dimension = new PCB_DIM_RADIAL( m_board );
m_board->Add( dimension, ADD_MODE::APPEND );
dimension->SetLayer( layer );
dimension->SetPrecision( DIMENSION_PRECISION );
dimension->SetStart( pt1 );
dimension->SetEnd( pt2 );
dimension->SetTextPos( pt3 );
dimension->SetTextSize( textSize );
dimension->SetTextThickness( textThickness );
dimension->SetLineThickness( designSettings.GetLineThickness( layer ) );
dimension->SetUnits( EDA_UNITS::MILLIMETRES );
}
else if( d.dimensionType == wxT( "leader" ) )
{
PCB_DIM_LEADER* leader = new PCB_DIM_LEADER( m_board );
m_board->Add( leader, ADD_MODE::APPEND );
leader->SetLayer( layer );
leader->SetPrecision( DIMENSION_PRECISION );
leader->SetStart( pt1 );
leader->SetEnd( pt2 );
leader->SetTextPos( pt3 );
leader->SetTextSize( textSize );
leader->SetTextThickness( textThickness );
leader->SetOverrideText( wxEmptyString );
leader->SetLineThickness( designSettings.GetLineThickness( layer ) );
}
else // horizontal, vertical, <default>, diameter
{
PCB_DIM_ALIGNED* dimension = new PCB_DIM_ALIGNED( m_board, PCB_DIM_ALIGNED_T );
m_board->Add( dimension, ADD_MODE::APPEND );
if( d.dimensionType )
{
// Eagle dimension graphic arms may have different lengths, but they look
// incorrect in KiCad (the graphic is tilted). Make them even length in
// such case.
if( *d.dimensionType == wxT( "horizontal" ) )
{
int newY = ( pt1.y + pt2.y ) / 2;
pt1.y = newY;
pt2.y = newY;
}
else if( *d.dimensionType == wxT( "vertical" ) )
{
int newX = ( pt1.x + pt2.x ) / 2;
pt1.x = newX;
pt2.x = newX;
}
}
dimension->SetLayer( layer );
dimension->SetPrecision( DIMENSION_PRECISION );
// The origin and end are assumed to always be in this order from eagle
dimension->SetStart( pt1 );
dimension->SetEnd( pt2 );
dimension->SetTextSize( textSize );
dimension->SetTextThickness( textThickness );
dimension->SetLineThickness( designSettings.GetLineThickness( layer ) );
dimension->SetUnits( EDA_UNITS::MILLIMETRES );
// check which axis the dimension runs in
// because the "height" of the dimension is perpendicular to that axis
// Note the check is just if two axes are close enough to each other
// Eagle appears to have some rounding errors
if( abs( pt1.x - pt2.x ) < 50000 ) // 50000 nm = 0.05 mm
{
int offset = pt3.x - pt1.x;
if( pt1.y > pt2.y )
dimension->SetHeight( offset );
else
dimension->SetHeight( -offset );
}
else if( abs( pt1.y - pt2.y ) < 50000 )
{
int offset = pt3.y - pt1.y;
if( pt1.x > pt2.x )
dimension->SetHeight( -offset );
else
dimension->SetHeight( offset );
}
else
{
int offset = GetLineLength( pt3, pt1 );
if( pt1.y > pt2.y )
dimension->SetHeight( offset );
else
dimension->SetHeight( -offset );
}
}
}
}
// Get next graphic
gr = gr->GetNext();
}
m_xpath->pop();
}
void PCB_IO_EAGLE::loadLibrary( wxXmlNode* aLib, const wxString* aLibName )
{
if( !aLib )
return;
wxString urn = aLib->GetAttribute( "urn" );
wxString urnOrdinal;
if( !urn.IsEmpty() )
{
urnOrdinal = urn.AfterLast( ':' );
}
// library will have <xmlattr> node, skip that and get the single packages node
wxXmlNode* packages = MapChildren( aLib )["packages"];
if( !packages )
return;
m_xpath->push( "packages" );
// Create a FOOTPRINT for all the eagle packages, for use later via a copy constructor
// to instantiate needed footprints in our BOARD. Save the FOOTPRINT templates in
// a FOOTPRINT_MAP using a single lookup key consisting of libname+pkgname.
// Get the first package and iterate
wxXmlNode* package = packages->GetChildren();
while( package )
{
checkpoint();
m_xpath->push( "package", "name" );
wxString pack_ref = package->GetAttribute( "name" );
if( !urnOrdinal.IsEmpty() )
pack_ref += wxS( "_" ) + urnOrdinal;
ReplaceIllegalFileNameChars( pack_ref, '_' );
m_xpath->Value( pack_ref.ToUTF8() );
wxString key = aLibName ? makeKey( *aLibName, pack_ref ) : pack_ref;
FOOTPRINT* footprint = makeFootprint( package, pack_ref );
// add the templating FOOTPRINT to the FOOTPRINT template factory "m_templates"
auto r = m_templates.insert( { key, footprint } );
if( !r.second /* && !( m_props && m_props->Value( "ignore_duplicates" ) ) */ )
{
wxString lib = aLibName ? *aLibName : m_lib_path;
const wxString& pkg = pack_ref;
wxString emsg = wxString::Format( _( "<package> '%s' duplicated in <library> '%s'" ),
pkg,
lib );
THROW_IO_ERROR( emsg );
}
m_xpath->pop();
package = package->GetNext();
}
m_xpath->pop(); // "packages"
}
void PCB_IO_EAGLE::loadLibraries( wxXmlNode* aLibs )
{
if( !aLibs )
return;
m_xpath->push( "libraries.library", "name" );
// Get the first library and iterate
wxXmlNode* library = aLibs->GetChildren();
while( library )
{
const wxString& lib_name = library->GetAttribute( "name" );
m_xpath->Value( lib_name.c_str() );
loadLibrary( library, &lib_name );
library = library->GetNext();
}
m_xpath->pop();
}
void PCB_IO_EAGLE::loadElements( wxXmlNode* aElements )
{
if( !aElements )
return;
m_xpath->push( "elements.element", "name" );
EATTR name;
EATTR value;
bool refanceNamePresetInPackageLayout;
bool valueNamePresetInPackageLayout;
// Get the first element and iterate
wxXmlNode* element = aElements->GetChildren();
while( element )
{
checkpoint();
if( element->GetName() != wxT( "element" ) )
{
// Get next item
element = element->GetNext();
continue;
}
EELEMENT e( element );
// use "NULL-ness" as an indication of presence of the attribute:
EATTR* nameAttr = nullptr;
EATTR* valueAttr = nullptr;
m_xpath->Value( e.name.c_str() );
wxString packageName = e.package;
if( e.library_urn )
{
wxString libOrdinal = *e.library_urn;
packageName = e.package + wxS( "_" ) + libOrdinal.AfterLast( ':' );
}
wxString pkg_key = makeKey( e.library, packageName );
auto it = m_templates.find( pkg_key );
if( it == m_templates.end() )
{
wxString emsg = wxString::Format( _( "No '%s' package in library '%s'." ),
packageName, e.library );
THROW_IO_ERROR( emsg );
}
FOOTPRINT* footprint = static_cast<FOOTPRINT*>( it->second->Duplicate() );
m_board->Add( footprint, ADD_MODE::APPEND );
// update the nets within the pads of the clone
for( PAD* pad : footprint->Pads() )
{
wxString pn_key = makeKey( e.name, pad->GetNumber() );
NET_MAP_CITER ni = m_pads_to_nets.find( pn_key );
if( ni != m_pads_to_nets.end() )
{
const ENET* enet = &ni->second;
pad->SetNetCode( enet->netcode );
}
}
refanceNamePresetInPackageLayout = true;
valueNamePresetInPackageLayout = true;
footprint->SetPosition( VECTOR2I( kicad_x( e.x ), kicad_y( e.y ) ) );
// Is >NAME field set in package layout ?
if( footprint->GetReference().size() == 0 )
{
footprint->Reference().SetVisible( false ); // No so no show
refanceNamePresetInPackageLayout = false;
}
// Is >VALUE field set in package layout
if( footprint->GetValue().size() == 0 )
{
footprint->Value().SetVisible( false ); // No so no show
valueNamePresetInPackageLayout = false;
}
wxString reference = e.name;
// EAGLE allows references to be single digits. This breaks KiCad
// netlisting, which requires parts to have non-digit + digit
// annotation. If the reference begins with a number, we prepend
// 'UNK' (unknown) for the symbol designator.
if( reference.find_first_not_of( "0123456789" ) != 0 )
reference.Prepend( "UNK" );
// EAGLE allows designator to start with # but that is used in KiCad
// for symbols which do not have a footprint
if( reference.find_first_not_of( "#" ) != 0 )
reference.Prepend( "UNK" );
// reference must end with a number but EAGLE does not enforce this
if( reference.find_last_not_of( "0123456789" ) == (reference.Length()-1) )
reference.Append( "0" );
footprint->SetReference( reference );
footprint->SetValue( e.value );
if( !e.smashed )
{
// Not smashed so show NAME & VALUE
if( valueNamePresetInPackageLayout )
footprint->Value().SetVisible( true ); // Only if place holder in package layout
if( refanceNamePresetInPackageLayout )
footprint->Reference().SetVisible( true ); // Only if place holder in package layout
}
else if( *e.smashed == true )
{
// Smashed so set default to no show for NAME and VALUE
footprint->Value().SetVisible( false );
footprint->Reference().SetVisible( false );
// initialize these to default values in case the <attribute> elements are not present.
m_xpath->push( "attribute", "name" );
// VALUE and NAME can have something like our text "effects" overrides
// in SWEET and new schematic. Eagle calls these XML elements "attribute".
// There can be one for NAME and/or VALUE both. Features present in the
// EATTR override the ones established in the package only if they are
// present here (except for rot, which if not present means angle zero).
// So the logic is a bit different than in packageText() and in plain text.
// Get the first attribute and iterate
wxXmlNode* attribute = element->GetChildren();
while( attribute )
{
if( attribute->GetName() != wxT( "attribute" ) )
{
attribute = attribute->GetNext();
continue;
}
EATTR a( attribute );
if( a.name == wxT( "NAME" ) )
{
name = a;
nameAttr = &name;
// do we have a display attribute ?
if( a.display )
{
// Yes!
switch( *a.display )
{
case EATTR::VALUE :
{
nameAttr->name = reference;
if( refanceNamePresetInPackageLayout )
footprint->Reference().SetVisible( true );
break;
}
case EATTR::NAME :
if( refanceNamePresetInPackageLayout )
{
footprint->SetReference( "NAME" );
footprint->Reference().SetVisible( true );
}
break;
case EATTR::BOTH :
if( refanceNamePresetInPackageLayout )
footprint->Reference().SetVisible( true );
nameAttr->name = nameAttr->name + wxT( " = " ) + e.name;
footprint->SetReference( wxT( "NAME = " ) + e.name );
break;
case EATTR::Off :
footprint->Reference().SetVisible( false );
break;
default:
nameAttr->name = e.name;
if( refanceNamePresetInPackageLayout )
footprint->Reference().SetVisible( true );
}
}
else
{
// No display, so default is visible, and show value of NAME
footprint->Reference().SetVisible( true );
}
}
else if( a.name == wxT( "VALUE" ) )
{
value = a;
valueAttr = &value;
if( a.display )
{
// Yes!
switch( *a.display )
{
case EATTR::VALUE :
valueAttr->value = opt_wxString( e.value );
footprint->SetValue( e.value );
if( valueNamePresetInPackageLayout )
footprint->Value().SetVisible( true );
break;
case EATTR::NAME :
if( valueNamePresetInPackageLayout )
footprint->Value().SetVisible( true );
footprint->SetValue( wxT( "VALUE" ) );
break;
case EATTR::BOTH :
if( valueNamePresetInPackageLayout )
footprint->Value().SetVisible( true );
valueAttr->value = opt_wxString( wxT( "VALUE = " ) + e.value );
footprint->SetValue( wxT( "VALUE = " ) + e.value );
break;
case EATTR::Off :
footprint->Value().SetVisible( false );
break;
default:
valueAttr->value = opt_wxString( e.value );
if( valueNamePresetInPackageLayout )
footprint->Value().SetVisible( true );
}
}
else
{
// No display, so default is visible, and show value of NAME
footprint->Value().SetVisible( true );
}
}
attribute = attribute->GetNext();
}
m_xpath->pop(); // "attribute"
}
orientFootprintAndText( footprint, e, nameAttr, valueAttr );
// Get next element
element = element->GetNext();
}
m_xpath->pop(); // "elements.element"
}
ZONE* PCB_IO_EAGLE::loadPolygon( wxXmlNode* aPolyNode )
{
EPOLYGON p( aPolyNode );
PCB_LAYER_ID layer = kicad_layer( p.layer );
bool keepout = ( p.layer == EAGLE_LAYER::TRESTRICT
|| p.layer == EAGLE_LAYER::BRESTRICT
|| p.layer == EAGLE_LAYER::VRESTRICT );
if( layer == UNDEFINED_LAYER )
{
wxLogMessage( wxString::Format( _( "Ignoring a polygon since Eagle layer '%s' (%d) "
"was not mapped" ),
eagle_layer_name( p.layer ), p.layer ) );
return nullptr;
}
// use a "netcode = 0" type ZONE:
std::unique_ptr<ZONE> zone = std::make_unique<ZONE>( m_board );
if( !keepout )
zone->SetLayer( layer );
else
setKeepoutSettingsToZone( zone.get(), p.layer );
// Get the first vertex and iterate
wxXmlNode* vertex = aPolyNode->GetChildren();
std::vector<EVERTEX> vertices;
// Create a circular vector of vertices
// The "curve" parameter indicates a curve from the current
// to the next vertex, so we keep the first at the end as well
// to allow the curve to link back
while( vertex )
{
if( vertex->GetName() == wxT( "vertex" ) )
vertices.emplace_back( vertex );
vertex = vertex->GetNext();
}
// According to Eagle's doc, by default, the orphans (islands in KiCad parlance)
// are always removed
if( !p.orphans || !p.orphans.Get() )
zone->SetIslandRemovalMode( ISLAND_REMOVAL_MODE::ALWAYS );
else
zone->SetIslandRemovalMode( ISLAND_REMOVAL_MODE::NEVER );
vertices.push_back( vertices[0] );
SHAPE_POLY_SET polygon;
polygon.NewOutline();
for( size_t i = 0; i < vertices.size() - 1; i++ )
{
EVERTEX v1 = vertices[i];
// Append the corner
polygon.Append( kicad_x( v1.x ), kicad_y( v1.y ) );
if( v1.curve )
{
EVERTEX v2 = vertices[i + 1];
VECTOR2I center =
ConvertArcCenter( VECTOR2I( kicad_x( v1.x ), kicad_y( v1.y ) ),
VECTOR2I( kicad_x( v2.x ), kicad_y( v2.y ) ), *v1.curve );
double angle = DEG2RAD( *v1.curve );
double end_angle = atan2( kicad_y( v2.y ) - center.y, kicad_x( v2.x ) - center.x );
double radius = sqrt( pow( center.x - kicad_x( v1.x ), 2 )
+ pow( center.y - kicad_y( v1.y ), 2 ) );
int segCount = GetArcToSegmentCount( KiROUND( radius ), ARC_HIGH_DEF,
EDA_ANGLE( *v1.curve, DEGREES_T ) );
double delta_angle = angle / segCount;
for( double a = end_angle + angle; fabs( a - end_angle ) > fabs( delta_angle );
a -= delta_angle )
{
polygon.Append( KiROUND( radius * cos( a ) ) + center.x,
KiROUND( radius * sin( a ) ) + center.y );
}
}
}
// Eagle traces the zone such that half of the pen width is outside the polygon.
// We trace the zone such that the copper is completely inside.
if( p.width.ToPcbUnits() > 0 )
{
polygon.Inflate( p.width.ToPcbUnits() / 2, CORNER_STRATEGY::ALLOW_ACUTE_CORNERS,
ARC_HIGH_DEF, true );
}
if( polygon.OutlineCount() != 1 )
{
wxLogMessage( wxString::Format(
_( "Skipping a polygon on layer '%s' (%d): outline count is not 1" ),
eagle_layer_name( p.layer ), p.layer ) );
return nullptr;
}
zone->AddPolygon( polygon.COutline( 0 ) );
// If the pour is a cutout it needs to be set to a keepout
if( p.pour == EPOLYGON::CUTOUT )
{
zone->SetIsRuleArea( true );
zone->SetDoNotAllowVias( false );
zone->SetDoNotAllowTracks( false );
zone->SetDoNotAllowPads( false );
zone->SetDoNotAllowFootprints( false );
zone->SetDoNotAllowCopperPour( true );
zone->SetHatchStyle( ZONE_BORDER_DISPLAY_STYLE::NO_HATCH );
}
else if( p.pour == EPOLYGON::HATCH )
{
int spacing = p.spacing ? p.spacing->ToPcbUnits() : 50 * pcbIUScale.IU_PER_MILS;
zone->SetFillMode( ZONE_FILL_MODE::HATCH_PATTERN );
zone->SetHatchThickness( p.width.ToPcbUnits() );
zone->SetHatchGap( spacing - p.width.ToPcbUnits() );
zone->SetHatchOrientation( ANGLE_0 );
}
// We divide the thickness by half because we are tracing _inside_ the zone outline
// This means the radius of curvature will be twice the size for an equivalent EAGLE zone
zone->SetMinThickness( std::max<int>( ZONE_THICKNESS_MIN_VALUE_MM * pcbIUScale.IU_PER_MM,
p.width.ToPcbUnits() / 2 ) );
if( p.isolate )
zone->SetLocalClearance( p.isolate->ToPcbUnits() );
else
zone->SetLocalClearance( 1 ); // @todo: set minimum clearance value based on board settings
// missing == yes per DTD.
bool thermals = !p.thermals || *p.thermals;
zone->SetPadConnection( thermals ? ZONE_CONNECTION::THERMAL : ZONE_CONNECTION::FULL );
if( thermals )
{
// FIXME: eagle calculates dimensions for thermal spokes
// based on what the zone is connecting to.
// (i.e. width of spoke is half of the smaller side of an smd pad)
// This is a basic workaround
zone->SetThermalReliefGap( p.width.ToPcbUnits() + 50000 ); // 50000nm == 0.05mm
zone->SetThermalReliefSpokeWidth( p.width.ToPcbUnits() + 50000 );
}
int rank = p.rank ? (p.max_priority - *p.rank) : p.max_priority;
zone->SetAssignedPriority( rank );
ZONE* zonePtr = zone.release();
m_board->Add( zonePtr, ADD_MODE::APPEND );
return zonePtr;
}
void PCB_IO_EAGLE::orientFootprintAndText( FOOTPRINT* aFootprint, const EELEMENT& e,
const EATTR* aNameAttr, const EATTR* aValueAttr )
{
if( e.rot )
{
if( e.rot->mirror )
{
aFootprint->SetOrientation( EDA_ANGLE( e.rot->degrees + 180.0, DEGREES_T ) );
aFootprint->Flip( aFootprint->GetPosition(), false );
}
else
{
aFootprint->SetOrientation( EDA_ANGLE( e.rot->degrees, DEGREES_T ) );
}
}
orientFPText( aFootprint, e, &aFootprint->Reference(), aNameAttr );
orientFPText( aFootprint, e, &aFootprint->Value(), aValueAttr );
}
void PCB_IO_EAGLE::orientFPText( FOOTPRINT* aFootprint, const EELEMENT& e, PCB_TEXT* aFPText,
const EATTR* aAttr )
{
// Smashed part ?
if( aAttr )
{
// Yes
const EATTR& a = *aAttr;
if( a.value )
{
aFPText->SetText( *a.value );
}
if( a.x && a.y ) // std::optional
{
VECTOR2I pos( kicad_x( *a.x ), kicad_y( *a.y ) );
aFPText->SetTextPos( pos );
}
// Even though size and ratio are both optional, I am not seeing
// a case where ratio is present but size is not.
double ratio = 8;
if( a.ratio )
ratio = *a.ratio;
VECTOR2I fontz = aFPText->GetTextSize();
int textThickness = KiROUND( fontz.y * ratio / 100 );
aFPText->SetTextThickness( textThickness );
if( a.size )
{
fontz = kicad_fontsize( *a.size, textThickness );
aFPText->SetTextSize( fontz );
}
int align = ETEXT::BOTTOM_LEFT; // bottom-left is eagle default
if( a.align )
align = *a.align;
// The "rot" in a EATTR seems to be assumed to be zero if it is not
// present, and this zero rotation becomes an override to the
// package's text field. If they did not want zero, they specify
// what they want explicitly.
double degrees = a.rot ? a.rot->degrees : 0.0;
int sign = 1;
bool spin = false;
if( a.rot )
{
spin = a.rot->spin;
sign = a.rot->mirror ? -1 : 1;
aFPText->SetMirrored( a.rot->mirror );
}
if( degrees == 90 || degrees == 0 || spin )
{
aFPText->SetTextAngle( EDA_ANGLE( sign * degrees, DEGREES_T ) );
}
else if( degrees == 180 )
{
aFPText->SetTextAngle( EDA_ANGLE( sign * 0, DEGREES_T ) );
align = -align;
}
else if( degrees == 270 )
{
align = -align;
aFPText->SetTextAngle( EDA_ANGLE( sign * 90, DEGREES_T ) );
}
else
{
aFPText->SetTextAngle( EDA_ANGLE( sign * 90 - degrees, DEGREES_T ) );
}
switch( align )
{
case ETEXT::TOP_RIGHT:
aFPText->SetHorizJustify( GR_TEXT_H_ALIGN_RIGHT );
aFPText->SetVertJustify( GR_TEXT_V_ALIGN_TOP );
break;
case ETEXT::BOTTOM_LEFT:
aFPText->SetHorizJustify( GR_TEXT_H_ALIGN_LEFT );
aFPText->SetVertJustify( GR_TEXT_V_ALIGN_BOTTOM );
break;
case ETEXT::TOP_LEFT:
aFPText->SetHorizJustify( GR_TEXT_H_ALIGN_LEFT );
aFPText->SetVertJustify( GR_TEXT_V_ALIGN_TOP );
break;
case ETEXT::BOTTOM_RIGHT:
aFPText->SetHorizJustify( GR_TEXT_H_ALIGN_RIGHT );
aFPText->SetVertJustify( GR_TEXT_V_ALIGN_BOTTOM );
break;
case ETEXT::TOP_CENTER:
aFPText->SetHorizJustify( GR_TEXT_H_ALIGN_CENTER );
aFPText->SetVertJustify( GR_TEXT_V_ALIGN_TOP );
break;
case ETEXT::BOTTOM_CENTER:
aFPText->SetHorizJustify( GR_TEXT_H_ALIGN_CENTER );
aFPText->SetVertJustify( GR_TEXT_V_ALIGN_BOTTOM );
break;
case ETEXT::CENTER:
aFPText->SetHorizJustify( GR_TEXT_H_ALIGN_CENTER );
aFPText->SetVertJustify( GR_TEXT_V_ALIGN_CENTER );
break;
case ETEXT::CENTER_LEFT:
aFPText->SetHorizJustify( GR_TEXT_H_ALIGN_LEFT );
aFPText->SetVertJustify( GR_TEXT_V_ALIGN_CENTER );
break;
case ETEXT::CENTER_RIGHT:
aFPText->SetHorizJustify( GR_TEXT_H_ALIGN_RIGHT );
aFPText->SetVertJustify( GR_TEXT_V_ALIGN_CENTER );
break;
default:
;
}
}
else
{
// Part is not smash so use Lib default for NAME/VALUE
// the text is per the original package, sans <attribute>.
double degrees = aFPText->GetTextAngle().AsDegrees()
+ aFootprint->GetOrientation().AsDegrees();
// @todo there are a few more cases than these to contend with:
if( ( !aFPText->IsMirrored() && ( abs( degrees ) == 180 || abs( degrees ) == 270 ) )
|| ( aFPText->IsMirrored() && ( degrees == 360 ) ) )
{
// ETEXT::TOP_RIGHT:
aFPText->SetHorizJustify( GR_TEXT_H_ALIGN_RIGHT );
aFPText->SetVertJustify( GR_TEXT_V_ALIGN_TOP );
}
}
}
FOOTPRINT* PCB_IO_EAGLE::makeFootprint( wxXmlNode* aPackage, const wxString& aPkgName )
{
std::unique_ptr<FOOTPRINT> m = std::make_unique<FOOTPRINT>( m_board );
LIB_ID fpID;
fpID.Parse( aPkgName, true );
m->SetFPID( fpID );
// Get the first package item and iterate
wxXmlNode* packageItem = aPackage->GetChildren();
// layer 27 is default layer for tValues
// set default layer for created footprint
PCB_LAYER_ID layer = kicad_layer( 27 );
m.get()->Value().SetLayer( layer );
while( packageItem )
{
const wxString& itemName = packageItem->GetName();
if( itemName == wxT( "description" ) )
{
wxString descr = convertDescription( UnescapeHTML( packageItem->GetNodeContent() ) );
m->SetLibDescription( descr );
}
else if( itemName == wxT( "wire" ) )
packageWire( m.get(), packageItem );
else if( itemName == wxT( "pad" ) )
packagePad( m.get(), packageItem );
else if( itemName == wxT( "text" ) )
packageText( m.get(), packageItem );
else if( itemName == wxT( "rectangle" ) )
packageRectangle( m.get(), packageItem );
else if( itemName == wxT( "polygon" ) )
packagePolygon( m.get(), packageItem );
else if( itemName == wxT( "circle" ) )
packageCircle( m.get(), packageItem );
else if( itemName == wxT( "hole" ) )
packageHole( m.get(), packageItem, false );
else if( itemName == wxT( "smd" ) )
packageSMD( m.get(), packageItem );
packageItem = packageItem->GetNext();
}
return m.release();
}
void PCB_IO_EAGLE::packageWire( FOOTPRINT* aFootprint, wxXmlNode* aTree ) const
{
EWIRE w( aTree );
PCB_LAYER_ID layer = kicad_layer( w.layer );
VECTOR2I start( kicad_x( w.x1 ), kicad_y( w.y1 ) );
VECTOR2I end( kicad_x( w.x2 ), kicad_y( w.y2 ) );
int width = w.width.ToPcbUnits();
if( layer == UNDEFINED_LAYER )
{
wxLogMessage( wxString::Format( _( "Ignoring a wire since Eagle layer '%s' (%d) "
"was not mapped" ),
eagle_layer_name( w.layer ), w.layer ) );
return;
}
// KiCad cannot handle zero or negative line widths which apparently have meaning in Eagle.
if( width <= 0 )
{
BOARD* board = aFootprint->GetBoard();
if( board )
{
width = board->GetDesignSettings().GetLineThickness( layer );
}
else
{
// When loading footprint libraries, there is no board so use the default KiCad
// line widths.
switch( layer )
{
case Edge_Cuts: width = pcbIUScale.mmToIU( DEFAULT_EDGE_WIDTH ); break;
case F_SilkS:
case B_SilkS: width = pcbIUScale.mmToIU( DEFAULT_SILK_LINE_WIDTH ); break;
case F_CrtYd:
case B_CrtYd: width = pcbIUScale.mmToIU( DEFAULT_COURTYARD_WIDTH ); break;
default: width = pcbIUScale.mmToIU( DEFAULT_LINE_WIDTH ); break;
}
}
}
// FIXME: the cap attribute is ignored because KiCad can't create lines with flat ends.
PCB_SHAPE* dwg;
if( !w.curve )
{
dwg = new PCB_SHAPE( aFootprint, SHAPE_T::SEGMENT );
dwg->SetStart( start );
dwg->SetEnd( end );
}
else
{
dwg = new PCB_SHAPE( aFootprint, SHAPE_T::ARC );
VECTOR2I center = ConvertArcCenter( start, end, *w.curve );
dwg->SetCenter( center );
dwg->SetStart( start );
dwg->SetArcAngleAndEnd( -EDA_ANGLE( *w.curve, DEGREES_T ), true ); // KiCad rotates the other way
}
dwg->SetLayer( layer );
dwg->SetStroke( STROKE_PARAMS( width, LINE_STYLE::SOLID ) );
dwg->Rotate( { 0, 0 }, aFootprint->GetOrientation() );
dwg->Move( aFootprint->GetPosition() );
aFootprint->Add( dwg );
}
void PCB_IO_EAGLE::packagePad( FOOTPRINT* aFootprint, wxXmlNode* aTree )
{
// this is thru hole technology here, no SMDs
EPAD e( aTree );
int shape = EPAD::UNDEF;
int eagleDrillz = e.drill.ToPcbUnits();
std::unique_ptr<PAD> pad = std::make_unique<PAD>( aFootprint );
transferPad( e, pad.get() );
if( e.first && *e.first && m_rules->psFirst != EPAD::UNDEF )
shape = m_rules->psFirst;
else if( aFootprint->GetLayer() == F_Cu && m_rules->psTop != EPAD::UNDEF )
shape = m_rules->psTop;
else if( aFootprint->GetLayer() == B_Cu && m_rules->psBottom != EPAD::UNDEF )
shape = m_rules->psBottom;
pad->SetDrillSize( VECTOR2I( eagleDrillz, eagleDrillz ) );
pad->SetLayerSet( LSET::AllCuMask() );
if( eagleDrillz < m_min_hole )
m_min_hole = eagleDrillz;
// Solder mask
if( !e.stop || *e.stop == true ) // enabled by default
pad->SetLayerSet( pad->GetLayerSet().set( B_Mask ).set( F_Mask ) );
if( shape == EPAD::ROUND || shape == EPAD::SQUARE || shape == EPAD::OCTAGON )
e.shape = shape;
if( e.shape )
{
switch( *e.shape )
{
case EPAD::ROUND:
pad->SetShape( PAD_SHAPE::CIRCLE );
break;
case EPAD::OCTAGON:
pad->SetShape( PAD_SHAPE::CHAMFERED_RECT );
pad->SetChamferPositions( RECT_CHAMFER_ALL );
pad->SetChamferRectRatio( 1 - M_SQRT1_2 ); // Regular polygon
break;
case EPAD::LONG:
pad->SetShape( PAD_SHAPE::OVAL );
break;
case EPAD::SQUARE:
pad->SetShape( PAD_SHAPE::RECTANGLE );
break;
case EPAD::OFFSET:
pad->SetShape( PAD_SHAPE::OVAL );
break;
}
}
else
{
// if shape is not present, our default is circle and that matches their default "round"
}
if( e.diameter && e.diameter->value > 0 )
{
int diameter = e.diameter->ToPcbUnits();
pad->SetSize( VECTOR2I( diameter, diameter ) );
}
else
{
double drillz = pad->GetDrillSize().x;
double annulus = drillz * m_rules->rvPadTop; // copper annulus, eagle "restring"
annulus = eagleClamp( m_rules->rlMinPadTop, annulus, m_rules->rlMaxPadTop );
int diameter = KiROUND( drillz + 2 * annulus );
pad->SetSize( VECTOR2I( KiROUND( diameter ), KiROUND( diameter ) ) );
}
if( pad->GetShape() == PAD_SHAPE::OVAL )
{
// The Eagle "long" pad is wider than it is tall; m_elongation is percent elongation
VECTOR2I sz = pad->GetSize();
sz.x = ( sz.x * ( 100 + m_rules->psElongationLong ) ) / 100;
pad->SetSize( sz );
if( e.shape && *e.shape == EPAD::OFFSET )
{
int offset = KiROUND( ( sz.x - sz.y ) / 2.0 );
pad->SetOffset( VECTOR2I( offset, 0 ) );
}
}
if( e.rot )
pad->SetOrientation( EDA_ANGLE( e.rot->degrees, DEGREES_T ) );
// Eagle spokes are always '+'
pad->SetThermalSpokeAngle( ANGLE_0 );
if( pad->GetSizeX() > 0 && pad->GetSizeY() > 0 )
{
aFootprint->Add( pad.release() );
}
else
{
wxLogError( _( "Invalid zero-sized pad ignored in\nfile: %s" ), m_board->GetFileName() );
}
}
void PCB_IO_EAGLE::packageText( FOOTPRINT* aFootprint, wxXmlNode* aTree ) const
{
ETEXT t( aTree );
PCB_LAYER_ID layer = kicad_layer( t.layer );
if( layer == UNDEFINED_LAYER )
{
wxLogMessage( wxString::Format( _( "Ignoring a text since Eagle layer '%s' (%d) "
"was not mapped" ),
eagle_layer_name( t.layer ), t.layer ) );
return;
}
PCB_TEXT* textItem;
if( t.text.Upper() == wxT( ">NAME" ) && aFootprint->GetReference().IsEmpty() )
{
textItem = &aFootprint->Reference();
textItem->SetText( wxT( "REF**" ) );
}
else if( t.text.Upper() == wxT( ">VALUE" ) && aFootprint->GetValue().IsEmpty() )
{
textItem = &aFootprint->Value();
textItem->SetText( aFootprint->GetFPID().GetLibItemName() );
}
else
{
textItem = new PCB_TEXT( aFootprint );
aFootprint->Add( textItem );
textItem->SetText( interpretText( t.text ) );
}
VECTOR2I pos( kicad_x( t.x ), kicad_y( t.y ) );
textItem->SetPosition( pos );
textItem->SetLayer( layer );
double ratio = t.ratio ? *t.ratio : 8; // DTD says 8 is default
int textThickness = KiROUND( t.size.ToPcbUnits() * ratio / 100 );
textItem->SetTextThickness( textThickness );
textItem->SetTextSize( kicad_fontsize( t.size, textThickness ) );
int align = t.align ? *t.align : ETEXT::BOTTOM_LEFT; // bottom-left is eagle default
// An eagle package is never rotated, the DTD does not allow it.
// angle -= aFootprint->GetOrienation();
if( t.rot )
{
int sign = t.rot->mirror ? -1 : 1;
textItem->SetMirrored( t.rot->mirror );
double degrees = t.rot->degrees;
if( degrees == 90 || t.rot->spin )
{
textItem->SetTextAngle( EDA_ANGLE( sign * degrees, DEGREES_T ) );
}
else if( degrees == 180 )
{
align = ETEXT::TOP_RIGHT;
}
else if( degrees == 270 )
{
align = ETEXT::TOP_RIGHT;
textItem->SetTextAngle( EDA_ANGLE( sign * 90, DEGREES_T ) );
}
}
switch( align )
{
case ETEXT::CENTER:
textItem->SetHorizJustify( GR_TEXT_H_ALIGN_CENTER );
textItem->SetVertJustify( GR_TEXT_V_ALIGN_CENTER );
break;
case ETEXT::CENTER_LEFT:
textItem->SetHorizJustify( GR_TEXT_H_ALIGN_LEFT );
textItem->SetVertJustify( GR_TEXT_V_ALIGN_CENTER );
break;
case ETEXT::CENTER_RIGHT:
textItem->SetHorizJustify( GR_TEXT_H_ALIGN_RIGHT );
textItem->SetVertJustify( GR_TEXT_V_ALIGN_CENTER );
break;
case ETEXT::TOP_CENTER:
textItem->SetHorizJustify( GR_TEXT_H_ALIGN_CENTER );
textItem->SetVertJustify( GR_TEXT_V_ALIGN_TOP );
break;
case ETEXT::TOP_LEFT:
textItem->SetHorizJustify( GR_TEXT_H_ALIGN_LEFT );
textItem->SetVertJustify( GR_TEXT_V_ALIGN_TOP );
break;
case ETEXT::TOP_RIGHT:
textItem->SetHorizJustify( GR_TEXT_H_ALIGN_RIGHT );
textItem->SetVertJustify( GR_TEXT_V_ALIGN_TOP );
break;
case ETEXT::BOTTOM_CENTER:
textItem->SetHorizJustify( GR_TEXT_H_ALIGN_CENTER );
textItem->SetVertJustify( GR_TEXT_V_ALIGN_BOTTOM );
break;
case ETEXT::BOTTOM_LEFT:
textItem->SetHorizJustify( GR_TEXT_H_ALIGN_LEFT );
textItem->SetVertJustify( GR_TEXT_V_ALIGN_BOTTOM );
break;
case ETEXT::BOTTOM_RIGHT:
textItem->SetHorizJustify( GR_TEXT_H_ALIGN_RIGHT );
textItem->SetVertJustify( GR_TEXT_V_ALIGN_BOTTOM );
break;
}
}
void PCB_IO_EAGLE::packageRectangle( FOOTPRINT* aFootprint, wxXmlNode* aTree ) const
{
ERECT r( aTree );
if( r.layer == EAGLE_LAYER::TRESTRICT || r.layer == EAGLE_LAYER::BRESTRICT
|| r.layer == EAGLE_LAYER::VRESTRICT )
{
ZONE* zone = new ZONE( aFootprint );
aFootprint->Add( zone, ADD_MODE::APPEND );
setKeepoutSettingsToZone( zone, r.layer );
const int outlineIdx = -1; // this is the id of the copper zone main outline
zone->AppendCorner( VECTOR2I( kicad_x( r.x1 ), kicad_y( r.y1 ) ), outlineIdx );
zone->AppendCorner( VECTOR2I( kicad_x( r.x2 ), kicad_y( r.y1 ) ), outlineIdx );
zone->AppendCorner( VECTOR2I( kicad_x( r.x2 ), kicad_y( r.y2 ) ), outlineIdx );
zone->AppendCorner( VECTOR2I( kicad_x( r.x1 ), kicad_y( r.y2 ) ), outlineIdx );
if( r.rot )
{
VECTOR2I center( ( kicad_x( r.x1 ) + kicad_x( r.x2 ) ) / 2,
( kicad_y( r.y1 ) + kicad_y( r.y2 ) ) / 2 );
zone->Rotate( center, EDA_ANGLE( r.rot->degrees, DEGREES_T ) );
}
zone->SetBorderDisplayStyle( ZONE_BORDER_DISPLAY_STYLE::DIAGONAL_EDGE,
ZONE::GetDefaultHatchPitch(), true );
}
else
{
PCB_LAYER_ID layer = kicad_layer( r.layer );
if( layer == UNDEFINED_LAYER )
{
wxLogMessage( wxString::Format( _( "Ignoring a rectangle since Eagle layer '%s' (%d) "
"was not mapped" ),
eagle_layer_name( r.layer ), r.layer ) );
return;
}
PCB_SHAPE* dwg = new PCB_SHAPE( aFootprint, SHAPE_T::POLY );
aFootprint->Add( dwg );
dwg->SetLayer( layer );
dwg->SetStroke( STROKE_PARAMS( 0 ) );
dwg->SetFilled( true );
std::vector<VECTOR2I> pts;
VECTOR2I start( VECTOR2I( kicad_x( r.x1 ), kicad_y( r.y1 ) ) );
VECTOR2I end( VECTOR2I( kicad_x( r.x1 ), kicad_y( r.y2 ) ) );
pts.push_back( start );
pts.emplace_back( kicad_x( r.x2 ), kicad_y( r.y1 ) );
pts.emplace_back( kicad_x( r.x2 ), kicad_y( r.y2 ) );
pts.push_back( end );
dwg->SetPolyPoints( pts );
if( r.rot )
dwg->Rotate( dwg->GetCenter(), EDA_ANGLE( r.rot->degrees, DEGREES_T ) );
dwg->Rotate( { 0, 0 }, aFootprint->GetOrientation() );
dwg->Move( aFootprint->GetPosition() );
}
}
void PCB_IO_EAGLE::packagePolygon( FOOTPRINT* aFootprint, wxXmlNode* aTree ) const
{
EPOLYGON p( aTree );
std::vector<VECTOR2I> pts;
// Get the first vertex and iterate
wxXmlNode* vertex = aTree->GetChildren();
std::vector<EVERTEX> vertices;
// Create a circular vector of vertices
// The "curve" parameter indicates a curve from the current
// to the next vertex, so we keep the first at the end as well
// to allow the curve to link back
while( vertex )
{
if( vertex->GetName() == wxT( "vertex" ) )
vertices.emplace_back( vertex );
vertex = vertex->GetNext();
}
vertices.push_back( vertices[0] );
for( size_t i = 0; i < vertices.size() - 1; i++ )
{
EVERTEX v1 = vertices[i];
// Append the corner
pts.emplace_back( kicad_x( v1.x ), kicad_y( v1.y ) );
if( v1.curve )
{
EVERTEX v2 = vertices[i + 1];
VECTOR2I center =
ConvertArcCenter( VECTOR2I( kicad_x( v1.x ), kicad_y( v1.y ) ),
VECTOR2I( kicad_x( v2.x ), kicad_y( v2.y ) ), *v1.curve );
double angle = DEG2RAD( *v1.curve );
double end_angle = atan2( kicad_y( v2.y ) - center.y, kicad_x( v2.x ) - center.x );
double radius = sqrt( pow( center.x - kicad_x( v1.x ), 2 )
+ pow( center.y - kicad_y( v1.y ), 2 ) );
// Don't allow a zero-radius curve
if( KiROUND( radius ) == 0 )
radius = 1.0;
int segCount = GetArcToSegmentCount( KiROUND( radius ), ARC_HIGH_DEF,
EDA_ANGLE( *v1.curve, DEGREES_T ) );
double delta = angle / segCount;
for( double a = end_angle + angle; fabs( a - end_angle ) > fabs( delta ); a -= delta )
{
pts.push_back(
VECTOR2I( KiROUND( radius * cos( a ) ), KiROUND( radius * sin( a ) ) )
+ center );
}
}
}
PCB_LAYER_ID layer = kicad_layer( p.layer );
if( ( p.pour == EPOLYGON::CUTOUT && layer != UNDEFINED_LAYER )
|| p.layer == EAGLE_LAYER::TRESTRICT
|| p.layer == EAGLE_LAYER::BRESTRICT
|| p.layer == EAGLE_LAYER::VRESTRICT )
{
ZONE* zone = new ZONE( aFootprint );
aFootprint->Add( zone, ADD_MODE::APPEND );
setKeepoutSettingsToZone( zone, p.layer );
SHAPE_LINE_CHAIN outline( pts );
outline.SetClosed( true );
zone->Outline()->AddOutline( outline );
zone->SetBorderDisplayStyle( ZONE_BORDER_DISPLAY_STYLE::DIAGONAL_EDGE,
ZONE::GetDefaultHatchPitch(), true );
}
else
{
if( layer == UNDEFINED_LAYER )
{
wxLogMessage( wxString::Format( _( "Ignoring a polygon since Eagle layer '%s' (%d) "
"was not mapped" ),
eagle_layer_name( p.layer ), p.layer ) );
return;
}
PCB_SHAPE* dwg = new PCB_SHAPE( aFootprint, SHAPE_T::POLY );
aFootprint->Add( dwg );
dwg->SetStroke( STROKE_PARAMS( 0 ) );
dwg->SetFilled( true );
dwg->SetLayer( layer );
dwg->SetPolyPoints( pts );
dwg->Rotate( { 0, 0 }, aFootprint->GetOrientation() );
dwg->Move( aFootprint->GetPosition() );
dwg->GetPolyShape().Inflate( p.width.ToPcbUnits() / 2,
CORNER_STRATEGY::ALLOW_ACUTE_CORNERS, ARC_HIGH_DEF );
}
}
void PCB_IO_EAGLE::packageCircle( FOOTPRINT* aFootprint, wxXmlNode* aTree ) const
{
ECIRCLE e( aTree );
int width = e.width.ToPcbUnits();
int radius = e.radius.ToPcbUnits();
if( e.layer == EAGLE_LAYER::TRESTRICT
|| e.layer == EAGLE_LAYER::BRESTRICT
|| e.layer == EAGLE_LAYER::VRESTRICT )
{
ZONE* zone = new ZONE( aFootprint );
aFootprint->Add( zone, ADD_MODE::APPEND );
setKeepoutSettingsToZone( zone, e.layer );
// approximate circle as polygon
VECTOR2I center( kicad_x( e.x ), kicad_y( e.y ) );
int outlineRadius = radius + ( width / 2 );
int segsInCircle = GetArcToSegmentCount( outlineRadius, ARC_HIGH_DEF, FULL_CIRCLE );
EDA_ANGLE delta = ANGLE_360 / segsInCircle;
for( EDA_ANGLE angle = ANGLE_0; angle < ANGLE_360; angle += delta )
{
VECTOR2I rotatedPoint( outlineRadius, 0 );
RotatePoint( rotatedPoint, angle );
zone->AppendCorner( center + rotatedPoint, -1 );
}
if( width > 0 )
{
zone->NewHole();
int innerRadius = radius - ( width / 2 );
segsInCircle = GetArcToSegmentCount( innerRadius, ARC_HIGH_DEF, FULL_CIRCLE );
delta = ANGLE_360 / segsInCircle;
for( EDA_ANGLE angle = ANGLE_0; angle < ANGLE_360; angle += delta )
{
VECTOR2I rotatedPoint( innerRadius, 0 );
RotatePoint( rotatedPoint, angle );
zone->AppendCorner( center + rotatedPoint, 0 );
}
}
zone->SetBorderDisplayStyle( ZONE_BORDER_DISPLAY_STYLE::DIAGONAL_EDGE,
ZONE::GetDefaultHatchPitch(), true );
}
else
{
PCB_LAYER_ID layer = kicad_layer( e.layer );
if( layer == UNDEFINED_LAYER )
{
wxLogMessage( wxString::Format( _( "Ignoring a circle since Eagle layer '%s' (%d) "
"was not mapped" ),
eagle_layer_name( e.layer ), e.layer ) );
return;
}
PCB_SHAPE* gr = new PCB_SHAPE( aFootprint, SHAPE_T::CIRCLE );
// width == 0 means filled circle
if( width <= 0 )
{
width = radius;
radius = radius / 2;
gr->SetFilled( true );
}
aFootprint->Add( gr );
gr->SetStroke( STROKE_PARAMS( width, LINE_STYLE::SOLID ) );
switch( (int) layer )
{
case UNDEFINED_LAYER:
layer = Cmts_User;
break;
default:
break;
}
gr->SetLayer( layer );
gr->SetStart( VECTOR2I( kicad_x( e.x ), kicad_y( e.y ) ) );
gr->SetEnd( VECTOR2I( kicad_x( e.x ) + radius, kicad_y( e.y ) ) );
gr->Rotate( { 0, 0 }, aFootprint->GetOrientation() );
gr->Move( aFootprint->GetPosition() );
}
}
void PCB_IO_EAGLE::packageHole( FOOTPRINT* aFootprint, wxXmlNode* aTree, bool aCenter ) const
{
EHOLE e( aTree );
if( e.drill.value == 0 )
return;
// we add a PAD_ATTRIB::NPTH pad to this footprint.
PAD* pad = new PAD( aFootprint );
aFootprint->Add( pad );
pad->SetKeepTopBottom( false ); // TODO: correct? This seems to be KiCad default on import
pad->SetShape( PAD_SHAPE::CIRCLE );
pad->SetAttribute( PAD_ATTRIB::NPTH );
// Mechanical purpose only:
// no offset, no net name, no pad name allowed
// pad->SetOffset( VECTOR2I( 0, 0 ) );
// pad->SetNumber( wxEmptyString );
VECTOR2I padpos( kicad_x( e.x ), kicad_y( e.y ) );
if( aCenter )
{
aFootprint->SetPosition( padpos );
pad->SetPosition( padpos );
}
else
{
pad->SetPosition( padpos + aFootprint->GetPosition() );
}
VECTOR2I sz( e.drill.ToPcbUnits(), e.drill.ToPcbUnits() );
pad->SetDrillSize( sz );
pad->SetSize( sz );
pad->SetLayerSet( LSET::AllCuMask().set( B_Mask ).set( F_Mask ) );
}
void PCB_IO_EAGLE::packageSMD( FOOTPRINT* aFootprint, wxXmlNode* aTree ) const
{
ESMD e( aTree );
PCB_LAYER_ID layer = kicad_layer( e.layer );
if( !IsCopperLayer( layer ) || e.dx.value == 0 || e.dy.value == 0 )
return;
PAD* pad = new PAD( aFootprint );
aFootprint->Add( pad );
transferPad( e, pad );
pad->SetKeepTopBottom( false ); // TODO: correct? This seems to be KiCad default on import
pad->SetShape( PAD_SHAPE::RECTANGLE );
pad->SetAttribute( PAD_ATTRIB::SMD );
VECTOR2I padSize( e.dx.ToPcbUnits(), e.dy.ToPcbUnits() );
pad->SetSize( padSize );
pad->SetLayer( layer );
const LSET front( 3, F_Cu, F_Paste, F_Mask );
const LSET back( 3, B_Cu, B_Paste, B_Mask );
if( layer == F_Cu )
pad->SetLayerSet( front );
else if( layer == B_Cu )
pad->SetLayerSet( back );
int minPadSize = std::min( padSize.x, padSize.y );
// Rounded rectangle pads
int roundRadius =
eagleClamp( m_rules->srMinRoundness * 2, (int) ( minPadSize * m_rules->srRoundness ),
m_rules->srMaxRoundness * 2 );
if( e.roundness || roundRadius > 0 )
{
double roundRatio = (double) roundRadius / minPadSize / 2.0;
// Eagle uses a different definition of roundness, hence division by 200
if( e.roundness )
roundRatio = std::fmax( *e.roundness / 200.0, roundRatio );
pad->SetShape( PAD_SHAPE::ROUNDRECT );
pad->SetRoundRectRadiusRatio( roundRatio );
}
if( e.rot )
pad->SetOrientation( EDA_ANGLE( e.rot->degrees, DEGREES_T ) );
// Eagle spokes are always '+'
pad->SetThermalSpokeAngle( ANGLE_0 );
pad->SetLocalSolderPasteMargin( -eagleClamp( m_rules->mlMinCreamFrame,
(int) ( m_rules->mvCreamFrame * minPadSize ),
m_rules->mlMaxCreamFrame ) );
// Solder mask
if( e.stop && *e.stop == false ) // enabled by default
{
if( layer == F_Cu )
pad->SetLayerSet( pad->GetLayerSet().set( F_Mask, false ) );
else if( layer == B_Cu )
pad->SetLayerSet( pad->GetLayerSet().set( B_Mask, false ) );
}
// Solder paste (only for SMD pads)
if( e.cream && *e.cream == false ) // enabled by default
{
if( layer == F_Cu )
pad->SetLayerSet( pad->GetLayerSet().set( F_Paste, false ) );
else if( layer == B_Cu )
pad->SetLayerSet( pad->GetLayerSet().set( B_Paste, false ) );
}
}
void PCB_IO_EAGLE::transferPad( const EPAD_COMMON& aEaglePad, PAD* aPad ) const
{
aPad->SetNumber( aEaglePad.name );
VECTOR2I padPos( kicad_x( aEaglePad.x ), kicad_y( aEaglePad.y ) );
// Solder mask
const VECTOR2I& padSize( aPad->GetSize() );
aPad->SetLocalSolderMaskMargin(
eagleClamp( m_rules->mlMinStopFrame,
(int) ( m_rules->mvStopFrame * std::min( padSize.x, padSize.y ) ),
m_rules->mlMaxStopFrame ) );
// Solid connection to copper zones
if( aEaglePad.thermals && !*aEaglePad.thermals )
aPad->SetLocalZoneConnection( ZONE_CONNECTION::FULL );
FOOTPRINT* footprint = aPad->GetParentFootprint();
wxCHECK( footprint, /* void */ );
RotatePoint( padPos, footprint->GetOrientation() );
aPad->SetPosition( padPos + footprint->GetPosition() );
}
void PCB_IO_EAGLE::deleteTemplates()
{
for( const auto& [ name, footprint ] : m_templates )
{
footprint->SetParent( nullptr );
delete footprint;
}
m_templates.clear();
}
void PCB_IO_EAGLE::loadClasses( wxXmlNode* aClasses )
{
// Eagle board DTD defines the "classes" element as 0 or 1.
if( !aClasses )
return;
BOARD_DESIGN_SETTINGS& bds = m_board->GetDesignSettings();
m_xpath->push( "classes.class", "number" );
std::vector<ECLASS> eClasses;
wxXmlNode* classNode = aClasses->GetChildren();
while( classNode )
{
checkpoint();
ECLASS eClass( classNode );
std::shared_ptr<NETCLASS> netclass;
if( eClass.name.CmpNoCase( wxT( "default" ) ) == 0 )
{
netclass = bds.m_NetSettings->m_DefaultNetClass;
}
else
{
netclass.reset( new NETCLASS( eClass.name ) );
bds.m_NetSettings->m_NetClasses[ eClass.name ] = netclass;
}
netclass->SetTrackWidth( INT_MAX );
netclass->SetViaDiameter( INT_MAX );
netclass->SetViaDrill( INT_MAX );
eClasses.emplace_back( eClass );
m_classMap[ eClass.number ] = netclass;
// Get next class
classNode = classNode->GetNext();
}
m_customRules = wxT( "(version 1)" );
for( ECLASS& eClass : eClasses )
{
for( std::pair<const wxString&, ECOORD> entry : eClass.clearanceMap )
{
if( m_classMap[ entry.first ] != nullptr )
{
wxString rule;
rule.Printf( wxT( "(rule \"class %s:%s\"\n"
" (condition \"A.NetClass == '%s' && B.NetClass == '%s'\")\n"
" (constraint clearance (min %smm)))\n" ),
eClass.number,
entry.first,
eClass.name,
m_classMap[ entry.first ]->GetName(),
EDA_UNIT_UTILS::UI::StringFromValue( pcbIUScale, EDA_UNITS::MILLIMETRES, entry.second.ToPcbUnits() ) );
m_customRules += wxT( "\n" ) + rule;
}
}
}
m_xpath->pop(); // "classes.class"
}
void PCB_IO_EAGLE::loadSignals( wxXmlNode* aSignals )
{
// Eagle board DTD defines the "signals" element as 0 or 1.
if( !aSignals )
return;
ZONES zones; // per net
int netCode = 1;
m_xpath->push( "signals.signal", "name" );
// Get the first signal and iterate
wxXmlNode* net = aSignals->GetChildren();
while( net )
{
checkpoint();
bool sawPad = false;
zones.clear();
const wxString& netName = escapeName( net->GetAttribute( "name" ) );
NETINFO_ITEM* netInfo = new NETINFO_ITEM( m_board, netName, netCode );
std::shared_ptr<NETCLASS> netclass;
if( net->HasAttribute( "class" ) )
{
auto netclassIt = m_classMap.find( net->GetAttribute( "class" ) );
if( netclassIt != m_classMap.end() )
{
m_board->GetDesignSettings().m_NetSettings->m_NetClassPatternAssignments.push_back(
{ std::make_unique<EDA_COMBINED_MATCHER>( netName, CTX_NETCLASS ),
netclassIt->second->GetName() } );
netInfo->SetNetClass( netclassIt->second );
netclass = netclassIt->second;
}
}
m_board->Add( netInfo );
m_xpath->Value( netName.c_str() );
// Get the first net item and iterate
wxXmlNode* netItem = net->GetChildren();
// (contactref | polygon | wire | via)*
while( netItem )
{
const wxString& itemName = netItem->GetName();
if( itemName == wxT( "wire" ) )
{
m_xpath->push( "wire" );
EWIRE w( netItem );
PCB_LAYER_ID layer = kicad_layer( w.layer );
if( IsCopperLayer( layer ) )
{
VECTOR2I start( kicad_x( w.x1 ), kicad_y( w.y1 ) );
VECTOR2I end( kicad_x( w.x2 ), kicad_y( w.y2 ) );
int width = w.width.ToPcbUnits();
if( width < m_min_trace )
m_min_trace = width;
if( netclass && width < netclass->GetTrackWidth() )
netclass->SetTrackWidth( width );
if( w.curve )
{
VECTOR2I center = ConvertArcCenter( start, end, *w.curve );
double radius = sqrt( pow( center.x - kicad_x( w.x1 ), 2 ) +
pow( center.y - kicad_y( w.y1 ), 2 ) );
VECTOR2I mid = CalcArcMid( start, end, center, true );
VECTOR2I otherMid = CalcArcMid( start, end, center, false );
double radiusA = ( mid - center ).EuclideanNorm();
double radiusB = ( otherMid - center ).EuclideanNorm();
if( abs( radiusA - radius ) > abs( radiusB - radius ) )
std::swap( mid, otherMid );
PCB_ARC* arc = new PCB_ARC( m_board );
arc->SetPosition( start );
arc->SetMid( mid );
arc->SetEnd( end );
arc->SetWidth( width );
arc->SetLayer( layer );
arc->SetNetCode( netCode );
m_board->Add( arc );
}
else
{
PCB_TRACK* track = new PCB_TRACK( m_board );
track->SetPosition( start );
track->SetEnd( VECTOR2I( kicad_x( w.x2 ), kicad_y( w.y2 ) ) );
track->SetWidth( width );
track->SetLayer( layer );
track->SetNetCode( netCode );
m_board->Add( track );
}
}
else
{
// put non copper wires where the sun don't shine.
}
m_xpath->pop();
}
else if( itemName == wxT( "via" ) )
{
m_xpath->push( "via" );
EVIA v( netItem );
if( v.layer_front_most > v.layer_back_most )
std::swap( v.layer_front_most, v.layer_back_most );
PCB_LAYER_ID layer_front_most = kicad_layer( v.layer_front_most );
PCB_LAYER_ID layer_back_most = kicad_layer( v.layer_back_most );
if( IsCopperLayer( layer_front_most ) && IsCopperLayer( layer_back_most )
&& layer_front_most != layer_back_most )
{
int kidiam;
int drillz = v.drill.ToPcbUnits();
PCB_VIA* via = new PCB_VIA( m_board );
m_board->Add( via );
if( v.diam )
{
kidiam = v.diam->ToPcbUnits();
via->SetWidth( kidiam );
}
else
{
double annulus = drillz * m_rules->rvViaOuter; // eagle "restring"
annulus = eagleClamp( m_rules->rlMinViaOuter, annulus,
m_rules->rlMaxViaOuter );
kidiam = KiROUND( drillz + 2 * annulus );
via->SetWidth( kidiam );
}
via->SetDrill( drillz );
// make sure the via diameter respects the restring rules
if( !v.diam || via->GetWidth() <= via->GetDrill() )
{
double annulus =
eagleClamp( m_rules->rlMinViaOuter,
(double) ( via->GetWidth() / 2 - via->GetDrill() ),
m_rules->rlMaxViaOuter );
via->SetWidth( drillz + 2 * annulus );
}
if( kidiam < m_min_via )
m_min_via = kidiam;
if( netclass && kidiam < netclass->GetViaDiameter() )
netclass->SetViaDiameter( kidiam );
if( drillz < m_min_hole )
m_min_hole = drillz;
if( netclass && drillz < netclass->GetViaDrill() )
netclass->SetViaDrill( drillz );
if( ( kidiam - drillz ) / 2 < m_min_annulus )
m_min_annulus = ( kidiam - drillz ) / 2;
if( layer_front_most == F_Cu && layer_back_most == B_Cu )
{
via->SetViaType( VIATYPE::THROUGH );
}
/// This is, at best, a guess. Eagle doesn't seem to differentiate
/// between blind/buried vias that only go one layer and micro vias
/// so the user will need to clean up a bit
else if( v.layer_back_most - v.layer_front_most == 1 )
{
via->SetViaType( VIATYPE::MICROVIA );
}
else
{
via->SetViaType( VIATYPE::BLIND_BURIED );
}
VECTOR2I pos( kicad_x( v.x ), kicad_y( v.y ) );
via->SetLayerPair( layer_front_most, layer_back_most );
via->SetPosition( pos );
via->SetEnd( pos );
via->SetNetCode( netCode );
}
m_xpath->pop();
}
else if( itemName == wxT( "contactref" ) )
{
m_xpath->push( "contactref" );
// <contactref element="RN1" pad="7"/>
const wxString& reference = netItem->GetAttribute( "element" );
const wxString& pad = netItem->GetAttribute( "pad" );
wxString key = makeKey( reference, pad ) ;
m_pads_to_nets[ key ] = ENET( netCode, netName );
m_xpath->pop();
sawPad = true;
}
else if( itemName == wxT( "polygon" ) )
{
m_xpath->push( "polygon" );
auto* zone = loadPolygon( netItem );
if( zone )
{
zones.push_back( zone );
if( !zone->GetIsRuleArea() )
zone->SetNetCode( netCode );
}
m_xpath->pop(); // "polygon"
}
netItem = netItem->GetNext();
}
if( zones.size() && !sawPad )
{
// KiCad does not support an unconnected zone with its own non-zero netcode,
// but only when assigned netcode = 0 w/o a name...
for( ZONE* zone : zones )
zone->SetNetCode( NETINFO_LIST::UNCONNECTED );
// therefore omit this signal/net.
}
else
{
netCode++;
}
// Get next signal
net = net->GetNext();
}
m_xpath->pop(); // "signals.signal"
}
std::map<wxString, PCB_LAYER_ID> PCB_IO_EAGLE::DefaultLayerMappingCallback(
const std::vector<INPUT_LAYER_DESC>& aInputLayerDescriptionVector )
{
std::map<wxString, PCB_LAYER_ID> layer_map;
for ( const INPUT_LAYER_DESC& layer : aInputLayerDescriptionVector )
{
PCB_LAYER_ID layerId = std::get<0>( defaultKicadLayer( eagle_layer_id( layer.Name ) ) );
layer_map.emplace( layer.Name, layerId );
}
return layer_map;
}
void PCB_IO_EAGLE::mapEagleLayersToKicad( bool aIsLibraryCache )
{
std::vector<INPUT_LAYER_DESC> inputDescs;
for ( const std::pair<const int, ELAYER>& layerPair : m_eagleLayers )
{
const ELAYER& eLayer = layerPair.second;
INPUT_LAYER_DESC layerDesc;
std::tie( layerDesc.AutoMapLayer, layerDesc.PermittedLayers, layerDesc.Required ) =
defaultKicadLayer( eLayer.number, aIsLibraryCache );
if( layerDesc.AutoMapLayer == UNDEFINED_LAYER )
continue; // Ignore unused copper layers
layerDesc.Name = eLayer.name;
inputDescs.push_back( layerDesc );
}
if( m_progressReporter && dynamic_cast<wxWindow*>( m_progressReporter ) )
dynamic_cast<wxWindow*>( m_progressReporter )->Hide();
m_layer_map = m_layer_mapping_handler( inputDescs );
if( m_progressReporter && dynamic_cast<wxWindow*>( m_progressReporter ))
dynamic_cast<wxWindow*>( m_progressReporter )->Show();
}
PCB_LAYER_ID PCB_IO_EAGLE::kicad_layer( int aEagleLayer ) const
{
auto result = m_layer_map.find( eagle_layer_name( aEagleLayer ) );
return result == m_layer_map.end() ? UNDEFINED_LAYER : result->second;
}
std::tuple<PCB_LAYER_ID, LSET, bool> PCB_IO_EAGLE::defaultKicadLayer( int aEagleLayer,
bool aIsLibraryCache ) const
{
// eagle copper layer:
if( aEagleLayer >= 1 && aEagleLayer < int( arrayDim( m_cu_map ) ) )
{
LSET copperLayers;
for( int copperLayer : m_cu_map )
{
if( copperLayer >= 0 )
copperLayers[copperLayer] = true;
}
return { PCB_LAYER_ID( m_cu_map[aEagleLayer] ), copperLayers, true };
}
int kiLayer = UNSELECTED_LAYER;
bool required = false;
LSET permittedLayers;
permittedLayers.set();
// translate non-copper eagle layer to pcbnew layer
switch( aEagleLayer )
{
// Eagle says "Dimension" layer, but it's for board perimeter
case EAGLE_LAYER::DIMENSION:
kiLayer = Edge_Cuts;
required = true;
permittedLayers = LSET( 1, Edge_Cuts );
break;
case EAGLE_LAYER::TPLACE:
kiLayer = F_SilkS;
break;
case EAGLE_LAYER::BPLACE:
kiLayer = B_SilkS;
break;
case EAGLE_LAYER::TNAMES:
kiLayer = F_SilkS;
break;
case EAGLE_LAYER::BNAMES:
kiLayer = B_SilkS;
break;
case EAGLE_LAYER::TVALUES:
kiLayer = F_Fab;
break;
case EAGLE_LAYER::BVALUES:
kiLayer = B_Fab;
break;
case EAGLE_LAYER::TSTOP:
kiLayer = F_Mask;
break;
case EAGLE_LAYER::BSTOP:
kiLayer = B_Mask;
break;
case EAGLE_LAYER::TCREAM:
kiLayer = F_Paste;
break;
case EAGLE_LAYER::BCREAM:
kiLayer = B_Paste;
break;
case EAGLE_LAYER::TFINISH:
kiLayer = F_Mask;
break;
case EAGLE_LAYER::BFINISH:
kiLayer = B_Mask;
break;
case EAGLE_LAYER::TGLUE:
kiLayer = F_Adhes;
break;
case EAGLE_LAYER::BGLUE:
kiLayer = B_Adhes;
break;
case EAGLE_LAYER::DOCUMENT:
kiLayer = Cmts_User;
break;
case EAGLE_LAYER::REFERENCELC:
kiLayer = Cmts_User;
break;
case EAGLE_LAYER::REFERENCELS:
kiLayer = Cmts_User;
break;
// Packages show the future chip pins on SMD parts using layer 51.
// This is an area slightly smaller than the PAD/SMD copper area.
// Carry those visual aids into the FOOTPRINT on the fabrication layer,
// not silkscreen. This is perhaps not perfect, but there is not a lot
// of other suitable paired layers
case EAGLE_LAYER::TDOCU:
kiLayer = F_Fab;
break;
case EAGLE_LAYER::BDOCU:
kiLayer = B_Fab;
break;
// these layers are defined as user layers. put them on ECO layers
case EAGLE_LAYER::USERLAYER1:
kiLayer = Eco1_User;
break;
case EAGLE_LAYER::USERLAYER2:
kiLayer = Eco2_User;
break;
// these will also appear in the ratsnest, so there's no need for a warning
case EAGLE_LAYER::UNROUTED:
kiLayer = Dwgs_User;
break;
case EAGLE_LAYER::TKEEPOUT:
kiLayer = F_CrtYd;
break;
case EAGLE_LAYER::BKEEPOUT:
kiLayer = B_CrtYd;
break;
case EAGLE_LAYER::MILLING:
case EAGLE_LAYER::TTEST:
case EAGLE_LAYER::BTEST:
case EAGLE_LAYER::HOLES:
default:
if( aIsLibraryCache )
kiLayer = UNDEFINED_LAYER;
else
kiLayer = UNSELECTED_LAYER;
break;
}
return { PCB_LAYER_ID( kiLayer ), permittedLayers, required };
}
const wxString& PCB_IO_EAGLE::eagle_layer_name( int aLayer ) const
{
static const wxString unknown( "unknown" );
auto it = m_eagleLayers.find( aLayer );
return it == m_eagleLayers.end() ? unknown : it->second.name;
}
int PCB_IO_EAGLE::eagle_layer_id( const wxString& aLayerName ) const
{
static const int unknown = -1;
auto it = m_eagleLayersIds.find( aLayerName );
return it == m_eagleLayersIds.end() ? unknown : it->second;
}
void PCB_IO_EAGLE::centerBoard()
{
if( m_props )
{
UTF8 page_width;
UTF8 page_height;
if( m_props->Value( "page_width", &page_width ) &&
m_props->Value( "page_height", &page_height ) )
{
BOX2I bbbox = m_board->GetBoardEdgesBoundingBox();
int w = atoi( page_width.c_str() );
int h = atoi( page_height.c_str() );
int desired_x = ( w - bbbox.GetWidth() ) / 2;
int desired_y = ( h - bbbox.GetHeight() ) / 2;
m_board->Move( VECTOR2I( desired_x - bbbox.GetX(), desired_y - bbbox.GetY() ) );
}
}
}
wxDateTime PCB_IO_EAGLE::getModificationTime( const wxString& aPath )
{
// File hasn't been loaded yet.
if( aPath.IsEmpty() )
return wxDateTime::Now();
wxFileName fn( aPath );
if( fn.IsFileReadable() )
return fn.GetModificationTime();
else
return wxDateTime( 0.0 );
}
void PCB_IO_EAGLE::cacheLib( const wxString& aLibPath )
{
try
{
wxDateTime modtime = getModificationTime( aLibPath );
// Fixes assertions in wxWidgets debug builds for the wxDateTime object. Refresh the
// cache if either of the wxDateTime objects are invalid or the last file modification
// time differs from the current file modification time.
bool load = !m_mod_time.IsValid() || !modtime.IsValid() || m_mod_time != modtime;
if( aLibPath != m_lib_path || load )
{
wxXmlNode* doc;
LOCALE_IO toggle; // toggles on, then off, the C locale.
deleteTemplates();
// Set this before completion of loading, since we rely on it for
// text of an exception. Delay setting m_mod_time until after successful load
// however.
m_lib_path = aLibPath;
// 8 bit "filename" should be encoded according to disk filename encoding,
// (maybe this is current locale, maybe not, its a filesystem issue),
// and is not necessarily utf8.
string filename = (const char*) aLibPath.char_str( wxConvFile );
// Load the document
wxFileName fn( filename );
wxFFileInputStream stream( fn.GetFullPath() );
wxXmlDocument xmlDocument;
if( !stream.IsOk() || !xmlDocument.Load( stream ) )
{
THROW_IO_ERROR( wxString::Format( _( "Unable to read file '%s'." ),
fn.GetFullPath() ) );
}
doc = xmlDocument.GetRoot();
wxXmlNode* drawing = MapChildren( doc )["drawing"];
NODE_MAP drawingChildren = MapChildren( drawing );
// clear the cu map and then rebuild it.
clear_cu_map();
m_xpath->push( "eagle.drawing.layers" );
wxXmlNode* layers = drawingChildren["layers"];
loadLayerDefs( layers );
mapEagleLayersToKicad( true );
m_xpath->pop();
m_xpath->push( "eagle.drawing.library" );
wxXmlNode* library = drawingChildren["library"];
loadLibrary( library, nullptr );
m_xpath->pop();
m_mod_time = modtime;
}
}
catch(...){}
// TODO: Handle exceptions
// catch( file_parser_error fpe )
// {
// // for xml_parser_error, what() has the line number in it,
// // but no byte offset. That should be an adequate error message.
// THROW_IO_ERROR( fpe.what() );
// }
//
// // Class ptree_error is a base class for xml_parser_error & file_parser_error,
// // so one catch should be OK for all errors.
// catch( ptree_error pte )
// {
// string errmsg = pte.what();
//
// errmsg += " @\n";
// errmsg += m_xpath->Contents();
//
// THROW_IO_ERROR( errmsg );
// }
}
void PCB_IO_EAGLE::FootprintEnumerate( wxArrayString& aFootprintNames, const wxString& aLibraryPath,
bool aBestEfforts, const STRING_UTF8_MAP* aProperties )
{
wxString errorMsg;
init( aProperties );
try
{
cacheLib( aLibraryPath );
}
catch( const IO_ERROR& ioe )
{
errorMsg = ioe.What();
}
// Some of the files may have been parsed correctly so we want to add the valid files to
// the library.
for( const auto& [ name, footprint ] : m_templates )
aFootprintNames.Add( name );
if( !errorMsg.IsEmpty() && !aBestEfforts )
THROW_IO_ERROR( errorMsg );
}
FOOTPRINT* PCB_IO_EAGLE::FootprintLoad( const wxString& aLibraryPath,
const wxString& aFootprintName, bool aKeepUUID,
const STRING_UTF8_MAP* aProperties )
{
init( aProperties );
cacheLib( aLibraryPath );
auto it = m_templates.find( aFootprintName );
if( it == m_templates.end() )
return nullptr;
// Return a copy of the template
FOOTPRINT* copy = (FOOTPRINT*) it->second->Duplicate();
copy->SetParent( nullptr );
return copy;
}
int PCB_IO_EAGLE::getMinimumCopperLayerCount() const
{
int minLayerCount = 2;
std::map<wxString, PCB_LAYER_ID>::const_iterator it;
for( it = m_layer_map.begin(); it != m_layer_map.end(); ++it )
{
PCB_LAYER_ID layerId = it->second;
if( IsCopperLayer( layerId ) && layerId != F_Cu && layerId != B_Cu
&& ( layerId + 2 ) > minLayerCount )
minLayerCount = layerId + 2;
}
// Ensure the copper layers count is a multiple of 2
// Pcbnew does not like boards with odd layers count
// (these boards cannot exist. they actually have a even layers count)
if( ( minLayerCount % 2 ) != 0 )
minLayerCount++;
return minLayerCount;
}
Reference in New Issue View Git Blame Copy Permalink