/* * This program source code file is part of KiCad, a free EDA CAD application. * * Copyright (C) 2004-2015 Jean-Pierre Charras, jp.charras at wanadoo.fr * Copyright (C) 2008 Wayne Stambaugh * Copyright (C) 2004-2019 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 class_libentry.cpp */ #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include // the separator char between the subpart id and the reference // 0 (no separator) or '.' or some other character int LIB_PART::m_subpartIdSeparator = 0; // the ascii char value to calculate the subpart symbol id from the part number: // 'A' or '1' usually. (to print U1.A or U1.1) // if this a a digit, a number is used as id symbol int LIB_PART::m_subpartFirstId = 'A'; LIB_ALIAS::LIB_ALIAS( const wxString& aName, LIB_PART* aRootPart ) : EDA_ITEM( LIB_ALIAS_T ), shared( aRootPart ) { SetName( aName ); } LIB_ALIAS::LIB_ALIAS( const LIB_ALIAS& aAlias, LIB_PART* aRootPart ) : EDA_ITEM( aAlias ), shared( aRootPart ) { name = aAlias.name; description = aAlias.description; keyWords = aAlias.keyWords; docFileName = aAlias.docFileName; } LIB_ALIAS::~LIB_ALIAS() { wxLogTrace( traceSchLibMem, wxT( "%s: destroying alias:'%s'" ), GetChars( wxString::FromAscii( __WXFUNCTION__ ) ), GetChars( GetName() ) ); wxCHECK_RET( shared, wxT( "~LIB_ALIAS() without a LIB_PART" ) ); if( shared ) shared->RemoveAlias( this ); } wxString LIB_ALIAS::GetLibNickname() const { wxASSERT_MSG( shared, wxT( "LIB_ALIAS without a LIB_PART" ) ); if( shared ) return shared->GetLibraryName(); return wxEmptyString; } bool LIB_ALIAS::IsRoot() const { return name == shared->GetName(); } LIB_ID LIB_ALIAS::GetLibId() const { LIB_ID id = shared->GetLibId(); id.SetLibItemName( name ); return id; } PART_LIB* LIB_ALIAS::GetLib() { return shared->GetLib(); } void LIB_ALIAS::SetName( const wxString& aName ) { name = LIB_ID::FixIllegalChars( aName, LIB_ID::ID_SCH ); } int LIB_ALIAS::GetUnitCount() { return shared->GetUnitCount(); } wxString LIB_ALIAS::GetUnitReference( int aUnit ) { return LIB_PART::SubReference( aUnit, false ); } const EDA_RECT LIB_ALIAS::GetBoundingBox() const { // a LIB_ALIAS does not really have a bounding box. // return a 0 size rect. EDA_RECT dummy; return dummy; }; const BOX2I LIB_ALIAS::ViewBBox() const { // LIB_ALIAS may be displayed in preview windows, so ensure that it is always // selected for drawing. BOX2I bbox; bbox.SetMaximum(); return bbox; } wxString LIB_ALIAS::GetSearchText() { // Matches are scored by offset from front of string, so inclusion of this spacer // discounts matches found after it. static const wxString discount( wxT( " " ) ); wxString text = GetKeyWords() + discount + GetDescription(); // If a footprint is defined for the part, add it to the serach string if( shared ) { wxString footprint = shared->GetFootprintField().GetText(); if( !footprint.IsEmpty() ) text += discount + footprint; } return text; } bool LIB_ALIAS::operator==( const wxChar* aName ) const { return name == aName; } bool operator<( const LIB_ALIAS& aItem1, const LIB_ALIAS& aItem2 ) { return aItem1.GetName() < aItem2.GetName(); } void LIB_ALIAS::ViewGetLayers( int aLayers[], int& aCount ) const { // An alias's fields don't know how to fetch their parent's values so we don't let // them draw themselves. This means the alias always has to draw them, which means // it has to "own" their layers as well. aCount = 5; aLayers[0] = LAYER_DEVICE; aLayers[1] = LAYER_DEVICE_BACKGROUND; aLayers[2] = LAYER_REFERENCEPART; aLayers[3] = LAYER_VALUEPART; aLayers[4] = LAYER_FIELDS; } /// http://www.boost.org/doc/libs/1_55_0/libs/smart_ptr/sp_techniques.html#weak_without_shared struct null_deleter { void operator()(void const *) const { } }; LIB_PART::LIB_PART( const wxString& aName, PART_LIB* aLibrary ) : EDA_ITEM( LIB_PART_T ), m_me( this, null_deleter() ) { m_dateLastEdition = 0; m_unitCount = 1; m_pinNameOffset = 40; m_options = ENTRY_NORMAL; m_unitsLocked = false; m_showPinNumbers = true; m_showPinNames = true; // Add the MANDATORY_FIELDS in RAM only. These are assumed to be present // when the field editors are invoked. m_drawings[LIB_FIELD_T].reserve( 4 ); m_drawings[LIB_FIELD_T].push_back( new LIB_FIELD( this, VALUE ) ); m_drawings[LIB_FIELD_T].push_back( new LIB_FIELD( this, REFERENCE ) ); m_drawings[LIB_FIELD_T].push_back( new LIB_FIELD( this, FOOTPRINT ) ); m_drawings[LIB_FIELD_T].push_back( new LIB_FIELD( this, DATASHEET ) ); SetLib( aLibrary ); SetName( aName ); } LIB_PART::LIB_PART( LIB_PART& aPart, PART_LIB* aLibrary ) : EDA_ITEM( aPart ), m_me( this, null_deleter() ) { LIB_ITEM* newItem; m_library = aLibrary; m_FootprintList = aPart.m_FootprintList; m_unitCount = aPart.m_unitCount; m_unitsLocked = aPart.m_unitsLocked; m_pinNameOffset = aPart.m_pinNameOffset; m_showPinNumbers = aPart.m_showPinNumbers; m_showPinNames = aPart.m_showPinNames; m_dateLastEdition = aPart.m_dateLastEdition; m_options = aPart.m_options; m_libId = aPart.m_libId; for( LIB_ITEM& oldItem : aPart.m_drawings ) { if( oldItem.IsNew() ) continue; newItem = (LIB_ITEM*) oldItem.Clone(); newItem->SetParent( this ); m_drawings.push_back( newItem ); } for( size_t i = 0; i < aPart.m_aliases.size(); i++ ) { LIB_ALIAS* alias = new LIB_ALIAS( *aPart.m_aliases[i], this ); m_aliases.push_back( alias ); } } LIB_PART::~LIB_PART() { wxLogTrace( traceSchLibMem, wxT( "%s: destroying symbol with alias list count of %llu" ), GetChars( wxString::FromAscii( __WXFUNCTION__ ) ), (long long unsigned) m_aliases.size() ); // If the part is being deleted directly rather than through the library, // delete all of the aliases. while( m_aliases.size() ) { LIB_ALIAS* alias = m_aliases.back(); m_aliases.pop_back(); delete alias; } } const wxString LIB_PART::GetLibraryName() { if( m_library ) return m_library->GetName(); return m_libId.GetLibNickname(); } wxString LIB_PART::SubReference( int aUnit, bool aAddSeparator ) { wxString subRef; if( m_subpartIdSeparator != 0 && aAddSeparator ) subRef << wxChar( m_subpartIdSeparator ); if( m_subpartFirstId >= '0' && m_subpartFirstId <= '9' ) subRef << aUnit; else { // use letters as notation. To allow more than 26 units, the sub ref // use one letter if letter = A .. Z or a ... z, and 2 letters otherwise // first letter is expected to be 'A' or 'a' (i.e. 26 letters are available) int u; aUnit -= 1; // Unit number starts to 1. now to 0. while( aUnit >= 26 ) // more than one letter are needed { u = aUnit / 26; subRef << wxChar( m_subpartFirstId + u -1 ); aUnit %= 26; } u = m_subpartFirstId + aUnit; subRef << wxChar( u ); } return subRef; } const wxString& LIB_PART::GetName() const { static wxString dummy; wxCHECK_MSG( m_aliases.size(), dummy, "no aliases defined for symbol" ); return m_aliases[0]->GetName(); } void LIB_PART::SetName( const wxString& aName ) { // The LIB_ALIAS that is the LIB_PART name has to be created so create it. if( m_aliases.empty() ) m_aliases.push_back( new LIB_ALIAS( aName, this ) ); else m_aliases[0]->SetName( aName ); wxString validatedName = LIB_ID::FixIllegalChars( aName, LIB_ID::ID_SCH ); m_libId.SetLibItemName( validatedName, false ); GetValueField().SetText( validatedName ); } void LIB_PART::Draw( EDA_DRAW_PANEL* aPanel, wxDC* aDc, const wxPoint& aOffset, int aMulti, int aConvert, const PART_DRAW_OPTIONS& aOpts ) { BASE_SCREEN* screen = aPanel ? aPanel->GetScreen() : NULL; GRSetDrawMode( aDc, aOpts.draw_mode ); /* draw background for filled items using background option * Solid lines will be drawn after the background * Note also, background is not drawn when: * printing in black and white * If the color is not the default color (aColor != -1 ) */ if( ! ( screen && screen->m_IsPrinting && GetGRForceBlackPenState() ) && ( aOpts.color == COLOR4D::UNSPECIFIED ) ) { for( LIB_ITEM& drawItem : m_drawings ) { if( drawItem.m_Fill != FILLED_WITH_BG_BODYCOLOR ) continue; if( aOpts.only_selected && !drawItem.IsSelected() ) continue; // Do not draw an item while moving (the cursor handler does that) if( drawItem.m_Flags & IS_MOVED ) continue; // Do not draw items not attached to the current part if( aMulti && drawItem.m_Unit && ( drawItem.m_Unit != aMulti ) ) continue; if( aConvert && drawItem.m_Convert && ( drawItem.m_Convert != aConvert ) ) continue; if( drawItem.Type() == LIB_FIELD_T ) continue; if( drawItem.Type() == LIB_FIELD_T ) // TODO dead code? { drawItem.Draw( aPanel, aDc, aOffset, aOpts.color, aOpts.draw_mode, (void*) NULL, aOpts.transform ); } // Now, draw only the background for items with // m_Fill == FILLED_WITH_BG_BODYCOLOR: drawItem.Draw( aPanel, aDc, aOffset, aOpts.color, aOpts.draw_mode, (void*) false, aOpts.transform ); } } // Track the index into the dangling pins list size_t pin_index = 0; for( LIB_ITEM& drawItem : m_drawings ) { if( aOpts.only_selected && !drawItem.IsSelected() ) continue; // Do not draw an item while moving (the cursor handler does that) if( drawItem.m_Flags & IS_MOVED ) continue; // Do not draw items not attached to the current part if( aMulti && drawItem.m_Unit && ( drawItem.m_Unit != aMulti ) ) continue; if( aConvert && drawItem.m_Convert && ( drawItem.m_Convert != aConvert ) ) continue; if( drawItem.Type() == LIB_FIELD_T ) { LIB_FIELD& field = static_cast( drawItem ); if( field.IsVisible() && !aOpts.draw_visible_fields ) continue; if( !field.IsVisible() && !aOpts.draw_hidden_fields ) continue; } if( drawItem.Type() == LIB_PIN_T ) { LIB_PIN& pin = static_cast( drawItem ); uintptr_t flags = 0; if( aOpts.show_pin_text ) flags |= PIN_DRAW_TEXTS; if( aOpts.show_elec_type ) flags |= PIN_DRAW_ELECTRICAL_TYPE_NAME; if( aOpts.PinIsDangling( pin_index ) ) flags |= PIN_DRAW_DANGLING; if( pin.IsPowerConnection() && IsPower() ) flags |= PIN_DANGLING_HIDDEN; drawItem.Draw( aPanel, aDc, aOffset, aOpts.color, aOpts.draw_mode, (void*) flags, aOpts.transform ); ++pin_index; } else if( drawItem.Type() == LIB_FIELD_T ) { drawItem.Draw( aPanel, aDc, aOffset, aOpts.color, aOpts.draw_mode, (void*) NULL, aOpts.transform ); } else { bool forceNoFill = drawItem.m_Fill == FILLED_WITH_BG_BODYCOLOR; drawItem.Draw( aPanel, aDc, aOffset, aOpts.color, aOpts.draw_mode, (void*) forceNoFill, aOpts.transform ); } } // Enable this to draw the anchor of the component. #if 0 int len = aDc->DeviceToLogicalXRel( 3 ); EDA_RECT* const clipbox = aPanel ? aPanel->GetClipBox() : NULL; GRLine( clipbox, aDc, aOffset.x, aOffset.y - len, aOffset.x, aOffset.y + len, 0, aOpts.color ); GRLine( clipbox, aDc, aOffset.x - len, aOffset.y, aOffset.x + len, aOffset.y, 0, aOpts.color ); #endif /* Enable this to draw the bounding box around the component to validate * the bounding box calculations. */ #if 0 EDA_RECT bBox = GetUnitBoundingBox( aMulti, aConvert ); bBox.RevertYAxis(); bBox = aOpts.transform.TransformCoordinate( bBox ); bBox.Move( aOffset ); GRRect( aPanel ? aPanel->GetClipBox() : NULL, aDc, bBox, 0, LIGHTMAGENTA ); #endif } void LIB_PART::Plot( PLOTTER* aPlotter, int aUnit, int aConvert, const wxPoint& aOffset, const TRANSFORM& aTransform ) { wxASSERT( aPlotter != NULL ); aPlotter->SetColor( GetLayerColor( LAYER_DEVICE ) ); bool fill = aPlotter->GetColorMode(); // draw background for filled items using background option // Solid lines will be drawn after the background for( LIB_ITEM& item : m_drawings ) { // Lib Fields are not plotted here, because this plot function // is used to plot schematic items, which have they own fields if( item.Type() == LIB_FIELD_T ) continue; if( aUnit && item.m_Unit && ( item.m_Unit != aUnit ) ) continue; if( aConvert && item.m_Convert && ( item.m_Convert != aConvert ) ) continue; if( item.m_Fill == FILLED_WITH_BG_BODYCOLOR ) item.Plot( aPlotter, aOffset, fill, aTransform ); } // Not filled items and filled shapes are now plotted // Items that have BG fills only get re-stroked to ensure the edges are in the foreground for( LIB_ITEM& item : m_drawings ) { if( item.Type() == LIB_FIELD_T ) continue; if( aUnit && item.m_Unit && ( item.m_Unit != aUnit ) ) continue; if( aConvert && item.m_Convert && ( item.m_Convert != aConvert ) ) continue; item.Plot( aPlotter, aOffset, fill && ( item.m_Fill != FILLED_WITH_BG_BODYCOLOR ), aTransform ); } } void LIB_PART::PlotLibFields( PLOTTER* aPlotter, int aUnit, int aConvert, const wxPoint& aOffset, const TRANSFORM& aTransform ) { wxASSERT( aPlotter != NULL ); aPlotter->SetColor( GetLayerColor( LAYER_FIELDS ) ); bool fill = aPlotter->GetColorMode(); for( LIB_ITEM& item : m_drawings ) { if( item.Type() != LIB_FIELD_T ) continue; if( aUnit && item.m_Unit && ( item.m_Unit != aUnit ) ) continue; if( aConvert && item.m_Convert && ( item.m_Convert != aConvert ) ) continue; // The reference is a special case: we should change the basic text // to add '?' and the part id LIB_FIELD& field = (LIB_FIELD&) item; wxString tmp = field.GetShownText(); if( field.GetId() == REFERENCE ) { wxString text = field.GetFullText( aUnit ); field.SetText( text ); } item.Plot( aPlotter, aOffset, fill, aTransform ); field.SetText( tmp ); } } void LIB_PART::RemoveDrawItem( LIB_ITEM* aItem, EDA_DRAW_PANEL* aPanel, wxDC* aDc ) { wxASSERT( aItem != NULL ); // none of the MANDATORY_FIELDS may be removed in RAM, but they may be // omitted when saving to disk. if( aItem->Type() == LIB_FIELD_T ) { LIB_FIELD* field = (LIB_FIELD*) aItem; if( field->GetId() < MANDATORY_FIELDS ) { wxLogWarning( _( "An attempt was made to remove the %s field from component %s in library %s." ), field->GetName( TRANSLATE_FIELD_NAME ), GetName(), GetLibraryName() ); return; } } LIB_ITEMS& items = m_drawings[ aItem->Type() ]; for( LIB_ITEMS::iterator i = items.begin(); i != items.end(); i++ ) { if( *i == aItem ) { if( aDc != NULL ) aItem->Draw( aPanel, aDc, wxPoint( 0, 0 ), COLOR4D::UNSPECIFIED, g_XorMode, NULL, DefaultTransform ); items.erase( i ); SetModified(); break; } } } void LIB_PART::AddDrawItem( LIB_ITEM* aItem ) { if( !aItem ) return; m_drawings.push_back( aItem ); } LIB_ITEM* LIB_PART::GetNextDrawItem( LIB_ITEM* aItem, KICAD_T aType ) { if( m_drawings.empty( aType ) ) return NULL; if( aItem == NULL ) return &( *( m_drawings.begin( aType ) ) ); // Search for the last item, assume aItem is of type aType wxASSERT( ( aType == TYPE_NOT_INIT ) || ( aType == aItem->Type() ) ); LIB_ITEMS_CONTAINER::ITERATOR it = m_drawings.begin( aType ); while( ( it != m_drawings.end( aType ) ) && ( aItem != &( *it ) ) ) ++it; // Search the next item if( it != m_drawings.end( aType ) ) { ++it; if( it != m_drawings.end( aType ) ) return &( *it ); } return NULL; } void LIB_PART::GetPins( LIB_PINS& aList, int aUnit, int aConvert ) { if( m_drawings.empty( LIB_PIN_T ) ) return; /* Notes: * when aUnit == 0: no unit filtering * when aConvert == 0: no convert (shape selection) filtering * when .m_Unit == 0, the body item is common to units * when .m_Convert == 0, the body item is common to shapes */ for( LIB_ITEM& item : m_drawings[ LIB_PIN_T ] ) { // Unit filtering: if( aUnit && item.m_Unit && ( item.m_Unit != aUnit ) ) continue; // Shape filtering: if( aConvert && item.m_Convert && ( item.m_Convert != aConvert ) ) continue; aList.push_back( (LIB_PIN*) &item ); } } LIB_PIN* LIB_PART::GetPin( const wxString& aNumber, int aUnit, int aConvert ) { LIB_PINS pinList; GetPins( pinList, aUnit, aConvert ); for( size_t i = 0; i < pinList.size(); i++ ) { wxASSERT( pinList[i]->Type() == LIB_PIN_T ); if( aNumber == pinList[i]->GetNumber() ) return pinList[i]; } return NULL; } bool LIB_PART::PinsConflictWith( LIB_PART& aOtherPart, bool aTestNums, bool aTestNames, bool aTestType, bool aTestOrientation, bool aTestLength ) { LIB_PINS thisPinList; GetPins( thisPinList, /* aUnit */ 0, /* aConvert */ 0 ); for( LIB_PIN* eachThisPin : thisPinList ) { wxASSERT( eachThisPin ); LIB_PINS otherPinList; aOtherPart.GetPins( otherPinList, /* aUnit */ 0, /* aConvert */ 0 ); bool foundMatch = false; for( LIB_PIN* eachOtherPin : otherPinList ) { wxASSERT( eachOtherPin ); // Same unit? if( eachThisPin->GetUnit() != eachOtherPin->GetUnit() ) continue; // Same body stype? if( eachThisPin->GetConvert() != eachOtherPin->GetConvert() ) continue; // Same position? if( eachThisPin->GetPosition() != eachOtherPin->GetPosition() ) continue; // Same number? if( aTestNums && ( eachThisPin->GetNumber() != eachOtherPin->GetNumber() )) continue; // Same name? if( aTestNames && ( eachThisPin->GetName() != eachOtherPin->GetName() )) continue; // Same electrical type? if( aTestType && ( eachThisPin->GetType() != eachOtherPin->GetType() )) continue; // Same orientation? if( aTestOrientation && ( eachThisPin->GetOrientation() != eachOtherPin->GetOrientation() )) continue; // Same length? if( aTestLength && ( eachThisPin->GetLength() != eachOtherPin->GetLength() )) continue; foundMatch = true; break; // Match found so seach is complete. } if( !foundMatch ) { // This means there was not an identical (according to the arguments) // pin at the same position in the other component. return true; } } // The loop never gave up, so no conflicts were found. return false; } const EDA_RECT LIB_PART::GetUnitBoundingBox( int aUnit, int aConvert ) const { EDA_RECT bBox; bool initialized = false; for( const LIB_ITEM& item : m_drawings ) { if( ( item.m_Unit > 0 ) && ( ( m_unitCount > 1 ) && ( aUnit > 0 ) && ( aUnit != item.m_Unit ) ) ) continue; if( item.m_Convert > 0 && ( ( aConvert > 0 ) && ( aConvert != item.m_Convert ) ) ) continue; if ( ( item.Type() == LIB_FIELD_T ) && !( ( LIB_FIELD& ) item ).IsVisible() ) continue; if( initialized ) bBox.Merge( item.GetBoundingBox() ); else { bBox = item.GetBoundingBox(); initialized = true; } } return bBox; } void LIB_PART::ViewGetLayers( int aLayers[], int& aCount ) const { aCount = 2; aLayers[0] = LAYER_DEVICE; aLayers[1] = LAYER_DEVICE_BACKGROUND; } const EDA_RECT LIB_PART::GetBodyBoundingBox( int aUnit, int aConvert ) const { EDA_RECT bBox; bool initialized = false; for( const LIB_ITEM& item : m_drawings ) { if( ( item.m_Unit > 0 ) && ( ( m_unitCount > 1 ) && ( aUnit > 0 ) && ( aUnit != item.m_Unit ) ) ) continue; if( item.m_Convert > 0 && ( ( aConvert > 0 ) && ( aConvert != item.m_Convert ) ) ) continue; if( item.Type() == LIB_FIELD_T ) continue; if( initialized ) bBox.Merge( item.GetBoundingBox() ); else { bBox = item.GetBoundingBox(); initialized = true; } } return bBox; } void LIB_PART::deleteAllFields() { m_drawings[ LIB_FIELD_T ].clear(); } void LIB_PART::SetFields( const std::vector & aFields ) { deleteAllFields(); for( unsigned i=0; iSetParent( this ); m_drawings.push_back( field ); } } void LIB_PART::GetFields( LIB_FIELDS& aList ) { LIB_FIELD* field; // Grab the MANDATORY_FIELDS first, in expected order given by // enum NumFieldType for( int id=0; idGetId() < MANDATORY_FIELDS ) continue; // was added above aList.push_back( *field ); } } LIB_FIELD* LIB_PART::GetField( int aId ) { for( LIB_ITEM& item : m_drawings[ LIB_FIELD_T ] ) { LIB_FIELD* field = ( LIB_FIELD* ) &item; if( field->GetId() == aId ) return field; } return NULL; } LIB_FIELD* LIB_PART::FindField( const wxString& aFieldName ) { for( LIB_ITEM& item : m_drawings[ LIB_FIELD_T ] ) { LIB_FIELD* field = ( LIB_FIELD* ) &item; if( field->GetName( NATIVE_FIELD_NAME ) == aFieldName ) return field; } return NULL; } LIB_FIELD& LIB_PART::GetValueField() { LIB_FIELD* field = GetField( VALUE ); wxASSERT( field != NULL ); return *field; } LIB_FIELD& LIB_PART::GetReferenceField() { LIB_FIELD* field = GetField( REFERENCE ); wxASSERT( field != NULL ); return *field; } LIB_FIELD& LIB_PART::GetFootprintField() { LIB_FIELD* field = GetField( FOOTPRINT ); wxASSERT( field != NULL ); return *field; } void LIB_PART::SetOffset( const wxPoint& aOffset ) { for( LIB_ITEM& item : m_drawings ) item.SetOffset( aOffset ); } void LIB_PART::RemoveDuplicateDrawItems() { m_drawings.unique(); } bool LIB_PART::HasConversion() const { for( const LIB_ITEM& item : m_drawings ) { if( item.m_Convert > LIB_ITEM::LIB_CONVERT::BASE ) return true; } return false; } void LIB_PART::ClearStatus() { for( LIB_ITEM& item : m_drawings ) { item.m_Flags = 0; } } LIB_ITEM* LIB_PART::LocateDrawItem( int aUnit, int aConvert, KICAD_T aType, const wxPoint& aPoint ) { for( LIB_ITEM& item : m_drawings ) { if( ( aUnit && item.m_Unit && ( aUnit != item.m_Unit) ) || ( aConvert && item.m_Convert && ( aConvert != item.m_Convert ) ) || ( ( item.Type() != aType ) && ( aType != TYPE_NOT_INIT ) ) ) continue; if( item.HitTest( aPoint ) ) return &item; } return NULL; } LIB_ITEM* LIB_PART::LocateDrawItem( int aUnit, int aConvert, KICAD_T aType, const wxPoint& aPoint, const TRANSFORM& aTransform ) { /* we use LocateDrawItem( int aUnit, int convert, KICAD_T type, const * wxPoint& pt ) to search items. * because this function uses DefaultTransform as orient/mirror matrix * we temporary copy aTransform in DefaultTransform */ LIB_ITEM* item; TRANSFORM transform = DefaultTransform; DefaultTransform = aTransform; item = LocateDrawItem( aUnit, aConvert, aType, aPoint ); // Restore matrix DefaultTransform = transform; return item; } void LIB_PART::SetUnitCount( int aCount ) { if( m_unitCount == aCount ) return; if( aCount < m_unitCount ) { LIB_ITEMS_CONTAINER::ITERATOR i = m_drawings.begin(); while( i != m_drawings.end() ) { if( i->m_Unit > aCount ) i = m_drawings.erase( i ); else ++i; } } else { int prevCount = m_unitCount; // Temporary storage for new items, as adding new items directly to // m_drawings may cause the buffer reallocation which invalidates the // iterators std::vector< LIB_ITEM* > tmp; for( LIB_ITEM& item : m_drawings ) { if( item.m_Unit != 1 ) continue; for( int j = prevCount + 1; j <= aCount; j++ ) { LIB_ITEM* newItem = (LIB_ITEM*) item.Clone(); newItem->m_Unit = j; tmp.push_back( newItem ); } } for( auto item : tmp ) m_drawings.push_back( item ); } m_unitCount = aCount; } void LIB_PART::SetConversion( bool aSetConvert ) { if( aSetConvert == HasConversion() ) return; // Duplicate items to create the converted shape if( aSetConvert ) { std::vector< LIB_ITEM* > tmp; // Temporarily store the duplicated pins here. for( LIB_ITEM& item : m_drawings ) { // Only pins are duplicated. if( item.Type() != LIB_PIN_T ) continue; if( item.m_Convert == 1 ) { LIB_ITEM* newItem = (LIB_ITEM*) item.Clone(); newItem->m_Convert = 2; tmp.push_back( newItem ); } } // Transfer the new pins to the LIB_PART. for( unsigned i = 0; i < tmp.size(); i++ ) m_drawings.push_back( tmp[i] ); } else { // Delete converted shape items because the converted shape does // not exist LIB_ITEMS_CONTAINER::ITERATOR i = m_drawings.begin(); while( i != m_drawings.end() ) { if( i->m_Convert > 1 ) i = m_drawings.erase( i ); else ++i; } } } wxArrayString LIB_PART::GetAliasNames( bool aIncludeRoot ) const { wxArrayString names; LIB_ALIASES::const_iterator it; for( it=m_aliases.begin(); it != m_aliases.end(); ++it ) { if( !aIncludeRoot && (*it)->IsRoot() ) continue; names.Add( (*it)->GetName() ); } return names; } bool LIB_PART::HasAlias( const wxString& aName ) const { wxCHECK2_MSG( !aName.IsEmpty(), return false, wxT( "Cannot get alias with an empty name, bad programmer." ) ); for( size_t i = 0; i < m_aliases.size(); i++ ) { if( aName == m_aliases[i]->GetName() ) return true; } return false; } void LIB_PART::RemoveAlias( const wxString& aName ) { LIB_ALIAS* a = GetAlias( aName ); if( a ) RemoveAlias( a ); } LIB_ALIAS* LIB_PART::RemoveAlias( LIB_ALIAS* aAlias ) { wxCHECK_MSG( aAlias, NULL, wxT( "Cannot remove alias by NULL pointer." ) ); LIB_ALIAS* nextAlias = NULL; LIB_ALIASES::iterator it = find( m_aliases.begin(), m_aliases.end(), aAlias ); if( it != m_aliases.end() ) { bool rename = aAlias->IsRoot(); wxLogTrace( traceSchLibMem, wxT( "%s: symbol:'%s', alias:'%s', alias count %llu, reference count %ld." ), GetChars( wxString::FromAscii( __WXFUNCTION__ ) ), GetChars( GetName() ), GetChars( aAlias->GetName() ), (long long unsigned) m_aliases.size(), m_me.use_count() ); it = m_aliases.erase( it ); if( !m_aliases.empty() ) { if( it == m_aliases.end() ) it = m_aliases.begin(); nextAlias = *it; if( rename ) SetName( nextAlias->GetName() ); } } return nextAlias; } void LIB_PART::RemoveAllAliases() { // Remove all of the aliases except the root alias. while( m_aliases.size() > 1 ) m_aliases.pop_back(); } LIB_ALIAS* LIB_PART::GetAlias( const wxString& aName ) { wxCHECK2_MSG( !aName.IsEmpty(), return NULL, wxT( "Cannot get alias with an empty name. Bad programmer!" ) ); for( size_t i = 0; i < m_aliases.size(); i++ ) { if( aName == m_aliases[i]->GetName() ) return m_aliases[i]; } return NULL; } LIB_ALIAS* LIB_PART::GetAlias( size_t aIndex ) { wxCHECK2_MSG( aIndex < m_aliases.size(), return NULL, wxT( "Illegal alias list index, bad programmer." ) ); return m_aliases[aIndex]; } void LIB_PART::AddAlias( const wxString& aName ) { m_aliases.push_back( new LIB_ALIAS( aName, this ) ); } void LIB_PART::AddAlias( LIB_ALIAS* aAlias ) { m_aliases.push_back( aAlias ); } void LIB_PART::SetSubpartIdNotation( int aSep, int aFirstId ) { m_subpartFirstId = 'A'; m_subpartIdSeparator = 0; if( aSep == '.' || aSep == '-' || aSep == '_' ) m_subpartIdSeparator = aSep; if( aFirstId == '1' && aSep != 0 ) m_subpartFirstId = aFirstId; }