TRACK* GetTrack( TRACK* aStartTrace, const TRACK* aEndTrace,
const wxPoint& aPosition, LSET aLayerMask )
{
for( TRACK *PtSegm = aStartTrace; PtSegm != NULL; PtSegm = PtSegm->Next() )
{
if( PtSegm->GetState( IS_DELETED | BUSY ) == 0 )
{
if( aPosition == PtSegm->GetStart() )
{
if( ( aLayerMask & PtSegm->GetLayerSet() ).any() )
return PtSegm;
}
if( aPosition == PtSegm->GetEnd() )
{
if( ( aLayerMask & PtSegm->GetLayerSet() ).any() )
return PtSegm;
}
}
if( PtSegm == aEndTrace )
break;
}
return NULL;
}
TRACK* GetTrack( TRACK* aStartTrace, const TRACK* aEndTrace,
const wxPoint& aPosition, LSET aLayerMask )
{
for( TRACK* seg = aStartTrace; seg; seg = seg->Next() )
{
if( seg->GetState( IS_DELETED | BUSY ) == 0 )
{
if( aPosition == seg->GetStart() )
{
if( ( aLayerMask & seg->GetLayerSet() ).any() )
return seg;
}
if( aPosition == seg->GetEnd() )
{
if( ( aLayerMask & seg->GetLayerSet() ).any() )
return seg;
}
}
if( seg == aEndTrace )
break;
}
return NULL;
}
void PCB_EDIT_FRAME::PrintPage( wxDC* aDC,
LSET aPrintMask,
bool aPrintMirrorMode,
void* aData)
{
const GR_DRAWMODE drawmode = (GR_DRAWMODE) 0;
DISPLAY_OPTIONS save_opt;
BOARD* Pcb = GetBoard();
int defaultPenSize = Millimeter2iu( 0.2 );
bool onePagePerLayer = false;
PRINT_PARAMETERS* printParameters = (PRINT_PARAMETERS*) aData; // can be null
DISPLAY_OPTIONS* displ_opts = (DISPLAY_OPTIONS*)GetDisplayOptions();
if( printParameters && printParameters->m_OptionPrintPage == 0 )
onePagePerLayer = true;
PRINT_PARAMETERS::DrillShapeOptT drillShapeOpt = PRINT_PARAMETERS::FULL_DRILL_SHAPE;
if( printParameters )
{
drillShapeOpt = printParameters->m_DrillShapeOpt;
defaultPenSize = printParameters->m_PenDefaultSize;
}
save_opt = *displ_opts;
LAYER_ID activeLayer = GetScreen()->m_Active_Layer;
displ_opts->m_ContrastModeDisplay = false;
displ_opts->m_DisplayPadFill = true;
displ_opts->m_DisplayViaFill = true;
if( !( aPrintMask & LSET::AllCuMask() ).any() )
{
if( onePagePerLayer )
{
// We can print mask layers (solder mask and solder paste) with the actual
// pad sizes. To do that, we must set ContrastModeDisplay to true and set
// the GetScreen()->m_Active_Layer to the current printed layer
displ_opts->m_ContrastModeDisplay = true;
displ_opts->m_DisplayPadFill = true;
// Calculate the active layer number to print from its mask layer:
GetScreen()->m_Active_Layer = B_Cu;
for( LAYER_NUM id = LAYER_ID_COUNT-1; id >= 0; --id )
{
if( aPrintMask[id] )
{
GetScreen()->m_Active_Layer = LAYER_ID( id );
break;
}
}
// pads on Silkscreen layer are usually plot in sketch mode:
if( GetScreen()->m_Active_Layer == B_SilkS ||
GetScreen()->m_Active_Layer == F_SilkS )
{
displ_opts->m_DisplayPadFill = false;
}
}
else
{
displ_opts->m_DisplayPadFill = false;
}
}
displ_opts->m_DisplayPadNum = false;
bool nctmp = GetBoard()->IsElementVisible( NO_CONNECTS_VISIBLE );
GetBoard()->SetElementVisibility( NO_CONNECTS_VISIBLE, false );
bool anchorsTmp = GetBoard()->IsElementVisible( ANCHOR_VISIBLE );
GetBoard()->SetElementVisibility( ANCHOR_VISIBLE, false );
displ_opts->m_DisplayPadIsol = false;
displ_opts->m_DisplayModEdgeFill = FILLED;
displ_opts->m_DisplayModTextFill = FILLED;
displ_opts->m_DisplayPcbTrackFill = true;
displ_opts->m_ShowTrackClearanceMode = DO_NOT_SHOW_CLEARANCE;
displ_opts->m_DisplayDrawItemsFill = FILLED;
displ_opts->m_DisplayZonesMode = 0;
displ_opts->m_DisplayNetNamesMode = 0;
m_canvas->SetPrintMirrored( aPrintMirrorMode );
for( BOARD_ITEM* item = Pcb->m_Drawings; item; item = item->Next() )
{
switch( item->Type() )
{
case PCB_LINE_T:
case PCB_DIMENSION_T:
case PCB_TEXT_T:
case PCB_TARGET_T:
if( aPrintMask[item->GetLayer()] )
item->Draw( m_canvas, aDC, drawmode );
break;
case PCB_MARKER_T:
default:
break;
}
}
// Print tracks
for( TRACK* track = Pcb->m_Track; track; track = track->Next() )
{
if( !( aPrintMask & track->GetLayerSet() ).any() )
continue;
if( track->Type() == PCB_VIA_T ) // VIA encountered.
{
int radius = track->GetWidth() / 2;
const VIA* via = static_cast<const VIA*>( track );
EDA_COLOR_T color = g_ColorsSettings.GetItemColor( VIAS_VISIBLE + via->GetViaType() );
GRFilledCircle( m_canvas->GetClipBox(), aDC,
via->GetStart().x,
via->GetStart().y,
radius,
0, color, color );
}
else
{
track->Draw( m_canvas, aDC, drawmode );
}
}
// Outdated: only for compatibility to old boards
for( TRACK* track = Pcb->m_Zone; track; track = track->Next() )
{
if( !( aPrintMask & track->GetLayerSet() ).any() )
continue;
track->Draw( m_canvas, aDC, drawmode );
}
// Draw filled areas (i.e. zones)
for( int ii = 0; ii < Pcb->GetAreaCount(); ii++ )
{
ZONE_CONTAINER* zone = Pcb->GetArea( ii );
if( aPrintMask[zone->GetLayer()] )
zone->DrawFilledArea( m_canvas, aDC, drawmode );
}
// Draw footprints, this is done at last in order to print the pad holes in
// white after the tracks and zones
int tmp = D_PAD::m_PadSketchModePenSize;
D_PAD::m_PadSketchModePenSize = defaultPenSize;
for( MODULE* module = (MODULE*) Pcb->m_Modules; module; module = module->Next() )
{
Print_Module( m_canvas, aDC, module, drawmode, aPrintMask, drillShapeOpt );
}
D_PAD::m_PadSketchModePenSize = tmp;
/* Print via holes in bg color: Not sure it is good for buried or blind
* vias */
if( drillShapeOpt != PRINT_PARAMETERS::NO_DRILL_SHAPE )
{
TRACK* track = Pcb->m_Track;
EDA_COLOR_T color = WHITE;
bool blackpenstate = GetGRForceBlackPenState();
GRForceBlackPen( false );
for( ; track; track = track->Next() )
{
if( !( aPrintMask & track->GetLayerSet() ).any() )
continue;
if( track->Type() == PCB_VIA_T ) // VIA encountered.
{
int diameter;
const VIA *via = static_cast<const VIA*>( track );
if( drillShapeOpt == PRINT_PARAMETERS::SMALL_DRILL_SHAPE )
diameter = std::min( SMALL_DRILL, via->GetDrillValue() );
else
diameter = via->GetDrillValue();
GRFilledCircle( m_canvas->GetClipBox(), aDC,
track->GetStart().x, track->GetStart().y,
diameter/2,
0, color, color );
}
}
GRForceBlackPen( blackpenstate );
}
m_canvas->SetPrintMirrored( false );
*displ_opts = save_opt;
GetScreen()->m_Active_Layer = activeLayer;
GetBoard()->SetElementVisibility( NO_CONNECTS_VISIBLE, nctmp );
GetBoard()->SetElementVisibility( ANCHOR_VISIBLE, anchorsTmp );
}
bool DRC::doTrackDrc( TRACK* aRefSeg, TRACK* aStart, bool testPads )
{
TRACK* track;
wxPoint delta; // length on X and Y axis of segments
LSET layerMask;
int net_code_ref;
wxPoint shape_pos;
NETCLASSPTR netclass = aRefSeg->GetNetClass();
BOARD_DESIGN_SETTINGS& dsnSettings = m_pcb->GetDesignSettings();
/* In order to make some calculations more easier or faster,
* pads and tracks coordinates will be made relative to the reference segment origin
*/
wxPoint origin = aRefSeg->GetStart(); // origin will be the origin of other coordinates
m_segmEnd = delta = aRefSeg->GetEnd() - origin;
m_segmAngle = 0;
layerMask = aRefSeg->GetLayerSet();
net_code_ref = aRefSeg->GetNetCode();
// Phase 0 : Test vias
if( aRefSeg->Type() == PCB_VIA_T )
{
const VIA *refvia = static_cast<const VIA*>( aRefSeg );
// test if the via size is smaller than minimum
if( refvia->GetViaType() == VIA_MICROVIA )
{
if( refvia->GetWidth() < dsnSettings.m_MicroViasMinSize )
{
m_currentMarker = fillMarker( refvia, NULL,
DRCE_TOO_SMALL_MICROVIA, m_currentMarker );
return false;
}
if( refvia->GetDrillValue() < dsnSettings.m_MicroViasMinDrill )
{
m_currentMarker = fillMarker( refvia, NULL,
DRCE_TOO_SMALL_MICROVIA_DRILL, m_currentMarker );
return false;
}
}
else
{
if( refvia->GetWidth() < dsnSettings.m_ViasMinSize )
{
m_currentMarker = fillMarker( refvia, NULL,
DRCE_TOO_SMALL_VIA, m_currentMarker );
return false;
}
if( refvia->GetDrillValue() < dsnSettings.m_ViasMinDrill )
{
m_currentMarker = fillMarker( refvia, NULL,
DRCE_TOO_SMALL_VIA_DRILL, m_currentMarker );
return false;
}
}
// test if via's hole is bigger than its diameter
// This test is necessary since the via hole size and width can be modified
// and a default via hole can be bigger than some vias sizes
if( refvia->GetDrillValue() > refvia->GetWidth() )
{
m_currentMarker = fillMarker( refvia, NULL,
DRCE_VIA_HOLE_BIGGER, m_currentMarker );
return false;
}
// For microvias: test if they are blind vias and only between 2 layers
// because they are used for very small drill size and are drill by laser
// and **only one layer** can be drilled
if( refvia->GetViaType() == VIA_MICROVIA )
{
LAYER_ID layer1, layer2;
bool err = true;
refvia->LayerPair( &layer1, &layer2 );
if( layer1 > layer2 )
std::swap( layer1, layer2 );
if( layer2 == B_Cu && layer1 == m_pcb->GetDesignSettings().GetCopperLayerCount() - 2 )
err = false;
else if( layer1 == F_Cu && layer2 == In1_Cu )
err = false;
if( err )
{
m_currentMarker = fillMarker( refvia, NULL,
DRCE_MICRO_VIA_INCORRECT_LAYER_PAIR, m_currentMarker );
return false;
}
}
}
else // This is a track segment
{
if( aRefSeg->GetWidth() < dsnSettings.m_TrackMinWidth )
{
m_currentMarker = fillMarker( aRefSeg, NULL,
DRCE_TOO_SMALL_TRACK_WIDTH, m_currentMarker );
return false;
}
}
// for a non horizontal or vertical segment Compute the segment angle
// in tenths of degrees and its length
if( delta.x || delta.y )
{
// Compute the segment angle in 0,1 degrees
m_segmAngle = ArcTangente( delta.y, delta.x );
// Compute the segment length: we build an equivalent rotated segment,
// this segment is horizontal, therefore dx = length
RotatePoint( &delta, m_segmAngle ); // delta.x = length, delta.y = 0
}
m_segmLength = delta.x;
/******************************************/
/* Phase 1 : test DRC track to pads : */
/******************************************/
/* Use a dummy pad to test DRC tracks versus holes, for pads not on all copper layers
* but having a hole
* This dummy pad has the size and shape of the hole
* to test tracks to pad hole DRC, using checkClearanceSegmToPad test function.
* Therefore, this dummy pad is a circle or an oval.
* A pad must have a parent because some functions expect a non null parent
* to find the parent board, and some other data
*/
MODULE dummymodule( m_pcb ); // Creates a dummy parent
D_PAD dummypad( &dummymodule );
dummypad.SetLayerSet( LSET::AllCuMask() ); // Ensure the hole is on all layers
// Compute the min distance to pads
if( testPads )
{
unsigned pad_count = m_pcb->GetPadCount();
for( unsigned ii = 0; ii<pad_count; ++ii )
{
D_PAD* pad = m_pcb->GetPad( ii );
/* No problem if pads are on an other layer,
* But if a drill hole exists (a pad on a single layer can have a hole!)
* we must test the hole
*/
if( !( pad->GetLayerSet() & layerMask ).any() )
{
/* We must test the pad hole. In order to use the function
* checkClearanceSegmToPad(),a pseudo pad is used, with a shape and a
* size like the hole
*/
if( pad->GetDrillSize().x == 0 )
continue;
dummypad.SetSize( pad->GetDrillSize() );
dummypad.SetPosition( pad->GetPosition() );
dummypad.SetShape( pad->GetDrillShape() == PAD_DRILL_SHAPE_OBLONG ?
PAD_SHAPE_OVAL : PAD_SHAPE_CIRCLE );
dummypad.SetOrientation( pad->GetOrientation() );
m_padToTestPos = dummypad.GetPosition() - origin;
if( !checkClearanceSegmToPad( &dummypad, aRefSeg->GetWidth(),
netclass->GetClearance() ) )
{
m_currentMarker = fillMarker( aRefSeg, pad,
DRCE_TRACK_NEAR_THROUGH_HOLE, m_currentMarker );
return false;
}
continue;
}
// The pad must be in a net (i.e pt_pad->GetNet() != 0 )
// but no problem if the pad netcode is the current netcode (same net)
if( pad->GetNetCode() // the pad must be connected
&& net_code_ref == pad->GetNetCode() ) // the pad net is the same as current net -> Ok
continue;
// DRC for the pad
shape_pos = pad->ShapePos();
m_padToTestPos = shape_pos - origin;
if( !checkClearanceSegmToPad( pad, aRefSeg->GetWidth(), aRefSeg->GetClearance( pad ) ) )
{
m_currentMarker = fillMarker( aRefSeg, pad,
DRCE_TRACK_NEAR_PAD, m_currentMarker );
return false;
}
}
}
/***********************************************/
/* Phase 2: test DRC with other track segments */
/***********************************************/
// At this point the reference segment is the X axis
// Test the reference segment with other track segments
wxPoint segStartPoint;
wxPoint segEndPoint;
for( track = aStart; track; track = track->Next() )
{
// No problem if segments have the same net code:
if( net_code_ref == track->GetNetCode() )
continue;
// No problem if segment are on different layers :
if( !( layerMask & track->GetLayerSet() ).any() )
continue;
// the minimum distance = clearance plus half the reference track
// width plus half the other track's width
int w_dist = aRefSeg->GetClearance( track );
w_dist += (aRefSeg->GetWidth() + track->GetWidth()) / 2;
// Due to many double to int conversions during calculations, which
// create rounding issues,
// the exact clearance margin cannot be really known.
// To avoid false bad DRC detection due to these rounding issues,
// slightly decrease the w_dist (remove one nanometer is enough !)
w_dist -= 1;
// If the reference segment is a via, we test it here
if( aRefSeg->Type() == PCB_VIA_T )
{
delta = track->GetEnd() - track->GetStart();
segStartPoint = aRefSeg->GetStart() - track->GetStart();
if( track->Type() == PCB_VIA_T )
{
// Test distance between two vias, i.e. two circles, trivial case
if( EuclideanNorm( segStartPoint ) < w_dist )
{
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_VIA_NEAR_VIA, m_currentMarker );
return false;
}
}
else // test via to segment
{
// Compute l'angle du segment a tester;
double angle = ArcTangente( delta.y, delta.x );
// Compute new coordinates ( the segment become horizontal)
RotatePoint( &delta, angle );
RotatePoint( &segStartPoint, angle );
if( !checkMarginToCircle( segStartPoint, w_dist, delta.x ) )
{
m_currentMarker = fillMarker( track, aRefSeg,
DRCE_VIA_NEAR_TRACK, m_currentMarker );
return false;
}
}
continue;
}
/* We compute segStartPoint, segEndPoint = starting and ending point coordinates for
* the segment to test in the new axis : the new X axis is the
* reference segment. We must translate and rotate the segment to test
*/
segStartPoint = track->GetStart() - origin;
segEndPoint = track->GetEnd() - origin;
RotatePoint( &segStartPoint, m_segmAngle );
RotatePoint( &segEndPoint, m_segmAngle );
if( track->Type() == PCB_VIA_T )
{
if( checkMarginToCircle( segStartPoint, w_dist, m_segmLength ) )
continue;
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_TRACK_NEAR_VIA, m_currentMarker );
return false;
}
/* We have changed axis:
* the reference segment is Horizontal.
* 3 cases : the segment to test can be parallel, perpendicular or have an other direction
*/
if( segStartPoint.y == segEndPoint.y ) // parallel segments
{
if( abs( segStartPoint.y ) >= w_dist )
continue;
// Ensure segStartPoint.x <= segEndPoint.x
if( segStartPoint.x > segEndPoint.x )
std::swap( segStartPoint.x, segEndPoint.x );
if( segStartPoint.x > (-w_dist) && segStartPoint.x < (m_segmLength + w_dist) ) /* possible error drc */
{
// the start point is inside the reference range
// X........
// O--REF--+
// Fine test : we consider the rounded shape of each end of the track segment:
if( segStartPoint.x >= 0 && segStartPoint.x <= m_segmLength )
{
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_TRACK_ENDS1, m_currentMarker );
return false;
}
if( !checkMarginToCircle( segStartPoint, w_dist, m_segmLength ) )
{
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_TRACK_ENDS2, m_currentMarker );
return false;
}
}
if( segEndPoint.x > (-w_dist) && segEndPoint.x < (m_segmLength + w_dist) )
{
// the end point is inside the reference range
// .....X
// O--REF--+
// Fine test : we consider the rounded shape of the ends
if( segEndPoint.x >= 0 && segEndPoint.x <= m_segmLength )
{
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_TRACK_ENDS3, m_currentMarker );
return false;
}
if( !checkMarginToCircle( segEndPoint, w_dist, m_segmLength ) )
{
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_TRACK_ENDS4, m_currentMarker );
return false;
}
}
if( segStartPoint.x <=0 && segEndPoint.x >= 0 )
{
// the segment straddles the reference range (this actually only
// checks if it straddles the origin, because the other cases where already
// handled)
// X.............X
// O--REF--+
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_TRACK_SEGMENTS_TOO_CLOSE, m_currentMarker );
return false;
}
}
else if( segStartPoint.x == segEndPoint.x ) // perpendicular segments
{
if( ( segStartPoint.x <= (-w_dist) ) || ( segStartPoint.x >= (m_segmLength + w_dist) ) )
continue;
// Test if segments are crossing
if( segStartPoint.y > segEndPoint.y )
std::swap( segStartPoint.y, segEndPoint.y );
if( (segStartPoint.y < 0) && (segEndPoint.y > 0) )
{
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_TRACKS_CROSSING, m_currentMarker );
return false;
}
// At this point the drc error is due to an end near a reference segm end
if( !checkMarginToCircle( segStartPoint, w_dist, m_segmLength ) )
{
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_ENDS_PROBLEM1, m_currentMarker );
return false;
}
if( !checkMarginToCircle( segEndPoint, w_dist, m_segmLength ) )
{
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_ENDS_PROBLEM2, m_currentMarker );
return false;
}
}
else // segments quelconques entre eux
{
// calcul de la "surface de securite du segment de reference
// First rought 'and fast) test : the track segment is like a rectangle
m_xcliplo = m_ycliplo = -w_dist;
m_xcliphi = m_segmLength + w_dist;
m_ycliphi = w_dist;
// A fine test is needed because a serment is not exactly a
// rectangle, it has rounded ends
if( !checkLine( segStartPoint, segEndPoint ) )
{
/* 2eme passe : the track has rounded ends.
* we must a fine test for each rounded end and the
* rectangular zone
*/
m_xcliplo = 0;
m_xcliphi = m_segmLength;
if( !checkLine( segStartPoint, segEndPoint ) )
{
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_ENDS_PROBLEM3, m_currentMarker );
return false;
}
else // The drc error is due to the starting or the ending point of the reference segment
{
// Test the starting and the ending point
segStartPoint = track->GetStart();
segEndPoint = track->GetEnd();
delta = segEndPoint - segStartPoint;
// Compute the segment orientation (angle) en 0,1 degre
double angle = ArcTangente( delta.y, delta.x );
// Compute the segment length: delta.x = length after rotation
RotatePoint( &delta, angle );
/* Comute the reference segment coordinates relatives to a
* X axis = current tested segment
*/
wxPoint relStartPos = aRefSeg->GetStart() - segStartPoint;
wxPoint relEndPos = aRefSeg->GetEnd() - segStartPoint;
RotatePoint( &relStartPos, angle );
RotatePoint( &relEndPos, angle );
if( !checkMarginToCircle( relStartPos, w_dist, delta.x ) )
{
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_ENDS_PROBLEM4, m_currentMarker );
return false;
}
if( !checkMarginToCircle( relEndPos, w_dist, delta.x ) )
{
m_currentMarker = fillMarker( aRefSeg, track,
DRCE_ENDS_PROBLEM5, m_currentMarker );
return false;
}
}
}
}
}
return true;
}
/* Populates .m_connected with tracks/vias connected to aTrack
* param aTrack = track or via to use as reference
* For calculation time reason, an exhaustive search cannot be made
* and a proximity search is made:
* Only tracks with one end near one end of aTrack are collected.
* near means dist <= aTrack width / 2
* because with this constraint we can make a fast search in track list
* m_candidates is expected to be populated by the track candidates ends list
*/
int CONNECTIONS::SearchConnectedTracks( const TRACK* aTrack )
{
int count = 0;
m_connected.clear();
LSET layerMask = aTrack->GetLayerSet();
// Search for connections to starting point:
#define USE_EXTENDED_SEARCH
#ifdef USE_EXTENDED_SEARCH
int dist_max = aTrack->GetWidth() / 2;
static std::vector<CONNECTED_POINT*> tracks_candidates;
#endif
wxPoint position = aTrack->GetStart();
for( int kk = 0; kk < 2; kk++ )
{
#ifndef USE_EXTENDED_SEARCH
int idx = searchEntryPointInCandidatesList( position );
if( idx >= 0 )
{
// search after:
for( unsigned ii = idx; ii < m_candidates.size(); ii ++ )
{
if( m_candidates[ii].GetTrack() == aTrack )
continue;
if( m_candidates[ii].GetPoint() != position )
break;
if( ( m_candidates[ii].GetTrack()->GetLayerSet() & layerMask ).any() )
m_connected.push_back( m_candidates[ii].GetTrack() );
}
// search before:
for( int ii = idx-1; ii >= 0; ii -- )
{
if( m_candidates[ii].GetTrack() == aTrack )
continue;
if( m_candidates[ii].GetPoint() != position )
break;
if( ( m_candidates[ii].GetTrack()->GetLayerSet() & layerMask ).any() )
m_connected.push_back( m_candidates[ii].GetTrack() );
}
}
#else
tracks_candidates.clear();
CollectItemsNearTo( tracks_candidates, position, dist_max );
for( unsigned ii = 0; ii < tracks_candidates.size(); ii++ )
{
TRACK* ctrack = tracks_candidates[ii]->GetTrack();
if( !( ctrack->GetLayerSet() & layerMask ).any() )
continue;
if( ctrack == aTrack )
continue;
// We have a good candidate: calculate the actual distance
// between ends, which should be <= dist max.
wxPoint delta = tracks_candidates[ii]->GetPoint() - position;
int dist = KiROUND( EuclideanNorm( delta ) );
if( dist > dist_max )
continue;
m_connected.push_back( ctrack );
}
#endif
// Search for connections to ending point:
if( aTrack->Type() == PCB_VIA_T )
break;
position = aTrack->GetEnd();
}
return count;
}
TRACK* TRACK::GetTrack( TRACK* aStartTrace, TRACK* aEndTrace, ENDPOINT_T aEndPoint,
bool aSameNetOnly, bool aSequential )
{
const wxPoint& position = GetEndPoint( aEndPoint );
LSET refLayers = GetLayerSet();
TRACK* previousSegment;
TRACK* nextSegment;
if( aSequential )
{
// Simple sequential search: from aStartTrace forward to aEndTrace
previousSegment = NULL;
nextSegment = aStartTrace;
}
else
{
/* Local bidirectional search: from this backward to aStartTrace
* AND forward to aEndTrace. The idea is that nearest segments
* are found (on average) faster in this way. In fact same-net
* segments are almost guaranteed to be found faster, in a global
* search, since they are grouped together in the track list */
previousSegment = this;
nextSegment = this;
}
while( nextSegment || previousSegment )
{
// Terminate the search in the direction if the netcode mismatches
if( aSameNetOnly )
{
if( nextSegment && (nextSegment->GetNetCode() != GetNetCode()) )
nextSegment = NULL;
if( previousSegment && (previousSegment->GetNetCode() != GetNetCode()) )
previousSegment = NULL;
}
if( nextSegment )
{
if ( (nextSegment != this) &&
!nextSegment->GetState( BUSY | IS_DELETED ) &&
( refLayers & nextSegment->GetLayerSet() ).any() )
{
if( (position == nextSegment->m_Start) ||
(position == nextSegment->m_End) )
return nextSegment;
}
// Keep looking forward
if( nextSegment == aEndTrace )
nextSegment = NULL;
else
nextSegment = nextSegment->Next();
}
// Same as above, looking back. During sequential search this branch is inactive
if( previousSegment )
{
if( (previousSegment != this) &&
!previousSegment->GetState( BUSY | IS_DELETED ) &&
( refLayers & previousSegment->GetLayerSet() ).any()
)
{
if( (position == previousSegment->m_Start) ||
(position == previousSegment->m_End) )
return previousSegment;
}
if( previousSegment == aStartTrace )
previousSegment = NULL;
else
previousSegment = previousSegment->Back();
}
}
return NULL;
}
void DIALOG_GLOBAL_DELETION::AcceptPcbDelete( )
{
bool gen_rastnest = false;
m_Parent->SetCurItem( NULL );
if( m_DelAlls->GetValue() )
{
m_Parent->Clear_Pcb( true );
}
else
{
if( !IsOK( this, _( "Are you sure you want to delete the selected items?" ) ) )
return;
BOARD* pcb = m_Parent->GetBoard();
PICKED_ITEMS_LIST pickersList;
ITEM_PICKER itemPicker( NULL, UR_DELETED );
BOARD_ITEM* item;
BOARD_ITEM* nextitem;
RN_DATA* ratsnest = pcb->GetRatsnest();
LSET layers_filter = LSET().set();
if( m_rbLayersOption->GetSelection() != 0 ) // Use current layer only
layers_filter = LSET( ToLAYER_ID( m_currentLayer ) );
if( m_DelZones->GetValue() )
{
int area_index = 0;
item = pcb->GetArea( area_index );
while( item )
{
if( layers_filter[item->GetLayer()] )
{
itemPicker.SetItem( item );
pickersList.PushItem( itemPicker );
pcb->Remove( item );
item->ViewRelease();
ratsnest->Remove( item );
gen_rastnest = true;
}
else
{
area_index++;
}
item = pcb->GetArea( area_index );
}
}
if( m_DelDrawings->GetValue() || m_DelBoardEdges->GetValue() )
{
LSET masque_layer;
if( m_DelDrawings->GetValue() )
masque_layer = LSET::AllNonCuMask().set( Edge_Cuts, false );
if( m_DelBoardEdges->GetValue() )
masque_layer.set( Edge_Cuts );
masque_layer &= layers_filter;
for( item = pcb->m_Drawings; item; item = nextitem )
{
nextitem = item->Next();
if( item->Type() == PCB_LINE_T && masque_layer[item->GetLayer()] )
{
itemPicker.SetItem( item );
pickersList.PushItem( itemPicker );
item->ViewRelease();
item->UnLink();
}
}
}
if( m_DelTexts->GetValue() )
{
LSET del_text_layers = layers_filter;
for( item = pcb->m_Drawings; item; item = nextitem )
{
nextitem = item->Next();
if( item->Type() == PCB_TEXT_T && del_text_layers[item->GetLayer()] )
{
itemPicker.SetItem( item );
pickersList.PushItem( itemPicker );
item->ViewRelease();
item->UnLink();
}
}
}
if( m_DelModules->GetValue() )
{
for( item = pcb->m_Modules; item; item = nextitem )
{
nextitem = item->Next();
if( layers_filter[item->GetLayer()] &&
( ( m_ModuleFilterNormal->GetValue() && !item->IsLocked() ) ||
( m_ModuleFilterLocked->GetValue() && item->IsLocked() ) ) )
{
itemPicker.SetItem( item );
pickersList.PushItem( itemPicker );
static_cast<MODULE*>( item )->RunOnChildren(
boost::bind( &KIGFX::VIEW_ITEM::ViewRelease, _1 ) );
ratsnest->Remove( item );
item->ViewRelease();
item->UnLink();
gen_rastnest = true;
}
}
}
if( m_DelTracks->GetValue() )
{
STATUS_FLAGS track_mask_filter = 0;
if( !m_TrackFilterLocked->GetValue() )
track_mask_filter |= TRACK_LOCKED;
if( !m_TrackFilterAR->GetValue() )
track_mask_filter |= TRACK_AR;
TRACK* nexttrack;
for( TRACK *track = pcb->m_Track; track; track = nexttrack )
{
nexttrack = track->Next();
if( ( track->GetState( TRACK_LOCKED | TRACK_AR ) & track_mask_filter ) != 0 )
continue;
if( ( track->GetState( TRACK_LOCKED | TRACK_AR ) == 0 ) &&
!m_TrackFilterNormal->GetValue() )
continue;
if( ( track->Type() == PCB_VIA_T ) && !m_TrackFilterVias->GetValue() )
continue;
if( ( track->GetLayerSet() & layers_filter ) == 0 )
continue;
itemPicker.SetItem( track );
pickersList.PushItem( itemPicker );
track->ViewRelease();
ratsnest->Remove( track );
track->UnLink();
gen_rastnest = true;
}
}
if( pickersList.GetCount() )
m_Parent->SaveCopyInUndoList( pickersList, UR_DELETED );
if( m_DelMarkers->GetValue() )
pcb->DeleteMARKERs();
if( gen_rastnest )
m_Parent->Compile_Ratsnest( NULL, true );
if( m_Parent->IsGalCanvasActive() )
pcb->GetRatsnest()->Recalculate();
}
m_Parent->GetCanvas()->Refresh();
m_Parent->OnModify();
EndModal( 1 );
}
