void EDA_3D_CANVAS::buildBoard3DView( GLuint aBoardList, GLuint aBodyOnlyList,
REPORTER* aErrorMessages, REPORTER* aActivity )
{
BOARD* pcb = GetBoard();
// If FL_RENDER_SHOW_HOLES_IN_ZONES is true, holes are correctly removed from copper zones areas.
// If FL_RENDER_SHOW_HOLES_IN_ZONES is false, holes are not removed from copper zones areas,
// but the calculation time is twice shorter.
bool remove_Holes = isEnabled( FL_RENDER_SHOW_HOLES_IN_ZONES );
bool realistic_mode = isRealisticMode();
bool useTextures = isRealisticMode() && isEnabled( FL_RENDER_TEXTURES );
// Number of segments to convert a circle to polygon
// We use 2 values: the first gives a good shape (for instanes rond pads)
// the second is used to speed up calculations, when a poor approximation is acceptable (holes)
const int segcountforcircle = 18;
double correctionFactor = 1.0 / cos( M_PI / (segcountforcircle * 2.0) );
const int segcountLowQuality = 12; // segments to draw a circle with low quality
// to reduce time calculations
// for holes and items which do not need
// a fine representation
double correctionFactorLQ = 1.0 / cos( M_PI / (segcountLowQuality * 2.0) );
SHAPE_POLY_SET bufferPolys; // copper areas: tracks, pads and filled zones areas
// when holes are removed from zones
SHAPE_POLY_SET bufferPcbOutlines; // stores the board main outlines
SHAPE_POLY_SET bufferZonesPolys; // copper filled zones areas
// when holes are not removed from zones
SHAPE_POLY_SET currLayerHoles; // Contains holes for the current layer
SHAPE_POLY_SET allLayerHoles; // Contains holes for all layers
// Build a polygon from edge cut items
wxString msg;
if( !pcb->GetBoardPolygonOutlines( bufferPcbOutlines, allLayerHoles, &msg ) )
{
if( aErrorMessages )
{
msg << wxT("\n") << _("Unable to calculate the board outlines.\n"
"Therefore use the board boundary box.") << wxT("\n\n");
aErrorMessages->Report( msg, REPORTER::RPT_WARNING );
}
}
// Build board holes, with optimization of large holes shape.
buildBoardThroughHolesPolygonList( allLayerHoles, segcountLowQuality, true );
LSET cu_set = LSET::AllCuMask( GetPrm3DVisu().m_CopperLayersCount );
glNewList( aBoardList, GL_COMPILE );
for( LSEQ cu = cu_set.CuStack(); cu; ++cu )
{
LAYER_ID layer = *cu;
// Skip non enabled layers in normal mode,
// and internal layers in realistic mode
if( !is3DLayerEnabled( layer ) )
continue;
if( aActivity )
aActivity->Report( wxString::Format( _( "Build layer %s" ), LSET::Name( layer ) ) );
bufferPolys.RemoveAllContours();
bufferZonesPolys.RemoveAllContours();
currLayerHoles.RemoveAllContours();
// Draw track shapes:
for( TRACK* track = pcb->m_Track; track; track = track->Next() )
{
if( !track->IsOnLayer( layer ) )
continue;
track->TransformShapeWithClearanceToPolygon( bufferPolys,
0, segcountforcircle,
correctionFactor );
// Add blind/buried via holes
if( track->Type() == PCB_VIA_T )
{
VIA *via = static_cast<VIA*>( track );
if( via->GetViaType() == VIA_THROUGH )
continue; // already done
int holediameter = via->GetDrillValue();
int thickness = GetPrm3DVisu().GetCopperThicknessBIU();
int hole_outer_radius = (holediameter + thickness) / 2;
TransformCircleToPolygon( currLayerHoles,
via->GetStart(), hole_outer_radius,
segcountLowQuality );
}
}
// draw pad shapes
for( MODULE* module = pcb->m_Modules; module; module = module->Next() )
{
// Note: NPTH pads are not drawn on copper layers when the pad
// has same shape as its hole
module->TransformPadsShapesWithClearanceToPolygon( layer,
bufferPolys,
0,
segcountforcircle,
correctionFactor, true );
// Micro-wave modules may have items on copper layers
module->TransformGraphicShapesWithClearanceToPolygonSet( layer,
bufferPolys,
0,
segcountforcircle,
correctionFactor );
// pad holes are already in list.
}
// Draw copper zones. Note:
// * if the holes are removed from copper zones
// the polygons are stored in bufferPolys (which contains all other polygons)
// * if the holes are NOT removed from copper zones
// the polygons are stored in bufferZonesPolys
if( isEnabled( FL_ZONE ) )
{
for( int ii = 0; ii < pcb->GetAreaCount(); ii++ )
{
ZONE_CONTAINER* zone = pcb->GetArea( ii );
LAYER_NUM zonelayer = zone->GetLayer();
if( zonelayer == layer )
{
zone->TransformSolidAreasShapesToPolygonSet(
remove_Holes ? bufferPolys : bufferZonesPolys,
segcountLowQuality, correctionFactorLQ );
}
}
}
// draw graphic items on copper layers (texts)
for( BOARD_ITEM* item = pcb->m_Drawings; item; item = item->Next() )
{
if( !item->IsOnLayer( layer ) )
continue;
switch( item->Type() )
{
case PCB_LINE_T: // should not exist on copper layers
( (DRAWSEGMENT*) item )->TransformShapeWithClearanceToPolygon(
bufferPolys, 0, segcountforcircle, correctionFactor );
break;
case PCB_TEXT_T:
( (TEXTE_PCB*) item )->TransformShapeWithClearanceToPolygonSet(
bufferPolys, 0, segcountLowQuality, correctionFactor );
break;
default:
break;
}
}
// bufferPolys contains polygons to merge. Many overlaps .
// Calculate merged polygons
if( bufferPolys.IsEmpty() )
continue;
// Use Clipper lib to subtract holes to copper areas
if( currLayerHoles.OutlineCount() )
{
currLayerHoles.Append(allLayerHoles);
currLayerHoles.Simplify( polygonsCalcMode );
bufferPolys.BooleanSubtract( currLayerHoles, polygonsCalcMode );
}
else
bufferPolys.BooleanSubtract( allLayerHoles, polygonsCalcMode );
int thickness = GetPrm3DVisu().GetLayerObjectThicknessBIU( layer );
int zpos = GetPrm3DVisu().GetLayerZcoordBIU( layer );
float zNormal = 1.0f; // When using thickness it will draw first the top and then botton (with z inverted)
// If we are not using thickness, then the z-normal has to match the layer direction
// because just one plane will be drawn
if( !thickness )
zNormal = Get3DLayer_Z_Orientation( layer );
if( realistic_mode )
{
setGLCopperColor();
}
else
{
EDA_COLOR_T color = g_ColorsSettings.GetLayerColor( layer );
SetGLColor( color );
}
// If holes are removed from copper zones, bufferPolys contains all polygons
// to draw (tracks+zones+texts).
Draw3D_SolidHorizontalPolyPolygons( bufferPolys, zpos, thickness,
GetPrm3DVisu().m_BiuTo3Dunits, useTextures,
zNormal );
// If holes are not removed from copper zones (for calculation time reasons,
// the zone polygons are stored in bufferZonesPolys and have to be drawn now:
if( !bufferZonesPolys.IsEmpty() )
{
Draw3D_SolidHorizontalPolyPolygons( bufferZonesPolys, zpos, thickness,
GetPrm3DVisu().m_BiuTo3Dunits, useTextures,
zNormal );
}
}
if( aActivity )
aActivity->Report( _( "Build board body" ) );
// Draw plated vertical holes inside the board, but not always. They are drawn:
// - if the board body is not shown, to show the holes.
// - or if the copper thickness is shown
if( !isEnabled( FL_SHOW_BOARD_BODY ) || isEnabled( FL_USE_COPPER_THICKNESS ) )
{
// Draw vias holes (vertical cylinders)
for( const TRACK* track = pcb->m_Track; track; track = track->Next() )
{
if( track->Type() == PCB_VIA_T )
{
const VIA *via = static_cast<const VIA*>(track);
draw3DViaHole( via );
}
}
// Draw pads holes (vertical cylinders)
for( const MODULE* module = pcb->m_Modules; module; module = module->Next() )
{
for( D_PAD* pad = module->Pads(); pad; pad = pad->Next() )
if( pad->GetAttribute () != PAD_ATTRIB_HOLE_NOT_PLATED )
draw3DPadHole( pad );
}
}
glEndList();
// Build the body board:
glNewList( aBodyOnlyList, GL_COMPILE );
if( isRealisticMode() )
{
setGLEpoxyColor( 1.00 );
}
else
{
EDA_COLOR_T color = g_ColorsSettings.GetLayerColor( Edge_Cuts );
SetGLColor( color, 0.7 );
}
float copper_thickness = GetPrm3DVisu().GetCopperThicknessBIU();
// a small offset between substrate and external copper layer to avoid artifacts
// when drawing copper items on board
float epsilon = Millimeter2iu( 0.01 );
float zpos = GetPrm3DVisu().GetLayerZcoordBIU( B_Cu );
float board_thickness = GetPrm3DVisu().GetLayerZcoordBIU( F_Cu )
- GetPrm3DVisu().GetLayerZcoordBIU( B_Cu );
// items on copper layers and having a thickness = copper_thickness
// are drawn from zpos - copper_thickness/2 to zpos + copper_thickness
// therefore substrate position is copper_thickness/2 to
// substrate_height - copper_thickness/2
zpos += (copper_thickness + epsilon) / 2.0f;
board_thickness -= copper_thickness + epsilon;
bufferPcbOutlines.BooleanSubtract( allLayerHoles, polygonsCalcMode );
if( !bufferPcbOutlines.IsEmpty() )
{
Draw3D_SolidHorizontalPolyPolygons( bufferPcbOutlines, zpos + board_thickness / 2.0,
board_thickness, GetPrm3DVisu().m_BiuTo3Dunits, useTextures,
1.0f );
}
glEndList();
}
/*
* Note 1: polygons are drawm using outlines witk a thickness = aMinThicknessValue
* so shapes must take in account this outline thickness
*
* Note 2:
* Trapezoidal pads are not considered here because they are very special case
* and are used in microwave applications and they *DO NOT* have a thermal relief that
* change the shape by creating stubs and destroy their properties.
*/
void CreateThermalReliefPadPolygon( SHAPE_POLY_SET& aCornerBuffer,
const D_PAD& aPad,
int aThermalGap,
int aCopperThickness,
int aMinThicknessValue,
int aError,
double aThermalRot )
{
wxPoint corner, corner_end;
wxSize copper_thickness;
wxPoint padShapePos = aPad.ShapePos(); // Note: for pad having a shape offset,
// the pad position is NOT the shape position
/* Keep in account the polygon outline thickness
* aThermalGap must be increased by aMinThicknessValue/2 because drawing external outline
* with a thickness of aMinThicknessValue will reduce gap by aMinThicknessValue/2
*/
aThermalGap += aMinThicknessValue / 2;
/* Keep in account the polygon outline thickness
* copper_thickness must be decreased by aMinThicknessValue because drawing outlines
* with a thickness of aMinThicknessValue will increase real thickness by aMinThicknessValue
*/
int dx = aPad.GetSize().x / 2;
int dy = aPad.GetSize().y / 2;
copper_thickness.x = std::min( aPad.GetSize().x, aCopperThickness ) - aMinThicknessValue;
copper_thickness.y = std::min( aPad.GetSize().y, aCopperThickness ) - aMinThicknessValue;
if( copper_thickness.x < 0 )
copper_thickness.x = 0;
if( copper_thickness.y < 0 )
copper_thickness.y = 0;
switch( aPad.GetShape() )
{
case PAD_SHAPE_CIRCLE: // Add 4 similar holes
{
/* we create 4 copper holes and put them in position 1, 2, 3 and 4
* here is the area of the rectangular pad + its thermal gap
* the 4 copper holes remove the copper in order to create the thermal gap
* 4 ------ 1
* | |
* | |
* | |
* | |
* 3 ------ 2
* holes 2, 3, 4 are the same as hole 1, rotated 90, 180, 270 deg
*/
// Build the hole pattern, for the hole in the X >0, Y > 0 plane:
// The pattern roughtly is a 90 deg arc pie
std::vector <wxPoint> corners_buffer;
int numSegs = std::max( GetArcToSegmentCount( dx + aThermalGap, aError, 360.0 ), 6 );
double correction = GetCircletoPolyCorrectionFactor( numSegs );
double delta = 3600.0 / numSegs;
// Radius of outer arcs of the shape corrected for arc approximation by lines
int outer_radius = KiROUND( ( dx + aThermalGap ) * correction );
// Crosspoint of thermal spoke sides, the first point of polygon buffer
corners_buffer.push_back( wxPoint( copper_thickness.x / 2, copper_thickness.y / 2 ) );
// Add an intermediate point on spoke sides, to allow a > 90 deg angle between side
// and first seg of arc approx
corner.x = copper_thickness.x / 2;
int y = outer_radius - (aThermalGap / 4);
corner.y = KiROUND( sqrt( ( (double) y * y - (double) corner.x * corner.x ) ) );
if( aThermalRot != 0 )
corners_buffer.push_back( corner );
// calculate the starting point of the outter arc
corner.x = copper_thickness.x / 2;
corner.y = KiROUND( sqrt( ( (double) outer_radius * outer_radius ) -
( (double) corner.x * corner.x ) ) );
RotatePoint( &corner, 90 ); // 9 degrees is the spoke fillet size
// calculate the ending point of the outer arc
corner_end.x = corner.y;
corner_end.y = corner.x;
// calculate intermediate points (y coordinate from corner.y to corner_end.y
while( (corner.y > corner_end.y) && (corner.x < corner_end.x) )
{
corners_buffer.push_back( corner );
RotatePoint( &corner, delta );
}
corners_buffer.push_back( corner_end );
/* add an intermediate point, to avoid angles < 90 deg between last arc approx line
* and radius line
*/
corner.x = corners_buffer[1].y;
corner.y = corners_buffer[1].x;
corners_buffer.push_back( corner );
// Now, add the 4 holes ( each is the pattern, rotated by 0, 90, 180 and 270 deg
// aThermalRot = 450 (45.0 degrees orientation) work fine.
double angle_pad = aPad.GetOrientation(); // Pad orientation
double th_angle = aThermalRot;
for( unsigned ihole = 0; ihole < 4; ihole++ )
{
aCornerBuffer.NewOutline();
for( unsigned ii = 0; ii < corners_buffer.size(); ii++ )
{
corner = corners_buffer[ii];
RotatePoint( &corner, th_angle + angle_pad ); // Rotate by segment angle and pad orientation
corner += padShapePos;
aCornerBuffer.Append( corner.x, corner.y );
}
th_angle += 900; // Note: th_angle in in 0.1 deg.
}
}
break;
case PAD_SHAPE_OVAL:
{
// Oval pad support along the lines of round and rectangular pads
std::vector <wxPoint> corners_buffer; // Polygon buffer as vector
dx = (aPad.GetSize().x / 2) + aThermalGap; // Cutout radius x
dy = (aPad.GetSize().y / 2) + aThermalGap; // Cutout radius y
wxPoint shape_offset;
// We want to calculate an oval shape with dx > dy.
// if this is not the case, exchange dx and dy, and rotate the shape 90 deg.
int supp_angle = 0;
if( dx < dy )
{
std::swap( dx, dy );
supp_angle = 900;
std::swap( copper_thickness.x, copper_thickness.y );
}
int deltasize = dx - dy; // = distance between shape position and the 2 demi-circle ends centre
// here we have dx > dy
// Radius of outer arcs of the shape:
int outer_radius = dy; // The radius of the outer arc is radius end + aThermalGap
int numSegs = std::max( GetArcToSegmentCount( outer_radius, aError, 360.0 ), 6 );
double delta = 3600.0 / numSegs;
// Some coordinate fiddling, depending on the shape offset direction
shape_offset = wxPoint( deltasize, 0 );
// Crosspoint of thermal spoke sides, the first point of polygon buffer
corner.x = copper_thickness.x / 2;
corner.y = copper_thickness.y / 2;
corners_buffer.push_back( corner );
// Arc start point calculation, the intersecting point of cutout arc and thermal spoke edge
// If copper thickness is more than shape offset, we need to calculate arc intercept point.
if( copper_thickness.x > deltasize )
{
corner.x = copper_thickness.x / 2;
corner.y = KiROUND( sqrt( ( (double) outer_radius * outer_radius ) -
( (double) ( corner.x - delta ) * ( corner.x - deltasize ) ) ) );
corner.x -= deltasize;
/* creates an intermediate point, to have a > 90 deg angle
* between the side and the first segment of arc approximation
*/
wxPoint intpoint = corner;
intpoint.y -= aThermalGap / 4;
corners_buffer.push_back( intpoint + shape_offset );
RotatePoint( &corner, 90 ); // 9 degrees of thermal fillet
}
else
{
corner.x = copper_thickness.x / 2;
corner.y = outer_radius;
corners_buffer.push_back( corner );
}
// Add an intermediate point on spoke sides, to allow a > 90 deg angle between side
// and first seg of arc approx
wxPoint last_corner;
last_corner.y = copper_thickness.y / 2;
int px = outer_radius - (aThermalGap / 4);
last_corner.x =
KiROUND( sqrt( ( ( (double) px * px ) - (double) last_corner.y * last_corner.y ) ) );
// Arc stop point calculation, the intersecting point of cutout arc and thermal spoke edge
corner_end.y = copper_thickness.y / 2;
corner_end.x =
KiROUND( sqrt( ( (double) outer_radius *
outer_radius ) - ( (double) corner_end.y * corner_end.y ) ) );
RotatePoint( &corner_end, -90 ); // 9 degrees of thermal fillet
// calculate intermediate arc points till limit is reached
while( (corner.y > corner_end.y) && (corner.x < corner_end.x) )
{
corners_buffer.push_back( corner + shape_offset );
RotatePoint( &corner, delta );
}
//corners_buffer.push_back(corner + shape_offset); // TODO: about one mil geometry error forms somewhere.
corners_buffer.push_back( corner_end + shape_offset );
corners_buffer.push_back( last_corner + shape_offset ); // Enabling the line above shows intersection point.
/* Create 2 holes, rotated by pad rotation.
*/
double angle = aPad.GetOrientation() + supp_angle;
for( int irect = 0; irect < 2; irect++ )
{
aCornerBuffer.NewOutline();
for( unsigned ic = 0; ic < corners_buffer.size(); ic++ )
{
wxPoint cpos = corners_buffer[ic];
RotatePoint( &cpos, angle );
cpos += padShapePos;
aCornerBuffer.Append( cpos.x, cpos.y );
}
angle = AddAngles( angle, 1800 ); // this is calculate hole 3
}
// Create holes, that are the mirrored from the previous holes
for( unsigned ic = 0; ic < corners_buffer.size(); ic++ )
{
wxPoint swap = corners_buffer[ic];
swap.x = -swap.x;
corners_buffer[ic] = swap;
}
// Now add corner 4 and 2 (2 is the corner 4 rotated by 180 deg
angle = aPad.GetOrientation() + supp_angle;
for( int irect = 0; irect < 2; irect++ )
{
aCornerBuffer.NewOutline();
for( unsigned ic = 0; ic < corners_buffer.size(); ic++ )
{
wxPoint cpos = corners_buffer[ic];
RotatePoint( &cpos, angle );
cpos += padShapePos;
aCornerBuffer.Append( cpos.x, cpos.y );
}
angle = AddAngles( angle, 1800 );
}
}
break;
case PAD_SHAPE_CHAMFERED_RECT:
case PAD_SHAPE_ROUNDRECT: // thermal shape is the same for rectangular shapes.
case PAD_SHAPE_RECT:
{
/* we create 4 copper holes and put them in position 1, 2, 3 and 4
* here is the area of the rectangular pad + its thermal gap
* the 4 copper holes remove the copper in order to create the thermal gap
* 1 ------ 4
* | |
* | |
* | |
* | |
* 2 ------ 3
* hole 3 is the same as hole 1, rotated 180 deg
* hole 4 is the same as hole 2, rotated 180 deg and is the same as hole 1, mirrored
*/
// First, create a rectangular hole for position 1 :
// 2 ------- 3
// | |
// | |
// | |
// 1 -------4
// Modified rectangles with one corner rounded. TODO: merging with oval thermals
// and possibly round too.
std::vector <wxPoint> corners_buffer; // Polygon buffer as vector
dx = (aPad.GetSize().x / 2) + aThermalGap; // Cutout radius x
dy = (aPad.GetSize().y / 2) + aThermalGap; // Cutout radius y
// calculation is optimized for pad shape with dy >= dx (vertical rectangle).
// if it is not the case, just rotate this shape 90 degrees:
double angle = aPad.GetOrientation();
wxPoint corner_origin_pos( -aPad.GetSize().x / 2, -aPad.GetSize().y / 2 );
if( dy < dx )
{
std::swap( dx, dy );
std::swap( copper_thickness.x, copper_thickness.y );
std::swap( corner_origin_pos.x, corner_origin_pos.y );
angle += 900.0;
}
// Now calculate the hole pattern in position 1 ( top left pad corner )
// The first point of polygon buffer is left lower corner, second the crosspoint of
// thermal spoke sides, the third is upper right corner and the rest are rounding
// vertices going anticlockwise. Note the inverted Y-axis in corners_buffer y coordinates.
wxPoint arc_end_point( -dx, -(aThermalGap / 4 + copper_thickness.y / 2) );
corners_buffer.push_back( arc_end_point ); // Adds small miters to zone
corners_buffer.push_back( wxPoint( -(dx - aThermalGap / 4), -copper_thickness.y / 2 ) ); // fill and spoke corner
corners_buffer.push_back( wxPoint( -copper_thickness.x / 2, -copper_thickness.y / 2 ) );
corners_buffer.push_back( wxPoint( -copper_thickness.x / 2, -(dy - aThermalGap / 4) ) );
// The first point to build the rounded corner:
wxPoint arc_start_point( -(aThermalGap / 4 + copper_thickness.x / 2) , -dy );
corners_buffer.push_back( arc_start_point );
int numSegs = std::max( GetArcToSegmentCount( aThermalGap, aError, 360.0 ), 6 );
double correction = GetCircletoPolyCorrectionFactor( numSegs );
int rounding_radius = KiROUND( aThermalGap * correction ); // Corner rounding radius
// Calculate arc angle parameters.
// the start angle id near 900 decidegrees, the final angle is near 1800.0 decidegrees.
double arc_increment = 3600.0 / numSegs;
// the arc_angle_start is 900.0 or slighly more, depending on the actual arc starting point
double arc_angle_start = atan2( -arc_start_point.y -corner_origin_pos.y, arc_start_point.x - corner_origin_pos.x ) * 1800/M_PI;
if( arc_angle_start < 900.0 )
arc_angle_start = 900.0;
bool first_point = true;
for( double curr_angle = arc_angle_start; ; curr_angle += arc_increment )
{
wxPoint corner_position = wxPoint( rounding_radius, 0 );
RotatePoint( &corner_position, curr_angle ); // Rounding vector rotation
corner_position += corner_origin_pos; // Rounding vector + Pad corner offset
// The arc angle is <= 90 degrees, therefore the arc is finished if the x coordinate
// decrease or the y coordinate is smaller than the y end point
if( !first_point &&
( corner_position.x >= corners_buffer.back().x || corner_position.y > arc_end_point.y ) )
break;
first_point = false;
// Note: for hole in position 1, arc x coordinate is always < x starting point
// and arc y coordinate is always <= y ending point
if( corner_position != corners_buffer.back() // avoid duplicate corners.
&& corner_position.x <= arc_start_point.x ) // skip current point at the right of the starting point
corners_buffer.push_back( corner_position );
}
for( int irect = 0; irect < 2; irect++ )
{
aCornerBuffer.NewOutline();
for( unsigned ic = 0; ic < corners_buffer.size(); ic++ )
{
wxPoint cpos = corners_buffer[ic];
RotatePoint( &cpos, angle ); // Rotate according to module orientation
cpos += padShapePos; // Shift origin to position
aCornerBuffer.Append( cpos.x, cpos.y );
}
angle = AddAngles( angle, 1800 ); // this is calculate hole 3
}
// Create holes, that are the mirrored from the previous holes
for( unsigned ic = 0; ic < corners_buffer.size(); ic++ )
{
wxPoint swap = corners_buffer[ic];
swap.x = -swap.x;
corners_buffer[ic] = swap;
}
// Now add corner 4 and 2 (2 is the corner 4 rotated by 180 deg
for( int irect = 0; irect < 2; irect++ )
{
aCornerBuffer.NewOutline();
for( unsigned ic = 0; ic < corners_buffer.size(); ic++ )
{
wxPoint cpos = corners_buffer[ic];
RotatePoint( &cpos, angle );
cpos += padShapePos;
aCornerBuffer.Append( cpos.x, cpos.y );
}
angle = AddAngles( angle, 1800 );
}
}
break;
case PAD_SHAPE_TRAPEZOID:
{
SHAPE_POLY_SET antipad; // The full antipad area
// We need a length to build the stubs of the thermal reliefs
// the value is not very important. The pad bounding box gives a reasonable value
EDA_RECT bbox = aPad.GetBoundingBox();
int stub_len = std::max( bbox.GetWidth(), bbox.GetHeight() );
aPad.TransformShapeWithClearanceToPolygon( antipad, aThermalGap );
SHAPE_POLY_SET stub; // A basic stub ( a rectangle)
SHAPE_POLY_SET stubs; // the full stubs shape
// We now substract the stubs (connections to the copper zone)
//ClipperLib::Clipper clip_engine;
// Prepare a clipping transform
//clip_engine.AddPath( antipad, ClipperLib::ptSubject, true );
// Create stubs and add them to clipper engine
wxPoint stubBuffer[4];
stubBuffer[0].x = stub_len;
stubBuffer[0].y = copper_thickness.y/2;
stubBuffer[1] = stubBuffer[0];
stubBuffer[1].y = -copper_thickness.y/2;
stubBuffer[2] = stubBuffer[1];
stubBuffer[2].x = -stub_len;
stubBuffer[3] = stubBuffer[2];
stubBuffer[3].y = copper_thickness.y/2;
stub.NewOutline();
for( unsigned ii = 0; ii < arrayDim( stubBuffer ); ii++ )
{
wxPoint cpos = stubBuffer[ii];
RotatePoint( &cpos, aPad.GetOrientation() );
cpos += padShapePos;
stub.Append( cpos.x, cpos.y );
}
stubs.Append( stub );
stubBuffer[0].y = stub_len;
stubBuffer[0].x = copper_thickness.x/2;
stubBuffer[1] = stubBuffer[0];
stubBuffer[1].x = -copper_thickness.x/2;
stubBuffer[2] = stubBuffer[1];
stubBuffer[2].y = -stub_len;
stubBuffer[3] = stubBuffer[2];
stubBuffer[3].x = copper_thickness.x/2;
stub.RemoveAllContours();
stub.NewOutline();
for( unsigned ii = 0; ii < arrayDim( stubBuffer ); ii++ )
{
wxPoint cpos = stubBuffer[ii];
RotatePoint( &cpos, aPad.GetOrientation() );
cpos += padShapePos;
stub.Append( cpos.x, cpos.y );
}
stubs.Append( stub );
stubs.Simplify( SHAPE_POLY_SET::PM_FAST );
antipad.BooleanSubtract( stubs, SHAPE_POLY_SET::PM_FAST );
aCornerBuffer.Append( antipad );
break;
}
default:
;
}
}
void ZONE_CONTAINER::AddClearanceAreasPolygonsToPolysList_NG( BOARD* aPcb )
{
int segsPerCircle;
double correctionFactor;
int outline_half_thickness = m_ZoneMinThickness / 2;
std::unique_ptr<SHAPE_FILE_IO> dumper( new SHAPE_FILE_IO(
g_DumpZonesWhenFilling ? "zones_dump.txt" : "", SHAPE_FILE_IO::IOM_APPEND ) );
// Set the number of segments in arc approximations
if( m_ArcToSegmentsCount == ARC_APPROX_SEGMENTS_COUNT_HIGHT_DEF )
segsPerCircle = ARC_APPROX_SEGMENTS_COUNT_HIGHT_DEF;
else
segsPerCircle = ARC_APPROX_SEGMENTS_COUNT_LOW_DEF;
/* calculates the coeff to compensate radius reduction of holes clearance
* due to the segment approx.
* For a circle the min radius is radius * cos( 2PI / s_CircleToSegmentsCount / 2)
* s_Correction is 1 /cos( PI/s_CircleToSegmentsCount )
*/
correctionFactor = 1.0 / cos( M_PI / (double) segsPerCircle );
CPOLYGONS_LIST tmp;
if(g_DumpZonesWhenFilling)
dumper->BeginGroup("clipper-zone");
SHAPE_POLY_SET solidAreas = ConvertPolyListToPolySet( m_smoothedPoly->m_CornersList );
solidAreas.Inflate( -outline_half_thickness, segsPerCircle );
solidAreas.Simplify( POLY_CALC_MODE );
SHAPE_POLY_SET holes;
if(g_DumpZonesWhenFilling)
dumper->Write( &solidAreas, "solid-areas" );
tmp.RemoveAllContours();
buildFeatureHoleList( aPcb, holes );
if(g_DumpZonesWhenFilling)
dumper->Write( &holes, "feature-holes" );
holes.Simplify( POLY_CALC_MODE );
if (g_DumpZonesWhenFilling)
dumper->Write( &holes, "feature-holes-postsimplify" );
solidAreas.BooleanSubtract( holes, POLY_CALC_MODE );
if (g_DumpZonesWhenFilling)
dumper->Write( &solidAreas, "solid-areas-minus-holes" );
SHAPE_POLY_SET areas_fractured = solidAreas;
areas_fractured.Fracture( POLY_CALC_MODE );
if (g_DumpZonesWhenFilling)
dumper->Write( &areas_fractured, "areas_fractured" );
m_FilledPolysList = areas_fractured;
// Remove insulated islands:
if( GetNetCode() > 0 )
TestForCopperIslandAndRemoveInsulatedIslands( aPcb );
SHAPE_POLY_SET thermalHoles;
// Test thermal stubs connections and add polygons to remove unconnected stubs.
// (this is a refinement for thermal relief shapes)
if( GetNetCode() > 0 )
BuildUnconnectedThermalStubsPolygonList( thermalHoles, aPcb, this,
correctionFactor, s_thermalRot );
// remove copper areas corresponding to not connected stubs
if( !thermalHoles.IsEmpty() )
{
thermalHoles.Simplify( POLY_CALC_MODE );
// Remove unconnected stubs
solidAreas.BooleanSubtract( thermalHoles, POLY_CALC_MODE );
if( g_DumpZonesWhenFilling )
dumper->Write( &thermalHoles, "thermal-holes" );
// put these areas in m_FilledPolysList
SHAPE_POLY_SET th_fractured = solidAreas;
th_fractured.Fracture( POLY_CALC_MODE );
if( g_DumpZonesWhenFilling )
dumper->Write ( &th_fractured, "th_fractured" );
m_FilledPolysList = th_fractured;
if( GetNetCode() > 0 )
TestForCopperIslandAndRemoveInsulatedIslands( aPcb );
}
if(g_DumpZonesWhenFilling)
dumper->EndGroup();
}
/**
* Function ComputeRawFilledAreas
* Supports a min thickness area constraint.
* Add non copper areas polygons (pads and tracks with clearance)
* to the filled copper area found
* in BuildFilledPolysListData after calculating filled areas in a zone
* Non filled copper areas are pads and track and their clearance areas
* The filled copper area must be computed just before.
* BuildFilledPolysListData() call this function just after creating the
* filled copper area polygon (without clearance areas)
* to do that this function:
* 1 - Creates the main outline (zone outline) using a correction to shrink the resulting area
* with m_ZoneMinThickness/2 value.
* The result is areas with a margin of m_ZoneMinThickness/2
* When drawing outline with segments having a thickness of m_ZoneMinThickness, the
* outlines will match exactly the initial outlines
* 3 - Add all non filled areas (pads, tracks) in group B with a clearance of m_Clearance +
* m_ZoneMinThickness/2
* in a buffer
* - If Thermal shapes are wanted, add non filled area, in order to create these thermal shapes
* 4 - calculates the polygon A - B
* 5 - put resulting list of polygons (filled areas) in m_FilledPolysList
* This zone contains pads with the same net.
* 6 - Remove insulated copper islands
* 7 - If Thermal shapes are wanted, remove unconnected stubs in thermal shapes:
* creates a buffer of polygons corresponding to stubs to remove
* sub them to the filled areas.
* Remove new insulated copper islands
*/
void ZONE_FILLER::computeRawFilledAreas( const ZONE_CONTAINER* aZone,
const SHAPE_POLY_SET& aSmoothedOutline,
SHAPE_POLY_SET& aRawPolys,
SHAPE_POLY_SET& aFinalPolys ) const
{
int segsPerCircle;
double correctionFactor;
int outline_half_thickness = aZone->GetMinThickness() / 2;
std::unique_ptr<SHAPE_FILE_IO> dumper( new SHAPE_FILE_IO(
s_DumpZonesWhenFilling ? "zones_dump.txt" : "", SHAPE_FILE_IO::IOM_APPEND ) );
// Set the number of segments in arc approximations
if( aZone->GetArcSegmentCount() == ARC_APPROX_SEGMENTS_COUNT_HIGHT_DEF )
segsPerCircle = ARC_APPROX_SEGMENTS_COUNT_HIGHT_DEF;
else
segsPerCircle = ARC_APPROX_SEGMENTS_COUNT_LOW_DEF;
/* calculates the coeff to compensate radius reduction of holes clearance
* due to the segment approx.
* For a circle the min radius is radius * cos( 2PI / s_CircleToSegmentsCount / 2)
* s_Correction is 1 /cos( PI/s_CircleToSegmentsCount )
*/
correctionFactor = 1.0 / cos( M_PI / (double) segsPerCircle );
if( s_DumpZonesWhenFilling )
dumper->BeginGroup( "clipper-zone" );
SHAPE_POLY_SET solidAreas = aSmoothedOutline;
solidAreas.Inflate( -outline_half_thickness, segsPerCircle );
solidAreas.Simplify( SHAPE_POLY_SET::PM_FAST );
SHAPE_POLY_SET holes;
if( s_DumpZonesWhenFilling )
dumper->Write( &solidAreas, "solid-areas" );
buildZoneFeatureHoleList( aZone, holes );
if( s_DumpZonesWhenFilling )
dumper->Write( &holes, "feature-holes" );
holes.Simplify( SHAPE_POLY_SET::PM_FAST );
if( s_DumpZonesWhenFilling )
dumper->Write( &holes, "feature-holes-postsimplify" );
// Generate the filled areas (currently, without thermal shapes, which will
// be created later).
// Use SHAPE_POLY_SET::PM_STRICTLY_SIMPLE to generate strictly simple polygons
// needed by Gerber files and Fracture()
solidAreas.BooleanSubtract( holes, SHAPE_POLY_SET::PM_STRICTLY_SIMPLE );
if( s_DumpZonesWhenFilling )
dumper->Write( &solidAreas, "solid-areas-minus-holes" );
SHAPE_POLY_SET areas_fractured = solidAreas;
areas_fractured.Fracture( SHAPE_POLY_SET::PM_FAST );
if( s_DumpZonesWhenFilling )
dumper->Write( &areas_fractured, "areas_fractured" );
aFinalPolys = areas_fractured;
SHAPE_POLY_SET thermalHoles;
// Test thermal stubs connections and add polygons to remove unconnected stubs.
// (this is a refinement for thermal relief shapes)
if( aZone->GetNetCode() > 0 )
{
buildUnconnectedThermalStubsPolygonList( thermalHoles, aZone, aFinalPolys,
correctionFactor, s_thermalRot );
}
// remove copper areas corresponding to not connected stubs
if( !thermalHoles.IsEmpty() )
{
thermalHoles.Simplify( SHAPE_POLY_SET::PM_FAST );
// Remove unconnected stubs. Use SHAPE_POLY_SET::PM_STRICTLY_SIMPLE to
// generate strictly simple polygons
// needed by Gerber files and Fracture()
solidAreas.BooleanSubtract( thermalHoles, SHAPE_POLY_SET::PM_STRICTLY_SIMPLE );
if( s_DumpZonesWhenFilling )
dumper->Write( &thermalHoles, "thermal-holes" );
// put these areas in m_FilledPolysList
SHAPE_POLY_SET th_fractured = solidAreas;
th_fractured.Fracture( SHAPE_POLY_SET::PM_FAST );
if( s_DumpZonesWhenFilling )
dumper->Write( &th_fractured, "th_fractured" );
aFinalPolys = th_fractured;
}
aRawPolys = aFinalPolys;
if( s_DumpZonesWhenFilling )
dumper->EndGroup();
}
void D_PAD::TransformShapeWithClearanceToPolygon(
SHAPE_POLY_SET& aCornerBuffer, int aClearanceValue, int aError, bool ignoreLineWidth ) const
{
wxASSERT_MSG( !ignoreLineWidth, "IgnoreLineWidth has no meaning for pads." );
double angle = m_Orient;
int dx = (m_Size.x / 2) + aClearanceValue;
int dy = (m_Size.y / 2) + aClearanceValue;
wxPoint padShapePos = ShapePos(); /* Note: for pad having a shape offset,
* the pad position is NOT the shape position */
switch( GetShape() )
{
case PAD_SHAPE_CIRCLE:
{
TransformCircleToPolygon( aCornerBuffer, padShapePos, dx, aError );
}
break;
case PAD_SHAPE_OVAL:
// An oval pad has the same shape as a segment with rounded ends
{
int width;
wxPoint shape_offset;
if( dy > dx ) // Oval pad X/Y ratio for choosing translation axis
{
shape_offset.y = dy - dx;
width = dx * 2;
}
else //if( dy <= dx )
{
shape_offset.x = dy - dx;
width = dy * 2;
}
RotatePoint( &shape_offset, angle );
wxPoint start = padShapePos - shape_offset;
wxPoint end = padShapePos + shape_offset;
TransformOvalClearanceToPolygon( aCornerBuffer, start, end, width, aError );
}
break;
case PAD_SHAPE_TRAPEZOID:
case PAD_SHAPE_RECT:
{
wxPoint corners[4];
BuildPadPolygon( corners, wxSize( 0, 0 ), angle );
SHAPE_POLY_SET outline;
outline.NewOutline();
for( int ii = 0; ii < 4; ii++ )
{
corners[ii] += padShapePos;
outline.Append( corners[ii].x, corners[ii].y );
}
int numSegs = std::max( GetArcToSegmentCount( aClearanceValue, aError, 360.0 ), 6 );
double correction = GetCircletoPolyCorrectionFactor( numSegs );
int rounding_radius = KiROUND( aClearanceValue * correction );
outline.Inflate( rounding_radius, numSegs );
aCornerBuffer.Append( outline );
}
break;
case PAD_SHAPE_CHAMFERED_RECT:
case PAD_SHAPE_ROUNDRECT:
{
SHAPE_POLY_SET outline;
int radius = GetRoundRectCornerRadius() + aClearanceValue;
int numSegs = std::max( GetArcToSegmentCount( radius, aError, 360.0 ), 6 );
double correction = GetCircletoPolyCorrectionFactor( numSegs );
int clearance = KiROUND( aClearanceValue * correction );
int rounding_radius = GetRoundRectCornerRadius() + clearance;
wxSize shapesize( m_Size );
shapesize.x += clearance * 2;
shapesize.y += clearance * 2;
bool doChamfer = GetShape() == PAD_SHAPE_CHAMFERED_RECT;
TransformRoundChamferedRectToPolygon( outline, padShapePos, shapesize, angle,
rounding_radius, doChamfer ? GetChamferRectRatio() : 0.0,
doChamfer ? GetChamferPositions() : 0, aError );
aCornerBuffer.Append( outline );
}
break;
case PAD_SHAPE_CUSTOM:
{
int numSegs = std::max( GetArcToSegmentCount( aClearanceValue, aError, 360.0 ), 6 );
double correction = GetCircletoPolyCorrectionFactor( numSegs );
int clearance = KiROUND( aClearanceValue * correction );
SHAPE_POLY_SET outline; // Will contain the corners in board coordinates
outline.Append( m_customShapeAsPolygon );
CustomShapeAsPolygonToBoardPosition( &outline, GetPosition(), GetOrientation() );
outline.Simplify( SHAPE_POLY_SET::PM_FAST );
outline.Inflate( clearance, numSegs );
outline.Fracture( SHAPE_POLY_SET::PM_FAST );
aCornerBuffer.Append( outline );
}
break;
}
}
/**
* Function buildBoard3DAuxLayers
* Called by CreateDrawGL_List()
* Fills the OpenGL GL_ID_BOARD draw list with items
* on aux layers only
*/
void EDA_3D_CANVAS::buildBoard3DAuxLayers( REPORTER* aErrorMessages, REPORTER* aActivity )
{
const int segcountforcircle = 18;
double correctionFactor = 1.0 / cos( M_PI / (segcountforcircle * 2) );
BOARD* pcb = GetBoard();
SHAPE_POLY_SET bufferPolys;
static const LAYER_ID sequence[] = {
Dwgs_User,
Cmts_User,
Eco1_User,
Eco2_User,
Edge_Cuts,
Margin
};
for( LSEQ aux( sequence, sequence+DIM(sequence) ); aux; ++aux )
{
LAYER_ID layer = *aux;
if( !is3DLayerEnabled( layer ) )
continue;
if( aActivity )
aActivity->Report( wxString::Format( _( "Build layer %s" ), LSET::Name( layer ) ) );
bufferPolys.RemoveAllContours();
for( BOARD_ITEM* item = pcb->m_Drawings; item; item = item->Next() )
{
if( !item->IsOnLayer( layer ) )
continue;
switch( item->Type() )
{
case PCB_LINE_T:
( (DRAWSEGMENT*) item )->TransformShapeWithClearanceToPolygon(
bufferPolys, 0, segcountforcircle, correctionFactor );
break;
case PCB_TEXT_T:
( (TEXTE_PCB*) item )->TransformShapeWithClearanceToPolygonSet(
bufferPolys, 0, segcountforcircle, correctionFactor );
break;
default:
break;
}
}
for( MODULE* module = pcb->m_Modules; module; module = module->Next() )
{
module->TransformPadsShapesWithClearanceToPolygon( layer,
bufferPolys,
0,
segcountforcircle,
correctionFactor );
module->TransformGraphicShapesWithClearanceToPolygonSet( layer,
bufferPolys,
0,
segcountforcircle,
correctionFactor );
}
// bufferPolys contains polygons to merge. Many overlaps .
// Calculate merged polygons and remove pads and vias holes
if( bufferPolys.IsEmpty() )
continue;
bufferPolys.Simplify( polygonsCalcMode );
int thickness = GetPrm3DVisu().GetLayerObjectThicknessBIU( layer );
int zpos = GetPrm3DVisu().GetLayerZcoordBIU( layer );
// for Draw3D_SolidHorizontalPolyPolygons,
// zpos it the middle between bottom and top sides.
// However for top layers, zpos should be the bottom layer pos,
// and for bottom layers, zpos should be the top layer pos.
if( Get3DLayer_Z_Orientation( layer ) > 0 )
zpos += thickness/2;
else
zpos -= thickness/2 ;
float zNormal = 1.0f; // When using thickness it will draw first the top and then botton (with z inverted)
// If we are not using thickness, then the znormal must face the layer direction
// because it will draw just one plane
if( !thickness )
zNormal = Get3DLayer_Z_Orientation( layer );
setGLTechLayersColor( layer );
Draw3D_SolidHorizontalPolyPolygons( bufferPolys, zpos,
thickness, GetPrm3DVisu().m_BiuTo3Dunits, false,
zNormal );
}
}
void C3D_RENDER_OGL_LEGACY::reload()
{
m_reloadRequested = false;
ogl_free_all_display_lists();
COBJECT2D_STATS::Instance().ResetStats();
m_settings.InitSettings();
SFVEC3F camera_pos = m_settings.GetBoardCenter3DU();
m_settings.CameraGet().SetBoardLookAtPos( camera_pos );
// Create Board
// /////////////////////////////////////////////////////////////////////////
printf("Create board...\n");
CCONTAINER2D boardContainer;
Convert_shape_line_polygon_to_triangles( m_settings.GetBoardPoly(),
boardContainer,
m_settings.BiuTo3Dunits(),
(const BOARD_ITEM &)*m_settings.GetBoard() );
const LIST_OBJECT2D listBoardObject2d = boardContainer.GetList();
if( listBoardObject2d.size() > 0 )
{
/*
float layer_z_top = m_settings.GetLayerBottomZpos3DU( F_Cu );
float layer_z_bot = m_settings.GetLayerBottomZpos3DU( B_Cu );
*/
float layer_z_top = m_settings.GetLayerBottomZpos3DU( B_Mask );
float layer_z_bot = m_settings.GetLayerTopZpos3DU( B_Mask );
CLAYER_TRIANGLES *layerTriangles = new CLAYER_TRIANGLES( listBoardObject2d.size() );
for( LIST_OBJECT2D::const_iterator itemOnLayer = listBoardObject2d.begin();
itemOnLayer != listBoardObject2d.end();
itemOnLayer++ )
{
const COBJECT2D *object2d_A = static_cast<const COBJECT2D *>(*itemOnLayer);
wxASSERT( object2d_A->GetObjectType() == OBJ2D_TRIANGLE );
const CTRIANGLE2D *tri = (const CTRIANGLE2D *)object2d_A;
const SFVEC2F &v1 = tri->GetP1();
const SFVEC2F &v2 = tri->GetP2();
const SFVEC2F &v3 = tri->GetP3();
add_triangle_top_bot( layerTriangles, v1, v2, v3, layer_z_top, layer_z_bot );
}
const SHAPE_POLY_SET boardPoly = m_settings.GetBoardPoly();
SHAPE_POLY_SET boardPolyCopy = boardPoly;
boardPolyCopy.Simplify( SHAPE_POLY_SET::PM_FAST );
if( boardPolyCopy.OutlineCount() == 1 )
{
const SHAPE_LINE_CHAIN& outlinePath = boardPolyCopy.COutline( 0 );
std::vector< SFVEC2F > contournPoints;
contournPoints.clear();
contournPoints.reserve( outlinePath.PointCount() + 2 );
for( unsigned int i = 0; i < (unsigned int)outlinePath.PointCount(); ++i )
{
const VECTOR2I& v = outlinePath.CPoint( i );
contournPoints.push_back( SFVEC2F( v.x * m_settings.BiuTo3Dunits(),
-v.y * m_settings.BiuTo3Dunits() ) );
}
contournPoints.push_back( contournPoints[0] );
if( contournPoints.size() > 4 )
{
// Calculate normals of each segment of the contourn
std::vector< SFVEC2F > contournNormals;
contournNormals.clear();
contournNormals.reserve( contournPoints.size() );
for( unsigned int i = 0; i < ( contournPoints.size() - 1 ); ++i )
{
const SFVEC2F &v0 = contournPoints[i + 0];
const SFVEC2F &v1 = contournPoints[i + 1];
SFVEC2F n = glm::normalize( v1 - v0 );
contournNormals.push_back( SFVEC2F( -n.y, n.x ) );
}
SFVEC2F lastNormal = contournNormals[contournPoints.size() - 2];
for( unsigned int i = 0; i < ( contournPoints.size() - 1 ); ++i )
{
const SFVEC2F &v0 = contournPoints[i + 0];
const SFVEC2F &v1 = contournPoints[i + 1];
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( v0.x, v0.y, NextFloatUp( layer_z_top ) ),
SFVEC3F( v1.x, v1.y, NextFloatUp( layer_z_top ) ),
SFVEC3F( v1.x, v1.y, NextFloatDown( layer_z_bot ) ),
SFVEC3F( v0.x, v0.y, NextFloatDown( layer_z_bot ) ) );
SFVEC2F n0 = contournNormals[i];
if( glm::dot( n0, lastNormal ) > 0.5f )
n0 += lastNormal;
else
n0 += contournNormals[i];
const SFVEC2F &nextNormal = contournNormals[ (i + 1) % (contournPoints.size() - 1) ];
SFVEC2F n1 = contournNormals[i];
if( glm::dot( n1, nextNormal ) > 0.5f )
n1 += nextNormal;
else
n1 += contournNormals[i];
n0 = glm::normalize( n0 );
n1 = glm::normalize( n1 );
const SFVEC3F n3d0 = SFVEC3F( n0.x, n0.y, 0.0f );
const SFVEC3F n3d1 = SFVEC3F( n1.x, n1.y, 0.0f );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( n3d0, n3d1, n3d1, n3d0 );
lastNormal = contournNormals[i];
/*
const SFVEC2F n0 = glm::normalize( v0 - center );
const SFVEC2F n1 = glm::normalize( v1 - center );
const SFVEC3F n0z = SFVEC3F( n0.x, n0.y, 0.0f );
const SFVEC3F n1z = SFVEC3F( n1.x, n1.y, 0.0f );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( n0z, n1z, n1z, n0z );*/
}
}
contournPoints.clear();
}
m_ogl_disp_list_board = new CLAYERS_OGL_DISP_LISTS( *layerTriangles, m_ogl_circle_texture, SFVEC3F(0.65f,0.55f,0.05f) );
delete layerTriangles;
}
float calc_sides_min_factor = (float)( 10.0 * IU_PER_MILS * m_settings.BiuTo3Dunits() );
float calc_sides_max_factor = (float)( 1000.0 * IU_PER_MILS * m_settings.BiuTo3Dunits() );
// Add layers maps (except B_Mask and F_Mask)
// /////////////////////////////////////////////////////////////////////////
printf("Add layers maps...\n");
for( MAP_CONTAINER_2D::const_iterator it = m_settings.GetMapLayers().begin();
it != m_settings.GetMapLayers().end(); it++ )
{
LAYER_ID layer_id = static_cast<LAYER_ID>(it->first);
if( !m_settings.Is3DLayerEnabled( layer_id ) )
continue;
const CBVHCONTAINER2D *container2d = static_cast<const CBVHCONTAINER2D *>(it->second);
const LIST_OBJECT2D listObject2d = container2d->GetList();
if( listObject2d.size() == 0 )
continue;
//CMATERIAL *materialLayer = &m_materials.m_SilkS;
SFVEC3F layerColor = SFVEC3F( 0.3f, 0.4f, 0.5f );
float layer_z_bot = m_settings.GetLayerBottomZpos3DU( layer_id );
float layer_z_top = m_settings.GetLayerTopZpos3DU( layer_id );
if( layer_z_top < layer_z_bot )
{
float tmpFloat = layer_z_bot;
layer_z_bot = layer_z_top;
layer_z_top = tmpFloat;
}
layer_z_bot -= m_settings.GetNonCopperLayerThickness3DU();
layer_z_top += m_settings.GetNonCopperLayerThickness3DU();
if( m_settings.GetFlag( FL_USE_REALISTIC_MODE ) )
{
switch( layer_id )
{
case B_Adhes:
case F_Adhes:
break;
case B_Paste:
case F_Paste:
// materialLayer = &m_materials.m_Paste;
break;
case B_SilkS:
case F_SilkS:
// materialLayer = &m_materials.m_SilkS;
// layerColor = g_silkscreenColor;
break;
case Dwgs_User:
case Cmts_User:
case Eco1_User:
case Eco2_User:
case Edge_Cuts:
case Margin:
break;
case B_CrtYd:
case F_CrtYd:
break;
case B_Fab:
case F_Fab:
break;
default:
//materialLayer = &m_materials.m_Copper;
//layerColor = g_copperColor;
break;
}
}
else
{
layerColor = m_settings.GetLayerColor( layer_id );
}
// Calculate an estiation for then nr of triangles based on the nr of objects
unsigned int nrTrianglesEstimation = listObject2d.size() * 8;
CLAYER_TRIANGLES *layerTriangles = new CLAYER_TRIANGLES( nrTrianglesEstimation );
m_triangles[layer_id] = layerTriangles;
for( LIST_OBJECT2D::const_iterator itemOnLayer = listObject2d.begin();
itemOnLayer != listObject2d.end(); itemOnLayer++ )
{
const COBJECT2D *object2d_A = static_cast<const COBJECT2D *>(*itemOnLayer);
switch( object2d_A->GetObjectType() )
{
case OBJ2D_FILLED_CIRCLE:
{
const CFILLEDCIRCLE2D *filledCircle = (const CFILLEDCIRCLE2D *)object2d_A;
const SFVEC2F ¢er = filledCircle->GetCenter();
float radius = filledCircle->GetRadius() * 2.0f; // Double because the render triangle
float radiusSquared = radius * radius;
const float f = (sqrtf(2.0f) / 2.0f) * radius * 0.9;// * texture_factor;
layerTriangles->m_layer_top_segment_ends->AddTriangle( SFVEC3F( center.x + f, center.y, layer_z_top ),
SFVEC3F( center.x - f, center.y, layer_z_top ),
SFVEC3F( center.x,
center.y - f, layer_z_top ) );
layerTriangles->m_layer_top_segment_ends->AddTriangle( SFVEC3F( center.x - f, center.y, layer_z_top ),
SFVEC3F( center.x + f, center.y, layer_z_top ),
SFVEC3F( center.x,
center.y + f, layer_z_top ) );
layerTriangles->m_layer_bot_segment_ends->AddTriangle( SFVEC3F( center.x - f, center.y, layer_z_bot ),
SFVEC3F( center.x + f, center.y, layer_z_bot ),
SFVEC3F( center.x,
center.y - f, layer_z_bot ) );
layerTriangles->m_layer_bot_segment_ends->AddTriangle( SFVEC3F( center.x + f, center.y, layer_z_bot ),
SFVEC3F( center.x - f, center.y, layer_z_bot ),
SFVEC3F( center.x,
center.y + f, layer_z_bot ) );
unsigned int nr_sides_per_circle = (unsigned int)mapf( radiusSquared,
calc_sides_min_factor, calc_sides_max_factor,
24.0f, 256.0f );
wxASSERT( nr_sides_per_circle >= 24 );
// Normal radius for the circle
radius = filledCircle->GetRadius();
std::vector< SFVEC2F > contournPoints;
contournPoints.clear();
contournPoints.reserve( nr_sides_per_circle + 2 );
int delta = 3600 / nr_sides_per_circle;
for( int ii = 0; ii < 3600; ii += delta )
{
const SFVEC2F rotatedDir = glm::rotate( SFVEC2F( 0.0f, 1.0f ), (float)ii * 2.0f * 3.14f / 3600.0f );
contournPoints.push_back( SFVEC2F( center.x - rotatedDir.y * radius, center.y + rotatedDir.x * radius ) );
}
contournPoints.push_back( contournPoints[0] );
if( contournPoints.size() > 1 )
{
for( unsigned int i = 0; i < ( contournPoints.size() - 1 ); ++i )
{
const SFVEC2F &v0 = contournPoints[i + 0];
const SFVEC2F &v1 = contournPoints[i + 1];
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( v0.x, v0.y, NextFloatUp( layer_z_bot ) ),
SFVEC3F( v1.x, v1.y, NextFloatUp( layer_z_bot ) ),
SFVEC3F( v1.x, v1.y, NextFloatDown( layer_z_top ) ),
SFVEC3F( v0.x, v0.y, NextFloatDown( layer_z_top ) ) );
const SFVEC2F n0 = glm::normalize( v0 - center );
const SFVEC2F n1 = glm::normalize( v1 - center );
const SFVEC3F n0z = SFVEC3F( n0.x, n0.y, 0.0f );
const SFVEC3F n1z = SFVEC3F( n1.x, n1.y, 0.0f );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( n0z, n1z, n1z, n0z );
}
}
contournPoints.clear();
}
break;
case OBJ2D_DUMMYBLOCK:
{
}
break;
case OBJ2D_POLYGON4PT:
{
const CPOLYGON4PTS2D *poly = (const CPOLYGON4PTS2D *)object2d_A;
const SFVEC2F &v0 = poly->GetV0();
const SFVEC2F &v1 = poly->GetV1();
const SFVEC2F &v2 = poly->GetV2();
const SFVEC2F &v3 = poly->GetV3();
add_triangle_top_bot( layerTriangles, v0, v2, v1, layer_z_top, layer_z_bot );
add_triangle_top_bot( layerTriangles, v2, v0, v3, layer_z_top, layer_z_bot );
const SFVEC2F &n0 = poly->GetN0();
const SFVEC2F &n1 = poly->GetN1();
const SFVEC2F &n2 = poly->GetN2();
const SFVEC2F &n3 = poly->GetN3();
const SFVEC3F n3d0 = SFVEC3F(-n0.y, n0.x, 0.0f );
const SFVEC3F n3d1 = SFVEC3F(-n1.y, n1.x, 0.0f );
const SFVEC3F n3d2 = SFVEC3F(-n2.y, n2.x, 0.0f );
const SFVEC3F n3d3 = SFVEC3F(-n3.y, n3.x, 0.0f );
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( v0.x, v0.y, layer_z_bot ),
SFVEC3F( v1.x, v1.y, layer_z_bot ),
SFVEC3F( v1.x, v1.y, layer_z_top ),
SFVEC3F( v0.x, v0.y, layer_z_top ) );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( n3d0, n3d0, n3d0, n3d0 );
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( v2.x, v2.y, layer_z_top ),
SFVEC3F( v1.x, v1.y, layer_z_top ),
SFVEC3F( v1.x, v1.y, layer_z_bot ),
SFVEC3F( v2.x, v2.y, layer_z_bot ) );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( n3d1, n3d1, n3d1, n3d1 );
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( v3.x, v3.y, layer_z_top ),
SFVEC3F( v2.x, v2.y, layer_z_top ),
SFVEC3F( v2.x, v2.y, layer_z_bot ),
SFVEC3F( v3.x, v3.y, layer_z_bot ) );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( n3d2, n3d2, n3d2, n3d2 );
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( v0.x, v0.y, layer_z_top ),
SFVEC3F( v3.x, v3.y, layer_z_top ),
SFVEC3F( v3.x, v3.y, layer_z_bot ),
SFVEC3F( v0.x, v0.y, layer_z_bot ) );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( n3d3, n3d3, n3d3, n3d3 );
}
break;
case OBJ2D_RING:
{
const CRING2D *ring = (const CRING2D *)object2d_A;
const SFVEC2F ¢er = ring->GetCenter();
float inner = ring->GetInnerRadius();
float outer = ring->GetOuterRadius();
unsigned int nr_sides_per_circle = (unsigned int)mapf( outer,
calc_sides_min_factor, calc_sides_max_factor,
24.0f, 256.0f );
wxASSERT( nr_sides_per_circle >= 24 );
std::vector< SFVEC2F > innerContour;
std::vector< SFVEC2F > outerContour;
innerContour.clear();
innerContour.reserve( nr_sides_per_circle + 2 );
outerContour.clear();
outerContour.reserve( nr_sides_per_circle + 2 );
int delta = 3600 / nr_sides_per_circle;
for( int ii = 0; ii < 3600; ii += delta )
{
const SFVEC2F rotatedDir = glm::rotate( SFVEC2F( 0.0f, 1.0f), (float) ii * 2.0f * 3.14f / 3600.0f );
innerContour.push_back( SFVEC2F( center.x - rotatedDir.y * inner, center.y + rotatedDir.x * inner ) );
outerContour.push_back( SFVEC2F( center.x - rotatedDir.y * outer, center.y + rotatedDir.x * outer ) );
}
innerContour.push_back( innerContour[0] );
outerContour.push_back( outerContour[0] );
wxASSERT( innerContour.size() == outerContour.size() );
for( unsigned int i = 0; i < ( innerContour.size() - 1 ); ++i )
{
const SFVEC2F &vi0 = innerContour[i + 0];
const SFVEC2F &vi1 = innerContour[i + 1];
const SFVEC2F &vo0 = outerContour[i + 0];
const SFVEC2F &vo1 = outerContour[i + 1];
layerTriangles->m_layer_top_triangles->AddQuad( SFVEC3F( vi1.x, vi1.y, layer_z_top ),
SFVEC3F( vi0.x, vi0.y, layer_z_top ),
SFVEC3F( vo0.x, vo0.y, layer_z_top ),
SFVEC3F( vo1.x, vo1.y, layer_z_top ) );
layerTriangles->m_layer_bot_triangles->AddQuad( SFVEC3F( vi1.x, vi1.y, layer_z_bot ),
SFVEC3F( vo1.x, vo1.y, layer_z_bot ),
SFVEC3F( vo0.x, vo0.y, layer_z_bot ),
SFVEC3F( vi0.x, vi0.y, layer_z_bot ) );
}
for( unsigned int i = 0; i < ( innerContour.size() - 1 ); ++i )
{
const SFVEC2F &v0 = innerContour[i + 0];
const SFVEC2F &v1 = innerContour[i + 1];
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( v1.x, v1.y, NextFloatUp( layer_z_bot ) ),
SFVEC3F( v0.x, v0.y, NextFloatUp( layer_z_bot ) ),
SFVEC3F( v0.x, v0.y, NextFloatDown( layer_z_top ) ),
SFVEC3F( v1.x, v1.y, NextFloatDown( layer_z_top ) ) );
const SFVEC2F n0 = glm::normalize( v0 - center );
const SFVEC2F n1 = glm::normalize( v1 - center );
const SFVEC3F n0z = SFVEC3F( n0.x, n0.y, 0.0f );
const SFVEC3F n1z = SFVEC3F( n1.x, n1.y, 0.0f );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( n0z, n1z, n1z, n0z );
}
for( unsigned int i = 0; i < ( outerContour.size() - 1 ); ++i )
{
const SFVEC2F &v0 = outerContour[i + 0];
const SFVEC2F &v1 = outerContour[i + 1];
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( v0.x, v0.y, NextFloatUp( layer_z_bot ) ),
SFVEC3F( v1.x, v1.y, NextFloatUp( layer_z_bot ) ),
SFVEC3F( v1.x, v1.y, NextFloatDown( layer_z_top ) ),
SFVEC3F( v0.x, v0.y, NextFloatDown( layer_z_top ) ) );
const SFVEC2F n0 = glm::normalize( v0 - center );
const SFVEC2F n1 = glm::normalize( v1 - center );
const SFVEC3F n0z = SFVEC3F( n0.x, n0.y, 0.0f );
const SFVEC3F n1z = SFVEC3F( n1.x, n1.y, 0.0f );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( n0z, n1z, n1z, n0z );
}
}
break;
case OBJ2D_TRIANGLE:
{
const CTRIANGLE2D *tri = (const CTRIANGLE2D *)object2d_A;
const SFVEC2F &v1 = tri->GetP1();
const SFVEC2F &v2 = tri->GetP2();
const SFVEC2F &v3 = tri->GetP3();
add_triangle_top_bot( layerTriangles, v1, v2, v3, layer_z_top, layer_z_bot );
}
break;
case OBJ2D_ROUNDSEG:
{
const CROUNDSEGMENT2D &roundSeg = (const CROUNDSEGMENT2D &) *object2d_A;
unsigned int nr_sides_per_circle = (unsigned int)mapf( roundSeg.GetWidth(),
calc_sides_min_factor, calc_sides_max_factor,
24.0f, 256.0f );
wxASSERT( nr_sides_per_circle >= 24 );
SFVEC2F leftStart = roundSeg.GetLeftStar();
SFVEC2F leftEnd = roundSeg.GetLeftEnd();
SFVEC2F leftDir = roundSeg.GetLeftDir();
SFVEC2F rightStart = roundSeg.GetRightStar();
SFVEC2F rightEnd = roundSeg.GetRightEnd();
SFVEC2F rightDir = roundSeg.GetRightDir();
float radius = roundSeg.GetRadius();
SFVEC2F start = roundSeg.GetStart();
SFVEC2F end = roundSeg.GetEnd();
float texture_factor = (12.0f/(float)SIZE_OF_CIRCLE_TEXTURE) + 1.0f;
float texture_factorF= ( 4.0f/(float)SIZE_OF_CIRCLE_TEXTURE) + 1.0f;
const float radius_of_the_square = sqrtf( roundSeg.GetRadiusSquared() * 2.0f );
const float radius_triangle_factor = (radius_of_the_square - radius) / radius;
const SFVEC2F factorS = SFVEC2F( -rightDir.y * radius * radius_triangle_factor, rightDir.x * radius * radius_triangle_factor );
const SFVEC2F factorE = SFVEC2F( -leftDir.y * radius * radius_triangle_factor, leftDir.x * radius * radius_triangle_factor );
// Top end segment triangles
layerTriangles->m_layer_top_segment_ends->AddTriangle( SFVEC3F( rightEnd.x + texture_factor * factorS.x, rightEnd.y + texture_factor * factorS.y, layer_z_top ),
SFVEC3F( leftStart.x + texture_factor * factorE.x, leftStart.y + texture_factor * factorE.y, layer_z_top ),
SFVEC3F( start.x - texture_factorF * leftDir.x * radius * sqrtf(2.0f),
start.y - texture_factorF * leftDir.y * radius * sqrtf(2.0f), layer_z_top ) );
layerTriangles->m_layer_top_segment_ends->AddTriangle( SFVEC3F( leftEnd.x + texture_factor * factorE.x, leftEnd.y + texture_factor * factorE.y, layer_z_top ),
SFVEC3F( rightStart.x + texture_factor * factorS.x, rightStart.y + texture_factor * factorS.y, layer_z_top ),
SFVEC3F( end.x - texture_factorF * rightDir.x * radius * sqrtf(2.0f),
end.y - texture_factorF * rightDir.y * radius * sqrtf(2.0f), layer_z_top ) );
// Bot end segment triangles
layerTriangles->m_layer_bot_segment_ends->AddTriangle( SFVEC3F( leftStart.x + texture_factor * factorE.x, leftStart.y + texture_factor * factorE.y, layer_z_bot ),
SFVEC3F( rightEnd.x + texture_factor * factorS.x, rightEnd.y + texture_factor * factorS.y, layer_z_bot ),
SFVEC3F( start.x - texture_factorF * leftDir.x * radius * sqrtf(2.0f),
start.y - texture_factorF * leftDir.y * radius * sqrtf(2.0f), layer_z_bot ) );
layerTriangles->m_layer_bot_segment_ends->AddTriangle( SFVEC3F( rightStart.x + texture_factor * factorS.x, rightStart.y + texture_factor * factorS.y, layer_z_bot ),
SFVEC3F( leftEnd.x + texture_factor * factorE.x, leftEnd.y + texture_factor * factorE.y, layer_z_bot ),
SFVEC3F( end.x - texture_factorF * rightDir.x * radius * sqrtf(2.0f),
end.y - texture_factorF * rightDir.y * radius * sqrtf(2.0f), layer_z_bot ) );
// Segment top and bot planes
layerTriangles->m_layer_top_triangles->AddQuad( SFVEC3F( rightEnd.x, rightEnd.y, layer_z_top ),
SFVEC3F( rightStart.x, rightStart.y, layer_z_top ),
SFVEC3F( leftEnd.x, leftEnd.y, layer_z_top ),
SFVEC3F( leftStart.x, leftStart.y, layer_z_top ) );
layerTriangles->m_layer_bot_triangles->AddQuad( SFVEC3F( rightEnd.x, rightEnd.y, layer_z_bot ),
SFVEC3F( leftStart.x, leftStart.y, layer_z_bot ),
SFVEC3F( leftEnd.x, leftEnd.y, layer_z_bot ),
SFVEC3F( rightStart.x, rightStart.y, layer_z_bot ) );
// Middle contourns (two sides of the segment)
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( leftStart.x, leftStart.y, layer_z_top ),
SFVEC3F( leftEnd.x, leftEnd.y, layer_z_top ),
SFVEC3F( leftEnd.x, leftEnd.y, layer_z_bot ),
SFVEC3F( leftStart.x, leftStart.y, layer_z_bot ) );
const SFVEC3F leftNormal = SFVEC3F( -leftDir.y, leftDir.x, 0.0f );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( leftNormal, leftNormal, leftNormal, leftNormal );
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( rightStart.x, rightStart.y, layer_z_top ),
SFVEC3F( rightEnd.x, rightEnd.y, layer_z_top ),
SFVEC3F( rightEnd.x, rightEnd.y, layer_z_bot ),
SFVEC3F( rightStart.x, rightStart.y, layer_z_bot ) );
const SFVEC3F rightNormal = SFVEC3F( -rightDir.y, rightDir.x, 0.0f );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( rightNormal, rightNormal, rightNormal, rightNormal );
// Compute the outlines of the segment, and creates a polygon
// add right rounded end:
std::vector< SFVEC2F > roundedEndPointsStart;
std::vector< SFVEC2F > roundedEndPointsEnd;
roundedEndPointsStart.clear();
roundedEndPointsStart.reserve( nr_sides_per_circle + 2 );
roundedEndPointsEnd.clear();
roundedEndPointsEnd.reserve( nr_sides_per_circle + 2 );
roundedEndPointsStart.push_back( SFVEC2F( leftStart.x, leftStart.y ) );
roundedEndPointsEnd.push_back( SFVEC2F( leftEnd.x, leftEnd.y ) );
int delta = 3600 / nr_sides_per_circle;
for( int ii = delta; ii < 1800; ii += delta )
{
const SFVEC2F rotatedDirL = glm::rotate( leftDir, (float) ii * 2.0f * 3.14f / 3600.0f );
const SFVEC2F rotatedDirR = glm::rotate( rightDir, (float)(1800 - ii) * 2.0f * 3.14f / 3600.0f );
roundedEndPointsStart.push_back( SFVEC2F( start.x - rotatedDirL.y * radius, start.y + rotatedDirL.x * radius ) );
roundedEndPointsEnd.push_back( SFVEC2F( end.x - rotatedDirR.y * radius, end.y + rotatedDirR.x * radius ) );
}
roundedEndPointsStart.push_back( SFVEC2F( rightEnd.x, rightEnd.y ) );
roundedEndPointsEnd.push_back( SFVEC2F( rightStart.x, rightStart.y ) );
if( roundedEndPointsStart.size() > 1 )
{
for( unsigned int i = 0; i < ( roundedEndPointsStart.size() - 1 ); ++i )
{
const SFVEC2F &v0 = roundedEndPointsStart[i + 0];
const SFVEC2F &v1 = roundedEndPointsStart[i + 1];
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( v0.x, v0.y, layer_z_bot ),
SFVEC3F( v1.x, v1.y, layer_z_bot ),
SFVEC3F( v1.x, v1.y, layer_z_top ),
SFVEC3F( v0.x, v0.y, layer_z_top ) );
const SFVEC2F n0 = glm::normalize( v0 - start );
const SFVEC2F n1 = glm::normalize( v1 - start );
const SFVEC3F n0z = SFVEC3F( n0.x, n0.y, 0.0f );
const SFVEC3F n1z = SFVEC3F( n1.x, n1.y, 0.0f );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( n0z, n1z, n1z, n0z );
}
}
roundedEndPointsStart.clear();
if( roundedEndPointsEnd.size() > 1 )
{
for( unsigned int i = 0; i < ( roundedEndPointsEnd.size() - 1 ); ++i )
{
const SFVEC2F &v0 = roundedEndPointsEnd[i + 0];
const SFVEC2F &v1 = roundedEndPointsEnd[i + 1];
layerTriangles->m_layer_middle_contourns_quads->AddQuad( SFVEC3F( v0.x, v0.y, layer_z_top ),
SFVEC3F( v1.x, v1.y, layer_z_top ),
SFVEC3F( v1.x, v1.y, layer_z_bot ),
SFVEC3F( v0.x, v0.y, layer_z_bot ) );
const SFVEC2F n0 = glm::normalize( v0 - end );
const SFVEC2F n1 = glm::normalize( v1 - end );
const SFVEC3F n0z = SFVEC3F( n0.x, n0.y, 0.0f );
const SFVEC3F n1z = SFVEC3F( n1.x, n1.y, 0.0f );
layerTriangles->m_layer_middle_contourns_quads->AddNormal( n0z, n1z, n1z, n0z );
}
}
roundedEndPointsEnd.clear();
}
break;
default:
{
}
break;
}
#if 0
// not yet used / implemented (can be used in future to clip the objects in the board borders
COBJECT2D *object2d_C = CSGITEM_FULL;
std::vector<const COBJECT2D *> *object2d_B = CSGITEM_EMPTY;
if( m_settings.GetFlag( FL_RENDER_SHOW_HOLES_IN_ZONES ) )
{
object2d_B = new std::vector<const COBJECT2D *>();
// Check if there are any layerhole that intersects this object
// Eg: a segment is cutted by a via hole or THT hole.
// /////////////////////////////////////////////////////////////
const MAP_CONTAINER_2D &layerHolesMap = m_settings.GetMapLayersHoles();
if( layerHolesMap.find(layer_id) != layerHolesMap.end() )
{
MAP_CONTAINER_2D::const_iterator ii_hole = layerHolesMap.find(layer_id);
const CBVHCONTAINER2D *containerLayerHoles2d = static_cast<const CBVHCONTAINER2D *>(ii_hole->second);
CONST_LIST_OBJECT2D intersectionList;
containerLayerHoles2d->GetListObjectsIntersects( object2d_A->GetBBox(), intersectionList );
if( !intersectionList.empty() )
{
for( CONST_LIST_OBJECT2D::const_iterator holeOnLayer = intersectionList.begin();
holeOnLayer != intersectionList.end();
holeOnLayer++ )
{
const COBJECT2D *hole2d = static_cast<const COBJECT2D *>(*holeOnLayer);
//if( object2d_A->Intersects( hole2d->GetBBox() ) )
//if( object2d_A->GetBBox().Intersects( hole2d->GetBBox() ) )
object2d_B->push_back( hole2d );
}
}
}
// Check if there are any THT that intersects this object
// /////////////////////////////////////////////////////////////
if( !m_settings.GetThroughHole_Inflated().GetList().empty() )
{
CONST_LIST_OBJECT2D intersectionList;
m_settings.GetThroughHole_Inflated().GetListObjectsIntersects( object2d_A->GetBBox(), intersectionList );
if( !intersectionList.empty() )
{
for( CONST_LIST_OBJECT2D::const_iterator hole = intersectionList.begin();
hole != intersectionList.end();
hole++ )
{
const COBJECT2D *hole2d = static_cast<const COBJECT2D *>(*hole);
//if( object2d_A->Intersects( hole2d->GetBBox() ) )
//if( object2d_A->GetBBox().Intersects( hole2d->GetBBox() ) )
object2d_B->push_back( hole2d );
}
}
}
if( object2d_B->empty() )
{
delete object2d_B;
object2d_B = CSGITEM_EMPTY;
}
}
if( (object2d_B == CSGITEM_EMPTY) &&
(object2d_C == CSGITEM_FULL) )
{
#if 0
create_3d_object_from( m_object_container, object2d_A, m_settings.GetLayerBottomZpos3DU( layer_id ),
m_settings.GetLayerTopZpos3DU( layer_id ),
materialLayer,
layerColor );
#else
CLAYERITEM *objPtr = new CLAYERITEM( object2d_A, m_settings.GetLayerBottomZpos3DU( layer_id ),
m_settings.GetLayerTopZpos3DU( layer_id ) );
objPtr->SetMaterial( materialLayer );
objPtr->SetColor( layerColor );
m_object_container.Add( objPtr );
#endif
}
else
{
#if 1
CITEMLAYERCSG2D *itemCSG2d = new CITEMLAYERCSG2D( object2d_A, object2d_B, object2d_C,
object2d_A->GetBoardItem() );
m_containerWithObjectsToDelete.Add( itemCSG2d );
CLAYERITEM *objPtr = new CLAYERITEM( itemCSG2d, m_settings.GetLayerBottomZpos3DU( layer_id ),
m_settings.GetLayerTopZpos3DU( layer_id ) );
objPtr->SetMaterial( materialLayer );
objPtr->SetColor( layerColor );
m_object_container.Add( objPtr );
#endif
}
#endif
}
// Create display list
// /////////////////////////////////////////////////////////////////////
m_ogl_disp_lists_layers[layer_id] = new CLAYERS_OGL_DISP_LISTS( *layerTriangles,
m_ogl_circle_texture,
layerColor );
}// for each layer on map
}
void EDA_3D_CANVAS::buildBoardThroughHolesPolygonList( SHAPE_POLY_SET& allBoardHoles,
int aSegCountPerCircle, bool aOptimizeLargeCircles )
{
// hole diameter value to change seg count by circle:
int small_hole_limit = Millimeter2iu( 1.0 );
int copper_thickness = GetPrm3DVisu().GetCopperThicknessBIU();
BOARD* pcb = GetBoard();
// Build holes of through vias:
for( TRACK* track = pcb->m_Track; track; track = track->Next() )
{
if( track->Type() != PCB_VIA_T )
continue;
VIA *via = static_cast<VIA*>( track );
if( via->GetViaType() != VIA_THROUGH )
continue;
int holediameter = via->GetDrillValue();
int hole_outer_radius = (holediameter + copper_thickness) / 2;
TransformCircleToPolygon( allBoardHoles,
via->GetStart(), hole_outer_radius,
aSegCountPerCircle );
}
// Build holes of through pads:
for( MODULE* footprint = pcb->m_Modules; footprint; footprint = footprint->Next() )
{
for( D_PAD* pad = footprint->Pads(); pad; pad = pad->Next() )
{
// Calculate a factor to apply to segcount for large holes ( > 1 mm)
// (bigger pad drill size -> more segments) because holes in pads can have
// very different sizes and optimizing this segcount gives a better look
// Mainly mounting holes have a size bigger than small_hole_limit
wxSize padHole = pad->GetDrillSize();
if( ! padHole.x ) // Not drilled pad like SMD pad
continue;
// we use the hole diameter to calculate the seg count.
// for round holes, padHole.x == padHole.y
// for oblong holes, the diameter is the smaller of (padHole.x, padHole.y)
int diam = std::min( padHole.x, padHole.y );
int segcount = aSegCountPerCircle;
if( diam > small_hole_limit )
{
double segFactor = (double)diam / small_hole_limit;
segcount = (int)(aSegCountPerCircle * segFactor);
// limit segcount to 48. For a circle this is a very good approx.
if( segcount > 48 )
segcount = 48;
}
// The hole in the body is inflated by copper thickness.
int inflate = copper_thickness;
// If not plated, no copper.
if( pad->GetAttribute () == PAD_ATTRIB_HOLE_NOT_PLATED )
inflate = 0;
pad->BuildPadDrillShapePolygon( allBoardHoles, inflate, segcount );
}
}
allBoardHoles.Simplify( polygonsCalcMode );
}
void EDA_3D_CANVAS::buildTechLayers3DView( REPORTER* aErrorMessages, REPORTER* aActivity )
{
BOARD* pcb = GetBoard();
bool useTextures = isRealisticMode() && isEnabled( FL_RENDER_TEXTURES );
// Number of segments to draw a circle using segments
const int segcountforcircle = 18;
double correctionFactor = 1.0 / cos( M_PI / (segcountforcircle * 2) );
const int segcountLowQuality = 12; // segments to draw a circle with low quality
// to reduce time calculations
// for holes and items which do not need
// a fine representation
double correctionFactorLQ = 1.0 / cos( M_PI / (segcountLowQuality * 2) );
// segments to draw a circle to build texts. Is is used only to build
// the shape of each segment of the stroke font, therefore no need to have
// many segments per circle.
const int segcountInStrokeFont = 8;
SHAPE_POLY_SET bufferPolys;
SHAPE_POLY_SET allLayerHoles; // Contains through holes, calculated only once
SHAPE_POLY_SET bufferPcbOutlines; // stores the board main outlines
// Build a polygon from edge cut items
wxString msg;
if( !pcb->GetBoardPolygonOutlines( bufferPcbOutlines, allLayerHoles, &msg ) )
{
if( aErrorMessages )
{
msg << wxT("\n") <<
_("Unable to calculate the board outlines.\n"
"Therefore use the board boundary box.") << wxT("\n\n");
aErrorMessages->Report( msg, REPORTER::RPT_WARNING );
}
}
// Build board holes, with no optimization of large holes shape.
buildBoardThroughHolesPolygonList( allLayerHoles, segcountLowQuality, false );
// draw graphic items, on technical layers
static const LAYER_ID teckLayerList[] = {
B_Adhes,
F_Adhes,
B_Paste,
F_Paste,
B_SilkS,
F_SilkS,
B_Mask,
F_Mask,
};
// User layers are not drawn here, only technical layers
for( LSEQ seq = LSET::AllTechMask().Seq( teckLayerList, DIM( teckLayerList ) ); seq; ++seq )
{
LAYER_ID layer = *seq;
if( !is3DLayerEnabled( layer ) )
continue;
if( layer == Edge_Cuts && isEnabled( FL_SHOW_BOARD_BODY ) )
continue;
if( aActivity )
aActivity->Report( wxString::Format( _( "Build layer %s" ), LSET::Name( layer ) ) );
bufferPolys.RemoveAllContours();
for( BOARD_ITEM* item = pcb->m_Drawings; item; item = item->Next() )
{
if( !item->IsOnLayer( layer ) )
continue;
switch( item->Type() )
{
case PCB_LINE_T:
( (DRAWSEGMENT*) item )->TransformShapeWithClearanceToPolygon(
bufferPolys, 0, segcountforcircle, correctionFactor );
break;
case PCB_TEXT_T:
( (TEXTE_PCB*) item )->TransformShapeWithClearanceToPolygonSet(
bufferPolys, 0, segcountLowQuality, 1.0 );
break;
default:
break;
}
}
for( MODULE* module = pcb->m_Modules; module; module = module->Next() )
{
if( layer == F_SilkS || layer == B_SilkS )
{
// On silk screen layers, the pad shape is only the pad outline
// never a filled shape
D_PAD* pad = module->Pads();
int linewidth = g_DrawDefaultLineThickness;
for( ; pad; pad = pad->Next() )
{
if( !pad->IsOnLayer( layer ) )
continue;
buildPadShapeThickOutlineAsPolygon( pad, bufferPolys,
linewidth, segcountforcircle, correctionFactor );
}
}
else
module->TransformPadsShapesWithClearanceToPolygon( layer,
bufferPolys, 0, segcountforcircle, correctionFactor );
// On tech layers, use a poor circle approximation, only for texts (stroke font)
module->TransformGraphicShapesWithClearanceToPolygonSet( layer,
bufferPolys, 0, segcountforcircle, correctionFactor, segcountInStrokeFont );
}
// Draw non copper zones
if( isEnabled( FL_ZONE ) )
{
for( int ii = 0; ii < pcb->GetAreaCount(); ii++ )
{
ZONE_CONTAINER* zone = pcb->GetArea( ii );
if( !zone->IsOnLayer( layer ) )
continue;
zone->TransformSolidAreasShapesToPolygonSet(
bufferPolys, segcountLowQuality, correctionFactorLQ );
}
}
// bufferPolys contains polygons to merge. Many overlaps .
// Calculate merged polygons and remove pads and vias holes
if( layer != B_Mask && layer != F_Mask && bufferPolys.IsEmpty() )
// if a layer has no item to draw, skip it
// However solder mask layers are negative layers, so no item
// means only a full layer mask
continue;
// Solder mask layers are "negative" layers.
// Shapes should be removed from the full board area.
if( layer == B_Mask || layer == F_Mask )
{
SHAPE_POLY_SET cuts = bufferPolys;
bufferPolys = bufferPcbOutlines;
cuts.Append(allLayerHoles);
cuts.Simplify( polygonsCalcMode );
bufferPolys.BooleanSubtract( cuts, polygonsCalcMode );
}
// Remove holes from Solder paste layers and silkscreen
else if( layer == B_Paste || layer == F_Paste
|| layer == B_SilkS || layer == F_SilkS )
{
bufferPolys.BooleanSubtract( allLayerHoles, polygonsCalcMode );
}
int thickness = 0;
if( layer != B_Mask && layer != F_Mask )
thickness = GetPrm3DVisu().GetLayerObjectThicknessBIU( layer );
int zpos = GetPrm3DVisu().GetLayerZcoordBIU( layer );
if( layer == Edge_Cuts )
{
thickness = GetPrm3DVisu().GetLayerZcoordBIU( F_Cu )
- GetPrm3DVisu().GetLayerZcoordBIU( B_Cu );
zpos = GetPrm3DVisu().GetLayerZcoordBIU( B_Cu )
+ (thickness / 2);
}
else
{
// for Draw3D_SolidHorizontalPolyPolygons, zpos it the middle between bottom and top
// sides.
// However for top layers, zpos should be the bottom layer pos,
// and for bottom layers, zpos should be the top layer pos.
if( Get3DLayer_Z_Orientation( layer ) > 0 )
zpos += thickness/2;
else
zpos -= thickness/2 ;
}
float zNormal = 1.0f; // When using thickness it will draw first the top and then botton (with z inverted)
// If we are not using thickness, then the znormal must face the layer direction
// because it will draw just one plane
if( !thickness )
zNormal = Get3DLayer_Z_Orientation( layer );
setGLTechLayersColor( layer );
Draw3D_SolidHorizontalPolyPolygons( bufferPolys, zpos,
thickness, GetPrm3DVisu().m_BiuTo3Dunits, useTextures,
zNormal );
}
}
/* Plot outlines of copper, for copper layer
*/
void PlotLayerOutlines( BOARD* aBoard, PLOTTER* aPlotter,
LSET aLayerMask, const PCB_PLOT_PARAMS& aPlotOpt )
{
BRDITEMS_PLOTTER itemplotter( aPlotter, aBoard, aPlotOpt );
itemplotter.SetLayerSet( aLayerMask );
SHAPE_POLY_SET outlines;
for( LSEQ seq = aLayerMask.Seq( plot_seq, DIM( plot_seq ) ); seq; ++seq )
{
LAYER_ID layer = *seq;
outlines.RemoveAllContours();
aBoard->ConvertBrdLayerToPolygonalContours( layer, outlines );
outlines.Simplify();
// Plot outlines
std::vector< wxPoint > cornerList;
// Now we have one or more basic polygons: plot each polygon
for( int ii = 0; ii < outlines.OutlineCount(); ii++ )
{
for(int kk = 0; kk <= outlines.HoleCount (ii); kk++ )
{
cornerList.clear();
const SHAPE_LINE_CHAIN& path = (kk == 0) ? outlines.COutline( ii ) : outlines.CHole( ii, kk - 1 );
for( int jj = 0; jj < path.PointCount(); jj++ )
cornerList.push_back( wxPoint( path.CPoint( jj ).x , path.CPoint( jj ).y ) );
// Ensure the polygon is closed
if( cornerList[0] != cornerList[cornerList.size() - 1] )
cornerList.push_back( cornerList[0] );
aPlotter->PlotPoly( cornerList, NO_FILL );
}
}
// Plot pad holes
if( aPlotOpt.GetDrillMarksType() != PCB_PLOT_PARAMS::NO_DRILL_SHAPE )
{
for( MODULE* module = aBoard->m_Modules; module; module = module->Next() )
{
for( D_PAD* pad = module->Pads(); pad; pad = pad->Next() )
{
wxSize hole = pad->GetDrillSize();
if( hole.x == 0 || hole.y == 0 )
continue;
if( hole.x == hole.y )
aPlotter->Circle( pad->GetPosition(), hole.x, NO_FILL );
else
{
wxPoint drl_start, drl_end;
int width;
pad->GetOblongDrillGeometry( drl_start, drl_end, width );
aPlotter->ThickSegment( pad->GetPosition() + drl_start,
pad->GetPosition() + drl_end, width, SKETCH );
}
}
}
}
// Plot vias holes
for( TRACK* track = aBoard->m_Track; track; track = track->Next() )
{
const VIA* via = dyn_cast<const VIA*>( track );
if( via && via->IsOnLayer( layer ) ) // via holes can be not through holes
{
aPlotter->Circle( via->GetPosition(), via->GetDrillValue(), NO_FILL );
}
}
}
}
