bool SHAPE_LINE_CHAIN::PointInside( const VECTOR2I& aPt, int aAccuracy ) const
{
BOX2I bbox = BBox();
bbox.Inflate( aAccuracy );
if( !m_closed || PointCount() < 3 || !BBox().Contains( aPt ) )
return false;
bool inside = false;
/**
* To check for interior points, we draw a line in the positive x direction from
* the point. If it intersects an even number of segments, the point is outside the
* line chain (it had to first enter and then exit). Otherwise, it is inside the chain.
*
* Note: slope might be denormal here in the case of a horizontal line but we require our
* y to move from above to below the point (or vice versa)
*/
for( int i = 0; i < PointCount(); i++ )
{
const auto p1 = CPoint( i );
const auto p2 = CPoint( i + 1 ); // CPoint wraps, so ignore counts
const auto diff = p2 - p1;
if( diff.y != 0 )
{
const int d = rescale( diff.x, ( aPt.y - p1.y ), diff.y );
if( ( ( p1.y > aPt.y ) != ( p2.y > aPt.y ) ) && ( aPt.x - p1.x < d ) )
inside = !inside;
}
}
return inside && !PointOnEdge( aPt, aAccuracy );
}
void DIALOG_PAD_PROPERTIES::redraw()
{
if( m_parent->IsGalCanvasActive() )
{
m_dummyPad->ViewUpdate();
BOX2I bbox = m_dummyPad->ViewBBox();
if( bbox.GetSize().x > 0 && bbox.GetSize().y > 0 )
{
// gives a size to the full drawable area
BOX2I drawbox;
drawbox.Move( m_dummyPad->GetPosition() );
drawbox.Inflate( bbox.GetSize().x*2, bbox.GetSize().y*2 );
m_panelShowPadGal->GetView()->SetBoundary( drawbox );
// Autozoom
m_panelShowPadGal->GetView()->SetViewport( BOX2D( bbox.GetOrigin(), bbox.GetSize() ) );
// Add a margin
m_panelShowPadGal->GetView()->SetScale( m_panelShowPadGal->GetView()->GetScale() * 0.7 );
m_panelShowPadGal->Refresh();
}
}
else
{
m_panelShowPad->Refresh();
}
}
const BOX2I SHAPE_ARC::BBox( int aClearance ) const
{
BOX2I bbox;
std::vector<VECTOR2I> points;
points.push_back( m_pc );
points.push_back( m_p0 );
points.push_back( GetP1() );
bbox.Compute( points );
if( aClearance != 0 )
bbox.Inflate( aClearance );
return bbox;
}
const BOX2I SHAPE_POLY_SET::BBox( int aClearance ) const
{
BOX2I bb;
for( unsigned i = 0; i < m_polys.size(); i++ )
{
if( i == 0 )
bb = m_polys[i][0].BBox();
else
bb.Merge( m_polys[i][0].BBox() );
}
bb.Inflate( aClearance );
return bb;
}
bool GERBVIEW_SELECTION_TOOL::selectionContains( const VECTOR2I& aPoint ) const
{
const unsigned GRIP_MARGIN = 20;
VECTOR2D margin = getView()->ToWorld( VECTOR2D( GRIP_MARGIN, GRIP_MARGIN ), false );
// Check if the point is located within any of the currently selected items bounding boxes
for( auto item : m_selection )
{
BOX2I itemBox = item->ViewBBox();
itemBox.Inflate( margin.x, margin.y ); // Give some margin for gripping an item
if( itemBox.Contains( aPoint ) )
return true;
}
return false;
}
bool SELECTION_TOOL::selectionContains( const VECTOR2I& aPoint ) const
{
const unsigned GRIP_MARGIN = 20;
VECTOR2D margin = getView()->ToWorld( VECTOR2D( GRIP_MARGIN, GRIP_MARGIN ), false );
// Check if the point is located within any of the currently selected items bounding boxes
for( unsigned int i = 0; i < m_selection.items.GetCount(); ++i )
{
BOARD_ITEM* item = m_selection.Item<BOARD_ITEM>( i );
BOX2I itemBox = item->ViewBBox();
itemBox.Inflate( margin.x, margin.y ); // Give some margin for gripping an item
if( itemBox.Contains( aPoint ) )
return true;
}
return false;
}
const BOX2I ROUTER_PREVIEW_ITEM::ViewBBox() const
{
BOX2I bbox;
switch( m_type )
{
case PR_SHAPE:
bbox = m_shape->BBox();
bbox.Inflate( m_width / 2 );
return bbox;
case PR_POINT:
bbox = BOX2I ( m_pos - VECTOR2I( 100000, 100000 ), VECTOR2I( 200000, 200000 ) );
return bbox;
default:
break;
}
return bbox;
}
void ZONE_FILLER::buildUnconnectedThermalStubsPolygonList( SHAPE_POLY_SET& aCornerBuffer,
const ZONE_CONTAINER* aZone,
const SHAPE_POLY_SET& aRawFilledArea,
double aArcCorrection,
double aRoundPadThermalRotation ) const
{
SHAPE_LINE_CHAIN spokes;
BOX2I itemBB;
VECTOR2I ptTest[4];
auto zoneBB = aRawFilledArea.BBox();
int zone_clearance = aZone->GetZoneClearance();
int biggest_clearance = m_board->GetDesignSettings().GetBiggestClearanceValue();
biggest_clearance = std::max( biggest_clearance, zone_clearance );
zoneBB.Inflate( biggest_clearance );
// half size of the pen used to draw/plot zones outlines
int pen_radius = aZone->GetMinThickness() / 2;
for( auto module : m_board->Modules() )
{
for( auto pad : module->Pads() )
{
// Rejects non-standard pads with tht-only thermal reliefs
if( aZone->GetPadConnection( pad ) == PAD_ZONE_CONN_THT_THERMAL
&& pad->GetAttribute() != PAD_ATTRIB_STANDARD )
continue;
if( aZone->GetPadConnection( pad ) != PAD_ZONE_CONN_THERMAL
&& aZone->GetPadConnection( pad ) != PAD_ZONE_CONN_THT_THERMAL )
continue;
if( !pad->IsOnLayer( aZone->GetLayer() ) )
continue;
if( pad->GetNetCode() != aZone->GetNetCode() )
continue;
// Calculate thermal bridge half width
int thermalBridgeWidth = aZone->GetThermalReliefCopperBridge( pad )
- aZone->GetMinThickness();
if( thermalBridgeWidth <= 0 )
continue;
// we need the thermal bridge half width
// with a small extra size to be sure we create a stub
// slightly larger than the actual stub
thermalBridgeWidth = ( thermalBridgeWidth + 4 ) / 2;
int thermalReliefGap = aZone->GetThermalReliefGap( pad );
itemBB = pad->GetBoundingBox();
itemBB.Inflate( thermalReliefGap );
if( !( itemBB.Intersects( zoneBB ) ) )
continue;
// Thermal bridges are like a segment from a starting point inside the pad
// to an ending point outside the pad
// calculate the ending point of the thermal pad, outside the pad
VECTOR2I endpoint;
endpoint.x = ( pad->GetSize().x / 2 ) + thermalReliefGap;
endpoint.y = ( pad->GetSize().y / 2 ) + thermalReliefGap;
// Calculate the starting point of the thermal stub
// inside the pad
VECTOR2I startpoint;
int copperThickness = aZone->GetThermalReliefCopperBridge( pad )
- aZone->GetMinThickness();
if( copperThickness < 0 )
copperThickness = 0;
// Leave a small extra size to the copper area inside to pad
copperThickness += KiROUND( IU_PER_MM * 0.04 );
startpoint.x = std::min( pad->GetSize().x, copperThickness );
startpoint.y = std::min( pad->GetSize().y, copperThickness );
startpoint.x /= 2;
startpoint.y /= 2;
// This is a CIRCLE pad tweak
// for circle pads, the thermal stubs orientation is 45 deg
double fAngle = pad->GetOrientation();
if( pad->GetShape() == PAD_SHAPE_CIRCLE )
{
endpoint.x = KiROUND( endpoint.x * aArcCorrection );
endpoint.y = endpoint.x;
fAngle = aRoundPadThermalRotation;
}
// contour line width has to be taken into calculation to avoid "thermal stub bleed"
endpoint.x += pen_radius;
endpoint.y += pen_radius;
// compute north, south, west and east points for zone connection.
ptTest[0] = VECTOR2I( 0, endpoint.y ); // lower point
ptTest[1] = VECTOR2I( 0, -endpoint.y ); // upper point
ptTest[2] = VECTOR2I( endpoint.x, 0 ); // right point
ptTest[3] = VECTOR2I( -endpoint.x, 0 ); // left point
// Test all sides
for( int i = 0; i < 4; i++ )
{
// rotate point
RotatePoint( ptTest[i], fAngle );
// translate point
ptTest[i] += pad->ShapePos();
if( aRawFilledArea.Contains( ptTest[i] ) )
continue;
spokes.Clear();
// polygons are rectangles with width of copper bridge value
switch( i )
{
case 0: // lower stub
spokes.Append( -thermalBridgeWidth, endpoint.y );
spokes.Append( +thermalBridgeWidth, endpoint.y );
spokes.Append( +thermalBridgeWidth, startpoint.y );
spokes.Append( -thermalBridgeWidth, startpoint.y );
break;
case 1: // upper stub
spokes.Append( -thermalBridgeWidth, -endpoint.y );
spokes.Append( +thermalBridgeWidth, -endpoint.y );
spokes.Append( +thermalBridgeWidth, -startpoint.y );
spokes.Append( -thermalBridgeWidth, -startpoint.y );
break;
case 2: // right stub
spokes.Append( endpoint.x, -thermalBridgeWidth );
spokes.Append( endpoint.x, thermalBridgeWidth );
spokes.Append( +startpoint.x, thermalBridgeWidth );
spokes.Append( +startpoint.x, -thermalBridgeWidth );
break;
case 3: // left stub
spokes.Append( -endpoint.x, -thermalBridgeWidth );
spokes.Append( -endpoint.x, thermalBridgeWidth );
spokes.Append( -startpoint.x, thermalBridgeWidth );
spokes.Append( -startpoint.x, -thermalBridgeWidth );
break;
}
aCornerBuffer.NewOutline();
// add computed polygon to list
for( int ic = 0; ic < spokes.PointCount(); ic++ )
{
auto cpos = spokes.CPoint( ic );
RotatePoint( cpos, fAngle ); // Rotate according to module orientation
cpos += pad->ShapePos(); // Shift origin to position
aCornerBuffer.Append( cpos );
}
}
}
}
}
OPT_BOX2I PNS_LINE::ChangedArea( const PNS_LINE* aOther ) const
{
BOX2I area;
bool areaDefined = false;
int i_start = -1;
int i_end_self = -1, i_end_other = -1;
SHAPE_LINE_CHAIN self( m_line );
self.Simplify();
SHAPE_LINE_CHAIN other( aOther->m_line );
other.Simplify();
int np_self = self.PointCount();
int np_other = other.PointCount();
int n = std::min( np_self, np_other );
for( int i = 0; i < n; i++ )
{
const VECTOR2I p1 = self.CPoint( i );
const VECTOR2I p2 = other.CPoint( i );
if( p1 != p2 )
{
if( i != n - 1 )
{
SEG s = self.CSegment( i );
if( !s.Contains( p2 ) )
{
i_start = i;
break;
}
} else {
i_start = i;
break;
}
}
}
for( int i = 0; i < n; i++ )
{
const VECTOR2I p1 = self.CPoint( np_self - 1 - i );
const VECTOR2I p2 = other.CPoint( np_other - 1 - i );
if( p1 != p2 )
{
i_end_self = np_self - 1 - i;
i_end_other = np_other - 1 - i;
break;
}
}
if( i_start < 0 )
i_start = n;
if( i_end_self < 0 )
i_end_self = np_self - 1;
if( i_end_other < 0 )
i_end_other = np_other - 1;
for( int i = i_start; i <= i_end_self; i++ )
extendBox( area, areaDefined, self.CPoint( i ) );
for( int i = i_start; i <= i_end_other; i++ )
extendBox( area, areaDefined, other.CPoint( i ) );
if( areaDefined )
{
area.Inflate( std::max( Width(), aOther->Width() ) );
return area;
}
return OPT_BOX2I();
}
