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kicad/pcbnew/generators/pcb_tuning_pattern.cpp

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/*
* This program source code file is part of KiCad, a free EDA CAD application.
*
* Copyright (C) 2023 Alex Shvartzkop <dudesuchamazing@gmail.com>
* Copyright (C) 2023 KiCad Developers, see AUTHORS.txt for contributors.
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License
* as published by the Free Software Foundation; either version 2
* of the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, you may find one here:
* http://www.gnu.org/licenses/old-licenses/gpl-2.0.html
* or you may search the http://www.gnu.org website for the version 2 license,
* or you may write to the Free Software Foundation, Inc.,
* 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA
*/
#include <pcb_generator.h>
#include <generators_mgr.h>
#include <optional>
#include <magic_enum.hpp>
#include <wx/debug.h>
#include <gal/graphics_abstraction_layer.h>
#include <geometry/shape_circle.h>
#include <kiplatform/ui.h>
#include <dialogs/dialog_unit_entry.h>
#include <collectors.h>
#include <scoped_set_reset.h>
#include <board_design_settings.h>
#include <drc/drc_engine.h>
#include <pcb_track.h>
#include <pcb_shape.h>
#include <pcb_group.h>
#include <tool/edit_points.h>
#include <tools/drawing_tool.h>
#include <tools/generator_tool.h>
#include <tools/pcb_picker_tool.h>
#include <tools/pcb_selection_tool.h>
#include <tools/zone_filler_tool.h>
#include <preview_items/draw_context.h>
#include <preview_items/preview_utils.h>
#include <view/view.h>
#include <router/pns_dp_meander_placer.h>
#include <router/pns_meander_placer_base.h>
#include <router/pns_meander.h>
#include <router/pns_kicad_iface.h>
#include <router/pns_segment.h>
#include <router/pns_arc.h>
#include <router/pns_solid.h>
#include <router/pns_topology.h>
#include <router/router_preview_item.h>
#include <dialogs/dialog_tuning_pattern_properties.h>
enum LENGTH_TUNING_MODE
{
SINGLE,
DIFF_PAIR,
DIFF_PAIR_SKEW
};
class TUNING_STATUS_VIEW_ITEM : public EDA_ITEM
{
public:
TUNING_STATUS_VIEW_ITEM( PCB_BASE_EDIT_FRAME* aFrame ) :
EDA_ITEM( NOT_USED ), // Never added to anything - just a preview
m_frame( aFrame ),
m_min( 0.0 ),
m_max( 0.0 ),
m_current( 0.0 )
{ }
wxString GetClass() const override { return wxT( "TUNING_STATUS" ); }
#if defined(DEBUG)
void Show( int nestLevel, std::ostream& os ) const override {}
#endif
VECTOR2I GetPosition() const override { return m_pos; }
void SetPosition( const VECTOR2I& aPos ) override { m_pos = aPos; };
void SetMinMax( double aMin, double aMax )
{
m_min = aMin;
m_minText = m_frame->MessageTextFromValue( m_min, false );
m_max = aMax;
m_maxText = m_frame->MessageTextFromValue( m_max, false );
}
void ClearMinMax()
{
m_min = 0.0;
m_minText = wxT( "---" );
m_max = std::numeric_limits<double>::max();
m_maxText = wxT( "---" );
}
void SetCurrent( double aCurrent, const wxString& aLabel )
{
m_current = aCurrent;
m_currentText = m_frame->MessageTextFromValue( aCurrent );
m_currentLabel = aLabel;
}
const BOX2I ViewBBox() const override
{
BOX2I tmp;
// this is an edit-time artefact; no reason to try and be smart with the bounding box
// (besides, we can't tell the text extents without a view to know what the scale is)
tmp.SetMaximum();
return tmp;
}
void ViewGetLayers( int aLayers[], int& aCount ) const override
{
aLayers[0] = LAYER_SELECT_OVERLAY;
aLayers[1] = LAYER_GP_OVERLAY;
aCount = 2;
}
void ViewDraw( int aLayer, KIGFX::VIEW* aView ) const override
{
KIGFX::GAL* gal = aView->GetGAL();
bool viewFlipped = gal->IsFlippedX();
bool drawingDropShadows = ( aLayer == LAYER_GP_OVERLAY );
gal->PushDepth();
gal->SetLayerDepth( gal->GetMinDepth() );
KIGFX::PREVIEW::TEXT_DIMS headerDims = KIGFX::PREVIEW::GetConstantGlyphHeight( gal, -3 );
KIGFX::PREVIEW::TEXT_DIMS textDims = KIGFX::PREVIEW::GetConstantGlyphHeight( gal, -2 );
KIFONT::FONT* font = KIFONT::FONT::GetFont();
const KIFONT::METRICS& fontMetrics = KIFONT::METRICS::Default();
TEXT_ATTRIBUTES textAttrs;
int glyphWidth = textDims.GlyphSize.x;
VECTOR2I margin( KiROUND( glyphWidth * 0.4 ), KiROUND( glyphWidth * 0.9 ) );
VECTOR2I size( glyphWidth * 25 + margin.x * 2, headerDims.GlyphSize.y + textDims.GlyphSize.y );
VECTOR2I offset( margin.x * 2, -( size.y + margin.y * 2 ) );
if( drawingDropShadows )
{
gal->SetIsFill( true );
gal->SetIsStroke( true );
gal->SetLineWidth( 1 );
gal->SetStrokeColor( wxSystemSettings::GetColour( wxSYS_COLOUR_BTNTEXT ) );
gal->SetFillColor( wxSystemSettings::GetColour( wxSYS_COLOUR_BTNFACE ) );
gal->DrawRectangle( GetPosition() + offset - margin,
GetPosition() + offset + size + margin );
gal->PopDepth();
return;
}
COLOR4D bg = wxSystemSettings::GetColour( wxSYS_COLOUR_BTNFACE );
COLOR4D normal = wxSystemSettings::GetColour( wxSYS_COLOUR_BTNTEXT );
COLOR4D red;
// Choose a red with reasonable contrasting with the background
double bg_h, bg_s, bg_l;
bg.ToHSL( bg_h, bg_s, bg_l );
red.FromHSL( 0, 1.0, bg_l < 0.5 ? 0.7 : 0.3 );
if( viewFlipped )
textAttrs.m_Halign = GR_TEXT_H_ALIGN_RIGHT;
else
textAttrs.m_Halign = GR_TEXT_H_ALIGN_LEFT;
gal->SetIsFill( false );
gal->SetIsStroke( true );
gal->SetStrokeColor( normal );
textAttrs.m_Halign = GR_TEXT_H_ALIGN_LEFT;
// Prevent text flipping when view is flipped
if( gal->IsFlippedX() )
{
textAttrs.m_Mirrored = true;
textAttrs.m_Halign = GR_TEXT_H_ALIGN_RIGHT;
}
textAttrs.m_Size = headerDims.GlyphSize;
textAttrs.m_StrokeWidth = headerDims.StrokeWidth;
VECTOR2I textPos = GetPosition() + offset;
font->Draw( gal, m_currentLabel, textPos, textAttrs, KIFONT::METRICS::Default() );
textPos.x += glyphWidth * 11 + margin.x;
font->Draw( gal, _( "min" ), textPos, textAttrs, fontMetrics );
textPos.x += glyphWidth * 7 + margin.x;
font->Draw( gal, _( "max" ), textPos, textAttrs, fontMetrics );
textAttrs.m_Size = textDims.GlyphSize;
textAttrs.m_StrokeWidth = textDims.StrokeWidth;
textPos = GetPosition() + offset;
textPos.y += KiROUND( headerDims.LinePitch * 1.3 );
font->Draw( gal, m_currentText, textPos, textAttrs, KIFONT::METRICS::Default() );
textPos.x += glyphWidth * 11 + margin.x;
gal->SetStrokeColor( m_current < m_min ? red : normal );
font->Draw( gal, m_minText, textPos, textAttrs, fontMetrics );
textPos.x += glyphWidth * 7 + margin.x;
gal->SetStrokeColor( m_current > m_max ? red : normal );
font->Draw( gal, m_maxText, textPos, textAttrs, fontMetrics );
gal->PopDepth();
}
protected:
EDA_DRAW_FRAME* m_frame;
VECTOR2I m_pos;
double m_min;
double m_max;
double m_current;
wxString m_currentLabel;
wxString m_currentText;
wxString m_minText;
wxString m_maxText;
};
class PCB_TUNING_PATTERN : public PCB_GENERATOR
{
public:
static const wxString GENERATOR_TYPE;
static const wxString DISPLAY_NAME;
PCB_TUNING_PATTERN( BOARD_ITEM* aParent = nullptr, PCB_LAYER_ID aLayer = F_Cu,
LENGTH_TUNING_MODE aMode = LENGTH_TUNING_MODE::SINGLE );
wxString GetGeneratorType() const override { return wxS( "tuning_pattern" ); }
wxString GetItemDescription( UNITS_PROVIDER* aUnitsProvider ) const override
{
return wxString( _( "Tuning Pattern" ) );
}
wxString GetFriendlyName() const override
{
return wxString( _( "Tuning Pattern" ) );
}
wxString GetPluralName() const override
{
return wxString( _( "Tuning Patterns" ) );
}
static PCB_TUNING_PATTERN* CreateNew( GENERATOR_TOOL* aTool, PCB_BASE_EDIT_FRAME* aFrame,
BOARD_CONNECTED_ITEM* aStartItem,
LENGTH_TUNING_MODE aMode );
void EditStart( GENERATOR_TOOL* aTool, BOARD* aBoard, BOARD_COMMIT* aCommit ) override;
bool Update( GENERATOR_TOOL* aTool, BOARD* aBoard, BOARD_COMMIT* aCommit ) override;
void EditPush( GENERATOR_TOOL* aTool, BOARD* aBoard, BOARD_COMMIT* aCommit,
const wxString& aCommitMsg = wxEmptyString, int aCommitFlags = 0 ) override;
void EditRevert( GENERATOR_TOOL* aTool, BOARD* aBoard, BOARD_COMMIT* aCommit ) override;
void Remove( GENERATOR_TOOL* aTool, BOARD* aBoard, BOARD_COMMIT* aCommit ) override;
bool MakeEditPoints( std::shared_ptr<EDIT_POINTS> points ) const override;
bool UpdateFromEditPoints( std::shared_ptr<EDIT_POINTS> aEditPoints,
BOARD_COMMIT* aCommit ) override;
bool UpdateEditPoints( std::shared_ptr<EDIT_POINTS> aEditPoints ) override;
void Move( const VECTOR2I& aMoveVector ) override
{
m_origin += aMoveVector;
m_end += aMoveVector;
if( !this->HasFlag( IN_EDIT ) )
{
PCB_GROUP::Move( aMoveVector );
if( m_baseLine )
m_baseLine->Move( aMoveVector );
if( m_baseLineCoupled )
m_baseLineCoupled->Move( aMoveVector );
}
}
void Rotate( const VECTOR2I& aRotCentre, const EDA_ANGLE& aAngle ) override
{
if( !this->HasFlag( IN_EDIT ) )
{
RotatePoint( m_origin, aRotCentre, aAngle );
RotatePoint( m_end, aRotCentre, aAngle );
PCB_GROUP::Rotate( aRotCentre, aAngle );
if( m_baseLine )
m_baseLine->Rotate( aAngle, aRotCentre );
if( m_baseLineCoupled )
m_baseLineCoupled->Rotate( aAngle, aRotCentre );
}
}
const BOX2I GetBoundingBox() const override
{
return getRectShape().BBox();
}
void ViewGetLayers( int aLayers[], int& aCount ) const override
{
aCount = 0;
aLayers[aCount++] = LAYER_ANCHOR;
}
bool HitTest( const VECTOR2I& aPosition, int aAccuracy = 0 ) const override
{
return getRectShape().Collide( aPosition, aAccuracy );
}
bool HitTest( const BOX2I& aRect, bool aContained, int aAccuracy ) const override
{
return GetBoundingBox().Intersects( aRect );
}
const BOX2I ViewBBox() const override { return GetBoundingBox(); }
EDA_ITEM* Clone() const override { return new PCB_TUNING_PATTERN( *this ); }
void ViewDraw( int aLayer, KIGFX::VIEW* aView ) const override final;
const VECTOR2I& GetEnd() const { return m_end; }
void SetEnd( const VECTOR2I& aValue ) { m_end = aValue; }
int GetEndX() const { return m_end.x; }
void SetEndX( int aValue ) { m_end.x = aValue; }
int GetEndY() const { return m_end.y; }
void SetEndY( int aValue ) { m_end.y = aValue; }
LENGTH_TUNING_MODE GetTuningMode() const { return m_tuningMode; }
PNS::ROUTER_MODE GetPNSMode()
{
switch( m_tuningMode )
{
case LENGTH_TUNING_MODE::SINGLE: return PNS::PNS_MODE_TUNE_SINGLE;
case LENGTH_TUNING_MODE::DIFF_PAIR: return PNS::PNS_MODE_TUNE_DIFF_PAIR;
case LENGTH_TUNING_MODE::DIFF_PAIR_SKEW: return PNS::PNS_MODE_TUNE_DIFF_PAIR_SKEW;
default: return PNS::PNS_MODE_TUNE_SINGLE;
}
}
PNS::MEANDER_SETTINGS& GetSettings() { return m_settings; }
int GetMinAmplitude() const { return m_settings.m_minAmplitude; }
void SetMinAmplitude( int aValue ) { m_settings.m_minAmplitude = aValue; }
int GetMaxAmplitude() const { return m_settings.m_maxAmplitude; }
void SetMaxAmplitude( int aValue ) { m_settings.m_maxAmplitude = aValue; }
PNS::MEANDER_SIDE GetInitialSide() const { return m_settings.m_initialSide; }
void SetInitialSide( PNS::MEANDER_SIDE aValue ) { m_settings.m_initialSide = aValue; }
int GetSpacing() const { return m_settings.m_spacing; }
void SetSpacing( int aValue ) { m_settings.m_spacing = aValue; }
long long int GetTargetLength() const { return m_settings.m_targetLength.Opt(); }
void SetTargetLength( long long int aValue ) { m_settings.SetTargetLength( aValue ); }
int GetTargetSkew() const { return m_settings.m_targetSkew.Opt(); }
void SetTargetSkew( int aValue ) { m_settings.SetTargetSkew( aValue ); }
bool GetOverrideCustomRules() const { return m_settings.m_overrideCustomRules; }
void SetOverrideCustomRules( bool aOverride ) { m_settings.m_overrideCustomRules = aOverride; }
int GetCornerRadiusPercentage() const { return m_settings.m_cornerRadiusPercentage; }
void SetCornerRadiusPercentage( int aValue ) { m_settings.m_cornerRadiusPercentage = aValue; }
bool IsSingleSided() const { return m_settings.m_singleSided; }
void SetSingleSided( bool aValue ) { m_settings.m_singleSided = aValue; }
bool IsRounded() const { return m_settings.m_cornerStyle == PNS::MEANDER_STYLE_ROUND; }
void SetRounded( bool aFlag ) { m_settings.m_cornerStyle = aFlag ? PNS::MEANDER_STYLE_ROUND
: PNS::MEANDER_STYLE_CHAMFER; }
std::vector<std::pair<wxString, wxVariant>> GetRowData() override
{
std::vector<std::pair<wxString, wxVariant>> data = PCB_GENERATOR::GetRowData();
data.emplace_back( _HKI( "Net" ), m_lastNetName );
data.emplace_back( _HKI( "Tuning" ), m_tuningInfo );
return data;
}
const STRING_ANY_MAP GetProperties() const override;
void SetProperties( const STRING_ANY_MAP& aProps ) override;
void ShowPropertiesDialog( PCB_BASE_EDIT_FRAME* aEditFrame ) override;
std::vector<EDA_ITEM*> GetPreviewItems( GENERATOR_TOOL* aTool, PCB_BASE_EDIT_FRAME* aFrame,
bool aStatusItemsOnly = false ) override;
void GetMsgPanelInfo( EDA_DRAW_FRAME* aFrame, std::vector<MSG_PANEL_ITEM>& aList ) override;
protected:
void swapData( BOARD_ITEM* aImage ) override
{
wxASSERT( aImage->Type() == PCB_GENERATOR_T );
std::swap( *this, *static_cast<PCB_TUNING_PATTERN*>( aImage ) );
}
bool recoverBaseline( PNS::ROUTER* aRouter );
bool baselineValid();
bool initBaseLine( PNS::ROUTER* aRouter, int aLayer, BOARD* aBoard, VECTOR2I& aStart,
VECTOR2I& aEnd, NETINFO_ITEM* aNet,
std::optional<SHAPE_LINE_CHAIN>& aBaseLine );
bool initBaseLines( PNS::ROUTER* aRouter, int aLayer, BOARD* aBoard );
bool removeToBaseline( PNS::ROUTER* aRouter, int aLayer, SHAPE_LINE_CHAIN& aBaseLine );
bool resetToBaseline( GENERATOR_TOOL* aTool, int aLayer, SHAPE_LINE_CHAIN& aBaseLine,
bool aPrimary );
SHAPE_LINE_CHAIN getRectShape() const;
protected:
VECTOR2I m_end;
PNS::MEANDER_SETTINGS m_settings;
bool m_unconstrained;
std::optional<SHAPE_LINE_CHAIN> m_baseLine;
std::optional<SHAPE_LINE_CHAIN> m_baseLineCoupled;
int m_trackWidth;
int m_diffPairGap;
LENGTH_TUNING_MODE m_tuningMode;
wxString m_lastNetName;
wxString m_tuningInfo;
PNS::MEANDER_PLACER_BASE::TUNING_STATUS m_tuningStatus;
};
static LENGTH_TUNING_MODE tuningFromString( const std::string& aStr )
{
if( aStr == "single" )
return LENGTH_TUNING_MODE::SINGLE;
else if( aStr == "diff_pair" )
return LENGTH_TUNING_MODE::DIFF_PAIR;
else if( aStr == "diff_pair_skew" )
return LENGTH_TUNING_MODE::DIFF_PAIR_SKEW;
else
{
wxFAIL_MSG( wxS( "Unknown length tuning token" ) );
return LENGTH_TUNING_MODE::SINGLE;
}
}
static std::string tuningToString( const LENGTH_TUNING_MODE aTuning )
{
switch( aTuning )
{
case LENGTH_TUNING_MODE::SINGLE: return "single";
case LENGTH_TUNING_MODE::DIFF_PAIR: return "diff_pair";
case LENGTH_TUNING_MODE::DIFF_PAIR_SKEW: return "diff_pair_skew";
default: wxFAIL; return "";
}
}
static LENGTH_TUNING_MODE fromPNSMode( PNS::ROUTER_MODE aRouterMode )
{
switch( aRouterMode )
{
case PNS::PNS_MODE_TUNE_SINGLE: return LENGTH_TUNING_MODE::SINGLE;
case PNS::PNS_MODE_TUNE_DIFF_PAIR: return LENGTH_TUNING_MODE::DIFF_PAIR;
case PNS::PNS_MODE_TUNE_DIFF_PAIR_SKEW: return LENGTH_TUNING_MODE::DIFF_PAIR_SKEW;
default: return LENGTH_TUNING_MODE::SINGLE;
}
}
static PNS::MEANDER_SIDE sideFromString( const std::string& aStr )
{
if( aStr == "default" )
return PNS::MEANDER_SIDE_DEFAULT;
else if( aStr == "left" )
return PNS::MEANDER_SIDE_LEFT;
else if( aStr == "right" )
return PNS::MEANDER_SIDE_RIGHT;
else
{
wxFAIL_MSG( wxS( "Unknown length-tuning side token" ) );
return PNS::MEANDER_SIDE_DEFAULT;
}
}
static std::string statusToString( const PNS::MEANDER_PLACER_BASE::TUNING_STATUS aStatus )
{
switch( aStatus )
{
case PNS::MEANDER_PLACER_BASE::TOO_LONG: return "too_long";
case PNS::MEANDER_PLACER_BASE::TOO_SHORT: return "too_short";
case PNS::MEANDER_PLACER_BASE::TUNED: return "tuned";
default: wxFAIL; return "";
}
}
static PNS::MEANDER_PLACER_BASE::TUNING_STATUS statusFromString( const std::string& aStr )
{
if( aStr == "too_long" )
return PNS::MEANDER_PLACER_BASE::TOO_LONG;
else if( aStr == "too_short" )
return PNS::MEANDER_PLACER_BASE::TOO_SHORT;
else if( aStr == "tuned" )
return PNS::MEANDER_PLACER_BASE::TUNED;
else
{
wxFAIL_MSG( wxS( "Unknown tuning status token" ) );
return PNS::MEANDER_PLACER_BASE::TUNED;
}
}
static std::string sideToString( const PNS::MEANDER_SIDE aValue )
{
switch( aValue )
{
case PNS::MEANDER_SIDE_DEFAULT: return "default";
case PNS::MEANDER_SIDE_LEFT: return "left";
case PNS::MEANDER_SIDE_RIGHT: return "right";
default: wxFAIL; return "";
}
}
PCB_TUNING_PATTERN::PCB_TUNING_PATTERN( BOARD_ITEM* aParent, PCB_LAYER_ID aLayer,
LENGTH_TUNING_MODE aMode ) :
PCB_GENERATOR( aParent, aLayer ),
m_unconstrained( false ),
m_trackWidth( 0 ),
m_diffPairGap( 0 ),
m_tuningMode( aMode ),
m_tuningStatus( PNS::MEANDER_PLACER_BASE::TUNING_STATUS::TUNED )
{
m_generatorType = GENERATOR_TYPE;
m_name = DISPLAY_NAME;
m_end = VECTOR2I( pcbIUScale.mmToIU( 10 ), 0 );
m_settings.m_initialSide = PNS::MEANDER_SIDE_LEFT;
}
static VECTOR2I snapToNearestTrack( const VECTOR2I& aP, BOARD* aBoard, NETINFO_ITEM* aNet,
PCB_TRACK** aNearestTrack )
{
SEG::ecoord minDist_sq = VECTOR2I::ECOORD_MAX;
VECTOR2I closestPt = aP;
for( PCB_TRACK *track : aBoard->Tracks() )
{
if( aNet && track->GetNet() != aNet )
continue;
SEG seg( track->GetStart(), track->GetEnd() );
VECTOR2I nearest = seg.NearestPoint( aP );
SEG::ecoord dist_sq = ( nearest - aP ).SquaredEuclideanNorm();
if( dist_sq < minDist_sq )
{
minDist_sq = dist_sq;
closestPt = nearest;
if( aNearestTrack )
*aNearestTrack = track;
}
}
return closestPt;
}
bool PCB_TUNING_PATTERN::baselineValid()
{
if( m_tuningMode == DIFF_PAIR || m_tuningMode == DIFF_PAIR_SKEW )
{
return( m_baseLine && m_baseLine->PointCount() > 1
&& m_baseLineCoupled && m_baseLineCoupled->PointCount() > 1 );
}
else
{
return( m_baseLine && m_baseLine->PointCount() > 1 );
}
}
PCB_TUNING_PATTERN* PCB_TUNING_PATTERN::CreateNew( GENERATOR_TOOL* aTool,
PCB_BASE_EDIT_FRAME* aFrame,
BOARD_CONNECTED_ITEM* aStartItem,
LENGTH_TUNING_MODE aMode )
{
BOARD* board = aStartItem->GetBoard();
std::shared_ptr<DRC_ENGINE>& drcEngine = board->GetDesignSettings().m_DRCEngine;
DRC_CONSTRAINT constraint;
PCB_LAYER_ID layer = aStartItem->GetLayer();
if( aMode == SINGLE && board->DpCoupledNet( aStartItem->GetNet() ) )
aMode = DIFF_PAIR;
PCB_TUNING_PATTERN* pattern = new PCB_TUNING_PATTERN( board, layer, aMode );
constraint = drcEngine->EvalRules( LENGTH_CONSTRAINT, aStartItem, nullptr, layer );
if( !constraint.IsNull() )
{
if( aMode == DIFF_PAIR_SKEW )
pattern->m_settings.SetTargetSkew( constraint.GetValue() );
else
pattern->m_settings.SetTargetLength( constraint.GetValue() );
}
else if( aMode == DIFF_PAIR_SKEW )
{
pattern->m_settings.SetTargetSkew( 0 );
}
else
{
pattern->m_settings.SetTargetLength( std::numeric_limits<int>::max() );
pattern->m_unconstrained = true;
}
pattern->SetFlags( IS_NEW );
return pattern;
}
void PCB_TUNING_PATTERN::EditStart( GENERATOR_TOOL* aTool, BOARD* aBoard, BOARD_COMMIT* aCommit )
{
if( aCommit )
{
if( IsNew() )
aCommit->Add( this );
else
aCommit->Modify( this );
}
SetFlags( IN_EDIT );
int layer = GetLayer();
PNS::ROUTER* router = aTool->Router();
aTool->ClearRouterChanges();
router->SyncWorld();
PNS::RULE_RESOLVER* resolver = router->GetRuleResolver();
PNS::CONSTRAINT constraint;
if( !baselineValid() )
initBaseLines( router, layer, aBoard );
if( baselineValid() && !m_settings.m_overrideCustomRules )
{
PCB_TRACK* track = nullptr;
m_origin = snapToNearestTrack( m_origin, aBoard, nullptr, &track );
wxCHECK( track, /* void */ );
NETINFO_ITEM* net = track->GetNet();
PNS::SEGMENT pnsItem( m_baseLine->CSegment( 0 ), net );
if( m_tuningMode == SINGLE )
{
if( resolver->QueryConstraint( PNS::CONSTRAINT_TYPE::CT_LENGTH,
&pnsItem, nullptr, layer, &constraint ) )
{
m_settings.SetTargetLength( constraint.m_Value );
aTool->GetManager()->PostEvent( EVENTS::SelectedItemsModified );
}
}
else
{
NETINFO_ITEM* coupledNet = aBoard->DpCoupledNet( net );
PNS::SEGMENT coupledItem( m_baseLineCoupled->CSegment( 0 ), coupledNet );
if( m_tuningMode == DIFF_PAIR )
{
if( resolver->QueryConstraint( PNS::CONSTRAINT_TYPE::CT_LENGTH,
&pnsItem, &coupledItem, layer, &constraint ) )
{
m_settings.SetTargetLength( constraint.m_Value );
aTool->GetManager()->PostEvent( EVENTS::SelectedItemsModified );
}
}
else
{
if( resolver->QueryConstraint( PNS::CONSTRAINT_TYPE::CT_DIFF_PAIR_SKEW,
&pnsItem, &coupledItem, layer, &constraint ) )
{
m_settings.m_targetSkew = constraint.m_Value;
aTool->GetManager()->PostEvent( EVENTS::SelectedItemsModified );
}
}
}
}
}
static PNS::LINKED_ITEM* pickSegment( PNS::ROUTER* aRouter, const VECTOR2I& aWhere, int aLayer,
VECTOR2I& aPointOut )
{
static const int candidateCount = 2;
PNS::LINKED_ITEM* prioritized[candidateCount];
SEG::ecoord dist[candidateCount];
VECTOR2I point[candidateCount];
for( int i = 0; i < candidateCount; i++ )
{
prioritized[i] = nullptr;
dist[i] = VECTOR2I::ECOORD_MAX;
}
auto haveCandidates =
[&]()
{
for( PNS::ITEM* item : prioritized )
{
if( item )
return true;
}
return false;
};
for( bool useClearance : { false, true } )
{
PNS::ITEM_SET candidates = aRouter->QueryHoverItems( aWhere, useClearance );
for( PNS::ITEM* item : candidates.Items() )
{
if( !item->OfKind( PNS::ITEM::SEGMENT_T | PNS::ITEM::ARC_T ) )
continue;
if( !item->IsRoutable() )
continue;
if( !item->Layers().Overlaps( aLayer ) )
continue;
PNS::LINKED_ITEM* linked = static_cast<PNS::LINKED_ITEM*>( item );
if( item->Kind() & PNS::ITEM::ARC_T )
{
SEG::ecoord d0 = ( item->Anchor( 0 ) - aWhere ).SquaredEuclideanNorm();
SEG::ecoord d1 = ( item->Anchor( 1 ) - aWhere ).SquaredEuclideanNorm();
if( d0 <= dist[1] )
{
prioritized[1] = linked;
dist[1] = d0;
point[1] = item->Anchor( 0 );
}
if( d1 <= dist[1] )
{
prioritized[1] = linked;
dist[1] = d1;
point[1] = item->Anchor( 1 );
}
}
else if( item->Kind() & PNS::ITEM::SEGMENT_T )
{
PNS::SEGMENT* segm = static_cast<PNS::SEGMENT*>( item );
VECTOR2I nearest = segm->CLine().NearestPoint( aWhere, false );
SEG::ecoord dd = ( aWhere - nearest ).SquaredEuclideanNorm();
if( dd <= dist[1] )
{
prioritized[1] = segm;
dist[1] = dd;
point[1] = nearest;
}
}
}
if( haveCandidates() )
break;
}
PNS::LINKED_ITEM* rv = nullptr;
for( int i = 0; i < candidateCount; i++ )
{
PNS::LINKED_ITEM* item = prioritized[i];
if( item && ( aLayer < 0 || item->Layers().Overlaps( aLayer ) ) )
{
rv = item;
aPointOut = point[i];
break;
}
}
return rv;
}
static std::optional<PNS::LINE> getPNSLine( const VECTOR2I& aStart, const VECTOR2I& aEnd,
PNS::ROUTER* router, int layer, VECTOR2I& aStartOut,
VECTOR2I& aEndOut )
{
PNS::NODE* world = router->GetWorld();
PNS::LINKED_ITEM* startItem = pickSegment( router, aStart, layer, aStartOut );
PNS::LINKED_ITEM* endItem = pickSegment( router, aEnd, layer, aEndOut );
//wxCHECK( startItem && endItem, std::nullopt );
for( PNS::LINKED_ITEM* testItem : { startItem, endItem } )
{
if( !testItem )
continue;
PNS::LINE line = world->AssembleLine( testItem, nullptr, false, false );
SHAPE_LINE_CHAIN oldChain = line.CLine();
if( oldChain.PointOnEdge( aStartOut, 1 ) && oldChain.PointOnEdge( aEndOut, 1 ) )
return line;
}
return std::nullopt;
}
bool PCB_TUNING_PATTERN::initBaseLine( PNS::ROUTER* aRouter, int aLayer, BOARD* aBoard,
VECTOR2I& aStart, VECTOR2I& aEnd, NETINFO_ITEM* aNet,
std::optional<SHAPE_LINE_CHAIN>& aBaseLine )
{
PNS::NODE* world = aRouter->GetWorld();
aStart = snapToNearestTrack( aStart, aBoard, aNet, nullptr );
aEnd = snapToNearestTrack( aEnd, aBoard, aNet, nullptr );
VECTOR2I startSnapPoint, endSnapPoint;
PNS::LINKED_ITEM* startItem = pickSegment( aRouter, aStart, aLayer, startSnapPoint );
PNS::LINKED_ITEM* endItem = pickSegment( aRouter, aEnd, aLayer, endSnapPoint );
wxASSERT( startItem );
wxASSERT( endItem );
if( !startItem || !endItem || startSnapPoint == endSnapPoint )
return false;
PNS::LINE line = world->AssembleLine( startItem );
const SHAPE_LINE_CHAIN& chain = line.CLine();
wxASSERT( line.ContainsLink( endItem ) );
wxASSERT( chain.PointOnEdge( startSnapPoint, 1 ) );
wxASSERT( chain.PointOnEdge( endSnapPoint, 1 ) );
SHAPE_LINE_CHAIN pre;
SHAPE_LINE_CHAIN mid;
SHAPE_LINE_CHAIN post;
chain.Split( startSnapPoint, endSnapPoint, pre, mid, post );
aBaseLine = mid;
return true;
}
bool PCB_TUNING_PATTERN::initBaseLines( PNS::ROUTER* aRouter, int aLayer, BOARD* aBoard )
{
m_baseLineCoupled.reset();
PCB_TRACK* track = nullptr;
m_origin = snapToNearestTrack( m_origin, aBoard, nullptr, &track );
wxCHECK( track, false );
NETINFO_ITEM* net = track->GetNet();
if( !initBaseLine( aRouter, aLayer, aBoard, m_origin, m_end, net, m_baseLine ) )
return false;
// Generate both baselines even if we're skewing. We need the coupled baseline to run the
// DRC rules against.
if( m_tuningMode == DIFF_PAIR || m_tuningMode == DIFF_PAIR_SKEW )
{
if( NETINFO_ITEM* coupledNet = aBoard->DpCoupledNet( net ) )
{
VECTOR2I coupledStart = snapToNearestTrack( m_origin, aBoard, coupledNet, nullptr );
VECTOR2I coupledEnd = snapToNearestTrack( m_end, aBoard, coupledNet, nullptr );
return initBaseLine( aRouter, aLayer, aBoard, coupledStart, coupledEnd, coupledNet,
m_baseLineCoupled );
}
return false;
}
return true;
}
bool PCB_TUNING_PATTERN::removeToBaseline( PNS::ROUTER* aRouter, int aLayer,
SHAPE_LINE_CHAIN& aBaseLine )
{
VECTOR2I startSnapPoint, endSnapPoint;
std::optional<PNS::LINE> pnsLine = getPNSLine( aBaseLine.CPoint( 0 ), aBaseLine.CPoint( -1 ),
aRouter, aLayer, startSnapPoint, endSnapPoint );
wxCHECK( pnsLine, false );
SHAPE_LINE_CHAIN pre;
SHAPE_LINE_CHAIN mid;
SHAPE_LINE_CHAIN post;
pnsLine->CLine().Split( startSnapPoint, endSnapPoint, pre, mid, post );
for( PNS::LINKED_ITEM* li : pnsLine->Links() )
aRouter->GetInterface()->RemoveItem( li );
aRouter->GetWorld()->Remove( *pnsLine );
SHAPE_LINE_CHAIN straightChain;
straightChain.Append( pre );
straightChain.Append( aBaseLine );
straightChain.Append( post );
straightChain.Simplify();
PNS::LINE straightLine( *pnsLine, straightChain );
aRouter->GetWorld()->Add( straightLine, false );
for( PNS::LINKED_ITEM* li : straightLine.Links() )
aRouter->GetInterface()->AddItem( li );
return true;
}
void PCB_TUNING_PATTERN::Remove( GENERATOR_TOOL* aTool, BOARD* aBoard, BOARD_COMMIT* aCommit )
{
SetFlags( IN_EDIT );
aTool->Router()->SyncWorld();
PNS::ROUTER* router = aTool->Router();
int layer = GetLayer();
// Ungroup first so that undo works
if( !GetItems().empty() )
{
PCB_GENERATOR* group = this;
for( BOARD_ITEM* member : group->GetItems() )
aCommit->Stage( member, CHT_UNGROUP );
group->GetItems().clear();
}
aCommit->Remove( this );
aTool->ClearRouterChanges();
if( baselineValid() )
{
bool success = true;
success &= removeToBaseline( router, layer, *m_baseLine );
if( m_tuningMode == DIFF_PAIR )
success &= removeToBaseline( router, layer, *m_baseLineCoupled );
if( !success )
recoverBaseline( router );
}
const std::vector<GENERATOR_PNS_CHANGES>& allPnsChanges = aTool->GetRouterChanges();
for( const GENERATOR_PNS_CHANGES& pnsChanges : allPnsChanges )
{
const std::set<BOARD_ITEM*> routerRemovedItems = pnsChanges.removedItems;
const std::set<BOARD_ITEM*> routerAddedItems = pnsChanges.addedItems;
/*std::cout << "Push commits << " << allPnsChanges.size() << " routerRemovedItems "
<< routerRemovedItems.size() << " routerAddedItems " << routerAddedItems.size()
<< " m_removedItems " << m_removedItems.size() << std::endl;*/
for( BOARD_ITEM* item : routerRemovedItems )
{
item->ClearSelected();
aCommit->Remove( item );
}
for( BOARD_ITEM* item : routerAddedItems )
aCommit->Add( item );
}
aCommit->Push( "Remove Tuning Pattern" );
}
bool PCB_TUNING_PATTERN::recoverBaseline( PNS::ROUTER* aRouter )
{
PNS::SOLID queryItem;
SHAPE_LINE_CHAIN* chain = static_cast<SHAPE_LINE_CHAIN*>( getRectShape().Clone() );
queryItem.SetShape( chain );
queryItem.SetLayer( m_layer );
int lineWidth = 0;
PNS::NODE::OBSTACLES obstacles;
PNS::COLLISION_SEARCH_OPTIONS opts;
opts.m_useClearanceEpsilon = false;
PNS::NODE* world = aRouter->GetWorld();
PNS::NODE* branch = world->Branch();
branch->QueryColliding( &queryItem, obstacles, opts );
for( const PNS::OBSTACLE& obs : obstacles )
{
PNS::ITEM* item = obs.m_item;
if( !item->OfKind( PNS::ITEM::SEGMENT_T | PNS::ITEM::ARC_T ) )
continue;
if( PNS::LINKED_ITEM* li = dynamic_cast<PNS::LINKED_ITEM*>( item ) )
{
if( lineWidth == 0 || li->Width() < lineWidth )
lineWidth = li->Width();
}
if( chain->PointInside( item->Anchor( 0 ), 10 )
&& chain->PointInside( item->Anchor( 1 ), 10 ) )
{
branch->Remove( item );
}
}
if( lineWidth == 0 )
lineWidth = pcbIUScale.mmToIU( 0.1 ); // Fallback
if( baselineValid() )
{
NETINFO_ITEM* recoverNet = GetBoard()->FindNet( m_lastNetName );
PNS::LINE recoverLine;
recoverLine.SetLayer( m_layer );
recoverLine.SetWidth( lineWidth );
recoverLine.Line() = *m_baseLine;
recoverLine.SetNet( recoverNet );
branch->Add( recoverLine, false );
if( m_tuningMode == DIFF_PAIR || m_tuningMode == DIFF_PAIR_SKEW )
{
NETINFO_ITEM* recoverCoupledNet = GetBoard()->DpCoupledNet( recoverNet );
PNS::LINE recoverLineCoupled;
recoverLineCoupled.SetLayer( m_layer );
recoverLineCoupled.SetWidth( lineWidth );
recoverLineCoupled.Line() = *m_baseLineCoupled;
recoverLineCoupled.SetNet( recoverCoupledNet );
branch->Add( recoverLineCoupled, false );
}
}
aRouter->CommitRouting( branch );
//wxLogWarning( "PNS baseline recovered" );
return true;
}
bool PCB_TUNING_PATTERN::resetToBaseline( GENERATOR_TOOL* aTool, int aLayer,
SHAPE_LINE_CHAIN& aBaseLine, bool aPrimary )
{
KIGFX::VIEW* view = aTool->GetManager()->GetView();
PNS::ROUTER* router = aTool->Router();
PNS::NODE* world = router->GetWorld();
VECTOR2I startSnapPoint, endSnapPoint;
std::optional<PNS::LINE> pnsLine = getPNSLine( aBaseLine.CPoint( 0 ), aBaseLine.CPoint( -1 ),
router, aLayer, startSnapPoint, endSnapPoint );
if( !pnsLine )
{
// TODO
//recoverBaseline( aRouter );
return true;
}
PNS::NODE* branch = world->Branch();
SHAPE_LINE_CHAIN straightChain;
{
SHAPE_LINE_CHAIN pre, mid, post;
pnsLine->CLine().Split( startSnapPoint, endSnapPoint, pre, mid, post );
straightChain.Append( pre );
straightChain.Append( aBaseLine );
straightChain.Append( post );
straightChain.Simplify();
}
if( view )
{
for( PNS::LINKED_ITEM* pnsItem : pnsLine->Links() )
{
if( BOARD_ITEM* item = pnsItem->Parent() )
view->Hide( item, true, true );
}
}
branch->Remove( *pnsLine );
PNS::LINE straightLine( *pnsLine, straightChain );
branch->Add( straightLine, false );
if( aPrimary )
{
m_origin = straightChain.NearestPoint( m_origin );
m_end = straightChain.NearestPoint( m_end );
// Don't allow points too close
if( ( m_end - m_origin ).EuclideanNorm() < pcbIUScale.mmToIU( 0.1 ) )
{
m_origin = startSnapPoint;
m_end = endSnapPoint;
}
{
SHAPE_LINE_CHAIN pre, mid, post;
straightChain.Split( m_origin, m_end, pre, mid, post );
m_baseLine = mid;
}
}
else
{
VECTOR2I start = straightChain.NearestPoint( m_origin );
VECTOR2I end = straightChain.NearestPoint( m_end );
{
SHAPE_LINE_CHAIN pre, mid, post;
straightChain.Split( start, end, pre, mid, post );
m_baseLineCoupled = mid;
}
}
router->CommitRouting( branch );
return true;
}
bool PCB_TUNING_PATTERN::Update( GENERATOR_TOOL* aTool, BOARD* aBoard, BOARD_COMMIT* aCommit )
{
PNS::ROUTER* router = aTool->Router();
PNS_KICAD_IFACE* iface = aTool->GetInterface();
int layer = GetLayer();
iface->SetStartLayer( layer );
if( router->RoutingInProgress() )
{
router->StopRouting();
}
if( !baselineValid() )
{
initBaseLines( router, layer, aBoard );
}
else
{
if( resetToBaseline( aTool, layer, *m_baseLine, true ) )
{
m_origin = m_baseLine->CPoint( 0 );
m_end = m_baseLine->CPoint( -1 );
}
else
{
//initBaseLines( router, layer, aBoard );
return false;
}
if( m_tuningMode == DIFF_PAIR )
{
if( !resetToBaseline( aTool, layer, *m_baseLineCoupled, false ) )
{
initBaseLines( router, layer, aBoard );
return false;
}
}
}
// Snap points
VECTOR2I startSnapPoint, endSnapPoint;
PNS::LINKED_ITEM* startItem = pickSegment( router, m_origin, layer, startSnapPoint );
PNS::LINKED_ITEM* endItem = pickSegment( router, m_end, layer, endSnapPoint );
wxASSERT( startItem );
wxASSERT( endItem );
if( !startItem || !endItem )
return false;
router->SetMode( GetPNSMode() );
if( !router->StartRouting( startSnapPoint, startItem, layer ) )
{
//recoverBaseline( router );
return false;
}
PNS::MEANDER_PLACER_BASE* placer = static_cast<PNS::MEANDER_PLACER_BASE*>( router->Placer() );
m_settings.m_keepEndpoints = true; // Required for re-grouping
placer->UpdateSettings( m_settings );
router->Move( m_end, nullptr );
if( PNS::DP_MEANDER_PLACER* dpPlacer = dynamic_cast<PNS::DP_MEANDER_PLACER*>( placer ) )
{
m_trackWidth = dpPlacer->GetOriginPair().Width();
m_diffPairGap = dpPlacer->GetOriginPair().Gap();
}
else
{
m_trackWidth = startItem->Width();
m_diffPairGap = router->Sizes().DiffPairGap();
}
m_settings = placer->MeanderSettings();
m_lastNetName = iface->GetNetName( startItem->Net() );
m_tuningStatus = placer->TuningStatus();
wxString statusMessage;
switch ( m_tuningStatus )
{
case PNS::MEANDER_PLACER_BASE::TOO_LONG: statusMessage = _( "too long" ); break;
case PNS::MEANDER_PLACER_BASE::TOO_SHORT: statusMessage = _( "too short" ); break;
case PNS::MEANDER_PLACER_BASE::TUNED: statusMessage = _( "tuned" ); break;
default: statusMessage = _( "unknown" ); break;
}
wxString result;
EDA_UNITS userUnits = EDA_UNITS::MILLIMETRES;
if( aTool->GetManager()->GetSettings() )
userUnits = static_cast<EDA_UNITS>( aTool->GetManager()->GetSettings()->m_System.units );
result = EDA_UNIT_UTILS::UI::MessageTextFromValue( pcbIUScale, userUnits,
(double) placer->TuningResult() );
m_tuningInfo.Printf( wxS( "%s (%s)" ), result, statusMessage );
return true;
}
void PCB_TUNING_PATTERN::EditPush( GENERATOR_TOOL* aTool, BOARD* aBoard, BOARD_COMMIT* aCommit,
const wxString& aCommitMsg, int aCommitFlags )
{
ClearFlags( IN_EDIT );
KIGFX::VIEW* view = aTool->GetManager()->GetView();
PNS::ROUTER* router = aTool->Router();
SHAPE_LINE_CHAIN bounds = getRectShape();
int epsilon = aBoard->GetDesignSettings().GetDRCEpsilon();
if( router->RoutingInProgress() )
{
router->FixRoute( m_end, nullptr, true );
router->StopRouting();
}
const std::vector<GENERATOR_PNS_CHANGES>& pnsCommits = aTool->GetRouterChanges();
for( const GENERATOR_PNS_CHANGES& pnsCommit : pnsCommits )
{
const std::set<BOARD_ITEM*> routerRemovedItems = pnsCommit.removedItems;
const std::set<BOARD_ITEM*> routerAddedItems = pnsCommit.addedItems;
//std::cout << "Push commits << " << allPnsChanges.size() << " routerRemovedItems "
// << routerRemovedItems.size() << " routerAddedItems " << routerAddedItems.size()
// << " m_removedItems " << m_removedItems.size() << std::endl;
for( BOARD_ITEM* item : routerRemovedItems )
{
if( view )
view->Hide( item, false );
aCommit->Remove( item );
}
for( BOARD_ITEM* item : routerAddedItems )
{
if( PCB_TRACK* track = dynamic_cast<PCB_TRACK*>( item ) )
{
if( bounds.PointInside( track->GetPosition(), epsilon )
&& bounds.PointInside( track->GetEnd(), epsilon ) )
{
AddItem( item );
aCommit->Stage( item, CHT_GROUP );
}
}
aCommit->Add( item );
}
}
if( aCommitMsg.IsEmpty() )
aCommit->Push( _( "Edit Tuning Pattern" ), aCommitFlags );
else
aCommit->Push( aCommitMsg, aCommitFlags );
}
void PCB_TUNING_PATTERN::EditRevert( GENERATOR_TOOL* aTool, BOARD* aBoard, BOARD_COMMIT* aCommit )
{
ClearFlags( IN_EDIT );
if( KIGFX::VIEW* view = aTool->GetManager()->GetView() )
{
for( const GENERATOR_PNS_CHANGES& pnsCommit : aTool->GetRouterChanges() )
{
for( BOARD_ITEM* item : pnsCommit.removedItems )
view->Hide( item, false );
}
}
aTool->Router()->StopRouting();
if( aCommit )
aCommit->Revert();
}
bool PCB_TUNING_PATTERN::MakeEditPoints( std::shared_ptr<EDIT_POINTS> points ) const
{
VECTOR2I centerlineOffset;
VECTOR2I centerlineOffsetEnd;
if( m_tuningMode == DIFF_PAIR && m_baseLineCoupled && m_baseLineCoupled->SegmentCount() > 0 )
{
centerlineOffset = ( m_baseLineCoupled->CPoint( 0 ) - m_origin ) / 2;
centerlineOffsetEnd = ( m_baseLineCoupled->CPoint( -1 ) - m_end ) / 2;
}
points->AddPoint( m_origin + centerlineOffset );
points->AddPoint( m_end + centerlineOffsetEnd );
SEG base = m_baseLine && m_baseLine->SegmentCount() > 0 ? m_baseLine->CSegment( 0 )
: SEG( m_origin, m_end );
base.A += centerlineOffset;
base.B += centerlineOffset;
int amplitude = m_settings.m_maxAmplitude + KiROUND( m_trackWidth / 2.0 );
if( m_tuningMode == DIFF_PAIR )
amplitude += m_trackWidth + m_diffPairGap;
if( m_settings.m_initialSide == -1 )
amplitude *= -1;
VECTOR2I widthHandleOffset = ( base.B - base.A ).Perpendicular().Resize( amplitude );
points->AddPoint( base.A + widthHandleOffset );
points->Point( 2 ).SetGridConstraint( IGNORE_GRID );
VECTOR2I spacingHandleOffset =
widthHandleOffset + ( base.B - base.A ).Resize( KiROUND( m_settings.m_spacing * 1.5 ) );
points->AddPoint( base.A + spacingHandleOffset );
points->Point( 3 ).SetGridConstraint( IGNORE_GRID );
return true;
}
bool PCB_TUNING_PATTERN::UpdateFromEditPoints( std::shared_ptr<EDIT_POINTS> aEditPoints,
BOARD_COMMIT* aCommit )
{
VECTOR2I centerlineOffset;
VECTOR2I centerlineOffsetEnd;
if( m_tuningMode == DIFF_PAIR && m_baseLineCoupled && m_baseLineCoupled->SegmentCount() > 0 )
{
centerlineOffset = ( m_baseLineCoupled->CPoint( 0 ) - m_origin ) / 2;
centerlineOffsetEnd = ( m_baseLineCoupled->CPoint( -1 ) - m_end ) / 2;
}
SEG base = m_baseLine && m_baseLine->SegmentCount() > 0 ? m_baseLine->CSegment( 0 )
: SEG( m_origin, m_end );
base.A += centerlineOffset;
base.B += centerlineOffset;
m_origin = aEditPoints->Point( 0 ).GetPosition() - centerlineOffset;
m_end = aEditPoints->Point( 1 ).GetPosition() - centerlineOffsetEnd;
if( aEditPoints->Point( 2 ).IsActive() )
{
VECTOR2I wHandle = aEditPoints->Point( 2 ).GetPosition();
int value = base.LineDistance( wHandle );
value -= KiROUND( m_trackWidth / 2.0 );
if( m_tuningMode == DIFF_PAIR )
value -= m_trackWidth + m_diffPairGap;
SetMaxAmplitude( KiROUND( value / pcbIUScale.mmToIU( 0.1 ) ) * pcbIUScale.mmToIU( 0.1 ) );
int side = base.Side( wHandle );
if( side < 0 )
m_settings.m_initialSide = PNS::MEANDER_SIDE_LEFT;
else
m_settings.m_initialSide = PNS::MEANDER_SIDE_RIGHT;
}
if( aEditPoints->Point( 3 ).IsActive() )
{
VECTOR2I wHandle = aEditPoints->Point( 2 ).GetPosition();
VECTOR2I sHandle = aEditPoints->Point( 3 ).GetPosition();
int value = KiROUND( SEG( base.A, wHandle ).LineDistance( sHandle ) / 1.5 );
SetSpacing( KiROUND( value / pcbIUScale.mmToIU( 0.01 ) ) * pcbIUScale.mmToIU( 0.01 ) );
}
return true;
}
bool PCB_TUNING_PATTERN::UpdateEditPoints( std::shared_ptr<EDIT_POINTS> aEditPoints )
{
VECTOR2I centerlineOffset;
VECTOR2I centerlineOffsetEnd;
if( m_tuningMode == DIFF_PAIR && m_baseLineCoupled && m_baseLineCoupled->SegmentCount() > 0 )
{
centerlineOffset = ( m_baseLineCoupled->CPoint( 0 ) - m_origin ) / 2;
centerlineOffsetEnd = ( m_baseLineCoupled->CPoint( -1 ) - m_end ) / 2;
}
SEG base = m_baseLine && m_baseLine->SegmentCount() > 0 ? m_baseLine->CSegment( 0 )
: SEG( m_origin, m_end );
base.A += centerlineOffset;
base.B += centerlineOffset;
int amplitude = m_settings.m_maxAmplitude + KiROUND( m_trackWidth / 2.0 );
if( m_tuningMode == DIFF_PAIR )
amplitude += m_trackWidth + m_diffPairGap;
if( m_settings.m_initialSide == -1 )
amplitude *= -1;
VECTOR2I widthHandleOffset = ( base.B - base.A ).Perpendicular().Resize( amplitude );
aEditPoints->Point( 0 ).SetPosition( m_origin + centerlineOffset );
aEditPoints->Point( 1 ).SetPosition( m_end + centerlineOffsetEnd );
aEditPoints->Point( 2 ).SetPosition( base.A + widthHandleOffset );
VECTOR2I spacingHandleOffset =
widthHandleOffset + ( base.B - base.A ).Resize( KiROUND( m_settings.m_spacing * 1.5 ) );
aEditPoints->Point( 3 ).SetPosition( base.A + spacingHandleOffset );
return true;
}
SHAPE_LINE_CHAIN PCB_TUNING_PATTERN::getRectShape() const
{
if( m_baseLine )
{
bool singleSided = m_settings.m_singleSided;
if( singleSided )
{
SHAPE_LINE_CHAIN clBase = *m_baseLine;
SHAPE_LINE_CHAIN left, right;
if( m_tuningMode != DIFF_PAIR )
{
int amplitude = m_settings.m_maxAmplitude + KiROUND( m_trackWidth / 2.0 );
SHAPE_LINE_CHAIN chain;
if( clBase.OffsetLine( amplitude, CORNER_STRATEGY::ROUND_ALL_CORNERS, ARC_LOW_DEF,
left, right, true ) )
{
chain.Append( m_settings.m_initialSide >= 0 ? right : left );
chain.Append( clBase.Reverse() );
chain.SetClosed( true );
return chain;
}
}
else if( m_tuningMode == DIFF_PAIR && m_baseLineCoupled )
{
int amplitude =
m_settings.m_maxAmplitude + m_trackWidth + KiROUND( m_diffPairGap / 2.0 );
SHAPE_LINE_CHAIN clCoupled = *m_baseLineCoupled;
SHAPE_LINE_CHAIN chain1, chain2;
if( clBase.OffsetLine( amplitude, CORNER_STRATEGY::ROUND_ALL_CORNERS, ARC_LOW_DEF,
left, right, true ) )
{
if( m_settings.m_initialSide >= 0 )
chain1.Append( right );
else
chain1.Append( left );
if( clBase.OffsetLine( KiROUND( m_trackWidth / 2.0 ),
CORNER_STRATEGY::ROUND_ALL_CORNERS, ARC_LOW_DEF, left,
right, true ) )
{
if( m_settings.m_initialSide >= 0 )
chain1.Append( left.Reverse() );
else
chain1.Append( right.Reverse() );
}
chain1.SetClosed( true );
}
if( clCoupled.OffsetLine( amplitude, CORNER_STRATEGY::ROUND_ALL_CORNERS,
ARC_LOW_DEF, left, right, true ) )
{
if( m_settings.m_initialSide >= 0 )
chain2.Append( right );
else
chain2.Append( left );
if( clCoupled.OffsetLine( KiROUND( m_trackWidth / 2.0 ),
CORNER_STRATEGY::ROUND_ALL_CORNERS, ARC_LOW_DEF, left,
right, true ) )
{
if( m_settings.m_initialSide >= 0 )
chain2.Append( left.Reverse() );
else
chain2.Append( right.Reverse() );
}
chain2.SetClosed( true );
}
SHAPE_POLY_SET merged;
merged.BooleanAdd( chain1, chain2, SHAPE_POLY_SET::PM_STRICTLY_SIMPLE );
if( merged.OutlineCount() > 0 )
return merged.Outline( 0 );
}
}
// Not single-sided / fallback
SHAPE_POLY_SET poly;
SHAPE_LINE_CHAIN cl = *m_baseLine;
int amplitude = m_settings.m_maxAmplitude + KiROUND( m_trackWidth / 2.0 );
if( m_tuningMode == DIFF_PAIR )
amplitude += m_trackWidth + m_diffPairGap;
if( m_tuningMode == DIFF_PAIR && m_baseLineCoupled
&& m_baseLineCoupled->SegmentCount() > 0 )
{
for( int i = 0; i < cl.PointCount() - 1 && i < m_baseLineCoupled->PointCount(); ++i )
cl.SetPoint( i, ( cl.CPoint( i ) + m_baseLineCoupled->CPoint( i ) ) / 2 );
cl.SetPoint( -1, ( cl.CPoint( -1 ) + m_baseLineCoupled->CPoint( -1 ) ) / 2 );
}
poly.OffsetLineChain( cl, amplitude, CORNER_STRATEGY::ROUND_ALL_CORNERS, ARC_LOW_DEF,
false );
if( poly.OutlineCount() > 0 )
return poly.Outline( 0 );
}
return SHAPE_LINE_CHAIN();
}
void PCB_TUNING_PATTERN::ViewDraw( int aLayer, KIGFX::VIEW* aView ) const
{
if( !IsSelected() && !IsNew() )
return;
KIGFX::PREVIEW::DRAW_CONTEXT ctx( *aView );
int size = KiROUND( aView->ToWorld( EDIT_POINT::POINT_SIZE ) * 0.8 );
size = std::max( size, pcbIUScale.mmToIU( 0.05 ) );
if( m_baseLine )
{
for( int i = 0; i < m_baseLine->SegmentCount(); i++ )
{
SEG seg = m_baseLine->CSegment( i );
ctx.DrawLineDashed( seg.A, seg.B, size, size / 6, true );
}
}
else
{
ctx.DrawLineDashed( m_origin, m_end, size, size / 6, false );
}
if( m_tuningMode == DIFF_PAIR && m_baseLineCoupled )
{
for( int i = 0; i < m_baseLineCoupled->SegmentCount(); i++ )
{
SEG seg = m_baseLineCoupled->CSegment( i );
ctx.DrawLineDashed( seg.A, seg.B, size, size / 6, true );
}
}
SHAPE_LINE_CHAIN chain = getRectShape();
for( int i = 0; i < chain.SegmentCount(); i++ )
{
SEG seg = chain.Segment( i );
ctx.DrawLineDashed( seg.A, seg.B, size, size / 2, false );
}
}
const STRING_ANY_MAP PCB_TUNING_PATTERN::GetProperties() const
{
STRING_ANY_MAP props = PCB_GENERATOR::GetProperties();
props.set( "tuning_mode", tuningToString( m_tuningMode ) );
props.set( "initial_side", sideToString( m_settings.m_initialSide ) );
props.set( "last_status", statusToString( m_tuningStatus ) );
props.set( "end", m_end );
props.set( "corner_radius_percent", m_settings.m_cornerRadiusPercentage );
props.set( "single_sided", m_settings.m_singleSided );
props.set( "rounded", m_settings.m_cornerStyle == PNS::MEANDER_STYLE_ROUND );
props.set_iu( "max_amplitude", m_settings.m_maxAmplitude );
props.set_iu( "min_amplitude", m_settings.m_minAmplitude );
props.set_iu( "min_spacing", m_settings.m_spacing );
props.set_iu( "target_length_min", m_settings.m_targetLength.Min() );
props.set_iu( "target_length", m_settings.m_targetLength.Opt() );
props.set_iu( "target_length_max", m_settings.m_targetLength.Max() );
props.set_iu( "target_skew_min", m_settings.m_targetSkew.Min() );
props.set_iu( "target_skew", m_settings.m_targetSkew.Opt() );
props.set_iu( "target_skew_max", m_settings.m_targetSkew.Max() );
props.set_iu( "last_track_width", m_trackWidth );
props.set_iu( "last_diff_pair_gap", m_diffPairGap );
props.set( "last_netname", m_lastNetName );
props.set( "last_tuning", m_tuningInfo );
props.set( "override_custom_rules", m_settings.m_overrideCustomRules );
if( m_baseLine )
props.set( "base_line", wxAny( *m_baseLine ) );
if( m_baseLineCoupled )
props.set( "base_line_coupled", wxAny( *m_baseLineCoupled ) );
return props;
}
void PCB_TUNING_PATTERN::SetProperties( const STRING_ANY_MAP& aProps )
{
PCB_GENERATOR::SetProperties( aProps );
wxString tuningMode;
aProps.get_to( "tuning_mode", tuningMode );
m_tuningMode = tuningFromString( tuningMode.utf8_string() );
wxString side;
aProps.get_to( "initial_side", side );
m_settings.m_initialSide = sideFromString( side.utf8_string() );
wxString status;
aProps.get_to( "last_status", status );
m_tuningStatus = statusFromString( status.utf8_string() );
aProps.get_to( "end", m_end );
aProps.get_to( "corner_radius_percent", m_settings.m_cornerRadiusPercentage );
aProps.get_to( "single_sided", m_settings.m_singleSided );
aProps.get_to( "side", m_settings.m_initialSide );
bool rounded;
aProps.get_to( "rounded", rounded );
m_settings.m_cornerStyle = rounded ? PNS::MEANDER_STYLE_ROUND : PNS::MEANDER_STYLE_CHAMFER;
long long int val;
aProps.get_to_iu( "target_length", val );
m_settings.SetTargetLength( val );
if( aProps.get_to_iu( "target_length_min", val ) )
m_settings.m_targetLength.SetMin( val );
if( aProps.get_to_iu( "target_length_max", val ) )
m_settings.m_targetLength.SetMax( val );
int int_val;
aProps.get_to_iu( "target_skew", int_val );
m_settings.SetTargetSkew( int_val );
if( aProps.get_to_iu( "target_skew_min", int_val ) )
m_settings.m_targetSkew.SetMin( int_val );
if( aProps.get_to_iu( "target_skew_max", int_val ) )
m_settings.m_targetSkew.SetMax( int_val );
aProps.get_to_iu( "max_amplitude", m_settings.m_maxAmplitude );
aProps.get_to_iu( "min_amplitude", m_settings.m_minAmplitude );
aProps.get_to_iu( "min_spacing", m_settings.m_spacing );
aProps.get_to_iu( "last_track_width", m_trackWidth );
aProps.get_to_iu( "last_diff_pair_gap", m_diffPairGap );
aProps.get_to( "override_custom_rules", m_settings.m_overrideCustomRules );
aProps.get_to( "last_netname", m_lastNetName );
aProps.get_to( "last_tuning", m_tuningInfo );
if( auto baseLine = aProps.get_opt<SHAPE_LINE_CHAIN>( "base_line" ) )
m_baseLine = *baseLine;
if( auto baseLineCoupled = aProps.get_opt<SHAPE_LINE_CHAIN>( "base_line_coupled" ) )
m_baseLineCoupled = *baseLineCoupled;
}
void PCB_TUNING_PATTERN::ShowPropertiesDialog( PCB_BASE_EDIT_FRAME* aEditFrame )
{
PNS::MEANDER_SETTINGS settings = m_settings;
DRC_CONSTRAINT constraint;
if( !m_items.empty() )
{
BOARD_ITEM* startItem = *m_items.begin();
std::shared_ptr<DRC_ENGINE>& drcEngine = GetBoard()->GetDesignSettings().m_DRCEngine;
constraint = drcEngine->EvalRules( LENGTH_CONSTRAINT, startItem, nullptr, GetLayer() );
if( !constraint.IsNull() && !settings.m_overrideCustomRules )
settings.SetTargetLength( constraint.GetValue() );
}
DIALOG_TUNING_PATTERN_PROPERTIES dlg( aEditFrame, settings, GetPNSMode(), constraint );
if( dlg.ShowModal() == wxID_OK )
{
BOARD_COMMIT commit( aEditFrame );
commit.Modify( this );
m_settings = settings;
GENERATOR_TOOL* generatorTool = aEditFrame->GetToolManager()->GetTool<GENERATOR_TOOL>();
EditStart( generatorTool, GetBoard(), &commit );
Update( generatorTool, GetBoard(), &commit );
EditPush( generatorTool, GetBoard(), &commit );
}
}
std::vector<EDA_ITEM*> PCB_TUNING_PATTERN::GetPreviewItems( GENERATOR_TOOL* aTool,
PCB_BASE_EDIT_FRAME* aFrame,
bool aStatusItemsOnly )
{
std::vector<EDA_ITEM*> previewItems;
KIGFX::VIEW* view = aFrame->GetCanvas()->GetView();
if( auto* placer = dynamic_cast<PNS::MEANDER_PLACER_BASE*>( aTool->Router()->Placer() ) )
{
if( !aStatusItemsOnly )
{
PNS::ITEM_SET items = placer->TunedPath();
for( PNS::ITEM* item : items )
previewItems.push_back( new ROUTER_PREVIEW_ITEM( item, view, PNS_HOVER_ITEM ) );
}
TUNING_STATUS_VIEW_ITEM* statusItem = new TUNING_STATUS_VIEW_ITEM( aFrame );
if( m_unconstrained )
{
statusItem->ClearMinMax();
}
else if( m_tuningMode == DIFF_PAIR_SKEW )
{
statusItem->SetMinMax( m_settings.m_targetSkew.Min(), m_settings.m_targetSkew.Max() );
}
else
{
statusItem->SetMinMax( (double) m_settings.m_targetLength.Min(),
(double) m_settings.m_targetLength.Max() );
}
if( m_tuningMode == DIFF_PAIR_SKEW )
statusItem->SetCurrent( (double) placer->TuningResult(), _( "current skew" ) );
else
statusItem->SetCurrent( (double) placer->TuningResult(), _( "current length" ) );
statusItem->SetPosition( aFrame->GetToolManager()->GetMousePosition() );
previewItems.push_back( statusItem );
}
return previewItems;
}
void PCB_TUNING_PATTERN::GetMsgPanelInfo( EDA_DRAW_FRAME* aFrame,
std::vector<MSG_PANEL_ITEM>& aList )
{
wxString msg;
NETINFO_ITEM* primaryNet = nullptr;
NETINFO_ITEM* coupledNet = nullptr;
PCB_TRACK* primaryItem = nullptr;
PCB_TRACK* coupledItem = nullptr;
NETCLASS* netclass = nullptr;
int width = 0;
bool mixedWidth = false;
aList.emplace_back( _( "Type" ), GetFriendlyName() );
for( BOARD_ITEM* member : GetItems() )
{
if( PCB_TRACK* track = dynamic_cast<PCB_TRACK*>( member ) )
{
if( !primaryNet )
{
primaryItem = track;
primaryNet = track->GetNet();
}
else if( !coupledNet && track->GetNet() != primaryNet )
{
coupledItem = track;
coupledNet = track->GetNet();
}
if( !netclass )
netclass = track->GetEffectiveNetClass();
if( !width )
width = track->GetWidth();
else if( width != track->GetWidth() )
mixedWidth = true;
}
}
if( coupledNet )
{
aList.emplace_back( _( "Nets" ), UnescapeString( primaryNet->GetNetname() )
+ wxS( ", " )
+ UnescapeString( coupledNet->GetNetname() ) );
}
else if( primaryNet )
{
aList.emplace_back( _( "Net" ), UnescapeString( primaryNet->GetNetname() ) );
}
if( netclass )
aList.emplace_back( _( "Resolved Netclass" ), UnescapeString( netclass->GetName() ) );
aList.emplace_back( _( "Layer" ), layerMaskDescribe() );
if( width && !mixedWidth )
aList.emplace_back( _( "Width" ), aFrame->MessageTextFromValue( width ) );
BOARD* board = GetBoard();
std::shared_ptr<DRC_ENGINE>& drcEngine = board->GetDesignSettings().m_DRCEngine;
DRC_CONSTRAINT constraint;
// Display full track length (in Pcbnew)
if( board && primaryItem && primaryItem->GetNetCode() > 0 )
{
int count;
double trackLen;
double lenPadToDie;
std::tie( count, trackLen, lenPadToDie ) = board->GetTrackLength( *primaryItem );
if( coupledItem && coupledItem->GetNetCode() > 0 )
{
double coupledLen;
std::tie( count, coupledLen, lenPadToDie ) = board->GetTrackLength( *coupledItem );
aList.emplace_back( _( "Routed Lengths" ), aFrame->MessageTextFromValue( trackLen )
+ wxS( ", " )
+ aFrame->MessageTextFromValue( coupledLen ) );
}
else
{
aList.emplace_back( _( "Routed Length" ), aFrame->MessageTextFromValue( trackLen ) );
}
if( lenPadToDie != 0 )
{
msg = aFrame->MessageTextFromValue( lenPadToDie );
aList.emplace_back( _( "Pad To Die Length" ), msg );
msg = aFrame->MessageTextFromValue( trackLen + lenPadToDie );
aList.emplace_back( _( "Full Length" ), msg );
}
}
if( m_tuningMode == DIFF_PAIR_SKEW )
{
constraint = drcEngine->EvalRules( SKEW_CONSTRAINT, primaryItem, coupledItem, m_layer );
if( constraint.IsNull() || m_settings.m_overrideCustomRules )
{
msg = aFrame->MessageTextFromValue( m_settings.m_targetSkew.Opt() );
aList.emplace_back( wxString::Format( _( "Target Skew: %s" ), msg ),
wxString::Format( _( "(from tuning pattern properties)" ) ) );
}
else
{
msg = aFrame->MessageTextFromMinOptMax( constraint.GetValue() );
if( !msg.IsEmpty() )
{
aList.emplace_back( wxString::Format( _( "Skew Constraints: %s" ), msg ),
wxString::Format( _( "(from %s)" ), constraint.GetName() ) );
}
}
}
else
{
constraint = drcEngine->EvalRules( LENGTH_CONSTRAINT, primaryItem, coupledItem, m_layer );
if( constraint.IsNull() || m_settings.m_overrideCustomRules )
{
msg = aFrame->MessageTextFromValue( (double) m_settings.m_targetLength.Opt() );
aList.emplace_back( wxString::Format( _( "Target Length: %s" ), msg ),
wxString::Format( _( "(from tuning pattern properties)" ) ) );
}
else
{
msg = aFrame->MessageTextFromMinOptMax( constraint.GetValue() );
if( !msg.IsEmpty() )
{
aList.emplace_back( wxString::Format( _( "Length Constraints: %s" ), msg ),
wxString::Format( _( "(from %s)" ), constraint.GetName() ) );
}
}
}
}
const wxString PCB_TUNING_PATTERN::DISPLAY_NAME = _HKI( "Tuning Pattern" );
const wxString PCB_TUNING_PATTERN::GENERATOR_TYPE = wxS( "tuning_pattern" );
using SCOPED_DRAW_MODE = SCOPED_SET_RESET<DRAWING_TOOL::MODE>;
#define HITTEST_THRESHOLD_PIXELS 5
int DRAWING_TOOL::PlaceTuningPattern( const TOOL_EVENT& aEvent )
{
if( m_inDrawingTool )
return 0;
REENTRANCY_GUARD guard( &m_inDrawingTool );
m_toolMgr->RunAction( PCB_ACTIONS::selectionClear );
m_frame->PushTool( aEvent );
Activate();
BOARD* board = m_frame->GetBoard();
std::shared_ptr<DRC_ENGINE>& drcEngine = board->GetDesignSettings().m_DRCEngine;
GENERATOR_TOOL* generatorTool = m_toolMgr->GetTool<GENERATOR_TOOL>();
PNS::ROUTER* router = generatorTool->Router();
LENGTH_TUNING_MODE mode = fromPNSMode( aEvent.Parameter<PNS::ROUTER_MODE>() );
KIGFX::VIEW_CONTROLS* controls = getViewControls();
PCB_SELECTION_TOOL* selectionTool = m_toolMgr->GetTool<PCB_SELECTION_TOOL>();
GENERAL_COLLECTORS_GUIDE guide = m_frame->GetCollectorsGuide();
SCOPED_DRAW_MODE scopedDrawMode( m_mode, MODE::TUNING );
m_pickerItem = nullptr;
m_tuningPattern = nullptr;
// Add a VIEW_GROUP that serves as a preview for the new item
m_preview.Clear();
m_view->Add( &m_preview );
auto setCursor =
[&]()
{
m_frame->GetCanvas()->SetCurrentCursor( KICURSOR::BULLSEYE );
controls->ShowCursor( true );
};
auto updateHoverStatus =
[&]()
{
std::unique_ptr<PCB_TUNING_PATTERN> dummyPattern;
if( m_pickerItem )
{
dummyPattern.reset( PCB_TUNING_PATTERN::CreateNew( generatorTool, m_frame,
m_pickerItem, mode ) );
dummyPattern->SetPosition( m_pickerItem->GetPosition() );
dummyPattern->SetEnd( m_pickerItem->GetPosition() );
}
if( dummyPattern )
{
dummyPattern->EditStart( generatorTool, m_board, nullptr );
dummyPattern->Update( generatorTool, m_board, nullptr );
m_preview.FreeItems();
for( EDA_ITEM* item : dummyPattern->GetPreviewItems( generatorTool, m_frame ) )
m_preview.Add( item );
generatorTool->Router()->StopRouting();
m_view->Update( &m_preview );
}
else
{
m_preview.FreeItems();
m_view->Update( &m_preview );
}
};
auto updateTuningPattern =
[&]()
{
if( m_tuningPattern && m_tuningPattern->GetPosition() != m_tuningPattern->GetEnd() )
{
m_tuningPattern->EditStart( generatorTool, m_board, nullptr );
m_tuningPattern->Update( generatorTool, m_board, nullptr );
m_preview.FreeItems();
for( EDA_ITEM* item : m_tuningPattern->GetPreviewItems( generatorTool, m_frame,
true ) )
{
m_preview.Add( item );
}
m_view->Update( &m_preview );
}
};
// Set initial cursor
setCursor();
while( TOOL_EVENT* evt = Wait() )
{
setCursor();
VECTOR2D cursorPos = controls->GetMousePosition();
if( evt->IsCancelInteractive() || evt->IsActivate() )
{
if( m_tuningPattern )
{
// First click already made; clean up tuning pattern preview
m_tuningPattern->EditRevert( generatorTool, m_board, nullptr );
delete m_tuningPattern;
m_tuningPattern = nullptr;
}
break;
}
else if( evt->IsMotion() )
{
if( !m_tuningPattern )
{
// First click not yet made; we're in highlight-net-under-cursor mode
GENERAL_COLLECTOR collector;
collector.m_Threshold = KiROUND( getView()->ToWorld( HITTEST_THRESHOLD_PIXELS ) );
if( m_frame->GetDisplayOptions().m_ContrastModeDisplay != HIGH_CONTRAST_MODE::NORMAL )
guide.SetIncludeSecondary( false );
else
guide.SetIncludeSecondary( true );
collector.Collect( board, { PCB_TRACE_T, PCB_ARC_T }, cursorPos, guide );
if( collector.GetCount() > 1 )
selectionTool->GuessSelectionCandidates( collector, cursorPos );
if( collector.GetCount() == 1 )
m_pickerItem = static_cast<BOARD_CONNECTED_ITEM*>( collector[0] );
else
m_pickerItem = nullptr;
updateHoverStatus();
}
else
{
// First click already made; we're in preview-tuning-pattern mode
m_tuningPattern->SetEnd( cursorPos );
updateTuningPattern();
}
}
else if( evt->IsClick( BUT_LEFT ) )
{
if( m_pickerItem && !m_tuningPattern )
{
// First click; create a tuning pattern
m_preview.FreeItems();
m_frame->SetActiveLayer( m_pickerItem->GetLayer() );
m_tuningPattern = PCB_TUNING_PATTERN::CreateNew( generatorTool, m_frame,
m_pickerItem, mode );
int dummyDist;
int dummyClearance = std::numeric_limits<int>::max() / 2;
VECTOR2I closestPt;
// With an artificially-large clearance this can't *not* collide, but the
// if stmt keeps Coverity happy....
if( m_pickerItem->GetEffectiveShape()->Collide( cursorPos, dummyClearance,
&dummyDist, &closestPt ) )
{
m_tuningPattern->SetPosition( closestPt );
m_tuningPattern->SetEnd( closestPt );
}
m_preview.Add( m_tuningPattern->Clone() );
}
else if( m_pickerItem && m_tuningPattern )
{
// Second click; we're done
BOARD_COMMIT commit( m_frame );
m_tuningPattern->EditStart( generatorTool, m_board, &commit );
m_tuningPattern->Update( generatorTool, m_board, &commit );
m_tuningPattern->EditPush( generatorTool, m_board, &commit, _( "Tune" ) );
for( BOARD_ITEM* item : m_tuningPattern->GetItems() )
item->SetSelected();
break;
}
}
else if( evt->IsClick( BUT_RIGHT ) )
{
PCB_SELECTION dummy;
m_menu.ShowContextMenu( dummy );
}
else if( evt->IsAction( &PCB_ACTIONS::spacingIncrease )
|| evt->IsAction( &PCB_ACTIONS::spacingDecrease ) )
{
if( m_tuningPattern )
{
auto* placer = static_cast<PNS::MEANDER_PLACER_BASE*>( router->Placer() );
placer->SpacingStep( evt->IsAction( &PCB_ACTIONS::spacingIncrease ) ? 1 : -1 );
m_tuningPattern->SetSpacing( placer->MeanderSettings().m_spacing );
updateTuningPattern();
}
}
else if( evt->IsAction( &PCB_ACTIONS::amplIncrease )
|| evt->IsAction( &PCB_ACTIONS::amplDecrease ) )
{
if( m_tuningPattern )
{
auto* placer = static_cast<PNS::MEANDER_PLACER_BASE*>( router->Placer() );
placer->AmplitudeStep( evt->IsAction( &PCB_ACTIONS::amplIncrease ) ? 1 : -1 );
m_tuningPattern->SetMaxAmplitude( placer->MeanderSettings().m_maxAmplitude );
updateTuningPattern();
}
}
else if( evt->IsAction( &PCB_ACTIONS::properties ) )
{
if( m_tuningPattern )
{
DRC_CONSTRAINT constraint;
if( !m_tuningPattern->GetItems().empty() )
{
BOARD_ITEM* startItem = *m_tuningPattern->GetItems().begin();
constraint = drcEngine->EvalRules( LENGTH_CONSTRAINT, startItem, nullptr,
startItem->GetLayer() );
}
DIALOG_TUNING_PATTERN_PROPERTIES dlg( m_frame, m_tuningPattern->GetSettings(),
m_tuningPattern->GetPNSMode(), constraint );
if( dlg.ShowModal() == wxID_OK )
updateTuningPattern();
}
}
// TODO: It'd be nice to be able to say "don't allow any non-trivial editing actions",
// but we don't at present have that, so we just knock out some of the egregious ones.
else if( ZONE_FILLER_TOOL::IsZoneFillAction( evt ) )
{
wxBell();
}
else
{
evt->SetPassEvent();
}
controls->CaptureCursor( m_tuningPattern != nullptr );
controls->SetAutoPan( m_tuningPattern != nullptr );
}
controls->CaptureCursor( false );
controls->SetAutoPan( false );
controls->ForceCursorPosition( false );
controls->ShowCursor( false );
m_frame->GetCanvas()->SetCurrentCursor( KICURSOR::ARROW );
m_preview.FreeItems();
m_view->Remove( &m_preview );
m_frame->GetCanvas()->Refresh();
if( m_tuningPattern )
selectionTool->AddItemToSel( m_tuningPattern );
m_frame->PopTool( aEvent );
return 0;
}
static struct PCB_TUNING_PATTERN_DESC
{
PCB_TUNING_PATTERN_DESC()
{
ENUM_MAP<LENGTH_TUNING_MODE>::Instance()
.Map( LENGTH_TUNING_MODE::SINGLE, _HKI( "Single track" ) )
.Map( LENGTH_TUNING_MODE::DIFF_PAIR, _HKI( "Differential pair" ) )
.Map( LENGTH_TUNING_MODE::DIFF_PAIR_SKEW, _HKI( "Diff pair skew" ) );
ENUM_MAP<PNS::MEANDER_SIDE>::Instance()
.Map( PNS::MEANDER_SIDE_LEFT, _HKI( "Left" ) )
.Map( PNS::MEANDER_SIDE_RIGHT, _HKI( "Right" ) )
.Map( PNS::MEANDER_SIDE_DEFAULT, _HKI( "Default" ) );
PROPERTY_MANAGER& propMgr = PROPERTY_MANAGER::Instance();
REGISTER_TYPE( PCB_TUNING_PATTERN );
propMgr.AddTypeCast( new TYPE_CAST<PCB_TUNING_PATTERN, PCB_GENERATOR> );
propMgr.AddTypeCast( new TYPE_CAST<PCB_TUNING_PATTERN, BOARD_ITEM> );
propMgr.InheritsAfter( TYPE_HASH( PCB_TUNING_PATTERN ), TYPE_HASH( PCB_GENERATOR ) );
propMgr.InheritsAfter( TYPE_HASH( PCB_TUNING_PATTERN ), TYPE_HASH( BOARD_ITEM ) );
const wxString groupTab = _HKI( "Pattern Properties" );
propMgr.AddProperty( new PROPERTY<PCB_TUNING_PATTERN, int>(
_HKI( "End X" ), &PCB_TUNING_PATTERN::SetEndX,
&PCB_TUNING_PATTERN::GetEndX, PROPERTY_DISPLAY::PT_SIZE,
ORIGIN_TRANSFORMS::ABS_X_COORD ),
groupTab );
propMgr.AddProperty( new PROPERTY<PCB_TUNING_PATTERN, int>(
_HKI( "End Y" ), &PCB_TUNING_PATTERN::SetEndY,
&PCB_TUNING_PATTERN::GetEndY, PROPERTY_DISPLAY::PT_SIZE,
ORIGIN_TRANSFORMS::ABS_Y_COORD ),
groupTab );
propMgr.AddProperty( new PROPERTY_ENUM<PCB_TUNING_PATTERN, LENGTH_TUNING_MODE>(
_HKI( "Tuning Mode" ),
NO_SETTER( PCB_TUNING_PATTERN, LENGTH_TUNING_MODE ),
&PCB_TUNING_PATTERN::GetTuningMode ),
groupTab );
propMgr.AddProperty( new PROPERTY<PCB_TUNING_PATTERN, int>(
_HKI( "Min Amplitude" ),
&PCB_TUNING_PATTERN::SetMinAmplitude,
&PCB_TUNING_PATTERN::GetMinAmplitude,
PROPERTY_DISPLAY::PT_SIZE, ORIGIN_TRANSFORMS::ABS_X_COORD ),
groupTab );
propMgr.AddProperty( new PROPERTY<PCB_TUNING_PATTERN, int>(
_HKI( "Max Amplitude" ),
&PCB_TUNING_PATTERN::SetMaxAmplitude,
&PCB_TUNING_PATTERN::GetMaxAmplitude,
PROPERTY_DISPLAY::PT_SIZE, ORIGIN_TRANSFORMS::ABS_X_COORD ),
groupTab );
propMgr.AddProperty( new PROPERTY_ENUM<PCB_TUNING_PATTERN, PNS::MEANDER_SIDE>(
_HKI( "Initial Side" ),
&PCB_TUNING_PATTERN::SetInitialSide,
&PCB_TUNING_PATTERN::GetInitialSide ),
groupTab );
propMgr.AddProperty( new PROPERTY<PCB_TUNING_PATTERN, int>(
_HKI( "Min Spacing" ), &PCB_TUNING_PATTERN::SetSpacing,
&PCB_TUNING_PATTERN::GetSpacing, PROPERTY_DISPLAY::PT_SIZE,
ORIGIN_TRANSFORMS::ABS_X_COORD ),
groupTab );
propMgr.AddProperty( new PROPERTY<PCB_TUNING_PATTERN, int>(
_HKI( "Corner Radius %" ),
&PCB_TUNING_PATTERN::SetCornerRadiusPercentage,
&PCB_TUNING_PATTERN::GetCornerRadiusPercentage,
PROPERTY_DISPLAY::PT_DEFAULT, ORIGIN_TRANSFORMS::NOT_A_COORD ),
groupTab );
auto isSkew =
[]( INSPECTABLE* aItem ) -> bool
{
if( PCB_TUNING_PATTERN* pattern = dynamic_cast<PCB_TUNING_PATTERN*>( aItem ) )
return pattern->GetTuningMode() == DIFF_PAIR_SKEW;
return false;
};
auto notIsSkew =
[&]( INSPECTABLE* aItem ) -> bool
{
return !isSkew( aItem );
};
propMgr.AddProperty( new PROPERTY<PCB_TUNING_PATTERN, long long int>(
_HKI( "Target Length" ),
&PCB_TUNING_PATTERN::SetTargetLength,
&PCB_TUNING_PATTERN::GetTargetLength,
PROPERTY_DISPLAY::PT_SIZE, ORIGIN_TRANSFORMS::ABS_X_COORD ),
groupTab )
.SetAvailableFunc( notIsSkew );
propMgr.AddProperty( new PROPERTY<PCB_TUNING_PATTERN, int>(
_HKI( "Target Skew" ), &PCB_TUNING_PATTERN::SetTargetSkew,
&PCB_TUNING_PATTERN::GetTargetSkew,
PROPERTY_DISPLAY::PT_SIZE, ORIGIN_TRANSFORMS::ABS_X_COORD ),
groupTab )
.SetAvailableFunc( isSkew );
propMgr.AddProperty( new PROPERTY<PCB_TUNING_PATTERN, bool>(
_HKI( "Override Custom Rules" ),
&PCB_TUNING_PATTERN::SetOverrideCustomRules,
&PCB_TUNING_PATTERN::GetOverrideCustomRules ),
groupTab );
propMgr.AddProperty( new PROPERTY<PCB_TUNING_PATTERN, bool>(
_HKI( "Single-sided" ),
&PCB_TUNING_PATTERN::SetSingleSided,
&PCB_TUNING_PATTERN::IsSingleSided ),
groupTab );
propMgr.AddProperty( new PROPERTY<PCB_TUNING_PATTERN, bool>(
_HKI( "Rounded" ), &PCB_TUNING_PATTERN::SetRounded,
&PCB_TUNING_PATTERN::IsRounded ),
groupTab );
}
} _PCB_TUNING_PATTERN_DESC;
ENUM_TO_WXANY( LENGTH_TUNING_MODE )
ENUM_TO_WXANY( PNS::MEANDER_SIDE )
static GENERATORS_MGR::REGISTER<PCB_TUNING_PATTERN> registerMe;
// Also register under the 7.99 name
template <typename T>
struct REGISTER_LEGACY_TUNING_PATTERN
{
REGISTER_LEGACY_TUNING_PATTERN()
{
GENERATORS_MGR::Instance().Register( wxS( "meanders" ), T::DISPLAY_NAME,
[]()
{
return new T;
} );
}
};
static REGISTER_LEGACY_TUNING_PATTERN<PCB_TUNING_PATTERN> registerMeToo;
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