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kicad-source/eeschema/sim/simulator_frame_ui.cpp
aris-kimi e80780d3ad Added more simulation cursors at will. 
Added m_signalsGrid context menu entries, Create a new cursor from every cell but Delete only from Cursor 3 and above

New entries are saved into their *.wbk files. Loading of current files should not be affected, as tested,
and on save they get the new property added.

Updates *.wbk file version to "7".

If the tab has more cursors than the loaded file, extra cursors should not be affected, otherwise new cursors shown up.
CursorD left hopefully untouched and kept the legacy behavior close to Cursors 1 & 2.

No more known bugs. It is now working as expected as tested on win11 and Debian 12.

m_cursorsGrid events also work.

Fixes: https://gitlab.com/kicad/code/kicad/-/issues/15211
2025-02-27 22:42:11 +00:00

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/*
* This program source code file is part of KiCad, a free EDA CAD application.
*
* Copyright (C) 2016-2023 CERN
* Copyright The KiCad Developers, see AUTHORS.txt for contributors.
* @author Tomasz Wlostowski <tomasz.wlostowski@cern.ch>
* @author Maciej Suminski <maciej.suminski@cern.ch>
*
* 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 3
* 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:
* https://www.gnu.org/licenses/gpl-3.0.html
* or you may search the http://www.gnu.org website for the version 3 license,
* or you may write to the Free Software Foundation, Inc.,
* 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA
*/
#include <memory>
#include <type_traits>
#include <wx/event.h>
#include <fmt/format.h>
#include <wx/wfstream.h>
#include <wx/stdstream.h>
#include <wx/debug.h>
#include <wx/clipbrd.h>
#include <wx/log.h>
#include <project/project_file.h>
#include <sch_edit_frame.h>
#include <confirm.h>
#include <wildcards_and_files_ext.h>
#include <widgets/tuner_slider.h>
#include <widgets/grid_color_swatch_helpers.h>
#include <widgets/wx_grid.h>
#include <grid_tricks.h>
#include <eda_pattern_match.h>
#include <string_utils.h>
#include <pgm_base.h>
#include <sim/simulator_frame_ui.h>
#include <sim/simulator_frame.h>
#include <sim/sim_plot_tab.h>
#include <sim/spice_simulator.h>
#include <dialogs/dialog_text_entry.h>
#include <dialogs/dialog_sim_format_value.h>
#include <eeschema_settings.h>
SIM_TRACE_TYPE operator|( SIM_TRACE_TYPE aFirst, SIM_TRACE_TYPE aSecond )
{
int res = static_cast<int>( aFirst ) | static_cast<int>( aSecond);
return static_cast<SIM_TRACE_TYPE>( res );
}
enum SIGNALS_GRID_COLUMNS
{
COL_SIGNAL_NAME = 0,
COL_SIGNAL_SHOW,
COL_SIGNAL_COLOR,
COL_CURSOR_1,
COL_CURSOR_2
};
enum CURSORS_GRID_COLUMNS
{
COL_CURSOR_NAME = 0,
COL_CURSOR_SIGNAL,
COL_CURSOR_X,
COL_CURSOR_Y
};
enum MEASUREMENTS_GIRD_COLUMNS
{
COL_MEASUREMENT = 0,
COL_MEASUREMENT_VALUE,
COL_MEASUREMENT_FORMAT
};
enum
{
MYID_MEASURE_MIN = GRIDTRICKS_FIRST_CLIENT_ID,
MYID_MEASURE_MAX,
MYID_MEASURE_AVG,
MYID_MEASURE_RMS,
MYID_MEASURE_PP,
MYID_MEASURE_MIN_AT,
MYID_MEASURE_MAX_AT,
MYID_MEASURE_INTEGRAL,
MYID_FOURIER,
MYID_FORMAT_VALUE,
MYID_DELETE_MEASUREMENT
};
class SIGNALS_GRID_TRICKS : public GRID_TRICKS
{
public:
SIGNALS_GRID_TRICKS( SIMULATOR_FRAME_UI* aParent, WX_GRID* aGrid ) :
GRID_TRICKS( aGrid ),
m_parent( aParent ),
m_menuRow( 0 ),
m_menuCol( 0 )
{}
protected:
void showPopupMenu( wxMenu& menu, wxGridEvent& aEvent ) override;
void doPopupSelection( wxCommandEvent& event ) override;
protected:
SIMULATOR_FRAME_UI* m_parent;
int m_menuRow;
int m_menuCol;
};
void SIGNALS_GRID_TRICKS::showPopupMenu( wxMenu& menu, wxGridEvent& aEvent )
{
SIM_TAB* panel = m_parent->GetCurrentSimTab();
if( !panel )
return;
m_menuRow = aEvent.GetRow();
m_menuCol = aEvent.GetCol();
if( m_menuCol == COL_SIGNAL_NAME )
{
if( !( m_grid->IsInSelection( m_menuRow, m_menuCol ) ) )
m_grid->ClearSelection();
m_grid->SetGridCursor( m_menuRow, m_menuCol );
if( panel->GetSimType() == ST_TRAN || panel->GetSimType() == ST_AC
|| panel->GetSimType() == ST_DC || panel->GetSimType() == ST_SP )
{
menu.Append( MYID_MEASURE_MIN, _( "Measure Min" ) );
menu.Append( MYID_MEASURE_MAX, _( "Measure Max" ) );
menu.Append( MYID_MEASURE_AVG, _( "Measure Average" ) );
menu.Append( MYID_MEASURE_RMS, _( "Measure RMS" ) );
menu.Append( MYID_MEASURE_PP, _( "Measure Peak-to-peak" ) );
if( panel->GetSimType() == ST_AC || panel->GetSimType() == ST_SP )
{
menu.Append( MYID_MEASURE_MIN_AT, _( "Measure Frequency of Min" ) );
menu.Append( MYID_MEASURE_MAX_AT, _( "Measure Frequency of Max" ) );
}
else
{
menu.Append( MYID_MEASURE_MIN_AT, _( "Measure Time of Min" ) );
menu.Append( MYID_MEASURE_MAX_AT, _( "Measure Time of Max" ) );
}
menu.Append( MYID_MEASURE_INTEGRAL, _( "Measure Integral" ) );
if( panel->GetSimType() == ST_TRAN )
{
menu.AppendSeparator();
menu.Append( MYID_FOURIER, _( "Perform Fourier Analysis..." ) );
}
menu.AppendSeparator();
menu.Append( GRIDTRICKS_ID_COPY, _( "Copy Signal Name" ) + "\tCtrl+C" );
menu.AppendSeparator();
menu.Append( GRIDTRICKS_ID_SELECT, _( "Create new cursor..." ) );
m_grid->PopupMenu( &menu );
}
}
else if( m_menuCol > static_cast<int>( COL_CURSOR_2 ) )
{
menu.Append( GRIDTRICKS_ID_SELECT, _( "Create new cursor..." ) );
menu.AppendSeparator();
wxString msg = m_grid->GetColLabelValue( m_grid->GetNumberCols() - 1 );
menu.AppendSeparator();
menu.Append( GRIDTRICKS_ID_DELETE, wxString::Format( _( "Delete %s..." ), msg ) );
m_grid->PopupMenu( &menu );
}
else
{
menu.Append( GRIDTRICKS_ID_SELECT, _( "Create new cursor..." ) );
m_grid->PopupMenu( &menu );
}
}
void SIGNALS_GRID_TRICKS::doPopupSelection( wxCommandEvent& event )
{
std::vector<wxString> signals;
wxGridCellCoordsArray cells1 = m_grid->GetSelectionBlockTopLeft();
wxGridCellCoordsArray cells2 = m_grid->GetSelectionBlockBottomRight();
for( size_t i = 0; i < cells1.Count(); i++ )
{
if( cells1[i].GetCol() == COL_SIGNAL_NAME )
{
for( int j = cells1[i].GetRow(); j < cells2[i].GetRow() + 1; j++ )
{
signals.push_back( m_grid->GetCellValue( j, cells1[i].GetCol() ) );
}
}
}
wxGridCellCoordsArray cells3 = m_grid->GetSelectedCells();
for( size_t i = 0; i < cells3.Count(); i++ )
{
if( cells3[i].GetCol() == COL_SIGNAL_NAME )
signals.push_back( m_grid->GetCellValue( cells3[i].GetRow(), cells3[i].GetCol() ) );
}
if( signals.size() < 1 )
signals.push_back( m_grid->GetCellValue( m_menuRow, m_menuCol ) );
auto addMeasurement =
[this]( const wxString& cmd, wxString signal )
{
if( signal.EndsWith( _( " (phase)" ) ) )
return;
if( signal.EndsWith( _( " (gain)" ) ) || signal.EndsWith( _( " (amplitude)" ) ) )
{
signal = signal.Left( signal.length() - 7 );
if( signal.Upper().StartsWith( wxS( "V(" ) ) )
signal = wxS( "vdb" ) + signal.Mid( 1 );
}
m_parent->AddMeasurement( cmd + wxS( " " ) + signal );
};
if( event.GetId() == MYID_MEASURE_MIN )
{
for( const wxString& signal : signals )
addMeasurement( wxS( "MIN" ), signal );
}
else if( event.GetId() == MYID_MEASURE_MAX )
{
for( const wxString& signal : signals )
addMeasurement( wxS( "MAX" ), signal );
}
else if( event.GetId() == MYID_MEASURE_AVG )
{
for( const wxString& signal : signals )
addMeasurement( wxS( "AVG" ), signal );
}
else if( event.GetId() == MYID_MEASURE_RMS )
{
for( const wxString& signal : signals )
addMeasurement( wxS( "RMS" ), signal );
}
else if( event.GetId() == MYID_MEASURE_PP )
{
for( const wxString& signal : signals )
addMeasurement( wxS( "PP" ), signal );
}
else if( event.GetId() == MYID_MEASURE_MIN_AT )
{
for( const wxString& signal : signals )
addMeasurement( wxS( "MIN_AT" ), signal );
}
else if( event.GetId() == MYID_MEASURE_MAX_AT )
{
for( const wxString& signal : signals )
addMeasurement( wxS( "MAX_AT" ), signal );
}
else if( event.GetId() == MYID_MEASURE_INTEGRAL )
{
for( const wxString& signal : signals )
addMeasurement( wxS( "INTEG" ), signal );
}
else if( event.GetId() == MYID_FOURIER )
{
wxString title;
wxString fundamental = wxT( "1K" );
if( signals.size() == 1 )
title.Printf( _( "Fourier Analysis of %s" ), signals[0] );
else
title = _( "Fourier Analyses of Multiple Signals" );
WX_TEXT_ENTRY_DIALOG dlg( m_parent, _( "Fundamental frequency:" ), title, fundamental );
if( dlg.ShowModal() != wxID_OK )
return;
if( !dlg.GetValue().IsEmpty() )
fundamental = dlg.GetValue();
for( const wxString& signal : signals )
m_parent->DoFourier( signal, fundamental );
}
else if( event.GetId() == GRIDTRICKS_ID_COPY )
{
wxLogNull doNotLog; // disable logging of failed clipboard actions
wxString txt;
for( const wxString& signal : signals )
{
if( !txt.IsEmpty() )
txt += '\r';
txt += signal;
}
if( wxTheClipboard->Open() )
{
wxTheClipboard->SetData( new wxTextDataObject( txt ) );
wxTheClipboard->Flush(); // Allow data to be available after closing KiCad
wxTheClipboard->Close();
}
}
else if( event.GetId() == GRIDTRICKS_ID_SELECT )
{
m_parent->CreateNewCursor();
}
else if( event.GetId() == GRIDTRICKS_ID_DELETE )
{
m_parent->DeleteCursor();
}
}
class CURSORS_GRID_TRICKS : public GRID_TRICKS
{
public:
CURSORS_GRID_TRICKS( SIMULATOR_FRAME_UI* aParent, WX_GRID* aGrid ) :
GRID_TRICKS( aGrid ),
m_parent( aParent ),
m_menuRow( 0 ),
m_menuCol( 0 )
{}
protected:
void showPopupMenu( wxMenu& menu, wxGridEvent& aEvent ) override;
void doPopupSelection( wxCommandEvent& event ) override;
protected:
SIMULATOR_FRAME_UI* m_parent;
int m_menuRow;
int m_menuCol;
};
void CURSORS_GRID_TRICKS::showPopupMenu( wxMenu& menu, wxGridEvent& aEvent )
{
m_menuRow = aEvent.GetRow();
m_menuCol = aEvent.GetCol();
if( m_menuCol == COL_CURSOR_X || m_menuCol == COL_CURSOR_Y )
{
wxString msg = m_grid->GetColLabelValue( m_menuCol );
menu.Append( MYID_FORMAT_VALUE, wxString::Format( _( "Format %s..." ), msg ) );
menu.AppendSeparator();
}
GRID_TRICKS::showPopupMenu( menu, aEvent );
}
void CURSORS_GRID_TRICKS::doPopupSelection( wxCommandEvent& event )
{
auto getSignalName =
[this]( int row ) -> wxString
{
wxString signal = m_grid->GetCellValue( row, COL_CURSOR_SIGNAL );
if( signal.EndsWith( "[2 - 1]" ) )
signal = signal.Left( signal.length() - 7 );
return signal;
};
if( event.GetId() == MYID_FORMAT_VALUE )
{
int axis = m_menuCol - COL_CURSOR_X;
SPICE_VALUE_FORMAT format = m_parent->GetCursorFormat( m_menuRow, axis );
DIALOG_SIM_FORMAT_VALUE formatDialog( m_parent, &format );
if( formatDialog.ShowModal() == wxID_OK )
{
for( int row = 0; row < m_grid->GetNumberRows(); ++row )
{
if( getSignalName( row ) == getSignalName( m_menuRow ) )
m_parent->SetCursorFormat( row, axis, format );
}
}
}
else
{
GRID_TRICKS::doPopupSelection( event );
}
}
class MEASUREMENTS_GRID_TRICKS : public GRID_TRICKS
{
public:
MEASUREMENTS_GRID_TRICKS( SIMULATOR_FRAME_UI* aParent, WX_GRID* aGrid ) :
GRID_TRICKS( aGrid ),
m_parent( aParent ),
m_menuRow( 0 ),
m_menuCol( 0 )
{}
protected:
void showPopupMenu( wxMenu& menu, wxGridEvent& aEvent ) override;
void doPopupSelection( wxCommandEvent& event ) override;
protected:
SIMULATOR_FRAME_UI* m_parent;
int m_menuRow;
int m_menuCol;
};
void MEASUREMENTS_GRID_TRICKS::showPopupMenu( wxMenu& menu, wxGridEvent& aEvent )
{
m_menuRow = aEvent.GetRow();
m_menuCol = aEvent.GetCol();
if( !( m_grid->IsInSelection( m_menuRow, m_menuCol ) ) )
m_grid->ClearSelection();
m_grid->SetGridCursor( m_menuRow, m_menuCol );
if( m_menuCol == COL_MEASUREMENT_VALUE )
menu.Append( MYID_FORMAT_VALUE, _( "Format Value..." ) );
if( m_menuRow < ( m_grid->GetNumberRows() - 1 ) )
menu.Append( MYID_DELETE_MEASUREMENT, _( "Delete Measurement" ) );
menu.AppendSeparator();
GRID_TRICKS::showPopupMenu( menu, aEvent );
}
void MEASUREMENTS_GRID_TRICKS::doPopupSelection( wxCommandEvent& event )
{
if( event.GetId() == MYID_FORMAT_VALUE )
{
SPICE_VALUE_FORMAT format = m_parent->GetMeasureFormat( m_menuRow );
DIALOG_SIM_FORMAT_VALUE formatDialog( m_parent, &format );
if( formatDialog.ShowModal() == wxID_OK )
{
m_parent->SetMeasureFormat( m_menuRow, format );
m_parent->UpdateMeasurement( m_menuRow );
m_parent->OnModify();
}
}
else if( event.GetId() == MYID_DELETE_MEASUREMENT )
{
std::vector<int> measurements;
wxGridCellCoordsArray cells1 = m_grid->GetSelectionBlockTopLeft();
wxGridCellCoordsArray cells2 = m_grid->GetSelectionBlockBottomRight();
for( size_t i = 0; i < cells1.Count(); i++ )
{
if( cells1[i].GetCol() == COL_MEASUREMENT )
{
for( int j = cells1[i].GetRow(); j < cells2[i].GetRow() + 1; j++ )
measurements.push_back( j );
}
}
wxGridCellCoordsArray cells3 = m_grid->GetSelectedCells();
for( size_t i = 0; i < cells3.Count(); i++ )
{
if( cells3[i].GetCol() == COL_MEASUREMENT )
measurements.push_back( cells3[i].GetRow() );
}
if( measurements.size() < 1 )
measurements.push_back( m_menuRow );
// When deleting a row, we'll change the indexes.
// To avoid problems, we can start with the highest indexes.
sort( measurements.begin(), measurements.end(), std::greater<>() );
for( int row : measurements )
m_parent->DeleteMeasurement( row );
m_grid->ClearSelection();
m_parent->OnModify();
}
else
{
GRID_TRICKS::doPopupSelection( event );
}
}
class SUPPRESS_GRID_CELL_EVENTS
{
public:
SUPPRESS_GRID_CELL_EVENTS( SIMULATOR_FRAME_UI* aFrame ) :
m_frame( aFrame )
{
m_frame->m_SuppressGridEvents++;
}
~SUPPRESS_GRID_CELL_EVENTS()
{
m_frame->m_SuppressGridEvents--;
}
private:
SIMULATOR_FRAME_UI* m_frame;
};
#define ID_SIM_REFRESH 10207
#define REFRESH_INTERVAL 50 // 20 frames/second.
SIMULATOR_FRAME_UI::SIMULATOR_FRAME_UI( SIMULATOR_FRAME* aSimulatorFrame,
SCH_EDIT_FRAME* aSchematicFrame ) :
SIMULATOR_FRAME_UI_BASE( aSimulatorFrame ),
m_SuppressGridEvents( 0 ),
m_simulatorFrame( aSimulatorFrame ),
m_schematicFrame( aSchematicFrame ),
m_darkMode( true ),
m_plotNumber( 0 ),
m_refreshTimer( this, ID_SIM_REFRESH )
{
// Get the previous size and position of windows:
LoadSettings( m_schematicFrame->eeconfig() );
m_filter->SetHint( _( "Filter" ) );
m_signalsGrid->wxGrid::SetLabelFont( KIUI::GetStatusFont( this ) );
m_cursorsGrid->wxGrid::SetLabelFont( KIUI::GetStatusFont( this ) );
m_measurementsGrid->wxGrid::SetLabelFont( KIUI::GetStatusFont( this ) );
m_signalsGrid->PushEventHandler( new SIGNALS_GRID_TRICKS( this, m_signalsGrid ) );
m_cursorsGrid->PushEventHandler( new CURSORS_GRID_TRICKS( this, m_cursorsGrid ) );
m_measurementsGrid->PushEventHandler( new MEASUREMENTS_GRID_TRICKS( this, m_measurementsGrid ) );
wxGridCellAttr* attr = new wxGridCellAttr;
attr->SetReadOnly();
m_signalsGrid->SetColAttr( COL_SIGNAL_NAME, attr );
attr = new wxGridCellAttr;
attr->SetReadOnly();
m_cursorsGrid->SetColAttr( COL_CURSOR_NAME, attr );
attr = new wxGridCellAttr;
attr->SetReadOnly();
m_cursorsGrid->SetColAttr( COL_CURSOR_SIGNAL, attr );
attr = new wxGridCellAttr;
attr->SetReadOnly();
m_cursorsGrid->SetColAttr( COL_CURSOR_Y, attr );
CustomCursorsInit();
attr = new wxGridCellAttr;
attr->SetReadOnly();
m_measurementsGrid->SetColAttr( COL_MEASUREMENT_VALUE, attr );
// Prepare the color list to plot traces
SIM_PLOT_COLORS::FillDefaultColorList( m_darkMode );
Bind( EVT_SIM_CURSOR_UPDATE, &SIMULATOR_FRAME_UI::onPlotCursorUpdate, this );
Bind( wxEVT_TIMER,
[&]( wxTimerEvent& aEvent )
{
OnSimRefresh( false );
if( m_simulatorFrame->GetSimulator()->IsRunning() )
m_refreshTimer.Start( REFRESH_INTERVAL, wxTIMER_ONE_SHOT );
},
m_refreshTimer.GetId() );
#ifndef wxHAS_NATIVE_TABART
// Default non-native tab art has ugly gradients we don't want
m_plotNotebook->SetArtProvider( new wxAuiSimpleTabArt() );
#endif
}
SIMULATOR_FRAME_UI::~SIMULATOR_FRAME_UI()
{
// Delete the GRID_TRICKS.
m_signalsGrid->PopEventHandler( true );
m_cursorsGrid->PopEventHandler( true );
m_measurementsGrid->PopEventHandler( true );
}
void SIMULATOR_FRAME_UI::CustomCursorsInit()
{
for( auto& m_cursorFormat : m_cursorFormats )
{
m_cursorFormat[0] = { 3, wxS( "~s" ) };
m_cursorFormat[1] = { 3, wxS( "~V" ) };
}
// proper init and transfer/copy m_cursorFormats
// we work on m_cursorFormatsDyn from now on.
// TODO: rework +- LOC when m_cursorFormatsDyn and m_cursorFormats get merged.
m_cursorFormatsDyn.clear();
m_cursorFormatsDyn.resize( std::size( m_cursorFormats ) );
for( size_t index = 0; index < std::size( m_cursorFormats ); index++ )
{
for( size_t index2 = 0; index2 < std::size( m_cursorFormats[0] ); index2++ )
{
m_cursorFormatsDyn[index].push_back( m_cursorFormats[index][index2] );
}
}
// Dump string helper, tries to get the current higher cursor name to form the next one.
// Based on the column labeling
// TODO: "Cursor n" may translate as "n Cursor" in other languages
// TBD how to handle; just forbid for now.
int nameMax = 0;
for( int i = 0; i < m_signalsGrid->GetNumberCols(); i++ )
{
wxString maxCursor = m_signalsGrid->GetColLabelValue( i );
maxCursor.Replace( _( "Cursor " ), "" );
int tmpMax = wxAtoi( maxCursor );
if( nameMax < tmpMax )
nameMax = tmpMax;
}
m_customCursorsCnt = nameMax + 1; // Init with a +1 on top of current cursor 2, defaults to 3
}
void SIMULATOR_FRAME_UI::CreateNewCursor()
{
std::vector<SPICE_VALUE_FORMAT> tmp;
// m_cursorFormatsDyn should be equal with m_cursorFormats on first entry here.
m_cursorFormatsDyn.emplace_back( tmp );
m_cursorFormatsDyn[m_customCursorsCnt].push_back( { 3, wxS( "~s" ) } );
m_cursorFormatsDyn[m_customCursorsCnt].push_back( { 3, wxS( "~V" ) } );
wxString cursor_name = wxString( _( "Cursor " ) ) << m_customCursorsCnt;
m_signalsGrid->InsertCols( m_signalsGrid->GetNumberCols() , 1, true );
m_signalsGrid->SetColLabelValue( m_signalsGrid->GetNumberCols() - 1, cursor_name );
wxGridCellAttr* attr = new wxGridCellAttr;
m_signalsGrid->SetColAttr( COL_CURSOR_2 + m_customCursorsCnt, attr );
m_customCursorsCnt++;
updateSignalsGrid();
updatePlotCursors();
OnModify();
}
void SIMULATOR_FRAME_UI::DeleteCursor()
{
int col = m_signalsGrid->GetNumberCols();
int rows = m_signalsGrid->GetNumberRows();
if( col > COL_CURSOR_2 )
{
// Now we need to find the active cursor and deactivate before removing the column,
// Send the dummy event to update the UI
for( int i = 0; i < rows; i++ )
{
if( m_signalsGrid->GetCellValue( i, col - 1 ) == wxS( "1" ) )
{
m_signalsGrid->SetCellValue( i, col - 1, wxEmptyString );
wxGridEvent aDummy( wxID_ANY, wxEVT_GRID_CELL_CHANGED, m_signalsGrid, i, col - 1 );
onSignalsGridCellChanged( aDummy );
break;
}
}
m_signalsGrid->DeleteCols( col - 1, 1, false );
m_cursorFormatsDyn.pop_back();
m_customCursorsCnt--;
m_plotNotebook->Refresh();
updateSignalsGrid();
updatePlotCursors();
OnModify();
}
}
void SIMULATOR_FRAME_UI::ShowChangedLanguage()
{
for( int ii = 0; ii < static_cast<int>( m_plotNotebook->GetPageCount() ); ++ii )
{
if( SIM_TAB* simTab = dynamic_cast<SIM_TAB*>( m_plotNotebook->GetPage( ii ) ) )
{
simTab->OnLanguageChanged();
wxString pageTitle( simulator()->TypeToName( simTab->GetSimType(), true ) );
pageTitle.Prepend( wxString::Format( _( "Analysis %u - " ), ii+1 /* 1-based */ ) );
m_plotNotebook->SetPageText( ii, pageTitle );
}
}
m_filter->SetHint( _( "Filter" ) );
m_signalsGrid->SetColLabelValue( COL_SIGNAL_NAME, _( "Signal" ) );
m_signalsGrid->SetColLabelValue( COL_SIGNAL_SHOW, _( "Plot" ) );
m_signalsGrid->SetColLabelValue( COL_SIGNAL_COLOR, _( "Color" ) );
m_signalsGrid->SetColLabelValue( COL_CURSOR_1, _( "Cursor 1" ) );
m_signalsGrid->SetColLabelValue( COL_CURSOR_2, _( "Cursor 2" ) );
m_cursorsGrid->SetColLabelValue( COL_CURSOR_NAME, _( "Cursor" ) );
m_cursorsGrid->SetColLabelValue( COL_CURSOR_SIGNAL, _( "Signal" ) );
m_cursorsGrid->SetColLabelValue( COL_CURSOR_X, _( "Time" ) );
m_cursorsGrid->SetColLabelValue( COL_CURSOR_Y, _( "Value" ) );
updatePlotCursors();
for( TUNER_SLIDER* tuner : m_tuners )
tuner->ShowChangedLanguage();
}
void SIMULATOR_FRAME_UI::LoadSettings( EESCHEMA_SETTINGS* aCfg )
{
const EESCHEMA_SETTINGS::SIMULATOR& settings = aCfg->m_Simulator;
// Read subwindows sizes (should be > 0 )
m_splitterLeftRightSashPosition = settings.view.plot_panel_width;
m_splitterPlotAndConsoleSashPosition = settings.view.plot_panel_height;
m_splitterSignalsSashPosition = settings.view.signal_panel_height;
m_splitterCursorsSashPosition = settings.view.cursors_panel_height;
m_splitterTuneValuesSashPosition = settings.view.measurements_panel_height;
m_darkMode = !settings.view.white_background;
m_preferences = settings.preferences;
}
void SIMULATOR_FRAME_UI::SaveSettings( EESCHEMA_SETTINGS* aCfg )
{
EESCHEMA_SETTINGS::SIMULATOR& settings = aCfg->m_Simulator;
settings.view.plot_panel_width = m_splitterLeftRight->GetSashPosition();
settings.view.plot_panel_height = m_splitterPlotAndConsole->GetSashPosition();
settings.view.signal_panel_height = m_splitterSignals->GetSashPosition();
settings.view.cursors_panel_height = m_splitterCursors->GetSashPosition();
settings.view.measurements_panel_height = m_splitterMeasurements->GetSashPosition();
settings.view.white_background = !m_darkMode;
}
void SIMULATOR_FRAME_UI::ApplyPreferences( const SIM_PREFERENCES& aPrefs )
{
m_preferences = aPrefs;
const std::size_t pageCount = m_plotNotebook->GetPageCount();
for( std::size_t i = 0; i < pageCount; ++i )
{
wxWindow* page = m_plotNotebook->GetPage( i );
auto simTab = dynamic_cast<SIM_TAB*>( page );
wxASSERT( simTab != nullptr );
simTab->ApplyPreferences( aPrefs );
}
}
void SIMULATOR_FRAME_UI::InitWorkbook()
{
if( !simulator()->Settings()->GetWorkbookFilename().IsEmpty() )
{
wxFileName filename = simulator()->Settings()->GetWorkbookFilename();
filename.SetPath( m_schematicFrame->Prj().GetProjectPath() );
if( !LoadWorkbook( filename.GetFullPath() ) )
simulator()->Settings()->SetWorkbookFilename( "" );
}
else if( m_simulatorFrame->LoadSimulator( wxEmptyString, 0 ) )
{
wxString schTextSimCommand = circuitModel()->GetSchTextSimCommand();
if( !schTextSimCommand.IsEmpty() )
{
SIM_TAB* simTab = NewSimTab( schTextSimCommand );
simTab->SetSimOptions( NETLIST_EXPORTER_SPICE::OPTION_DEFAULT_FLAGS );
}
rebuildSignalsList();
rebuildSignalsGrid( m_filter->GetValue() );
}
}
void SIMULATOR_FRAME_UI::SetSubWindowsSashSize()
{
if( m_splitterLeftRightSashPosition > 0 )
m_splitterLeftRight->SetSashPosition( m_splitterLeftRightSashPosition );
if( m_splitterPlotAndConsoleSashPosition > 0 )
m_splitterPlotAndConsole->SetSashPosition( m_splitterPlotAndConsoleSashPosition );
if( m_splitterSignalsSashPosition > 0 )
m_splitterSignals->SetSashPosition( m_splitterSignalsSashPosition );
if( m_splitterCursorsSashPosition > 0 )
m_splitterCursors->SetSashPosition( m_splitterCursorsSashPosition );
if( m_splitterTuneValuesSashPosition > 0 )
m_splitterMeasurements->SetSashPosition( m_splitterTuneValuesSashPosition );
}
void sortSignals( std::vector<wxString>& signals )
{
std::sort( signals.begin(), signals.end(),
[]( const wxString& lhs, const wxString& rhs )
{
// Sort voltages first
if( lhs.Upper().StartsWith( 'V' ) && !rhs.Upper().StartsWith( 'V' ) )
return true;
else if( !lhs.Upper().StartsWith( 'V' ) && rhs.Upper().StartsWith( 'V' ) )
return false;
return StrNumCmp( lhs, rhs, true /* ignore case */ ) < 0;
} );
}
void SIMULATOR_FRAME_UI::rebuildSignalsGrid( wxString aFilter )
{
SUPPRESS_GRID_CELL_EVENTS raii( this );
m_signalsGrid->ClearRows();
SIM_PLOT_TAB* plotPanel = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() );
if( !plotPanel )
return;
SIM_TYPE simType = plotPanel->GetSimType();
std::vector<wxString> signals;
if( plotPanel->GetSimType() == ST_FFT )
{
wxStringTokenizer tokenizer( plotPanel->GetSimCommand(), wxT( " \t\r\n" ), wxTOKEN_STRTOK );
while( tokenizer.HasMoreTokens() && tokenizer.GetNextToken().Lower() != wxT( "fft" ) )
{};
while( tokenizer.HasMoreTokens() )
signals.emplace_back( tokenizer.GetNextToken() );
}
else
{
// NB: m_signals are already broken out into gain/phase, but m_userDefinedSignals are
// as the user typed them
for( const wxString& signal : m_signals )
signals.push_back( signal );
for( const auto& [ id, signal ] : m_userDefinedSignals )
{
if( simType == ST_AC )
{
signals.push_back( signal + _( " (gain)" ) );
signals.push_back( signal + _( " (phase)" ) );
}
else if( simType == ST_SP )
{
signals.push_back( signal + _( " (amplitude)" ) );
signals.push_back( signal + _( " (phase)" ) );
}
else
{
signals.push_back( signal );
}
}
sortSignals( signals );
}
if( aFilter.IsEmpty() )
aFilter = wxS( "*" );
EDA_COMBINED_MATCHER matcher( aFilter.Upper(), CTX_SIGNAL );
int row = 0;
for( const wxString& signal : signals )
{
if( matcher.Find( signal.Upper() ) )
{
int traceType = SPT_UNKNOWN;
wxString vectorName = vectorNameFromSignalName( plotPanel, signal, &traceType );
TRACE* trace = plotPanel->GetTrace( vectorName, traceType );
m_signalsGrid->AppendRows( 1 );
m_signalsGrid->SetCellValue( row, COL_SIGNAL_NAME, signal );
wxGridCellAttr* attr = new wxGridCellAttr;
attr->SetRenderer( new wxGridCellBoolRenderer() );
attr->SetReadOnly(); // not really; we delegate interactivity to GRID_TRICKS
attr->SetAlignment( wxALIGN_CENTER, wxALIGN_CENTER );
m_signalsGrid->SetAttr( row, COL_SIGNAL_SHOW, attr );
if( !trace )
{
attr = new wxGridCellAttr;
attr->SetReadOnly();
m_signalsGrid->SetAttr( row, COL_SIGNAL_COLOR, attr );
m_signalsGrid->SetCellValue( row, COL_SIGNAL_COLOR, wxEmptyString );
attr = new wxGridCellAttr;
attr->SetReadOnly();
m_signalsGrid->SetAttr( row, COL_CURSOR_1, attr );
attr = new wxGridCellAttr;
attr->SetReadOnly();
m_signalsGrid->SetAttr( row, COL_CURSOR_2, attr );
if( m_customCursorsCnt > 3 )
{
for( int i = 1; i <= m_customCursorsCnt - 3; i++ )
{
attr = new wxGridCellAttr;
attr->SetReadOnly();
m_signalsGrid->SetAttr( row, COL_CURSOR_2 + i, attr );
}
}
}
else
{
m_signalsGrid->SetCellValue( row, COL_SIGNAL_SHOW, wxS( "1" ) );
attr = new wxGridCellAttr;
attr->SetRenderer( new GRID_CELL_COLOR_RENDERER( this ) );
attr->SetEditor( new GRID_CELL_COLOR_SELECTOR( this, m_signalsGrid ) );
attr->SetAlignment( wxALIGN_CENTER, wxALIGN_CENTER );
m_signalsGrid->SetAttr( row, COL_SIGNAL_COLOR, attr );
KIGFX::COLOR4D color( trace->GetPen().GetColour() );
m_signalsGrid->SetCellValue( row, COL_SIGNAL_COLOR, color.ToCSSString() );
attr = new wxGridCellAttr;
attr->SetRenderer( new wxGridCellBoolRenderer() );
attr->SetReadOnly(); // not really; we delegate interactivity to GRID_TRICKS
attr->SetAlignment( wxALIGN_CENTER, wxALIGN_CENTER );
m_signalsGrid->SetAttr( row, COL_CURSOR_1, attr );
m_signalsGrid->SetCellValue( row, COL_CURSOR_1, trace->GetCursor( 1 ) ? "1" : "0" );
attr = new wxGridCellAttr;
attr->SetRenderer( new wxGridCellBoolRenderer() );
attr->SetReadOnly(); // not really; we delegate interactivity to GRID_TRICKS
attr->SetAlignment( wxALIGN_CENTER, wxALIGN_CENTER );
m_signalsGrid->SetAttr( row, COL_CURSOR_2, attr );
m_signalsGrid->SetCellValue( row, COL_CURSOR_2, trace->GetCursor( 2 ) ? "1" : "0" );
if( m_customCursorsCnt > 3 )
{
for( int i = 1; i <= m_customCursorsCnt - 3; i++ )
{
attr = new wxGridCellAttr;
attr->SetRenderer( new wxGridCellBoolRenderer() );
attr->SetReadOnly(); // not really; we delegate interactivity to GRID_TRICKS
attr->SetAlignment( wxALIGN_CENTER, wxALIGN_CENTER );
m_signalsGrid->SetAttr( row, COL_CURSOR_2 + i, attr );
m_signalsGrid->SetCellValue( row, COL_CURSOR_2 + i,
trace->GetCursor( i ) ? "1" : "0" );
}
}
}
row++;
}
}
}
void SIMULATOR_FRAME_UI::rebuildSignalsList()
{
m_signals.clear();
int options = m_simulatorFrame->GetCurrentOptions();
SIM_TYPE simType = m_simulatorFrame->GetCurrentSimType();
wxString unconnected = wxString( wxS( "unconnected-(" ) );
if( simType == ST_UNKNOWN )
simType = ST_TRAN;
unconnected.Replace( '(', '_' ); // Convert to SPICE markup
auto addSignal =
[&]( const wxString& aSignalName )
{
if( simType == ST_AC )
{
m_signals.push_back( aSignalName + _( " (gain)" ) );
m_signals.push_back( aSignalName + _( " (phase)" ) );
}
else if( simType == ST_SP )
{
m_signals.push_back( aSignalName + _( " (amplitude)" ) );
m_signals.push_back( aSignalName + _( " (phase)" ) );
}
else
{
m_signals.push_back( aSignalName );
}
};
if( ( options & NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_VOLTAGES )
&& ( simType == ST_TRAN || simType == ST_DC || simType == ST_AC || simType == ST_FFT) )
{
for( const wxString& net : circuitModel()->GetNets() )
{
// netnames are escaped (can contain "{slash}" for '/') Unscape them:
wxString netname = UnescapeString( net );
NETLIST_EXPORTER_SPICE::ConvertToSpiceMarkup( &netname );
if( netname == "GND" || netname == "0" || netname.StartsWith( unconnected ) )
continue;
m_netnames.emplace_back( netname );
addSignal( wxString::Format( wxS( "V(%s)" ), netname ) );
}
}
if( ( options & NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_CURRENTS )
&& ( simType == ST_TRAN || simType == ST_DC || simType == ST_AC ) )
{
for( const SPICE_ITEM& item : circuitModel()->GetItems() )
{
// Add all possible currents for the device.
for( const std::string& name : item.model->SpiceGenerator().CurrentNames( item ) )
addSignal( name );
}
}
if( ( options & NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_DISSIPATIONS )
&& ( simType == ST_TRAN || simType == ST_DC ) )
{
for( const SPICE_ITEM& item : circuitModel()->GetItems() )
{
if( item.model->GetPinCount() >= 2 )
{
wxString name = item.model->SpiceGenerator().ItemName( item );
addSignal( wxString::Format( wxS( "P(%s)" ), name ) );
}
}
}
if( simType == ST_NOISE )
{
addSignal( wxS( "inoise_spectrum" ) );
addSignal( wxS( "onoise_spectrum" ) );
}
if( simType == ST_SP )
{
std::vector<std::string> portnums;
for( const SPICE_ITEM& item : circuitModel()->GetItems() )
{
wxString name = item.model->SpiceGenerator().ItemName( item );
// We are only looking for voltage sources in .SP mode
if( !name.StartsWith( "V" ) )
continue;
std::string portnum = "";
if( const SIM_MODEL::PARAM* portnum_param = item.model->FindParam( "portnum" ) )
portnum = SIM_VALUE::ToSpice( portnum_param->value );
if( portnum != "" )
portnums.push_back( portnum );
}
for( const std::string& portnum1 : portnums )
{
for( const std::string& portnum2 : portnums )
{
addSignal( wxString::Format( wxS( "S_%s_%s" ), portnum1, portnum2 ) );
}
}
}
// Add .SAVE and .PROBE directives
for( const wxString& directive : circuitModel()->GetDirectives() )
{
wxStringTokenizer directivesTokenizer( directive, wxT( "\r\n" ), wxTOKEN_STRTOK );
while( directivesTokenizer.HasMoreTokens() )
{
wxString line = directivesTokenizer.GetNextToken().Upper();
wxString directiveParams;
if( line.StartsWith( wxS( ".SAVE" ), &directiveParams )
|| line.StartsWith( wxS( ".PROBE" ), &directiveParams ) )
{
wxStringTokenizer paramsTokenizer( directiveParams, wxT( " \t" ), wxTOKEN_STRTOK );
while( paramsTokenizer.HasMoreTokens() )
addSignal( paramsTokenizer.GetNextToken() );
}
}
}
}
SIM_TAB* SIMULATOR_FRAME_UI::NewSimTab( const wxString& aSimCommand )
{
SIM_TAB* simTab = nullptr;
SIM_TYPE simType = SPICE_CIRCUIT_MODEL::CommandToSimType( aSimCommand );
if( SIM_TAB::IsPlottable( simType ) )
{
SIM_PLOT_TAB* panel = new SIM_PLOT_TAB( aSimCommand, m_plotNotebook );
simTab = panel;
panel->ApplyPreferences( m_preferences );
}
else
{
simTab = new SIM_NOPLOT_TAB( aSimCommand, m_plotNotebook );
}
wxString pageTitle( simulator()->TypeToName( simType, true ) );
pageTitle.Prepend( wxString::Format( _( "Analysis %u - " ), static_cast<unsigned int>( ++m_plotNumber ) ) );
m_plotNotebook->AddPage( simTab, pageTitle, true );
return simTab;
}
void SIMULATOR_FRAME_UI::OnFilterText( wxCommandEvent& aEvent )
{
rebuildSignalsGrid( m_filter->GetValue() );
}
void SIMULATOR_FRAME_UI::OnFilterMouseMoved( wxMouseEvent& aEvent )
{
wxPoint pos = aEvent.GetPosition();
wxRect ctrlRect = m_filter->GetScreenRect();
int buttonWidth = ctrlRect.GetHeight(); // Presume buttons are square
if( m_filter->IsSearchButtonVisible() && pos.x < buttonWidth )
SetCursor( wxCURSOR_ARROW );
else if( m_filter->IsCancelButtonVisible() && pos.x > ctrlRect.GetWidth() - buttonWidth )
SetCursor( wxCURSOR_ARROW );
else
SetCursor( wxCURSOR_IBEAM );
}
wxString vectorNameFromSignalId( int aUserDefinedSignalId )
{
return wxString::Format( wxS( "user%d" ), aUserDefinedSignalId );
}
/**
* For user-defined signals we display the user-oriented signal name such as "V(out)-V(in)",
* but the simulator vector we actually have to plot will be "user0" or some-such.
*/
wxString SIMULATOR_FRAME_UI::vectorNameFromSignalName( SIM_PLOT_TAB* aPlotTab,
const wxString& aSignalName,
int* aTraceType )
{
std::map<wxString, int> suffixes;
suffixes[ _( " (amplitude)" ) ] = SPT_SP_AMP;
suffixes[ _( " (gain)" ) ] = SPT_AC_GAIN;
suffixes[ _( " (phase)" ) ] = SPT_AC_PHASE;
if( aTraceType )
{
if( aPlotTab && aPlotTab->GetSimType() == ST_NOISE )
{
if( getNoiseSource().Upper().StartsWith( 'I' ) )
*aTraceType = SPT_CURRENT;
else
*aTraceType = SPT_VOLTAGE;
}
else
{
wxUniChar firstChar = aSignalName.Upper()[0];
if( firstChar == 'V' )
*aTraceType = SPT_VOLTAGE;
else if( firstChar == 'I' )
*aTraceType = SPT_CURRENT;
else if( firstChar == 'P' )
*aTraceType = SPT_POWER;
}
}
wxString suffix;
wxString name = aSignalName;
for( const auto& [ candidate, type ] : suffixes )
{
if( name.EndsWith( candidate ) )
{
name = name.Left( name.Length() - candidate.Length() );
if( aTraceType )
*aTraceType |= type;
break;
}
}
for( const auto& [ id, signal ] : m_userDefinedSignals )
{
if( name == signal )
return vectorNameFromSignalId( id );
}
return name;
};
void SIMULATOR_FRAME_UI::onSignalsGridCellChanged( wxGridEvent& aEvent )
{
if( m_SuppressGridEvents > 0 )
return;
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() );
if( !plotTab )
return;
int row = aEvent.GetRow();
int col = aEvent.GetCol();
wxString text = m_signalsGrid->GetCellValue( row, col );
wxString signalName = m_signalsGrid->GetCellValue( row, COL_SIGNAL_NAME );
int traceType = SPT_UNKNOWN;
wxString vectorName = vectorNameFromSignalName( plotTab, signalName, &traceType );
if( col == COL_SIGNAL_SHOW )
{
if( text == wxS( "1" ) )
updateTrace( vectorName, traceType, plotTab );
else
plotTab->DeleteTrace( vectorName, traceType );
plotTab->GetPlotWin()->UpdateAll();
// Update enabled/visible states of other controls
updateSignalsGrid();
updatePlotCursors();
OnModify();
}
else if( col == COL_SIGNAL_COLOR )
{
KIGFX::COLOR4D color( m_signalsGrid->GetCellValue( row, COL_SIGNAL_COLOR ) );
TRACE* trace = plotTab->GetTrace( vectorName, traceType );
if( trace )
{
trace->SetTraceColour( color.ToColour() );
plotTab->UpdateTraceStyle( trace );
plotTab->UpdatePlotColors();
OnModify();
}
}
else if( col == COL_CURSOR_1 || col == COL_CURSOR_2
|| ( ( std::size( m_cursorFormatsDyn ) > std::size( m_cursorFormats ) )
&& col > COL_CURSOR_2 ) )
{
int id = col == COL_CURSOR_1 ? 1 : 2;
if( col > COL_CURSOR_2 ) // TODO: clean up logic
{
id = col - 2; // enum SIGNALS_GRID_COLUMNS offset for Cursor n
}
TRACE* activeTrace = nullptr;
if( text == wxS( "1" ) )
{
signalName = m_signalsGrid->GetCellValue( row, COL_SIGNAL_NAME );
vectorName = vectorNameFromSignalName( plotTab, signalName, &traceType );
activeTrace = plotTab->GetTrace( vectorName, traceType );
if( activeTrace )
plotTab->EnableCursor( activeTrace, id, signalName );
OnModify();
}
// Turn off cursor on other signals.
for( const auto& [name, trace] : plotTab->GetTraces() )
{
if( trace != activeTrace && trace->HasCursor( id ) )
{
plotTab->DisableCursor( trace, id );
OnModify();
}
}
// Update cursor checkboxes (which are really radio buttons)
updateSignalsGrid();
}
}
void SIMULATOR_FRAME_UI::onCursorsGridCellChanged( wxGridEvent& aEvent )
{
if( m_SuppressGridEvents > 0 )
return;
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() );
if( !plotTab )
return;
int row = aEvent.GetRow();
int col = aEvent.GetCol();
wxString text = m_cursorsGrid->GetCellValue( row, col );
wxString cursorName = m_cursorsGrid->GetCellValue( row, COL_CURSOR_NAME );
double value = SPICE_VALUE( text ).ToDouble();
if( col == COL_CURSOR_X )
{
CURSOR* cursor1 = nullptr;
CURSOR* cursor2 = nullptr;
std::vector<CURSOR*> cursorsVec;
cursorsVec.clear();
for( const auto& [name, trace] : plotTab->GetTraces() )
{
if( CURSOR* cursor = trace->GetCursor( 1 ) )
cursor1 = cursor;
if( CURSOR* cursor = trace->GetCursor( 2 ) )
cursor2 = cursor;
int tmp = 3;
if( !cursor1 )
tmp--;
if( !cursor2 )
tmp--;
for( int i = tmp; i < m_customCursorsCnt; i++ )
{
if( CURSOR* cursor = trace->GetCursor( i ) )
{
cursorsVec.emplace_back( cursor );
if( cursorName == ( wxString( "" ) << i ) && cursor )
cursor->SetCoordX( value );
}
}
}
//double value = SPICE_VALUE( text ).ToDouble();
if( cursorName == wxS( "1" ) && cursor1 )
cursor1->SetCoordX( value );
else if( cursorName == wxS( "2" ) && cursor2 )
cursor2->SetCoordX( value );
else if( cursorName == _( "Diff" ) && cursor1 && cursor2 )
cursor2->SetCoordX( cursor1->GetCoords().x + value );
updatePlotCursors();
OnModify();
}
else
{
wxFAIL_MSG( wxT( "All other columns are supposed to be read-only!" ) );
}
}
SPICE_VALUE_FORMAT SIMULATOR_FRAME_UI::GetMeasureFormat( int aRow ) const
{
SPICE_VALUE_FORMAT result;
result.FromString( m_measurementsGrid->GetCellValue( aRow, COL_MEASUREMENT_FORMAT ) );
return result;
}
void SIMULATOR_FRAME_UI::SetMeasureFormat( int aRow, const SPICE_VALUE_FORMAT& aFormat )
{
m_measurementsGrid->SetCellValue( aRow, COL_MEASUREMENT_FORMAT, aFormat.ToString() );
}
void SIMULATOR_FRAME_UI::DeleteMeasurement( int aRow )
{
if( aRow < ( m_measurementsGrid->GetNumberRows() - 1 ) )
m_measurementsGrid->DeleteRows( aRow, 1 );
}
void SIMULATOR_FRAME_UI::onMeasurementsGridCellChanged( wxGridEvent& aEvent )
{
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() );
if( !plotTab )
return;
int row = aEvent.GetRow();
int col = aEvent.GetCol();
wxString text = m_measurementsGrid->GetCellValue( row, col );
if( col == COL_MEASUREMENT )
{
UpdateMeasurement( row );
updateMeasurementsFromGrid();
OnModify();
}
else
{
wxFAIL_MSG( wxT( "All other columns are supposed to be read-only!" ) );
}
// Always leave a single empty row for type-in
int rowCount = static_cast<int>( m_measurementsGrid->GetNumberRows() );
int emptyRows = 0;
for( row = rowCount - 1; row >= 0; row-- )
{
if( m_measurementsGrid->GetCellValue( row, COL_MEASUREMENT ).IsEmpty() )
emptyRows++;
else
break;
}
if( emptyRows > 1 )
{
int killRows = emptyRows - 1;
m_measurementsGrid->DeleteRows( rowCount - killRows, killRows );
}
else if( emptyRows == 0 )
{
m_measurementsGrid->AppendRows( 1 );
}
}
void SIMULATOR_FRAME_UI::OnUpdateUI( wxUpdateUIEvent& event )
{
if( SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() ) )
{
if( plotTab->GetLegendPosition() != plotTab->m_LastLegendPosition )
{
plotTab->m_LastLegendPosition = plotTab->GetLegendPosition();
OnModify();
}
}
}
/**
* The user measurement looks something like:
* MAX V(out)
*
* We need to send ngspice a "MEAS" command with the analysis type, an output variable name,
* and the signal name. For our example above, this looks something like:
* MEAS TRAN meas_result_0 MAX V(out)
*
* This is also a good time to harvest the signal name prefix so we know what units to show on
* the result. For instance, for:
* MAX P(out)
* we want to show:
* 15W
*/
void SIMULATOR_FRAME_UI::UpdateMeasurement( int aRow )
{
static wxRegEx measureParamsRegEx( wxT( "^"
" *"
"([a-zA-Z_]+)"
" +"
"([a-zA-Z]*)\\(([^\\)]+)\\)" ) );
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() );
if( !plotTab )
return;
wxString text = m_measurementsGrid->GetCellValue( aRow, COL_MEASUREMENT );
if( text.IsEmpty() )
{
m_measurementsGrid->SetCellValue( aRow, COL_MEASUREMENT_VALUE, wxEmptyString );
return;
}
wxString simType = simulator()->TypeToName( plotTab->GetSimType(), true );
wxString resultName = wxString::Format( wxS( "meas_result_%u" ), aRow );
wxString result = wxS( "?" );
if( measureParamsRegEx.Matches( text ) )
{
wxString func = measureParamsRegEx.GetMatch( text, 1 ).Upper();
wxString signalType = measureParamsRegEx.GetMatch( text, 2 ).Upper();
wxString deviceName = measureParamsRegEx.GetMatch( text, 3 );
wxString units;
SPICE_VALUE_FORMAT fmt = GetMeasureFormat( aRow );
if( signalType.EndsWith( wxS( "DB" ) ) )
{
units = wxS( "dB" );
}
else if( signalType.StartsWith( 'I' ) )
{
units = wxS( "A" );
}
else if( signalType.StartsWith( 'P' ) )
{
units = wxS( "W" );
// Our syntax is different from ngspice for power signals
text = func + " " + deviceName + ":power";
}
else
{
units = wxS( "V" );
}
if( func.EndsWith( wxS( "_AT" ) ) )
{
if( plotTab->GetSimType() == ST_AC || plotTab->GetSimType() == ST_SP )
units = wxS( "Hz" );
else
units = wxS( "s" );
}
else if( func.StartsWith( wxS( "INTEG" ) ) )
{
switch( plotTab->GetSimType() )
{
case ST_TRAN:
if ( signalType.StartsWith( 'P' ) )
units = wxS( "J" );
else
units += wxS( ".s" );
break;
case ST_AC:
case ST_SP:
case ST_DISTO:
case ST_NOISE:
case ST_FFT:
case ST_SENS: // If there is a vector, it is frequency
units += wxS( "·Hz" );
break;
case ST_DC: // Could be a lot of things : V, A, deg C, ohm, ...
case ST_OP: // There is no vector for integration
case ST_PZ: // There is no vector for integration
case ST_TF: // There is no vector for integration
default:
units += wxS( "·?" );
break;
}
}
fmt.UpdateUnits( units );
SetMeasureFormat( aRow, fmt );
updateMeasurementsFromGrid();
}
if( m_simulatorFrame->SimFinished() )
{
wxString cmd = wxString::Format( wxS( "meas %s %s %s" ), simType, resultName, text );
simulator()->Command( "echo " + cmd.ToStdString() );
simulator()->Command( cmd.ToStdString() );
std::vector<double> resultVec = simulator()->GetGainVector( resultName.ToStdString() );
if( resultVec.size() > 0 )
result = SPICE_VALUE( resultVec[0] ).ToString( GetMeasureFormat( aRow ) );
}
m_measurementsGrid->SetCellValue( aRow, COL_MEASUREMENT_VALUE, result );
}
void SIMULATOR_FRAME_UI::AddTuner( const SCH_SHEET_PATH& aSheetPath, SCH_SYMBOL* aSymbol )
{
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() );
if( !plotTab )
return;
wxString ref = aSymbol->GetRef( &aSheetPath );
// Do not add multiple instances for the same component.
for( TUNER_SLIDER* tuner : m_tuners )
{
if( tuner->GetSymbolRef() == ref )
return;
}
const SPICE_ITEM* item = GetExporter()->FindItem( ref );
// Do nothing if the symbol is not tunable.
if( !item || !item->model->GetTunerParam() )
return;
try
{
TUNER_SLIDER* tuner = new TUNER_SLIDER( this, m_panelTuners, aSheetPath, aSymbol );
m_sizerTuners->Add( tuner );
m_tuners.push_back( tuner );
m_panelTuners->Layout();
OnModify();
}
catch( const KI_PARAM_ERROR& e )
{
DisplayErrorMessage( nullptr, e.What() );
}
}
void SIMULATOR_FRAME_UI::UpdateTunerValue( const SCH_SHEET_PATH& aSheetPath, const KIID& aSymbol,
const wxString& aRef, const wxString& aValue )
{
SCH_ITEM* item = aSheetPath.GetItem( aSymbol );
SCH_SYMBOL* symbol = dynamic_cast<SCH_SYMBOL*>( item );
if( !symbol )
{
DisplayErrorMessage( this, _( "Could not apply tuned value(s):" ) + wxS( " " )
+ wxString::Format( _( "%s not found" ), aRef ) );
return;
}
NULL_REPORTER devnull;
SIM_LIB_MGR mgr( &m_schematicFrame->Prj(), &m_schematicFrame->Schematic() );
SIM_MODEL& model = mgr.CreateModel( &aSheetPath, *symbol, devnull ).model;
const SIM_MODEL::PARAM* tunerParam = model.GetTunerParam();
if( !tunerParam )
{
DisplayErrorMessage( this, _( "Could not apply tuned value(s):" ) + wxS( " " )
+ wxString::Format( _( "%s is not tunable" ), aRef ) );
return;
}
model.SetParamValue( tunerParam->info.name, std::string( aValue.ToUTF8() ) );
model.WriteFields( symbol->GetFields() );
m_schematicFrame->UpdateItem( symbol, false, true );
m_schematicFrame->OnModify();
}
void SIMULATOR_FRAME_UI::RemoveTuner( TUNER_SLIDER* aTuner )
{
m_tuners.remove( aTuner );
aTuner->Destroy();
m_panelTuners->Layout();
OnModify();
}
void SIMULATOR_FRAME_UI::AddMeasurement( const wxString& aCmd )
{
// -1 because the last one is for user input
for( int i = 0; i < m_measurementsGrid->GetNumberRows(); i++ )
{
if ( m_measurementsGrid->GetCellValue( i, COL_MEASUREMENT ) == aCmd )
return; // Don't create duplicates
}
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() );
if( !plotTab )
return;
wxString simType = simulator()->TypeToName( plotTab->GetSimType(), true );
int row;
for( row = 0; row < m_measurementsGrid->GetNumberRows(); ++row )
{
if( m_measurementsGrid->GetCellValue( row, COL_MEASUREMENT ).IsEmpty() )
break;
}
if( !m_measurementsGrid->GetCellValue( row, COL_MEASUREMENT ).IsEmpty() )
{
m_measurementsGrid->AppendRows( 1 );
row = m_measurementsGrid->GetNumberRows() - 1;
}
m_measurementsGrid->SetCellValue( row, COL_MEASUREMENT, aCmd );
UpdateMeasurement( row );
updateMeasurementsFromGrid();
OnModify();
// Always leave at least one empty row for type-in:
row = m_measurementsGrid->GetNumberRows() - 1;
if( !m_measurementsGrid->GetCellValue( row, COL_MEASUREMENT ).IsEmpty() )
m_measurementsGrid->AppendRows( 1 );
}
void SIMULATOR_FRAME_UI::DoFourier( const wxString& aSignal, const wxString& aFundamental )
{
wxString cmd = wxString::Format( wxS( "fourier %s %s" ),
SPICE_VALUE( aFundamental ).ToSpiceString(),
aSignal );
simulator()->Command( cmd.ToStdString() );
}
const SPICE_CIRCUIT_MODEL* SIMULATOR_FRAME_UI::GetExporter() const
{
return circuitModel().get();
}
void SIMULATOR_FRAME_UI::AddTrace( const wxString& aName, SIM_TRACE_TYPE aType )
{
if( !GetCurrentSimTab() )
{
m_simConsole->AppendText( _( "Error: no current simulation.\n" ) );
m_simConsole->SetInsertionPointEnd();
return;
}
SIM_TYPE simType = SPICE_CIRCUIT_MODEL::CommandToSimType( GetCurrentSimTab()->GetSimCommand() );
if( simType == ST_UNKNOWN )
{
m_simConsole->AppendText( _( "Error: simulation type not defined.\n" ) );
m_simConsole->SetInsertionPointEnd();
return;
}
else if( !SIM_TAB::IsPlottable( simType ) )
{
m_simConsole->AppendText( _( "Error: simulation type doesn't support plotting.\n" ) );
m_simConsole->SetInsertionPointEnd();
return;
}
if( SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() ) )
{
if( simType == ST_AC )
{
updateTrace( aName, aType | SPT_AC_GAIN, plotTab );
updateTrace( aName, aType | SPT_AC_PHASE, plotTab );
}
else if( simType == ST_SP )
{
updateTrace( aName, aType | SPT_AC_GAIN, plotTab );
updateTrace( aName, aType | SPT_AC_PHASE, plotTab );
}
else
{
updateTrace( aName, aType, plotTab );
}
plotTab->GetPlotWin()->UpdateAll();
}
updateSignalsGrid();
OnModify();
}
void SIMULATOR_FRAME_UI::SetUserDefinedSignals( const std::map<int, wxString>& aNewSignals )
{
for( size_t ii = 0; ii < m_plotNotebook->GetPageCount(); ++ii )
{
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( m_plotNotebook->GetPage( ii ) );
if( !plotTab )
continue;
for( const auto& [ id, existingSignal ] : m_userDefinedSignals )
{
int traceType = SPT_UNKNOWN;
wxString vectorName = vectorNameFromSignalName( plotTab, existingSignal, &traceType );
if( aNewSignals.count( id ) == 0 )
{
if( plotTab->GetSimType() == ST_AC )
{
for( int subType : { SPT_AC_GAIN, SPT_AC_PHASE } )
plotTab->DeleteTrace( vectorName, traceType | subType );
}
else if( plotTab->GetSimType() == ST_SP )
{
for( int subType : { SPT_SP_AMP, SPT_AC_PHASE } )
plotTab->DeleteTrace( vectorName, traceType | subType );
}
else
{
plotTab->DeleteTrace( vectorName, traceType );
}
}
else
{
if( plotTab->GetSimType() == ST_AC )
{
for( int subType : { SPT_AC_GAIN, SPT_AC_PHASE } )
{
if( TRACE* trace = plotTab->GetTrace( vectorName, traceType | subType ) )
trace->SetName( aNewSignals.at( id ) );
}
}
else if( plotTab->GetSimType() == ST_SP )
{
for( int subType : { SPT_SP_AMP, SPT_AC_PHASE } )
{
if( TRACE* trace = plotTab->GetTrace( vectorName, traceType | subType ) )
trace->SetName( aNewSignals.at( id ) );
}
}
else
{
if( TRACE* trace = plotTab->GetTrace( vectorName, traceType ) )
trace->SetName( aNewSignals.at( id ) );
}
}
}
}
m_userDefinedSignals = aNewSignals;
if( m_simulatorFrame->SimFinished() )
applyUserDefinedSignals();
rebuildSignalsList();
rebuildSignalsGrid( m_filter->GetValue() );
updateSignalsGrid();
updatePlotCursors();
OnModify();
}
void SIMULATOR_FRAME_UI::updateTrace( const wxString& aVectorName, int aTraceType,
SIM_PLOT_TAB* aPlotTab, std::vector<double>* aDataX,
bool aClearData )
{
if( !m_simulatorFrame->SimFinished() && !simulator()->IsRunning())
{
aPlotTab->GetOrAddTrace( aVectorName, aTraceType );
return;
}
SIM_TYPE simType = SPICE_CIRCUIT_MODEL::CommandToSimType( aPlotTab->GetSimCommand() );
aTraceType &= aTraceType & SPT_Y_AXIS_MASK;
aTraceType |= getXAxisType( simType );
wxString simVectorName = aVectorName;
if( aTraceType & SPT_POWER )
simVectorName = simVectorName.AfterFirst( '(' ).BeforeLast( ')' ) + wxS( ":power" );
if( !SIM_TAB::IsPlottable( simType ) )
{
// There is no plot to be shown
simulator()->Command( wxString::Format( wxT( "print %s" ), aVectorName ).ToStdString() );
return;
}
std::vector<double> data_x;
std::vector<double> data_y;
if( !aDataX || aClearData )
aDataX = &data_x;
// First, handle the x axis
if( aDataX->empty() && !aClearData )
{
wxString xAxisName( simulator()->GetXAxis( simType ) );
if( xAxisName.IsEmpty() )
return;
*aDataX = simulator()->GetGainVector( (const char*) xAxisName.c_str() );
}
unsigned int size = aDataX->size();
switch( simType )
{
case ST_AC:
if( aTraceType & SPT_AC_GAIN )
data_y = simulator()->GetGainVector( (const char*) simVectorName.c_str(), size );
else if( aTraceType & SPT_AC_PHASE )
data_y = simulator()->GetPhaseVector( (const char*) simVectorName.c_str(), size );
else
wxFAIL_MSG( wxT( "Plot type missing AC_PHASE or AC_MAG bit" ) );
break;
case ST_SP:
if( aTraceType & SPT_SP_AMP )
data_y = simulator()->GetGainVector( (const char*) simVectorName.c_str(), size );
else if( aTraceType & SPT_AC_PHASE )
data_y = simulator()->GetPhaseVector( (const char*) simVectorName.c_str(), size );
else
wxFAIL_MSG( wxT( "Plot type missing AC_PHASE or SPT_SP_AMP bit" ) );
break;
case ST_DC:
data_y = simulator()->GetGainVector( (const char*) simVectorName.c_str(), -1 );
break;
case ST_NOISE:
case ST_TRAN:
case ST_FFT:
data_y = simulator()->GetGainVector( (const char*) simVectorName.c_str(), size );
break;
default:
wxFAIL_MSG( wxT( "Unhandled plot type" ) );
}
SPICE_DC_PARAMS source1, source2;
int sweepCount = 1;
size_t sweepSize = std::numeric_limits<size_t>::max();
if( simType == ST_DC
&& circuitModel()->ParseDCCommand( aPlotTab->GetSimCommand(), &source1, &source2 )
&& !source2.m_source.IsEmpty() )
{
SPICE_VALUE v = ( source2.m_vend - source2.m_vstart ) / source2.m_vincrement;
sweepCount = KiROUND( v.ToDouble() ) + 1;
sweepSize = aDataX->size() / sweepCount;
}
if( TRACE* trace = aPlotTab->GetOrAddTrace( aVectorName, aTraceType ) )
{
if( data_y.size() >= size )
aPlotTab->SetTraceData( trace, *aDataX, data_y, sweepCount, sweepSize );
}
}
// TODO make sure where to instantiate and how to style correct
// Better ask someone..
template void SIMULATOR_FRAME_UI::signalsGridCursorUpdate<SIGNALS_GRID_COLUMNS, int, int>(
SIGNALS_GRID_COLUMNS, int, int );
template <typename T, typename U, typename R>
void SIMULATOR_FRAME_UI::signalsGridCursorUpdate( T t, U u, R r ) // t=cursor type/signals' grid col, u=cursor number/cursor "id", r=table's row
{
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() );
wxString signalName = m_signalsGrid->GetCellValue( r, COL_SIGNAL_NAME );
int traceType = SPT_UNKNOWN;
wxString vectorName = vectorNameFromSignalName( plotTab, signalName, &traceType );
wxGridCellAttrPtr attr = m_signalsGrid->GetOrCreateCellAttrPtr( r, static_cast<int>( t ) );
if( TRACE* trace = plotTab ? plotTab->GetTrace( vectorName, traceType ) : nullptr )
{
attr->SetReadOnly(); // not really; we delegate interactivity to GRID_TRICKS
if( t >= SIGNALS_GRID_COLUMNS::COL_SIGNAL_SHOW )
{
attr->SetAlignment( wxALIGN_CENTER, wxALIGN_CENTER );
}
if constexpr ( std::is_enum<T>::value )
{
if( t == SIGNALS_GRID_COLUMNS::COL_SIGNAL_SHOW )
{
m_signalsGrid->SetCellValue( r, static_cast<int>( t ), wxS( "1" ) );
}
else if( t == SIGNALS_GRID_COLUMNS::COL_SIGNAL_COLOR )
{
if( !attr->HasRenderer() )
attr->SetRenderer( new GRID_CELL_COLOR_RENDERER( this ) );
if( !attr->HasEditor() )
attr->SetEditor( new GRID_CELL_COLOR_SELECTOR( this, m_signalsGrid ) );
attr->SetAlignment( wxALIGN_CENTER, wxALIGN_CENTER );
attr->SetReadOnly( false );
KIGFX::COLOR4D color( trace->GetPen().GetColour() );
m_signalsGrid->SetCellValue( r, COL_SIGNAL_COLOR, color.ToCSSString() );
}
else if( t == SIGNALS_GRID_COLUMNS::COL_CURSOR_1
|| t == SIGNALS_GRID_COLUMNS::COL_CURSOR_2
|| t > SIGNALS_GRID_COLUMNS::COL_CURSOR_2 )
{
if( !attr->HasRenderer() )
attr->SetRenderer( new wxGridCellBoolRenderer() );
if( u > 0 && trace->HasCursor( u ) )
m_signalsGrid->SetCellValue( r, static_cast<int>( t ), wxS( "1" ) );
else
m_signalsGrid->SetCellValue( r, static_cast<int>( t ), wxEmptyString );
}
}
}
else
{
if constexpr ( std::is_enum<T>::value )
{
if( t == SIGNALS_GRID_COLUMNS::COL_SIGNAL_SHOW )
{
m_signalsGrid->SetCellValue( r, static_cast<int>( t ), wxEmptyString );
}
else if( t == SIGNALS_GRID_COLUMNS::COL_SIGNAL_COLOR
|| t == SIGNALS_GRID_COLUMNS::COL_CURSOR_1
|| t == SIGNALS_GRID_COLUMNS::COL_CURSOR_2
|| t > SIGNALS_GRID_COLUMNS::COL_CURSOR_2 )
{
attr->SetEditor( nullptr );
attr->SetRenderer( nullptr );
attr->SetReadOnly();
m_signalsGrid->SetCellValue( r, static_cast<int>( t ), wxEmptyString );
}
}
}
}
void SIMULATOR_FRAME_UI::updateSignalsGrid()
{
for( int row = 0; row < m_signalsGrid->GetNumberRows(); ++row )
{
signalsGridCursorUpdate( COL_SIGNAL_SHOW, 0, row );
signalsGridCursorUpdate( COL_SIGNAL_COLOR, 0, row );
signalsGridCursorUpdate( COL_CURSOR_1, 1, row );
signalsGridCursorUpdate( COL_CURSOR_2, 2, row );
if( ( m_signalsGrid->GetNumberCols() - 1 ) > COL_CURSOR_2 )
{
for( int i = 3; i < m_customCursorsCnt; i++ )
{
int tm = i + 2;
signalsGridCursorUpdate(
static_cast<SIGNALS_GRID_COLUMNS>( tm ),
i,
row );
}
}
}
m_signalsGrid->Refresh();
}
void SIMULATOR_FRAME_UI::applyUserDefinedSignals()
{
auto quoteNetNames = [&]( wxString aExpression ) -> wxString
{
std::vector<bool> mask( aExpression.length(), false );
for( const auto& netname : m_netnames )
{
size_t pos = aExpression.find( netname );
while( pos != wxString::npos )
{
for( size_t i = 0; i < netname.length(); ++i )
{
mask[pos + i] = true; // Mark the positions of the netname
}
pos = aExpression.find( netname, pos + 1 ); // Find the next occurrence
}
}
wxString quotedNetnames = "";
bool startQuote = true;
// put quotes around all the positions that were found above
for( size_t i = 0; i < aExpression.length(); i++ )
{
if( mask[i] && startQuote )
{
quotedNetnames = quotedNetnames + "\"";
startQuote = false;
}
else if( !mask[i] && !startQuote )
{
quotedNetnames = quotedNetnames + "\"";
startQuote = true;
}
wxString ch = aExpression[i];
quotedNetnames = quotedNetnames + ch;
}
if( !startQuote )
{
quotedNetnames = quotedNetnames + "\"";
}
return quotedNetnames;
};
for( const auto& [ id, signal ] : m_userDefinedSignals )
{
constexpr const char* cmd = "let user{} = {}";
simulator()->Command( "echo " + fmt::format( cmd, id, signal.ToStdString() ) );
simulator()->Command( fmt::format( cmd, id, quoteNetNames( signal ).ToStdString() ) );
}
}
void SIMULATOR_FRAME_UI::applyTuners()
{
WX_STRING_REPORTER reporter;
for( const TUNER_SLIDER* tuner : m_tuners )
{
SCH_SHEET_PATH sheetPath;
wxString ref = tuner->GetSymbolRef();
KIID symbolId = tuner->GetSymbol( &sheetPath );
SCH_ITEM* schItem = sheetPath.GetItem( symbolId );
SCH_SYMBOL* symbol = dynamic_cast<SCH_SYMBOL*>( schItem );
if( !symbol )
{
reporter.Report( wxString::Format( _( "%s not found" ), ref ) );
continue;
}
const SPICE_ITEM* item = GetExporter()->FindItem( tuner->GetSymbolRef() );
if( !item || !item->model->GetTunerParam() )
{
reporter.Report( wxString::Format( _( "%s is not tunable" ), ref ) );
continue;
}
double floatVal = tuner->GetValue().ToDouble();
simulator()->Command( item->model->SpiceGenerator().TunerCommand( *item, floatVal ) );
}
if( reporter.HasMessage() )
DisplayErrorMessage( this, _( "Could not apply tuned value(s):" ) + wxS( "\n" )
+ reporter.GetMessages() );
}
bool SIMULATOR_FRAME_UI::LoadWorkbook( const wxString& aPath )
{
wxTextFile file( aPath );
if( !file.Open() )
return false;
wxString firstLine = file.GetFirstLine();
long dummy;
bool legacy = firstLine.StartsWith( wxT( "version " ) ) || firstLine.ToLong( &dummy );
file.Close();
m_plotNotebook->DeleteAllPages();
m_userDefinedSignals.clear();
if( legacy )
{
if( !loadLegacyWorkbook( aPath ) )
return false;
}
else
{
if( !loadJsonWorkbook( aPath ) )
return false;
}
rebuildSignalsList();
rebuildSignalsGrid( m_filter->GetValue() );
updateSignalsGrid();
updatePlotCursors();
rebuildMeasurementsGrid();
wxFileName filename( aPath );
filename.MakeRelativeTo( m_schematicFrame->Prj().GetProjectPath() );
// Remember the loaded workbook filename.
simulator()->Settings()->SetWorkbookFilename( filename.GetFullPath() );
return true;
}
bool SIMULATOR_FRAME_UI::loadJsonWorkbook( const wxString& aPath )
{
wxFFileInputStream fp( aPath, wxT( "rt" ) );
wxStdInputStream fstream( fp );
if( !fp.IsOk() )
return false;
try
{
nlohmann::json js = nlohmann::json::parse( fstream, nullptr, true, true );
std::map<SIM_PLOT_TAB*, nlohmann::json> traceInfo;
for( const nlohmann::json& tab_js : js[ "tabs" ] )
{
wxString simCommand;
int simOptions = NETLIST_EXPORTER_SPICE::OPTION_ADJUST_PASSIVE_VALS
| NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_EVENTS;
for( const nlohmann::json& cmd : tab_js[ "commands" ] )
{
if( cmd == ".kicad adjustpaths" )
simOptions |= NETLIST_EXPORTER_SPICE::OPTION_ADJUST_INCLUDE_PATHS;
else if( cmd == ".save all" )
simOptions |= NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_VOLTAGES;
else if( cmd == ".probe alli" )
simOptions |= NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_CURRENTS;
else if( cmd == ".probe allp" )
simOptions |= NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_DISSIPATIONS;
else if( cmd == ".kicad esavenone" )
simOptions &= ~NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_EVENTS;
else
simCommand += wxString( cmd.get<wxString>() ).Trim();
}
SIM_TAB* simTab = NewSimTab( simCommand );
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( simTab );
simTab->SetSimOptions( simOptions );
if( plotTab )
{
if( tab_js.contains( "traces" ) )
traceInfo[plotTab] = tab_js[ "traces" ];
if( tab_js.contains( "measurements" ) )
{
for( const nlohmann::json& m_js : tab_js[ "measurements" ] )
plotTab->Measurements().emplace_back( m_js[ "expr" ], m_js[ "format" ] );
}
plotTab->SetDottedSecondary( tab_js[ "dottedSecondary" ] );
plotTab->ShowGrid( tab_js[ "showGrid" ] );
if( tab_js.contains( "fixedY1scale" ) )
{
const nlohmann::json& scale_js = tab_js[ "fixedY1scale" ];
plotTab->SetY1Scale( true, scale_js[ "min" ], scale_js[ "max" ] );
plotTab->GetPlotWin()->LockY( true );
}
if( tab_js.contains( "fixedY2scale" ) )
{
const nlohmann::json& scale_js = tab_js[ "fixedY2scale" ];
plotTab->SetY2Scale( true, scale_js[ "min" ], scale_js[ "max" ] );
plotTab->GetPlotWin()->LockY( true );
}
if( tab_js.contains( "fixedY3scale" ) )
{
plotTab->EnsureThirdYAxisExists();
const nlohmann::json& scale_js = tab_js[ "fixedY3scale" ];
plotTab->SetY3Scale( true, scale_js[ "min" ], scale_js[ "max" ] );
plotTab->GetPlotWin()->LockY( true );
}
if( tab_js.contains( "legend" ) )
{
const nlohmann::json& legend_js = tab_js[ "legend" ];
plotTab->SetLegendPosition( wxPoint( legend_js[ "x" ], legend_js[ "y" ] ) );
plotTab->ShowLegend( true );
}
if( tab_js.contains( "margins" ) )
{
const nlohmann::json& margins_js = tab_js[ "margins" ];
plotTab->GetPlotWin()->SetMargins( margins_js[ "top" ],
margins_js[ "right" ],
margins_js[ "bottom" ],
margins_js[ "left" ] );
}
}
}
int ii = 0;
if( js.contains( "user_defined_signals" ) )
{
for( const nlohmann::json& signal_js : js[ "user_defined_signals" ] )
m_userDefinedSignals[ii++] = wxString( signal_js.get<wxString>() );
}
if( SIM_TAB* simTab = GetCurrentSimTab() )
{
m_simulatorFrame->LoadSimulator( simTab->GetSimCommand(), simTab->GetSimOptions() );
if( SIM_TAB* firstTab = dynamic_cast<SIM_TAB*>( m_plotNotebook->GetPage( 0 ) ) )
firstTab->SetLastSchTextSimCommand( js["last_sch_text_sim_command"] );
}
int tempCustomCursorsCnt = 0;
if( js.contains( "custom_cursors" ) )
tempCustomCursorsCnt = js["custom_cursors"];
else
tempCustomCursorsCnt = 2; // Kind of virtual, for the initial loading of the new setting
if( ( tempCustomCursorsCnt > m_customCursorsCnt ) && m_customCursorsCnt > 2 )
tempCustomCursorsCnt = 2 * tempCustomCursorsCnt - m_customCursorsCnt;
for( int yy = 0; yy <= ( tempCustomCursorsCnt - m_customCursorsCnt ); yy++ )
CreateNewCursor();
auto addCursor =
[=,this]( SIM_PLOT_TAB* aPlotTab, TRACE* aTrace, const wxString& aSignalName,
int aCursorId, const nlohmann::json& aCursor_js )
{
if( aCursorId >= 1 )
{
CURSOR* cursor = new CURSOR( aTrace, aPlotTab );
cursor->SetName( aSignalName );
cursor->SetCoordX( aCursor_js[ "position" ] );
aTrace->SetCursor( aCursorId, cursor );
aPlotTab->GetPlotWin()->AddLayer( cursor );
}
if( aCursorId == -1 )
{
// We are a "cursorD"
m_cursorFormatsDyn[2][0].FromString( aCursor_js["x_format"] );
m_cursorFormatsDyn[2][1].FromString( aCursor_js["y_format"] );
}
else
{
if( aCursorId < 3 )
{
m_cursorFormatsDyn[aCursorId - 1][0].FromString(
aCursor_js["x_format"] );
m_cursorFormatsDyn[aCursorId - 1][1].FromString(
aCursor_js["y_format"] );
}
else
{
m_cursorFormatsDyn[aCursorId][0].FromString( aCursor_js["x_format"] );
m_cursorFormatsDyn[aCursorId][1].FromString( aCursor_js["y_format"] );
}
}
};
for( const auto& [ plotTab, traces_js ] : traceInfo )
{
for( const nlohmann::json& trace_js : traces_js )
{
wxString signalName = trace_js[ "signal" ];
wxString vectorName = vectorNameFromSignalName( plotTab, signalName, nullptr );
TRACE* trace = plotTab->GetOrAddTrace( vectorName, trace_js[ "trace_type" ] );
if( trace )
{
if( trace_js.contains( "cursorD" ) )
addCursor( plotTab, trace, signalName, -1, trace_js[ "cursorD" ] );
std::vector<const char*> aVec;
aVec.clear();
for( int i = 1; i <= tempCustomCursorsCnt; i++ )
{
wxString str = "cursor" + std::to_string( i );
aVec.emplace_back( str.c_str() );
if( trace_js.contains( aVec[i - 1] ) )
addCursor( plotTab, trace, signalName, i, trace_js[aVec[i - 1]] );
}
if( trace_js.contains( "color" ) )
{
wxColour color;
color.Set( wxString( trace_js["color"].get<wxString>() ) );
trace->SetTraceColour( color );
plotTab->UpdateTraceStyle( trace );
}
}
}
plotTab->UpdatePlotColors();
}
}
catch( nlohmann::json::parse_error& error )
{
wxLogTrace( traceSettings, wxT( "Json parse error reading %s: %s" ), aPath, error.what() );
return false;
}
catch( nlohmann::json::type_error& error )
{
wxLogTrace( traceSettings, wxT( "Json type error reading %s: %s" ), aPath, error.what() );
return false;
}
catch( nlohmann::json::invalid_iterator& error )
{
wxLogTrace( traceSettings, wxT( "Json invalid_iterator error reading %s: %s" ), aPath, error.what() );
return false;
}
catch( nlohmann::json::out_of_range& error )
{
wxLogTrace( traceSettings, wxT( "Json out_of_range error reading %s: %s" ), aPath, error.what() );
return false;
}
catch( ... )
{
wxLogTrace( traceSettings, wxT( "Error reading %s" ), aPath );
return false;
}
return true;
}
void SIMULATOR_FRAME_UI::SaveCursorToWorkbook( nlohmann::json& aTraceJs, TRACE* aTrace, int aCursorId )
{
int cursorIdAfterD = aCursorId;
if( aCursorId > 3 )
cursorIdAfterD = cursorIdAfterD - 1;
if( CURSOR* cursor = aTrace->GetCursor( aCursorId ) )
{
aTraceJs["cursor" + wxString( "" ) << aCursorId] =
nlohmann::json( { { "position", cursor->GetCoords().x },
{ "x_format", m_cursorFormatsDyn[cursorIdAfterD][0].ToString() },
{ "y_format", m_cursorFormatsDyn[cursorIdAfterD][1].ToString() } } );
}
if( cursorIdAfterD < 3 && ( aTrace->GetCursor( 1 ) || aTrace->GetCursor( 2 ) ) )
{
aTraceJs["cursorD"] =
nlohmann::json( { { "x_format", m_cursorFormatsDyn[2][0].ToString() },
{ "y_format", m_cursorFormatsDyn[2][1].ToString() } } );
}
}
bool SIMULATOR_FRAME_UI::SaveWorkbook( const wxString& aPath )
{
updateMeasurementsFromGrid();
wxFileName filename = aPath;
filename.SetExt( FILEEXT::WorkbookFileExtension );
wxFile file;
file.Create( filename.GetFullPath(), true /* overwrite */ );
if( !file.IsOpened() )
return false;
nlohmann::json tabs_js = nlohmann::json::array();
for( size_t i = 0; i < m_plotNotebook->GetPageCount(); i++ )
{
SIM_TAB* simTab = dynamic_cast<SIM_TAB*>( m_plotNotebook->GetPage( i ) );
if( !simTab )
continue;
SIM_TYPE simType = simTab->GetSimType();
nlohmann::json commands_js = nlohmann::json::array();
commands_js.push_back( simTab->GetSimCommand() );
int options = simTab->GetSimOptions();
if( options & NETLIST_EXPORTER_SPICE::OPTION_ADJUST_INCLUDE_PATHS )
commands_js.push_back( ".kicad adjustpaths" );
if( options & NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_VOLTAGES )
commands_js.push_back( ".save all" );
if( options & NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_CURRENTS )
commands_js.push_back( ".probe alli" );
if( options & NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_DISSIPATIONS )
commands_js.push_back( ".probe allp" );
if( !( options & NETLIST_EXPORTER_SPICE::OPTION_SAVE_ALL_EVENTS ) )
commands_js.push_back( ".kicad esavenone" );
nlohmann::json tab_js = nlohmann::json(
{ { "analysis", SPICE_SIMULATOR::TypeToName( simType, true ) },
{ "commands", commands_js } } );
if( SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( simTab ) )
{
nlohmann::json traces_js = nlohmann::json::array();
auto findSignalName =
[&]( const wxString& aVectorName ) -> wxString
{
wxString vectorName;
wxString suffix;
if( aVectorName.EndsWith( _( " (phase)" ) ) )
suffix = _( " (phase)" );
else if( aVectorName.EndsWith( _( " (gain)" ) ) )
suffix = _( " (gain)" );
vectorName = aVectorName.Left( aVectorName.Length() - suffix.Length() );
for( const auto& [ id, signal ] : m_userDefinedSignals )
{
if( vectorName == vectorNameFromSignalId( id ) )
return signal + suffix;
}
return aVectorName;
};
for( const auto& [name, trace] : plotTab->GetTraces() )
{
nlohmann::json trace_js = nlohmann::json(
{ { "trace_type", (int) trace->GetType() },
{ "signal", findSignalName( trace->GetDisplayName() ) },
{ "color", COLOR4D( trace->GetTraceColour() ).ToCSSString() } } );
for( int ii = 1; ii <= m_customCursorsCnt; ii++ )
SaveCursorToWorkbook( trace_js, trace, ii );
if( trace->GetCursor( 1 ) || trace->GetCursor( 2 ) )
{
trace_js["cursorD"] = nlohmann::json(
{ { "x_format", m_cursorFormatsDyn[2][0].ToString() },
{ "y_format", m_cursorFormatsDyn[2][1].ToString() } } );
}
traces_js.push_back( trace_js );
}
nlohmann::json measurements_js = nlohmann::json::array();
for( const auto& [ measurement, format ] : plotTab->Measurements() )
{
measurements_js.push_back( nlohmann::json( { { "expr", measurement },
{ "format", format } } ) );
}
tab_js[ "traces" ] = traces_js;
tab_js[ "measurements" ] = measurements_js;
tab_js[ "dottedSecondary" ] = plotTab->GetDottedSecondary();
tab_js[ "showGrid" ] = plotTab->IsGridShown();
double min, max;
if( plotTab->GetY1Scale( &min, &max ) )
tab_js[ "fixedY1scale" ] = nlohmann::json( { { "min", min }, { "max", max } } );
if( plotTab->GetY2Scale( &min, &max ) )
tab_js[ "fixedY2scale" ] = nlohmann::json( { { "min", min }, { "max", max } } );
if( plotTab->GetY3Scale( &min, &max ) )
tab_js[ "fixedY3scale" ] = nlohmann::json( { { "min", min }, { "max", max } } );
if( plotTab->IsLegendShown() )
{
tab_js[ "legend" ] = nlohmann::json( { { "x", plotTab->GetLegendPosition().x },
{ "y", plotTab->GetLegendPosition().y } } );
}
mpWindow* plotWin = plotTab->GetPlotWin();
tab_js[ "margins" ] = nlohmann::json( { { "left", plotWin->GetMarginLeft() },
{ "right", plotWin->GetMarginRight() },
{ "top", plotWin->GetMarginTop() },
{ "bottom", plotWin->GetMarginBottom() } } );
}
tabs_js.push_back( tab_js );
}
nlohmann::json userDefinedSignals_js = nlohmann::json::array();
for( const auto& [ id, signal ] : m_userDefinedSignals )
userDefinedSignals_js.push_back( signal );
// clang-format off
nlohmann::json js = nlohmann::json( { { "version", 7 },
{ "tabs", tabs_js },
{ "user_defined_signals", userDefinedSignals_js },
{ "custom_cursors", m_customCursorsCnt - 1 } } ); // Since we start +1 on init
// clang-format on
// Store the value of any simulation command found on the schematic sheet in a SCH_TEXT
// object. If this changes we want to warn the user and ask them if they want to update
// the corresponding panel's sim command.
if( m_plotNotebook->GetPageCount() > 0 )
{
SIM_TAB* simTab = dynamic_cast<SIM_TAB*>( m_plotNotebook->GetPage( 0 ) );
js[ "last_sch_text_sim_command" ] = simTab->GetLastSchTextSimCommand();
}
std::stringstream buffer;
buffer << std::setw( 2 ) << js << std::endl;
bool res = file.Write( buffer.str() );
file.Close();
// Store the filename of the last saved workbook.
if( res )
{
filename.MakeRelativeTo( m_schematicFrame->Prj().GetProjectPath() );
simulator()->Settings()->SetWorkbookFilename( filename.GetFullPath() );
}
return res;
}
SIM_TRACE_TYPE SIMULATOR_FRAME_UI::getXAxisType( SIM_TYPE aType ) const
{
switch( aType )
{
/// @todo SPT_LOG_FREQUENCY
case ST_AC: return SPT_LIN_FREQUENCY;
case ST_SP: return SPT_LIN_FREQUENCY;
case ST_FFT: return SPT_LIN_FREQUENCY;
case ST_DC: return SPT_SWEEP;
case ST_TRAN: return SPT_TIME;
case ST_NOISE: return SPT_LIN_FREQUENCY;
default: wxFAIL_MSG( wxS( "Unhandled simulation type" ) ); return SPT_UNKNOWN;
}
}
wxString SIMULATOR_FRAME_UI::getNoiseSource() const
{
wxString output;
wxString ref;
wxString source;
wxString scale;
SPICE_VALUE pts;
SPICE_VALUE fStart;
SPICE_VALUE fStop;
bool saveAll;
if( GetCurrentSimTab() )
{
circuitModel()->ParseNoiseCommand( GetCurrentSimTab()->GetSimCommand(), &output, &ref,
&source, &scale, &pts, &fStart, &fStop, &saveAll );
}
return source;
}
void SIMULATOR_FRAME_UI::TogglePanel( wxPanel* aPanel, wxSplitterWindow* aSplitterWindow,
int& aSashPosition )
{
bool isShown = aPanel->IsShown();
if( isShown )
aSashPosition = aSplitterWindow->GetSashPosition();
aPanel->Show( !isShown );
aSplitterWindow->SetSashInvisible( isShown );
aSplitterWindow->SetSashPosition( isShown ? -1 : aSashPosition, true );
aSplitterWindow->UpdateSize();
m_parent->Refresh();
m_parent->Layout();
}
bool SIMULATOR_FRAME_UI::IsConsoleShown()
{
return m_panelConsole->IsShown();
}
void SIMULATOR_FRAME_UI::ToggleConsole()
{
TogglePanel( m_panelConsole, m_splitterPlotAndConsole, m_splitterPlotAndConsoleSashPosition );
}
bool SIMULATOR_FRAME_UI::IsSidePanelShown()
{
return m_sidePanel->IsShown();
}
void SIMULATOR_FRAME_UI::ToggleSimulationSidePanel()
{
TogglePanel( m_sidePanel, m_splitterLeftRight, m_splitterLeftRightSashPosition );
}
void SIMULATOR_FRAME_UI::ToggleDarkModePlots()
{
m_darkMode = !m_darkMode;
// Rebuild the color list to plot traces
SIM_PLOT_COLORS::FillDefaultColorList( m_darkMode );
// Now send changes to all SIM_PLOT_TAB
for( size_t page = 0; page < m_plotNotebook->GetPageCount(); page++ )
{
wxWindow* curPage = m_plotNotebook->GetPage( page );
// ensure it is truly a plot plotTab and not the (zero plots) placeholder
// which is only SIM_TAB
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( curPage );
if( plotTab )
plotTab->UpdatePlotColors();
}
}
void SIMULATOR_FRAME_UI::onPlotClose( wxAuiNotebookEvent& event )
{
OnModify();
}
void SIMULATOR_FRAME_UI::onPlotClosed( wxAuiNotebookEvent& event )
{
CallAfter( [this]()
{
rebuildSignalsList();
rebuildSignalsGrid( m_filter->GetValue() );
updatePlotCursors();
SIM_TAB* panel = GetCurrentSimTab();
if( !panel || panel->GetSimType() != ST_OP )
{
SCHEMATIC& schematic = m_schematicFrame->Schematic();
schematic.ClearOperatingPoints();
m_schematicFrame->RefreshOperatingPointDisplay();
m_schematicFrame->GetCanvas()->Refresh();
}
} );
}
void SIMULATOR_FRAME_UI::updateMeasurementsFromGrid()
{
if( SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() ) )
{
std::vector<std::pair<wxString, wxString>>& measurements = plotTab->Measurements();
measurements.clear();
for( int row = 0; row < m_measurementsGrid->GetNumberRows(); ++row )
{
if( !m_measurementsGrid->GetCellValue( row, COL_MEASUREMENT ).IsEmpty() )
{
measurements.emplace_back( m_measurementsGrid->GetCellValue( row, COL_MEASUREMENT ),
m_measurementsGrid->GetCellValue( row, COL_MEASUREMENT_FORMAT ) );
}
}
}
}
void SIMULATOR_FRAME_UI::onPlotChanging( wxAuiNotebookEvent& event )
{
m_measurementsGrid->ClearRows();
event.Skip();
}
void SIMULATOR_FRAME_UI::OnPlotSettingsChanged()
{
rebuildSignalsList();
rebuildSignalsGrid( m_filter->GetValue() );
updatePlotCursors();
rebuildMeasurementsGrid();
for( int row = 0; row < m_measurementsGrid->GetNumberRows(); ++row )
UpdateMeasurement( row );
}
void SIMULATOR_FRAME_UI::onPlotChanged( wxAuiNotebookEvent& event )
{
if( SIM_TAB* simTab = GetCurrentSimTab() )
simulator()->Command( "setplot " + simTab->GetSpicePlotName().ToStdString() );
OnPlotSettingsChanged();
event.Skip();
}
void SIMULATOR_FRAME_UI::rebuildMeasurementsGrid()
{
m_measurementsGrid->ClearRows();
if( SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() ) )
{
for( const auto& [ measurement, format ] : plotTab->Measurements() )
{
int row = m_measurementsGrid->GetNumberRows();
m_measurementsGrid->AppendRows();
m_measurementsGrid->SetCellValue( row, COL_MEASUREMENT, measurement );
m_measurementsGrid->SetCellValue( row, COL_MEASUREMENT_FORMAT, format );
}
if( plotTab->GetSimType() == ST_TRAN || plotTab->GetSimType() == ST_AC
|| plotTab->GetSimType() == ST_DC || plotTab->GetSimType() == ST_SP )
{
m_measurementsGrid->AppendRows(); // Empty row at end
}
}
}
void SIMULATOR_FRAME_UI::onPlotDragged( wxAuiNotebookEvent& event )
{
}
std::shared_ptr<SPICE_SIMULATOR> SIMULATOR_FRAME_UI::simulator() const
{
return m_simulatorFrame->GetSimulator();
}
std::shared_ptr<SPICE_CIRCUIT_MODEL> SIMULATOR_FRAME_UI::circuitModel() const
{
return m_simulatorFrame->GetCircuitModel();
}
void SIMULATOR_FRAME_UI::updatePlotCursors()
{
SUPPRESS_GRID_CELL_EVENTS raii( this );
m_cursorsGrid->ClearRows();
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() );
if( !plotTab )
return;
// Update cursor values
CURSOR* cursor1 = nullptr;
wxString cursor1Name;
wxString cursor1Units;
CURSOR* cursor2 = nullptr;
wxString cursor2Name;
wxString cursor2Units;
auto getUnitsY =
[&]( TRACE* aTrace ) -> wxString
{
if( plotTab->GetSimType() == ST_AC )
{
if( aTrace->GetType() & SPT_AC_PHASE )
return plotTab->GetUnitsY2();
else
return plotTab->GetUnitsY1();
}
else
{
if( aTrace->GetType() & SPT_POWER )
return plotTab->GetUnitsY3();
else if( aTrace->GetType() & SPT_CURRENT )
return plotTab->GetUnitsY2();
else
return plotTab->GetUnitsY1();
}
};
auto getNameY =
[&]( TRACE* aTrace ) -> wxString
{
if( plotTab->GetSimType() == ST_AC )
{
if( aTrace->GetType() & SPT_AC_PHASE )
return plotTab->GetLabelY2();
else
return plotTab->GetLabelY1();
}
else
{
if( aTrace->GetType() & SPT_POWER )
return plotTab->GetLabelY3();
else if( aTrace->GetType() & SPT_CURRENT )
return plotTab->GetLabelY2();
else
return plotTab->GetLabelY1();
}
};
auto formatValue =
[this]( double aValue, int aCursorId, int aCol ) -> wxString
{
if( ( !m_simulatorFrame->SimFinished() && aCol == 1 ) || std::isnan( aValue ) )
return wxS( "--" );
else
return SPICE_VALUE( aValue ).ToString( m_cursorFormatsDyn[ aCursorId ][ aCol ] );
};
for( const auto& [name, trace] : plotTab->GetTraces() )
{
if( CURSOR* cursor = trace->GetCursor( 1 ) )
{
cursor1 = cursor;
cursor1Name = getNameY( trace );
cursor1Units = getUnitsY( trace );
wxRealPoint coords = cursor->GetCoords();
int row = m_cursorsGrid->GetNumberRows();
m_cursorFormatsDyn[0][0].UpdateUnits( plotTab->GetUnitsX() );
m_cursorFormatsDyn[0][1].UpdateUnits( cursor1Units );
m_cursorsGrid->AppendRows( 1 );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_NAME, wxS( "1" ) );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_SIGNAL, cursor->GetName() );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_X, formatValue( coords.x, 0, 0 ) );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_Y, formatValue( coords.y, 0, 1 ) );
break;
}
}
for( const auto& [name, trace] : plotTab->GetTraces() )
{
if( CURSOR* cursor = trace->GetCursor( 2 ) )
{
cursor2 = cursor;
cursor2Name = getNameY( trace );
cursor2Units = getUnitsY( trace );
wxRealPoint coords = cursor->GetCoords();
int row = m_cursorsGrid->GetNumberRows();
m_cursorFormatsDyn[1][0].UpdateUnits( plotTab->GetUnitsX() );
m_cursorFormatsDyn[1][1].UpdateUnits( cursor2Units );
m_cursorsGrid->AppendRows( 1 );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_NAME, wxS( "2" ) );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_SIGNAL, cursor->GetName() );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_X, formatValue( coords.x, 1, 0 ) );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_Y, formatValue( coords.y, 1, 1 ) );
break;
}
}
if( cursor1 && cursor2 && cursor1Units == cursor2Units )
{
wxRealPoint coords = cursor2->GetCoords() - cursor1->GetCoords();
wxString signal;
m_cursorFormatsDyn[2][0].UpdateUnits( plotTab->GetUnitsX() );
m_cursorFormatsDyn[2][1].UpdateUnits( cursor1Units );
if( cursor1->GetName() == cursor2->GetName() )
signal = wxString::Format( wxS( "%s[2 - 1]" ), cursor2->GetName() );
else
signal = wxString::Format( wxS( "%s - %s" ), cursor2->GetName(), cursor1->GetName() );
m_cursorsGrid->AppendRows( 1 );
m_cursorsGrid->SetCellValue( 2, COL_CURSOR_NAME, _( "Diff" ) );
m_cursorsGrid->SetCellValue( 2, COL_CURSOR_SIGNAL, signal );
m_cursorsGrid->SetCellValue( 2, COL_CURSOR_X, formatValue( coords.x, 2, 0 ) );
m_cursorsGrid->SetCellValue( 2, COL_CURSOR_Y, formatValue( coords.y, 2, 1 ) );
}
// Set up the labels
m_cursorsGrid->SetColLabelValue( COL_CURSOR_X, plotTab->GetLabelX() );
wxString valColName = _( "Value" );
if( !cursor1Name.IsEmpty() )
{
if( cursor2Name.IsEmpty() || cursor1Name == cursor2Name )
valColName = cursor1Name;
}
else if( !cursor2Name.IsEmpty() )
{
valColName = cursor2Name;
}
m_cursorsGrid->SetColLabelValue( COL_CURSOR_Y, valColName );
if( m_customCursorsCnt > 3 ) // 2 for the default hardocded cursors plus the initial + 1
{
for( int i = 3; i < m_customCursorsCnt; i++ )
{
for( const auto& [name, trace] : plotTab->GetTraces() )
{
if( CURSOR* cursor = trace->GetCursor( i ) )
{
CURSOR* curs = cursor;
wxString cursName = getNameY( trace );
wxString cursUnits = getUnitsY( trace );
wxRealPoint coords = cursor->GetCoords();
int row = m_cursorsGrid->GetNumberRows();
m_cursorFormatsDyn[i][0].UpdateUnits( plotTab->GetUnitsX() );
m_cursorFormatsDyn[i][1].UpdateUnits( cursUnits );
m_cursorsGrid->AppendRows( 1 );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_NAME, wxS( "" ) + wxString( "" ) << i );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_SIGNAL, curs->GetName() );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_X, formatValue( coords.x, i, 0 ) );
m_cursorsGrid->SetCellValue( row, COL_CURSOR_Y, formatValue( coords.y, i, 1 ) );
// Set up the labels
m_cursorsGrid->SetColLabelValue( COL_CURSOR_X, plotTab->GetLabelX() );
valColName = _( "Value" );
if( !cursName.IsEmpty()
&& ( m_cursorsGrid->GetColLabelValue( COL_CURSOR_Y ) == cursName ) )
{
valColName = cursName;
}
m_cursorsGrid->SetColLabelValue( COL_CURSOR_Y, valColName );
break;
}
}
}
}
}
void SIMULATOR_FRAME_UI::onPlotCursorUpdate( wxCommandEvent& aEvent )
{
updatePlotCursors();
OnModify();
}
void SIMULATOR_FRAME_UI::OnSimUpdate()
{
if( SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( GetCurrentSimTab() ) )
plotTab->ResetScales( true );
m_simConsole->Clear();
// Do not export netlist, it is already stored in the simulator
applyTuners();
m_refreshTimer.Start( REFRESH_INTERVAL, wxTIMER_ONE_SHOT );
}
void SIMULATOR_FRAME_UI::OnSimReport( const wxString& aMsg )
{
m_simConsole->AppendText( aMsg + "\n" );
m_simConsole->SetInsertionPointEnd();
}
std::vector<wxString> SIMULATOR_FRAME_UI::SimPlotVectors() const
{
std::vector<wxString> signals;
for( const std::string& vec : simulator()->AllVectors() )
signals.emplace_back( vec );
return signals;
}
std::vector<wxString> SIMULATOR_FRAME_UI::Signals() const
{
std::vector<wxString> signals;
for( const wxString& signal : m_signals )
signals.emplace_back( signal );
for( const auto& [ id, signal ] : m_userDefinedSignals )
signals.emplace_back( signal );
sortSignals( signals );
return signals;
}
void SIMULATOR_FRAME_UI::OnSimRefresh( bool aFinal )
{
if( aFinal )
m_refreshTimer.Stop();
SIM_TAB* simTab = GetCurrentSimTab();
if( !simTab )
return;
SIM_TYPE simType = simTab->GetSimType();
wxString msg;
if( aFinal )
{
applyUserDefinedSignals();
updateSignalsGrid();
}
// If there are any signals plotted, update them
if( SIM_TAB::IsPlottable( simType ) )
{
simTab->SetSpicePlotName( simulator()->CurrentPlotName() );
if( simType == ST_NOISE && aFinal )
{
m_simConsole->AppendText( _( "\n\nSimulation results:\n\n" ) );
m_simConsole->SetInsertionPointEnd();
// The simulator will create noise1 & noise2 on the first run, noise3 and noise4
// on the second, etc. The first plot for each run contains the spectral density
// noise vectors and second contains the integrated noise.
long number;
simulator()->CurrentPlotName().Mid( 5 ).ToLong( &number );
for( const std::string& vec : simulator()->AllVectors() )
{
std::vector<double> val_list = simulator()->GetRealVector( vec, 1 );
wxString value = SPICE_VALUE( val_list[ 0 ] ).ToSpiceString();
msg.Printf( wxS( "%s: %sV\n" ), vec, value );
m_simConsole->AppendText( msg );
m_simConsole->SetInsertionPointEnd();
}
simulator()->Command( fmt::format( "setplot noise{}", number - 1 ) );
simTab->SetSpicePlotName( simulator()->CurrentPlotName() );
}
SIM_PLOT_TAB* plotTab = dynamic_cast<SIM_PLOT_TAB*>( simTab );
wxCHECK_RET( plotTab, wxT( "not a SIM_PLOT_TAB" ) );
struct TRACE_INFO
{
wxString Vector;
int TraceType;
bool ClearData;
};
std::map<TRACE*, TRACE_INFO> traceMap;
for( const auto& [ name, trace ] : plotTab->GetTraces() )
traceMap[ trace ] = { wxEmptyString, SPT_UNKNOWN, false };
// NB: m_signals are already broken out into gain/phase, but m_userDefinedSignals are
// as the user typed them
for( const wxString& signal : m_signals )
{
int traceType = SPT_UNKNOWN;
wxString vectorName = vectorNameFromSignalName( plotTab, signal, &traceType );
if( TRACE* trace = plotTab->GetTrace( vectorName, traceType ) )
traceMap[ trace ] = { vectorName, traceType, false };
}
for( const auto& [ id, signal ] : m_userDefinedSignals )
{
int traceType = SPT_UNKNOWN;
wxString vectorName = vectorNameFromSignalName( plotTab, signal, &traceType );
if( simType == ST_AC )
{
int baseType = traceType &= ~( SPT_AC_GAIN | SPT_AC_PHASE );
for( int subType : { baseType | SPT_AC_GAIN, baseType | SPT_AC_PHASE } )
{
if( TRACE* trace = plotTab->GetTrace( vectorName, subType ) )
traceMap[ trace ] = { vectorName, subType, !aFinal };
}
}
else if( simType == ST_SP )
{
int baseType = traceType &= ~( SPT_SP_AMP | SPT_AC_PHASE );
for( int subType : { baseType | SPT_SP_AMP, baseType | SPT_AC_PHASE } )
{
if( TRACE* trace = plotTab->GetTrace( vectorName, subType ) )
traceMap[trace] = { vectorName, subType, !aFinal };
}
}
else
{
if( TRACE* trace = plotTab->GetTrace( vectorName, traceType ) )
traceMap[ trace ] = { vectorName, traceType, !aFinal };
}
}
// Two passes so that DC-sweep sub-traces get deleted and re-created:
for( const auto& [ trace, traceInfo ] : traceMap )
{
if( traceInfo.Vector.IsEmpty() )
plotTab->DeleteTrace( trace );
}
for( const auto& [ trace, info ] : traceMap )
{
std::vector<double> data_x;
if( !info.Vector.IsEmpty() )
updateTrace( info.Vector, info.TraceType, plotTab, &data_x, info.ClearData );
}
plotTab->GetPlotWin()->UpdateAll();
if( aFinal )
{
for( int row = 0; row < m_measurementsGrid->GetNumberRows(); ++row )
UpdateMeasurement( row );
plotTab->ResetScales( true );
}
plotTab->GetPlotWin()->Fit();
updatePlotCursors();
}
else if( simType == ST_OP && aFinal )
{
m_simConsole->AppendText( _( "\n\nSimulation results:\n\n" ) );
m_simConsole->SetInsertionPointEnd();
for( const std::string& vec : simulator()->AllVectors() )
{
std::vector<double> val_list = simulator()->GetRealVector( vec, 1 );
if( val_list.empty() )
continue;
wxString value = SPICE_VALUE( val_list[ 0 ] ).ToSpiceString();
wxString signal;
SIM_TRACE_TYPE type = circuitModel()->VectorToSignal( vec, signal );
const size_t tab = 25; //characters
size_t padding = ( signal.length() < tab ) ? ( tab - signal.length() ) : 1;
switch( type )
{
case SPT_VOLTAGE: value.Append( wxS( "V" ) ); break;
case SPT_CURRENT: value.Append( wxS( "A" ) ); break;
case SPT_POWER: value.Append( wxS( "W" ) ); break;
default: value.Append( wxS( "?" ) ); break;
}
msg.Printf( wxT( "%s%s\n" ),
( signal + wxT( ":" ) ).Pad( padding, wxUniChar( ' ' ) ),
value );
m_simConsole->AppendText( msg );
m_simConsole->SetInsertionPointEnd();
if( type == SPT_VOLTAGE || type == SPT_CURRENT || type == SPT_POWER )
signal = signal.SubString( 2, signal.Length() - 2 );
if( type == SPT_POWER )
signal += wxS( ":power" );
m_schematicFrame->Schematic().SetOperatingPoint( signal, val_list.at( 0 ) );
}
}
else if( simType == ST_PZ && aFinal )
{
m_simConsole->AppendText( _( "\n\nSimulation results:\n\n" ) );
m_simConsole->SetInsertionPointEnd();
simulator()->Command( "print all" );
}
}
void SIMULATOR_FRAME_UI::OnModify()
{
m_simulatorFrame->OnModify();
}
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