kicad/common/plotters/plotter.cpp

/*
 * This program source code file is part of KiCad, a free EDA CAD application.
 *
 * Copyright (C) 2017 Jean-Pierre Charras, jp.charras at wanadoo.fr
 * Copyright (C) 2017-2023 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
 */

/**
 * @file plotter.cpp
 * @brief KiCad: Base of all the specialized plotters
 * the class PLOTTER handle basic functions to plot schematic and boards
 * with different plot formats.
 *
 * There are currently engines for:
 * HPGL
 * POSTSCRIPT
 * GERBER
 * DXF
 * an SVG 'plot' is also provided along with the 'print' function by wx, but
 * is not handled here.
 */

#include <trigo.h>
#include <plotters/plotter.h>
#include <geometry/shape_line_chain.h>
#include <bezier_curves.h>
#include <callback_gal.h>
#include <math/util.h>      // for KiROUND

PLOTTER::PLOTTER( )
{
    m_plotScale = 1;
    m_currentPenWidth = -1;       // To-be-set marker
    m_penState = 'Z';             // End-of-path idle
    m_plotMirror = false;       // Plot mirror option flag
    m_mirrorIsHorizontal = true;
    m_yaxisReversed = false;
    m_outputFile = nullptr;
    m_colorMode = false;          // Starts as a BW plot
    m_negativeMode = false;

    // Temporary init to avoid not initialized vars, will be set later
    m_IUsPerDecimil = 1;        // will be set later to the actual value
    m_iuPerDeviceUnit = 1;        // will be set later to the actual value
    m_renderSettings = nullptr;
}


PLOTTER::~PLOTTER()
{
    // Emergency cleanup, but closing the file is usually made in EndPlot().
    if( m_outputFile )
        fclose( m_outputFile );
}


bool PLOTTER::OpenFile( const wxString& aFullFilename )
{
    m_filename = aFullFilename;

    wxASSERT( !m_outputFile );

    // Open the file in text mode (not suitable for all plotters but only for most of them.
    m_outputFile = wxFopen( m_filename, wxT( "wt" ) );

    if( m_outputFile == nullptr )
        return false ;

    return true;
}


VECTOR2D PLOTTER::userToDeviceCoordinates( const VECTOR2I& aCoordinate )
{
    VECTOR2I pos = aCoordinate - m_plotOffset;

    double x = pos.x * m_plotScale;
    double y = ( m_paperSize.y - pos.y * m_plotScale );

    if( m_plotMirror )
    {
        if( m_mirrorIsHorizontal )
            x = ( m_paperSize.x - pos.x * m_plotScale );
        else
            y = pos.y * m_plotScale;
    }

    if( m_yaxisReversed )
        y = m_paperSize.y - y;

    x *= m_iuPerDeviceUnit;
    y *= m_iuPerDeviceUnit;

    return VECTOR2D( x, y );
}


VECTOR2D PLOTTER::userToDeviceSize( const VECTOR2I& size )
{
    return VECTOR2D( size.x * m_plotScale * m_iuPerDeviceUnit,
                     size.y * m_plotScale * m_iuPerDeviceUnit );
}


double PLOTTER::userToDeviceSize( double size ) const
{
    return size * m_plotScale * m_iuPerDeviceUnit;
}


#define IU_PER_MILS ( m_IUsPerDecimil * 10 )


double PLOTTER::GetDotMarkLenIU( int aLineWidth ) const
{
    return userToDeviceSize( m_renderSettings->GetDotLength( aLineWidth ) );
}


double PLOTTER::GetDashMarkLenIU( int aLineWidth ) const
{
    return userToDeviceSize( m_renderSettings->GetDashLength( aLineWidth ) );
}


double PLOTTER::GetDashGapLenIU( int aLineWidth ) const
{
    return userToDeviceSize( m_renderSettings->GetGapLength( aLineWidth ) );
}

#include <wx/log.h>
void PLOTTER::Arc( const VECTOR2I& aCenter, const VECTOR2I& aStart, const VECTOR2I& aEnd,
                   FILL_T aFill, int aWidth, int aMaxError )
{
    // Recalculate aCenter using double to be sure we will use a exact value, from aStart and aEnd
    // it must be on the line passing by the middle of segment {aStart, aEnd}
    // To simplify calculations, use aStart as origin in intermediate calculations
    VECTOR2D center = aCenter - aStart;
    VECTOR2D end = aEnd - aStart;
    EDA_ANGLE segAngle( end );

    // Rotate end and center, to make segment {aStart, aEnd} horizontal
    RotatePoint( end, segAngle );
    RotatePoint( center, segAngle );

    // center.x must be at end.x/2 coordinate
    center.x = end.x / 2;

    // Now calculate the right center position
    RotatePoint( center, -segAngle );
    center += aStart;

    EDA_ANGLE startAngle( VECTOR2D( aStart ) - center );
    EDA_ANGLE endAngle( VECTOR2D( aEnd ) - center );
    double    radius = ( VECTOR2D( aStart ) - center ).EuclideanNorm();

    if( startAngle > endAngle )
    {
        if( endAngle < ANGLE_0 )
            endAngle.Normalize();
        else
            startAngle = startAngle.Normalize() - ANGLE_360;
    }

    // In old Kicad code, calls to Arc() using angles calls this function after
    // swapping angles and negate them (to compensate the inverted Y axis).
    // So to be compatible with Arc() calls with angles, do the same thing
    std::swap( startAngle, endAngle );
    startAngle = -startAngle;
    endAngle = -endAngle;

    Arc( center, startAngle, endAngle, radius, aFill, aWidth );
}


void PLOTTER::Arc( const VECTOR2D& aCenter, const EDA_ANGLE& aStartAngle,
                   const EDA_ANGLE& aEndAngle, double aRadius, FILL_T aFill, int aWidth )
{
    EDA_ANGLE       startAngle( aStartAngle );
    EDA_ANGLE       endAngle( aEndAngle );
    const EDA_ANGLE delta( 5.0, DEGREES_T ); // increment to draw arc
    VECTOR2I        start, end;
    const int       sign = -1;

    if( startAngle > endAngle )
        std::swap( startAngle, endAngle );

    SetCurrentLineWidth( aWidth );

    start.x = aCenter.x + KiROUND( aRadius * startAngle.Cos() );
    start.y = aCenter.y + sign*KiROUND( aRadius * startAngle.Sin() );

    if( aFill != FILL_T::NO_FILL )
    {
        MoveTo( aCenter );
        LineTo( start );
    }
    else
    {
        MoveTo( start );
    }

    for( EDA_ANGLE ii = startAngle + delta; ii < endAngle; ii += delta )
    {
        end.x = aCenter.x + KiROUND( aRadius * ii.Cos() );
        end.y = aCenter.y + sign*KiROUND( aRadius * ii.Sin() );
        LineTo( end );
    }

    end.x = aCenter.x + KiROUND( aRadius * endAngle.Cos() );
    end.y = aCenter.y + sign*KiROUND( aRadius * endAngle.Sin() );

    if( aFill != FILL_T::NO_FILL )
    {
        LineTo( end );
        FinishTo( aCenter );
    }
    else
    {
        FinishTo( end );
    }
}


void PLOTTER::BezierCurve( const VECTOR2I& aStart, const VECTOR2I& aControl1,
                           const VECTOR2I& aControl2, const VECTOR2I& aEnd,
                           int aTolerance, int aLineThickness )
{
    // Generic fallback: Quadratic Bezier curve plotted as a polyline
    int minSegLen = aLineThickness;  // The segment min length to approximate a bezier curve

    std::vector<VECTOR2I> ctrlPoints;
    ctrlPoints.reserve( 4 );

    ctrlPoints.push_back( aStart );
    ctrlPoints.push_back( aControl1 );
    ctrlPoints.push_back( aControl2 );
    ctrlPoints.push_back( aEnd );

    BEZIER_POLY bezier_converter( ctrlPoints );

    std::vector<VECTOR2I> approxPoints;
    bezier_converter.GetPoly( approxPoints, minSegLen );

    SetCurrentLineWidth( aLineThickness );
    MoveTo( aStart );

    for( unsigned ii = 1; ii < approxPoints.size()-1; ii++ )
        LineTo( approxPoints[ii] );

    FinishTo( aEnd );
}


void PLOTTER::PlotImage( const wxImage& aImage, const VECTOR2I& aPos, double aScaleFactor )
{
    VECTOR2I size( aImage.GetWidth() * aScaleFactor, aImage.GetHeight() * aScaleFactor );

    VECTOR2I start = aPos;
    start.x -= size.x / 2;
    start.y -= size.y / 2;

    VECTOR2I end = start;
    end.x += size.x;
    end.y += size.y;

    Rect( start, end, FILL_T::NO_FILL );
}


void PLOTTER::markerSquare( const VECTOR2I& position, int radius )
{
    double                r = KiROUND( radius / 1.4142 );
    std::vector<VECTOR2I> corner_list;
    VECTOR2I              corner;

    corner_list.reserve( 4 );

    corner.x = position.x + r;
    corner.y = position.y + r;
    corner_list.push_back( corner );
    corner.x = position.x + r;
    corner.y = position.y - r;
    corner_list.push_back( corner );
    corner.x = position.x - r;
    corner.y = position.y - r;
    corner_list.push_back( corner );
    corner.x = position.x - r;
    corner.y = position.y + r;
    corner_list.push_back( corner );
    corner.x = position.x + r;
    corner.y = position.y + r;
    corner_list.push_back( corner );

    PlotPoly( corner_list, FILL_T::NO_FILL, GetCurrentLineWidth() );
}


void PLOTTER::markerCircle( const VECTOR2I& position, int radius )
{
    Circle( position, radius * 2, FILL_T::NO_FILL, GetCurrentLineWidth() );
}


void PLOTTER::markerLozenge( const VECTOR2I& position, int radius )
{
    std::vector<VECTOR2I> corner_list;
    VECTOR2I              corner;

    corner_list.reserve( 4 );

    corner.x = position.x;
    corner.y = position.y + radius;
    corner_list.push_back( corner );
    corner.x = position.x + radius;
    corner.y = position.y,
    corner_list.push_back( corner );
    corner.x = position.x;
    corner.y = position.y - radius;
    corner_list.push_back( corner );
    corner.x = position.x - radius;
    corner.y = position.y;
    corner_list.push_back( corner );
    corner.x = position.x;
    corner.y = position.y + radius;
    corner_list.push_back( corner );

    PlotPoly( corner_list, FILL_T::NO_FILL, GetCurrentLineWidth() );
}


void PLOTTER::markerHBar( const VECTOR2I& pos, int radius )
{
    MoveTo( VECTOR2I( pos.x - radius, pos.y ) );
    FinishTo( VECTOR2I( pos.x + radius, pos.y ) );
}


void PLOTTER::markerSlash( const VECTOR2I& pos, int radius )
{
    MoveTo( VECTOR2I( pos.x - radius, pos.y - radius ) );
    FinishTo( VECTOR2I( pos.x + radius, pos.y + radius ) );
}


void PLOTTER::markerBackSlash( const VECTOR2I& pos, int radius )
{
    MoveTo( VECTOR2I( pos.x + radius, pos.y - radius ) );
    FinishTo( VECTOR2I( pos.x - radius, pos.y + radius ) );
}


void PLOTTER::markerVBar( const VECTOR2I& pos, int radius )
{
    MoveTo( VECTOR2I( pos.x, pos.y - radius ) );
    FinishTo( VECTOR2I( pos.x, pos.y + radius ) );
}


void PLOTTER::Marker( const VECTOR2I& position, int diametre, unsigned aShapeId )
{
    int radius = diametre / 2;

    /* Marker are composed by a series of 'parts' superimposed; not every
       combination make sense, obviously. Since they are used in order I
       tried to keep the uglier/more complex constructions at the end.
       Also I avoided the |/ |\ -/ -\ construction because they're *very*
       ugly... if needed they could be added anyway... I'd like to see
       a board with more than 58 drilling/slotting tools!
       If Visual C++ supported the 0b literals they would be optimally
       and easily encoded as an integer array. We have to do with octal */
    static const unsigned char marker_patterns[MARKER_COUNT] = {

        // Bit order:  O Square Lozenge - | \ /
        // First choice: simple shapes
        0003,  // X
        0100,  // O
        0014,  // +
        0040,  // Sq
        0020,  // Lz

        // Two simple shapes
        0103,  // X O
        0017,  // X +
        0043,  // X Sq
        0023,  // X Lz
        0114,  // O +
        0140,  // O Sq
        0120,  // O Lz
        0054,  // + Sq
        0034,  // + Lz
        0060,  // Sq Lz

        // Three simple shapes
        0117,  // X O +
        0143,  // X O Sq
        0123,  // X O Lz
        0057,  // X + Sq
        0037,  // X + Lz
        0063,  // X Sq Lz
        0154,  // O + Sq
        0134,  // O + Lz
        0074,  // + Sq Lz

        // Four simple shapes
        0174,  // O Sq Lz +
        0163,  // X O Sq Lz
        0157,  // X O Sq +
        0137,  // X O Lz +
        0077,  // X Sq Lz +

        // This draws *everything *
        0177,  // X O Sq Lz +

        // Here we use the single bars... so the cross is forbidden
        0110,  // O -
        0104,  // O |
        0101,  // O /
        0050,  // Sq -
        0044,  // Sq |
        0041,  // Sq /
        0030,  // Lz -
        0024,  // Lz |
        0021,  // Lz /
        0150,  // O Sq -
        0144,  // O Sq |
        0141,  // O Sq /
        0130,  // O Lz -
        0124,  // O Lz |
        0121,  // O Lz /
        0070,  // Sq Lz -
        0064,  // Sq Lz |
        0061,  // Sq Lz /
        0170,  // O Sq Lz -
        0164,  // O Sq Lz |
        0161,  // O Sq Lz /

        // Last resort: the backlash component (easy to confound)
        0102,  // \ O
        0042,  // \ Sq
        0022,  // \ Lz
        0142,  // \ O Sq
        0122,  // \ O Lz
        0062,  // \ Sq Lz
        0162   // \ O Sq Lz
    };

    if( aShapeId >= MARKER_COUNT )
    {
        // Fallback shape
        markerCircle( position, radius );
    }
    else
    {
        // Decode the pattern and draw the corresponding parts
        unsigned char pat = marker_patterns[aShapeId];

        if( pat & 0001 )
            markerSlash( position, radius );

        if( pat & 0002 )
            markerBackSlash( position, radius );

        if( pat & 0004 )
            markerVBar( position, radius );

        if( pat & 0010 )
            markerHBar( position, radius );

        if( pat & 0020 )
            markerLozenge( position, radius );

        if( pat & 0040 )
            markerSquare( position, radius );

        if( pat & 0100 )
            markerCircle( position, radius );
    }
}


void PLOTTER::segmentAsOval( const VECTOR2I& start, const VECTOR2I& end, int aWidth,
                             OUTLINE_MODE aTraceMode )
{
    VECTOR2I  center( ( start.x + end.x ) / 2, ( start.y + end.y ) / 2 );
    VECTOR2I  size( end.x - start.x, end.y - start.y );
    EDA_ANGLE orient( size );
    orient = -orient;       // this is due to our Y axis orientation

    size.x = KiROUND( EuclideanNorm( size ) ) + aWidth;
    size.y = aWidth;

    FlashPadOval( center, size, orient, aTraceMode, nullptr );
}


void PLOTTER::sketchOval( const VECTOR2I& aPos, const VECTOR2I& aSize, const EDA_ANGLE& aOrient,
                          int aWidth )
{
    SetCurrentLineWidth( aWidth );

    EDA_ANGLE orient( aOrient );
    VECTOR2I  size( aSize );

    if( size.x > size.y )
    {
        std::swap( size.x, size.y );
        orient += ANGLE_90;
    }

    int deltaxy = size.y - size.x;       /* distance between centers of the oval */
    int radius  = size.x / 2;

    // Build a vertical oval shape giving the start and end points of arcs and edges,
    // and the middle point of arcs
    std::vector<VECTOR2I> corners;
    corners.reserve( 6 );
    // Shape is (x = corner and arc ends, c = arc centre)
    //  xcx
    //
    //  xcx
    int half_height = deltaxy / 2;
    corners.emplace_back( -radius, -half_height );
    corners.emplace_back( -radius, half_height );
    corners.emplace_back( 0, half_height );
    corners.emplace_back( radius, half_height );
    corners.emplace_back( radius, -half_height );
    corners.emplace_back( 0, -half_height );

    // Rotate and move to the actual position
    for( size_t ii = 0; ii < corners.size(); ii++ )
    {
        RotatePoint( corners[ii], orient );
        corners[ii] += aPos;
    }

    // Gen shape:
    MoveTo( corners[0] );
    FinishTo( corners[1] );

    Arc( corners[2], orient + ANGLE_180, orient + ANGLE_360, radius, FILL_T::NO_FILL );

    MoveTo( corners[3] );
    FinishTo( corners[4] );

    Arc( corners[5], orient, orient + ANGLE_180, radius, FILL_T::NO_FILL );
}


void PLOTTER::ThickSegment( const VECTOR2I& start, const VECTOR2I& end, int width,
                            OUTLINE_MODE tracemode, void* aData )
{
    if( tracemode == FILLED )
    {
        if( start == end )
        {
            Circle( start, width, FILL_T::FILLED_SHAPE, 0 );
        }
        else
        {
            SetCurrentLineWidth( width );
            MoveTo( start );
            FinishTo( end );
        }
    }
    else
    {
        SetCurrentLineWidth( -1 );
        segmentAsOval( start, end, width, tracemode );
    }
}


void PLOTTER::ThickArc( const VECTOR2D& centre, const EDA_ANGLE& aStartAngle,
                        const EDA_ANGLE& aEndAngle, double aRadius, int aWidth,
                        OUTLINE_MODE aTraceMode, void* aData )
{
    if( aTraceMode == FILLED )
    {
        Arc( centre, aStartAngle, aEndAngle, aRadius, FILL_T::NO_FILL, aWidth );
    }
    else
    {
        SetCurrentLineWidth( -1 );
        Arc( centre, aStartAngle, aEndAngle, aRadius - ( aWidth - m_currentPenWidth ) / 2,
             FILL_T::NO_FILL, -1 );
        Arc( centre, aStartAngle, aEndAngle, aRadius + ( aWidth - m_currentPenWidth ) / 2,
             FILL_T::NO_FILL, -1 );
    }
}


void PLOTTER::ThickArc( const VECTOR2I& aCentre, const VECTOR2I& aStart,
                        const VECTOR2I& aEnd, int aWidth,
                        OUTLINE_MODE aTraceMode, void* aData )
{
    if( aTraceMode == FILLED )
    {
        Arc( aCentre, aStart, aEnd, FILL_T::NO_FILL, aWidth, GetPlotterArcHighDef() );
    }
    else
    {
        SetCurrentLineWidth( -1 );
        int radius = ( aStart - aCentre ).EuclideanNorm();

        int new_radius = radius - ( aWidth - m_currentPenWidth ) / 2;
        VECTOR2I start = ( aStart - aCentre ).Resize( new_radius ) + aCentre;
        VECTOR2I end = ( aEnd - aCentre ).Resize( new_radius ) + aCentre;

        Arc( aCentre, start, end, FILL_T::NO_FILL, -1, GetPlotterArcHighDef() );

        new_radius = radius + ( aWidth - m_currentPenWidth ) / 2;
        start = ( aStart - aCentre ).Resize( new_radius ) + aCentre;
        end = ( aEnd - aCentre ).Resize( new_radius ) + aCentre;

        Arc( aCentre, start, end, FILL_T::NO_FILL, -1, GetPlotterArcHighDef() );
    }
}


void PLOTTER::ThickArc( const EDA_SHAPE& aArcShape,
                           OUTLINE_MODE aTraceMode, void* aData )
{
    ThickArc( aArcShape.getCenter(),aArcShape.GetStart(), aArcShape.GetEnd(),
              aArcShape.GetWidth(), aTraceMode, aData );
}


void PLOTTER::ThickRect( const VECTOR2I& p1, const VECTOR2I& p2, int width,
                         OUTLINE_MODE tracemode, void* aData )
{
    if( tracemode == FILLED )
    {
        Rect( p1, p2, FILL_T::NO_FILL, width );
    }
    else
    {
        SetCurrentLineWidth( -1 );
        VECTOR2I offsetp1( p1.x - ( width - m_currentPenWidth ) / 2,
                           p1.y - (width - m_currentPenWidth) / 2 );
        VECTOR2I offsetp2( p2.x + ( width - m_currentPenWidth ) / 2,
                           p2.y + (width - m_currentPenWidth) / 2 );
        Rect( offsetp1, offsetp2, FILL_T::NO_FILL, -1 );
        offsetp1.x += ( width - m_currentPenWidth );
        offsetp1.y += ( width - m_currentPenWidth );
        offsetp2.x -= ( width - m_currentPenWidth );
        offsetp2.y -= ( width - m_currentPenWidth );
        Rect( offsetp1, offsetp2, FILL_T::NO_FILL, -1 );
    }
}


void PLOTTER::ThickCircle( const VECTOR2I& pos, int diametre, int width, OUTLINE_MODE tracemode,
                           void* aData )
{
    if( tracemode == FILLED )
    {
        Circle( pos, diametre, FILL_T::NO_FILL, width );
    }
    else
    {
        SetCurrentLineWidth( -1 );
        Circle( pos, diametre - width + m_currentPenWidth, FILL_T::NO_FILL, -1 );
        Circle( pos, diametre + width - m_currentPenWidth, FILL_T::NO_FILL, -1 );
    }
}


void PLOTTER::FilledCircle( const VECTOR2I& pos, int diametre, OUTLINE_MODE tracemode, void* aData )
{
    if( tracemode == FILLED )
    {
        Circle( pos, diametre, FILL_T::FILLED_SHAPE, 0 );
    }
    else
    {
        SetCurrentLineWidth( -1 );
        Circle( pos, diametre, FILL_T::NO_FILL, -1 );
    }
}


void PLOTTER::PlotPoly( const SHAPE_LINE_CHAIN& aCornerList, FILL_T aFill, int aWidth, void* aData )
{
    std::vector<VECTOR2I> cornerList;
    cornerList.reserve( aCornerList.PointCount() );

    for( int ii = 0; ii < aCornerList.PointCount(); ii++ )
        cornerList.emplace_back( aCornerList.CPoint( ii ) );

    if( aCornerList.IsClosed() && cornerList.front() != cornerList.back() )
        cornerList.emplace_back( aCornerList.CPoint( 0 ) );

    PlotPoly( cornerList, aFill, aWidth, aData );
}


void PLOTTER::Text( const VECTOR2I&             aPos,
                    const COLOR4D&              aColor,
                    const wxString&             aText,
                    const EDA_ANGLE&            aOrient,
                    const VECTOR2I&             aSize,
                    enum GR_TEXT_H_ALIGN_T      aH_justify,
                    enum GR_TEXT_V_ALIGN_T      aV_justify,
                    int                         aPenWidth,
                    bool                        aItalic,
                    bool                        aBold,
                    bool                        aMultilineAllowed,
                    KIFONT::FONT*               aFont,
                    void*                       aData )
{
    KIGFX::GAL_DISPLAY_OPTIONS empty_opts;

    SetColor( aColor );
    SetCurrentLineWidth( aPenWidth, aData );

    if( aPenWidth == 0 && aBold ) // Use default values if aPenWidth == 0
        aPenWidth = GetPenSizeForBold( std::min( aSize.x, aSize.y ) );

    if( aPenWidth < 0 )
        aPenWidth = -aPenWidth;

    CALLBACK_GAL callback_gal( empty_opts,
            // Stroke callback
            [&]( const VECTOR2I& aPt1, const VECTOR2I& aPt2 )
            {
                MoveTo( aPt1 );
                LineTo( aPt2 );
                PenFinish();
            },
            // Polygon callback
            [&]( const SHAPE_LINE_CHAIN& aPoly )
            {
                PlotPoly( aPoly, FILL_T::FILLED_SHAPE, 0, aData );
            } );

    TEXT_ATTRIBUTES attributes;
    attributes.m_Angle = aOrient;
    attributes.m_StrokeWidth = aPenWidth;
    attributes.m_Italic = aItalic;
    attributes.m_Bold = aBold;
    attributes.m_Halign = aH_justify;
    attributes.m_Valign = aV_justify;
    attributes.m_Size = aSize;

    // if Size.x is < 0, the text is mirrored (we have no other param to know a text is mirrored)
    if( attributes.m_Size.x < 0 )
    {
        attributes.m_Size.x = -attributes.m_Size.x;
        attributes.m_Mirrored = true;
    }

    if( !aFont )
        aFont = KIFONT::FONT::GetFont();

    aFont->Draw( &callback_gal, aText, aPos, attributes );
}

void PLOTTER::PlotText( const VECTOR2I& aPos, const COLOR4D& aColor,
                    const wxString& aText,
                    const TEXT_ATTRIBUTES& aAttributes,
                    KIFONT::FONT* aFont,
                    void* aData )
{
    KIGFX::GAL_DISPLAY_OPTIONS empty_opts;

    TEXT_ATTRIBUTES attributes = aAttributes;
    int penWidth = attributes.m_StrokeWidth;

    SetColor( aColor );
    SetCurrentLineWidth( penWidth, aData );

    if( penWidth == 0 && attributes.m_Bold ) // Use default values if aPenWidth == 0
        penWidth = GetPenSizeForBold( std::min( attributes.m_Size.x, attributes.m_Size.y ) );

    if( penWidth < 0 )
        penWidth = -penWidth;

    attributes.m_StrokeWidth = penWidth;

    CALLBACK_GAL callback_gal( empty_opts,
            // Stroke callback
            [&]( const VECTOR2I& aPt1, const VECTOR2I& aPt2 )
            {
                MoveTo( aPt1 );
                LineTo( aPt2 );
                PenFinish();
            },
            // Polygon callback
            [&]( const SHAPE_LINE_CHAIN& aPoly )
            {
                PlotPoly( aPoly, FILL_T::FILLED_SHAPE, 0, aData );
            } );

    if( !aFont )
        aFont = KIFONT::FONT::GetFont();

    aFont->Draw( &callback_gal, aText, aPos, attributes );
}