General cleanup, coding standards, removal of dead code, etc.

This commit is contained in:
Jeff Young 2023-08-02 16:26:17 +01:00
parent f897b4bac1
commit 8ac49d0bab
3 changed files with 83 additions and 936 deletions

View File

@ -320,7 +320,7 @@ void mpFX::Plot( wxDC& dc, mpWindow& w )
iy = w.y2p( GetY( w.p2x( i ) ) );
// Draw the point only if you can draw outside margins or if the point is inside margins
if( (iy >= minYpx) && (iy <= maxYpx) )
if( iy >= minYpx && iy <= maxYpx )
dc.DrawLine( i, iy, i, iy );
}
}
@ -335,8 +335,7 @@ void mpFX::Plot( wxDC& dc, mpWindow& w )
if( (m_flags & mpALIGNMASK) == mpALIGN_RIGHT )
tx = (w.GetScrX() - tx) - w.GetMarginRight() - 8;
else if( (m_flags & mpALIGNMASK) == mpALIGN_CENTER )
tx = ( (w.GetScrX() - w.GetMarginRight() - w.GetMarginLeft() - tx) / 2 ) +
w.GetMarginLeft();
tx = ( (w.GetScrX() - w.GetMarginRight() - w.GetMarginLeft() - tx) / 2 ) + w.GetMarginLeft();
else
tx = w.GetMarginLeft() + 8;
@ -400,8 +399,7 @@ void mpFY::Plot( wxDC& dc, mpWindow& w )
if( (m_flags & mpALIGNMASK) == mpALIGN_TOP )
ty = w.GetMarginTop() + 8;
else if( (m_flags & mpALIGNMASK) == mpALIGN_CENTER )
ty = ( (w.GetScrY() - w.GetMarginTop() - w.GetMarginBottom() - ty) / 2 ) +
w.GetMarginTop();
ty = ( ( w.GetScrY() - w.GetMarginTop() - w.GetMarginBottom() - ty) / 2 ) + w.GetMarginTop();
else
ty = w.GetScrY() - 8 - ty - w.GetMarginBottom();
@ -656,64 +654,6 @@ void mpFXY::Plot( wxDC& dc, mpWindow& w )
}
// -----------------------------------------------------------------------------
// mpProfile implementation
// -----------------------------------------------------------------------------
IMPLEMENT_ABSTRACT_CLASS( mpProfile, mpLayer )
mpProfile::mpProfile( const wxString& name, int flags )
{
SetName( name );
m_flags = flags;
m_type = mpLAYER_PLOT;
}
void mpProfile::Plot( wxDC& dc, mpWindow& w )
{
if( m_visible )
{
dc.SetPen( m_pen );
wxCoord startPx = w.GetMarginLeft();
wxCoord endPx = w.GetScrX() - w.GetMarginRight();
wxCoord minYpx = w.GetMarginTop();
wxCoord maxYpx = w.GetScrY() - w.GetMarginBottom();
// Plot profile linking subsequent point of the profile, instead of mpFY, which plots simple points.
for( wxCoord i = startPx; i < endPx; ++i )
{
wxCoord c0 = w.y2p( GetY( w.p2x( i ) ) );
wxCoord c1 = w.y2p( GetY( w.p2x( i + 1 ) ) );
c0 = (c0 <= maxYpx) ? ( (c0 >= minYpx) ? c0 : minYpx ) : maxYpx;
c1 = (c1 <= maxYpx) ? ( (c1 >= minYpx) ? c1 : minYpx ) : maxYpx;
dc.DrawLine( i, c0, i + 1, c1 );
}
if( !m_name.IsEmpty() )
{
dc.SetFont( m_font );
wxCoord tx, ty;
dc.GetTextExtent( m_name, &tx, &ty );
if( (m_flags & mpALIGNMASK) == mpALIGN_RIGHT )
tx = (w.GetScrX() - tx) - w.GetMarginRight() - 8;
else if( (m_flags & mpALIGNMASK) == mpALIGN_CENTER )
tx = ( (w.GetScrX() - w.GetMarginRight() - w.GetMarginLeft() - tx) / 2 ) +
w.GetMarginLeft();
else
tx = w.GetMarginLeft() + 8;
dc.DrawText( m_name, tx, w.y2p( GetY( w.p2x( tx ) ) ) );
}
}
}
// -----------------------------------------------------------------------------
// mpLayer implementations - furniture (scales, ...)
// -----------------------------------------------------------------------------
@ -749,9 +689,7 @@ void mpScaleX::recalculateTicks( wxDC& dc, mpWindow& w )
}
}
double v = floor( minVvis / bestStep ) * bestStep;
double zeroOffset = 100000000.0;
while( v < maxVvis )
@ -771,9 +709,7 @@ void mpScaleX::recalculateTicks( wxDC& dc, mpWindow& w )
}
for( double t : m_tickValues )
{
m_tickLabels.emplace_back( t );
}
updateTickLabels( dc, w );
}
@ -805,7 +741,7 @@ void mpScaleBase::computeLabelExtents( wxDC& dc, mpWindow& w )
m_maxLabelHeight = 0;
m_maxLabelWidth = 0;
for( const TickLabel& tickLabel : m_tickLabels )
for( const TICK_LABEL& tickLabel : m_tickLabels )
{
int tx, ty;
const wxString s = tickLabel.label;
@ -1129,7 +1065,7 @@ void mpScaleXBase::Plot( wxDC& dc, mpWindow& w )
// Actually draw labels, taking care of not overlapping them, and distributing them
// regularly
for( const TickLabel& tickLabel : m_tickLabels )
for( const TICK_LABEL& tickLabel : m_tickLabels )
{
if( !tickLabel.visible )
continue;
@ -1281,7 +1217,7 @@ void mpScaleY::Plot( wxDC& dc, mpWindow& w )
}
}
for( const TickLabel& tickLabel : m_tickLabels )
for( const TICK_LABEL& tickLabel : m_tickLabels )
{
double py = TransformToPlot( tickLabel.pos );
const int p = (int) ( ( w.GetPosY() - py ) * w.GetScaleY() );
@ -1740,22 +1676,6 @@ void mpWindow::Fit( double xMin, double xMax, double yMin, double yMax,
}
// Patch ngpaton
void mpWindow::DoZoomInXCalc( const int staticXpixel )
{
// Preserve the position of the clicked point:
double staticX = p2x( staticXpixel );
// Zoom in:
m_scaleX = m_scaleX * zoomIncrementalFactor;
// Adjust the new m_posx
m_posX = staticX - (staticXpixel / m_scaleX);
// Adjust desired
m_desiredXmin = m_posX;
m_desiredXmax = m_posX + ( m_scrX - (m_marginLeft + m_marginRight) ) / m_scaleX;
}
void mpWindow::AdjustLimitedView()
{
if( !m_enableLimitedView )
@ -1933,13 +1853,6 @@ void mpWindow::ZoomOut( const wxPoint& centerPoint, double zoomFactor )
}
void mpWindow::ZoomInX()
{
m_scaleX = m_scaleX * zoomIncrementalFactor;
UpdateAll();
}
void mpWindow::ZoomRect( wxPoint p0, wxPoint p1 )
{
// Compute the 2 corners in graph coordinates:
@ -2140,8 +2053,6 @@ void mpWindow::UpdateAll()
}
// End patch ngpaton
void mpWindow::SetScaleX( double scaleX )
{
if( scaleX != 0 )
@ -2262,9 +2173,7 @@ mpInfoLayer* mpWindow::IsInsideInfoLayer( wxPoint& point )
void mpWindow::SetLayerVisible( const wxString& name, bool viewable )
{
mpLayer* lx = GetLayerByName( name );
if( lx )
if( mpLayer* lx = GetLayerByName( name ) )
{
lx->SetVisible( viewable );
UpdateAll();
@ -2274,17 +2183,16 @@ void mpWindow::SetLayerVisible( const wxString& name, bool viewable )
bool mpWindow::IsLayerVisible( const wxString& name ) const
{
const mpLayer* lx = GetLayerByName( name );
if( const mpLayer* lx = GetLayerByName( name ) )
return lx->IsVisible();
return lx ? lx->IsVisible() : false;
return false;
}
void mpWindow::SetLayerVisible( const unsigned int position, bool viewable )
{
mpLayer* lx = GetLayer( position );
if( lx )
if( mpLayer* lx = GetLayer( position ) )
{
lx->SetVisible( viewable );
UpdateAll();
@ -2294,9 +2202,10 @@ void mpWindow::SetLayerVisible( const unsigned int position, bool viewable )
bool mpWindow::IsLayerVisible( unsigned int position ) const
{
mpLayer* lx = GetLayer( position );
if( const mpLayer* lx = GetLayer( position ) )
return lx->IsVisible();
return (lx) ? lx->IsVisible() : false;
return false;
}
@ -2390,21 +2299,12 @@ double mpScaleXLog::TransformFromPlot( double xplot ) const
}
#if 0
mpFSemiLogXVector::mpFSemiLogXVector( wxString name, int flags ) :
mpFXYVector( name, flags )
{
}
IMPLEMENT_DYNAMIC_CLASS( mpFSemiLogXVector, mpFXYVector )
#endif // 0
void mpFXYVector::Rewind()
{
m_index = 0;
}
size_t mpFXYVector::GetCount() const
{
return m_xs.size();
@ -2479,344 +2379,6 @@ void mpFXYVector::SetData( const std::vector<double>& xs, const std::vector<doub
}
// -----------------------------------------------------------------------------
// mpText - provided by Val Greene
// -----------------------------------------------------------------------------
IMPLEMENT_DYNAMIC_CLASS( mpText, mpLayer )
/** @param name text to be displayed
* @param offsetx x position in percentage (0-100)
* @param offsetx y position in percentage (0-100)
*/
mpText::mpText( const wxString& name, int offsetx, int offsety )
{
SetName( name );
if( offsetx >= 0 && offsetx <= 100 )
m_offsetx = offsetx;
else
m_offsetx = 5;
if( offsety >= 0 && offsety <= 100 )
m_offsety = offsety;
else
m_offsety = 50;
m_type = mpLAYER_INFO;
}
/** mpText Layer plot handler.
* This implementation will plot the text adjusted to the visible area.
*/
void mpText::Plot( wxDC& dc, mpWindow& w )
{
if( m_visible )
{
dc.SetPen( m_pen );
dc.SetFont( m_font );
wxCoord tw = 0, th = 0;
dc.GetTextExtent( GetName(), &tw, &th );
int px = m_offsetx * ( w.GetScrX() - w.GetMarginLeft() - w.GetMarginRight() ) / 100;
int py = m_offsety * ( w.GetScrY() - w.GetMarginTop() - w.GetMarginBottom() ) / 100;
dc.DrawText( GetName(), px, py );
}
}
// -----------------------------------------------------------------------------
// mpMovableObject - provided by Jose Luis Blanco
// -----------------------------------------------------------------------------
void mpMovableObject::TranslatePoint( double x, double y, double& out_x, double& out_y )
{
double ccos = cos( m_reference_phi ); // Avoid computing cos/sin twice.
double csin = sin( m_reference_phi );
out_x = m_reference_x + ccos * x - csin * y;
out_y = m_reference_y + csin * x + ccos * y;
}
// This method updates the buffers m_trans_shape_xs/ys, and the precomputed bounding box.
void mpMovableObject::ShapeUpdated()
{
// Just in case...
if( m_shape_xs.size() != m_shape_ys.size() )
{
}
else
{
double ccos = cos( m_reference_phi ); // Avoid computing cos/sin twice.
double csin = sin( m_reference_phi );
m_trans_shape_xs.resize( m_shape_xs.size() );
m_trans_shape_ys.resize( m_shape_xs.size() );
std::vector<double>::iterator itXi, itXo;
std::vector<double>::iterator itYi, itYo;
m_bbox_min_x = 1e300;
m_bbox_max_x = -1e300;
m_bbox_min_y = 1e300;
m_bbox_max_y = -1e300;
for( itXo = m_trans_shape_xs.begin(),
itYo = m_trans_shape_ys.begin(), itXi = m_shape_xs.begin(), itYi = m_shape_ys.begin();
itXo!=m_trans_shape_xs.end(); itXo++, itYo++, itXi++, itYi++ )
{
*itXo = m_reference_x + ccos * (*itXi) - csin * (*itYi);
*itYo = m_reference_y + csin * (*itXi) + ccos * (*itYi);
// Keep BBox:
if( *itXo < m_bbox_min_x )
m_bbox_min_x = *itXo;
if( *itXo > m_bbox_max_x )
m_bbox_max_x = *itXo;
if( *itYo < m_bbox_min_y )
m_bbox_min_y = *itYo;
if( *itYo > m_bbox_max_y )
m_bbox_max_y = *itYo;
}
}
}
void mpMovableObject::Plot( wxDC& dc, mpWindow& w )
{
if( m_visible )
{
dc.SetPen( m_pen );
std::vector<double>::iterator itX = m_trans_shape_xs.begin();
std::vector<double>::iterator itY = m_trans_shape_ys.begin();
if( !m_continuous )
{
// for some reason DrawPoint does not use the current pen,
// so we use DrawLine for fat pens
if( m_pen.GetWidth() <= 1 )
{
while( itX!=m_trans_shape_xs.end() )
{
dc.DrawPoint( w.x2p( *(itX++) ), w.y2p( *(itY++) ) );
}
}
else
{
while( itX!=m_trans_shape_xs.end() )
{
wxCoord cx = w.x2p( *(itX++) );
wxCoord cy = w.y2p( *(itY++) );
dc.DrawLine( cx, cy, cx, cy );
}
}
}
else
{
wxCoord cx0 = 0, cy0 = 0;
bool first = true;
while( itX != m_trans_shape_xs.end() )
{
wxCoord cx = w.x2p( *(itX++) );
wxCoord cy = w.y2p( *(itY++) );
if( first )
{
first = false;
cx0 = cx; cy0 = cy;
}
dc.DrawLine( cx0, cy0, cx, cy );
cx0 = cx; cy0 = cy;
}
}
if( !m_name.IsEmpty() && m_showName )
{
dc.SetFont( m_font );
wxCoord tx, ty;
dc.GetTextExtent( m_name, &tx, &ty );
if( HasBBox() )
{
wxCoord sx = (wxCoord) ( ( m_bbox_max_x - w.GetPosX() ) * w.GetScaleX() );
wxCoord sy = (wxCoord) ( (w.GetPosY() - m_bbox_max_y ) * w.GetScaleY() );
tx = sx - tx - 8;
ty = sy - 8 - ty;
}
else
{
const int sx = w.GetScrX() >> 1;
const int sy = w.GetScrY() >> 1;
if( (m_flags & mpALIGNMASK) == mpALIGN_NE )
{
tx = sx - tx - 8;
ty = -sy + 8;
}
else if( (m_flags & mpALIGNMASK) == mpALIGN_NW )
{
tx = -sx + 8;
ty = -sy + 8;
}
else if( (m_flags & mpALIGNMASK) == mpALIGN_SW )
{
tx = -sx + 8;
ty = sy - 8 - ty;
}
else
{
tx = sx - tx - 8;
ty = sy - 8 - ty;
}
}
dc.DrawText( m_name, tx, ty );
}
}
}
// -----------------------------------------------------------------------------
// mpCovarianceEllipse - provided by Jose Luis Blanco
// -----------------------------------------------------------------------------
// Called to update the m_shape_xs, m_shape_ys vectors, whenever a parameter changes.
void mpCovarianceEllipse::RecalculateShape()
{
m_shape_xs.clear();
m_shape_ys.clear();
// Preliminary checks:
if( m_quantiles < 0 )
return;
if( m_cov_00 < 0 )
return;
if( m_cov_11 < 0 )
return;
m_shape_xs.resize( m_segments, 0 );
m_shape_ys.resize( m_segments, 0 );
// Compute the two eigenvalues of the covariance:
// -------------------------------------------------
double b = -m_cov_00 - m_cov_11;
double c = m_cov_00 * m_cov_11 - m_cov_01 * m_cov_01;
double D = b * b - 4 * c;
if( D < 0 )
return;
double eigenVal0 = 0.5 * ( -b + sqrt( D ) );
double eigenVal1 = 0.5 * ( -b - sqrt( D ) );
// Compute the two corresponding eigenvectors:
// -------------------------------------------------
double eigenVec0_x, eigenVec0_y;
double eigenVec1_x, eigenVec1_y;
if( fabs( eigenVal0 - m_cov_00 ) > 1e-6 )
{
double k1x = m_cov_01 / ( eigenVal0 - m_cov_00 );
eigenVec0_y = 1;
eigenVec0_x = eigenVec0_y * k1x;
}
else
{
double k1y = m_cov_01 / ( eigenVal0 - m_cov_11 );
eigenVec0_x = 1;
eigenVec0_y = eigenVec0_x * k1y;
}
if( fabs( eigenVal1 - m_cov_00 ) > 1e-6 )
{
double k2x = m_cov_01 / ( eigenVal1 - m_cov_00 );
eigenVec1_y = 1;
eigenVec1_x = eigenVec1_y * k2x;
}
else
{
double k2y = m_cov_01 / ( eigenVal1 - m_cov_11 );
eigenVec1_x = 1;
eigenVec1_y = eigenVec1_x * k2y;
}
// Normalize the eigenvectors:
double len = sqrt( eigenVec0_x * eigenVec0_x + eigenVec0_y * eigenVec0_y );
eigenVec0_x /= len; // It *CANNOT* be zero
eigenVec0_y /= len;
len = sqrt( eigenVec1_x * eigenVec1_x + eigenVec1_y * eigenVec1_y );
eigenVec1_x /= len; // It *CANNOT* be zero
eigenVec1_y /= len;
// Take the sqrt of the eigenvalues (required for the ellipse scale):
eigenVal0 = sqrt( eigenVal0 );
eigenVal1 = sqrt( eigenVal1 );
// Compute the 2x2 matrix M = diag(eigVal) * (~eigVec) (each eigen vector is a row):
double M_00 = eigenVec0_x * eigenVal0;
double M_01 = eigenVec0_y * eigenVal0;
double M_10 = eigenVec1_x * eigenVal1;
double M_11 = eigenVec1_y * eigenVal1;
// The points of the 2D ellipse:
double ang;
double Aang = 6.283185308 / (m_segments - 1);
int i;
for( i = 0, ang = 0; i < m_segments; i++, ang += Aang )
{
double ccos = cos( ang );
double csin = sin( ang );
m_shape_xs[i] = m_quantiles * (ccos * M_00 + csin * M_10 );
m_shape_ys[i] = m_quantiles * (ccos * M_01 + csin * M_11 );
} // end for points on ellipse
ShapeUpdated();
}
// -----------------------------------------------------------------------------
// mpPolygon - provided by Jose Luis Blanco
// -----------------------------------------------------------------------------
void mpPolygon::setPoints( const std::vector<double>& points_xs,
const std::vector<double>& points_ys, bool closedShape )
{
if( points_xs.size() == points_ys.size() )
{
m_shape_xs = points_xs;
m_shape_ys = points_ys;
if( closedShape && !points_xs.empty() )
{
m_shape_xs.push_back( points_xs[0] );
m_shape_ys.push_back( points_ys[0] );
}
ShapeUpdated();
}
}
void mpFXY::SetScale( mpScaleBase* scaleX, mpScaleBase* scaleY )
{
m_scaleX = scaleX;

View File

@ -157,14 +157,14 @@ private:
double sf = pow( 10.0, power );
for( mpScaleBase::TickLabel& l : T_PARENT::m_tickLabels )
for( mpScaleBase::TICK_LABEL& l : T_PARENT::m_tickLabels )
digits = std::max( digits, countDecimalDigits( l.pos / sf, MAX_DIGITS ) );
do
{
for( size_t ii = 0; ii < T_PARENT::m_tickLabels.size(); ++ii )
{
mpScaleBase::TickLabel& l = T_PARENT::m_tickLabels[ii];
mpScaleBase::TICK_LABEL& l = T_PARENT::m_tickLabels[ii];
l.label = formatFloat( l.pos / sf, digits ) + suffix;
l.visible = true;
@ -226,7 +226,7 @@ private:
int power;
int constexpr MAX_DIGITS = 3;
for( mpScaleBase::TickLabel& l : T_PARENT::m_tickLabels )
for( mpScaleBase::TICK_LABEL& l : T_PARENT::m_tickLabels )
{
getSISuffix( l.pos, m_unit, power, suffix );
double sf = pow( 10.0, power );

View File

@ -110,7 +110,6 @@ class WXDLLIMPEXP_MATHPLOT mpFXYVector;
class WXDLLIMPEXP_MATHPLOT mpScaleX;
class WXDLLIMPEXP_MATHPLOT mpScaleY;
class WXDLLIMPEXP_MATHPLOT mpWindow;
class WXDLLIMPEXP_MATHPLOT mpText;
class WXDLLIMPEXP_MATHPLOT mpPrintout;
/** Command IDs used by mpWindow */
@ -302,7 +301,7 @@ public:
/** Set layer brush
* @param brush brush, will be copied to internal class member */
void SetBrush( wxBrush brush ) { m_brush = brush; };
void SetBrush( const wxBrush& brush ) { m_brush = brush; };
protected:
@ -377,15 +376,13 @@ public:
* @return The rectangle size */
wxSize GetSize() const;
/** Returns the current rectangle coordinates.
* @return The info layer rectangle */
const wxRect& GetRectangle() const { return m_dim; };
protected:
wxRect m_dim; // !< The bounding rectangle of the box. It may be resized dynamically by the Plot method.
wxPoint m_reference; // !< Holds the reference point for movements
wxBrush m_brush; // !< The brush to be used for the background
int m_winX, m_winY; // !< Holds the mpWindow size. Used to rescale position when window is resized.
wxRect m_dim; // !< The bounding rectangle of the box. It may be resized dynamically
// by the Plot method.
wxPoint m_reference; // !< Holds the reference point for movements
wxBrush m_brush; // !< The brush to be used for the background
int m_winX; // !< Holds the mpWindow size. Used to rescale position when window is
int m_winY; // resized.
DECLARE_DYNAMIC_CLASS( mpInfoLayer )
};
@ -411,7 +408,7 @@ public:
/** Plot method.
* @param dc the device content where to plot
* @param w the window to plot
* @sa mpLayer::Plot */
*/
virtual void Plot( wxDC& dc, mpWindow& w ) override;
protected:
@ -492,8 +489,8 @@ public:
virtual double GetY( double x ) const = 0;
/** Layer plot handler.
* This implementation will plot the function in the visible area and
* put a label according to the alignment specified.
* This implementation will plot the function in the visible area and put a label according
* to the alignment specified.
*/
virtual void Plot( wxDC& dc, mpWindow& w ) override;
@ -505,8 +502,8 @@ protected:
/** Abstract base class providing plot and labeling functionality for functions F:Y->X.
* Override mpFY::GetX to implement a function.
* Optionally implement a constructor and pass a name (label) and a label alignment
* to the constructor mpFY::mpFY. If the layer name is empty, no label will be plotted.
* Optionally implement a constructor and pass a name (label) and a label alignment to the
* constructor mpFY::mpFY. If the layer name is empty, no label will be plotted.
*/
class WXDLLIMPEXP_MATHPLOT mpFY : public mpLayer
{
@ -524,8 +521,8 @@ public:
virtual double GetX( double y ) const = 0;
/** Layer plot handler.
* This implementation will plot the function in the visible area and
* put a label according to the alignment specified.
* This implementation will plot the function in the visible area and put a label according
* to the alignment specified.
*/
virtual void Plot( wxDC& dc, mpWindow& w ) override;
@ -565,8 +562,8 @@ public:
virtual size_t GetCount() const = 0;
/** Layer plot handler.
* This implementation will plot the locus in the visible area and
* put a label according to the alignment specified.
* This implementation will plot the locus in the visible area and put a label according to
* the alignment specified.
*/
virtual void Plot( wxDC& dc, mpWindow& w ) override;
@ -597,39 +594,6 @@ protected:
DECLARE_DYNAMIC_CLASS( mpFXY )
};
/** Abstract base class providing plot and labeling functionality for functions F:Y->X.
* Override mpProfile::GetX to implement a function.
* This class is similar to mpFY, but the Plot method is different. The plot is in fact represented by lines instead of points, which gives best rendering of rapidly-varying functions, and in general, data which are not so close one to another.
* Optionally implement a constructor and pass a name (label) and a label alignment
* to the constructor mpProfile::mpProfile. If the layer name is empty, no label will be plotted.
*/
class WXDLLIMPEXP_MATHPLOT mpProfile : public mpLayer
{
public:
/** @param name Label
* @param flags Label alignment, pass one of #mpALIGN_BOTTOM, #mpALIGN_CENTER, #mpALIGN_TOP.
*/
mpProfile( const wxString& name = wxEmptyString, int flags = mpALIGN_TOP );
/** Get function value for argument.
* Override this function in your implementation.
* @param x Argument
* @return Function value
*/
virtual double GetY( double x ) const = 0;
/** Layer plot handler.
* This implementation will plot the function in the visible area and
* put a label according to the alignment specified.
*/
virtual void Plot( wxDC& dc, mpWindow& w ) override;
protected:
int m_flags; // !< Holds label alignment
DECLARE_DYNAMIC_CLASS( mpProfile )
};
/*@}*/
// -----------------------------------------------------------------------------
@ -640,9 +604,8 @@ protected:
* @{*/
/** Plot layer implementing a x-scale ruler.
* The ruler is fixed at Y=0 in the coordinate system. A label is plotted at
* the bottom-right hand of the ruler. The scale numbering automatically
* adjusts to view and zoom factor.
* The ruler is fixed at Y=0 in the coordinate system. A label is plotted at the bottom-right
* hand of the ruler. The scale numbering automatically adjusts to view and zoom factor.
*/
@ -674,10 +637,6 @@ public:
*/
bool GetTicks() const { return m_ticks; };
// virtual double X2p( mpWindow &w, double x ) = 0;
// virtual double P2x( mpWindow &w, double x ) = 0;
void GetDataRange( double& minV, double& maxV ) const
{
minV = m_minV;
@ -746,9 +705,9 @@ public:
virtual double TransformToPlot( double x ) const { return 0.0; };
virtual double TransformFromPlot( double xplot ) const { return 0.0; };
struct TickLabel
struct TICK_LABEL
{
TickLabel( double pos_ = 0.0, const wxString& label_ = wxT( "" ) ) :
TICK_LABEL( double pos_ = 0.0, const wxString& label_ = wxT( "" ) ) :
pos( pos_ ),
label( label_ ),
visible( true )
@ -761,32 +720,31 @@ public:
protected:
void updateTickLabels( wxDC& dc, mpWindow& w );
void computeLabelExtents( wxDC& dc, mpWindow& w );
void updateTickLabels( wxDC& dc, mpWindow& w );
void computeLabelExtents( wxDC& dc, mpWindow& w );
// virtual int getLabelDecimalDigits(int maxDigits) const;
virtual void getVisibleDataRange( mpWindow& w, double& minV, double& maxV ) {};
virtual void recalculateTicks( wxDC& dc, mpWindow& w ) {};
virtual const wxString formatLabel( double value, int nDigits ) { return wxT( "" ); }
virtual void formatLabels() {};
protected:
std::vector<double> m_tickValues;
std::vector<TickLabel> m_tickLabels;
std::vector<double> m_tickValues;
std::vector<TICK_LABEL> m_tickLabels;
double m_offset, m_scale;
double m_absVisibleMaxV;
int m_flags; // !< Flag for axis alignment
int m_nameFlags;
bool m_ticks; // !< Flag to toggle between ticks or grid
double m_minV, m_maxV;
bool m_rangeSet;
bool m_axisLocked;
double m_axisMin;
double m_axisMax;
int m_maxLabelHeight;
int m_maxLabelWidth;
double m_offset, m_scale;
double m_absVisibleMaxV;
int m_flags; // !< Flag for axis alignment
int m_nameFlags;
bool m_ticks; // !< Flag to toggle between ticks or grid
double m_minV, m_maxV;
bool m_rangeSet;
bool m_axisLocked;
double m_axisMin;
double m_axisMax;
int m_maxLabelHeight;
int m_maxLabelWidth;
};
class WXDLLIMPEXP_MATHPLOT mpScaleXBase : public mpScaleBase
@ -795,23 +753,19 @@ public:
/** Full constructor.
* @param name Label to plot by the ruler
* @param flags Set the position of the scale with respect to the window.
* @param ticks Select ticks or grid. Give true (default) for drawing axis ticks, false for drawing the grid.
* @param ticks Select ticks or grid. Give true (default) for drawing axis ticks, false for
* drawing the grid.
* @param type mpX_NORMAL for normal labels, mpX_TIME for time axis in hours, minutes, seconds.
*/
mpScaleXBase( const wxString& name = wxT("X"), int flags = mpALIGN_CENTER,
bool ticks = true, unsigned int type = mpX_NORMAL );
mpScaleXBase( const wxString& name = wxT( "X" ), int flags = mpALIGN_CENTER, bool ticks = true,
unsigned int type = mpX_NORMAL );
virtual ~mpScaleXBase() {};
virtual bool IsHorizontal() const override { return true; }
/** Layer plot handler.
* This implementation will plot the ruler adjusted to the visible area. */
virtual void Plot( wxDC& dc, mpWindow& w ) override;
virtual void getVisibleDataRange( mpWindow& w, double& minV, double& maxV ) override;
// unsigned int m_labelType; //!< Select labels mode: mpX_NORMAL for normal labels, mpX_TIME for time axis in hours, minutes, seconds
// wxString m_labelFormat; //!< Format string used to print labels
DECLARE_DYNAMIC_CLASS( mpScaleXBase )
};
@ -822,24 +776,19 @@ public:
/** Full constructor.
* @param name Label to plot by the ruler
* @param flags Set the position of the scale with respect to the window.
* @param ticks Select ticks or grid. Give true (default) for drawing axis ticks, false for drawing the grid.
* @param type mpX_NORMAL for normal labels, mpX_TIME for time axis in hours, minutes, seconds. */
mpScaleX( const wxString& name = wxT("X"), int flags = mpALIGN_CENTER,
bool ticks = true, unsigned int type = mpX_NORMAL );
* @param ticks Select ticks or grid. Give true (default) for drawing axis ticks, false for
* drawing the grid.
* @param type mpX_NORMAL for normal labels, mpX_TIME for time axis in hours, minutes, seconds.
*/
mpScaleX( const wxString& name = wxT( "X" ), int flags = mpALIGN_CENTER, bool ticks = true,
unsigned int type = mpX_NORMAL );
/** Layer plot handler.
* This implementation will plot the ruler adjusted to the visible area. */
// virtual void Plot(wxDC & dc, mpWindow & w);
// virtual double X2p( mpWindow &w, double x );
// virtual double P2x( mpWindow &w, double x );
virtual double TransformToPlot( double x ) const override;
virtual double TransformFromPlot( double xplot ) const override;
protected:
virtual void recalculateTicks( wxDC& dc, mpWindow& w ) override;
DECLARE_DYNAMIC_CLASS( mpScaleX )
};
@ -850,33 +799,19 @@ public:
/** Full constructor.
* @param name Label to plot by the ruler
* @param flags Set the position of the scale with respect to the window.
* @param ticks Select ticks or grid. Give true (default) for drawing axis ticks, false for drawing the grid.
* @param ticks Select ticks or grid. Give true (default) for drawing axis ticks, false for
* drawing the grid.
* @param type mpX_NORMAL for normal labels, mpX_TIME for time axis in hours, minutes, seconds.
*/
mpScaleXLog( const wxString& name = wxT("log(X)"), int flags = mpALIGN_CENTER,
mpScaleXLog( const wxString& name = wxT( "log(X)" ), int flags = mpALIGN_CENTER,
bool ticks = true, unsigned int type = mpX_NORMAL );
virtual double TransformToPlot( double x ) const override;
virtual double TransformFromPlot( double xplot ) const override;
/** Layer plot handler.
* This implementation will plot the ruler adjusted to the visible area.
*/
// virtual double X2p( mpWindow &w, double x );
// virtual double P2x( mpWindow &w, double x );
protected:
void recalculateTicks( wxDC& dc, mpWindow& w ) override;
// int tickCount() const;
// int labelCount() const;
// const wxString getLabel( int n );
// double getTickPos( int n );
// double getLabelPos( int n );
void computeLabelExtents( wxDC& dc, mpWindow& w );
DECLARE_DYNAMIC_CLASS( mpScaleXLog )
};
@ -893,7 +828,8 @@ class WXDLLIMPEXP_MATHPLOT mpScaleY : public mpScaleBase
public:
/** @param name Label to plot by the ruler
* @param flags Set position of the scale respect to the window.
* @param ticks Select ticks or grid. Give true (default) for drawing axis ticks, false for drawing the grid
* @param ticks Select ticks or grid. Give true (default) for drawing axis ticks, false for
* drawing the grid
*/
mpScaleY( const wxString& name = wxT( "Y" ), int flags = mpALIGN_CENTER, bool ticks = true );
@ -910,46 +846,20 @@ public:
*/
virtual bool HasBBox() const override { return false; }
/** Set Y axis alignment.
* @param align alignment (choose between mpALIGN_BORDER_LEFT, mpALIGN_LEFT, mpALIGN_CENTER, mpALIGN_RIGHT, mpALIGN_BORDER_RIGHT) */
void SetAlign( int align ) { m_flags = align; };
/** Set Y axis ticks or grid
* @param ticks true to plot axis ticks, false to plot grid. */
void SetTicks( bool ticks ) { m_ticks = ticks; };
/** Get Y axis ticks or grid
* @return true if plot is drawing axis ticks, false if the grid is active. */
bool GetTicks() const { return m_ticks; };
virtual double TransformToPlot( double x ) const override;
virtual double TransformFromPlot( double xplot ) const override;
void SetMasterScale( mpScaleY* masterScale )
{
m_masterScale = masterScale;
}
void SetMasterScale( mpScaleY* masterScale ) { m_masterScale = masterScale; }
protected:
virtual void getVisibleDataRange( mpWindow& w, double& minV, double& maxV ) override;
virtual void recalculateTicks( wxDC& dc, mpWindow& w ) override;
// virtual int tickCount() const;
// virtual int labelCount() const;
// virtual const wxString getLabel( int n );
// virtual double getTickPos( int n );
// virtual double getLabelPos( int n );
void computeLabelExtents( wxDC& dc, mpWindow& w );
void computeSlaveTicks( mpWindow& w );
mpScaleY* m_masterScale;
// double m_minV, m_maxV;
int m_flags; // !< Flag for axis alignment
bool m_ticks; // !< Flag to toggle between ticks or grid
// wxString m_labelFormat; //!< Format string used to print labels
int m_flags; // !< Flag for axis alignment
bool m_ticks; // !< Flag to toggle between ticks or grid
DECLARE_DYNAMIC_CLASS( mpScaleY )
};
@ -1008,7 +918,8 @@ public:
/** Add a plot layer to the canvas.
* @param layer Pointer to layer. The mpLayer object will get under control of mpWindow,
* i.e. it will be delete'd on mpWindow destruction
* @param refreshDisplay States whether to refresh the display (UpdateAll) after adding the layer.
* @param refreshDisplay States whether to refresh the display (UpdateAll) after adding the
* layer.
* @retval true Success
* @retval false Failure due to out of memory.
*/
@ -1016,8 +927,10 @@ public:
/** Remove a plot layer from the canvas.
* @param layer Pointer to layer. The mpLayer object will be destructed using delete.
* @param alsoDeleteObject If set to true, the mpLayer object will be also "deleted", not just removed from the internal list.
* @param refreshDisplay States whether to refresh the display (UpdateAll) after removing the layer.
* @param alsoDeleteObject If set to true, the mpLayer object will be also "deleted", not just
* removed from the internal list.
* @param refreshDisplay States whether to refresh the display (UpdateAll) after removing the
* layer.
* @return true if layer is deleted correctly
*
* N.B. Only the layer reference in the mpWindow is deleted, the layer object still exists!
@ -1025,8 +938,10 @@ public:
bool DelLayer( mpLayer* layer, bool alsoDeleteObject = false, bool refreshDisplay = true );
/** Remove all layers from the plot.
* @param alsoDeleteObject If set to true, the mpLayer objects will be also "deleted", not just removed from the internal list.
* @param refreshDisplay States whether to refresh the display (UpdateAll) after removing the layers.
* @param alsoDeleteObject If set to true, the mpLayer objects will be also "deleted", not
* just removed from the internal list.
* @param refreshDisplay States whether to refresh the display (UpdateAll) after removing the
* layers.
*/
void DelAllLayers( bool alsoDeleteObject, bool refreshDisplay = true );
@ -1131,22 +1046,18 @@ public:
/** Converts mpWindow (screen) pixel coordinates into graph (floating point) coordinates, using current mpWindow position and scale.
* @sa p2y,x2p,y2p */
// double p2x(wxCoord pixelCoordX, bool drawOutside = true ); // { return m_posX + pixelCoordX/m_scaleX; }
inline double p2x( wxCoord pixelCoordX ) { return m_posX + pixelCoordX / m_scaleX; }
/** Converts mpWindow (screen) pixel coordinates into graph (floating point) coordinates, using current mpWindow position and scale.
* @sa p2x,x2p,y2p */
// double p2y(wxCoord pixelCoordY, bool drawOutside = true ); //{ return m_posY - pixelCoordY/m_scaleY; }
inline double p2y( wxCoord pixelCoordY ) { return m_posY - pixelCoordY / m_scaleY; }
/** Converts graph (floating point) coordinates into mpWindow (screen) pixel coordinates, using current mpWindow position and scale.
* @sa p2x,p2y,y2p */
// wxCoord x2p(double x, bool drawOutside = true); // { return (wxCoord) ( (x-m_posX) * m_scaleX); }
inline wxCoord x2p( double x ) { return (wxCoord) ( (x - m_posX) * m_scaleX ); }
/** Converts graph (floating point) coordinates into mpWindow (screen) pixel coordinates, using current mpWindow position and scale.
* @sa p2x,p2y,x2p */
// wxCoord y2p(double y, bool drawOutside = true); // { return (wxCoord) ( (m_posY-y) * m_scaleY); }
inline wxCoord y2p( double y ) { return (wxCoord) ( (m_posY - y) * m_scaleY ); }
@ -1191,18 +1102,6 @@ public:
void ZoomOut( const wxPoint& centerPoint = wxDefaultPosition );
void ZoomOut( const wxPoint& centerPoint, double zoomFactor );
/** Zoom in current view along X and refresh display */
void ZoomInX();
/** Zoom out current view along X and refresh display */
void ZoomOutX();
/** Zoom in current view along Y and refresh display */
void ZoomInY();
/** Zoom out current view along Y and refresh display */
void ZoomOutY();
/** Zoom view fitting given coordinates to the window (p0 and p1 do not need to be in any specific order)
*/
void ZoomRect( wxPoint p0, wxPoint p1 );
@ -1314,8 +1213,7 @@ public:
* @param bgColour Background colour
* @param drawColour The colour used to draw all elements in foreground, axes excluded
* @param axesColour The colour used to draw axes (but not their labels) */
void SetColourTheme( const wxColour& bgColour,
const wxColour& drawColour,
void SetColourTheme( const wxColour& bgColour, const wxColour& drawColour,
const wxColour& axesColour );
/** Get axes draw colour
@ -1337,7 +1235,6 @@ protected:
void OnPaint( wxPaintEvent& event ); // !< Paint handler, will plot all attached layers
void OnSize( wxSizeEvent& event ); // !< Size handler, will update scroll bar sizes
// void OnScroll2 (wxScrollWinEvent &event); //!< Scroll handler, will move canvas
void OnShowPopupMenu( wxMouseEvent& event ); // !< Mouse handler, will show context menu
void OnMouseMiddleDown( wxMouseEvent& event ); // !< Mouse handler, for detecting when the user
@ -1352,11 +1249,6 @@ protected:
void OnMouseLeftDown( wxMouseEvent& event ); // !< Mouse left click (for rect zoom)
void OnMouseLeftRelease( wxMouseEvent& event ); // !< Mouse left click (for rect zoom)
void DoZoomInXCalc( const int staticXpixel );
void DoZoomInYCalc( const int staticYpixel );
void DoZoomOutXCalc( const int staticXpixel );
void DoZoomOutYCalc( const int staticYpixel );
bool CheckXLimits( double& desiredMax, double& desiredMin ) const
{
return !( m_enableLimitedView
@ -1525,311 +1417,4 @@ protected:
};
#if 0
class WXDLLIMPEXP_MATHPLOT mpFSemiLogXVector : public mpFXYVector
{
public:
/** @param name Label
* @param flags Label alignment, pass one of #mpALIGN_NE, #mpALIGN_NW, #mpALIGN_SW, #mpALIGN_SE.
*/
mpFSemiLogXVector( wxString name = wxEmptyString, int flags = mpALIGN_NE );
virtual ~mpFSemiLogXVector() {}
/** Changes the internal data: the set of points to draw.
* Both vectors MUST be of the same length. This method DOES NOT refresh the mpWindow; do it manually.
* @sa Clear
*/
DECLARE_DYNAMIC_CLASS( mpFSemiLogXVector )
};
#endif
// -----------------------------------------------------------------------------
// mpText - provided by Val Greene
// -----------------------------------------------------------------------------
/** Plot layer implementing a text string.
* The text is plotted using a percentage system 0-100%, so the actual
* coordinates for the location are not required, and the text stays
* on the plot regardless of the other layers location and scaling
* factors.
*/
class WXDLLIMPEXP_MATHPLOT mpText : public mpLayer
{
public:
/** @param name text to be drawn in the plot
* @param offsetx holds offset for the X location in percentage (0-100)
* @param offsety holds offset for the Y location in percentage (0-100) */
mpText( const wxString& name = wxT("Title"), int offsetx = 5, int offsety = 50 );
/** Text Layer plot handler.
* This implementation will plot text adjusted to the visible area. */
virtual void Plot( wxDC& dc, mpWindow& w ) override;
/** mpText should not be used for scaling decisions. */
virtual bool HasBBox() const override { return false; }
protected:
int m_offsetx; // !< Holds offset for X in percentage
int m_offsety; // !< Holds offset for Y in percentage
DECLARE_DYNAMIC_CLASS( mpText )
};
// -----------------------------------------------------------------------------
// mpPrintout - provided by Davide Rondini
// -----------------------------------------------------------------------------
/** Printout class used by mpWindow to draw in the objects to be printed.
* The object itself can then used by the default wxWidgets printing system
* to print mppWindow objects.
*/
class WXDLLIMPEXP_MATHPLOT mpPrintout : public wxPrintout
{
public:
mpPrintout( mpWindow* drawWindow, const wxChar* title = _T("wxMathPlot print output") );
virtual ~mpPrintout() {};
void SetDrawState( bool drawState ) { drawn = drawState; };
bool OnPrintPage( int page ) override;
bool HasPage( int page ) override;
private:
bool drawn;
mpWindow* plotWindow;
};
// -----------------------------------------------------------------------------
// mpMovableObject - provided by Jose Luis Blanco
// -----------------------------------------------------------------------------
/** This virtual class represents objects that can be moved to an arbitrary 2D location+rotation.
* The current transformation is set through SetCoordinateBase.
* To ease the implementation of descendent classes, mpMovableObject will
* be in charge of Bounding Box computation and layer rendering, assuming that
* the object updates its shape in m_shape_xs & m_shape_ys.
*/
class WXDLLIMPEXP_MATHPLOT mpMovableObject : public mpLayer
{
public:
/** Default constructor (sets location and rotation to (0,0,0))
*/
mpMovableObject() :
m_flags( 0 ),
m_reference_x( 0 ),
m_reference_y( 0 ),
m_reference_phi( 0 ),
m_shape_xs( 0 ),
m_shape_ys( 0 ),
m_bbox_min_x( 0 ),
m_bbox_max_x( 0 ),
m_bbox_min_y( 0 ),
m_bbox_max_y( 0 )
{
m_type = mpLAYER_PLOT;
}
virtual ~mpMovableObject() {};
/** Get the current coordinate transformation.
*/
void GetCoordinateBase( double& x, double& y, double& phi ) const
{
x = m_reference_x;
y = m_reference_y;
phi = m_reference_phi;
}
/** Set the coordinate transformation (phi in radians, 0 means no rotation).
*/
void SetCoordinateBase( double x, double y, double phi = 0 )
{
m_reference_x = x;
m_reference_y = y;
m_reference_phi = phi;
m_flags = mpALIGN_NE;
ShapeUpdated();
}
virtual bool HasBBox() const override { return m_trans_shape_xs.size()!=0; }
/** Get inclusive left border of bounding box.
*/
virtual double GetMinX() const override { return m_bbox_min_x; }
/** Get inclusive right border of bounding box.
*/
virtual double GetMaxX() const override { return m_bbox_max_x; }
/** Get inclusive bottom border of bounding box.
*/
virtual double GetMinY() const override { return m_bbox_min_y; }
/** Get inclusive top border of bounding box.
*/
virtual double GetMaxY() const override { return m_bbox_max_y; }
virtual void Plot( wxDC& dc, mpWindow& w ) override;
/** Set label axis alignment.
* @param align alignment (choose between mpALIGN_NE, mpALIGN_NW, mpALIGN_SW, mpALIGN_SE
*/
void SetAlign( int align ) { m_flags = align; };
protected:
int m_flags; // !< Holds label alignment
/** The coordinates of the object (orientation "phi" is in radians).
*/
double m_reference_x, m_reference_y, m_reference_phi;
/** A method for 2D translation and rotation, using the current transformation
* stored in m_reference_x,m_reference_y,m_reference_phi.
*/
void TranslatePoint( double x, double y, double& out_x, double& out_y );
/** This contains the object points, in local coordinates
* (to be transformed by the current transformation).
*/
std::vector<double> m_shape_xs, m_shape_ys;
/** The buffer for the translated & rotated points (to avoid recomputing them with each mpWindow refresh).
*
*/
std::vector<double> m_trans_shape_xs, m_trans_shape_ys;
/** The precomputed bounding box:
* @sa ShapeUpdated
*/
double m_bbox_min_x, m_bbox_max_x, m_bbox_min_y, m_bbox_max_y;
/** Must be called by the descendent class after updating the shape (m_shape_xs/ys),
* or when the transformation changes.
* This method updates the buffers m_trans_shape_xs/ys, and the precomputed bounding box.
*/
void ShapeUpdated();
};
// -----------------------------------------------------------------------------
// mpCovarianceEllipse - provided by Jose Luis Blanco
// -----------------------------------------------------------------------------
/** A 2D ellipse, described by a 2x2 covariance matrix.
* The relation between the multivariate Gaussian confidence interval and
* the "quantiles" in this class is:
* - 1 : 68.27% confidence interval
* - 2 : 95.45%
* - 3 : 99.73%
* - 4 : 99.994%
* For example, see http://en.wikipedia.org/wiki/Normal_distribution#Standard_deviation_and_confidence_intervals
*
* The ellipse will be always centered at the origin. Use mpMovableObject::SetCoordinateBase to move it.
*/
class WXDLLIMPEXP_MATHPLOT mpCovarianceEllipse : public mpMovableObject
{
public:
/** Default constructor.
* Initializes to a unity diagonal covariance matrix, a 95% confidence interval (2 sigmas),
* 32 segments, and a continuous plot (m_continuous=true).
*/
mpCovarianceEllipse( double cov_00 = 1,
double cov_11 = 1,
double cov_01 = 0,
double quantiles = 2,
int segments = 32,
const wxString& layerName = wxT("") ) :
m_cov_00( cov_00 ),
m_cov_11( cov_11 ),
m_cov_01( cov_01 ),
m_quantiles( quantiles ),
m_segments( segments )
{
m_continuous = true;
m_name = layerName;
RecalculateShape();
m_type = mpLAYER_PLOT;
}
virtual ~mpCovarianceEllipse() {}
double GetQuantiles() const { return m_quantiles; }
/** Set how many "quantiles" to draw, that is, the confidence interval of the ellipse (see above).
*/
void SetQuantiles( double q )
{
m_quantiles = q;
RecalculateShape();
}
void SetSegments( int segments ) { m_segments = segments; }
int GetSegments() const { return m_segments; }
/** Returns the elements of the current covariance matrix:
*/
void GetCovarianceMatrix( double& cov_00, double& cov_01, double& cov_11 ) const
{
cov_00 = m_cov_00;
cov_01 = m_cov_01;
cov_11 = m_cov_11;
}
/** Changes the covariance matrix:
*/
void SetCovarianceMatrix( double cov_00, double cov_01, double cov_11 )
{
m_cov_00 = cov_00;
m_cov_01 = cov_01;
m_cov_11 = cov_11;
RecalculateShape();
}
protected:
/** The elements of the matrix (only 3 since cov(0,1)=cov(1,0) in any positive definite matrix).
*/
double m_cov_00, m_cov_11, m_cov_01;
double m_quantiles;
/** The number of line segments that build up the ellipse.
*/
int m_segments;
/** Called to update the m_shape_xs, m_shape_ys vectors, whenever a parameter changes.
*/
void RecalculateShape();
};
// -----------------------------------------------------------------------------
// mpPolygon - provided by Jose Luis Blanco
// -----------------------------------------------------------------------------
/** An arbitrary polygon, descendant of mpMovableObject.
* Use "setPoints" to set the list of N points. This class also can draw non-closed polygons by
* passing the appropriate parameters to "setPoints". To draw a point-cloud, call "SetContinuity(false)".
*/
class WXDLLIMPEXP_MATHPLOT mpPolygon : public mpMovableObject
{
public:
/** Default constructor.
*/
mpPolygon( const wxString& layerName = wxT("") )
{
m_continuous = true;
m_name = layerName;
}
virtual ~mpPolygon() {}
/** Set the points in the polygon.
* @param points_xs The X coordinates of the points.
* @param points_ys The Y coordinates of the points.
* @param closedShape If set to true, an additional segment will be added from the last to the first point.
*/
void setPoints( const std::vector<double>& points_xs,
const std::vector<double>& points_ys,
bool closedShape = true );
};
#endif // _MP_MATHPLOT_H_