Namespace for the Map Tools module of TerraLib. More...

Namespaces
namespace	serialize

Classes
class	AbstractChartRenderer
	This is the base class for chart renderers. More...

class	AbstractExternalGraphicRenderer
	An abstract class for conversion of Symbology Enconding ExternalGraphic elements to an image pattern. More...

class	AbstractLayer
	This is the base class for layers. More...

class	AbstractLayerRenderer
	It renders the objects associated to an abstract layer. i.e. a generic renderer. More...

class	AbstractLayerRendererFactory
	This is the concrete factory for renderers of a AbstractLayer. i.e. builds a generic renderer. More...

class	AbstractMapDisplay
	It defines the concept of a map display responsible for controlling how a set of layers are displayed. More...

class	AbstractMarkRenderer
	An abstract class for conversion of Symbology Enconding Mark elements to an image pattern. More...

class	AbstractRenderer
	It renders the objects associated to a layer. More...

class	Canvas
	A canvas is an abstraction of a drawing area. More...

class	CanvasConfigurer
	A Symbology Enconding visitor that configures a given canvas based on symbolizers elements. If you want to use this visitor, use a command like: `te::map::CanvasConfigurer cc(canvas); cc.config(symbolizer);` More...

class	Chart
	This class represents the informations needed to build map charts. More...

class	ChartRendererManager
	This is a singleton for managing chart renderer instance available in the system. More...

struct	CompareAbstractLayerPtrTitle

class	DataSetAdapterLayer
	A layer with reference to a DataSetTypeConverter. More...

class	DataSetLayer
	A layer with reference to a dataset. More...

class	ExternalGraphicRendererManager
	This is a singleton for managing all external graphic renderers instances available in the system. More...

class	FilterEncoder
	A visitor that converts a TerraLib Expression to OGC Filter Expression. More...

class	FolderLayer
	A layer that can be used as a container for other kind of layers. More...

class	Grouping
	This class contains the parameters needed for grouping the values of a Property. More...

class	MapDisplay
	This class controls how a set of layers are displayed. More...

class	MarkRendererManager
	This is a singleton for managing all mark renderers instances available in the system. More...

struct	MarkRendererParams

class	Module
	This singleton defines the TerraLib Map Tools module entry. More...

class	QueryEncoder
	A visitor that converts a OGC Filter Expression to TerraLib Expression. More...

class	QueryLayer
	A layer resulting from a query. More...

class	QueryLayerRenderer
	It renders the objects associated to a query layer. More...

class	QueryLayerRendererFactory
	This is the concrete factory for renderers of a QueryLayer. More...

class	RasterContrast
	This class contains the parameters needed to apply dynamic contrast over a raster. More...

class	RasterLayer
	A layer with reference to a raster. More...

class	RasterTransform
	A Raster Transform is a class that defines functions to transform a styled raster. More...

class	RasterTransformConfigurer
	A Raster Transform configurer generates a Raster Transform given a RasterSymbolzier. More...

class	RendererFactory
	This is the abstract factory for layer renderers. More...

class	WorldDeviceTransformer
	This class implements the logic for transforming from device coordinate to world coordinate and vice-versa. More...

Typedefs
typedef boost::intrusive_ptr< AbstractLayer >	AbstractLayerPtr

typedef boost::intrusive_ptr< DataSetAdapterLayer >	DataSetAdapterLayerPtr

typedef boost::intrusive_ptr< DataSetLayer >	DataSetLayerPtr

typedef boost::intrusive_ptr< FolderLayer >	FolderLayerPtr

typedef te::da::DataSetType	LayerSchema

typedef boost::intrusive_ptr< QueryLayer >	QueryLayerPtr

typedef boost::intrusive_ptr< RasterLayer >	RasterLayerPtr

Enumerations
enum	AlignType { Top = 1 , Center = 2 , Bottom = 3 , Left = 4 , Right = 5 }
	This enum contains values to control the alignment of components (like Canvas and MapDisplay). More...

enum	ChartType { Pie , Bar }
	The chart types. More...

enum	CompositionMode { SourceOver , DestinationOver , Clear , Source , Destination , SourceIn , DestinationIn , SourceOut , DestinationOut , SourceAtop , DestinationAtop , Xor , Plus , Multiply , Screen , Overlay , Darken , Lighten , ColorDodge , ColorBurn , HardLight , SoftLight , Difference , Exclusion }
	The composition mode used to render the canvas. More...

enum	GroupingType { EQUAL_STEPS , QUANTIL , STD_DEVIATION , UNIQUE_VALUE }
	The grouping type associated to the layer. More...

enum	ImageType { UNKNOWN = 0 , PNG = 1 , JPEG = 2 , GIF = 3 , BMP = 4 , XPM = 5 , XBM = 6 , WBMP = 7 , TIFF = 8 }
	This enum specifies the possible input and output image formats supported by the canvas API. More...

enum	LineCapStyle { ButtCap = 0x00 , SquareCap = 0x10 , RoundCap = 0x20 }
	This enum encodes enumerated values telling how line strings should be capped (at the two ends of the line string). More...

enum	LineDashStyle { NoLine = 0 , SolidLine = 1 , DashLine = 2 , DotLine = 3 , DashDotLine = 4 , DashDotDotLine = 5 , CustomDashLine = 6 }
	This enum encodes enumerated values telling how lines should be drawn. e.g. as a plain line or dash line, etc. More...

enum	LineJoinStyle { MiterJoin = 0x00 , BevelJoin = 0x40 , RoundJoin = 0x80 }
	This enum encodes enumerated values telling how line strings should be joined (between line segments). More...

enum	PtMarkerType { MarkerNone = 0 , MarkerSquare = 1 , MarkerDiamond = 2 , MarkerCircle = 3 , MarkerCrossedCircle = 4 , MarkerSemiEllipseLeft = 5 , MarkerSemiEllipseRight = 6 , MarkerSemiEllipseUp = 7 , MarkerSemiEllipseDown = 8 , MarkerTriangleLeft = 9 , MarkerTriangleRight = 10 , MarkerTriangleUp = 11 , MarkerTriangleDown = 12 , MarkerFourRays = 13 , MarkerCross = 14 , MarkerX = 15 , MarkerDash = 16 , MarkerDot = 17 , MarkerPixel = 18 , MarkerPattern = 19 }

enum	Visibility { NOT_VISIBLE , VISIBLE , PARTIALLY_VISIBLE }
	Each layer can have three states of visibility. More...

Functions
TEMAPEXPORT double	AdjustToPrecision (double val, int precision, bool reduce=false)
	It adjusts a value to the precision specified. More...

TEMAPEXPORT int	CalculatePlanarZone (te::gm::Envelope latLongBox)
	Calculates the UTM zone from a Geographic envelope. More...

TEMAPEXPORT void	CopyAbstractLayerInfo (const te::map::AbstractLayer refLayer, te::map::AbstractLayer layer)
	Make a copy of refLayer abstract attributes to layer. Creating new id. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarker (PtMarkerType type, int width, const te::color::RGBAColor &color)
	It creates a point marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerCircle (int width, const te::color::RGBAColor &color)
	It create a circle marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerCross (int width, const te::color::RGBAColor &color)
	It create a cross marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerCrossedCircle (int width, const te::color::RGBAColor &color)
	It create a colorssed circle marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerDash (int width, const te::color::RGBAColor &color)
	It create a dash marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerDiamond (int width, const te::color::RGBAColor &color)
	It create a diamond marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerDot (int width, const te::color::RGBAColor &color)
	It create a dot marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerFourRays (int width, const te::color::RGBAColor &color)
	It creates a four rays marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerPixel (int width, const te::color::RGBAColor &color)
	It create a pixel marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerSemiEllipseDown (int width, const te::color::RGBAColor &color)
	It create a semi ellipse down marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerSemiEllipseLeft (int width, const te::color::RGBAColor &color)
	It create a semi ellipse left marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerSemiEllipseRight (int width, const te::color::RGBAColor &color)
	It create a semi ellipse right marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerSemiEllipseUp (int width, const te::color::RGBAColor &color)
	It create a semi ellipse left marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerSquare (int width, const te::color::RGBAColor &color)
	It create a square marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerTriangleDown (int width, const te::color::RGBAColor &color)
	It create a semi triangle down marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerTriangleLeft (int width, const te::color::RGBAColor &color)
	It create a semi triangle left marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerTriangleRight (int width, const te::color::RGBAColor &color)
	It create a semi triangle right marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerTriangleUp (int width, const te::color::RGBAColor &color)
	It create a semi triangle up marker. More...

TEMAPEXPORT te::color::RGBAColor **	CreateMarkerX (int width, const te::color::RGBAColor &color)
	It create a x marker. More...

TEMAPEXPORT te::da::DataSet *	DataSet2Memory (te::da::DataSet *dataset)
	It creates a new In-Memory dataset with the items from the given dataset. More...

TEMAPEXPORT void	DrawGeometries (te::da::DataSet dataset, const std::size_t &gpos, Canvas canvas, int fromSRID, int toSRID, te::common::TaskProgress *task=0)
	It draws the data set geometries in the given canvas using the informed SRS. More...

TEMAPEXPORT void	DrawGeometries (te::da::DataSetType type, te::da::DataSourcePtr ds, Canvas canvas, const te::gm::Envelope &bbox, int bboxSRID, int srid, te::se::FeatureTypeStyle *style)
	It draws the data set geometries in the given canvas using the informed SRID and style. More...

TEMAPEXPORT void	DrawGraphicStroke (const te::se::Graphic graphic, const te::gm::Geometry geom, Canvas *canvas, double gap, double initialGap=0., double offset=0.)
	It draws the geometry in the given canvas with marks. More...

TEMAPEXPORT void	DrawGraphicStroke (const te::se::Symbolizer symbolizer, const te::gm::Geometry geom, Canvas *canvas)
	It draws the geometry in the given canvas with marks. More...

TEMAPEXPORT void	DrawGraphicStrokeLine (const te::se::Graphic graphic, const te::gm::LineString lineString, Canvas *canvas, double gap, double initialGap=0., double offset=0.)
	It draws the geometry in the given canvas with marks. More...

TEMAPEXPORT void	DrawPointAlongLine (const te::gm::LineString line, Canvas canvas, const te::se::Graphic *graphic, double gap, double initialGap)
	It draws marks along a line in the given canvas. More...

TEMAPEXPORT void	DrawRaster (te::da::DataSetType type, te::da::DataSourcePtr ds, Canvas canvas, const te::gm::Envelope &bbox, int bboxSRID, const te::gm::Envelope &visibleArea, int srid, te::se::CoverageStyle style, te::map::RasterContrast rc, const double &scale, bool *cancel)

TEMAPEXPORT void	DrawRaster (te::rst::Raster raster, Canvas canvas, const te::gm::Envelope &bbox, int bboxSRID, const te::gm::Envelope &visibleArea, int srid, te::se::CoverageStyle style, te::map::RasterContrast rc, const double &scale, bool *cancel)

TEMAPEXPORT void	GetDashStyle (const std::string &dasharray, std::vector< double > &style)
	Converts a dasharray pattern coded by a string to a vector of double. More...

TEMAPEXPORT te::da::DataAccessPtr	GetDataAccess (te::map::AbstractLayerPtr absLayer)
	It gets the dataAccess that can be used to access data information from the given layer. More...

TEMAPEXPORT te::gm::Envelope	GetExtent (const std::list< te::map::AbstractLayerPtr > &layers, int srid, bool onlyVisibles)
	It calculates the extent of the given layers in the given SRID. More...

TEMAPEXPORT te::gm::Envelope	GetExtent (const te::map::AbstractLayerPtr &layer, int srid, bool onlyVisibles)
	It calculates the extent of the given layer in the given SRID. More...

TEMAPEXPORT te::rst::Raster *	GetExtentRaster (te::rst::Raster *raster, int w, int h, const te::gm::Envelope &bbox, int bboxSRID, const te::gm::Envelope &visibleArea, int srid)

TEMAPEXPORT te::gm::GeomType	GetGeomType (const te::map::AbstractLayerPtr &layer)
	It gets the geometry type of the given layer. More...

TEMAPEXPORT std::list< te::map::AbstractLayer * >	GetPlainLayerList (const std::list< te::map::AbstractLayerPtr > &listLayersTree)
	From the given layer list containing an optional hierarchical structure, returns a plain list without any hierarchy. More...

TEMAPEXPORT te::rst::Raster *	GetRaster (AbstractLayer *layer)
	It gets the raster referenced by the given data set layer. More...

TEMAPEXPORT te::rst::RasterProperty *	GetRasterProperty (AbstractLayer *layer)
	It gets the raster property referenced by the given data set layer. More...

TEMAPEXPORT te::gm::Envelope	GetSelectedExtent (const std::list< te::map::AbstractLayerPtr > layers, int srid, bool onlyVisibles)
	It calculates the extent of selected objects of the given layers in the given SRID. More...

TEMAPEXPORT te::gm::Envelope	GetSelectedExtent (const te::map::AbstractLayerPtr layer, int srid, bool onlyVisibles)
	It calculates the extent of selected objects of the given layer in the given SRID. More...

TEMAPEXPORT std::string	GetUTMProj4FromZone (int zone)
	Returns proj4 string with UTM projection in the specified zone (Only working for south). More...

TEMAPEXPORT void	GetVisibleLayers (const std::list< te::map::AbstractLayer * > &layers, std::list< te::map::AbstractLayer * > &visibleLayers)

TEMAPEXPORT void	GetVisibleLayers (const std::list< te::map::AbstractLayerPtr > &layers, std::list< te::map::AbstractLayerPtr > &visibleLayers)
	It gets the visible layers of the given layer list. More...

TEMAPEXPORT void	GetVisibleLayers (const te::map::AbstractLayerPtr &layer, std::list< te::map::AbstractLayerPtr > &visibleLayers)
	It gets the visible layers of the given layer. More...

TEMAPEXPORT te::gm::Envelope	GetWorldBoxInPlanar (const te::gm::Envelope &worldBox, int srid)
	It gets the requested envelope on a UTM planar projection. More...

template<class iterator >
void	GroupingByEqualSteps (std::string attrName, iterator begin, iterator end, int nSteps, std::vector< te::se::Rule * > &rules, int precision=0)
	It groups the values defined by a range of iterators using the equal steps algorithm. More...

template<class iterator >
void	GroupingByQuantil (std::string attrName, iterator begin, iterator end, int nSteps, std::vector< te::se::Rule * > &rules, int precision=0)
	It groups the values defined by a range of iterators using the quantil algorithm. More...

template<class iterator >
void	GroupingByStdDeviation (std::string attrName, iterator begin, iterator end, double nDevs, std::vector< te::se::Rule * > &rules, std::string &meanTitle, int precision=0)
	It groups the values defined by a range of iterators using the standard deviation algorithm. More...

TEMAPEXPORT void	GroupingByUniqueValues (std::string attrName, std::vector< std::string > &inputValues, int dataType, std::vector< te::se::Rule * > &rules, int precision)
	It groups the values using the unique value algorithm. More...

Detailed Description

Namespace for the Map Tools module of TerraLib.

Typedef Documentation

◆ AbstractLayerPtr

typedef boost::intrusive_ptr<AbstractLayer> te::map::AbstractLayerPtr

Definition at line 626 of file AbstractLayer.h.

◆ DataSetAdapterLayerPtr

typedef boost::intrusive_ptr<DataSetAdapterLayer> te::map::DataSetAdapterLayerPtr

Definition at line 157 of file DataSetAdapterLayer.h.

◆ DataSetLayerPtr

typedef boost::intrusive_ptr<DataSetLayer> te::map::DataSetLayerPtr

Definition at line 148 of file DataSetLayer.h.

◆ FolderLayerPtr

typedef boost::intrusive_ptr<FolderLayer> te::map::FolderLayerPtr

Definition at line 123 of file FolderLayer.h.

◆ LayerSchema

typedef te::da::DataSetType te::map::LayerSchema

Definition at line 66 of file AbstractLayer.h.

◆ QueryLayerPtr

typedef boost::intrusive_ptr<QueryLayer> te::map::QueryLayerPtr

Definition at line 186 of file QueryLayer.h.

◆ RasterLayerPtr

typedef boost::intrusive_ptr<RasterLayer> te::map::RasterLayerPtr

Definition at line 165 of file RasterLayer.h.

Enumeration Type Documentation

◆ AlignType

enum te::map::AlignType

This enum contains values to control the alignment of components (like Canvas and MapDisplay).

Enumerator
Top	Top.
Center	Center.
Bottom	Bottom.
Left	Left.
Right	Right.

Definition at line 125 of file Enums.h.

◆ ChartType

enum te::map::ChartType

The chart types.

Enumerator
Pie	A pie chart.
Bar	A bar chart.

Definition at line 164 of file Enums.h.

◆ CompositionMode

enum te::map::CompositionMode

The composition mode used to render the canvas.

Enumerator
SourceOver	This is the default mode. The alpha of the source is used to blend the pixel on top of the destination.
DestinationOver	The alpha of the destination is used to blend it on top of the source pixels.
Clear	The pixels in the destination are cleared (set to fully transparent) independent of the source.
Source	The output is the source pixel. (This means a basic copy operation and is identical to SourceOver when the source pixel is opaque).
Destination	The output is the destination pixel. This means that the blending has no effect.
SourceIn	The output is the source, where the alpha is reduced by that of the destination.
DestinationIn	The output is the destination, where the alpha is reduced by that of the source.
SourceOut	The output is the source, where the alpha is reduced by the inverse of destination.
DestinationOut	The output is the destination, where the alpha is reduced by the inverse of the source.
SourceAtop	The source pixel is blended on top of the destination, with the alpha of the source pixel reduced by the alpha of the destination pixel.
DestinationAtop	The destination pixel is blended on top of the source, with the alpha of the destination pixel is reduced by the alpha of the destination pixel.
Xor	The source, whose alpha is reduced with the inverse of the destination alpha, is merged with the destination, whose alpha is reduced by the inverse of the source alpha.
Plus	Both the alpha and color of the source and destination pixels are added together.
Multiply	The output is the source color multiplied by the destination. Multiplying a color with white leaves the color unchanged, while multiplying a color with black produces black.
Screen	The source and destination colors are inverted and then multiplied. Screening a color with white produces white, whereas screening a color with black leaves the color unchanged.
Overlay	Multiplies or screens the colors depending on the destination color. The destination color is mixed with the source color to reflect the lightness or darkness of the destination.
Darken	The darker of the source and destination colors is selected.
Lighten	The lighter of the source and destination colors is selected.
ColorDodge	The destination color is brightened to reflect the source color. A black source color leaves the destination color unchanged.
ColorBurn	The destination color is darkened to reflect the source color. A white source color leaves the destination color unchanged.
HardLight	Multiplies or screens the colors depending on the source color. A light source color will lighten the destination color, whereas a dark source color will darken the destination color.
SoftLight	Darkens or lightens the colors depending on the source color. Similar to CompositionMode_HardLight.
Difference	Subtracts the darker of the colors from the lighter. Painting with white inverts the destination color, whereas painting with black leaves the destination color unchanged.
Exclusion	Similar to CompositionMode_Difference, but with a lower contrast. Painting with white inverts the destination color, whereas painting with black leaves the destination color unchanged.

Definition at line 175 of file Enums.h.

◆ GroupingType

enum te::map::GroupingType

The grouping type associated to the layer.

Enumerator
EQUAL_STEPS	If the legend was generated using the equal steps algorithm.
QUANTIL	If the legend was generated using the quantil algorithm.
STD_DEVIATION	If the legend was generated using the standard deviation algorithm.
UNIQUE_VALUE	If the legend was generated using the unique value algorithm.

Definition at line 151 of file Enums.h.

◆ ImageType

enum te::map::ImageType

This enum specifies the possible input and output image formats supported by the canvas API.

Enumerator
UNKNOWN	Unknown Type
PNG	Portable Network Graphics (PNG) support.
JPEG	Joint Photographic Experts Group (JPEG) support.
GIF	Graphics Interchange Format (GIF) support.
BMP	Window Bitmap (BMP) support.
XPM	X PixMap support.
XBM	X Bitmap support.
WBMP	Wireless Application Protocol Bitmap.
TIFF	Tag Image File Format (TIFF) support.

Definition at line 38 of file Enums.h.

◆ LineCapStyle

enum te::map::LineCapStyle

This enum encodes enumerated values telling how line strings should be capped (at the two ends of the line string).

Enumerator
ButtCap	A square line end that does not cover the end point of the line.
SquareCap	A square line end that covers the end point and extends beyond it by half the line width.
RoundCap	A rounded line end.

Definition at line 72 of file Enums.h.

◆ LineDashStyle

enum te::map::LineDashStyle

This enum encodes enumerated values telling how lines should be drawn. e.g. as a plain line or dash line, etc.

Enumerator
NoLine	No line at all.
SolidLine	A plain line.
DashLine	Dashes separated by a few pixels.
DotLine	Dots separated by a few pixels.
DashDotLine	Alternate dots and dashes.
DashDotDotLine	One dash, two dots, one dash, two dots.
CustomDashLine	A custom dash pattern. i.e. defined by a serie of double values.

Definition at line 56 of file Enums.h.

◆ LineJoinStyle

enum te::map::LineJoinStyle

This enum encodes enumerated values telling how line strings should be joined (between line segments).

Enumerator
MiterJoin	The outer edges of the lines are extended to meet at an angle, and this area is filled.
BevelJoin	The triangular notch between the two lines is filled.
RoundJoin	A circular arc between the two lines is filled.

Definition at line 84 of file Enums.h.

◆ PtMarkerType

enum te::map::PtMarkerType

Enumerator
MarkerNone	????
MarkerSquare	????
MarkerDiamond	????
MarkerCircle	????
MarkerCrossedCircle	????
MarkerSemiEllipseLeft	????
MarkerSemiEllipseRight	????
MarkerSemiEllipseUp	????
MarkerSemiEllipseDown	????
MarkerTriangleLeft	????
MarkerTriangleRight	????
MarkerTriangleUp	????
MarkerTriangleDown	????
MarkerFourRays	????
MarkerCross	????
MarkerX	????
MarkerDash	????
MarkerDot	????
MarkerPixel	????
MarkerPattern	icon marker

Definition at line 96 of file Enums.h.

◆ Visibility

enum te::map::Visibility

Each layer can have three states of visibility.

Enumerator
NOT_VISIBLE	If the layer is not visible and if it has children layers and they are not visible too.
VISIBLE	If the layer is visible or all its children are visible too.
PARTIALLY_VISIBLE	If some of the children layer are visible and some are not.

Definition at line 139 of file Enums.h.

Function Documentation

◆ AdjustToPrecision()

TEMAPEXPORT double te::map::AdjustToPrecision	(	double	val,
		int	precision,
		bool	reduce = `false`
	)

It adjusts a value to the precision specified.

Parameters

value	The value to be adjusted.
precision	The precision the given value must be adjusted to.
reduce	Flag indicating if the value must be added or subtracted to the value represented by the precision.

\output The value adjusted to the precision specified.

Referenced by GroupingByEqualSteps(), and GroupingByQuantil().

◆ CalculatePlanarZone()

TEMAPEXPORT int te::map::CalculatePlanarZone ( te::gm::Envelope latLongBox )

Calculates the UTM zone from a Geographic envelope.

Parameters

latLongBox Geographic envelope

Returns: UTM zone

◆ CopyAbstractLayerInfo()

TEMAPEXPORT void te::map::CopyAbstractLayerInfo	(	const te::map::AbstractLayer *	refLayer,
		te::map::AbstractLayer *	layer
	)

Make a copy of refLayer abstract attributes to layer. Creating new id.

Parameters

refLayer	The reference layer
layer	Target layer

◆ CreateMarker()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarker	(	PtMarkerType	type,
		int	width,
		const te::color::RGBAColor &	color
	)

It creates a point marker.

Parameters

type	The marker type.
width	The marker width.
color	The marker color.

Returns: The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerCircle()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerCircle	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a circle marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerCross()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerCross	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a cross marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerCrossedCircle()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerCrossedCircle	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a colorssed circle marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerDash()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerDash	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a dash marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerDiamond()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerDiamond	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a diamond marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerDot()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerDot	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a dot marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerFourRays()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerFourRays	(	int	width,
		const te::color::RGBAColor &	color
	)

It creates a four rays marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerPixel()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerPixel	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a pixel marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerSemiEllipseDown()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerSemiEllipseDown	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a semi ellipse down marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerSemiEllipseLeft()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerSemiEllipseLeft	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a semi ellipse left marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerSemiEllipseRight()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerSemiEllipseRight	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a semi ellipse right marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerSemiEllipseUp()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerSemiEllipseUp	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a semi ellipse left marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerSquare()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerSquare	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a square marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerTriangleDown()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerTriangleDown	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a semi triangle down marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerTriangleLeft()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerTriangleLeft	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a semi triangle left marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerTriangleRight()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerTriangleRight	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a semi triangle right marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerTriangleUp()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerTriangleUp	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a semi triangle up marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ CreateMarkerX()

TEMAPEXPORT te::color::RGBAColor ** te::map::CreateMarkerX	(	int	width,
		const te::color::RGBAColor &	color
	)

It create a x marker.

Parameters

width	The marker width.
color	The marker color.

Returns: The The marker: a square matrix of int's where each position corresponds to a RGBA color.

Note: The caller of this method will take the ownership of the returned pointer.

◆ DataSet2Memory()

TEMAPEXPORT te::da::DataSet * te::map::DataSet2Memory ( te::da::DataSet * dataset )

It creates a new In-Memory dataset with the items from the given dataset.

Parameters

dataset The dataset which will provide the items. Do not pass NULL!

Returns: A new In-Memory dataset.

Note: The new dataset will not have a transactor associated to it.; To copy all items the caller is responsible for informing the dataset in the right position. i.e. at before begin.; The caller will take the ownership of the returned pointer.

◆ DrawGeometries() [1/2]

TEMAPEXPORT void te::map::DrawGeometries	(	te::da::DataSet *	dataset,
		const std::size_t &	gpos,
		Canvas *	canvas,
		int	fromSRID,
		int	toSRID,
		te::common::TaskProgress *	task = `0`
	)

It draws the data set geometries in the given canvas using the informed SRS.

Parameters

dataset	The data set that will be drawn.
gpos	The geometry property position that will be drawn.
canvas	The canvas were the data set geometries will be drawn.
fromSRID	The SRID of data set geometries.
srid	The SRID to be used to draw the data set geometries.
task	An optional task that can be used cancel the draw process.

◆ DrawGeometries() [2/2]

TEMAPEXPORT void te::map::DrawGeometries	(	te::da::DataSetType *	type,
		te::da::DataSourcePtr	ds,
		Canvas *	canvas,
		const te::gm::Envelope &	bbox,
		int	bboxSRID,
		int	srid,
		te::se::FeatureTypeStyle *	style
	)

It draws the data set geometries in the given canvas using the informed SRID and style.

The informed bounding box (bbox) is used to constraint the data set to be drawn. Here, we assume that the given bbox was pre-processed. i.e. the bbox was clipped and contains the same projection of data set geometries.

Parameters

type	The data set type that describes the data set that will be drawn.
ds	A datasource that will be used to retrieve the data set objects.
canvas	The canvas were the data set geometries will be drawn.
bbox	The interest area to render the geometries.
bboxSRID	The SRID of interest area.
srid	The SRID to be used to draw the data set geometries.
style	The style that will be used.

◆ DrawGraphicStroke() [1/2]

TEMAPEXPORT void te::map::DrawGraphicStroke	(	const te::se::Graphic *	graphic,
		const te::gm::Geometry *	geom,
		Canvas *	canvas,
		double	gap,
		double	initialGap = `0.`,
		double	offset = `0.`
	)

It draws the geometry in the given canvas with marks.

Parameters

symb	The geometry style that will be drawn.
geom	The geometry that will be drawn.
canvas	The canvas were the data set geometries will be drawn.

Note: Only geometries will be drawn with marks if the style has the option of Graphic Stroke.

◆ DrawGraphicStroke() [2/2]

TEMAPEXPORT void te::map::DrawGraphicStroke	(	const te::se::Symbolizer *	symbolizer,
		const te::gm::Geometry *	geom,
		Canvas *	canvas
	)

It draws the geometry in the given canvas with marks.

Parameters

symbolizer	The geometry style that will be drawn.
geom	The geometry that will be drawn.
canvas	The canvas were the data set geometries will be drawn.

Note: Only geometries will be drawn with marks if the style has the option of Graphic Stroke.

◆ DrawGraphicStrokeLine()

TEMAPEXPORT void te::map::DrawGraphicStrokeLine	(	const te::se::Graphic *	graphic,
		const te::gm::LineString *	lineString,
		Canvas *	canvas,
		double	gap,
		double	initialGap = `0.`,
		double	offset = `0.`
	)

It draws the geometry in the given canvas with marks.

Parameters

symb	The geometry style that will be drawn.
geom	The geometry that will be drawn.
canvas	The canvas were the data set geometries will be drawn.

Note: Only geometries will be drawn with marks if the style has the option of Graphic Stroke.

◆ DrawPointAlongLine()

TEMAPEXPORT void te::map::DrawPointAlongLine	(	const te::gm::LineString *	line,
		Canvas *	canvas,
		const te::se::Graphic *	graphic,
		double	gap,
		double	initialGap
	)

It draws marks along a line in the given canvas.

Parameters

line	The geometry style that will be drawn.
canvas	The canvas were the data set geometries will be drawn.
graphic	The graphic configuration of a mark that will be drawn.
initialGap	The initial gap to draw marks in a line.
gap	The gap between marks.

Note: Only geometries will be drawn with marks if the style has the option of Graphic Stroke.

◆ DrawRaster() [1/2]

TEMAPEXPORT void te::map::DrawRaster	(	te::da::DataSetType *	type,
		te::da::DataSourcePtr	ds,
		Canvas *	canvas,
		const te::gm::Envelope &	bbox,
		int	bboxSRID,
		const te::gm::Envelope &	visibleArea,
		int	srid,
		te::se::CoverageStyle *	style,
		te::map::RasterContrast *	rc,
		const double &	scale,
		bool *	cancel
	)

◆ DrawRaster() [2/2]

TEMAPEXPORT void te::map::DrawRaster	(	te::rst::Raster *	raster,
		Canvas *	canvas,
		const te::gm::Envelope &	bbox,
		int	bboxSRID,
		const te::gm::Envelope &	visibleArea,
		int	srid,
		te::se::CoverageStyle *	style,
		te::map::RasterContrast *	rc,
		const double &	scale,
		bool *	cancel
	)

◆ GetDashStyle()

TEMAPEXPORT void te::map::GetDashStyle	(	const std::string &	dasharray,
		std::vector< double > &	style
	)

Converts a dasharray pattern coded by a string to a vector of double.

Parameters

dasharray	The dasharray pattern coded by a string.
style	The vector of double that will be filled with the values extracted from dasharray string.

Note: The dasharray should be specified as an even number of positive values separated by blank space. i.e "10 5 3 4" Here, the values "10" and "3" (in uom) are dashes and the values "5" and "4" are spaces (in uom). The given vector style will be filled with the values: style[0] = 10; style[1] = 5; style[2] = 3; style[3] = 4.

◆ GetDataAccess()

TEMAPEXPORT te::da::DataAccessPtr te::map::GetDataAccess ( te::map::AbstractLayerPtr absLayer )

It gets the dataAccess that can be used to access data information from the given layer.

Parameters

absLayer The layer from which the data will be access

Returns: The dataAccess associated to the given layer

◆ GetExtent() [1/2]

TEMAPEXPORT te::gm::Envelope te::map::GetExtent	(	const std::list< te::map::AbstractLayerPtr > &	layers,
		int	srid,
		bool	onlyVisibles
	)

It calculates the extent of the given layers in the given SRID.

Parameters

layers	The layer list that will be consulted.
srid	The result extent SRID.
onlyVisibles	A flag that indicates if the method should consider only the visible layers.

Returns: The extent of the given layers in the given SRID.

Note: This method considers the children of layers.

◆ GetExtent() [2/2]

TEMAPEXPORT te::gm::Envelope te::map::GetExtent	(	const te::map::AbstractLayerPtr &	layer,
		int	srid,
		bool	onlyVisibles
	)

It calculates the extent of the given layer in the given SRID.

Parameters

layer	The layer that will be consulted.
srid	The result extent SRID.
onlyVisibles	A flag that indicates if the method should consider only the visible layers.

Returns: The extent of the given layer in the given SRID.

Note: This method considers the children of layer.

◆ GetExtentRaster()

TEMAPEXPORT te::rst::Raster * te::map::GetExtentRaster	(	te::rst::Raster *	raster,
		int	w,
		int	h,
		const te::gm::Envelope &	bbox,
		int	bboxSRID,
		const te::gm::Envelope &	visibleArea,
		int	srid
	)

◆ GetGeomType()

TEMAPEXPORT te::gm::GeomType te::map::GetGeomType ( const te::map::AbstractLayerPtr & layer )

It gets the geometry type of the given layer.

Parameters

layer The layer that will be consulted.

◆ GetPlainLayerList()

TEMAPEXPORT std::list< te::map::AbstractLayer * > te::map::GetPlainLayerList ( const std::list< te::map::AbstractLayerPtr > & listLayersTree )

From the given layer list containing an optional hierarchical structure, returns a plain list without any hierarchy.

Parameters

listLayersTree The layer list containing an optional hierarchical structure

Returns: A plain list without any hierarchy. Caller MUST NOT delete the returned pointers. The will be valid as long as listLayersTree is valid

◆ GetRaster()

TEMAPEXPORT te::rst::Raster * te::map::GetRaster ( AbstractLayer * layer )

It gets the raster referenced by the given data set layer.

Parameters

layer The data set layer that will be used to retrieve the raster.

Returns: The raster referenced by the data set layer.

Note: The caller will take the ownership of the returned pointer.

Exceptions

Exception It will throw an exception if the raster could not be retrieved.

◆ GetRasterProperty()

TEMAPEXPORT te::rst::RasterProperty * te::map::GetRasterProperty ( AbstractLayer * layer )

It gets the raster property referenced by the given data set layer.

Parameters

layer The data set layer that will be used to retrieve the raster property.

Returns: The raster property referenced by the data set layer.

Note: The caller will take the ownership of the returned pointer.

Exceptions

Exception It will throw an exception if the raster property could not be retrieved.

◆ GetSelectedExtent() [1/2]

TEMAPEXPORT te::gm::Envelope te::map::GetSelectedExtent	(	const std::list< te::map::AbstractLayerPtr >	layers,
		int	srid,
		bool	onlyVisibles
	)

It calculates the extent of selected objects of the given layers in the given SRID.

Parameters

layers	The layer list that will be consulted.
srid	The result extent SRID.
onlyVisibles	A flag that indicates if the method should consider only the visible layers.

Returns: The extent of selected objects of the given layers in the given SRID.

Note: This method considers the children of layers.

◆ GetSelectedExtent() [2/2]

TEMAPEXPORT te::gm::Envelope te::map::GetSelectedExtent	(	const te::map::AbstractLayerPtr	layer,
		int	srid,
		bool	onlyVisibles
	)

It calculates the extent of selected objects of the given layer in the given SRID.

Parameters

layer	The layer that will be consulted.
srid	The result extent SRID.
onlyVisibles	A flag that indicates if the method should consider only the visible layers.

Returns: The extent of the selected objects of the given layer in the given SRID.

Note: This method considers the children of layers.

◆ GetUTMProj4FromZone()

TEMAPEXPORT std::string te::map::GetUTMProj4FromZone ( int zone )

Returns proj4 string with UTM projection in the specified zone (Only working for south).

Parameters

UTM Zone

Returns: proj4 string

◆ GetVisibleLayers() [1/3]

TEMAPEXPORT void te::map::GetVisibleLayers	(	const std::list< te::map::AbstractLayer * > &	layers,
		std::list< te::map::AbstractLayer * > &	visibleLayers
	)

◆ GetVisibleLayers() [2/3]

TEMAPEXPORT void te::map::GetVisibleLayers	(	const std::list< te::map::AbstractLayerPtr > &	layers,
		std::list< te::map::AbstractLayerPtr > &	visibleLayers
	)

It gets the visible layers of the given layer list.

Parameters

layers	The layer list that will be consulted.
visibleLayers	A layer list that will be filled with the visible layers.

◆ GetVisibleLayers() [3/3]

TEMAPEXPORT void te::map::GetVisibleLayers	(	const te::map::AbstractLayerPtr &	layer,
		std::list< te::map::AbstractLayerPtr > &	visibleLayers
	)

It gets the visible layers of the given layer.

Parameters

layer	The layer that will be consulted.
visibleLayers	A layer list that will be filled with the visible layers.

◆ GetWorldBoxInPlanar()

TEMAPEXPORT te::gm::Envelope te::map::GetWorldBoxInPlanar	(	const te::gm::Envelope &	worldBox,
		int	srid
	)

It gets the requested envelope on a UTM planar projection.

Parameters

worldBox	WordBox to be transformed to planar
srid	The WorldBox SRID to transform from

◆ GroupingByEqualSteps()

template<class iterator >

void te::map::GroupingByEqualSteps	(	std::string	attrName,
		iterator	begin,
		iterator	end,
		int	nSteps,
		std::vector< te::se::Rule * > &	rules,
		int	precision = `0`
	)

It groups the values defined by a range of iterators using the equal steps algorithm.

Parameters

begin	The iterator associated to the first element value.
end	The iterator associated to the last element value.
nSteps	The number of steps.
rules	The container of rules items.
precision	The precision to be used in the conversion of the values.
countElements	The flag indicating if the counting of elements must be done.

\output The groups will be stored in the container of legend items.

Definition at line 96 of file GroupingAlgorithms.h.

References AdjustToPrecision(), te::common::Convert2String(), te::fe::CreateFilterByStep(), MAX, MIN, te::se::Rule::setFilter(), and te::se::Rule::setName().

◆ GroupingByQuantil()

template<class iterator >

void te::map::GroupingByQuantil	(	std::string	attrName,
		iterator	begin,
		iterator	end,
		int	nSteps,
		std::vector< te::se::Rule * > &	rules,
		int	precision = `0`
	)

It groups the values defined by a range of iterators using the quantil algorithm.

Parameters

begin	The iterator associated to the first element value.
end	The iterator associated to the last element value.
nSteps	The number of steps.
rules	The container of rules items.
precision	The precision to be used in the conversion of the values.
countElements	The flag indicating if the counting of elements must be done.

\output The groups will be stored in the container of legend items.

Definition at line 150 of file GroupingAlgorithms.h.

References AdjustToPrecision(), te::common::Convert2String(), te::fe::CreateFilterByStep(), te::se::Rule::setFilter(), and te::se::Rule::setName().

◆ GroupingByStdDeviation()

template<class iterator >

void te::map::GroupingByStdDeviation	(	std::string	attrName,
		iterator	begin,
		iterator	end,
		double	nDevs,
		std::vector< te::se::Rule * > &	rules,
		std::string &	meanTitle,
		int	precision = `0`
	)

It groups the values defined by a range of iterators using the standard deviation algorithm.

Parameters

begin	The iterator associated to the first element value.
end	The iterator associated to the last element value.
nDevs	The number of deviations.
rules	The container of rules items.
rmean	The mean value.
precision	The precision to be used in the conversion of the values.
countElements	The flag indicating if the counting of elements must be done.

\output The groups will be stored in the container of legend items.

Definition at line 218 of file GroupingAlgorithms.h.

References te::common::Convert2String(), te::fe::CreateFilterByStep(), MAX, MIN, te::se::Rule::setFilter(), te::se::Rule::setName(), and TE_TR.

◆ GroupingByUniqueValues()

TEMAPEXPORT void te::map::GroupingByUniqueValues	(	std::string	attrName,
		std::vector< std::string > &	inputValues,
		int	dataType,
		std::vector< te::se::Rule * > &	rules,
		int	precision
	)

It groups the values using the unique value algorithm.

Parameters

attrName	The attribute name used do create the group.
inputValues	The data to be grouped by unique values.
dataType	The data type of the values.
rules	The container of rules items where the groups will be placed. \precision The precision to be used in the conversion of the values.

\output The groups will be stored in the container of legend items.

Namespaces

Classes

Typedefs

Enumerations

Functions

Detailed Description

Typedef Documentation

◆ AbstractLayerPtr

◆ DataSetAdapterLayerPtr

◆ DataSetLayerPtr

◆ FolderLayerPtr

◆ LayerSchema

◆ QueryLayerPtr

◆ RasterLayerPtr

Enumeration Type Documentation

◆ AlignType

◆ ChartType

◆ CompositionMode

◆ GroupingType

◆ ImageType

◆ LineCapStyle

◆ LineDashStyle

◆ LineJoinStyle

◆ PtMarkerType

◆ Visibility

Function Documentation

◆ AdjustToPrecision()

◆ CalculatePlanarZone()

◆ CopyAbstractLayerInfo()

◆ CreateMarker()

◆ CreateMarkerCircle()

◆ CreateMarkerCross()

◆ CreateMarkerCrossedCircle()

◆ CreateMarkerDash()

◆ CreateMarkerDiamond()

◆ CreateMarkerDot()

◆ CreateMarkerFourRays()

◆ CreateMarkerPixel()

◆ CreateMarkerSemiEllipseDown()

◆ CreateMarkerSemiEllipseLeft()

◆ CreateMarkerSemiEllipseRight()

◆ CreateMarkerSemiEllipseUp()

◆ CreateMarkerSquare()

◆ CreateMarkerTriangleDown()

◆ CreateMarkerTriangleLeft()

◆ CreateMarkerTriangleRight()

◆ CreateMarkerTriangleUp()

◆ CreateMarkerX()

◆ DataSet2Memory()

◆ DrawGeometries() [1/2]

◆ DrawGeometries() [2/2]

◆ DrawGraphicStroke() [1/2]

◆ DrawGraphicStroke() [2/2]

◆ DrawGraphicStrokeLine()

◆ DrawPointAlongLine()

◆ DrawRaster() [1/2]

◆ DrawRaster() [2/2]

◆ GetDashStyle()

◆ GetDataAccess()

◆ GetExtent() [1/2]

◆ GetExtent() [2/2]

◆ GetExtentRaster()

◆ GetGeomType()

◆ GetPlainLayerList()

◆ GetRaster()

◆ GetRasterProperty()

◆ GetSelectedExtent() [1/2]

◆ GetSelectedExtent() [2/2]

◆ GetUTMProj4FromZone()

◆ GetVisibleLayers() [1/3]

◆ GetVisibleLayers() [2/3]

◆ GetVisibleLayers() [3/3]

◆ GetWorldBoxInPlanar()

◆ GroupingByEqualSteps()

◆ GroupingByQuantil()

◆ GroupingByStdDeviation()

◆ GroupingByUniqueValues()