public final class LiteShape2 extends Object implements Shape, Cloneable
This implementation supports the use of MathTransform and can be constructed with a Decimation stratagy object (allowing you to fine tune the process by which a Geometry is simplified into a Shape).
This implementation is very careful about cloning; and has the ability to go faster when you are using a LiteCoordinateSequenceFactory behind your geometry classes.
Constructor and Description 

LiteShape2(Geometry geom,
MathTransform mathTransform,
Decimator decimator,
boolean generalize)
Creates a new LiteShape object.

LiteShape2(Geometry geom,
MathTransform mathTransform,
Decimator decimator,
boolean generalize,
boolean clone)
Creates a new LiteShape object.

LiteShape2(Geometry geom,
MathTransform mathTransform,
Decimator decimator,
boolean generalize,
double maxDistance)
Creates a new LiteShape object.

Modifier and Type  Method and Description 

boolean 
contains(double x,
double y)
Tests if the specified coordinates are inside the boundary of the
Shape . 
boolean 
contains(double x,
double y,
double w,
double h)
Tests if the interior of the
Shape entirely contains the specified rectangular
area. 
boolean 
contains(Point2D p)
Tests if a specified
Point2D is inside the boundary of the Shape . 
boolean 
contains(Rectangle2D r)
Tests if the interior of the
Shape entirely contains the specified
Rectangle2D . 
Rectangle 
getBounds()
Returns an integer
Rectangle that completely encloses the Shape . 
Rectangle2D 
getBounds2D()
Returns a high precision and more accurate bounding box of the
Shape than the
getBounds method. 
Geometry 
getGeometry() 
MathTransform 
getMathTransform() 
PathIterator 
getPathIterator(AffineTransform at)
Returns an iterator object that iterates along the
Shape boundary and provides
access to the geometry of the Shape outline. 
PathIterator 
getPathIterator(AffineTransform at,
double flatness)
Returns an iterator object that iterates along the
Shape boundary and provides
access to a flattened view of the Shape outline geometry. 
boolean 
intersects(double x,
double y,
double w,
double h)
Tests if the interior of the
Shape intersects the interior of a specified
rectangular area. 
boolean 
intersects(Rectangle2D r)
Tests if the interior of the
Shape intersects the interior of a specified
Rectangle2D . 
void 
setGeometry(Geometry g)
Sets the geometry contained in this lite shape.

public LiteShape2(Geometry geom, MathTransform mathTransform, Decimator decimator, boolean generalize, double maxDistance) throws TransformException, FactoryException
geom
  the wrapped geometrymathTransform
  the transformation applied to the geometry in order to get to the
shape pointsdecimator
 generalize
  set to true if the geometry need to be generalized during renderingmaxDistance
  distance used in the generalization processTransformException
FactoryException
public LiteShape2(Geometry geom, MathTransform mathTransform, Decimator decimator, boolean generalize) throws TransformException, FactoryException
geom
  the wrapped geometrymathTransform
  the transformation applied to the geometry in order to get to the
shape pointsdecimator
 generalize
  set to true if the geometry need to be generalized during renderingTransformException
FactoryException
public LiteShape2(Geometry geom, MathTransform mathTransform, Decimator decimator, boolean generalize, boolean clone) throws TransformException, FactoryException
geom
  the wrapped geometrymathTransform
  the transformation applied to the geometry in order to get to the
shape pointsdecimator
 generalize
  set to true if the geometry need to be generalized during renderingclone
  if clone is false the original geometry may be modified directly, if true it
will be cloned to make sure the original remains untouchedTransformException
FactoryException
public void setGeometry(Geometry g) throws TransformException, FactoryException
g
 TransformException
FactoryException
public boolean contains(Rectangle2D r)
Shape
entirely contains the specified
Rectangle2D
. This method might conservatively return false
when:
intersect
method returns true
and
Shape
entirely contains
the Rectangle2D
are prohibitively expensive.
false
even though the Shape
contains the Rectangle2D
. The Area
class can be used to
perform more accurate computations of geometric intersection for any Shape
object if a more precise answer is required.contains
in interface Shape
r
 The specified Rectangle2D
true
if the interior of the Shape
entirely contains the
Rectangle2D
; false
otherwise or, if the Shape
contains the Rectangle2D
and the intersects
method returns
true
and the containment calculations would be too expensive to perform.contains(double, double, double, double)
public boolean contains(Point2D p)
Point2D
is inside the boundary of the Shape
.public boolean contains(double x, double y)
Shape
.public boolean contains(double x, double y, double w, double h)
Shape
entirely contains the specified rectangular
area. All coordinates that lie inside the rectangular area must lie within the Shape
for the entire rectanglar area to be considered contained within the Shape
.
This method might conservatively return false
when:
intersect
method returns true
and
Shape
entirely contains
the rectangular area are prohibitively expensive.
false
even though the Shape
contains the rectangular area. The Area
class can be used to perform
more accurate computations of geometric intersection for any Shape
object if a
more precise answer is required.contains
in interface Shape
x
 the coordinates of the specified rectangular area, x valuey
 the coordinates of the specified rectangular area, y valuew
 the width of the specified rectangular areah
 the height of the specified rectangular areatrue
if the interior of the Shape
entirely contains the
specified rectangular area; false
otherwise or, if the Shape
contains the rectangular area and the intersects
method returns true
and the containment calculations would be too expensive to perform.Area
,
intersects(java.awt.geom.Rectangle2D)
public Rectangle getBounds()
Rectangle
that completely encloses the Shape
. Note
that there is no guarantee that the returned Rectangle
is the smallest bounding
box that encloses the Shape
, only that the Shape
lies entirely
within the indicated Rectangle
. The returned Rectangle
might also
fail to completely enclose the Shape
if the Shape
overflows the
limited range of the integer data type. The getBounds2D
method generally returns
a tighter bounding box due to its greater flexibility in representation.getBounds
in interface Shape
Rectangle
that completely encloses the Shape
.getBounds2D()
public Rectangle2D getBounds2D()
Shape
than the
getBounds
method. Note that there is no guarantee that the returned Rectangle2D
is the smallest bounding box that encloses the Shape
, only that the
Shape
lies entirely within the indicated Rectangle2D
. The bounding
box returned by this method is usually tighter than that returned by the getBounds
method and never fails due to overflow problems since the return value can be an
instance of the Rectangle2D
that uses double precision values to store the
dimensions.getBounds2D
in interface Shape
Rectangle2D
that is a highprecision bounding box of the
Shape
.getBounds()
public PathIterator getPathIterator(AffineTransform at)
Shape
boundary and provides
access to the geometry of the Shape
outline. If an optional AffineTransform
is specified, the coordinates returned in the iteration are transformed
accordingly.
Each call to this method returns a fresh PathIterator
object that traverses
the geometry of the Shape
object independently from any other PathIterator
objects in use at the same time.
It is recommended, but not guaranteed, that objects implementing the Shape
interface isolate iterations that are in process from any changes that might occur to the
original object's geometry during such iterations.
Before using a particular implementation of the Shape
interface in more than
one thread simultaneously, refer to its documentation to verify that it guarantees that
iterations are isolated from modifications.
getPathIterator
in interface Shape
at
 an optional AffineTransform
to be applied to the coordinates as they
are returned in the iteration, or null
if untransformed coordinates are
desiredPathIterator
object, which independently traverses the geometry of
the Shape
.public PathIterator getPathIterator(AffineTransform at, double flatness)
Shape
boundary and provides
access to a flattened view of the Shape
outline geometry.
Only SEG_MOVETO, SEG_LINETO, and SEG_CLOSE point types are returned by the iterator.
If an optional AffineTransform
is specified, the coordinates returned in the
iteration are transformed accordingly.
The amount of subdivision of the curved segments is controlled by the flatness
parameter, which specifies the maximum distance that any point on the unflattened
transformed curve can deviate from the returned flattened path segments. Note that a limit on
the accuracy of the flattened path might be silently imposed, causing very small flattening
parameters to be treated as larger values. This limit, if there is one, is defined by the
particular implementation that is used.
Each call to this method returns a fresh PathIterator
object that traverses
the Shape
object geometry independently from any other PathIterator
objects in use at the same time.
It is recommended, but not guaranteed, that objects implementing the Shape
interface isolate iterations that are in process from any changes that might occur to the
original object's geometry during such iterations.
Before using a particular implementation of this interface in more than one thread simultaneously, refer to its documentation to verify that it guarantees that iterations are isolated from modifications.
getPathIterator
in interface Shape
at
 an optional AffineTransform
to be applied to the coordinates as they
are returned in the iteration, or null
if untransformed coordinates are
desiredflatness
 the maximum distance that the line segments used to approximate the curved
segments are allowed to deviate from any point on the original curvePathIterator
that independently traverses the Shape
geometry.public boolean intersects(Rectangle2D r)
Shape
intersects the interior of a specified
Rectangle2D
. This method might conservatively return true
when:
Rectangle2D
and the Shape
intersect, but
true
even though the Rectangle2D
does not intersect the Shape
.intersects
in interface Shape
r
 the specified Rectangle2D
true
if the interior of the Shape
and the interior of the
specified Rectangle2D
intersect, or are both highly likely to intersect and
intersection calculations would be too expensive to perform; false
otherwise.intersects(double, double, double, double)
public boolean intersects(double x, double y, double w, double h)
Shape
intersects the interior of a specified
rectangular area. The rectangular area is considered to intersect the Shape
if
any point is contained in both the interior of the Shape
and the specified
rectangular area.
This method might conservatively return true
when:
Shape
intersect, but
true
even though the rectangular area
does not intersect the Shape
. The Area
class can be
used to perform more accurate computations of geometric intersection for any Shape
object if a more precise answer is required.intersects
in interface Shape
x
 the coordinates of the specified rectangular area, x valuey
 the coordinates of the specified rectangular area, y valuew
 the width of the specified rectangular areah
 the height of the specified rectangular areatrue
if the interior of the Shape
and the interior of the
rectangular area intersect, or are both highly likely to intersect and intersection
calculations would be too expensive to perform; false
otherwise.Area
public MathTransform getMathTransform()
public Geometry getGeometry()
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