fmeobjects.FMESimpleArea
This method returns the bounding box of the geometry. 

This method returns the bounding cube of the geometry. 

Returns the bounds of the geometry. 

Remove all measures from the geometry. 

Copies all the attributes from the given feature to traits on this geometry, if they match the (optional) regular expression. 

Copies the name of the 'sourceGeometry' onto this geometry. 

Copies all the traits from the given geometry that match the (optional) regular expression. 

Copies all the traits from this geometry to attributes on the given feature, if they match the (optional) regular expression. 

Deletes the geometry's name. 

Reduces the geometry to 2D. 


This sets the geometry's dimension to 3D. 
Area calculation. 

Returns the curve that defines the boundary of the area. 

Retrieve the names of the measures on this geometry. 

This routine retrieves the 'name' of this geometry as a 


Retrieves the geometry trait value of the specified trait name. 
Retrieve the names of the traits on this geometry. 

This method returns a tuple of a boolean, indicating if the trait is null, a boolean, indicating if the trait is missing, and an integer representing the type of the trait. 


Returns the type of given trait. 
Check if this geometry or any sub part of this geometry has measures. 

Returns whether or not the geometry has a name. 

Returns whether or not the geometry is 3D. 

Returns 

Check if the geometry is an aggregate or multipart collection. 

Determines if area is convex. 


Works similarly to 

This returns 

Returns 

Returns 

Offsets the area by the coords specified by 'offsetPoint'. 

This sets the geometry to the specified orientation. 

Removes any adjacent duplicate points. 

Removes the measure with name 'measureName' if supplied, or the default measure, if there is one. 

This method has 4 modes: 

Renames the measure specified by 'oldMeasureName' to the new name, specified by 'newMeasureName'. 
This reverses the order of the area's points. 


Rotate the area counterclockwise around the 'center' point by the specified 'angle' (in degrees). 

Scale the feature by the given amounts. 

Sets the geometry's name with a 

Sets a geometry trait with the specified value. 
This method supplies a null trait value with a type to the geometry. 
 class FMESimpleArea
FME Simple Area Class
init()
FMESimpleArea
is an abstract class. It cannot be created directly. __init__(*args, **kwargs)
 boundingBox()
This method returns the bounding box of the geometry.
 boundingCube()
This method returns the bounding cube of the geometry.
 bounds()
Returns the bounds of the geometry.
 clearMeasures()
Remove all measures from the geometry.
 Return type:
None
 copyAttributesFromFeature(sourceFeature, overwriteExisting, regexp, prefix)
Copies all the attributes from the given feature to traits on this geometry, if they match the (optional) regular expression.
 Parameters:
sourceFeature (FMEFeature) – The feature to copy attributes from.
overwriteExisting (bool) – Existing traits will be overwritten only if overwriteExisting is
True
.regexp (str) – (Optional) The regular expression to match the attributes against. If regexp is not specified, then all attributes will be copied.
prefix (str) – (Optional) The prefix is put on all the trait names as they are copied. If it is not specified, a prefix will not be added to the trait names.
 Return type:
None
 copyNameFromGeometry(sourceGeometry)
Copies the name of the ‘sourceGeometry’ onto this geometry. If ‘sourceGeometry’s name is blank or
None
, this geometry’s name will becomeNone
. Parameters:
sourceGeometry (FMEGeometry) – The geometry to copy the name from.
 Return type:
None
 copyTraitsFromGeometry(sourceGeometry, overwriteExisting, regexp, prefix)
Copies all the traits from the given geometry that match the (optional) regular expression.
 Parameters:
sourceGeometry (FMEGeometry) – The geometry to copy traits from.
overwriteExisting (bool) – Existing traits will be overwritten only if overwriteExisting is
True
.regexp (str) – (Optional) The regular expression to match the traits against. If regexp is not specified, or is an empty string, then all traits will be copied.
prefix (str) – (Optional) The prefix is put on all the trait names as they are copied. If it is not specified, a prefix will not be added to the trait names.
 Return type:
None
 copyTraitsToFeature(destFeature, overwriteExisting, regexp, prefix)
Copies all the traits from this geometry to attributes on the given feature, if they match the (optional) regular expression.
 Parameters:
destFeature (FMEFeature) – The feature to copy traits to.
overwriteExisting (bool) – Existing attributes will be overwritten only if overwriteExisting is
True
.regexp (str) – (Optional) The regular expression to match the traits against. If regexp is not specified, or is an empty string, then all traits will be copied.
prefix (str) – (Optional) The prefix is put on all the attribute names as they are copied. If it is not specified, a prefix will not be added to the attribute names.
 Return type:
None
 deleteName()
Deletes the geometry’s name. If a name existed prior to this call then
True
is returned; otherwiseFalse
is returned. Return type:
 Returns:
Returns a boolean indicating whether or not the name existed before deletion.
 force2D()
Reduces the geometry to 2D.
 Return type:
None
 force3D(newZ)
This sets the geometry’s dimension to 3D. All Z values are set to the value passed in, even if the geometry is already 3D.
 Parameters:
newZ (float) – The new Z value.
 Return type:
None
 getBoundaryAsCurve()
Returns the curve that defines the boundary of the area.
 getMeasureNames()
Retrieve the names of the measures on this geometry.
 Return type:
 Returns:
Return a tuple storing the names of the measures on this geometry. This will return an empty tuple if there are no measures. For
FMEAggregate
,FMEMultiSurface
, andFMECompositeSurface
, this will return the union of all measure names of all of its parts.
 getName()
This routine retrieves the ‘name’ of this geometry as a
str
. This will returnNone
if it did not have a name associated with it. Return type:
str or None
 Returns:
The geometry’s name.
 getTrait(traitName)
Retrieves the geometry trait value of the specified trait name. Null trait values will be returned as an empty string. Binary blob traits are returned as a bytearray.
None
is returned when the trait is not found on the geometry.
 getTraitNames()
Retrieve the names of the traits on this geometry.
 getTraitNullMissingAndType(traitName)
This method returns a tuple of a boolean, indicating if the trait is null, a boolean, indicating if the trait is missing, and an integer representing the type of the trait. The first boolean is
True
if ‘traitName’ maps to a null trait value on the geometry. Otherwise it isFalse
. The second boolean isTrue
if ‘traitName’ maps to a no value on the geometry. Otherwise it isFalse
. If the trait is absent,FME_ATTR_UNDEFINED
is returned for the type.The possible trait types are
FME_ATTR_UNDEFINED
,FME_ATTR_BOOLEAN
,FME_ATTR_INT8
,FME_ATTR_UINT8
,FME_ATTR_INT16
,FME_ATTR_UINT16
,FME_ATTR_INT32
,FME_ATTR_UINT32
,FME_ATTR_REAL32
,FME_ATTR_REAL64
,FME_ATTR_REAL80
,FME_ATTR_STRING
,FME_ATTR_ENCODED_STRING
,FME_ATTR_INT64
,FME_ATTR_UINT64
.
 getTraitType(traitName)
Returns the type of given trait. If the trait cannot be found,
FME_ATTR_UNDEFINED
will be returned.Returns one of
FME_ATTR_UNDEFINED
,FME_ATTR_BOOLEAN
,FME_ATTR_INT8
,FME_ATTR_UINT8
,FME_ATTR_INT16
,FME_ATTR_UINT16
,FME_ATTR_INT32
,FME_ATTR_UINT32
,FME_ATTR_REAL32
,FME_ATTR_REAL64
,FME_ATTR_REAL80
,FME_ATTR_STRING
,FME_ATTR_ENCODED_STRING
,FME_ATTR_INT64
,FME_ATTR_UINT64
.
 hasMeasures()
Check if this geometry or any sub part of this geometry has measures.
 hasName()
Returns whether or not the geometry has a name.
 is3D()
Returns whether or not the geometry is 3D.
 Return type:
 Returns:
Returns
True
if the geometry is 3D andFalse
otherwise. ForFMENull
, this method will always returnTrue
. ForFMEAggregate
,FMEMultiPoint
,FMEMultiArea
,FMEMultiText
andFMEMultiCurve
, this method will returnTrue
if any one of the subparts is 3D. If the collection is empty or all of its members are 2D, this method will returnFalse
.
 isBoundaryLinear()
Returns
True
if the outer boundary (and inner boundaries in the case ofFMEDonut
) of this area containsFMELine
only. Return type:
 Returns:
Whether the area’s boundaries contain only lines.
 isCollection()
Check if the geometry is an aggregate or multipart collection.
 isConvex()
Determines if area is convex. The polygon making up the area is convex if all internal angles are less than 180 degrees and it’s not selfintersecting. Imperfectly planar 3D polygons are tolerated.
 Return type:
 Returns:
Whether the area is convex.
 isInPlane(tolerance, normalVector, valD, recalculateD)
Works similarly to
isPlanar()
, but checks planarity with respect to given normal or given plane (if plane equation D is specified  see below). If given normal is the zero vector, the normal used to check the planarity is computed using Newell’s method as inisPlanar()
. valD is a reference to a value of D in the plane equation AX + BY + CZ = D. It can be used to make sure that multiple pieces lie in the same plane. If ‘recalculateD’ is set toFalse
, the passed in value of D will be used in the calculation. If ‘recalcualteD’ is set toTrue
, the passed in value is ignored and is instead automatically calculated (and returned in the second position of the returned tuple). A useful calling pattern for ensuring coplanarity is to get valD computed on the first call to the function setting recalculateD toTrue
, and then use this value for future calls with recalculateD toFalse
. Parameters:
 Return type:
 Returns:
A tuple containing a boolean, tuple, and float representing: 1) Whether or not the area is in plane; 2) The normal vector returned; and 3) The value ‘D’. Note: If recalculateD is
False
, the tuple returned will only contain the boolean and vector tuple (i.e. ‘valD’ is not returned).
 isPlanar(tolerance)
Returns
True
if this is planar within the given tolerance, andFalse
otherwise.The planarity condition is computed by the following algorithm. The normal vector <A, B, C> is determined by the vertices of this area using Newell’s method. For the first point (x’, y’, z’) of this area, we compute D’ = Ax’ + By’ + Cz’. Then, this area is planar if and only if every subsequent point (x, y, z) of this area gives a D = Ax + By + Cz, that is within the tolerance amount of D’. That is,  D  D’  <= tolerance.
If the specified tolerance is negative, then this method always returns
True
.
 measureExists(measureName)
Returns
True
if the specified measure exists andFalse
otherwise. If the ‘measureName’ parameter is not specified then the default measure is checked.
 offset(offsetPoint)
Offsets the area by the coords specified by ‘offsetPoint’.
 Parameters:
offsetPoint (FMEPoint) – The
FMEPoint
to offset the area by. Return type:
None
 Raises:
FMEException – An exception is raised if an error occurred.
 orient(rightOrLeft)
This sets the geometry to the specified orientation.
 removeDuplicates(checkZ)
Removes any adjacent duplicate points. If ‘checkZ’ is
True
, x, y, and z coordinates are checked, otherwise only x and y are. Parameters:
checkZ (bool) – Whether to check the z coordinate.
 Return type:
None
 removeMeasure(measureName)
Removes the measure with name ‘measureName’ if supplied, or the default measure, if there is one.
 Parameters:
measureName (str) – (Optional) The name of the measure to remove.
 Return type:
None
 removeTraits(regexp)
This method has 4 modes:
Remove all traits at the top level: regex == NULL
Remove some traits at the top level: regex == <string>
Remove all traits at all levels: regex ==
kFME_RecurseAll
Remove some traits at all levels: regex ==
kFME_RecurseSome
<string>
For example, specifying regex == NULL for a multisurface will remove all traits at the root level of the multisurface, whereas specifying regex ==
kFME_RecurseSome
<string> will remove all traits from all levels of the multi surface that match <string>. If <string> is an illegal regular expression, no traits will be removed. Return type:
None
 renameMeasure(oldMeasureName, newMeasureName)
Renames the measure specified by ‘oldMeasureName’ to the new name, specified by ‘newMeasureName’.
 reverse()
This reverses the order of the area’s points.
 Return type:
None
 rotate2D(center, angle)
Rotate the area counterclockwise around the ‘center’ point by the specified ‘angle’ (in degrees).
 Parameters:
 Return type:
None
 Raises:
FMEException – An exception is raised if an error occurred.
 scale(xScale, yScale, zScale)
Scale the feature by the given amounts.
 Parameters:
 Return type:
None
 Raises:
FMEException – An exception is raised if an error occurred.
 setName(name)
Sets the geometry’s name with a
str
. By supplying a blank name as input, this method will act asdeleteName()
. Parameters:
name (str) – The geometry’s new name.
 Return type:
None
 setTrait(traitName, traitValue)
Sets a geometry trait with the specified value. If the geometry trait already exists, its value and type will be changed. The following type numeric mappings are used:
PyInt ==> FME_Int32
PyFloat ==> FME_Real64
PyLong ==> FME_Int64
Binary values are to be specified as bytearray values or bytes values.
 setTraitNullWithType(traitName, traitType)
This method supplies a null trait value with a type to the geometry. If a trait with the same name already exists, it is overwritten.
Trait type must be one of
FME_ATTR_UNDEFINED
,FME_ATTR_BOOLEAN
,FME_ATTR_INT8
,FME_ATTR_UINT8
,FME_ATTR_INT16
,FME_ATTR_UINT16
,FME_ATTR_INT32
,FME_ATTR_UINT32
,FME_ATTR_REAL32
,FME_ATTR_REAL64
,FME_ATTR_REAL80
,FME_ATTR_STRING
,FME_ATTR_ENCODED_STRING
,FME_ATTR_INT64
,FME_ATTR_UINT64
.