I ran into a few minor issues with the constructors to the Field class.
The big change I made was that I removed the Field constructors that
take an example type and create an empty field of that type. The problem
was that the example type was easily confused with some other type that
was supposed to describe an array. This lead to some odd behavior in the
compiler and resulted in errors in unexpected places.
The use case for this constructor is dubious. There were several tests
in the code that would create an empty field, add it to a data set, then
get it back out to pass to the worklet. The code is much simpler if you
just make an ArrayHandle of the right type and use that in the worklet
invoke directly. It is also faster to compile with smaller code because
the type is known statically (whereas it is lost the other way).
The other change was to declare references to ArrayHandle and
DynamicArrayHandle as const. There is nothing in the behavior that
invalidates the const, and it accepts arrays constructed in the
parameter.
The map topology worklets are to have convenience classes for all the
common mappings. However WorkletMapCellToPoint was left out as an
oversight. This adds the class.
There was an inconsistency in naming classes where axes-aligned grids
with even spacing were sometimes called "uniform" and sometimes called
"regular". Maintain consistency by always calling them uniform.
Previously, DynamicArrayHandle and DynamicCellSet had slightly different
interfaces to their CastTo feature. It was a bit confusing and not all
that easy to use.
This change simplifies and unifies them by making each class have a single
CopyTo method that takes a reference to a cast object (an ArrayHandle or
CellSet, respectively) and fills that object with the data contained if
the cast is successfull. This interface gets around having to declare
strange types.
Each object also has a Cast method that has to have a template parameter
specified and returns a reference of that type (if possible).
In addition, the old behavior is preserved for DynamicArrayHandle (but
not DynamicCellSet). To avoid confusion, the name of that cast method is
CastToTypeStorage. However, the method was chaned to not take parameters
to make it consistent with the other Cast method.
Also, the IsType methods have been modified to reflect changes in
cast/copy. IsType now no longer takes arguments. However, an alternate
IsSameType does the same thing but does take an argument.
Mainly issue dealing with dimensionality of cell sets and what that represents.
Have added in code to allow user to specify a custom dimensionality so that
tests continue to work properly.
956cedfd Turn off the benchmarking ExternalsFaces.
18b866d6 Threshold worklet is not templated on device adapter.
dbee9275 ExternalFaces worklet is not templated on device adapter.
Acked-by: Kitware Robot <kwrobot@kitware.com>
Merge-request: !315
f86382f0 Fix support for CoordinateSystems using ArrayHandleCartesianProduct.
d6a2a142 Add toleranced compare for values. Add tests for vtkm::Float32,Float64,Id typed arrays.
5d438353 Add toleranced comparisions for bounds validation. Also, add vtkm::Float32 and vtkm::Float64 to the testing for rectilinear and regular datasets.
b225ae97 Rectilinear coordinates (created with DataSetBuilderRectilinear) are now converted to vtkm::FloatDefault. This reduces the number of types to consider when casting inside CoordinateSystem, and was felt by all to be a reasonable restriction.
d755e43d Use ArrayHandleCompositeVector to represent separated point arrays for DataSetBuilderExplicit.h.
c7b0ffb8 Add tests for DataSetBuilderExplicit. Added cont/testing/ExplicitTestData.h which includes several explicit datasets. These datasets come from VTK data generated in VisIt. The new unit tests build datasets in several different ways and do some basic validation.
b4d04fff Add specialization of printSummary_ArrayHandle for UInt8. It prints them as characters, which are a little hard to understand to this computer scientist.
bd929c20 Fix compiler warnings.
...
Acked-by: Kitware Robot <kwrobot@kitware.com>
Acked-by: Kenneth Moreland <kmorel@sandia.gov>
Merge-request: !262
Previously each device adapter only had a unique string name. This was
not the best when it came to developing data structures to track the status
of a given device at runtime.
This adds in a unique numeric identifier to each device adapter. This will
allow classes to easily create bitmasks / lookup tables for the validity of
devices.
a7127f0f Adding vtkm::cont::RuntimeDeviceInformation.
7d249e89 Move DeviceAdapterTraits into vtkm::cont as they are user API.
Acked-by: Kitware Robot <kwrobot@kitware.com>
Acked-by: Kenneth Moreland <kmorel@sandia.gov>
Merge-request: !287
The RuntimeDeviceInformation class allows developers to check if a given
device is supported on a machine at runtime. This allows developers to properly
check for CUDA support before running any worklets.
When writing multiple backend code users of vtkm need to use the
DeviceAdapterTraits classes, so therefore we should move them to vtkm::cont
to signify this.
The WholeArrayIn, WholeArrayInOut, and WholeArrayOut ControlSignature
tags behave similarly to using an ExecObject tag with an
ExecutionWholeArray or ExecutionWholeArrayConst object. However, the
WholeArray* tags can simplify some implementations in two ways. First,
it allows you to specify more precisely what data is passed in. You have
to pass in an ArrayHandle or else an error will occur (as opposed to be
able to pass in any type of execution object). Second, this allows you
to easily pass in arrays stored in DynamicArrayHandle objects. The
Invoke mechanism will automatically find the appropriate static class.
This cannot be done easily with ExecutionWholeArray.
The original isosurface code was not treating the origin and spacing of
the point coordinates correctly. Instead, it was ignoring the origin and
spacing and instead scaling all point coordinates to be in the unit cube
in world space (except there was also an off-by-one error in that). This
change recompensates by adjusting the origin and spacing to make the
correct position where the geometry was previously errantly placed.
