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test_translators_DgTranslator.cpp
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test_translators_DgTranslator.cpp
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//
// Copyright 2017 Animal Logic
//
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.//
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
//
#include "test_usdmaya.h"
#include "AL/maya/utils/NodeHelper.h"
#include "AL/usdmaya/fileio/ImportParams.h"
#include "AL/usdmaya/fileio/translators/DgNodeTranslator.h"
#include "maya/MAngle.h"
#include "maya/MDGModifier.h"
#include "maya/MFloatMatrix.h"
#include "maya/MFloatPoint.h"
#include "maya/MFloatVector.h"
#include "maya/MFnAttribute.h"
#include "maya/MFnData.h"
#include "maya/MFnDependencyNode.h"
#include "maya/MFnMatrixAttribute.h"
#include "maya/MFnMatrixData.h"
#include "maya/MFnNumericAttribute.h"
#include "maya/MFnNumericData.h"
#include "maya/MFnTypedAttribute.h"
#include "maya/MFnUnitAttribute.h"
#include "maya/MLibrary.h"
#include "maya/MMatrix.h"
#include "maya/MPoint.h"
#include "maya/MStatus.h"
#include "maya/MTime.h"
#include "maya/MVector.h"
#include "pxr/usd/sdf/types.h"
#include "pxr/usd/usd/attribute.h"
#include "pxr/usd/usdGeom/xform.h"
#include "pxr/usd/usdGeom/xformCommonAPI.h"
#include <cstring>
using AL::usdmaya::fileio::ImporterParams;
using AL::usdmaya::fileio::ExporterParams;
using AL::usdmaya::fileio::translators::DgNodeTranslator;
using AL::maya::utils::NodeHelper;
using AL::maya::test::buildTempPath;
using AL::maya::test::randBool;
using AL::maya::test::randInt8;
using AL::maya::test::randInt16;
using AL::maya::test::randInt32;
using AL::maya::test::randInt64;
using AL::maya::test::randFloat;
using AL::maya::test::randDouble;
using AL::maya::test::comparePlugs;
namespace {
// comparisons between MPlugs require stream operators for cpp unit
inline std::ostream& operator << (std::ostream& os, const MAngle& plug)
{
return os << plug.value();
}
// comparisons between MPlugs require stream operators for cpp unit
inline std::ostream& operator << (std::ostream& os, const MDistance& plug)
{
return os << plug.value();
}
static MObject m_node = MObject::kNullObj;
static MObject m_nodeB = MObject::kNullObj;
// Array size chosen to be deliberately annoying!
//
// 511 % 16 == 15, which translates to:
//
// 1 x AVX256 op (8) +
// 1 x AVX128 op (4) +
// 3 x FPU ops (3)
//
// This should ensure ALL code paths are executed that handle the remainders left at the end of an array,
// even if we were to add an AVX512 codepath in the future, this should still handle the messy end conditions
// It would probably be a good idea to one day also add tests for multiples of:
//
// 512
// 510
// 509
// 508
//
// That would handle all permutations of end conditions within the AVX2 code paths
#define SIZE 511
void setUp()
{
AL_OUTPUT_TEST_NAME("test_translators_DgNodeTranslator");
// A bit nasty. cppunit runs a setup and teardown between each unit test.
// I actually want to run ALL of these tests in order, so that I can test the Maya <--> USD conversions.
if(m_node == MObject::kNullObj)
{
MFnDependencyNode fn;
m_node = fn.create("transform");
m_nodeB = fn.create("transform");
}
}
MPlug findPlug(const char* name)
{
MStatus status;
MFnDependencyNode fn(m_node, &status);
EXPECT_EQ(MStatus(MS::kSuccess), status);
MPlug plug = fn.findPlug(name, true, &status);
EXPECT_EQ(MStatus(MS::kSuccess), status);
return plug;
}
MObject findAttribute(const char* name)
{
return findPlug(name).attribute();
}
/// \brief A set of bit flags you can apply to an attribute
enum AttributeFlags
{
kCached = NodeHelper::kCached,
kReadable = NodeHelper::kReadable,
kWritable = NodeHelper::kWritable,
kStorable = NodeHelper::kStorable,
kAffectsAppearance = NodeHelper::kAffectsAppearance,
kKeyable = NodeHelper::kKeyable,
kConnectable = NodeHelper::kConnectable,
kArray = NodeHelper::kArray,
kColour = NodeHelper::kColour,
kHidden = NodeHelper::kHidden,
kInternal = NodeHelper::kInternal,
kAffectsWorldSpace = NodeHelper::kAffectsWorldSpace,
kUsesArrayDataBuilder = NodeHelper::kUsesArrayDataBuilder,
kDontAddToNode = NodeHelper::kDontAddToNode,
kDynamic = NodeHelper::kDynamic
};
}
//----------------------------------------------------------------------------------------------------------------------
/// \brief Test some of the functionality of the alUsdNodeHelper.
//----------------------------------------------------------------------------------------------------------------------
// static MStatus getBoolArray(MObject node, MObject attr, bool* values, const size_t count);
// template<template<typename> class bool_container>
// static MStatus getBoolArray(MObject node, MObject attr, bool_container<bool>& values);
// static MStatus setBoolArray(MObject node, MObject attr, const bool* const values, size_t count);
// template<template<typename> class bool_container>
// static MStatus setBoolArray(MObject node, MObject attr, const bool_container<bool>& values);
TEST(translators_DgNodeTranslator, bool_array)
{
setUp();
bool* orig = new bool[SIZE];
bool* result = new bool[SIZE];
std::vector<bool> container, container2;
VtArray<bool> vcontainer, vcontainer2;
container.resize(SIZE);
vcontainer.resize(SIZE);
std::memset(result, 0, sizeof(bool) * SIZE);
for(int i = 0 ; i < SIZE; ++i)
{
orig[i] = randBool();
container[i] = randBool();
vcontainer[i] = randBool();
}
const char* const longName = "longBoolArrayName";
const char* const shortName = "lBan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const bool defaultValue = true;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addBoolAttr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setBoolArray(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getBoolArray(m_node, findAttribute(longName), result, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setBoolArray(m_node, findAttribute(longName), container));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getBoolArray(m_node, findAttribute(longName), container2));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setUsdBoolArray(m_node, findAttribute(longName), vcontainer));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getUsdBoolArray(m_node, findAttribute(longName), vcontainer2));
for(int i = 0 ; i < SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
EXPECT_EQ(container[i], container2[i]);
EXPECT_EQ(vcontainer[i], vcontainer2[i]);
}
delete [] orig;
delete [] result;
}
// static MStatus getInt8Array(MObject node, MObject attr, uint8_t* values, size_t count);
// static MStatus setInt8Array(MObject node, MObject attr, const uint8_t* values, size_t count);
TEST(translators_DgNodeTranslator, int8_array)
{
setUp();
int8_t* orig = new int8_t[SIZE];
int8_t* result = new int8_t[SIZE];
std::vector<int8_t> container, container2;
VtArray<int8_t> vcontainer, vcontainer2;
container.resize(SIZE);
vcontainer.resize(SIZE);
std::memset(result, 0, sizeof(int8_t) * SIZE);
for(int i = 0 ; i < SIZE; ++i)
{
orig[i] = randInt8();
container[i] = randInt8();
vcontainer[i] = randInt8();
}
const char* const longName = "longInt8ArrayName";
const char* const shortName = "li8an";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const int8_t defaultValue = 99;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addInt8Attr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setInt8Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getInt8Array(m_node, findAttribute(longName), result, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setInt8Array(m_node, findAttribute(longName), container));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getInt8Array(m_node, findAttribute(longName), container2));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setUsdInt8Array(m_node, findAttribute(longName), vcontainer));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getUsdInt8Array(m_node, findAttribute(longName), vcontainer2));
for(int i = 0 ; i < SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
EXPECT_EQ(container[i], container2[i]);
EXPECT_EQ(vcontainer[i], vcontainer2[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, int16_array)
{
setUp();
int16_t* orig = new int16_t[SIZE];
int16_t* result = new int16_t[SIZE];
std::vector<int16_t> container, container2;
VtArray<int16_t> vcontainer, vcontainer2;
container.resize(SIZE);
vcontainer.resize(SIZE);
std::memset(result, 0, sizeof(int16_t) * SIZE);
for(int i = 0 ; i < SIZE; ++i)
{
orig[i] = randInt16();
container[i] = randInt16();
vcontainer[i] = randInt16();
}
const char* const longName = "longInt16ArrayName";
const char* const shortName = "li16an";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const int16_t defaultValue = 99;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addInt16Attr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setInt16Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getInt16Array(m_node, findAttribute(longName), result, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setInt16Array(m_node, findAttribute(longName), container));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getInt16Array(m_node, findAttribute(longName), container2));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setUsdInt16Array(m_node, findAttribute(longName), vcontainer));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getUsdInt16Array(m_node, findAttribute(longName), vcontainer2));
for(int i = 0 ; i < SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
EXPECT_EQ(container[i], container2[i]);
EXPECT_EQ(vcontainer[i], vcontainer2[i]);
}
delete [] orig;
delete [] result;
}
// static MStatus getInt32Array(MObject node, MObject attr, int32_t* values, size_t count);
// static MStatus setInt32Array(MObject node, MObject attr, const int32_t* values, size_t count);
TEST(translators_DgNodeTranslator, int32_array)
{
setUp();
int32_t* orig = new int32_t[SIZE];
int32_t* result = new int32_t[SIZE];
std::vector<int32_t> container, container2;
VtArray<int32_t> vcontainer, vcontainer2;
container.resize(SIZE);
vcontainer.resize(SIZE);
std::memset(result, 0, sizeof(int32_t) * SIZE);
for(int i = 0 ; i < SIZE; ++i)
{
orig[i] = randInt32();
container[i] = randInt32();
vcontainer[i] = randInt32();
}
const char* const longName = "longInt32ArrayName";
const char* const shortName = "li32an";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const int32_t defaultValue = 99;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addInt32Attr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setInt32Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getInt32Array(m_node, findAttribute(longName), result, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setInt32Array(m_node, findAttribute(longName), container));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getInt32Array(m_node, findAttribute(longName), container2));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setUsdInt32Array(m_node, findAttribute(longName), vcontainer));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getUsdInt32Array(m_node, findAttribute(longName), vcontainer2));
for(int i = 0 ; i < SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
EXPECT_EQ(container[i], container2[i]);
EXPECT_EQ(vcontainer[i], vcontainer2[i]);
}
delete [] orig;
delete [] result;
}
// static MStatus getInt64Array(MObject node, MObject attr, int64_t* values, size_t count);
// static MStatus setInt64Array(MObject node, MObject attr, const int64_t* values, size_t count);
TEST(translators_DgNodeTranslator, int64_array)
{
setUp();
int64_t* orig = new int64_t[SIZE];
int64_t* result = new int64_t[SIZE];
std::vector<int64_t> container, container2;
VtArray<int64_t> vcontainer, vcontainer2;
container.resize(SIZE);
vcontainer.resize(SIZE);
std::memset(result, 0, sizeof(int64_t) * SIZE);
for(int i = 0 ; i < SIZE; ++i)
{
orig[i] = randInt64();
container[i] = randInt64();
vcontainer[i] = randInt64();
}
const char* const longName = "longInt64ArrayName";
const char* const shortName = "li64an";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const int64_t defaultValue = 99;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addInt64Attr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setInt64Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getInt64Array(m_node, findAttribute(longName), result, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setInt64Array(m_node, findAttribute(longName), container));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getInt64Array(m_node, findAttribute(longName), container2));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setUsdInt64Array(m_node, findAttribute(longName), vcontainer));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getUsdInt64Array(m_node, findAttribute(longName), vcontainer2));
for(int i = 0 ; i < SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
EXPECT_EQ(container[i], container2[i]);
EXPECT_EQ(vcontainer[i], vcontainer2[i]);
}
delete [] orig;
delete [] result;
}
// static MStatus getHalfArray(MObject node, MObject attr, half* values, size_t count);
// static MStatus setHalfArray(MObject node, MObject attr, const half* values, size_t count);
TEST(translators_DgNodeTranslator, half_array)
{
setUp();
GfHalf* orig = new GfHalf[SIZE];
GfHalf* result = new GfHalf[SIZE];
std::vector<GfHalf> container, container2;
VtArray<GfHalf> vcontainer, vcontainer2;
container.resize(SIZE);
vcontainer.resize(SIZE);
std::memset(result, 0, sizeof(GfHalf) * SIZE);
for(int i = 0 ; i < SIZE; ++i)
{
orig[i] = randFloat();
container[i] = randFloat();
vcontainer[i] = randFloat();
}
const char* const longName = "longHalfArrayName";
const char* const shortName = "lhan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const GfHalf defaultValue = 0.1f;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addFloatAttr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setHalfArray(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getHalfArray(m_node, findAttribute(longName), result, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setHalfArray(m_node, findAttribute(longName), container));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getHalfArray(m_node, findAttribute(longName), container2));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setUsdHalfArray(m_node, findAttribute(longName), vcontainer));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getUsdHalfArray(m_node, findAttribute(longName), vcontainer2));
for(int i = 0 ; i < SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
EXPECT_EQ(container[i], container2[i]);
EXPECT_EQ(vcontainer[i], vcontainer2[i]);
}
delete [] orig;
delete [] result;
}
// static MStatus getFloatArray(MObject node, MObject attr, float* values, size_t count);
// static MStatus setFloatArray(MObject node, MObject attr, const float* values, size_t count);
TEST(translators_DgNodeTranslator, float_array)
{
setUp();
float* orig = new float[SIZE];
float* result = new float[SIZE];
std::vector<float> container, container2;
VtArray<float> vcontainer, vcontainer2;
container.resize(SIZE);
vcontainer.resize(SIZE);
std::memset(result, 0, sizeof(float) * SIZE);
for(int i = 0 ; i < SIZE; ++i)
{
orig[i] = randFloat();
container[i] = randFloat();
vcontainer[i] = randFloat();
}
const char* const longName = "longFloatArrayName";
const char* const shortName = "lfan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const float defaultValue = 99.091f;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addFloatAttr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setFloatArray(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getFloatArray(m_node, findAttribute(longName), result, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setFloatArray(m_node, findAttribute(longName), container));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getFloatArray(m_node, findAttribute(longName), container2));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setUsdFloatArray(m_node, findAttribute(longName), vcontainer));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getUsdFloatArray(m_node, findAttribute(longName), vcontainer2));
for(int i = 0 ; i < SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
EXPECT_EQ(container[i], container2[i]);
EXPECT_EQ(vcontainer[i], vcontainer2[i]);
}
delete [] orig;
delete [] result;
}
// static MStatus getDoubleArray(MObject node, MObject attr, double* values, size_t count);
// static MStatus setDoubleArray(MObject node, MObject attr, const double* values, size_t count);
TEST(translators_DgNodeTranslator, double_array)
{
setUp();
double* orig = new double[SIZE];
double* result = new double[SIZE];
std::vector<double> container, container2;
VtArray<double> vcontainer, vcontainer2;
container.resize(SIZE);
vcontainer.resize(SIZE);
std::memset(result, 0, sizeof(double) * SIZE);
for(int i = 0 ; i < SIZE; ++i)
{
orig[i] = randDouble();
container[i] = randDouble();
vcontainer[i] = randDouble();
}
const char* const longName = "longDoubleArrayName";
const char* const shortName = "ldan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const double defaultValue = 99.09;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addDoubleAttr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setDoubleArray(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getDoubleArray(m_node, findAttribute(longName), result, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setDoubleArray(m_node, findAttribute(longName), container));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getDoubleArray(m_node, findAttribute(longName), container2));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setUsdDoubleArray(m_node, findAttribute(longName), vcontainer));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getUsdDoubleArray(m_node, findAttribute(longName), vcontainer2));
for(int i = 0 ; i < SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
EXPECT_EQ(container[i], container2[i]);
EXPECT_EQ(vcontainer[i], vcontainer2[i]);
}
delete [] orig;
delete [] result;
}
// static MStatus getVec2Array(MObject node, MObject attr, half* values, size_t count);
// static MStatus getVec2Array(MObject node, MObject attr, float* values, size_t count);
// static MStatus getVec2Array(MObject node, MObject attr, double* values, size_t count);
// static MStatus getVec2Array(MObject node, MObject attr, int32_t* values, size_t count);
// static MStatus setVec2Array(MObject node, MObject attr, const half* values, size_t count);
// static MStatus setVec2Array(MObject node, MObject attr, const float* values, size_t count);
// static MStatus setVec2Array(MObject node, MObject attr, const double* values, size_t count);
// static MStatus setVec2Array(MObject node, MObject attr, const int32_t* values, size_t count);
#define VEC_SIZE 2
TEST(translators_DgNodeTranslator, vec2h_array)
{
setUp();
GfHalf* orig = new GfHalf[SIZE * VEC_SIZE];
GfHalf* result = new GfHalf[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(GfHalf) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longVec2hArrayName";
const char* const shortName = "lv2han";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec2hAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec2Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec2Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, vec2i_array)
{
setUp();
int32_t* orig = new int32_t[SIZE * VEC_SIZE];
int32_t* result = new int32_t[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(int32_t) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randInt32();
}
const char* const longName = "longVec2iArrayName";
const char* const shortName = "lv2ian";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec2iAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec2Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec2Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, vec2f_array)
{
setUp();
float* orig = new float[SIZE * VEC_SIZE];
float* result = new float[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(float) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longVec2fArrayName";
const char* const shortName = "lv2fan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec2fAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec2Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec2Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, vec2d_array)
{
setUp();
double* orig = new double[SIZE * VEC_SIZE];
double* result = new double[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(double) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longVec2dArrayName";
const char* const shortName = "lv2dan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec2dAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec2Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec2Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
#undef VEC_SIZE
// static MStatus getVec3Array(MObject node, MObject attr, half* values, size_t count);
// static MStatus getVec3Array(MObject node, MObject attr, float* values, size_t count);
// static MStatus getVec3Array(MObject node, MObject attr, double* values, size_t count);
// static MStatus getVec3Array(MObject node, MObject attr, int32_t* values, size_t count);
// static MStatus setVec3Array(MObject node, MObject attr, const half* values, size_t count);
// static MStatus setVec3Array(MObject node, MObject attr, const float* values, size_t count);
// static MStatus setVec3Array(MObject node, MObject attr, const double* values, size_t count);
// static MStatus setVec3Array(MObject node, MObject attr, const int32_t* values, size_t count);
#define VEC_SIZE 3
TEST(translators_DgNodeTranslator, vec3h_array)
{
setUp();
GfHalf* orig = new GfHalf[SIZE * VEC_SIZE];
GfHalf* result = new GfHalf[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(GfHalf) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longVec3hArrayName";
const char* const shortName = "lv3han";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec3hAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec3Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec3Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, vec3i_array)
{
setUp();
int32_t* orig = new int32_t[SIZE * VEC_SIZE];
int32_t* result = new int32_t[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(int32_t) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randInt32();
}
const char* const longName = "longVec3iArrayName";
const char* const shortName = "lv3ian";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec3iAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec3Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec3Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, vec3f_array)
{
setUp();
float* orig = new float[SIZE * VEC_SIZE];
float* result = new float[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(float) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longVec3fArrayName";
const char* const shortName = "lv3fan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec3fAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec3Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec3Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, vec3d_array)
{
setUp();
double* orig = new double[SIZE * VEC_SIZE];
double* result = new double[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(double) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longVec3dArrayName";
const char* const shortName = "lv3dan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec3dAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec3Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec3Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
#undef VEC_SIZE
// static MStatus getVec4Array(MObject node, MObject attr, half* values, size_t count);
// static MStatus getVec4Array(MObject node, MObject attr, float* values, size_t count);
// static MStatus getVec4Array(MObject node, MObject attr, double* values, size_t count);
// static MStatus getVec4Array(MObject node, MObject attr, int32_t* values, size_t count);
// static MStatus setVec4Array(MObject node, MObject attr, const half* values, size_t count);
// static MStatus setVec4Array(MObject node, MObject attr, const float* values, size_t count);
// static MStatus setVec4Array(MObject node, MObject attr, const double* values, size_t count);
// static MStatus setVec4Array(MObject node, MObject attr, const int32_t* values, size_t count);
#define VEC_SIZE 4
TEST(translators_DgNodeTranslator, vec4h_array)
{
setUp();
GfHalf* orig = new GfHalf[SIZE * VEC_SIZE];
GfHalf* result = new GfHalf[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(GfHalf) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longVec4hArrayName";
const char* const shortName = "lv4han";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec4hAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec4Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec4Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, vec4i_array)
{
setUp();
int32_t* orig = new int32_t[SIZE * VEC_SIZE];
int32_t* result = new int32_t[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(int32_t) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randInt32();
}
const char* const longName = "longVec4iArrayName";
const char* const shortName = "lv4ian";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec4iAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec4Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec4Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, vec4f_array)
{
setUp();
float* orig = new float[SIZE * VEC_SIZE];
float* result = new float[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(float) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longVec4fArrayName";
const char* const shortName = "lv4fan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec4fAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec4Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec4Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, vec4d_array)
{
setUp();
double* orig = new double[SIZE * VEC_SIZE];
double* result = new double[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(double) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longVec4dArrayName";
const char* const shortName = "lv4dan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec4dAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setVec4Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getVec4Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
#undef VEC_SIZE
// static MStatus getQuatArray(MObject node, MObject attr, half* values, size_t count);
// static MStatus getQuatArray(MObject node, MObject attr, float* values, size_t count);
// static MStatus getQuatArray(MObject node, MObject attr, double* values, size_t count);
// static MStatus setQuatArray(MObject node, MObject attr, const half* values, size_t count);
// static MStatus setQuatArray(MObject node, MObject attr, const float* values, size_t count);
// static MStatus setQuatArray(MObject node, MObject attr, const double* values, size_t count);
#define VEC_SIZE 4
TEST(translators_DgNodeTranslator, quath_array)
{
setUp();
GfHalf* orig = new GfHalf[SIZE * VEC_SIZE];
GfHalf* result = new GfHalf[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(GfHalf) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longQuathArrayName";
const char* const shortName = "lqhan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec4hAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setQuatArray(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getQuatArray(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, quatf_array)
{
setUp();
float* orig = new float[SIZE * VEC_SIZE];
float* result = new float[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(float) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longQuatfArrayName";
const char* const shortName = "lqfan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec4fAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setQuatArray(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getQuatArray(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, quatd_array)
{
setUp();
double* orig = new double[SIZE * VEC_SIZE];
double* result = new double[SIZE * VEC_SIZE];
std::memset(result, 0, sizeof(double) * SIZE * VEC_SIZE);
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longQuatdArrayName";
const char* const shortName = "lqdan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addVec4dAttr(m_node, longName, shortName, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setQuatArray(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getQuatArray(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * VEC_SIZE; ++i)
{
EXPECT_EQ(orig[i], result[i]);
}
delete [] orig;
delete [] result;
}
#undef VEC_SIZE
// static MStatus getMatrix2x2Array(MObject node, MObject attr, float* values, size_t count);
// static MStatus getMatrix2x2Array(MObject node, MObject attr, double* values, size_t count);
// static MStatus setMatrix2x2Array(MObject node, MObject attr, const float* values, size_t count);
// static MStatus setMatrix2x2Array(MObject node, MObject attr, const double* values, size_t count);
TEST(translators_DgNodeTranslator, matrix2x2f_array)
{
setUp();
float* orig = new float[SIZE * 4];
float* result = new float[SIZE * 4];;
for(int i = 0 ; i < SIZE * 4; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longMatrix2x2fArrayName";
const char* const shortName = "lM22fan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const float defaultValue[2][2] = {
{randFloat(), randFloat()},
{randFloat(), randFloat()},
};
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addMatrix2x2Attr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setMatrix2x2Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getMatrix2x2Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * 4; ++i)
{
EXPECT_NEAR(orig[i], result[i], 1e-5f);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, matrix2x2d_array)
{
setUp();
double* orig = new double[SIZE * 4];
double* result = new double[SIZE * 4];;
for(int i = 0 ; i < SIZE * 4; ++i)
{
orig[i] = randDouble();
}
const char* const longName = "longMatrix2x2dArrayName";
const char* const shortName = "lM22dan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const float defaultValue[2][2] = {
{randFloat(), randFloat()},
{randFloat(), randFloat()},
};
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addMatrix2x2Attr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setMatrix2x2Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getMatrix2x2Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * 4; ++i)
{
EXPECT_NEAR(orig[i], result[i], 1e-5f);
}
delete [] orig;
delete [] result;
}
// static MStatus getMatrix3x3Array(MObject node, MObject attr, float* values, size_t count);
// static MStatus getMatrix3x3Array(MObject node, MObject attr, double* values, size_t count);
// static MStatus setMatrix3x3Array(MObject node, MObject attr, const float* values, size_t count);
// static MStatus setMatrix3x3Array(MObject node, MObject attr, const double* values, size_t count);
TEST(translators_DgNodeTranslator, matrix3x3f_array)
{
setUp();
float* orig = new float[SIZE * 9];
float* result = new float[SIZE * 9];;
for(int i = 0 ; i < SIZE * 9; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longMatrix3x3fArrayName";
const char* const shortName = "lM33fan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const float defaultValue[3][3] = {
{randFloat(), randFloat(), randFloat()},
{randFloat(), randFloat(), randFloat()},
{randFloat(), randFloat(), randFloat()}
};
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addMatrix3x3Attr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setMatrix3x3Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getMatrix3x3Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * 9; ++i)
{
EXPECT_NEAR(orig[i], result[i], 1e-5f);
}
delete [] orig;
delete [] result;
}
TEST(translators_DgNodeTranslator, matrix3x3d_array)
{
setUp();
double* orig = new double[SIZE * 9];
double* result = new double[SIZE * 9];;
for(int i = 0 ; i < SIZE * 9; ++i)
{
orig[i] = randDouble();
}
const char* const longName = "longMatrix3x3dArrayName";
const char* const shortName = "lM33dan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
const float defaultValue[3][3] = {
{randFloat(), randFloat(), randFloat()},
{randFloat(), randFloat(), randFloat()},
{randFloat(), randFloat(), randFloat()}
};
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addMatrix3x3Attr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setMatrix3x3Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getMatrix3x3Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * 9; ++i)
{
EXPECT_NEAR(orig[i], result[i], 1e-5f);
}
delete [] orig;
delete [] result;
}
// static MStatus getMatrix4x4Array(MObject node, MObject attr, float* values, size_t count);
// static MStatus getMatrix4x4Array(MObject node, MObject attr, double* values, size_t count);
// static MStatus setMatrix4x4Array(MObject node, MObject attr, const float* values, size_t count);
// static MStatus setMatrix4x4Array(MObject node, MObject attr, const double* values, size_t count);
TEST(translators_DgNodeTranslator, matrix4x4f_array)
{
setUp();
float* orig = new float[SIZE * 16];
float* result = new float[SIZE * 16];;
for(int i = 0 ; i < SIZE * 16; ++i)
{
orig[i] = randFloat();
}
const char* const longName = "longMatrix4x4fArrayName";
const char* const shortName = "lM44fan";
const uint32_t flags = kCached | kReadable | kWritable | kStorable | kArray | kUsesArrayDataBuilder;
MMatrix defaultValue;
EXPECT_EQ(MStatus(MS::kSuccess), NodeHelper::addMatrixAttr(m_node, longName, shortName, defaultValue, flags));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::setMatrix4x4Array(m_node, findAttribute(longName), orig, SIZE));
EXPECT_EQ(MStatus(MS::kSuccess), DgNodeTranslator::getMatrix4x4Array(m_node, findAttribute(longName), result, SIZE));
for(int i = 0 ; i < SIZE * 9; ++i)
{
EXPECT_NEAR(orig[i], result[i], 1e-5f);
}
delete [] orig;
delete [] result;