TEST_F(ColumnTest, shouldReturnValidRangesForNotEqual) {
constraints.push_back(TypedConstraint<double>::notEqual(0, 12));
checkForConstraints(Tools::vector<IndexRange>(2, /**/
IndexRange(0, 4),
IndexRange(7, 7)));
}
ReferenceLookupData::ReferenceLookupData(const PbiRawReferenceData& rawData)
{
const size_t numEntries = rawData.entries_.size();
references_.reserve(numEntries);
for (size_t i = 0; i < numEntries; ++i) {
const PbiReferenceEntry& entry = rawData.entries_.at(i);
references_[entry.tId_] = IndexRange(entry.beginRow_, entry.endRow_);
}
}
// Return a range of scopes for the given closure. The elements of the
// returned range have type `SILFunction *` and are non-null. Return an empty
// range for a SILFunction that is not a closure or is a dead closure.
ScopeRange getClosureScopes(SILFunction *ClosureF) {
IndexRange indexRange(nullptr, nullptr);
auto closureScopesPos = closureToScopesMap.find(ClosureF);
if (closureScopesPos != closureToScopesMap.end()) {
auto &indexedScopes = closureScopesPos->second;
indexRange = IndexRange(indexedScopes.begin(), indexedScopes.end());
}
return makeOptionalTransformRange(indexRange,
IndexLookupFunc(indexedScopes));
}
bool IndexRangeCache::findRange(GLenum type, unsigned int offset, GLsizei count,
RangeUI *outRange) const
{
IndexRangeMap::const_iterator i = mIndexRangeCache.find(IndexRange(type, offset, count));
if (i != mIndexRangeCache.end())
{
if (outRange) *outRange = i->second;
return true;
}
else
{
if (outRange) *outRange = RangeUI(0, 0);
return false;
}
}
IndexRange span(IndexRange lhs, IndexRange rhs) {
if (lhs.start() <= lhs.end()) {
if (rhs.start() <= rhs.end()) {
const SINT start = std::min(lhs.start(), rhs.start());
const SINT end = std::max(lhs.end(), rhs.end());
DEBUG_ASSERT(start <= end);
return IndexRange::between(start, end);
} else {
DEBUG_ASSERT(!"Cannot span index ranges with contrary orientations");
}
} else {
if (rhs.start() >= rhs.end()) {
const SINT start = std::max(lhs.start(), rhs.start());
const SINT end = std::min(lhs.end(), rhs.end());
DEBUG_ASSERT(start >= end);
return IndexRange::between(start, end);
} else {
DEBUG_ASSERT(!"Cannot span index ranges with contrary orientations");
}
}
return IndexRange();
}
void
IndexRangeList::
fromString( const std::string & stringEncoding )
{
// clear current data
this->clear();
// check if something to be parsed
if (!stringEncoding.empty()) {
// check if parsable
if( ! boost::regex_match(stringEncoding, IndexRangeList::regex, boost::match_perl) ) {
throw std::runtime_error("IndexRangeList::fromString("+stringEncoding+") uses no valid index range string encoding matching '"+regex.str()+"'");
}
// find split position
size_t startPos = 0, splitPos = std::string::npos;
while (startPos != splitPos) {
splitPos = stringEncoding.find(',',startPos);
// insert interval
this->insert( IndexRange(stringEncoding.substr(startPos,splitPos-(splitPos==std::string::npos?0:startPos))));
// update start of next interval encoding to parse
startPos = splitPos + (splitPos != std::string::npos ? 1 : 0);
}
}
}
IndexRange ComputeIndexRange(GLenum indexType,
const GLvoid *indices,
size_t count,
bool primitiveRestartEnabled)
{
switch (indexType)
{
case GL_UNSIGNED_BYTE:
return ComputeTypedIndexRange(static_cast<const GLubyte *>(indices), count,
primitiveRestartEnabled,
GetPrimitiveRestartIndex(indexType));
case GL_UNSIGNED_SHORT:
return ComputeTypedIndexRange(static_cast<const GLushort *>(indices), count,
primitiveRestartEnabled,
GetPrimitiveRestartIndex(indexType));
case GL_UNSIGNED_INT:
return ComputeTypedIndexRange(static_cast<const GLuint *>(indices), count,
primitiveRestartEnabled,
GetPrimitiveRestartIndex(indexType));
default:
UNREACHABLE();
return IndexRange();
}
}
void IndexRangeCache::addRange(GLenum type, unsigned int offset, GLsizei count, const RangeUI &range)
{
mIndexRangeCache[IndexRange(type, offset, count)] = range;
}
void checkForConstraints(int left, int right) {
checkForConstraints(Tools::vector<IndexRange>(1, /**/ IndexRange(left, right)));
}
#include "ExtraKnuckles.h"
const IndexSet pinkyIndices = IndexSet() /IndexRange(21,41);
const IndexSet ringIndices = IndexSet() /IndexRange(42,62);
const IndexSet middleIndices = IndexSet() /IndexRange(63,83);
const IndexSet indexIndices = IndexSet() /IndexRange(84,104);
const IndexSet baseIndices = IndexSet() /IndexRange(0,5);
const IndexSet knuckleIndices = IndexSet() /IndexRange(3,11);
const IndexSet tipIndices = IndexSet() /IndexRange(9,20);
const IndexSet lowerGapIndices = IndexSet() /IndexRange(0,5);
const IndexSet upperGapIndices = IndexSet() /IndexRange(9,14);
const IndexSet blendIndices = IndexSet() /IndexRange(0,5);
const IndexSet allFingerIndices = IndexSet()
/IndexRange(21,41)
/IndexRange(42,62)
/IndexRange(63,83)
/IndexRange(84,104);
string ExtraKnuckles::getName() const {
return "ExtraKnuckles";
}
void ExtraKnuckles::initialize(){
ExtraKnuckles::initializeGui();
this->gui->autoSizeToFitWidgets();
final.load("models/mesh_ExtraKnuckles_final.ply");
virtual IndexRange sink() const
{
return IndexRange(0,0);
}
#include "SwellingFingers.h"
const IndexSet pinkyIndices = IndexSet() /IndexRange(21,41);
const IndexSet ringIndices = IndexSet() /IndexRange(42,62);
const IndexSet middleIndices = IndexSet() /IndexRange(63,83);
const IndexSet indexIndices = IndexSet() /IndexRange(84,104);
const IndexSet thumbIndices = IndexSet() /IndexRange(0,20);
const IndexSet allFingerIndices = IndexSet()
/IndexRange(21,41)
/IndexRange(42,62)
/IndexRange(63,83)
/IndexRange(84,104)
/IndexRange(0,20);
const IndexSet knuckeIndices = IndexSet() /IndexRange(3,11);
string SwellingFingers::getName() const {
return "SwellingFingers";
}
void SwellingFingers::initialize(){
timer = 0.0f;
pulseSpeed = 7.0f;
pulseGapWidth = 0.7f;
swellAmt = 0.0f;
swellPower = 0.03f;
virtual IndexRange skipPosSource( const Index& firstpos)
{
return IndexRange(0,0);
}
IndexRange sink() const
{
return m_memberScanner.initialized()
? IndexRange( m_memberScanner.current()->start, m_memberScanner.current()->end)
: IndexRange(0,0);
}
IndexRange source() const
{
return m_structureScanner.initialized()
? IndexRange( m_structureScanner.current()->header_start, m_structureScanner.current()->header_end)
: IndexRange(0,0);
}
void IndexRangeCache::addRange(GLenum type, unsigned int offset, GLsizei count, const RangeUI &range,
unsigned int streamOffset)
{
mIndexRangeCache[IndexRange(type, offset, count)] = IndexBounds(range, streamOffset);
}
virtual IndexRange source() const
{
return IndexRange(0,0);
}
