/** Obtain coordinates for a line plot through a IMDWorkspace.
* Cross the workspace from start to end points, recording the signal along the
*line.
* Sets the x,y vectors to the histogram bin boundaries and counts
*
* @param start :: coordinates of the start point of the line
* @param end :: coordinates of the end point of the line
* @param normalize :: how to normalize the signal
* @returns :: a LinePlot in which x is set to the boundaries of the bins,
* relative to start of the line, y is set to the normalized signal for
* each bin with Length = length(x) - 1 and e is set to the normalized
* errors for each bin with Length = length(x) - 1.
*/
IMDWorkspace::LinePlot
IMDWorkspace::getLinePlot(const Mantid::Kernel::VMD &start,
const Mantid::Kernel::VMD &end,
Mantid::API::MDNormalization normalize) const {
// TODO: Don't use a fixed number of points later
size_t numPoints = 200;
VMD step = (end - start) / double(numPoints);
double stepLength = step.norm();
// This will be the curve as plotted
LinePlot line;
for (size_t i = 0; i < numPoints; i++) {
// Coordinate along the line
VMD coord = start + step * double(i);
// Record the position along the line
line.x.push_back(static_cast<coord_t>(stepLength * double(i)));
signal_t yVal = this->getSignalAtCoord(coord.getBareArray(), normalize);
line.y.push_back(yVal);
line.e.push_back(0.0);
}
// And the last point
line.x.push_back((end - start).norm());
return line;
}
//Allocate VMD and ensure it is unique according to 'version' and 'mdid'.
VMD * UseDefMgr::allocVMD(UINT mdid, UINT version)
{
ASSERT0(mdid > 0);
Vector<VMD*> * vec = m_map_md2vmd.get(mdid);
if (vec == NULL) {
vec = new Vector<VMD*>();
m_map_md2vmd.set(mdid, vec);
}
VMD * v = vec->get(version);
if (v != NULL) {
return v;
}
ASSERT(m_vmd_pool, ("not init"));
v = (VMD*)smpoolMallocConstSize(sizeof(VMD), m_vmd_pool);
ASSERT0(v);
::memset(v, 0, sizeof(VMD));
v->init(m_ru->getMiscBitSetMgr()->getSegMgr());
VOPND_code(v) = VOPND_MD;
VOPND_id(v) = m_vopnd_count++;
VMD_mdid(v) = mdid;
VMD_version(v) = version;
VMD_def(v) = NULL;
vec->set(version, v);
m_vopnd_vec.set(v->id(), v);
return v;
}
//Remove given USE from occurence set.
void MDSSAInfo::removeUse(IR const* exp, IN UseDefMgr * usedefmgr)
{
ASSERT0(exp && exp->is_exp() && usedefmgr);
SEGIter * iter = NULL;
for (INT i = getVOpndSet()->get_first(&iter);
i >= 0; i = getVOpndSet()->get_next(i, &iter)) {
VMD * vopnd = (VMD*)usedefmgr->getVOpnd(i);
ASSERT0(vopnd && vopnd->is_md());
vopnd->getOccSet()->diff(exp->id());
}
}
//
//START MDSSAInfo
//
//Return true if all definition of vopnd can reach 'exp'.
bool MDSSAInfo::isUseReachable(IN UseDefMgr * usedefmgr, IR const* exp)
{
ASSERT0(usedefmgr && exp && exp->is_exp());
SEGIter * iter = NULL;
for (INT i = getVOpndSet()->get_first(&iter);
i >= 0; i = getVOpndSet()->get_next(i, &iter)) {
VMD * vopnd = (VMD*)usedefmgr->getVOpnd(i);
ASSERT0(vopnd && vopnd->is_md());
if (!vopnd->getOccSet()->is_contain(exp->id())) {
return false;
}
}
return true;
}
//Facility function to make it easier to get the VOpnd of operand of PHI.
VMD * MDPhi::getOpndVMD(IR const* opnd, UseDefMgr const* mgr) const
{
ASSERT(xcom::in_list(getOpndList(), opnd), ("not operand of phi"));
if (!opnd->is_id() && opnd->isMemoryOpnd()) { return NULL; }
ASSERT0(mgr && mgr->getMDSSAInfo(opnd) &&
mgr->getMDSSAInfo(opnd)->getVOpndSet()->get_elem_count() == 1);
SEGIter * iter;
VMD * vopnd = (VMD*)mgr->getVOpnd(mgr->getMDSSAInfo(opnd)->
getVOpndSet()->get_first(&iter));
ASSERT0(vopnd->is_md());
return vopnd;
}
/** Constructor with N-1 vectors on the plane's surface.
*
* @param vectors :: vector of N-1 vectors with N dimensions.
* @param origin :: any point on the plane
* @param insidePoint :: coordinate of a point that is known to be inside the
*plane described
* @throws if the vectors are collinear
*/
MDPlane::MDPlane(const std::vector<Mantid::Kernel::VMD> &vectors,
const Mantid::Kernel::VMD &origin,
const Mantid::Kernel::VMD &insidePoint) {
// Get the normal vector by the determinant method
VMD normal = VMD::getNormalVector(vectors);
// The dimensionality of the plane
m_nd = normal.getNumDims();
// Whew. We have a normal, and a point on the plane. We can construct
construct(normal, origin);
// Did we get the wrong sign of the normal?
if (!this->isPointBounded(insidePoint)) {
// Flip the normal over
delete[] this->m_normal;
for (size_t d = 0; d < normal.getNumDims(); d++)
normal[d] = -1.0f * normal[d];
// And re-construct
construct(normal, origin);
}
}
//Collect all USE, where USE is IR expression.
void MDSSAInfo::collectUse(
OUT DefSBitSetCore & set,
IN UseDefMgr * usedefmgr,
IN DefMiscBitSetMgr * bsmgr)
{
ASSERT0(usedefmgr && bsmgr);
SEGIter * iter = NULL;
Region * rg = usedefmgr->getRegion();
for (INT i = getVOpndSet()->get_first(&iter);
i >= 0; i = getVOpndSet()->get_next(i, &iter)) {
VMD * vopnd = (VMD*)usedefmgr->getVOpnd(i);
ASSERT0(vopnd && vopnd->is_md());
SEGIter * vit = NULL;
for (INT i2 = vopnd->getOccSet()->get_first(&vit);
i2 >= 0; i2 = vopnd->getOccSet()->get_next(i2, &vit)) {
IR * use = rg->getIR(i2);
ASSERT0(use && (use->isMemoryRef() || use->is_id()));
set.bunion(use->id(), *bsmgr);
}
}
}
/** Build a coordinate transformation based on an origin and orthogonal basis vectors.
* This can reduce the number of dimensions. For example:
*
* - The input position is X=(x,y,z)
* - The origin is X0=(x0,y0,z0)
* - The basis vectors are U and V (reducing from 3 to 2D)
* - The output position u = (X-X0).U = X.U - X0.U = x*Ux + y*Uy + z*Uz + (X0.U)
* - The output position v = (X-X0).V = X.V - X0.V = x*Vx + y*Vy + z*Vz + (X0.V)
*
* And this allows us to create the affine matrix:
*
* | Ux Uy Uz X0.U | | x | | u |
* | Vx Vy Vz X0.V | | y | = | v |
* | 0 0 0 1 | | z | | 1 |
* | 1 |
*
* @param origin :: origin (in the inDimension), which corresponds to (0,0,...) in outD
* @param axes :: a list of basis vectors. There must be outD vectors (one for each output dimension)
* and each vector must be of length inD (all coordinates in the input dimension).
* The vectors must be properly orthogonal: not coplanar or collinear. This is not checked!
* @param scaling :: a vector of size outD of the scaling to perform in each of the
* OUTPUT dimensions.
* @throw if inconsistent vector sizes are received, or zero-length
*/
void CoordTransformAffine::buildOrthogonal(const Mantid::Kernel::VMD & origin, const std::vector< Mantid::Kernel::VMD> & axes,
const Mantid::Kernel::VMD & scaling)
{
if (origin.size() != inD)
throw std::runtime_error("CoordTransformAffine::buildOrthogonal(): the origin must be in the dimensions of the input workspace (length inD).");
if (axes.size() != outD)
throw std::runtime_error("CoordTransformAffine::buildOrthogonal(): you must give as many basis vectors as there are dimensions in the output workspace.");
if (scaling.size() != outD)
throw std::runtime_error("CoordTransformAffine::buildOrthogonal(): the size of the scaling vector must be the same as the number of dimensions in the output workspace.");
// Start with identity
affineMatrix.identityMatrix();
for (size_t i=0; i<axes.size(); i++)
{
if (axes[i].length() == 0.0)
throw std::runtime_error("CoordTransformAffine::buildOrthogonal(): one of the basis vector was of zero length.");
if (axes[i].size() != inD)
throw std::runtime_error("CoordTransformAffine::buildOrthogonal(): one of the basis vectors had the wrong number of dimensions (must be inD).");
// Normalize each axis to unity
VMD basis = axes[i];
basis.normalize();
// The row of the affine matrix = the unit vector
for (size_t j=0; j<basis.size(); j++)
affineMatrix[i][j] = basis[j] * scaling[i];
// Now account for the translation
coord_t transl = 0;
for (size_t j=0; j<basis.size(); j++)
transl += origin[j] * basis[j]; // dot product of origin * basis aka ( X0 . U )
// The last column of the matrix = the translation movement
affineMatrix[i][inD] = -transl * scaling[i];
}
// Copy into the raw matrix (for speed)
copyRawMatrix();
}
bool PropertyCacheCreator::createMetaObject(int objectIndex, const QmlIR::Object *obj, QQmlPropertyCache *baseTypeCache)
{
QQmlPropertyCache *cache = baseTypeCache->copyAndReserve(QQmlEnginePrivate::get(enginePrivate),
obj->propertyCount(),
obj->functionCount() + obj->propertyCount() + obj->signalCount(),
obj->signalCount() + obj->propertyCount());
propertyCaches[objectIndex] = cache;
struct TypeData {
QV4::CompiledData::Property::Type dtype;
int metaType;
} builtinTypes[] = {
{ QV4::CompiledData::Property::Var, qMetaTypeId<QJSValue>() },
{ QV4::CompiledData::Property::Variant, QMetaType::QVariant },
{ QV4::CompiledData::Property::Int, QMetaType::Int },
{ QV4::CompiledData::Property::Bool, QMetaType::Bool },
{ QV4::CompiledData::Property::Real, QMetaType::Double },
{ QV4::CompiledData::Property::String, QMetaType::QString },
{ QV4::CompiledData::Property::Url, QMetaType::QUrl },
{ QV4::CompiledData::Property::Color, QMetaType::QColor },
{ QV4::CompiledData::Property::Font, QMetaType::QFont },
{ QV4::CompiledData::Property::Time, QMetaType::QTime },
{ QV4::CompiledData::Property::Date, QMetaType::QDate },
{ QV4::CompiledData::Property::DateTime, QMetaType::QDateTime },
{ QV4::CompiledData::Property::Rect, QMetaType::QRectF },
{ QV4::CompiledData::Property::Point, QMetaType::QPointF },
{ QV4::CompiledData::Property::Size, QMetaType::QSizeF },
{ QV4::CompiledData::Property::Vector2D, QMetaType::QVector2D },
{ QV4::CompiledData::Property::Vector3D, QMetaType::QVector3D },
{ QV4::CompiledData::Property::Vector4D, QMetaType::QVector4D },
{ QV4::CompiledData::Property::Matrix4x4, QMetaType::QMatrix4x4 },
{ QV4::CompiledData::Property::Quaternion, QMetaType::QQuaternion }
};
static const uint builtinTypeCount = sizeof(builtinTypes) / sizeof(TypeData);
QByteArray newClassName;
if (objectIndex == compiler->rootObjectIndex()) {
QString path = compiler->data()->url.path();
int lastSlash = path.lastIndexOf(QLatin1Char('/'));
if (lastSlash > -1) {
QString nameBase = path.mid(lastSlash + 1, path.length()-lastSlash-5);
if (!nameBase.isEmpty() && nameBase.at(0).isUpper())
newClassName = nameBase.toUtf8() + "_QMLTYPE_" +
QByteArray::number(classIndexCounter.fetchAndAddRelaxed(1));
}
}
if (newClassName.isEmpty()) {
newClassName = QQmlMetaObject(baseTypeCache).className();
newClassName.append("_QML_");
newClassName.append(QByteArray::number(classIndexCounter.fetchAndAddRelaxed(1)));
}
cache->_dynamicClassName = newClassName;
int aliasCount = 0;
int varPropCount = 0;
QmlIR::PropertyResolver resolver(baseTypeCache);
for (const QmlIR::Property *p = obj->firstProperty(); p; p = p->next) {
if (p->type == QV4::CompiledData::Property::Alias)
aliasCount++;
else if (p->type == QV4::CompiledData::Property::Var)
varPropCount++;
// No point doing this for both the alias and non alias cases
bool notInRevision = false;
QQmlPropertyData *d = resolver.property(stringAt(p->nameIndex), ¬InRevision);
if (d && d->isFinal()) {
compiler->recordError(p->location, tr("Cannot override FINAL property"));
return false;
}
}
typedef QQmlVMEMetaData VMD;
QByteArray &dynamicData = vmeMetaObjects[objectIndex] = QByteArray(sizeof(QQmlVMEMetaData)
+ obj->propertyCount() * sizeof(VMD::PropertyData)
+ obj->functionCount() * sizeof(VMD::MethodData)
+ aliasCount * sizeof(VMD::AliasData), 0);
int effectivePropertyIndex = cache->propertyIndexCacheStart;
int effectiveMethodIndex = cache->methodIndexCacheStart;
// For property change signal override detection.
// We prepopulate a set of signal names which already exist in the object,
// and throw an error if there is a signal/method defined as an override.
QSet<QString> seenSignals;
seenSignals << QStringLiteral("destroyed") << QStringLiteral("parentChanged") << QStringLiteral("objectNameChanged");
QQmlPropertyCache *parentCache = cache;
while ((parentCache = parentCache->parent())) {
if (int pSigCount = parentCache->signalCount()) {
int pSigOffset = parentCache->signalOffset();
for (int i = pSigOffset; i < pSigCount; ++i) {
QQmlPropertyData *currPSig = parentCache->signal(i);
// XXX TODO: find a better way to get signal name from the property data :-/
for (QQmlPropertyCache::StringCache::ConstIterator iter = parentCache->stringCache.begin();
iter != parentCache->stringCache.end(); ++iter) {
if (currPSig == (*iter).second) {
seenSignals.insert(iter.key());
break;
}
}
}
}
}
// First set up notify signals for properties - first normal, then var, then alias
enum { NSS_Normal = 0, NSS_Var = 1, NSS_Alias = 2 };
for (int ii = NSS_Normal; ii <= NSS_Alias; ++ii) { // 0 == normal, 1 == var, 2 == alias
if (ii == NSS_Var && varPropCount == 0) continue;
else if (ii == NSS_Alias && aliasCount == 0) continue;
for (const QmlIR::Property *p = obj->firstProperty(); p; p = p->next) {
if ((ii == NSS_Normal && (p->type == QV4::CompiledData::Property::Alias ||
p->type == QV4::CompiledData::Property::Var)) ||
((ii == NSS_Var) && (p->type != QV4::CompiledData::Property::Var)) ||
((ii == NSS_Alias) && (p->type != QV4::CompiledData::Property::Alias)))
continue;
quint32 flags = QQmlPropertyData::IsSignal | QQmlPropertyData::IsFunction |
QQmlPropertyData::IsVMESignal;
QString changedSigName = stringAt(p->nameIndex) + QLatin1String("Changed");
seenSignals.insert(changedSigName);
cache->appendSignal(changedSigName, flags, effectiveMethodIndex++);
}
}
// Dynamic signals
for (const QmlIR::Signal *s = obj->firstSignal(); s; s = s->next) {
const int paramCount = s->parameters->count;
QList<QByteArray> names;
QVarLengthArray<int, 10> paramTypes(paramCount?(paramCount + 1):0);
if (paramCount) {
paramTypes[0] = paramCount;
QmlIR::SignalParameter *param = s->parameters->first;
for (int i = 0; i < paramCount; ++i, param = param->next) {
names.append(stringAt(param->nameIndex).toUtf8());
if (param->type < builtinTypeCount) {
// built-in type
paramTypes[i + 1] = builtinTypes[param->type].metaType;
} else {
// lazily resolved type
Q_ASSERT(param->type == QV4::CompiledData::Property::Custom);
const QString customTypeName = stringAt(param->customTypeNameIndex);
QQmlType *qmltype = 0;
if (!imports->resolveType(customTypeName, &qmltype, 0, 0, 0)) {
compiler->recordError(s->location, tr("Invalid signal parameter type: %1").arg(customTypeName));
return false;
}
if (qmltype->isComposite()) {
// Composite type usage
qDebug() << "Composite type usage2" << qmltype->sourceUrl() << "Line" << param->location.line << "Col" << param->location.column;
QmlCompilation::TypeReference *typeRef = compiler->findTypeRef(param->customTypeNameIndex);
Q_ASSERT(typeRef->component->compiledData != NULL);
paramTypes[i + 1] = typeRef->component->compiledData->metaTypeId;
} else {
paramTypes[i + 1] = qmltype->typeId();
}
}
}
}
((QQmlVMEMetaData *)dynamicData.data())->signalCount++;
quint32 flags = QQmlPropertyData::IsSignal | QQmlPropertyData::IsFunction |
QQmlPropertyData::IsVMESignal;
if (paramCount)
flags |= QQmlPropertyData::HasArguments;
QString signalName = stringAt(s->nameIndex);
if (seenSignals.contains(signalName)) {
compiler->recordError(s->location, tr("Duplicate signal name: invalid override of property change signal or superclass signal"));
return false;
}
seenSignals.insert(signalName);
cache->appendSignal(signalName, flags, effectiveMethodIndex++,
paramCount?paramTypes.constData():0, names);
}
// Dynamic slots
for (const QmlIR::Function *s = obj->firstFunction(); s; s = s->next) {
QQmlJS::AST::FunctionDeclaration *astFunction = s->functionDeclaration;
quint32 flags = QQmlPropertyData::IsFunction | QQmlPropertyData::IsVMEFunction;
if (astFunction->formals)
flags |= QQmlPropertyData::HasArguments;
QString slotName = astFunction->name.toString();
if (seenSignals.contains(slotName)) {
compiler->recordError(s->location, tr("Duplicate method name: invalid override of property change signal or superclass signal"));
return false;
}
// Note: we don't append slotName to the seenSignals list, since we don't
// protect against overriding change signals or methods with properties.
QList<QByteArray> parameterNames;
QQmlJS::AST::FormalParameterList *param = astFunction->formals;
while (param) {
parameterNames << param->name.toUtf8();
param = param->next;
}
cache->appendMethod(slotName, flags, effectiveMethodIndex++, parameterNames);
}
// Dynamic properties (except var and aliases)
int effectiveSignalIndex = cache->signalHandlerIndexCacheStart;
int propertyIdx = 0;
for (const QmlIR::Property *p = obj->firstProperty(); p; p = p->next, ++propertyIdx) {
if (p->type == QV4::CompiledData::Property::Alias ||
p->type == QV4::CompiledData::Property::Var)
continue;
int propertyType = 0;
int vmePropertyType = 0;
quint32 propertyFlags = 0;
if (p->type < builtinTypeCount) {
propertyType = builtinTypes[p->type].metaType;
vmePropertyType = propertyType;
if (p->type == QV4::CompiledData::Property::Variant)
propertyFlags |= QQmlPropertyData::IsQVariant;
} else {
Q_ASSERT(p->type == QV4::CompiledData::Property::CustomList ||
p->type == QV4::CompiledData::Property::Custom);
QQmlType *qmltype = 0;
if (!imports->resolveType(stringAt(p->customTypeNameIndex), &qmltype, 0, 0, 0)) {
compiler->recordError(p->location, tr("Invalid property type"));
return false;
}
Q_ASSERT(qmltype);
if (qmltype->isComposite()) {
// Composite type usage
QmlCompilation::TypeReference *typeRef = compiler->findTypeRef(p->customTypeNameIndex);
Q_ASSERT(typeRef->component->compiledData != NULL);
QQmlCompiledData *data = typeRef->component->compiledData;
if (p->type == QV4::CompiledData::Property::Custom) {
propertyType = data->metaTypeId;
vmePropertyType = QMetaType::QObjectStar;
} else {
propertyType = data->listMetaTypeId;
vmePropertyType = qMetaTypeId<QQmlListProperty<QObject> >();
}
} else {
if (p->type == QV4::CompiledData::Property::Custom) {
propertyType = qmltype->typeId();
vmePropertyType = QMetaType::QObjectStar;
} else {
propertyType = qmltype->qListTypeId();
vmePropertyType = qMetaTypeId<QQmlListProperty<QObject> >();
}
}
if (p->type == QV4::CompiledData::Property::Custom)
propertyFlags |= QQmlPropertyData::IsQObjectDerived;
else
propertyFlags |= QQmlPropertyData::IsQList;
}
if ((!p->flags & QV4::CompiledData::Property::IsReadOnly) && p->type != QV4::CompiledData::Property::CustomList)
propertyFlags |= QQmlPropertyData::IsWritable;
QString propertyName = stringAt(p->nameIndex);
if (propertyIdx == obj->indexOfDefaultProperty) cache->_defaultPropertyName = propertyName;
cache->appendProperty(propertyName, propertyFlags, effectivePropertyIndex++,
propertyType, effectiveSignalIndex);
effectiveSignalIndex++;
VMD *vmd = (QQmlVMEMetaData *)dynamicData.data();
(vmd->propertyData() + vmd->propertyCount)->propertyType = vmePropertyType;
vmd->propertyCount++;
}
// Now do var properties
propertyIdx = 0;
for (const QmlIR::Property *p = obj->firstProperty(); p; p = p->next, ++propertyIdx) {
if (p->type != QV4::CompiledData::Property::Var)
continue;
quint32 propertyFlags = QQmlPropertyData::IsVarProperty;
if (!p->flags & QV4::CompiledData::Property::IsReadOnly)
propertyFlags |= QQmlPropertyData::IsWritable;
VMD *vmd = (QQmlVMEMetaData *)dynamicData.data();
(vmd->propertyData() + vmd->propertyCount)->propertyType = QMetaType::QVariant;
vmd->propertyCount++;
((QQmlVMEMetaData *)dynamicData.data())->varPropertyCount++;
QString propertyName = stringAt(p->nameIndex);
if (propertyIdx == obj->indexOfDefaultProperty) cache->_defaultPropertyName = propertyName;
cache->appendProperty(propertyName, propertyFlags, effectivePropertyIndex++,
QMetaType::QVariant, effectiveSignalIndex);
effectiveSignalIndex++;
}
// Alias property count. Actual data is setup in buildDynamicMetaAliases
((QQmlVMEMetaData *)dynamicData.data())->aliasCount = aliasCount;
// Dynamic slot data - comes after the property data
for (const QmlIR::Function *s = obj->firstFunction(); s; s = s->next) {
QQmlJS::AST::FunctionDeclaration *astFunction = s->functionDeclaration;
int formalsCount = 0;
QQmlJS::AST::FormalParameterList *param = astFunction->formals;
while (param) {
formalsCount++;
param = param->next;
}
VMD::MethodData methodData = { /* runtimeFunctionIndex*/ 0, // ###
formalsCount,
/* s->location.start.line */0 }; // ###
VMD *vmd = (QQmlVMEMetaData *)dynamicData.data();
VMD::MethodData &md = *(vmd->methodData() + vmd->methodCount);
vmd->methodCount++;
md = methodData;
}
return true;
}
/** Automatically choose which coordinate to use as the X axis,
* if we selected it to be automatic
*/
void MantidQwtIMDWorkspaceData::choosePlotAxis()
{
if (m_plotAxis == MantidQwtIMDWorkspaceData::PlotAuto)
{
if (m_transform)
{
// Find the start and end points in the original workspace
VMD originalStart = m_transform->applyVMD(m_start);
VMD originalEnd = m_transform->applyVMD(m_end);
VMD diff = originalEnd - originalStart;
// Now we find the dimension with the biggest change
double largest = -1e30;
// Default to 0
m_currentPlotAxis = 0;
IMDWorkspace_const_sptr originalWS = m_originalWorkspace.lock();
bool regularBinnedMDWorkspace = false;
if(auto mdew = boost::dynamic_pointer_cast<const Mantid::API::IMDEventWorkspace>(m_workspace))
{
Mantid::API::BoxController_const_sptr controller = mdew->getBoxController();
bool atLeastOneDimNotIntegrated = false;
for(size_t i = 0; i < mdew->getNumDims(); ++i)
{
if( mdew->getDimension(i)->getNBins() == controller->getSplitInto(i))
{
if(!mdew->getDimension(i)->getIsIntegrated())
{
atLeastOneDimNotIntegrated = true;
}
}
}
regularBinnedMDWorkspace = atLeastOneDimNotIntegrated;
}
if(NULL != boost::dynamic_pointer_cast<const Mantid::API::IMDHistoWorkspace>(originalWS) || regularBinnedMDWorkspace)
{
for (size_t d=0; d<diff.getNumDims(); d++)
{
if (fabs(diff[d]) > largest || ( originalWS && originalWS->getDimension(m_currentPlotAxis)->getIsIntegrated() ) )
{
//Skip over any integrated dimensions
if( originalWS && !originalWS->getDimension(d)->getIsIntegrated() )
{
largest = fabs(diff[d]);
m_currentPlotAxis = int(d);
}
}
}
}
else
{
for (size_t d=0; d<diff.getNumDims(); d++)
{
if (fabs(diff[d]) > largest)
{
largest = fabs(diff[d]);
m_currentPlotAxis = int(d);
}
}
}
}
else
// Drop to distance if the transform does not exist
m_currentPlotAxis = MantidQwtIMDWorkspaceData::PlotDistance;
}
else
{
// Pass-through the value.
m_currentPlotAxis = m_plotAxis;
}
}
/** Obtain coordinates for a line plot through a MDWorkspace.
* Cross the workspace from start to end points, recording the signal along the
*lin at either bin boundaries, or halfway between bin boundaries (which is bin
*centres if the line is dimension aligned). If recording halfway values then
*omit points in masked bins.
*
* @param start :: coordinates of the start point of the line
* @param end :: coordinates of the end point of the line
* @param normalize :: how to normalize the signal
* @returns :: LinePlot with x as the boundaries of the bins, relative
* to start of the line, y set to the normalized signal for each bin with
* Length = length(x) - 1 and e as the error vector for each bin.
* @param bin_centres :: if true then record points halfway between bin
*boundaries, otherwise record on bin boundaries
*/
IMDWorkspace::LinePlot MDHistoWorkspace::getLinePoints(
const Mantid::Kernel::VMD &start, const Mantid::Kernel::VMD &end,
Mantid::API::MDNormalization normalize, const bool bin_centres) const {
LinePlot line;
size_t nd = this->getNumDims();
if (start.getNumDims() != nd)
throw std::runtime_error("Start point must have the same number of "
"dimensions as the workspace.");
if (end.getNumDims() != nd)
throw std::runtime_error(
"End point must have the same number of dimensions as the workspace.");
// Unit-vector of the direction
VMD dir = end - start;
const auto length = dir.normalize();
// Vector with +1 where direction is positive, -1 where negative
#define sgn(x) ((x < 0) ? -1.0f : ((x > 0.) ? 1.0f : 0.0f))
VMD dirSign(nd);
for (size_t d = 0; d < nd; d++) {
dirSign[d] = sgn(dir[d]);
}
const size_t BADINDEX = size_t(-1);
// Dimensions of the workspace
boost::scoped_array<size_t> index(new size_t[nd]);
boost::scoped_array<size_t> numBins(new size_t[nd]);
for (size_t d = 0; d < nd; d++) {
IMDDimension_const_sptr dim = this->getDimension(d);
index[d] = BADINDEX;
numBins[d] = dim->getNBins();
}
const std::set<coord_t> boundaries =
getBinBoundariesOnLine(start, end, nd, dir, length);
if (boundaries.empty()) {
this->makeSinglePointWithNaN(line.x, line.y, line.e);
// Require x.size() = y.size()+1 if recording bin boundaries
if (!bin_centres)
line.x.push_back(length);
return line;
} else {
// Get the first point
std::set<coord_t>::iterator it;
it = boundaries.cbegin();
coord_t lastLinePos = *it;
VMD lastPos = start + (dir * lastLinePos);
if (!bin_centres) {
line.x.push_back(lastLinePos);
}
++it;
coord_t linePos = 0;
for (; it != boundaries.cend(); ++it) {
// This is our current position along the line
linePos = *it;
// This is the full position at this boundary
VMD pos = start + (dir * linePos);
// Position in the middle of the bin
VMD middle = (pos + lastPos) * 0.5;
// Find the signal in this bin
const auto linearIndex =
this->getLinearIndexAtCoord(middle.getBareArray());
if (bin_centres && !this->getIsMaskedAt(linearIndex)) {
coord_t bin_centrePos =
static_cast<coord_t>((linePos + lastLinePos) * 0.5);
line.x.push_back(bin_centrePos);
} else if (!bin_centres)
line.x.push_back(linePos);
if (linearIndex < m_length) {
auto normalizer = getNormalizationFactor(normalize, linearIndex);
// And add the normalized signal/error to the list too
auto signal = this->getSignalAt(linearIndex) * normalizer;
if (boost::math::isinf(signal)) {
// The plotting library (qwt) doesn't like infs.
signal = std::numeric_limits<signal_t>::quiet_NaN();
}
if (!bin_centres || !this->getIsMaskedAt(linearIndex)) {
line.y.push_back(signal);
line.e.push_back(this->getErrorAt(linearIndex) * normalizer);
}
// Save the position for next bin
lastPos = pos;
} else {
// Invalid index. This shouldn't happen
line.y.push_back(std::numeric_limits<signal_t>::quiet_NaN());
line.e.push_back(std::numeric_limits<signal_t>::quiet_NaN());
}
lastLinePos = linePos;
} // for each unique boundary
// If all bins were masked
if (line.x.size() == 0) {
this->makeSinglePointWithNaN(line.x, line.y, line.e);
}
}
return line;
}
bool QmcTypeUnitComponentAndAliasResolver::addAliases()
{
// add aliases
//QmcUnitAlias al = {0, 0, 0, 8, 0, 0, 24};
//qmcTypeUnit->unit->aliases.append(al);
// see QQmlComponentAndAliasResolver::resolve
int effectiveAliasIndex = -1;
int effectivePropertyIndex = -1;
int effectiveSignalIndex = -1;
int currentObjectIndex = -1;
QQmlPropertyCache *propertyCache = NULL;
foreach (const QmcUnitAlias &alias, qmcTypeUnit->unit->aliases) {
if ((int)alias.objectIndex != currentObjectIndex) {
currentObjectIndex = alias.objectIndex;
effectiveAliasIndex = 0;
propertyCache = qmcTypeUnit->propertyCaches.at(alias.objectIndex);
effectivePropertyIndex = propertyCache->propertyIndexCacheStart + propertyCache->propertyIndexCache.count();
effectiveSignalIndex = propertyCache->signalHandlerIndexCacheStart + propertyCache->propertyIndexCache.count();
}
Q_ASSERT(propertyCache);
QQmlVMEMetaData::AliasData aliasData;
aliasData.contextIdx = alias.contextIndex;
aliasData.propertyIdx = alias.targetPropertyIndex;
aliasData.propType = alias.propertyType;
aliasData.flags = alias.flags;
aliasData.notifySignal = alias.notifySignal;
typedef QQmlVMEMetaData VMD;
QByteArray &dynamicData = qmcTypeUnit->vmeMetaObjects[alias.objectIndex];
Q_ASSERT(!dynamicData.isEmpty());
VMD *vmd = (QQmlVMEMetaData *)dynamicData.data();
*(vmd->aliasData() + effectiveAliasIndex++) = aliasData;
Q_ASSERT(dynamicData.isDetached());
// TBD: propertyCache
const QV4::CompiledData::Object *obj = qmcTypeUnit->compiledData->qmlUnit->objectAt(alias.objectIndex);
Q_ASSERT(obj);
Q_ASSERT(alias.propertyIndex < obj->nProperties);
const QV4::CompiledData::Property *p = &obj->propertyTable()[alias.propertyIndex];
Q_ASSERT(p);
QString propertyName = qmcTypeUnit->stringAt(p->nameIndex);
const QString aliasPropertyValue = qmcTypeUnit->stringAt(p->aliasPropertyValueIndex);
//const int idIndex = p->aliasIdValueIndex;
const int targetObjectIndex = alias.targetObjectIndex;
#if 0
const int idIndex = p->aliasIdValueIndex;
const int targetObjectIndex = _idToObjectIndex.value(idIndex, -1);
if (targetObjectIndex == -1) {
recordError(p->aliasLocation, tr("Invalid alias reference. Unable to find id \"%1\"").arg(stringAt(idIndex)));
return false;
}
#endif
QStringRef property;
QStringRef subProperty;
const int propertySeparator = aliasPropertyValue.indexOf(QLatin1Char('.'));
if (propertySeparator != -1) {
property = aliasPropertyValue.leftRef(propertySeparator);
subProperty = aliasPropertyValue.midRef(propertySeparator + 1);
} else
property = QStringRef(&aliasPropertyValue, 0, aliasPropertyValue.length());
quint32 propertyFlags = QQmlPropertyData::IsAlias;
int type = 0;
bool writable = false;
bool resettable = false;
if (property.isEmpty()) {
const QV4::CompiledData::Object *targetObject = qmcTypeUnit->compiledData->qmlUnit->objectAt(targetObjectIndex);
QQmlCompiledData::TypeReference *typeRef = qmcTypeUnit->compiledData->resolvedTypes.value(targetObject->inheritedTypeNameIndex);
Q_ASSERT(typeRef);
if (typeRef->type)
type = typeRef->type->typeId();
else
type = typeRef->component->metaTypeId;
//flags |= QML_ALIAS_FLAG_PTR;
propertyFlags |= QQmlPropertyData::IsQObjectDerived;
} else {
QQmlPropertyCache *targetCache = qmcTypeUnit->propertyCaches.at(targetObjectIndex);
Q_ASSERT(targetCache);
QmlIR::PropertyResolver resolver(targetCache);
QQmlPropertyData *targetProperty = resolver.property(property.toString());
if (!targetProperty || targetProperty->coreIndex > 0x0000FFFF) {
return false;
}
//propIdx = targetProperty->coreIndex;
type = targetProperty->propType;
writable = targetProperty->isWritable();
resettable = targetProperty->isResettable();
//notifySignal = targetProperty->notifyIndex;
if (!subProperty.isEmpty()) {
QQmlValueType *valueType = QQmlValueTypeFactory::valueType(type);
if (!valueType) {
return false;
}
//propType = type;
int valueTypeIndex =
valueType->metaObject()->indexOfProperty(subProperty.toString().toUtf8().constData());
if (valueTypeIndex == -1) {
return false;
}
Q_ASSERT(valueTypeIndex <= 0x0000FFFF);
//propIdx |= (valueTypeIndex << 16);
if (valueType->metaObject()->property(valueTypeIndex).isEnumType())
type = QVariant::Int;
else
type = valueType->metaObject()->property(valueTypeIndex).userType();
} else {
if (targetProperty->isEnum()) {
type = QVariant::Int;
} else {
// Copy type flags
propertyFlags |= targetProperty->getFlags() & QQmlPropertyData::PropTypeFlagMask;
if (targetProperty->isVarProperty())
propertyFlags |= QQmlPropertyData::IsQVariant;
#if 0
if (targetProperty->isQObject())
flags |= QML_ALIAS_FLAG_PTR;
#endif
}
}
}
if (!(p->flags & QV4::CompiledData::Property::IsReadOnly) && writable)
propertyFlags |= QQmlPropertyData::IsWritable;
else
propertyFlags &= ~QQmlPropertyData::IsWritable;
if (resettable)
propertyFlags |= QQmlPropertyData::IsResettable;
else
propertyFlags &= ~QQmlPropertyData::IsResettable;
if ((int)alias.propertyIndex == obj->indexOfDefaultProperty) propertyCache->_defaultPropertyName = propertyName;
propertyCache->appendProperty(propertyName, propertyFlags, effectivePropertyIndex++,
type, effectiveSignalIndex++);
}
return true;
}
void MDPhi::dump(Region * rg, UseDefMgr * mgr)
{
ASSERT0(rg);
ASSERT0(is_phi());
if (g_tfile == NULL) { return; }
List<IRBB*> preds;
IR_CFG * cfg = rg->getCFG();
ASSERT0(cfg);
cfg->get_preds(preds, getBB());
IRBB * pred = preds.get_head();
ASSERT0(getResult());
fprintf(g_tfile, "Phi: MD%dV%d <- ",
getResult()->mdid(), getResult()->version());
for (IR const* opnd = getOpndList(); opnd != NULL; opnd = opnd->get_next()) {
if (opnd != getOpndList()) {
fprintf(g_tfile, ", ");
}
switch (opnd->get_code()) {
case IR_CONST:
fprintf(g_tfile, "Const");
break;
case IR_LDA:
fprintf(g_tfile, "Lda");
break;
case IR_ID:
{
VMD * vopnd = getOpndVMD(opnd, mgr);
fprintf(g_tfile, "MD%dV%d(id:%d)",
vopnd->mdid(), vopnd->version(), opnd->id());
}
break;
default: UNREACH();
}
ASSERT0(pred);
fprintf(g_tfile, "(BB%d)", pred->id());
pred = preds.get_next();
}
VMD * res = getResult();
ASSERT0(res);
fprintf(g_tfile, "|UsedBy:");
SEGIter * vit = NULL;
bool first = true;
for (INT i2 = res->getOccSet()->get_first(&vit);
i2 >= 0; i2 = res->getOccSet()->get_next(i2, &vit)) {
if (first) {
first = false;
} else {
fprintf(g_tfile, ",");
}
IR const* use = rg->getIR(i2);
ASSERT0(use && (use->isMemoryRef() || use->is_id()));
fprintf(g_tfile, "%s(id:%d)", IRNAME(use), use->id());
}
fflush(g_tfile);
}