/**
* Tests that direct deseralization of a pointer to an abstract class leads to
* a @c XMLSerializationMemoryAllocationException.
*/
void testMemoryAllocationException() {
Abstract* a = new Specific();
std::stringstream stream;
XmlSerializer s;
s.serialize("Abstract", a);
s.write(stream);
// Reset all variables to default values...
delete a;
a = 0;
XmlDeserializer d;
d.read(stream);
try {
d.deserialize("Abstract", a);
delete a;
test(false, "No exception raised on abstract class memory allocation try");
}
catch (XmlSerializationMemoryAllocationException&) {
}
}
Processor* Processor::clone() const {
try {
std::stringstream stream;
// first serialize
XmlSerializer s;
s.serialize("this", this);
s.write(stream);
// then deserialize again
XmlDeserializer d;
d.read(stream);
Processor* proc = 0;
d.deserialize("this", proc);
proc->setDescriptions();
return proc;
}
catch (std::exception& e) {
LERROR("Failed to clone processor '" << getID() << "': " << e.what());
return 0;
}
}
/**
* Tests serialization and deserialization of a @c std::set.
*/
void testSet() {
const int SETELEMENTCOUNT = 5;
std::set<int> set;
for (int i = 0; i < SETELEMENTCOUNT; ++i)
set.insert(i);
std::stringstream stream;
XmlSerializer s;
s.serialize("set", set);
s.write(stream);
// Reset all variables to default values...
set.clear();
test(set.size() == 0, "set is not empty");
XmlDeserializer d;
d.read(stream);
d.deserialize("set", set);
test((int)set.size() == SETELEMENTCOUNT, "not all set items deserialized");
bool deserializedValues[SETELEMENTCOUNT];
for (int i = 0; i < SETELEMENTCOUNT; ++i)
deserializedValues[i] = false;
for (std::set<int>::iterator it = set.begin(); it != set.end(); ++it)
if (*it >= 0 && *it < SETELEMENTCOUNT)
deserializedValues[*it] = true;
for (int i = 0; i < SETELEMENTCOUNT; ++i) {
std::stringstream itemStream;
itemStream << i;
test(deserializedValues[i], "int item '" + itemStream.str() + "' not deserialized");
}
}
/**
* Tests serialization and deserialization of @c AbstractSerializable null pointers.
*/
void testBugAbstractSerializableNullPointerSerialization() {
Abstract* a = 0;
std::stringstream stream;
AbstractFactory factory;
XmlSerializer s;
s.setUseAttributes(true);
s.registerFactory(&factory);
s.serialize("Abstract", a);
s.write(stream);
XmlDeserializer d;
d.setUseAttributes(true);
d.registerFactory(&factory);
d.read(stream);
try {
d.deserialize("Abstract", a);
}
catch (XmlSerializationMemoryAllocationException&) {
test(false, "bug occured, since memory allocation exception is thrown for 0 pointer");
}
}
void VolumeHistogramIntensity::serialize(XmlSerializer& s) const {
s.serialize("histograms", histograms_, "channel");
}
void MeshListGeometry::serialize(XmlSerializer& s) const {
s.serialize("meshes", meshes_);
}
void PlotSelectionEntry::serialize(XmlSerializer& s) const {
s.serialize("selection", selection_);
s.serialize("highlight", highlight_);
s.serialize("renderLabel", renderLabel_);
s.serialize("zoomTo", zoomTo_);
}
void PlotFunctionDiscret::DiscretizeValues::serialize(XmlSerializer& s) const {
s.serialize("Interval",interval);
s.serialize("Stepwidth",stepwidth);
s.serialize("Columns",columns);
}
void PropertyKeyValue<tgt::Camera>::serialize(XmlSerializer& s) const {
// base class props
s.serialize("time", time_);
s.serialize("smooth", smooth_);
s.serialize("before", before_);
s.serialize("after", after_);
// camera
s.serialize("projectionMode", (int)value_.getProjectionMode());
s.serialize("position", value_.getPosition());
s.serialize("focus", value_.getFocus());
s.serialize("upVector", value_.getUpVector());
s.serialize("frustLeft", value_.getFrustLeft());
s.serialize("frustRight", value_.getFrustRight());
s.serialize("frustBottom", value_.getFrustBottom());
s.serialize("frustTop", value_.getFrustTop());
s.serialize("frustNear", value_.getNearDist());
s.serialize("frustFar", value_.getFarDist());
s.serialize("fovy", value_.getFovy());
}
void PlotDataFitFunction::FittingValues::serialize(XmlSerializer& s) const {
s.serialize("regressionType",regressionType);
s.serialize("column",column);
s.serialize("Dimension",dimension);
}
void TransFuncBanana::serialize(XmlSerializer& s) const {
TransFuncPrimitive::serialize(s);
for (int i = 0; i < 4; ++i)
s.serialize("coords", coords_[i]);
}
void TransFuncPrimitive::serialize(XmlSerializer& s) const {
s.serialize("fuzzy", fuzziness_);
s.serialize("color", color_);
}
void VolumeCollection::serialize(XmlSerializer& s) const {
s.serialize("VolumeHandles", volumeHandles_, "VolumeHandle");
}
/**
* Tests serialization and deserialization of polymorphic classes.
*/
void testPolymorphism() {
Parent p;
p.pdata = 1;
Child c;
c.pdata = 2;
c.cdata = 3;
Parent* pp = &p;
Parent* pc = &c;
Parent* child1 = new Child();
child1->pdata = 4;
dynamic_cast<Child*>(child1)->cdata = 5;
Child* child2 = new Child();
child2->pdata = 6;
child2->cdata = 7;
Factory factory;
std::stringstream stream;
try {
XmlSerializer s;
s.registerFactory(&factory);
s.serialize("p", p);
s.serialize("c", c);
s.serialize("pp", pp);
s.serialize("pc", pc);
s.serialize("child1", child1);
s.serialize("child2", child2);
s.write(stream);
delete child1;
delete child2;
}
catch (...) {
delete child1;
delete child2;
throw;
}
// Reset all variables to default values...
p.pdata = 0;
c.pdata = 0;
c.cdata = 0;
pp = 0;
pc = 0;
child1 = 0;
child2 = 0;
XmlDeserializer d;
d.registerFactory(&factory);
d.read(stream);
d.deserialize("p", p);
d.deserialize("c", c);
d.deserialize("pp", pp);
d.deserialize("pc", pc);
d.deserialize("child1", child1);
d.deserialize("child2", child2);
test(p.pdata, 1, "p.pdata incorrect deserialized");
test(c.pdata, 2, "c.pdata incorrect deserialized");
test(c.cdata, 3, "c.cdata incorrect deserialized");
test(pp != 0, "pp still null");
test(pp == &p, "pp does not point to p");
test(pc != 0, "pc still null");
test(pc == &c, "pc does not point to c");
test(child1 != 0, "child1 still null");
test(child1->pdata, 4, "child1.pdata incorrect deserialized");
test(dynamic_cast<Child*>(child1) != 0, "child1 deserialized without using correct polymorphic type");
test(dynamic_cast<Child*>(child1)->cdata, 5, "child2.cdata incorrect deserialized");
test(child2 != 0, "child2 still null");
test(child2->pdata, 6, "child2.pdata incorrect deserialized");
test(child2->cdata, 7, "child2.cdata incorrect deserialized");
delete child1;
delete child2;
}
/**
* @see Serializable::serialize
*/
virtual void serialize(XmlSerializer& s) const {
Parent::serialize(s);
s.serialize("cdata", cdata);
}
void PortConnection::serialize(XmlSerializer& s) const {
s.serialize("Outport", outport_);
s.serialize("Inport", inport_);
}
void MeshGeometry::serialize(XmlSerializer& s) const {
s.serialize("faces", faces_);
}
void AnimatedProcessor::serialize(XmlSerializer& s) const {
s.serialize("processor", processor_);
s.serialize("properties", properties_, "Property");
}
void PositionMetaData::serialize(XmlSerializer& s) const {
s.serialize("x", x_);
s.serialize("y", y_);
}
void OctreeBrickPoolManagerDiskLimitedRam::serialize(XmlSerializer& s) const {
OctreeBrickPoolManagerDisk::serialize(s);
s.serialize("maxRamUsed", maxRamUsed_);
s.serialize("nextVirtualMemoryAddress", nextVirtualMemoryAddress_);
}
void CameraProperty::serialize(XmlSerializer& s) const {
Property::serialize(s);
s.serialize("projectionMode", (int)value_.getProjectionMode());
s.serialize("position", value_.getPosition());
s.serialize("focus", value_.getFocus());
s.serialize("upVector", value_.getUpVector());
s.serialize("frustLeft", value_.getFrustLeft());
s.serialize("frustRight", value_.getFrustRight());
s.serialize("frustBottom", value_.getFrustBottom());
s.serialize("frustTop", value_.getFrustTop());
s.serialize("frustNear", value_.getNearDist());
s.serialize("frustFar", value_.getFarDist());
s.serialize("fovy", value_.getFovy());
s.serialize("eyeMode", (int)value_.getStereoEyeMode());
s.serialize("eyeSeparation", value_.getStereoEyeSeparation());
s.serialize("axisMode", (int)value_.getStereoAxisMode());
}
void VolumePreview::serialize(XmlSerializer& s) const {
s.serialize("height", height_);
s.serializeBinaryBlob("prevData", prevData_);
}
void CameraProperty::serialize(XmlSerializer& s) const {
Property::serialize(s);
s.serialize("projectionMode", (int)value_.getProjectionMode());
s.serialize("position", value_.getPosition());
s.serialize("focus", value_.getFocus());
s.serialize("upVector", value_.getUpVector());
s.serialize("maxValue", maxValue_);
s.serialize("minValue", minValue_);
s.serialize("frustLeft", value_.getFrustLeft());
s.serialize("frustRight", value_.getFrustRight());
s.serialize("frustBottom", value_.getFrustBottom());
s.serialize("frustTop", value_.getFrustTop());
s.serialize("frustNear", value_.getNearDist());
s.serialize("frustFar", value_.getFarDist());
s.serialize("fovy", value_.getFovy());
s.serialize("eyeMode", (int)value_.getStereoEyeMode());
s.serialize("eyeSeparation", value_.getStereoEyeSeparation());
s.serialize("axisMode", (int)value_.getStereoAxisMode());
s.serialize("trackball", trackball_);
s.serialize("centerOption", (int)centerOption_);
s.serialize("adaptOnChange", adaptOnChange_);
s.serialize("sceneLLF", currentSceneBounds_.getLLF());
s.serialize("sceneURB", currentSceneBounds_.getURB());
}
void ColorMap::serialize(XmlSerializer& s) const {
s.serialize("colors", colors_);
s.serialize("name", name_);
}
void PlotSelection::serialize(XmlSerializer& s) const {
s.serialize("isTablePositionFlag", isTablePositionFlag_);
s.serialize("tablePosition", tablePosition_);
s.serialize("selection", selection_);
}
void PropertyState::serialize(XmlSerializer& s) const {
s.serialize("propertyOwner", propertyOwner_);
s.serialize("propertyName", propertyName_);
s.serialize("propertyID", propertyID_);
s.serialize("propertyValue", propertyValue_);
}
void ColorMapProperty::serialize(XmlSerializer& s) const {
Property::serialize(s);
s.serialize("colors", value_);
}
void PlotEntitySettings::serialize(XmlSerializer& s) const {
s.serialize("entity", static_cast<int>(entity_));
s.serialize("colorMap", colorMap_);
s.serialize("mainColumnIndex", mainColumnIndex_);
s.serialize("candleTopColumnIndex", candleTopColumnIndex_);
s.serialize("candleBottomColumnIndex", candleBottomColumnIndex_);
s.serialize("stickTopColumnIndex", stickTopColumnIndex_);
s.serialize("stickBottomColumnIndex", stickBottomColumnIndex_);
s.serialize("optionalCI", optionalColumnIndex_);
s.serialize("secondOptionalCI", secondOptionalColumnIndex_);
s.serialize("firstColor", firstColor_);
s.serialize("secondColor", secondColor_);
s.serialize("lineStyle", static_cast<int>(lineStyle_));
s.serialize("splineFlag", splineFlag_);
s.serialize("errorbarFlag", errorbarFlag_);
s.serialize("wireOnlyFlag", wireOnlyFlag_);
s.serialize("heightmapFlag", heightmapFlag_);
s.serialize("candleStickFlag", candleStickFlag_);
s.serialize("minGlyphSize", minGlyphSize_);
s.serialize("maxGlyphSize", maxGlyphSize_);
s.serialize("glyphStyle", static_cast<int>(glyphStyle_));
//see FileDialogProperty
// convert path to an relative one with respect to the document's path
std::string path = texturePath_;
if (!path.empty() && !s.getDocumentPath().empty())
path = tgt::FileSystem::relativePath(path, tgt::FileSystem::dirName(s.getDocumentPath()));
// cleanup path: replace backslashes
std::string::size_type pos = path.find("\\");
while (pos != std::string::npos) {
path[pos] = '/';
pos = path.find("\\");
}
s.serialize("texturePath", path);
s.serialize("useTextureFlag", useTextureFlag_);
}
void VolumeHistogramIntensityGradient::serialize(XmlSerializer& s) const {
s.serialize("histogram", hist_);
}
void PortConnection::PortEntry::serialize(XmlSerializer& s) const {
s.serialize("name", port_->getID());
s.serialize("Processor", port_->getProcessor());
}
