JNIEXPORT jfloatArray JNICALL Java_de_tesis_dynaware_javafx_graphics_importers_fbx_JFbxLib_getMeshVertices(JNIEnv *env, jobject obj, jint attributeIndex) {
// Check FBX file has been opened.
if (!isOpen()) { throwFileClosedException(env); }
// Check attribute index bounds for safety.
if (!checkAttributeBounds(attributeIndex)) { throwArrayOutOfBoundsException(env); }
// Check attribute type for safety.
if (!isValidType(attributeIndex, FbxNodeAttribute::EType::eMesh)) { return NULL; }
FbxMesh* mesh = (FbxMesh*)currentNode->GetNodeAttributeByIndex(attributeIndex);
FbxVector4 *controlPoints = mesh->GetControlPoints();
const int controlPointsCount = mesh->GetControlPointsCount();
jfloatArray vertices = env->NewFloatArray(3*controlPointsCount);
// Check memory could be allocated.
if (vertices == NULL) { throwOutOfMemoryError(env); }
for (int i=0; i<controlPointsCount; i++) {
jfloat vertex[3];
vertex[0] = controlPoints[i][0];
vertex[1] = controlPoints[i][1];
vertex[2] = controlPoints[i][2];
env->SetFloatArrayRegion(vertices, 3*i, 3, vertex);
}
return vertices;
}
int HttpMime::addUpdateSuffixMimeMap(MimeSetting *pSetting,
char *pSuffixes, int update)
{
pSuffixes = StringTool::strTrim(pSuffixes);
pSuffixes = StringTool::strLower(pSuffixes, pSuffixes);
char *p = pSuffixes;
while (1)
{
p = strtok(pSuffixes, ", \t");
if (!p)
return 0;
pSuffixes = NULL;
p = StringTool::strTrim(p);
while (*p == '.')
++p;
if (*p == 0)
continue;
if (!isValidType(p))
continue;
if (strcmp(p, "default") == 0)
{
m_pDefault = pSetting;
continue;
}
if (!m_pSuffixMap->addUpdateMapping(p, pSetting, update))
continue;
}
}
static Aurora::FileType detectType(const Common::UString &file) {
Aurora::FileType type = TypeMan.getFileType(file);
if (isValidType(type))
return type;
return Aurora::kFileTypeNone;
}
JNIEXPORT void JNICALL Java_de_tesis_dynaware_javafx_graphics_importers_fbx_JFbxLib_triangulate(JNIEnv *env, jobject obj, jint attributeIndex) {
// Check FBX file has been opened.
if (!isOpen()) { throwFileClosedException(env); }
// Check attribute index bounds for safety.
if (!checkAttributeBounds(attributeIndex)) { throwArrayOutOfBoundsException(env); }
// Check attribute type for safety.
if (!isValidType(attributeIndex, FbxNodeAttribute::EType::eMesh) &&
!isValidType(attributeIndex, FbxNodeAttribute::EType::ePatch) &&
!isValidType(attributeIndex, FbxNodeAttribute::EType::eNurbs) &&
!isValidType(attributeIndex, FbxNodeAttribute::EType::eNurbsSurface)) { return; }
FbxGeometryConverter *converter = new FbxGeometryConverter(sdkManager);
converter->Triangulate(currentNode->GetNodeAttributeByIndex(attributeIndex), true);
}
bool RObject::canAccommodateStructure (RData *new_data) {
RK_TRACE (OBJECTS);
RK_ASSERT (new_data->getDataLength () >= 5);
RK_ASSERT (new_data->getDataType () == RData::StructureVector);
if (!isValidName (new_data->getStructureVector ()[0])) return false;
if (!isValidType (new_data->getStructureVector ()[1])) return false;
return true;
}
/*
Function: setIdentifierType(std::vector<int> type)
Parameters:
std::vector<int> type: A vector of tokens is used to determine the data type
of the current symbol.
Description: Allows the caller to specify the data type of the symbol
table entry. This function will return false if the supplied vector contains
an invalid data type.
*/
bool symbolTableEntry::setIdentifierType(std::vector<int> type) {
// check if the incoming vector contains a valid data type
entryType = isValidType(type);
if(entryType != -1){
identifierType = type;
return true;
}
else return false;
}
JNIEXPORT jboolean JNICALL Java_de_tesis_dynaware_javafx_graphics_importers_fbx_JFbxLib_isTriangleMesh(JNIEnv *env, jobject obj, jint attributeIndex) {
// Check FBX file has been opened.
if (!isOpen()) { throwFileClosedException(env); }
// Check attribute index bounds for safety.
if (!checkAttributeBounds(attributeIndex)) { throwArrayOutOfBoundsException(env); }
// Check attribute type for safety.
if (!isValidType(attributeIndex, FbxNodeAttribute::EType::eMesh)) { return false; }
return ((FbxMesh*) currentNode->GetNodeAttributeByIndex(attributeIndex))->IsTriangleMesh();
}
const Pizza::Pizza* Waiter::getPizza(const std::string& command)
{
std::string type;
std::string size;
std::stringstream ss;
Pizza::TypePizza enumType;
Pizza::TaillePizza enumSize;
ss << command;
ss >> type >> size;
enumType = isValidType(type);
enumSize = isValidSize(size);
if (enumSize && enumType)
return (new Pizza::Pizza(enumType, enumSize));
return (NULL);
}
JNIEXPORT jintArray JNICALL Java_de_tesis_dynaware_javafx_graphics_importers_fbx_JFbxLib_getMeshFaceSmoothingGroups(JNIEnv *env, jobject obj, jint attributeIndex) {
// Check FBX file has been opened.
if (!isOpen()) { throwFileClosedException(env); }
// Check attribute index bounds for safety.
if (!checkAttributeBounds(attributeIndex)) { throwArrayOutOfBoundsException(env); }
// Check attribute type for safety.
if (!isValidType(attributeIndex, FbxNodeAttribute::EType::eMesh)) { return NULL; }
FbxMesh* mesh = (FbxMesh*)currentNode->GetNodeAttributeByIndex(attributeIndex);
FbxGeometryElementSmoothing* smoothingElement = mesh->GetElementSmoothing(0);
// If smoothing is not defined explicitly, try to convert from normals. Convert edge-smoothing to face-smoothing.
if (!smoothingElement || smoothingElement->GetMappingMode() == FbxGeometryElement::eByEdge) {
FbxGeometryConverter geometryConverter(sdkManager);
if (!smoothingElement) {
geometryConverter.ComputeEdgeSmoothingFromNormals(mesh);
smoothingElement = mesh->GetElementSmoothing(0);
}
if (smoothingElement->GetMappingMode() == FbxGeometryElement::eByEdge) {
geometryConverter.ComputePolygonSmoothingFromEdgeSmoothing(mesh);
}
}
const int polygonCount = mesh->GetPolygonCount();
jintArray faceSmoothingGroups = env->NewIntArray(polygonCount);
// Check memory could be allocated.
if (faceSmoothingGroups == NULL) { throwOutOfMemoryError(env); }
for (int i=0; i<polygonCount; i++) {
jint iValue = smoothingElement->GetDirectArray().GetAt(i);
env->SetIntArrayRegion(faceSmoothingGroups, i, 1, &iValue);
}
return faceSmoothingGroups;
}
/*!
* \brief Constructs a new account entry for the specified account which is deserialize from
* the specified \a stream.
* \throws Throws ParsingException when an parsing error occurs.
*/
Field::Field(AccountEntry *tiedAccount, istream &stream)
{
BinaryReader reader(&stream);
const int version = reader.readByte();
if (version != 0x0 && version != 0x1) {
throw ParsingException("Field version is not supported.");
}
m_name = reader.readLengthPrefixedString();
m_value = reader.readLengthPrefixedString();
byte type = reader.readByte();
if (!isValidType(type)) {
throw ParsingException("Field type is not supported.");
}
m_type = static_cast<FieldType>(type);
// read extended header for version 0x1
if (version == 0x1) {
const uint16 extendedHeaderSize = reader.readUInt16BE();
// currently there's nothing to read here
m_extendedData = reader.readString(extendedHeaderSize);
}
m_tiedAccount = tiedAccount;
}
JNIEXPORT jfloatArray JNICALL Java_de_tesis_dynaware_javafx_graphics_importers_fbx_JFbxLib_getMeshTexCoords(JNIEnv *env, jobject obj, jint attributeIndex) {
// Check FBX file has been opened.
if (!isOpen()) { throwFileClosedException(env); }
// Check attribute index bounds for safety.
if (!checkAttributeBounds(attributeIndex)) { throwArrayOutOfBoundsException(env); }
// Check attribute type for safety.
if (!isValidType(attributeIndex, FbxNodeAttribute::EType::eMesh)) { return NULL; }
FbxMesh* mesh = (FbxMesh*)currentNode->GetNodeAttributeByIndex(attributeIndex);
// Currently we only read from the first layer.
FbxLayerElementUV *firstLayer = mesh->GetElementUV(0);
if (firstLayer==NULL) { return NULL; }
const int uvCount = firstLayer->GetDirectArray().GetCount();
jfloatArray texCoords = env->NewFloatArray(2*uvCount);
if (texCoords == NULL) {
return NULL;
}
for (int i=0; i<uvCount; i++) {
jfloat uv[2];
// Note that we invert the 'v' index to match the JavaFX (DirectX?) convention.
uv[0] = firstLayer->GetDirectArray().GetAt(i)[0];
uv[1] = 1-firstLayer->GetDirectArray().GetAt(i)[1];
env->SetFloatArrayRegion(texCoords, 2*i, 2, uv);
}
return texCoords;
}
expv
compile_intrinsic_call(ID id, expv args) {
intrinsic_entry *ep = NULL;
int found = 0;
int nArgs = 0;
int nIntrArgs = 0;
int i;
expv ret = NULL;
expv a = NULL;
TYPE_DESC tp = NULL, ftp;
list lp;
INTR_OPS iOps = INTR_END;
const char *iName = NULL;
expv kindV = NULL;
int typeNotMatch = 0;
int isVarArgs = 0;
EXT_ID extid;
if (SYM_TYPE(ID_SYM(id)) != S_INTR) {
//fatal("%s: not intrinsic symbol", __func__);
// declarea as intrinsic but not defined in the intrinc table
SYM_TYPE(ID_SYM(id)) = S_INTR;
if (args == NULL) {
args = list0(LIST);
}
if (ID_TYPE(id) == NULL) implicit_declaration(id);
tp = ID_TYPE(id);
//tp = BASIC_TYPE_DESC(TYPE_SUBR);
expv symV = expv_sym_term(F_FUNC, NULL, ID_SYM(id));
ftp = function_type(tp);
TYPE_SET_INTRINSIC(ftp);
extid = new_external_id_for_external_decl(ID_SYM(id), ftp);
ID_TYPE(id) = ftp;
PROC_EXT_ID(id) = extid;
if (TYPE_IS_EXTERNAL(tp)){
ID_STORAGE(id) = STG_EXT;
}
else{
EXT_PROC_CLASS(extid) = EP_INTRINSIC;
}
ret = expv_cons(FUNCTION_CALL, tp, symV, args);
return ret;
}
ep = &(intrinsic_table[SYM_VAL(ID_SYM(id))]);
iOps = INTR_OP(ep);
iName = ID_NAME(id);
/* Count a number of argument, first. */
nArgs = 0;
if (args == NULL) {
args = list0(LIST);
}
FOR_ITEMS_IN_LIST(lp, args) {
nArgs++;
}
/* Search an intrinsic by checking argument types. */
found = 0;
for (;
((INTR_OP(ep) == iOps) &&
((strcasecmp(iName, INTR_NAME(ep)) == 0) ||
!(isValidString(INTR_NAME(ep)))));
ep++) {
kindV = NULL;
typeNotMatch = 0;
isVarArgs = 0;
/* Check a number of arguments. */
if (INTR_N_ARGS(ep) < 0 ||
INTR_N_ARGS(ep) == nArgs) {
/* varriable args or no kind arg. */
if (INTR_N_ARGS(ep) < 0) {
isVarArgs = 1;
}
nIntrArgs = nArgs;
} else if (INTR_HAS_KIND_ARG(ep) &&
((INTR_N_ARGS(ep) + 1) == nArgs)) {
/* could be intrinsic call with kind arg. */
expv lastV = expr_list_get_n(args, nArgs - 1);
if (lastV == NULL) {
return NULL; /* error recovery */
}
if (EXPV_KW_IS_KIND(lastV)) {
goto gotKind;
}
tp = EXPV_TYPE(lastV);
if (!(isValidType(tp))) {
return NULL; /* error recovery */
}
if (TYPE_BASIC_TYPE(tp) != TYPE_INT) {
/* kind arg must be integer type. */
continue;
}
gotKind:
nIntrArgs = INTR_N_ARGS(ep);
kindV = lastV;
} else {
continue;
}
/* The number of arguments matchs. Then check types. */
for (i = 0; i < nIntrArgs; i++) {
a = expr_list_get_n(args, i);
if (a == NULL) {
return NULL; /* error recovery */
}
tp = EXPV_TYPE(a);
if (!(isValidType(tp))) {
//return NULL; /* error recovery */
continue;
}
if (compare_intrinsic_arg_type(a, tp,
((isVarArgs == 0) ?
INTR_ARG_TYPE(ep)[i] :
INTR_ARG_TYPE(ep)[0])) != 0) {
/* Type mismatch. */
typeNotMatch = 1;
break;
}
}
if (typeNotMatch == 1) {
continue;
} else {
found = 1;
break;
}
}
if (found == 1) {
/* Yes we found an intrinsic to use. */
SYMBOL sp = NULL;
expv symV = NULL;
/* Then we have to determine return type. */
if (INTR_RETURN_TYPE(ep) != INTR_TYPE_NONE) {
tp = get_intrinsic_return_type(ep, args, kindV);
if (!(isValidType(tp))) {
//fatal("%s: can't determine return type.", __func__);
//return NULL;
tp = BASIC_TYPE_DESC(TYPE_GNUMERIC_ALL);
}
} else {
tp = BASIC_TYPE_DESC(TYPE_SUBR);
}
/* Finally find symbol for the intrinsic and make it expv. */
sp = find_symbol((char *)iName);
if (sp == NULL) {
fatal("%s: symbol '%s' is not created??",
__func__,
INTR_NAME(ep));
/* not reached */
return NULL;
}
symV = expv_sym_term(F_FUNC, NULL, sp);
if (symV == NULL) {
fatal("%s: symbol expv creation failure.", __func__);
/* not reached */
return NULL;
}
ftp = function_type(tp);
TYPE_SET_INTRINSIC(ftp);
/* set external id for functionType's type ID.
* dont call declare_external_id() */
extid = new_external_id_for_external_decl(ID_SYM(id), ftp);
ID_TYPE(id) = ftp;
PROC_EXT_ID(id) = extid;
if(TYPE_IS_EXTERNAL(tp)){
ID_STORAGE(id) = STG_EXT;
}else{
EXT_PROC_CLASS(extid) = EP_INTRINSIC;
}
ret = expv_cons(FUNCTION_CALL, tp, symV, args);
}
if (ret == NULL) {
error_at_node((expr)args,
"argument(s) mismatch for an intrinsic '%s()'.",
iName);
}
return ret;
}
bool DOMFileSystemBase::supportsToURL() const
{
ASSERT(isValidType(m_type));
return m_type != FileSystemTypeIsolated;
}
int HttpMime::addUpdateMIME( char * pType, char * pDesc, const char * &reason, int update )
{
pType = StringTool::strtrim( pType );
pDesc = StringTool::strtrim( pDesc );
if ( !isValidMimeType(pDesc) )
{
reason = "invalid MIME description";
return -1;
}
if ( strlen( pDesc ) > MAX_MIME_LEN )
{
reason = "MIME description is too long";
return -1;
}
pType = StringTool::strlower( pType, pType );
pDesc = StringTool::strlower( pDesc, pDesc );
MIMESetting * pSetting = m_pMIMEMap->findMIME( pDesc );
if ( pSetting )
{
if ( strcmp( pDesc, pSetting->getMIME()->c_str() ) != 0 )
{
// LOG_WARN(("[MIME] File %s line %d: MIME type with different parameter"
// " is not allowed, current: \"%s\" new: \"%s\", new one is used.",
// pFilePath, lineNo, pSetting->getMIME()->c_str(), pDesc));
AutoStr2 * pMime = ::getMIME( pDesc );
pSetting->setMIME( pMime );
}
}
else
{
pSetting = m_pMIMEMap->addMIME( pDesc );
if ( !pSetting )
{
reason = "invalid MIME type";
return -1;
}
}
char * p = pType;
while( 1 )
{
p = strtok( pType, ", " );
if ( !p )
return 0;
pType = NULL;
p = StringTool::strtrim( p );
while( *p == '.' )
++p;
if ( *p == 0 )
{
continue;
}
if ( !isValidType(p) )
{
continue;
}
if ( strcmp( p, "default" ) == 0 )
{
m_pDefault = pSetting;
continue;
}
if ( !m_pSuffixMap->addUpdateMapping( p, pSetting, update ) )
{
continue;
}
}
}
JNIEXPORT jintArray JNICALL Java_de_tesis_dynaware_javafx_graphics_importers_fbx_JFbxLib_getMeshFaces(JNIEnv *env, jobject obj, jint attributeIndex) {
// Check FBX file has been opened.
if (!isOpen()) { throwFileClosedException(env); }
// Check attribute index bounds for safety.
if (!checkAttributeBounds(attributeIndex)) { throwArrayOutOfBoundsException(env); }
// Check attribute type for safety.
if (!isValidType(attributeIndex, FbxNodeAttribute::EType::eMesh)) { return NULL; }
FbxMesh* mesh = (FbxMesh*)currentNode->GetNodeAttributeByIndex(attributeIndex);
bool byPolygonVertex = false;
bool index = false;
bool indexToDirect = false;
bool direct = false;
FbxLayerElementUV *firstLayer = mesh->GetElementUV(0);
if (firstLayer!=NULL) {
byPolygonVertex = firstLayer->GetMappingMode()==FbxLayerElement::EMappingMode::eByPolygonVertex;
index = firstLayer->GetReferenceMode()==FbxLayerElement::EReferenceMode::eIndex;
indexToDirect = firstLayer->GetReferenceMode()==FbxLayerElement::EReferenceMode::eIndexToDirect;
direct = firstLayer->GetReferenceMode()==FbxLayerElement::EReferenceMode::eDirect;
}
const int polygonCount = mesh->GetPolygonCount();
jintArray faces = env->NewIntArray(6*polygonCount);
// Check memory could be allocated.
if (faces == NULL) { throwOutOfMemoryError(env); }
for (int i=0; i<polygonCount; i++) {
jint face[6];
// Assume we are working with a triangle mesh.
face[0] = mesh->GetPolygonVertex(i,0);
face[2] = mesh->GetPolygonVertex(i,1);
face[4] = mesh->GetPolygonVertex(i,2);
if (byPolygonVertex && (index || indexToDirect)) {
face[1] = mesh->GetTextureUVIndex(i, 0);
face[3] = mesh->GetTextureUVIndex(i, 1);
face[5] = mesh->GetTextureUVIndex(i, 2);
}
else if (direct) {
face[1] = 3*i;
face[3] = 3*i+1;
face[5] = 3*i+2;
}
else {
face[1] = 0;
face[3] = 0;
face[5] = 0;
}
env->SetIntArrayRegion(faces, 6*i, 6, face);
}
return faces;
}
