bool jobSchedule(
const map<JobID, vector<JobID> > &deps,
int n,
vector<JobID> &result) {
int index(0);
for ( JobID i = static_cast<JobID>(1); i <= n; ++i )
{
IndexMapIt it = indexMap.find(i);
if ( it == indexMap.end() )
{
if ( !process(i, index, deps, result) ) return false;
}
}
return true;
}
unsigned int getVertexIndex(gkSubMesh* sub, unsigned int index, const gkVertex& ref)
{
UTsize i = m_indexMap.find((int)index), fnd = UT_NPOS, size = sub->m_verts.size();
if (i != UT_NPOS)
{
UTsize sp = m_indexMap.at(i);
if (sp < size && vertEq(sub, sub->m_verts.at(sp), ref))
fnd = sp;
}
if (fnd == UT_NPOS)
{
sub->m_bounds.merge(ref.co);
sub->m_verts.push_back(ref);
m_indexMap.insert((int)index, size);
return (unsigned int)size;
}
return (unsigned int)fnd;
}
SpeckleyNodes::SpeckleyNodes(SpeckleyNodes_ptr fullNodes, IntVec& requiredNodes,
const string& meshName) :
name(meshName)
{
numDims = fullNodes->numDims;
nodeDist = fullNodes->nodeDist;
globalNumNodes = fullNodes->globalNumNodes;
// first: find the unique set of required nodes and their IDs while
// updating the contents of requiredNodes at the same time
// requiredNodes contains node indices (not IDs!)
IntVec::iterator it;
IndexMap indexMap; // maps old index to new index
size_t newIndex = 0;
for (it = requiredNodes.begin(); it != requiredNodes.end(); it++) {
IndexMap::iterator res = indexMap.find(*it);
if (res == indexMap.end()) {
nodeID.push_back(fullNodes->nodeID[*it]);
nodeTag.push_back(fullNodes->nodeTag[*it]);
indexMap[*it] = newIndex;
*it = newIndex++;
} else {
*it = res->second;
}
}
// second: now that we know how many nodes we need use the map to fill
// the coordinates
numNodes = newIndex;
for (int dim=0; dim<numDims; dim++) {
const float* origC = fullNodes->coords[dim];
float* c = new float[numNodes];
coords.push_back(c);
IndexMap::const_iterator mIt;
for (mIt = indexMap.begin(); mIt != indexMap.end(); mIt++) {
c[mIt->second] = origC[mIt->first];
}
}
}
bool process(
const JobID id,
int& index,
const map<JobID, vector<JobID> > &deps,
vector<JobID> &result)
{
JobIndex jobIndex(index, index);
indexMap.insert(make_pair(id, jobIndex));
++index;
st.push(id);
st_set.insert(id);
map<JobID, vector<JobID> >::const_iterator jobIt = deps.find(id);
if ( jobIt != deps.end() )
{
for ( int i = 0, len = jobIt->second.size(); i < len; ++i )
{
JobID currId = (jobIt->second)[i];
IndexMapIt mapIt = indexMap.find(currId);
if ( mapIt == indexMap.end() )
{
if ( !process(currId, index, deps, result) ) return false;
}
else if ( st_set.find(currId) != st_set.end() )
{
return false;
}
}
}
result.push_back(id);
st.pop();
st_set.erase(id);
return true;
}
// Load the shape with vertices and faces from the OBJ file.
// Returns ST_ERROR on failure, ST_OK on success.
STStatus STShape::LoadOBJ(const std::string& filename)
{
static const int kMaxLine = 256;
// The subset of the OBJ format that we handle has
// the following commands:
//
// v <x> <y> <z> Define a vertex position.
// vn <x> <y> <z> Define a vertex normal.
// vt <s> <t> Define a vertex texture coordiante.
// f <p0>/<t0>/<n0> ... Define a face from previous data.
//
// Every face in an OBJ file refers to previously-defines
// positions, normals and texture coordinates by index.
// Vertices in an STShape must define all three of these,
// so we must generate one STShape vertex for each combination
// of indices we see in the OBJ file.
//
//
// Open the file.
//
FILE* file = fopen(filename.c_str(), "r");
if (!file) {
fprintf(stderr,
"STShape::LoadOBJ() - Could not open shape file '%s'.\n", filename.c_str());
return ST_ERROR;
}
char lineBuffer[kMaxLine];
int lineIndex = 0; // for printing error messages
// Arrays to collect the positions, normals and texture
// coordinates that we encounter.
std::vector<STPoint3> positions;
std::vector<STPoint2> texCoords;
std::vector<STVector3> normals;
// Map to point us to previously-created vertices. This maps
// triples of indices (a position, texcoord and normal index)
// to a single index in the new shape.
typedef std::pair<int,int> IntPair;
typedef std::pair<int, IntPair> IntTriple;
typedef std::map<IntTriple, size_t> IndexMap;
IndexMap indexMap;
// Keep track of whether the file contained normals...
bool needsNormals = false;
//
// Read the file line-by-line
//
while (fgets(lineBuffer, kMaxLine, file)) {
++lineIndex;
char* str = strtok(lineBuffer, " \t\n\r");
//
// Skip empty or comment lines.
//
if (!str || str[0] == '\0' || str[0] == '#')
continue;
if (str[0] == 'g' || str[0] == 's' || strcmp(str, "usemtl") == 0 || strcmp(str, "mtllib") == 0)
continue;
//
// Process other lines based on their commands.
//
if (strcmp(str, "v") == 0) {
// Vertex position line. Read the position data (x, y, z).
str = strtok(NULL, "");
STPoint3 position;
sscanf(str, "%f %f %f\n", &position.x, &position.y, &position.z);
positions.push_back(position);
}
else if (strcmp(str, "vt") == 0) {
// Vertex texture coordinate line. Read the texture coord data.
str = strtok(NULL, "");
STPoint2 texCoord;
sscanf(str, "%f %f\n", &texCoord.x, &texCoord.y);
texCoords.push_back(texCoord);
}
else if (strcmp(str, "vn") == 0) {
// Vertex normal line. Read the normal data.
str = strtok(NULL, "");
STVector3 normal;
sscanf(str, "%f %f %f\n", &normal.x, &normal.y, &normal.z);
normals.push_back(normal);
}
else if (strcmp(str, "f") == 0) {
// Face command. Each vertex in the face will be defined by
// the indices of its position, texture coordinate and
// normal.
std::vector<Index> faceIndices;
// Read each vertex entry.
int curIndex = 0;
Index indices[3];
enum FaceFormat {
PosTexNorm, // %d/%d/%d
PosTex, // %d/%d
PosNorm, // %d//%d
Pos, // %d
LAST_FACE_FORMAT
};
const char* FaceFormatToString[LAST_FACE_FORMAT] = {
"Position/Texture/Normal",
"Position/Texture",
"Position//Normal",
"Position",
};
bool set_format = false;
FaceFormat format;
const int kNoTextureIndex = -1;
const int kNoNormalIndex = -1;
int positionIdx;
int texCoordIdx;
int normalIdx;
while ((str = strtok(NULL, " \t\n\r")) != NULL) {
if (sscanf(str, "%d/%d/%d", &positionIdx, &texCoordIdx, &normalIdx) == 3) {
if (!set_format) {
format = PosTexNorm;
set_format = true;
} else {
if (format != PosTexNorm) {
fprintf(stderr, "STShape::LoadOBJ() - "
"Line %d: Current face format is %s, but received another vertex in format %s\n",
lineIndex, FaceFormatToString[format], FaceFormatToString[PosTexNorm]);
}
}
} else if (sscanf(str, "%d/%d", &positionIdx, &texCoordIdx) == 2) {
if (!set_format) {
format = PosTex;
set_format = true;
} else {
if (format != PosTex) {
fprintf(stderr, "STShape::LoadOBJ() - "
"Line %d: Current face format is %s, but received another vertex in format %s\n",
lineIndex, FaceFormatToString[format], FaceFormatToString[PosTex]);
}
}
} else if (sscanf(str, "%d//%d", &positionIdx, &normalIdx) == 2) {
if (!set_format) {
format = PosNorm;
set_format = true;
} else {
if (format != PosNorm) {
fprintf(stderr, "STShape::LoadOBJ() - "
"Line %d: Current face format is %s, but received another vertex in format %s\n",
lineIndex, FaceFormatToString[format], FaceFormatToString[PosNorm]);
}
}
// Pass
} else if (sscanf(str, "%d", &positionIdx) == 1) {
if (!set_format) {
format = Pos;
set_format = true;
} else {
if (format != Pos) {
fprintf(stderr, "STShape::LoadOBJ() - "
"Line %d: Current face format is %s, but received another vertex in format %s\n",
lineIndex, FaceFormatToString[format], FaceFormatToString[Pos]);
}
}
} else {
// TODO(boulos): Print out line #?
fprintf(stderr, "STShape::LoadOBJ() - "
"Line %d: Bad face format given %s\n", lineIndex, str);
continue;
}
//
// We look to see if we have already created a vertex
// based on this position/texCoord/normal, and reuse it
// if possible. Otherwise we add a new vertex.
//
positionIdx = OBJIndexing(positionIdx, positions.size());
texCoordIdx = (format == PosTexNorm ||
format == PosTex)
? OBJIndexing(texCoordIdx,
texCoords.size())
: kNoTextureIndex;
normalIdx = (format == PosTexNorm ||
format == PosNorm)
? OBJIndexing(normalIdx,
texCoords.size())
: kNoNormalIndex;
size_t newIndex;
IntTriple key(positionIdx, IntPair(texCoordIdx, normalIdx));
IndexMap::const_iterator ii = indexMap.find(key);
if (ii != indexMap.end()) {
newIndex = ii->second;
}
else {
// Construct a new vertex from the indices given.
STPoint3 position = positions[positionIdx];
STVector3 normal = (normalIdx != kNoNormalIndex) ? normals[normalIdx] : STVector3::Zero;
STPoint2 texCoord = (texCoordIdx != kNoTextureIndex) ? texCoords[texCoordIdx] : STPoint2::Origin;
// If the vertex has no normal, then remember
// to create normals later...
if (normalIdx == kNoNormalIndex) {
needsNormals = true;
}
Vertex newVertex(position, normal, texCoord);
newIndex = AddVertex(newVertex);
indexMap[key] = newIndex;
}
indices[curIndex++] = newIndex;
// Keep triangle fanning
if (curIndex == 3) {
AddFace(Face(indices[0], indices[1], indices[2]));
indices[1] = indices[2];
curIndex = 2;
}
}
}
else {
//
// Unknown line - ignore and print a warning.
//
fprintf(stderr, "STShape::LoadOBJ() - "
"Unable to parse line %d: %s (continuing)\n",
lineIndex, lineBuffer);
}
}
fclose(file);
//
// If the file didn't already have normals, then generate them.
//
GenerateNormals();
return ST_OK;
}
void SplitGeoRec::feedResults(OSG::UInt32 part, GeoReceiver *obj,
pntRec pntfunc, triRec trifunc)
{
char name[_basename.size() + 20];
sprintf(name, "%s_%d.ooc", _basename.c_str(), part);
std::ifstream s(name, std::ios::in|std::ios::binary);
OSG::UInt32 vcnt = 0, tcnt = 0;
#ifdef OSG_STL_HAS_HASH_MAP
typedef
OSG_STDEXTENSION_NAMESPACE::hash_map<OSG::UInt32, OSG::UInt32> IndexMap;
#else
typedef
std::map<OSG::UInt32, OSG::UInt32> IndexMap;
#endif
IndexMap indexMap;
while(s.good() && ! s.eof())
{
OSG::UInt8 rec;
s.read(reinterpret_cast<char*>(&rec), sizeof(rec));
if(rec == PNT_RECORD)
{
OSG::Pnt3f pnt;
OSG::UInt32 ind;
s.read(reinterpret_cast<char*>(&ind), sizeof(ind));
s.read(reinterpret_cast<char*>(&pnt), sizeof(Pnt3f));
pntfunc(obj, pnt);
FDEBUG(("SplitGeoRec::feedResults: PNT(%d): added as %d\n",
vcnt, ind));
indexMap[ind] = vcnt++;
}
else if (rec == TRI_RECORD)
{
OSG::UInt32 i1,i2,i3,mat;
s.read(reinterpret_cast<char*>(&i1), sizeof(i1));
s.read(reinterpret_cast<char*>(&i2), sizeof(i2));
s.read(reinterpret_cast<char*>(&i3), sizeof(i3));
s.read(reinterpret_cast<char*>(&mat), sizeof(mat));
FDEBUG(("SplitGeoRec::feedResults: TRI(%d): adding "
"%d(%d) %d(%d) %d(%d) (mat %d)\n",
tcnt,
i1, (indexMap.find(i1)!=indexMap.end())?indexMap[i1]:888888888,
i2, (indexMap.find(i2)!=indexMap.end())?indexMap[i2]:888888888,
i3, (indexMap.find(i3)!=indexMap.end())?indexMap[i3]:888888888,
mat
));
if(indexMap.find(i1) == indexMap.end())
{
FWARNING(("SplitGeoRec::feedResults: TRI(%d): Couldn't "
"find %d in the indexMap!\n", tcnt, i1));
}
if(indexMap.find(i2) == indexMap.end())
{
FWARNING(("SplitGeoRec::feedResults: TRI(%d): Couldn't "
"find %d in the indexMap!\n", tcnt, i2));
}
if(indexMap.find(i3) == indexMap.end())
{
FWARNING(("SplitGeoRec::feedResults: TRI(%d): Couldn't "
"find %d in the indexMap!\n", tcnt, i3));
}
trifunc(obj, indexMap[i1], indexMap[i2], indexMap[i3], mat);
tcnt++;
}
else
{
FWARNING(("SplitGeoRec::feedResult: unknown record type '%d'!\n",
rec));
}
}
}
QString QSqlResultPrivate::holderAt(int index) const
{
return indexes.key(index);
}
nsresult
nsMorkReader::ParseTable(const nsCSubstring &aLine, const IndexMap &aColumnMap)
{
nsCLineString line(aLine);
const PRUint32 columnCount = mColumns.Length(); // total number of columns
PRInt32 columnIndex = -1; // column index of the cell we're parsing
// value array for the row we're parsing
nsTArray<nsCString> *currentRow = nsnull;
PRBool inMetaRow = PR_FALSE;
do {
PRUint32 idx = 0;
PRUint32 len = line.Length();
PRUint32 tokenStart, tokenEnd;
while (idx < len) {
switch (line[idx++]) {
case '{':
// This marks the beginning of a table section. There's a lot of
// junk before the first row that looks like cell values but isn't.
// Skip to the first '['.
while (idx < len && line[idx] != '[') {
if (line[idx] == '{') {
inMetaRow = PR_TRUE; // the meta row is enclosed in { }
} else if (line[idx] == '}') {
inMetaRow = PR_FALSE;
}
++idx;
}
break;
case '[':
{
// Start of a new row. Consume the row id, up to the first '('.
// Row edits also have a table namespace, separated from the row id
// by a colon. We don't make use of the namespace, but we need to
// make sure not to consider it part of the row id.
if (currentRow) {
NS_WARNING("unterminated row?");
currentRow = nsnull;
}
// Check for a '-' at the start of the id. This signifies that
// if the row already exists, we should delete all columns from it
// before adding the new values.
PRBool cutColumns;
if (idx < len && line[idx] == '-') {
cutColumns = PR_TRUE;
++idx;
} else {
cutColumns = PR_FALSE;
}
tokenStart = idx;
while (idx < len &&
line[idx] != '(' &&
line[idx] != ']' &&
line[idx] != ':') {
++idx;
}
tokenEnd = idx;
while (idx < len && line[idx] != '(' && line[idx] != ']') {
++idx;
}
if (inMetaRow) {
mMetaRow = NewVoidStringArray(columnCount);
NS_ENSURE_TRUE(mMetaRow, NS_ERROR_OUT_OF_MEMORY);
currentRow = mMetaRow;
} else {
const nsCSubstring& row = Substring(line, tokenStart,
tokenEnd - tokenStart);
if (!mTable.Get(row, ¤tRow)) {
currentRow = NewVoidStringArray(columnCount);
NS_ENSURE_TRUE(currentRow, NS_ERROR_OUT_OF_MEMORY);
NS_ENSURE_TRUE(mTable.Put(row, currentRow),
NS_ERROR_OUT_OF_MEMORY);
}
}
if (cutColumns) {
// Set all of the columns to void
// (this differentiates them from columns which are empty strings).
for (PRUint32 i = 0; i < columnCount; ++i) {
currentRow->ElementAt(i).SetIsVoid(PR_TRUE);
}
}
break;
}
case ']':
// We're done with the row
currentRow = nsnull;
inMetaRow = PR_FALSE;
break;
case '(':
{
if (!currentRow) {
NS_WARNING("cell value outside of row");
break;
}
NS_WARN_IF_FALSE(columnIndex == -1, "unterminated cell?");
PRBool columnIsAtom;
if (line[idx] == '^') {
columnIsAtom = PR_TRUE;
++idx; // this is not part of the column id, advance past it
} else {
columnIsAtom = PR_FALSE;
}
tokenStart = idx;
while (idx < len && line[idx] != '^' && line[idx] != '=') {
if (line[idx] == '\\') {
++idx; // skip escaped characters
}
++idx;
}
tokenEnd = PR_MIN(idx, len);
nsCAutoString column;
const nsCSubstring &colValue =
Substring(line, tokenStart, tokenEnd - tokenStart);
if (columnIsAtom) {
column.Assign(colValue);
} else {
MorkUnescape(colValue, column);
}
if (!aColumnMap.Get(colValue, &columnIndex)) {
NS_WARNING("Column not in column map, discarding it");
columnIndex = -1;
}
}
break;
case '=':
case '^':
{
if (columnIndex == -1) {
NS_WARNING("stray ^ or = marker");
break;
}
PRBool valueIsAtom = (line[idx - 1] == '^');
tokenStart = idx - 1; // include the '=' or '^' marker in the value
while (idx < len && line[idx] != ')') {
if (line[idx] == '\\') {
++idx; // skip escaped characters
}
++idx;
}
tokenEnd = PR_MIN(idx, len);
++idx;
const nsCSubstring &value =
Substring(line, tokenStart, tokenEnd - tokenStart);
if (valueIsAtom) {
(*currentRow)[columnIndex] = value;
} else {
nsCAutoString value2;
MorkUnescape(value, value2);
(*currentRow)[columnIndex] = value2;
}
columnIndex = -1;
}
break;
}
}
} while (currentRow && NS_SUCCEEDED(ReadLine(line)));
return NS_OK;
}
nsresult
nsMorkReader::Read(nsIFile *aFile)
{
nsCOMPtr<nsIFileInputStream> stream =
do_CreateInstance(NS_LOCALFILEINPUTSTREAM_CONTRACTID);
NS_ENSURE_TRUE(stream, NS_ERROR_FAILURE);
nsresult rv = stream->Init(aFile, PR_RDONLY, 0, 0);
NS_ENSURE_SUCCESS(rv, rv);
mStream = do_QueryInterface(stream);
NS_ASSERTION(mStream, "file input stream must impl nsILineInputStream");
nsCLineString line;
rv = ReadLine(line);
if (!line.EqualsLiteral("// <!-- <mdb:mork:z v=\"1.4\"/> -->")) {
return NS_ERROR_FAILURE; // unexpected file format
}
IndexMap columnMap;
NS_ENSURE_TRUE(columnMap.Init(), NS_ERROR_OUT_OF_MEMORY);
while (NS_SUCCEEDED(ReadLine(line))) {
// Trim off leading spaces
PRUint32 idx = 0, len = line.Length();
while (idx < len && line[idx] == ' ') {
++idx;
}
if (idx >= len) {
continue;
}
const nsCSubstring &l = Substring(line, idx);
// Look at the line to figure out what section type this is
if (StringBeginsWith(l, NS_LITERAL_CSTRING("< <(a=c)>"))) {
// Column map. We begin by creating a hash of column id to column name.
StringMap columnNameMap;
NS_ENSURE_TRUE(columnNameMap.Init(), NS_ERROR_OUT_OF_MEMORY);
rv = ParseMap(l, &columnNameMap);
NS_ENSURE_SUCCESS(rv, rv);
// Now that we have the list of columns, we put them into a flat array.
// Rows will have value arrays of the same size, with indexes that
// correspond to the columns array. As we insert each column into the
// array, we also make an entry in columnMap so that we can look up the
// index given the column id.
mColumns.SetCapacity(columnNameMap.Count());
AddColumnClosure closure(&mColumns, &columnMap);
columnNameMap.EnumerateRead(AddColumn, &closure);
if (NS_FAILED(closure.result)) {
return closure.result;
}
} else if (StringBeginsWith(l, NS_LITERAL_CSTRING("<("))) {
// Value map
rv = ParseMap(l, &mValueMap);
NS_ENSURE_SUCCESS(rv, rv);
} else if (l[0] == '{' || l[0] == '[') {
// Table / table row
rv = ParseTable(l, columnMap);
NS_ENSURE_SUCCESS(rv, rv);
} else {
// Don't know, hopefully don't care
}
}
return NS_OK;
}
