/**
* Loads the header of a glove data file.
* This is both for the samples and for the trained files.
*
* The header format is:
* -Comments -- # starting<br>
* - num gestures<br>
* -Gesture names<br>
* -Gesture samples<br>
*
* @param infile A file that is already open and ready for reading.
* After running, this routines will leave the file pointer
* immedately after the header.
*/
void GloveGesture::loadFileHeader(std::ifstream& infile)
{
// skip comments
while(infile.peek() == '#')
infile.ignore(4096, '\n'); // Ignore the entire line.
// Get num gestures
int num_gestures;
infile >> num_gestures; // Get the number of gestures
infile.ignore(4096, '\n'); // Ignore the rest of the line
// Get gesture names
int i;
char gest_name[512];
mGestureNames = std::vector<std::string>(num_gestures);
for(i=0; i<num_gestures; i++)
{
infile.getline(gest_name,512);
mGestureNames[i] = std::string(gest_name);
}
mGestureExamples = std::vector<GloveData>(num_gestures);
// Get gesture data
for(i=0; i<num_gestures; i++)
mGestureExamples[i].inputAngles(infile);
}
HillPromReaction::HillPromReaction( std::ifstream& file ) {
for (int i = 0 ; i < NUM_LINE ; i++) {
switch (i) {
case I_PROMOTER_LINE:
file.ignore(256,':');
file >> _i_promoter;
break;
case I_PROMOTED_LINE:
file.ignore(256,':');
file >> _i_promoted;
break;
case KINETIC_LINE:
file.ignore(256,':');
file >> _kinetic;
break;
case K_LINE:
file.ignore(256,':');
file >> _K;
break;
case COOPERATIVITY_LINE:
file.ignore(256,':');
file >> _cooperativity;
break;
default:
break;
}
}
}
/******************************************************************************
name: Reservasjon()
description: Constructor for Reservasjon; creates a reservation from
information read from file.
Parameters sent from Rom is a reference tothe file reading object,
date (arrival date), and the room number
parameters: std::ifstream &infile, int dato, int roomNr
******************************************************************************/
Reservasjon::Reservasjon(std::ifstream &inFile, int dato, int roomNr) : Num_element(dato)
{
occupant = new std::string[MAX_PAA_ROM]; // Create a string array
bills = new List(FIFO); // Create a FIFO list
roomID = roomNr; // Assign roomNr to roomID
arrival = dato; // Assign dato to arrival
inFile >> departure >> numberOfDays >> inUse; // Read data from file
costPrDay = new float[numberOfDays]; // Create a float array
inFile.ignore(); // Ignore and discard character
// Loop through number of days and read from file:
for (int i = 0; i < numberOfDays; i++)
{
inFile >> costPrDay[i]; inFile.ignore();
}
inFile >> extraBed >> bedInUse >> numberOfOccupants; // Read data from file
inFile.ignore(); // Ignore and discard character
// Loop through number of occupants:
for (int i = 1; i <= numberOfOccupants; i++)
{
getline(inFile, occupant[i]);
}
inFile >> numberOfBills; // Read number of bills from file
inFile.ignore(); // Ignore and discard character
// Loop through number of bills:
for (int i = 1; i <= numberOfBills; i++)
{
Regning* reg = new Regning(inFile); // Create a new regning object
bills->add(reg); // Add new bill
}
}
std::tuple<unsigned int, unsigned int, int> parse_ppm_header(std::ifstream &fs)
{
// Check the PPM magic number is valid
std::array<char, 2> magic_number{ { 0 } };
fs >> magic_number[0] >> magic_number[1];
ARM_COMPUTE_ERROR_ON_MSG(magic_number[0] != 'P' || magic_number[1] != '6', "Invalid file type");
ARM_COMPUTE_UNUSED(magic_number);
discard_comments_and_spaces(fs);
unsigned int width = 0;
fs >> width;
discard_comments_and_spaces(fs);
unsigned int height = 0;
fs >> height;
discard_comments_and_spaces(fs);
int max_val = 0;
fs >> max_val;
discard_comments(fs);
ARM_COMPUTE_ERROR_ON_MSG(isspace(fs.peek()) == 0, "Invalid PPM header");
fs.ignore(1);
return std::make_tuple(width, height, max_val);
}
TypedImage LoadPpm(std::ifstream& bFile)
{
// Parse header
std::string ppm_type = "";
int num_colors = 0;
int w = 0;
int h = 0;
bFile >> ppm_type;
PpmConsumeWhitespaceAndComments(bFile);
bFile >> w;
PpmConsumeWhitespaceAndComments(bFile);
bFile >> h;
PpmConsumeWhitespaceAndComments(bFile);
bFile >> num_colors;
bFile.ignore(1,'\n');
if(!bFile.fail() && w > 0 && h > 0) {
TypedImage img(w, h, PpmFormat(ppm_type, num_colors) );
// Read in data
for(size_t r=0; r<img.h; ++r) {
bFile.read( (char*)img.ptr + r*img.pitch, img.pitch );
}
if(!bFile.fail()) {
return img;
}
}
throw std::runtime_error("Unable to load PPM file.");
}
void PpmConsumeWhitespaceAndComments(std::ifstream& bFile)
{
// TODO: Make a little more general / more efficient
while( bFile.peek() == ' ' ) bFile.get();
while( bFile.peek() == '\n' ) bFile.get();
while( bFile.peek() == '#' ) bFile.ignore(4096, '\n');
}
void ResourceManager::getI2NBlock(std::ifstream &file,
Resource::Mapping &mapping,
bool files,
const std::string &dir,
const std::string &ext)
{
uint id;
const int bufferSize = 80;
char buffer[bufferSize];
while (!file.eof() && file.peek() != '#')
{
file >> id;
if (!(file.peek() == '.'))
return;
file.ignore(2, ' ');
file.getline(buffer, bufferSize);
fixLineEnd(buffer);
if (files)
{
std::string path = dir + '/' + std::string(buffer) + ext;
Normalize(path);
mapping[id] = path;
}
else
{
mapping[id] = std::string(buffer);
}
}
}
void readLabels(std::ifstream &file, char delim, const std::string &poslabel, const std::string &neglabel, std::deque<unsigned> &pos, std::deque<unsigned> &neg, bool posvall){
string chunk;
unsigned idx=1;
while(file.good()){
// read first column
chunk.clear();
getline(file,chunk,delim);
if(chunk.empty())
break;
if(chunk.compare(poslabel)==0)
pos.push_back(idx);
else if(posvall)
neg.push_back(idx);
else if(chunk.compare(neglabel)==0)
neg.push_back(idx);
// else
// exit_with_err(std::string("Encountered unknown label: ")+chunk+" ... missing -posvall flag?");
// when encountering an unkown label, ignore it and parse rest of the data
// ignore rest
file.ignore(std::numeric_limits<std::streamsize>::max(), '\n');
++idx;
}
}
inline static void seek_to_line(std::ifstream& file, unsigned line)
{
file.seekg(std::ios::beg);
for (int i = 0; i < line - 1; ++i)
{
file.ignore(std::numeric_limits<std::streamsize>::max(), '\n');
}
}
void mesh::read_vertices(std::ifstream &vfile)
{
for (int i = 0 ; i < nv; ++i)
{
vfile >> v[i].no;
vfile.ignore(100, ':');
vfile >> v[i].r.x >> v[i].r.y >> v[i].marker;
}
}
void AnimatedObjModel::loadDataStructures(std::ifstream& _dataStream, const DataCounts& counts)
{
std::vector<glm::vec3> tVertices;
std::vector<glm::vec2> tTexCoords;
std::vector<glm::vec3> tNormals;
std::vector<FaceType> tFaces;
char tInput1;
int tVertexIndex = 0;
int tTexcoordIndex = 0;
int tNormalIndex = 0;
int tFaceIndex = 0;
int tBoneIndex = 0;
mModel.resize(counts.faces * 3);
//Initialize the four data structures.
tVertices.resize(counts.positions);
tTexCoords.resize(counts.texCoords);
tNormals.resize(counts.normals);
tFaces.resize(counts.faces);
bones.resize(counts.bones);
while(_dataStream)
{
_dataStream.get(tInput1);
if (tInput1 == '#')
{
#undef max
_dataStream.ignore(std::numeric_limits<int>::max(), '\n');
continue;
}
if(tInput1 == 'v')
{
_dataStream.get(tInput1);
//Read in the vertices.
if(tInput1 == ' ')
{
_dataStream >> tVertices[tVertexIndex].x;
_dataStream >> tVertices[tVertexIndex].y;
_dataStream >> tVertices[tVertexIndex].z;
tVertexIndex++;
}
//Read in the texture uv coordinates.
if(tInput1 == 't')
{
_dataStream >> tTexCoords[tTexcoordIndex].x;
_dataStream >> tTexCoords[tTexcoordIndex].y;
tTexcoordIndex++;
}
template <class T> void GetNextToken(std::ifstream& Config, T& Data)
{
if (!Config)
throw std::runtime_error("Config stream is not open !");
std::string buffer;
while (Config.peek() == '#')
Config.ignore(std::numeric_limits<std::streamsize>::max(), '\n');
std::getline(Config, buffer, ' ');
std::cout << "[DEBUG] : " << buffer << std::endl;
Data = ToType<T>(buffer);
}
void mesh::read_sides(std::ifstream &sfile)
{
for (int i = 0 ; i < ns ; ++i)
{
int idx1, idx2;
sfile >> s[i].no;
sfile.ignore(100, ':');
sfile >> idx1 >> idx2;
s[i].v1 = idx1 == -1 ? NULL : &v[idx1]; s[i].v2 = idx2 == -1 ? NULL : &v[idx2];
sfile >> idx1 >> idx2;
s[i].e1 = idx1 == -1 ? NULL : &e[idx1]; s[i].e2 = idx2 == -1 ? NULL : &e[idx2];
sfile >> s[i].marker;
}
}
void sbfMaterialProperties::read(std::ifstream &in)
{
std::getline(in, name_);
size_t numTables;
in >> numTables;
in.ignore(10, '\n');
for(size_t ct = 0; ct < numTables; ct++) {
std::string name;
std::getline(in, name);
auto table = new sbfPropertyTable(name);
table->read(in);
tables_[name] = table;
}
}
void mesh::read_elems(std::ifstream &efile)
{
for (int i = 0 ; i < ne ; ++i)
{
int idx1, idx2, idx3;
efile >> e[i].no;
efile.ignore(100, ':');
efile >> idx1 >> idx2 >> idx3;
e[i].v1 = idx1 == -1 ? NULL : &v[idx1]; e[i].v2 = idx2 == -1 ? NULL : &v[idx2]; e[i].v3 = idx3 == -1 ? NULL : &v[idx3];
efile >> idx1 >> idx2 >> idx3;
e[i].e1 = idx1 == -1 ? NULL : &e[idx1]; e[i].e2 = idx2 == -1 ? NULL : &e[idx2]; e[i].e3 = idx3 == -1 ? NULL : &e[idx3];
efile >> idx1 >> idx2 >> idx3;
e[i].s1 = idx1 == -1 ? NULL : &s[idx1]; e[i].s2 = idx2 == -1 ? NULL : &s[idx2]; e[i].s3 = idx3 == -1 ? NULL : &s[idx3];
efile >> e[i].r.x >> e[i].r.y >> e[i].marker;
}
}
void pnm_read(std::ifstream &file, char *buf)
{
char doc[PNM_BUFFER_SIZE];
char c;
file >> c;
while (c == '#') {
file.getline(doc, PNM_BUFFER_SIZE);
file >> c;
}
file.putback(c);
file.width(PNM_BUFFER_SIZE);
file >> buf;
file.ignore();
}
bool Mail::load(std::ifstream &file)
{
std::string recipient;
file >> id;
if (id != "XXX" && !file.fail())
{
file >> counter;
if (!file.fail())
{
file >> date;
if (!file.fail())
{
file >> from;
if (!file.fail())
{
for (int i = 0; i < counter - 1; i++)
{
file >> recipient;
recipients.push_back(recipient);
}
if (!file.fail())
{
file.ignore();
std::getline(file, subject);
if (!file.fail())
{
std::getline(file, body, '#');
if (!file.fail()) return true;
else return false;
}
else return false;
}
else return false;
}
else return false;
TypedImage LoadPpm(std::ifstream& bFile)
{
// Parse header
std::string ppm_type = "";
int num_colors = 0;
int w = 0;
int h = 0;
bFile >> ppm_type;
PpmConsumeWhitespaceAndComments(bFile);
bFile >> w;
PpmConsumeWhitespaceAndComments(bFile);
bFile >> h;
PpmConsumeWhitespaceAndComments(bFile);
bFile >> num_colors;
bFile.ignore(1,'\n');
TypedImage img;
bool success = !bFile.fail() && w > 0 && h > 0;
if(success) {
img.Alloc(w, h, PpmFormat(ppm_type, num_colors) );
// Read in data
for(size_t r=0; r<img.h; ++r) {
bFile.read( (char*)img.ptr + r*img.pitch, img.pitch );
}
success = !bFile.fail();
}
if(!success) {
img.Dealloc();
}
return img;
}
void Param::lire_int(std::ifstream &fichier, int & x)
{
fichier.ignore( std::numeric_limits<std::streamsize>::max(), ':');
fichier >> x;
}
/**
* \fn void Labyrinthe::chargeLabyrinthe(Couleur couleur, std::ifstream &entree)
* \param[in] couleur, la couleur du jouer auquel le labyrinthe chargé s'applique
* \param[in] entree, fichier contenant la définition du labyrinthe
*/
void Labyrinthe::chargeLabyrinthe(Couleur couleur, std::ifstream &entree)
{
int nbCols, nbRangs;
entree >> nbCols >> nbRangs;
entree.ignore(); //pour consommer le \n (le caractère fin de ligne)
const int MAX_LIGNE = 1000;
char ligne[MAX_LIGNE];
entree.getline(ligne, MAX_LIGNE);
entree.getline(ligne, MAX_LIGNE);
std::ostringstream s; //Une chaîne pour écrire dedans, cette chaîne servira pour nommer les pièces du labyrinthe
for (int i = 0; i < nbCols; i++)
{
for (int j = 0; j < nbRangs; j++)
{
s << i << "," << j;
Piece p(s.str());
s.str("");
ajoutePieceLabyrinthe(p);
}
}
for (int i = 0; i < nbCols; i++)
{
if (ligne[i * 4 + 1] == 'D' || ligne[i * 4 + 1] == 'd')
{
std::string nom;
s << i << ",0";
nom = s.str();
s.str("");
placeDepart(nom);
}
if (ligne[i * 4 + 1] == 'F' || ligne[i * 4 + 1] == 'f' || ligne[i * 4 + 1] == 'A' || ligne[i * 4 + 1] == 'a')
{
std::string nom;
s << i << ",0";
nom = s.str();
s.str("");
placeArrivee(nom);
}
}
for (int j = 0; j < nbRangs; j++)
{
entree.getline(ligne, MAX_LIGNE);
for (int i = (j == nbRangs - 1 && (j & 1)) ? 1 : 0; i < nbCols; i++)
{
if (j & 1)
{
if (j < nbRangs - 2 && ligne[i * 4 + 3] == ' ')
{
ajoutePassage(couleur, i, j, i, j + 2);
}
if (j < nbRangs - 1 && ligne[i * 4 + 2] == ' ')
{
ajoutePassage(couleur, i, j, i, j + 1);
}
if (j < nbRangs - 1 && ligne[i * 4 + 0] == ' ')
{
ajoutePassage(couleur, i - 1, j, i, j + 1);
}
if (j < nbRangs - 1 && (ligne[i * 4 + 1] == 'D' || ligne[i * 4
+ 1] == 'd'))
{
std::string nom;
s << i << "," << j + 1;
nom = s.str();
s.str("");
placeDepart(nom);
}
if (j < nbRangs - 1 && (ligne[i * 4 + 1] == 'F' || ligne[i * 4
+ 1] == 'f' || ligne[i * 4 + 1] == 'A' || ligne[i * 4
+ 1] == 'a'))
{
std::string nom;
s << i << "," << j + 1;
nom = s.str();
s.str("");
placeArrivee(nom);
}
}
else
{
if (j < nbRangs - 1 && ligne[i * 4 + 0] == ' ')
{
ajoutePassage(couleur, i - 1, j + 1, i, j);
}
if (j < nbRangs - 2 && ligne[i * 4 + 1] == ' ')
{
ajoutePassage(couleur, i, j, i, j + 2);
}
if (j < nbRangs - 1 && ligne[i * 4 + 2] == ' ')
{
ajoutePassage(couleur, i, j, i, j + 1);
}
if (j < nbRangs - 1 && (ligne[i * 4 + 3] == 'D' || ligne[i * 4
+ 3] == 'd'))
{
std::string nom;
s << i << "," << j + 1;
nom = s.str();
s.str("");
placeDepart(nom);
}
if (j < nbRangs - 1 && (ligne[i * 4 + 3] == 'F' || ligne[i * 4
+ 3] == 'f' || ligne[i * 4 + 3] == 'A' || ligne[i * 4
+ 3] == 'a'))
{
std::string nom;
s << i << "," << j + 1;
nom = s.str();
s.str("");
placeArrivee(nom);
}
}
}
}
}
void Param::lire_couleur(std::ifstream &fichier, int &x, int &y, int &z)
{
fichier.ignore( std::numeric_limits<std::streamsize>::max(), ':');
fichier >> x >> y >> z;
}
HelperMesh JObjectLoader::getMesh(std::ifstream & stream){
std::string garbage, info;
if(stream.eof()){
exit(0);
}
std::vector<glm::vec3> positions;
std::vector<glm::vec3> normals;
std::vector<glm::vec3> tangents;
std::vector<glm::vec2> textureCoords;
std::vector<GLuint> indices;
HelperMesh mesh;
stream >> mesh.meshName;
stream.ignore(150,'\n');
bool nextMesh =false;
do{
stream>> info;
if(stream.eof())
break;
switch(getTypeID(info)){
case VERTEX:{
glm::vec3 v;
stream >> v.x >> v.y >> v.z;
positions.push_back(v);
stream.ignore(150,'\n');
break;
}case NORMAL:{
glm::vec3 v;
stream >> v.x >> v.y >> v.z;
normals.push_back(v);
stream.ignore(150,'\n');
break;
}case TEX_COORD:{
glm::vec2 v;
stream >> v.x >> v.y;
textureCoords.push_back(v);
stream.ignore(150,'\n');
break;
}case INDEX: {
std::string s1,s2,s3;
stream >> s1 >> s2 >> s3;
addToIndices(s1,s2,s3,indices);
stream.ignore(150,'\n');
break;
}case TANGENT:{
glm::vec3 v;
stream >> v.x >> v.y >> v.z;
tangents.push_back(v);
stream.ignore(150,'\n');
break;
}case MATERIAL:{
stream >> info;
mesh.materialName = info;
stream.ignore(150,'\n');
stream.ignore(150,'\n');
break;
}case OBJECT:{
nextMesh = true;
break;
}case -1:{
// EOF
nextMesh =true;
break;
}
}
}while(!stream.eof() && !nextMesh);
std::vector<glm::vec3> newPos, newNormals, newTangents;
std::vector<glm::vec2> newTexCoords;
newPos.reserve(indices.size());
newNormals.reserve(indices.size());
newTangents.reserve(indices.size());
// newTexCoords.reserve(indices.size()/3);
for(int i =0; i < indices.size(); i+=9){
newPos.push_back(positions[indices[i]]);
newPos.push_back(positions[indices[i+3]]);
newPos.push_back(positions[indices[i+6]]);
newTexCoords.push_back(textureCoords[indices[i+1]]);
newTexCoords.push_back(textureCoords[indices[i+4]]);
newTexCoords.push_back(textureCoords[indices[i+7]]);
newNormals.push_back(normals[indices[i+2]]);
newNormals.push_back(normals[indices[i+5]]);
newNormals.push_back(normals[indices[i+8]]);
}
std::vector<GLuint> temp;
for(int i = 0; i < indices.size()/3; i ++){
temp.push_back(i);
}
mesh.indices = std::move(temp);
mesh.positions = newPos;
mesh.textureCoords = newTexCoords;
mesh.normals = newNormals;
// ERROR NOT EVEN SETTING VERTEs
return mesh;
}
static void
read(CrsMatrixType &A, std::ifstream &file) {
// static_assert( Kokkos::Impl::is_same<
// typename CrsMatrixType::space_type,
// Kokkos::HostSpace
// >::value,
// "Space type of the input should be HostSpace" );
typedef typename CrsMatrixType::value_type value_type;
typedef typename CrsMatrixType::ordinal_type ordinal_type;
typedef typename CrsMatrixType::size_type size_type;
// coordinate format
typedef Coo<ordinal_type,value_type> ijv_type;
//typedef typename CrsMatrixType::space_type space_type;
//typedef Kokkos::RangePolicy<space_type,Kokkos::Schedule<Kokkos::Static> > range_policy_type;
ordinal_type m, n;
size_type nnz;
std::vector<ijv_type> mm;
const ordinal_type mm_base = 1;
{
std::string header;
if (file.is_open()) {
std::getline(file, header);
while (file.good()) {
char c = file.peek();
if (c == '%' || c == '\n') {
file.ignore(256, '\n');
continue;
}
break;
}
} else {
TACHO_TEST_FOR_ABORT(true, MSG_INVALID_INPUT(file));
}
// check the header
bool symmetry = (header.find("symmetric") != std::string::npos);
// read matrix specification
file >> m >> n >> nnz;
mm.reserve(nnz*(symmetry ? 2 : 1));
for (size_type i=0;i<nnz;++i) {
ordinal_type row, col;
value_type val;
file >> row >> col >> val;
row -= mm_base;
col -= mm_base;
mm.push_back(ijv_type(row, col, val));
if (symmetry && row != col)
mm.push_back(ijv_type(col, row, val));
}
// sort by row major order
std::sort(mm.begin(), mm.end(), std::less<ijv_type>());
}
// change mm to crs
std::vector<size_type> ap;
std::vector<ordinal_type> aj;
std::vector<value_type> ax;
ap.reserve(m+1);
aj.reserve(nnz);
ax.reserve(nnz);
{
ordinal_type ii = 0;
size_type jj = 0;
ijv_type prev = mm[0];
ap.push_back(0);
aj.push_back(prev.Col());
ax.push_back(prev.Val());
for (auto //typename std::vector<ijv_type>::const_iterator
it=(mm.begin()+1);it<mm.end();++it) {
ijv_type aij = (*it);
// row index
if (aij.Row() != prev.Row())
ap.push_back(aj.size());
if (aij == prev) {
aj.back() = aij.Col();
ax.back() += aij.Val();
} else {
aj.push_back(aij.Col());
ax.push_back(aij.Val());
}
prev = aij;
}
// add the last index to terminate the storage
ap.push_back(aj.size());
nnz = aj.size();
}
// create crs matrix view
A.create(m, n, nnz);
for (ordinal_type i=0;i<m;++i) {
A.RowPtrBegin(i) = ap.at(i);
A.RowPtrEnd(i) = ap.at(i+1);
}
for (ordinal_type k=0;k<nnz;++k) {
A.Col(k) = aj.at(k);
A.Value(k) = ax.at(k);
}
}
void Param::lire_string(std::ifstream &fichier, std::string &destination)
{
fichier.ignore( std::numeric_limits<std::streamsize>::max(), ':');
std::getline(fichier, destination);
destination.erase(0,1);
}
void MD5Helper::ignoreLine(std::ifstream& file, int length)
{
file.ignore(length, '\n');
}
void Param::lire_position(std::ifstream &fichier, int & x, int & y)
{
fichier.ignore( std::numeric_limits<std::streamsize>::max(), ':');
fichier >> x >> y;
}
inline void skipnl(std::ifstream& f) {
f.ignore(numeric_limits<streamsize>::max(),'‘\n’');
}
void TextureAtlasLoader::ProcessComment (std::ifstream& file)
{
file.ignore (std::numeric_limits<std::streamsize>::max(), '\n');
}
void test_a_conversion(char cmd, tlm_generic_payload &txn, std::ifstream & fin) {
if(cmd == 'R') txn.set_read();
else txn.set_write();
fin.ignore(10000,'=');
uint64 a;
fin >> a;
txn.set_address(a);
fin.ignore(10000,'=');
int l;
fin >> l;
txn.set_data_length(l);
int bus_width;
fin.ignore(10000,'='); fin >> bus_width;
int data_width;
fin.ignore(10000,'='); fin >> data_width;
int initiator_offset;
fin.ignore(10000,'='); fin >> initiator_offset;
unsigned char *original_byte_enable = 0;
unsigned char *byte_enable_legible =
new unsigned char[txn.get_data_length() + 1];
memset(byte_enable_legible, 0, txn.get_data_length() + 1);
fin.ignore(10000,'=');
for(unsigned b=0; b<txn.get_data_length(); b++) {
char tmp; fin >> tmp;
if((tmp=='0')||(tmp=='1')||(tmp=='x')) byte_enable_legible[b]=tmp;
else break;
}
if((byte_enable_legible[0] == '1') || (byte_enable_legible[0] == '0')) {
txn.set_byte_enable_ptr(new unsigned char[txn.get_data_length()]);
txn.set_byte_enable_length(txn.get_data_length());
original_byte_enable = txn.get_byte_enable_ptr();
for(unsigned int i=0; i<txn.get_data_length(); i++) {
if(byte_enable_legible[i] == '0') {
txn.get_byte_enable_ptr()[i] = TLM_BYTE_DISABLED;
} else if(byte_enable_legible[i] == '1') {
txn.get_byte_enable_ptr()[i] = TLM_BYTE_ENABLED;
} else {
// not enough byte enables
txn.set_byte_enable_length(i);
break;
}
}
} else {
txn.set_byte_enable_ptr(0);
txn.set_byte_enable_length(0);
}
int stream_width;
fin.ignore(10000,'='); fin >> stream_width;
txn.set_streaming_width(stream_width);
cout << "enter initiator memory state = ("<< BUFFER_SIZE << " characters)\n";
unsigned char initiator_mem[BUFFER_SIZE+1];
memset(initiator_mem, 0, BUFFER_SIZE+1);
fin.ignore(10000,'='); fin >> initiator_mem;
txn.set_data_ptr(initiator_mem + initiator_offset);
cout << "enter target memory state = ("<< BUFFER_SIZE << " characters)\n";
unsigned char target_mem[BUFFER_SIZE+1];
memset(target_mem, 0, BUFFER_SIZE+1);
fin.ignore(10000,'='); fin >> target_mem;
cout << "enter converter choice = (0 => generic, 1 => word, 2 => aligned, 3 => single)\n";
int converter;
fin.ignore(10000,'='); fin >> converter;
cout << "Initiator Intent\n";
cout << " Cmd = " << cmd << endl;
cout << " Addr = " << txn.get_address() << endl;
cout << " Len = " << txn.get_data_length() << endl;
cout << " Bus Width = " << bus_width << endl;
cout << " Data Word = " << data_width << endl;
#ifdef VERBOSE
cout << " Initiator offset and txn data pointer = " << initiator_offset << ", " << int(txn.get_data_ptr()) << endl;
cout << " Byte enables and byte enable pointer = " << byte_enable_legible << ", " << int(txn.get_byte_enable_ptr()) << endl;
#else
cout << " Initiator offset = " << initiator_offset << endl;
cout << " Byte enables = " << byte_enable_legible << endl;
#endif
cout << " Byte enable length = " << txn.get_byte_enable_length() << endl;
cout << " Streaming width = " << txn.get_streaming_width() << endl;
cout << " Initiator memory = " << initiator_mem << endl;
cout << " Target memory = " << target_mem << endl;
cout << " Converter = " << converter << endl << endl;
// initiator //
switch(converter) {
case 0: convert(tlm_to_hostendian_generic); break;
case 1: convert(tlm_to_hostendian_word); break;
case 2: convert(tlm_to_hostendian_aligned); break;
case 3: convert(tlm_to_hostendian_single); break;
case 4: convert(local_single_tohe); break;
default: cout << "no such converter as " << converter << endl;
exit(1);
}
cout << "Converted Transaction\n";
cout << " Addr = " << txn.get_address() << endl;
cout << " Len = " << txn.get_data_length() << endl;
#ifdef VERBOSE
cout << " Txn data pointer = " << int(txn.get_data_ptr()) << endl;
if(txn.get_byte_enable_ptr() != 0) {
cout << " Byte enables and byte enable pointer = ";
for(unsigned int i=0; i<txn.get_data_length(); i++)
cout << (txn.get_byte_enable_ptr()[i] ? '1' : '0');
cout << ", " << int(txn.get_byte_enable_ptr()) << endl;
}
#else
cout << " Txn data pointer = " <<
(txn.get_data_ptr() == initiator_mem+initiator_offset ? "unchanged" : "changed") << endl;
if(txn.get_byte_enable_ptr() != 0) {
cout << " Byte enables and byte enable pointer = ";
for(unsigned int i=0; i<txn.get_data_length(); i++)
cout << (txn.get_byte_enable_ptr()[i] ? '1' : '0');
cout << ", " <<
(txn.get_byte_enable_ptr() == original_byte_enable ? "unchanged" : "changed") << endl;
}
#endif
cout << " Byte enable length = " << txn.get_byte_enable_length() << endl;
cout << " Streaming width = " << txn.get_streaming_width() << endl;
cout << endl;
// target //
int sw = txn.get_streaming_width();
if((txn.get_data_length()/sw)*sw != txn.get_data_length()) {
cout << "ERROR: Data length not a multiple of streaming width\n";
exit(1);
}
for(unsigned int ss = 0; ss < txn.get_data_length(); ss += sw) {
if(txn.get_byte_enable_ptr() == 0) {
// simple transaction can be processed by mem-copy
if(txn.is_read())
memcpy(ss+txn.get_data_ptr(), target_mem+txn.get_address(), sw);
else
memcpy(target_mem+txn.get_address(), ss+txn.get_data_ptr(), sw);
} else {
// complex transaction, byte enables, maybe shorter than data
int bel = txn.get_byte_enable_length();
if(txn.is_read()) {
for(int j=0; j<sw; j++) {
if(txn.get_byte_enable_ptr()[(ss+j) % bel])
(txn.get_data_ptr())[ss+j] = target_mem[j+txn.get_address()];
}
} else {
for(int j=0; j<sw; j++) {
if(txn.get_byte_enable_ptr()[(ss+j) % bel])
target_mem[j+txn.get_address()] = (txn.get_data_ptr())[ss+j];
}
}
}
}
// initiator again //
if((rand() & 0x100) && (converter < 4)) {
#ifdef VERBOSE
cout << "using single entry point for response\n";
#endif
tlm_from_hostendian(&txn);
} else {
#ifdef VERBOSE
cout << "using specific entry point for response\n";
#endif
switch(converter) {
case 0: convert(tlm_from_hostendian_generic); break;
case 1: convert(tlm_from_hostendian_word); break;
case 2: convert(tlm_from_hostendian_aligned); break;
case 3: convert(tlm_from_hostendian_single); break;
case 4: convert(local_single_fromhe); break;
default: cout << "no such converter as " << converter << endl;
exit(1);
}
}
// print the results //
cout << "Memory States after Transaction\n";
cout << " initiator = " << initiator_mem << endl;
cout << " target = " << target_mem << endl << endl;
// clean up
delete [] byte_enable_legible;
if(original_byte_enable != 0) delete [] original_byte_enable;
}
virtual size_t skip(size_t num) {
std::unique_lock<std::mutex> lock(m_mutex); // Released when out of scope
ensureStream();
m_stream.ignore(num);
return m_stream.gcount();
}
