/*!
Returns TRUE if the property shall be stored for object \a o;
otherwise returns FALSE.
If no object \a o is given, the function returns a static
approximation.
*/
bool QMetaProperty::stored( QObject* o ) const
{
if ( !isValid() || !writable() )
return FALSE;
if ( o ) {
int idx = _id >= 0 ? _id : (*meta)->indexOfProperty( this, TRUE );
return idx >= 0 && o->qt_property( idx, 5, 0 );
}
if ( testFlags( StoredOverride ) ) {
const QMetaObject* mo = (*meta);
const QMetaProperty* parent = mo->resolveProperty( this );
return parent ? parent->stored() : FALSE;
}
return !testFlags( NotStored );
}
std::vector<flock> getSharedFiles(const std::wstring& path){
FILE_INFO_3* pFiles = NULL;
DWORD nRead = 0, nTotal = 0;
std::vector<flock> ret;
std::vector<long> ids;
int res = ERROR_MORE_DATA;
std::vector<wchar_t> writable(path.begin(), path.end());
writable.push_back('\0');
int totalDone = 0;
while(res==ERROR_MORE_DATA){
try{
res = NetFileEnum(
NULL, // servername, NULL means localhost
&writable[0], // basepath, directory where VB6 program is
NULL, // username, searches for all users
3, // level, we just need resource ID
(BYTE**)&pFiles, // bufptr,
MAX_PREFERRED_LENGTH, // prefmaxlen, collect as much as possible
&nRead, // entriesread, number of entries stored in pFiles
&nTotal, // totalentries, ignore this
NULL //resume_handle, ignore this
);
}
catch(int exx){
printf("%i",exx);
break;
}
for (unsigned int i=0; i < nRead; ++i){
//int nret = NetFileClose(NULL, pFiles[i].fi2_id);
flock tmp(pFiles[i]);
ret.push_back(tmp);
}
NetApiBufferFree(pFiles);
}
return ret;
}
int VpiSignalObjHdl::set_signal_value(std::string &value)
{
FENTER
s_vpi_value value_s;
std::vector<char> writable(value.begin(), value.end());
writable.push_back('\0');
value_s.value.str = &writable[0];
value_s.format = vpiBinStrVal;
vpi_put_value(GpiObjHdl::get_handle<vpiHandle>(), &value_s, NULL, vpiNoDelay);
check_vpi_error();
FEXIT
return 0;
}
void load_tga_image(std::string nome, GLuint texture, bool transparency)
{
std::string impathfile = "textures/" + nome + ".tga";
std::vector<char> writable(impathfile.begin(), impathfile.end());
writable.push_back('\0');
// Carrega a imagem de textura
im = tgaLoad(&writable[0]);
//printf("IMAGE INFO: %s\nstatus: %d\ntype: %d\npixelDepth: %d\nsize%d x %d\n", impathfile, im->status, im->type, im->pixelDepth, im->width, im->height);
// Seleciona a textura atual
glBindTexture(GL_TEXTURE_2D, texture);
// set up quadric object and turn on FILL draw style for it
mysolid = gluNewQuadric();
gluQuadricDrawStyle(mysolid, GLU_FILL);
// turn on texture coordinate generator for the quadric
gluQuadricTexture(mysolid, GL_TRUE);
// select modulate to mix texture with color for shading
glTexEnvf(GL_TEXTURE_ENV, GL_TEXTURE_ENV_MODE, GL_MODULATE);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MIN_FILTER, GL_LINEAR_MIPMAP_LINEAR); // MIPMAP
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MIN_FILTER, GL_LINEAR);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MAG_FILTER, GL_LINEAR);
// build our texture mipmaps
if (!transparency){
gluBuild2DMipmaps(GL_TEXTURE_2D, GL_RGB, im->width, im->height, GL_RGB, GL_UNSIGNED_BYTE, im->imageData); // MIPMAP
glTexImage2D(GL_TEXTURE_2D, 0, GL_RGB, im->width, im->height, 0, GL_RGB, GL_UNSIGNED_BYTE, im->imageData);
}
else{
//Textura com transparência (anéis de saturno)
gluBuild2DMipmaps(GL_TEXTURE_2D, GL_RGB, im->width, im->height, GL_RGB, GL_UNSIGNED_BYTE, im->imageData); // MIPMAP
glTexImage2D(GL_TEXTURE_2D, 0, GL_RGBA, im->width, im->height, 0, GL_RGBA, GL_UNSIGNED_BYTE, im->imageData);
}
// Destroi a imagem
tgaDestroy(im);
}
bool Repo::initSchema(int repoId, bool& isWritable) {
if (!schemaExists(repoId)) {
if (createSchema(repoId)) {
// Check whether this failure is due to losing the schema
// initialization race with another process.
if (!schemaExists(repoId)) {
return true;
}
} else {
// createSchema() successfully wrote to the database, so no further
// verification is necessary.
return false;
}
}
if (isWritable) {
isWritable = writable(repoId);
}
return false;
}
static void write_string(struct oport *p, prt_level level, struct string *print)
{
uvalue l = string_len(print);
if (level == prt_display)
pswrite(p, print, 0, l);
else
{
unsigned char *str = (unsigned char *)alloca(l + 1);
unsigned char *endstr;
memcpy((char *)str, print->str, l + 1);
GCPRO1(p);
/* The NULL byte at the end doesn't count */
endstr = str + l;
pputc('"', p);
while (str < endstr)
{
unsigned char *pos = str;
while (pos < endstr && writable(*pos)) pos++;
opwrite(p, (char *)str, pos - str);
if (pos < endstr) /* We stopped for a \ */
{
pputc('\\', p);
switch (*pos)
{
case '\\': case '"': pputc(*pos, p); break;
case '\n': pputc('n', p); break;
case '\r': pputc('r', p); break;
case '\t': pputc('t', p); break;
case '\f': pputc('f', p); break;
default: pprintf(p, "%o", *pos); break;
}
str = pos + 1;
}
else str = pos;
}
pputc('"', p);
GCPOP(1);
}
}
GpiObjHdl* VpiImpl::native_check_create(std::string &name, GpiObjHdl *parent)
{
int32_t type;
vpiHandle new_hdl;
GpiObjHdl *new_obj = NULL;
std::vector<char> writable(name.begin(), name.end());
writable.push_back('\0');
new_hdl = vpi_handle_by_name(&writable[0], NULL);
if (!new_hdl)
return NULL;
if (vpiUnknown == (type = vpi_get(vpiType, new_hdl))) {
vpi_free_object(new_hdl);
return new_obj;
}
/* What sort of isntance is this ?*/
switch (type) {
case vpiNet:
case vpiReg:
case vpiParameter:
new_obj = new VpiSignalObjHdl(this, new_hdl);
break;
case vpiStructVar:
case vpiModule:
case vpiInterface:
case vpiModport:
new_obj = new GpiObjHdl(this, new_hdl);
break;
default:
LOG_INFO("Not sure what to do with type %d for entity (%s)", type, name.c_str());
return NULL;
}
new_obj->initialise(name);
return new_obj;
}
static int write_to_file(char* logfile, char* buf, int size){
int ret = 0;
struct file * f = NULL;
BEGIN_KMEM;
f = filp_open(logfile, O_CREAT|O_APPEND, 00600);
if(IS_ERR(f)){
printk(KERN_INFO "Error %ld opening %s\n", -PTR_ERR(f), logfile);
ret = -1;
} else{
if(writable(f))
write(f, buf, size);
else{
printk(KERN_INFO "%s does not have a write method\n", logfile);
ret = -1;
}
if((ret = filp_close(f,NULL)))
printk("Error %d closing %s\n", -ret, logfile);
}
END_KMEM;
return ret;
}
int
main(int argc, char *argv [])
{
// make a copy as we don't want to modify argv[0], copy it to a vector to
// guarantee that memory is correctly managed/exception safe
std::string programName {argv[0]};
std::vector<char> writable(programName.size() + 1);
std::copy(programName.begin(), programName.end(), writable.begin());
ring::fileutils::set_program_dir(writable.data());
#ifdef TOP_BUILDDIR
if (!getenv("CODECS_PATH"))
setenv("CODECS_PATH", TOP_BUILDDIR "/src/media/audio/codecs", 1);
#endif
print_title();
bool persistent = false;
if (parse_args(argc, argv, persistent))
return 0;
// initialize client/library
try {
dbusClient.reset(new DBusClient {ringFlags, persistent});
} catch (const std::exception& ex) {
std::cerr << "One does not simply initialize the DBus client: " << ex.what() << std::endl;
return 1;
}
// TODO: Block signals for all threads but the main thread, decide how/if we should
// handle other signals
signal(SIGINT, signal_handler);
signal(SIGHUP, signal_handler);
signal(SIGTERM, signal_handler);
return run();
}
static void delnet(struct line line) {
struct {
int netid;
} __attribute__((__packed__)) args;
sscan(line, "-i", &args);
struct sockifo* ifo = find(args.netid);
if (!ifo)
die("Cannot find network %d in delnet", args.netid);
ifo->state.mplex_dropped = 1;
if (ifo->fd >= 0)
qprintf(&sockets->net[0].sendq, "D %d Drop Requested\n", ifo->netid);
#if SSL_ENABLED
if (ifo->state.ssl)
ssl_drop(ifo);
else
#endif
{
ifo->state.poll = POLL_FORCE_WOK;
writable(ifo);
}
}
/*
* Let's do it. We end up doing a lot of file opening and closing,
* but what do we care? This application isn't run constantly.
*/
int main(int argc, char *argv[])
{
FILE *ftemp = NULL;
FILE *fpw = NULL;
char user[MAX_STRING_LEN];
char password[MAX_STRING_LEN];
char record[MAX_STRING_LEN];
char line[MAX_STRING_LEN];
char pwfilename[MAX_STRING_LEN];
char *arg;
int found = 0;
int alg = ALG_CRYPT;
int newfile = 0;
int nofile = 0;
int noninteractive = 0;
int i;
int args_left = 2;
tempfilename = NULL;
signal(SIGINT, (void (*)(int)) interrupted);
/*
* Preliminary check to make sure they provided at least
* three arguments, we'll do better argument checking as
* we parse the command line.
*/
if (argc < 3) {
return usage();
}
/*
* Go through the argument list and pick out any options. They
* have to precede any other arguments.
*/
for (i = 1; i < argc; i++) {
arg = argv[i];
if (*arg != '-') {
break;
}
while (*++arg != '\0') {
if (*arg == 'c') {
newfile++;
}
else if (*arg == 'n') {
nofile++;
args_left--;
}
else if (*arg == 'm') {
alg = ALG_APMD5;
}
else if (*arg == 's') {
alg = ALG_APSHA;
}
else if (*arg == 'p') {
alg = ALG_PLAIN;
}
else if (*arg == 'd') {
alg = ALG_CRYPT;
}
else if (*arg == 'b') {
noninteractive++;
args_left++;
}
else {
return usage();
}
}
}
/*
* Make sure we still have exactly the right number of arguments left
* (the filename, the username, and possibly the password if -b was
* specified).
*/
if ((argc - i) != args_left) {
return usage();
}
if (newfile && nofile) {
fprintf(stderr, "%s: -c and -n options conflict\n", argv[0]);
return ERR_SYNTAX;
}
if (nofile) {
i--;
}
else {
if (strlen(argv[i]) > (sizeof(pwfilename) - 1)) {
fprintf(stderr, "%s: filename too long\n", argv[0]);
return ERR_OVERFLOW;
}
strcpy(pwfilename, argv[i]);
if (strlen(argv[i + 1]) > (sizeof(user) - 1)) {
fprintf(stderr, "%s: username too long (>%lu)\n", argv[0],
(unsigned long)(sizeof(user) - 1));
return ERR_OVERFLOW;
}
}
strcpy(user, argv[i + 1]);
if ((arg = strchr(user, ':')) != NULL) {
fprintf(stderr, "%s: username contains illegal character '%c'\n",
argv[0], *arg);
return ERR_BADUSER;
}
if (noninteractive) {
if (strlen(argv[i + 2]) > (sizeof(password) - 1)) {
fprintf(stderr, "%s: password too long (>%lu)\n", argv[0],
(unsigned long)(sizeof(password) - 1));
return ERR_OVERFLOW;
}
strcpy(password, argv[i + 2]);
}
#if (!(defined(WIN32) || defined(TPF) || defined(NETWARE)))
if (alg == ALG_PLAIN) {
fprintf(stderr,"Warning: storing passwords as plain text might "
"just not work on this platform.\n");
}
#endif
if (! nofile) {
/*
* Only do the file checks if we're supposed to frob it.
*
* Verify that the file exists if -c was omitted. We give a special
* message if it doesn't.
*/
if ((! newfile) && (! exists(pwfilename))) {
fprintf(stderr,
"%s: cannot modify file %s; use '-c' to create it\n",
argv[0], pwfilename);
perror("fopen");
exit(ERR_FILEPERM);
}
/*
* Verify that we can read the existing file in the case of an update
* to it (rather than creation of a new one).
*/
if ((! newfile) && (! readable(pwfilename))) {
fprintf(stderr, "%s: cannot open file %s for read access\n",
argv[0], pwfilename);
perror("fopen");
exit(ERR_FILEPERM);
}
/*
* Now check to see if we can preserve an existing file in case
* of password verification errors on a -c operation.
*/
if (newfile && exists(pwfilename) && (! readable(pwfilename))) {
fprintf(stderr, "%s: cannot open file %s for read access\n"
"%s: existing auth data would be lost on "
"password mismatch",
argv[0], pwfilename, argv[0]);
perror("fopen");
exit(ERR_FILEPERM);
}
/*
* Now verify that the file is writable!
*/
if (! writable(pwfilename)) {
fprintf(stderr, "%s: cannot open file %s for write access\n",
argv[0], pwfilename);
perror("fopen");
exit(ERR_FILEPERM);
}
}
/*
* All the file access checks (if any) have been made. Time to go to work;
* try to create the record for the username in question. If that
* fails, there's no need to waste any time on file manipulations.
* Any error message text is returned in the record buffer, since
* the mkrecord() routine doesn't have access to argv[].
*/
i = mkrecord(user, record, sizeof(record) - 1,
noninteractive ? password : NULL,
alg);
if (i != 0) {
fprintf(stderr, "%s: %s\n", argv[0], record);
exit(i);
}
if (nofile) {
printf("%s\n", record);
exit(0);
}
/*
* We can access the files the right way, and we have a record
* to add or update. Let's do it..
*/
errno = 0;
tempfilename = tmpnam(tname_buf);
if ((tempfilename == NULL) || (*tempfilename == '\0')) {
fprintf(stderr, "%s: unable to generate temporary filename\n",
argv[0]);
if (errno == 0) {
errno = ENOENT;
}
perror("tmpnam");
exit(ERR_FILEPERM);
}
ftemp = fopen(tempfilename, "w+");
if (ftemp == NULL) {
fprintf(stderr, "%s: unable to create temporary file '%s'\n", argv[0],
tempfilename);
perror("fopen");
exit(ERR_FILEPERM);
}
/*
* If we're not creating a new file, copy records from the existing
* one to the temporary file until we find the specified user.
*/
if (! newfile) {
char scratch[MAX_STRING_LEN];
fpw = fopen(pwfilename, "r");
while (! (mygetline(line, sizeof(line), fpw))) {
char *colon;
if ((line[0] == '#') || (line[0] == '\0')) {
putline(ftemp, line);
continue;
}
strcpy(scratch, line);
/*
* See if this is our user.
*/
colon = strchr(scratch, ':');
if (colon != NULL) {
*colon = '\0';
}
if (strcmp(user, scratch) != 0) {
putline(ftemp, line);
continue;
}
found++;
break;
}
}
if (found) {
fprintf(stderr, "Updating ");
}
else {
fprintf(stderr, "Adding ");
}
fprintf(stderr, "password for user %s\n", user);
/*
* Now add the user record we created.
*/
putline(ftemp, record);
/*
* If we're updating an existing file, there may be additional
* records beyond the one we're updating, so copy them.
*/
if (! newfile) {
copy_file(ftemp, fpw);
fclose(fpw);
}
/*
* The temporary file now contains the information that should be
* in the actual password file. Close the open files, re-open them
* in the appropriate mode, and copy them file to the real one.
*/
fclose(ftemp);
fpw = fopen(pwfilename, "w+");
ftemp = fopen(tempfilename, "r");
copy_file(fpw, ftemp);
fclose(fpw);
fclose(ftemp);
unlink(tempfilename);
return 0;
}
bool PlatformRegion::accessible() const {
return readable() || writable() || executable();
}
void TypedData< TimePeriod >::load( LoadContextPtr context )
{
Data::load( context );
unsigned int v = 0;
ConstIndexedIOPtr container = context->container( staticTypeName(), v );
std::string beginStr;
container->read( g_beginEntry, beginStr );
boost::posix_time::ptime begin;
try
{
begin = boost::posix_time::from_iso_string( beginStr );
}
catch ( boost::bad_lexical_cast )
{
/// Do these checks here instead of first as they're likely to be the least-used cases.
if ( beginStr == "not-a-date-time" )
{
begin = boost::posix_time::not_a_date_time;
}
else if ( beginStr == "+infinity" )
{
begin = boost::posix_time::pos_infin;
}
else if ( beginStr == "-infinity" )
{
begin = boost::posix_time::neg_infin;
}
else
{
throw;
}
}
std::string endStr;
container->read( g_endEntry, endStr );
boost::posix_time::ptime end;
try
{
end = boost::posix_time::from_iso_string( endStr );
}
catch ( boost::bad_lexical_cast )
{
/// Do these checks here instead of first as they're likely to be the least-used cases.
if ( endStr == "not-a-date-time" )
{
end = boost::posix_time::not_a_date_time;
}
else if ( endStr == "+infinity" )
{
end = boost::posix_time::pos_infin;
}
else if ( endStr == "-infinity" )
{
end = boost::posix_time::neg_infin;
}
else
{
throw;
}
}
writable() = boost::posix_time::time_period( begin, end );
}
u32int FSNode::removeSC() {
if (!writable()) return 0;
return (VFS::remove(this) ? 1 : 0);
}
void PlyReader::parseFile()
{
SURGSIM_ASSERT(isValid()) << "'" << m_filename << "' is an invalid .ply file";
if (m_startParseFileCallback != nullptr)
{
m_startParseFileCallback();
}
char* currentElementName;
for (int elementIndex = 0; elementIndex < m_data->elementCount; ++elementIndex)
{
currentElementName = m_data->elementNames[elementIndex];
int numberOfElements;
int propertyCount;
// Free this after we are done with it
PlyProperty** properties =
ply_get_element_description(m_data->plyFile, currentElementName, &numberOfElements, &propertyCount);
std::vector<int> listOffsets;
// Check if the user wanted this element, if yes process
if (m_requestedElements.find(currentElementName) != m_requestedElements.end())
{
ElementInfo& elementInfo = m_requestedElements[currentElementName];
// Build the propertyinfo structure
for (size_t propertyIndex = 0; propertyIndex < elementInfo.requestedProperties.size(); ++propertyIndex)
{
PropertyInfo& propertyInfo = elementInfo.requestedProperties[propertyIndex];
PlyProperty requestedProperty = {nullptr, 0, 0, 0, 0, 0, 0, 0};
// Create temp char*
std::vector<char> writable(propertyInfo.propertyName.size() + 1);
std::copy(propertyInfo.propertyName.begin(), propertyInfo.propertyName.end(), writable.begin());
requestedProperty.name = &writable[0];
requestedProperty.internal_type = propertyInfo.dataType;
requestedProperty.offset = propertyInfo.dataOffset;
requestedProperty.count_internal = propertyInfo.countType;
requestedProperty.count_offset = propertyInfo.countOffset;
requestedProperty.is_list = (propertyInfo.countType != 0) ? PLY_LIST : PLY_SCALAR;
if (requestedProperty.is_list == PLY_LIST)
{
listOffsets.push_back(propertyInfo.dataOffset);
}
// Tell ply that we want this property to be read and put into the readbuffer
ply_get_property(m_data->plyFile, currentElementName, &requestedProperty);
}
void* readBuffer = elementInfo.startElementCallback(currentElementName, numberOfElements);
for (int element = 0; element < numberOfElements; ++element)
{
ply_get_element(m_data->plyFile, readBuffer);
if (elementInfo.processElementCallback != nullptr)
{
try
{
elementInfo.processElementCallback(currentElementName);
}
catch (const std::exception&)
{
for (size_t i = 0; i<listOffsets.size(); ++i)
{
void** item = (void **)((char *)readBuffer + listOffsets[i]); // NOLINT
free(item[0]);
}
for (int i = 0; i < propertyCount; ++i)
{
free(properties[i]->name);
free(properties[i]);
}
free(properties);
throw;
}
}
// Free the lists that where allocated by plyreader
// This gains access to the buffer, where ply.c put the address of
// the memory that was allocated to carry the information for the list property
// it does that for all properties that where marked as lists
for (size_t i = 0; i<listOffsets.size(); ++i)
{
void** item = (void **)((char *)readBuffer + listOffsets[i]); // NOLINT
free(item[0]);
}
}
if (elementInfo.endElementCallback != nullptr)
{
elementInfo.endElementCallback(currentElementName);
}
}
else
{
// Inefficient way to skip an element, but there does not seem to be an
// easy way to ignore an element
// The data for other is stored internally in the plyFile data structure
// and should not be freed
ply_get_other_element(m_data->plyFile, currentElementName, numberOfElements);
}
// Free the data allocated in the ply_get_element_description call
for (int i = 0; i < propertyCount; ++i)
{
free(properties[i]->name);
free(properties[i]);
}
free(properties);
}
if (m_endParseFileCallback != nullptr)
{
m_endParseFileCallback();
}
}
/**
* @name Native Check Create
* @brief Determine whether a simulation object is native to FLI and create
* a handle if it is
*/
GpiObjHdl* FliImpl::native_check_create(std::string &name, GpiObjHdl *parent)
{
bool search_rgn = false;
bool search_sig = false;
bool search_var = false;
std::string fq_name = parent->get_fullname();
gpi_objtype_t obj_type = parent->get_type();
if (fq_name == "/") {
fq_name += name;
search_rgn = true;
search_sig = true;
search_var = true;
} else if (obj_type == GPI_MODULE) {
fq_name += "/" + name;
search_rgn = true;
search_sig = true;
search_var = true;
} else if (obj_type == GPI_STRUCTURE) {
FliValueObjHdl *fli_obj = reinterpret_cast<FliValueObjHdl *>(parent);
fq_name += "." + name;
search_rgn = false;
search_var = fli_obj->is_var();
search_sig = !search_var;
} else {
LOG_ERROR("FLI: Parent of type %d must be of type GPI_MODULE or GPI_STRUCTURE to have a child.", obj_type);
return NULL;
}
LOG_DEBUG("Looking for child %s from %s", name.c_str(), parent->get_name_str());
std::vector<char> writable(fq_name.begin(), fq_name.end());
writable.push_back('\0');
HANDLE hdl = NULL;
PLI_INT32 accType;
PLI_INT32 accFullType;
if (search_rgn && (hdl = mti_FindRegion(&writable[0])) != NULL) {
accType = acc_fetch_type(hdl);
accFullType = acc_fetch_fulltype(hdl);
LOG_DEBUG("Found region %s -> %p", fq_name.c_str(), hdl);
LOG_DEBUG(" Type: %d", accType);
LOG_DEBUG(" Full Type: %d", accFullType);
} else if (search_sig && (hdl = mti_FindSignal(&writable[0])) != NULL) {
accType = acc_fetch_type(hdl);
accFullType = acc_fetch_fulltype(hdl);
LOG_DEBUG("Found a signal %s -> %p", fq_name.c_str(), hdl);
LOG_DEBUG(" Type: %d", accType);
LOG_DEBUG(" Full Type: %d", accFullType);
} else if (search_var && (hdl = mti_FindVar(&writable[0])) != NULL) {
accFullType = accType = mti_GetVarKind(static_cast<mtiVariableIdT>(hdl));
LOG_DEBUG("Found a variable %s -> %p", fq_name.c_str(), hdl);
LOG_DEBUG(" Type: %d", accType);
LOG_DEBUG(" Full Type: %d", accFullType);
} else if (search_rgn){
mtiRegionIdT rgn;
/* If not found, check to see if the name of a generate loop and create a pseudo-region */
for (rgn = mti_FirstLowerRegion(parent->get_handle<mtiRegionIdT>()); rgn != NULL; rgn = mti_NextRegion(rgn)) {
if (acc_fetch_fulltype(rgn) == accForGenerate) {
std::string rgn_name = mti_GetRegionName(static_cast<mtiRegionIdT>(rgn));
if (rgn_name.compare(0,name.length(),name) == 0) {
FliObj *fli_obj = dynamic_cast<FliObj *>(parent);
return create_gpi_obj_from_handle(parent->get_handle<HANDLE>(), name, fq_name, fli_obj->get_acc_type(), fli_obj->get_acc_full_type());
}
}
}
}
if (NULL == hdl) {
LOG_DEBUG("Didn't find anything named %s", &writable[0]);
return NULL;
}
/* Generate Loops have inconsistent behavior across fli. A "name"
* without an index, i.e. dut.loop vs dut.loop(0), will attempt to map
* to index 0, if index 0 exists. If it doesn't then it won't find anything.
*
* If this unique case is hit, we need to create the Pseudo-region, with the handle
* being equivalent to the parent handle.
*/
if (accFullType == accForGenerate) {
FliObj *fli_obj = dynamic_cast<FliObj *>(parent);
return create_gpi_obj_from_handle(parent->get_handle<HANDLE>(), name, fq_name, fli_obj->get_acc_type(), fli_obj->get_acc_full_type());
}
return create_gpi_obj_from_handle(hdl, name, fq_name, accType, accFullType);
}
/**
* @name Native Check Create
* @brief Determine whether a simulation object is native to FLI and create
* a handle if it is
*/
GpiObjHdl* FliImpl::native_check_create(int32_t index, GpiObjHdl *parent)
{
gpi_objtype_t obj_type = parent->get_type();
HANDLE hdl;
PLI_INT32 accType;
PLI_INT32 accFullType;
char buff[14];
if (obj_type == GPI_GENARRAY) {
LOG_DEBUG("Looking for index %d from %s", index, parent->get_name_str());
snprintf(buff, 14, "(%d)", index);
std::string idx = buff;
std::string name = parent->get_name() + idx;
std::string fq_name = parent->get_fullname() + idx;
std::vector<char> writable(fq_name.begin(), fq_name.end());
writable.push_back('\0');
if ((hdl = mti_FindRegion(&writable[0])) != NULL) {
accType = acc_fetch_type(hdl);
accFullType = acc_fetch_fulltype(hdl);
LOG_DEBUG("Found region %s -> %p", fq_name.c_str(), hdl);
LOG_DEBUG(" Type: %d", accType);
LOG_DEBUG(" Full Type: %d", accFullType);
} else {
LOG_DEBUG("Didn't find anything named %s", &writable[0]);
return NULL;
}
return create_gpi_obj_from_handle(hdl, name, fq_name, accType, accFullType);
} else if (obj_type == GPI_REGISTER || obj_type == GPI_ARRAY || obj_type == GPI_STRING) {
FliValueObjHdl *fli_obj = reinterpret_cast<FliValueObjHdl *>(parent);
LOG_DEBUG("Looking for index %u from %s", index, parent->get_name_str());
if ((hdl = fli_obj->get_sub_hdl(index)) == NULL) {
LOG_DEBUG("Didn't find the index %d", index);
return NULL;
}
snprintf(buff, 14, "(%d)", index);
std::string idx = buff;
std::string name = parent->get_name() + idx;
std::string fq_name = parent->get_fullname() + idx;
if (!(fli_obj->is_var())) {
accType = acc_fetch_type(hdl);
accFullType = acc_fetch_fulltype(hdl);
LOG_DEBUG("Found a signal %s -> %p", fq_name.c_str(), hdl);
LOG_DEBUG(" Type: %d", accType);
LOG_DEBUG(" Full Type: %d", accFullType);
} else {
accFullType = accType = mti_GetVarKind(static_cast<mtiVariableIdT>(hdl));
LOG_DEBUG("Found a variable %s -> %p", fq_name.c_str(), hdl);
LOG_DEBUG(" Type: %d", accType);
LOG_DEBUG(" Full Type: %d", accFullType);
}
return create_gpi_obj_from_handle(hdl, name, fq_name, accType, accFullType);
} else {
LOG_ERROR("FLI: Parent of type %d must be of type GPI_GENARRAY, GPI_REGISTER, GPI_ARRAY, or GPI_STRING to have an index.", obj_type);
return NULL;
}
}
void
PeridigmNS::InterfaceData::WriteExodusOutput(int timeStep, const float & timeValue, Teuchos::RCP<Epetra_Vector> x, Teuchos::RCP<Epetra_Vector> y){
int error_int = 0;
int CPU_word_size = 0;
int IO_word_size = 0;
float version = 0;
std::string outputFileNameStr = filename.str();
std::vector<char> writable(outputFileNameStr.size() + 1);
std::copy(outputFileNameStr.begin(), outputFileNameStr.end(), writable.begin());
exoid = ex_open(&writable[0], EX_WRITE, &CPU_word_size, &IO_word_size, &version);
error_int = ex_put_time(exoid, timeStep, &timeValue);
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error, "ex_put_time(): Failure");
float * quadValues = new float[numQuads];
float * triValues = new float[numTris];
// populate the quad values
int quadIndex = 0;
int triIndex = 0;
for(int i=0;i<numOwnedPoints;++i){
if(interfaceNodesMap->ElementSize(i)==4){
quadValues[quadIndex] = (*interfaceAperture)[i];
quadIndex++;
}
else if(interfaceNodesMap->ElementSize(i)==3){
triValues[triIndex] = (*interfaceAperture)[i];
triIndex++;
}
else{
TEUCHOS_TEST_FOR_EXCEPTION(true,std::invalid_argument,"size of this element is not recognized: " << interfaceNodesMap->ElementSize(i));
}
}
int blockIndex = 0;
const int varIndex = 1;
blockIndex++;
if(numQuads > 0){
error_int = ex_put_elem_var(exoid, timeStep, varIndex, blockIndex, numQuads, &quadValues[0]);
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"Failure ex_put_elem_var(): ");
}
blockIndex++;
if(numTris > 0){
error_int = ex_put_elem_var(exoid, timeStep, varIndex, blockIndex, numTris, &triValues[0]);
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"Failure ex_put_elem_var(): ");
}
delete [] quadValues;
delete [] triValues;
// update the apertures...
// import the mothership vectors x and y to the overlap epetra vectors
Teuchos::RCP<const Epetra_Import> importer = Teuchos::rcp(new Epetra_Import(*elemOverlapMap, x->Map()));
Teuchos::RCP<Epetra_Vector> xOverlap = Teuchos::rcp(new Epetra_Vector(*elemOverlapMap,true));
xOverlap->Import(*x,*importer,Insert);
Teuchos::RCP<Epetra_Vector> yOverlap = Teuchos::rcp(new Epetra_Vector(*elemOverlapMap,true));
yOverlap->Import(*y,*importer,Insert);
double *xValues;
xOverlap->ExtractView( &xValues );
double *yValues;
yOverlap->ExtractView( &yValues );
double xLeft=0,yLeft=0,zLeft=0,xRight=0,yRight=0,zRight=0;
double XLeft=0,YLeft=0,ZLeft=0,XRight=0,YRight=0,ZRight=0;
double X=0,Y=0;
double dx=0,dy=0,dz=0,dX=0,dY=0,dZ=0;
int elemIndexLeft=-1,elemIndexRight=-1,GIDLeft=-1,GIDRight=-1;
for(int i=0;i<numOwnedPoints;++i){
GIDLeft = elementLeft[i];
GIDRight = elementRight[i];
elemIndexLeft = xOverlap->Map().FirstPointInElement(elemOverlapMap->LID(GIDLeft));
elemIndexRight = xOverlap->Map().FirstPointInElement(elemOverlapMap->LID(GIDRight));
xLeft = xValues[elemIndexLeft+0];
yLeft = xValues[elemIndexLeft+1];
zLeft = xValues[elemIndexLeft+2];
xRight = xValues[elemIndexRight+0];
yRight = xValues[elemIndexRight+1];
zRight = xValues[elemIndexRight+2];
XLeft = yValues[elemIndexLeft+0];
YLeft = yValues[elemIndexLeft+1];
ZLeft = yValues[elemIndexLeft+2];
XRight = yValues[elemIndexRight+0];
YRight = yValues[elemIndexRight+1];
ZRight = yValues[elemIndexRight+2];
dx = xRight - xLeft;
dy = yRight - yLeft;
dz = zRight - zLeft;
dX = XRight - XLeft;
dY = YRight - YLeft;
dZ = ZRight - ZLeft;
X = std::sqrt(dx*dx + dy*dy + dz*dz);
Y = std::sqrt(dX*dX + dY*dY + dZ*dZ);
interfaceAperture->ReplaceMyValue(i,0,Y-X);
}
error_int = ex_update(exoid);
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"Exodus file close failed.");
error_int = ex_close(exoid);
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"Exodus file close failed.");
}
void
PeridigmNS::InterfaceData::InitializeExodusOutput(Teuchos::RCP<Epetra_Vector> exodusMeshElementConnectivity, Teuchos::RCP<Epetra_Vector> exodusMeshNodePositions){
if(comm->NumProc()>1){
filename << "Interfaces.e." << comm->NumProc() << "." << comm->MyPID();
}
else{
filename << "Interfaces.e";
}
std::string outputFileNameStr = filename.str();
std::vector<char> writable(outputFileNameStr.size() + 1);
std::copy(outputFileNameStr.begin(), outputFileNameStr.end(), writable.begin());
int spaDim = 3; // force three dimensional output
const int numShells = numOwnedPoints;
const int numNodes = exodusMeshNodePositions->Map().NumMyElements();
int error_int;
int CPU_word_size = 0;
int IO_word_size = 0;
/* create EXODUS II file */
const int output_exoid = ex_create (&writable[0],EX_CLOBBER,&CPU_word_size, &IO_word_size);
exoid = output_exoid;
// scan the connectivity to see if there are quads and tets:
numQuads = 0;
numTris = 0;
for(int i=0;i<numOwnedPoints;++i){
if(interfaceNodesMap->ElementSize(i)==4) numQuads++;
if(interfaceNodesMap->ElementSize(i)==3) numTris++;
}
TEUCHOS_TEST_FOR_EXCEPTION(numQuads+numTris!=numShells,std::logic_error,"numQuads " << numQuads << " + numTris " << numTris << " should sum up to numShells " << numShells);
const int numBlocks = 2;
error_int = ex_put_init(exoid, &writable[0], spaDim, numNodes, numShells, numBlocks, 0, 0);
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"ex_put_init(): Failure");
// write initial coordinates and node/element maps
float * x = new float[numNodes];
float * y = new float[numNodes];
float * z = new float[numNodes];
int * shellMap = new int[numShells];
int * nodeMap = new int[numNodes];
for(int i=0;i<numNodes;++i){
int nodeIndex = exodusMeshNodePositions->Map().FirstPointInElement(i);
x[i] = (*exodusMeshNodePositions)[nodeIndex+0];
y[i] = (*exodusMeshNodePositions)[nodeIndex+1];
z[i] = (*exodusMeshNodePositions)[nodeIndex+2];
nodeMap[i] = exodusMeshNodePositions->Map().GID(i) + 1; // numbering is one based in exodus
}
for(int i=0;i<numShells;++i){
shellMap[i] = interfaceNodesMap->GID(i) +1; // numbering is one based in exodus
}
error_int = ex_put_coord(exoid, x, y, z);
char * coord_names[3];
coord_names[0] = (char*) "coordinates_x";
coord_names[1] = (char*) "coordinates_y";
coord_names[2] = (char*) "coordinates_x";
error_int = ex_put_coord_names(exoid, coord_names);
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"ex_put_coord_names(): Failure");
error_int = ex_put_elem_num_map(exoid, shellMap);
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"ex_put_elem_num_map(): Failure");
error_int = ex_put_node_num_map(exoid, nodeMap);
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"ex_put_node_num_map(): Failure");
delete[] shellMap;
delete[] nodeMap;
delete[] x; delete[] y; delete[] z;
// write quad blocks:
int blockIndex = 0;
blockIndex ++;
int num_nodes_per_elem_q4 = 4;
const std::string elem_type_str_q4 = numQuads > 0 ? "QUAD4" : "NULL";
char * elem_type_q4 = const_cast<char *>(elem_type_str_q4.c_str());
const int numElemInBlock_q4 = numQuads;
error_int = ex_put_elem_block(exoid, blockIndex, elem_type_q4, numElemInBlock_q4, num_nodes_per_elem_q4, 0); // no attributes put in output file
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"ex_put_elem_block(): Failure");
blockIndex ++;
int num_nodes_per_elem_t3 = 3;
const std::string elem_type_str_t3 = numTris > 0 ? "TRI3": "NULL";
char * elem_type_t3 = const_cast<char *>(elem_type_str_t3.c_str());
const int numElemInBlock_t3 = numTris;
error_int = ex_put_elem_block(exoid, blockIndex, elem_type_t3, numElemInBlock_t3, num_nodes_per_elem_t3, 0); // no attributes put in output file
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"ex_put_elem_block(): Failure");
// write elem connectivities
// HEADS UP: the connectivities will not write to file until ex_close is called
// also note that the nodes must be the local node ids
const int connLength = interfaceNodes->Map().NumMyElements();
blockIndex = 0;
blockIndex ++;
int conn_index = 0;
int * block_connect_q4 = new int[numQuads*num_nodes_per_elem_q4];
for(int it=0;it<connLength;++it)
{
if(interfaceNodes->Map().ElementSize(it)!=4) continue;
int elemIndex = interfaceNodes->Map().FirstPointInElement(it);
for(int nn=0;nn<4;++nn){
int node = static_cast<int>( (*interfaceNodes)[elemIndex+nn] );
block_connect_q4[conn_index*num_nodes_per_elem_q4+nn] = exodusMeshNodePositions->Map().LID(node) + 1;// nodes are 1 based in exodus
}
conn_index++;
}
error_int = ex_put_elem_conn(exoid, blockIndex, block_connect_q4);
delete[] block_connect_q4;
blockIndex ++;
conn_index = 0;
int * block_connect_t3 = new int[numTris*num_nodes_per_elem_t3];
for(int it=0;it<connLength;++it)
{
if(interfaceNodes->Map().ElementSize(it)!=3) continue;
int elemIndex = interfaceNodes->Map().FirstPointInElement(it);
for(int nn=0;nn<3;++nn){
int node = static_cast<int>( (*interfaceNodes)[elemIndex+nn] );
block_connect_t3[conn_index*num_nodes_per_elem_t3+nn] = exodusMeshNodePositions->Map().LID(node) + 1;// nodes are 1 based in exodus
}
conn_index++;
}
error_int = ex_put_elem_conn(exoid, blockIndex, block_connect_t3);
delete[] block_connect_t3;
int numVariables = 1; // TODO careful with this, if more fields are added to the interface data this must be updated
char** eleVarNames = new char*[numVariables];
std::vector<std::string> strNames;
strNames.push_back("interface_aperture");
for (int i=0;i<numVariables;++i)
eleVarNames[i] = (char*) (strNames[i].c_str());
error_int = ex_put_var_param(exoid, (char*) "e", numVariables);
error_int = ex_put_var_names(exoid, (char*) "e", numVariables, &eleVarNames[0]);
delete [] eleVarNames;
// write the truth table
int * truth_tab = new int[numVariables*numBlocks];
for(int i=0;i<numVariables*numBlocks;++i)
truth_tab[i] = 1;
error_int = ex_put_elem_var_tab (exoid, numBlocks, numVariables, truth_tab);
delete [] truth_tab;
error_int = ex_update(exoid);
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"Exodus file close failed.");
error_int = ex_close(exoid);
TEUCHOS_TEST_FOR_EXCEPTION(error_int,std::logic_error,"Exodus file close failed.");
}
/**
* parse the domain file
*/
void DomainParser::parseDomain(const std::string domainPath) {
// only parse domain once
if(domain_parsed) return;
domain_parsed = true;
std::string domainFileName = (domainPath);
ROS_INFO("KCL: (KB) Parsing domain: %s.", domainFileName.c_str());
// save filename for VAL
std::vector<char> writable(domainFileName.begin(), domainFileName.end());
writable.push_back('\0');
current_filename = &writable[0];
// parse domain
VAL::current_analysis = &VAL::an_analysis;
std::ifstream domainFile;
domainFile.open(domainFileName.c_str());
yydebug = 0;
VAL::yfl = new yyFlexLexer;
if (domainFile.bad()) {
ROS_ERROR("KCL: (KB) Failed to open domain file.");
line_no = 0;
VAL::log_error(VAL::E_FATAL,"Failed to open file");
} else {
line_no = 1;
VAL::yfl->switch_streams(&domainFile, &std::cout);
yyparse();
// domain name
VAL::domain* domain = VAL::current_analysis->the_domain;
domain_name = domain->name;
// types
VAL::pddl_type_list* types = domain->types;
for (VAL::pddl_type_list::const_iterator ci = types->begin(); ci != types->end(); ci++) {
const VAL::pddl_type* type = *ci;
domain_types.push_back(type->getName());
}
// predicates
VAL::pred_decl_list* predicates = domain->predicates;
if(predicates) {
for (VAL::pred_decl_list::const_iterator ci = predicates->begin(); ci != predicates->end(); ci++) {
const VAL::pred_decl* predicate = *ci;
// predicate name
PDDLAtomicFormula pred;
pred.name = predicate->getPred()->symbol::getName();
domain_predicates[pred.name] = pred;
// predicate variables
for (VAL::var_symbol_list::const_iterator vi = predicate->getArgs()->begin(); vi != predicate->getArgs()->end(); vi++) {
const VAL::var_symbol* var = *vi;
PDDLTypedSymbol sym;
sym.type = var->type->getName();
sym.name = var->pddl_typed_symbol::getName();
domain_predicates[pred.name].vars.push_back(sym);
}
}
}
// functions
VAL::func_decl_list* functions = domain->functions;
if(functions) {
for (VAL::func_decl_list::const_iterator ci = functions->begin(); ci != functions->end(); ci++) {
const VAL::func_decl* function = *ci;
// function name
PDDLAtomicFormula func;
func.name = function->getFunction()->symbol::getName();
domain_functions[func.name] = func;
// parameters
for (VAL::var_symbol_list::const_iterator vi = function->getArgs()->begin(); vi != function->getArgs()->end(); vi++) {
const VAL::var_symbol* var = *vi;
PDDLTypedSymbol sym;
sym.type = var->type->getName();
sym.name = var->pddl_typed_symbol::getName();
domain_functions[func.name].vars.push_back(sym);
}
}
}
// operators
VAL::operator_list* operators = domain->ops;
for (VAL::operator_list::const_iterator ci = operators->begin(); ci != operators->end(); ci++) {
const VAL::operator_* op = *ci;
// name
std::string name = op->name->symbol::getName();
// condition
const VAL::goal* precondition = op->precondition;
PDDLGoalDescription c = parseCondition(precondition);
// duration
PDDLFunctionNumber n(0);
PDDLDuration d(n, EQ);
const VAL::durative_action* da = dynamic_cast<const VAL::durative_action*>(op);
if (da) {
// TODO get the real duration from VAL
PDDLFunctionNumber n(1);
d = PDDLDuration(n, EQ);
}
// operator
PDDLOperator oper(d, c);
oper.name = name;
// parameters
for (VAL::var_symbol_list::const_iterator vi = op->parameters->begin(); vi != op->parameters->end(); vi++) {
const VAL::var_symbol* var = *vi;
PDDLTypedSymbol sym;
sym.type = var->type->getName();
sym.name = var->pddl_typed_symbol::getName();
oper.parameters.push_back(sym);
}
domain_operators.insert( std::pair<std::string,PDDLOperator>(name, oper) );
}
}
domainFile.close();
delete VAL::yfl;
}
static void mplex() {
struct timeval timeout = {
.tv_sec = 1,
.tv_usec = 0,
};
int i;
int maxfd = 0;
fd_set rok, wok, xok;
FD_ZERO(&rok);
FD_ZERO(&wok);
FD_ZERO(&xok);
if (io_stop == 1) {
io_stop = 2;
q_puts(&sockets->net[0].sendq, "X\n");
}
for(i=0; i < sockets->count; i++) {
struct sockifo* ifo = &sockets->net[i];
if (ifo->death_time && ifo->death_time < now) {
esock(ifo, "Ping Timeout");
}
if (ifo->fd < 0) {
if (ifo->state.mplex_dropped) {
delnet_real(ifo);
i--;
}
continue;
}
if (ifo->fd > maxfd)
maxfd = ifo->fd;
int need_read, need_write;
switch (ifo->state.poll) {
case POLL_NORMAL:
writable(ifo);
need_read = 1;
need_write = (ifo->sendq.start != ifo->sendq.end);
break;
case POLL_FORCE_ROK:
writable(ifo);
need_read = 1;
need_write = 0;
break;
case POLL_FORCE_WOK:
need_read = 0;
need_write = 1;
break;
case POLL_HANG:
default:
need_read = 0;
need_write = 0;
}
if (ifo->fd < 0)
continue;
if (need_read)
FD_SET(ifo->fd, &rok);
if (need_write)
FD_SET(ifo->fd, &wok);
FD_SET(ifo->fd, &xok);
if (io_stop == 2)
break;
}
int ready = select(maxfd + 1, &rok, &wok, &xok, &timeout);
time_t new_ts = time(NULL);
if (now != new_ts && io_stop != 2) {
now = new_ts;
qprintf(&sockets->net[0].sendq, "T %d\n", now);
}
if (ready <= 0)
return;
for(i=0; i < sockets->count; i++) {
struct sockifo* ifo = &sockets->net[i];
if (ifo->fd < 0)
continue;
if (FD_ISSET(ifo->fd, &xok)) {
esock(ifo, "Exception on socket");
continue;
}
if (FD_ISSET(ifo->fd, &wok)) {
writable(ifo);
if (ifo->fd < 0)
continue;
}
if (FD_ISSET(ifo->fd, &rok)) {
readable(ifo);
}
if (io_stop == 2)
return;
}
if (ready > 1 || !FD_ISSET(sockets->net[0].fd, &rok))
q_puts(&sockets->net[0].sendq, "Q\n");
}
static void sig2child(int sig) {
kill(worker_pid, sig);
}
int copy(const char *src, const char *dst, struct stat *srcst,
struct stat *dstst)
/* Copy one file to another and copy (some of) the attributes. */
{
char buf[CHUNK];
int srcfd, dstfd;
ssize_t n;
assert(srcst->st_ino != 0);
if (dstst->st_ino == 0) {
/* The file doesn't exist yet. */
if (!S_ISREG(srcst->st_mode)) {
/* Making a new mode 666 regular file. */
srcst->st_mode= (S_IFREG | 0666) & fc_mask;
} else
if (!pflag && conforming) {
/* Making a new file copying mode with umask applied. */
srcst->st_mode &= fc_mask;
}
} else {
/* File exists, ask if ok to overwrite if '-i'. */
if (iflag || (action == MOVE && !fflag && !writable(dstst))) {
fprintf(stderr, "Overwrite %s? (mode = %03o) ",
dst, dstst->st_mode & 07777);
if (!affirmative()) return 0;
}
if (action == MOVE) {
/* Don't overwrite, remove first. */
if (unlink(dst) < 0 && errno != ENOENT) {
report(dst);
return 0;
}
} else {
/* Overwrite. */
if (!pflag) {
/* Keep the existing mode and ownership. */
srcst->st_mode= dstst->st_mode;
srcst->st_uid= dstst->st_uid;
srcst->st_gid= dstst->st_gid;
}
}
}
/* Keep the link structure if possible. */
if (trylink(src, dst, srcst, dstst)) return 1;
if ((srcfd= open(src, O_RDONLY)) < 0) {
report(src);
return 0;
}
dstfd= open(dst, O_WRONLY|O_CREAT|O_TRUNC, srcst->st_mode & 0777);
if (dstfd < 0 && fflag && errno == EACCES) {
/* Retry adding a "w" bit. */
(void) chmod(dst, dstst->st_mode | S_IWUSR);
dstfd= open(dst, O_WRONLY|O_CREAT|O_TRUNC, 0);
}
if (dstfd < 0 && fflag && errno == EACCES) {
/* Retry after trying to delete. */
(void) unlink(dst);
dstfd= open(dst, O_WRONLY|O_CREAT|O_TRUNC, 0);
}
if (dstfd < 0) {
report(dst);
close(srcfd);
return 0;
}
/* Get current parameters. */
if (fstat(dstfd, dstst) < 0) {
report(dst);
close(srcfd);
close(dstfd);
return 0;
}
/* Copy the little bytes themselves. */
while ((n= read(srcfd, buf, sizeof(buf))) > 0) {
char *bp = buf;
ssize_t r;
while (n > 0 && (r= write(dstfd, bp, n)) > 0) {
bp += r;
n -= r;
}
if (r <= 0) {
if (r == 0) {
fprintf(stderr,
"%s: Warning: EOF writing to %s\n",
prog_name, dst);
break;
}
fatal(dst);
}
}
if (n < 0) {
report(src);
close(srcfd);
close(dstfd);
return 0;
}
close(srcfd);
close(dstfd);
/* Copy the ownership. */
if ((pflag || !conforming)
&& S_ISREG(dstst->st_mode)
&& (dstst->st_uid != srcst->st_uid
|| dstst->st_gid != srcst->st_gid)
) {
if (chmod(dst, 0) == 0) dstst->st_mode&= ~07777;
if (chown(dst, srcst->st_uid, srcst->st_gid) < 0) {
if (errno != EPERM) {
report(dst);
return 0;
}
} else {
dstst->st_uid= srcst->st_uid;
dstst->st_gid= srcst->st_gid;
}
}
if (conforming && S_ISREG(dstst->st_mode)
&& (dstst->st_uid != srcst->st_uid
|| dstst->st_gid != srcst->st_gid)
) {
/* Suid bits must be cleared in the holy name of
* security (and the assumed user stupidity).
*/
srcst->st_mode&= ~06000;
}
/* Copy the mode. */
if (S_ISREG(dstst->st_mode) && dstst->st_mode != srcst->st_mode) {
if (chmod(dst, srcst->st_mode) < 0) {
if (errno != EPERM) {
report(dst);
return 0;
}
fprintf(stderr, "%s: Can't change the mode of %s\n",
prog_name, dst);
}
}
/* Copy the file modification time. */
if ((pflag || !conforming) && S_ISREG(dstst->st_mode)) {
struct utimbuf ut;
ut.actime= action == MOVE ? srcst->st_atime : time(nil);
ut.modtime= srcst->st_mtime;
if (utime(dst, &ut) < 0) {
if (errno != EPERM) {
report(dst);
return 0;
}
if (pflag) {
fprintf(stderr,
"%s: Can't set the time of %s\n",
prog_name, dst);
}
}
}
if (vflag) {
printf(action == COPY ? "cp %s ..\n" : "mv %s ..\n", src);
}
return 1;
}
bool RenderThinker::start()
{
int halfWidth = resultSize.width() / 2;
int halfHeight = resultSize.height() / 2;
QImage image(resultSize, QImage::Format_RGB32);
const int NumPasses = 8;
int pass = 0;
while (pass < NumPasses) {
const int MaxIterations = (1 << (2 * pass + 6)) + 32;
const int Limit = 4;
bool allBlack = true;
for (int y = -halfHeight; y < halfHeight; ++y) {
if (wasPauseRequested())
return;
uint *scanLine =
reinterpret_cast<uint *>(image.scanLine(y + halfHeight));
double ay = centerY + (y * scaleFactor);
for (int x = -halfWidth; x < halfWidth; ++x) {
double ax = centerX + (x * scaleFactor);
double a1 = ax;
double b1 = ay;
int numIterations = 0;
do {
++numIterations;
double a2 = (a1 * a1) - (b1 * b1) + ax;
double b2 = (2 * a1 * b1) + ay;
if ((a2 * a2) + (b2 * b2) > Limit)
break;
++numIterations;
a1 = (a2 * a2) - (b2 * b2) + ax;
b1 = (2 * a2 * b2) + ay;
if ((a1 * a1) + (b1 * b1) > Limit)
break;
} while (numIterations < MaxIterations);
if (numIterations < MaxIterations) {
*scanLine++ = colormap[numIterations % ColormapSize];
allBlack = false;
} else {
*scanLine++ = qRgb(0, 0, 0);
}
}
}
if (allBlack && pass == 0) {
pass = 4;
} else {
lockForWrite();
writable().image = image;
writable().scaleFactor = scaleFactor;
unlock();
++pass;
}
}
return true;
}
int VhpiSignalObjHdl::set_signal_value(std::string &value)
{
switch (m_value.format) {
case vhpiEnumVal:
case vhpiLogicVal: {
m_value.value.enumv = chr2vhpi(value.c_str()[0]);
break;
}
case vhpiEnumVecVal:
case vhpiLogicVecVal: {
int len = value.length();
// Since we may not get the numElems correctly from the sim and have to infer it
// we also need to set it here as well each time.
m_value.numElems = len;
if (len > m_num_elems) {
LOG_DEBUG("VHPI: Attempt to write string longer than (%s) signal %d > %d",
m_name.c_str(), len, m_num_elems);
m_value.numElems = m_num_elems;
}
std::string::iterator iter;
int i = 0;
for (iter = value.begin();
(iter != value.end()) && (i < m_num_elems);
iter++, i++) {
m_value.value.enumvs[i] = chr2vhpi(*iter);
}
// Fill bits at the end of the value to 0's
for (i = len; i < m_num_elems; i++) {
m_value.value.enumvs[i] = vhpi0;
}
break;
}
case vhpiStrVal: {
std::vector<char> writable(value.begin(), value.end());
writable.push_back('\0');
strncpy(m_value.value.str, &writable[0], m_value.numElems);
m_value.value.str[m_value.numElems] = '\0';
break;
}
default: {
LOG_ERROR("VHPI: Unable to handle this format type %s",
((VhpiImpl*)GpiObjHdl::m_impl)->format_to_string(m_value.format));
return -1;
}
}
if (vhpi_put_value(GpiObjHdl::get_handle<vhpiHandleT>(), &m_value, vhpiDepositPropagate)) {
check_vhpi_error();
return -1;
}
return 0;
}
void copy1(const char *src, const char *dst, struct stat *srcst,
struct stat *dstst)
/* Inspect the source file and then copy it. Treatment of symlinks and
* special files is a bit complicated. The filetype and link-structure are
* ignored if (expand && !rflag), symlinks and link-structure are ignored
* if (expand && rflag), everything is copied precisely if !expand.
*/
{
int r, linked;
assert(srcst->st_ino != 0);
if (srcst->st_ino == dstst->st_ino && srcst->st_dev == dstst->st_dev) {
fprintf(stderr, "%s: can't copy %s onto itself\n",
prog_name, src);
ex_code= 1;
return;
}
/* You can forget it if the destination is a directory. */
if (dstst->st_ino != 0 && S_ISDIR(dstst->st_mode)) {
errno= EISDIR;
report(dst);
return;
}
if (S_ISREG(srcst->st_mode) || (expand && !rflag)) {
if (!copy(src, dst, srcst, dstst)) return;
if (action == MOVE && unlink(src) < 0) {
report(src);
return;
}
return;
}
if (dstst->st_ino != 0) {
if (iflag || (action == MOVE && !fflag && !writable(dstst))) {
fprintf(stderr, "Replace %s? (mode = %03o) ",
dst, dstst->st_mode & 07777);
if (!affirmative()) return;
}
if (unlink(dst) < 0) {
report(dst);
return;
}
dstst->st_ino= 0;
}
/* Apply the file creation mask if so required. */
if (!pflag && conforming) srcst->st_mode &= fc_mask;
linked= 0;
if (S_ISLNK(srcst->st_mode)) {
char buf[1024+1];
if ((r= readlink(src, buf, sizeof(buf)-1)) < 0) {
report(src);
return;
}
buf[r]= 0;
r= symlink(buf, dst);
if (vflag && r == 0)
printf("ln -s %s %s\n", buf, dst);
} else
if (trylink(src, dst, srcst, dstst)) {
linked= 1;
r= 0;
} else
if (S_ISFIFO(srcst->st_mode)) {
r= mkfifo(dst, srcst->st_mode);
if (vflag && r == 0)
printf("mkfifo %s\n", dst);
} else
if (S_ISBLK(srcst->st_mode) || S_ISCHR(srcst->st_mode)) {
r= mknod(dst, srcst->st_mode, srcst->st_rdev);
if (vflag && r == 0) {
printf("mknod %s %c %d %d\n",
dst,
S_ISBLK(srcst->st_mode) ? 'b' : 'c',
(srcst->st_rdev >> 8) & 0xFF,
(srcst->st_rdev >> 0) & 0xFF);
}
std::vector<char> str2char_star (std::string str) {
std::vector<char> writable(str.begin(), str.end());
writable.push_back('\0');
return writable;
// get the char* using &writable[0] or &*writable.begin()
}
