void TPKGS::dump(std::ostream &stream) const {
stream << "mainPackageDir: " << _mainPackageDir << "\n";
stream << "installPathMap:\n";
for(auto a = _installPathMap.begin(); a != _installPathMap.end(); a++) {
stream << a->first << " -> " << a->second << "\n";
if(!a->first.is_absolute()) {
stream << "^^ source should be absolute!\n";
}
if(a->second.is_absolute()) {
stream << "^^ destination should be relative!\n";
}
}
stream << "keepDirs:\n";
for(auto a = _keepDirs.begin(); a != _keepDirs.end(); a++) {
stream << *a << "\n";
}
stream << "ignoreInSource:\n";
for(auto a = _ignoreInSource.begin(); a != _ignoreInSource.end(); a++) {
stream << *a << "\n";
if(a->is_absolute()) {
stream << "^^ should be relative!\n";
}
}
stream << "ignoreInSystem:\n";
for(auto a = _ignoreInSystem.begin(); a != _ignoreInSystem.end(); a++) {
stream << *a << "\n";
if(!a->is_absolute()) {
stream << "^^ should be absolute!\n";
}
}
}
bool is_root(const char* path)
{
CE_ENSURE(NULL != path);
#if CROWN_PLATFORM_POSIX
return is_absolute(path) && strlen32(path) == 1;
#elif CROWN_PLATFORM_WINDOWS
return is_absolute(path) && strlen32(path) == 3;
#endif
}
boost::filesystem::path Config::getDebugLogFile () const
{
auto log_file = DEBUG_LOGFILE;
if (!log_file.empty () && !log_file.is_absolute ())
{
// Unless an absolute path for the log file is specified, the
// path is relative to the config file directory.
log_file = boost::filesystem::absolute (
log_file, getConfig ().CONFIG_DIR);
}
if (!log_file.empty ())
{
auto log_dir = log_file.parent_path ();
if (!boost::filesystem::is_directory (log_dir))
{
boost::system::error_code ec;
boost::filesystem::create_directories (log_dir, ec);
// If we fail, we warn but continue so that the calling code can
// decide how to handle this situation.
if (ec)
{
std::cerr <<
"Unable to create log file path " << log_dir <<
": " << ec.message() << '\n';
}
}
}
return log_file;
}
/** Add a path component, by appending stuff to buffer.
buffer must have at least MAXPATHLEN + 1 bytes allocated, and contain a
NUL-terminated string with no more than MAXPATHLEN characters (not counting
the trailing NUL). It's a fatal error if it contains a string longer than
that (callers must be careful!). If these requirements are met, it's
guaranteed that buffer will still be a NUL-terminated string with no more
than MAXPATHLEN characters at exit. If stuff is too long, only as much of
stuff as fits will be appended.
@param[in,out] buffer The path to be extended.
@param[in] stuff The stuff to join onto the path.
*/
static void
joinpath(char *buffer, char *stuff)
{
size_t n, k;
k = 0;
if (is_absolute(stuff) == 1) {
n = 0;
}
else {
n = strlen(buffer);
if(n == 0) {
strncpy(buffer, volume_name, MAXPATHLEN);
n = strlen(buffer);
}
/* We must not use an else clause here because we want to test n again.
volume_name may have been empty.
*/
if (n > 0 && n < MAXPATHLEN) {
if(!is_sep(buffer[n-1])) {
buffer[n++] = SEP;
}
if(is_sep(stuff[0])) ++stuff;
}
}
if (n > MAXPATHLEN)
Py_FatalError("buffer overflow in getpath.c's joinpath()");
k = strlen(stuff);
if (n + k > MAXPATHLEN)
k = MAXPATHLEN - n;
strncpy(buffer+n, stuff, k);
buffer[n+k] = '\0';
}
std::string search_executable(tstring const& filename, tstring const& path)
{
const bool filename_has_extension = has_extension(filename);
const bool filename_is_absolute_path = is_absolute(filename);
const std::vector<std::string> extensions = get_executable_extensions();
if( ! filename_is_absolute_path ) {
const std::vector<std::string> dirs = split(path, PATH_SEPARATOR);
for(std::vector<std::string>::const_iterator ipath = dirs.begin(); ipath != dirs.end(); ++ipath ) {
const std::string path1 = tinfra::path::join(*ipath, filename);
if( filename_has_extension ) {
if( is_executable(path1 ,extensions) )
return path1;
continue;
}
std::string maybe_with_ext = find_variant(path1, extensions);
if( ! maybe_with_ext.empty() )
return maybe_with_ext;
}
} else if( ! filename_has_extension ) {
return find_variant(filename.str(), extensions);
} else {
if( is_executable(filename, extensions) ) {
return filename.str();
}
}
return "";
}
inline
std::string
absolute(
char const* path)
{
char const* path_without_drive = split_drive(path);
if (is_absolute(path_without_drive, /*drive_split_already*/ true)) {
return std::string(path);
}
std::string result;
static const size_t buf_size = 10000; // ad-hoc
char buf[buf_size];
char* getcwd_result = FEM_UTILS_PATH_GETCWD(buf, buf_size);
if (getcwd_result == 0) {
int en = errno;
std::string msg = "fem::utils::path::absolute(): ";
if (en != 0) {
msg += std::strerror(en);
}
else {
msg += "unknown error";
}
throw std::runtime_error(msg);
}
else {
if (path != path_without_drive) {
result += std::string(path, path_without_drive);
}
result += getcwd_result;
result += separator();
result += path_without_drive;
}
return result;
}
/** \brief return a sub path2 of this file_path2_t with nb_sub name
*/
file_path2_t file_path2_t::subpath(size_t nb_sub) const throw()
{
#if 1 //
// sanity check - the nb_sub+1 MUST be < size()
DBG_ASSERT( nb_sub < size() );
// NOTE: some kludge about the is_absolute
if( is_absolute() ) nb_sub++;
// copy this object into result - all object fields
file_path2_t result = *this;
// special copy for the name_db field
result.name_db = std::vector<std::string>();
for(size_t i = 0; i < nb_sub; i++) result.name_db.push_back(name_db[i]);
// normalize the result
result.normalize();
// return the result
return result;
#else
// sanity check - the nb_sub MUST be < size()
DBG_ASSERT( nb_sub < size() );
// build the string
std::ostringstream oss;
for( size_t i = 0; i <= nb_sub; i++ ){
if( i != 0 ) oss << FS_DIR_SEPARATOR;
oss << (*this)[i];
}
// return and convert and normalize the file_path2_t
return oss.str();
#endif
}
/** Modify path so that the result is an absolute path.
absolutize() requires that path be allocated at least MAXPATHLEN+1 bytes.
@param[in,out] path The path to be made absolute.
*/
static void
absolutize(char *path)
{
char buffer[MAXPATHLEN + 1];
if (is_absolute(path) == 1)
return;
copy_absolute(buffer, path);
strcpy(path, buffer);
}
/** \brief Return the dirname
*/
file_path2_t file_path2_t::dirname() const throw()
{
// sanity check - the file_path2_t MUST NOT be null
DBG_ASSERT( !is_null() );
// if this file_path2_t contain only a directory, return it as is
if( name_db.size() <= 1 ) return *this;
// return the dirname
if( is_absolute() ) return this->subpath(name_db.size()-2);
return this->subpath(name_db.size()-1);
}
/** return a static pointer to /name/ corrected for relative path. */
const char *Audio_File::realname ( const char *name )
{
static char rname[512];
if ( is_absolute( name ) )
strncpy( rname, name, sizeof( rname ) );
else
snprintf( rname, sizeof( rname ), "sources/%s", name );
return rname;
}
QString
Settings::exeWithPath(QString const &exe) {
#if defined(SYS_WINDOWS)
auto path = bfs::path{ to_utf8(exe) };
if (path.is_absolute())
return exe;
return to_qs((mtx::sys::get_installation_path() / path).string());
#else // defined(SYS_WINDOWS)
return exe;
#endif // defined(SYS_WINDOWS)
}
/** Extract the volume name from a path.
@param[out] Dest Pointer to location in which to store the extracted volume name.
@param[in] path Pointer to the path to extract the volume name from.
**/
static void
set_volume(char *Dest, char *path)
{
size_t VolLen;
if(is_absolute(path)) {
VolLen = strcspn(path, "/\\:");
if((VolLen != 0) && (path[VolLen] == ':')) {
(void) strncpyX(Dest, path, VolLen + 1);
}
}
}
/* send a button event */
static void wcmSendButtonClick(WacomDevicePtr priv, int button, int state)
{
int mode = is_absolute(priv->pInfo);
/* send button event in state */
xf86PostButtonEventP(priv->pInfo->dev, mode,button,
state,0,0,0);
/* We have changed the button state (from down to up) for the device
* so we need to update the record */
if (button == 1)
priv->oldState.buttons = 0;
}
string Uri::get_path( void ) const
{
static const regex pattern( "^([a-zA-Z][a-zA-Z0-9+\\-.]*://([^/?#]+)?)?([a-zA-Z0-9\\-._~%!$&'()*+,;=:@/]*)" );
smatch match;
if ( regex_search( m_pimpl->m_uri, match, pattern ) )
{
return ( is_absolute( ) ) ? match[ 3 ] : string( match[ 2 ] ) + string( match[ 3 ] );
}
return String::empty;
}
char* normalize_path(const char*path)
{
char*n = 0, *d = 0;
if(!is_absolute(path)) {
char buf[512];
char*c = getcwd(buf,512);
int l = strlen(buf);
d = n = malloc(l+strlen(path)+10);
strcpy(n, buf);d += l;
if(!l || n[l-1]!=path_seperator) {
*d=path_seperator;d++;
}
} else {
d = n = strdup(path);
}
const char*s=path;
char init = 1;
while(*s) {
if(init && s[0] == '.' && (s[1]==path_seperator || s[1]=='\0')) {
if(!s[1]) break;
s+=2;
init=1;
continue;
}
if(init && s[0] == '.' && s[1] == '.' && (s[2] == path_seperator || s[2]=='\0')) {
// step one down
char*last = 0;
if(d<=n)
return 0;
*--d = 0;
if(!(last=strrchr(n, path_seperator))) {
return 0;
}
d = last+1;
if(!s[2]) break;
s+=3;
init=1;
continue;
}
*d = *s;
if(*s==path_seperator) init=1;
else init=0;
d++;s++;
}
if(d!=n && d[-1]==path_seperator)
d--;
*d = 0;
return n;
}
saga::url filesystem_adaptor::make_absolute (const saga::url & base,
const saga::url & u)
{
if ( is_absolute (u) )
{
return u;
}
// relative
saga::url ret (base); // copy scheme, host, etc
ret.set_path (base.get_path () + "/" + u.get_path ());
return ret;
}
ErrorOr<StringRef> ELFLinkingContext::searchFile(StringRef fileName,
bool isSysRooted) const {
SmallString<128> path;
if (is_absolute(fileName) && isSysRooted) {
path.assign(_sysrootPath);
path.append(fileName);
if (exists(path.str()))
return path.str().copy(_allocator);
} else if (exists(fileName)) {
return fileName;
}
if (is_absolute(fileName))
return make_error_code(llvm::errc::no_such_file_or_directory);
for (StringRef dir : _inputSearchPaths) {
buildSearchPath(path, dir, _sysrootPath);
llvm::sys::path::append(path, fileName);
if (exists(path.str()))
return path.str().copy(_allocator);
}
return make_error_code(llvm::errc::no_such_file_or_directory);
}
/** \brief Return the fullpath2 of this file_path2_t
*
* - WARNING: this function assume that the file_path2_t is relative to the
* *CURRENT* directory !
* - so if the file_path2_t is created for with a relative path2 with a given
* current directory, then the current directory is changed, and then
* fullpath2() is called, it will return the full path2 in the SECOND
* current directory
*/
file_path2_t file_path2_t::fullpath2() const throw()
{
// if this file_path2_t is already 'absolute', return it as is
if( is_absolute() ) return *this;
// sanity check - here the
DBG_ASSERT( is_relative() );
#if 0
// prepend the current directory to this relative path2
return file_utils_t::get_current_dir() / *this;
#else
// EXP_ASSERT(0);
KLOG_ERR("file_utils_t::get_current_dir() return file_path_t. so wont work for file_path2_t");
return file_path2_t();
#endif
}
char *
UTL_IdList::get_string_copy ()
{
/*
* Absolute Names have "::" as the first item in the idlist, so delimiters
* have to start be inserted depending on if the name is absolute or not
*/
size_t delimiter_start = is_absolute () ? 1 : 0;
// Get buffer of the correct size
size_t n = 0;
size_t size = 1;
for (UTL_IdListActiveIterator i (this);
!i.is_done ();
i.next ())
{
if (n > delimiter_start)
{
size += 2; // For delimiter
}
const char *item = i.item ()->get_string ();
size += ACE_OS::strlen (item);
n++;
}
char *buffer = new char[size];
buffer[0] = '\0';
// Fill buffer
n = 0;
for (UTL_IdListActiveIterator i (this);
!i.is_done ();
i.next ())
{
if (n > delimiter_start)
{
ACE_OS::strncat (buffer, "::", 2);
}
const char *item = i.item ()->get_string ();
ACE_OS::strcat (buffer, item);
n++;
}
buffer[size - 1] = '\0';
return buffer;
}
// TODO: move it to posix_common.sh
std::string search_executable(tstring const& filename, tstring const& path)
{
if( is_absolute(filename) )
if( is_executable(filename) )
return filename.str();
std::vector<std::string> dirs = split(path, PATH_SEPARATOR);
for(std::vector<std::string>::const_iterator ipath = dirs.begin(); ipath != dirs.end(); ++ipath )
{
std::string result_name = tinfra::path::join(*ipath, filename);
if( is_executable(result_name) ) {
return result_name;
}
}
return "";
}
wchar_t *make_absolute(wchar_t *path, wchar_t *base) {
wchar_t *ret;
size_t sz;
if (is_absolute(path)) {
return _wcsdup(path);
}
sz = wcslen(path) + wcslen(base) + 2;
ret = (wchar_t *)calloc(sz, sizeof(wchar_t));
if (ret == NULL) {
error(RC_NOT_ENOUGH_MEM, L"Not enough memory in make_absolute()");
}
/* TODO: base might have a terminating \ which we should skip */
wcscpy(ret, base);
wcscat(ret, L"\\");
wcscat(ret, path);
return ret;
}
PathObjectList get_objects(const hdf5::node::Group &base,const Path &path)
{
PathObjectList list;
if(path.has_attribute())
{
//if we are looking for attributes we first have to identify the parent
//objects.
NodeList parent_list;
if(path.size()==0)
{
parent_list.push_back(base);
}
else
{
Path parent_path(path);
parent_path.attribute(std::string());
parent_list = get_objects(base,parent_path);
}
//once we have identified the parents we can select those who have
//an attribute of appropriate name
for(auto node: parent_list)
{
if(node.attributes.exists(path.attribute()))
list.push_back(node.attributes[path.attribute()]);
}
}
else
{
auto iter_begin = hdf5::node::RecursiveLinkIterator::begin(base);
auto iter_end = hdf5::node::RecursiveLinkIterator::end(base);
if(is_absolute(path))
std::copy_if(iter_begin,iter_end,std::back_inserter(list),AbsolutePathMatcher(path));
else
{
std::copy_if(iter_begin,iter_end,std::back_inserter(list),RelativePathMatcher(path,get_path(base)));
}
}
return list;
}
/** Copy p into path, ensuring that the result is an absolute path.
copy_absolute requires that path be allocated at least
MAXPATHLEN + 1 bytes and that p be no more than MAXPATHLEN bytes.
@param[out] path Destination to receive the absolute path.
@param[in] p Path to be tested and possibly converted.
**/
static void
copy_absolute(char *path, char *p)
{
if (is_absolute(p) == 1)
strcpy(path, p);
else {
if (!getcwd(path, MAXPATHLEN)) {
/* unable to get the current directory */
if(volume_name[0] != 0) {
strcpy(path, volume_name);
joinpath(path, p);
}
else
strcpy(path, p);
return;
}
if (p[0] == '.' && is_sep(p[1]))
p += 2;
joinpath(path, p);
}
}
void CL_CSSUsedValues::calc_noncontent_height(const CL_CSSBoxProperties &properties)
{
margin.top = get_margin_width(properties.margin_width_top);
margin.bottom = get_margin_width(properties.margin_width_bottom);
border.top = properties.border_width_top.length.value;
border.bottom = properties.border_width_bottom.length.value;
padding.top = get_padding_width(properties.padding_width_top);
padding.bottom = get_padding_width(properties.padding_width_bottom);
if (is_absolute(properties))
{
if (replaced)
{
// 'top' + 'margin-top' + 'border-top-width' + 'padding-top' + 'height' + 'padding-bottom' + 'border-bottom-width' + 'margin-bottom' + 'bottom' = height of containing block
}
else
{
// 'top' + 'margin-top' + 'border-top-width' + 'padding-top' + 'height' + 'padding-bottom' + 'border-bottom-width' + 'margin-bottom' + 'bottom' = height of containing block
}
}
}
NodePath NodePath::rel_path_to(const NodePath &p_np) const {
ERR_FAIL_COND_V(!is_absolute(), NodePath());
ERR_FAIL_COND_V(!p_np.is_absolute(), NodePath());
Vector<StringName> src_dirs = get_names();
Vector<StringName> dst_dirs = p_np.get_names();
//find common parent
int common_parent = 0;
while (true) {
if (src_dirs.size() == common_parent)
break;
if (dst_dirs.size() == common_parent)
break;
if (src_dirs[common_parent] != dst_dirs[common_parent])
break;
common_parent++;
}
common_parent--;
Vector<StringName> relpath;
for (int i = src_dirs.size() - 1; i > common_parent; i--) {
relpath.push_back("..");
}
for (int i = common_parent + 1; i < dst_dirs.size(); i++) {
relpath.push_back(dst_dirs[i]);
}
if (relpath.size() == 0)
relpath.push_back(".");
return NodePath(relpath, p_np.get_subnames(), false, p_np.get_property());
}
void my_mkdir(const char *name)
{
char w0[MAXLEN];
int i;
int chars;
if(!is_absolute(name)) {
debuga(_("Invalid path (%s). Please, use absolute paths only.\n"),name);
debuga(_("process aborted.\n"));
exit(EXIT_FAILURE);
}
chars=0;
for (i=0 ; name[i] ; i++) {
if (i>=sizeof(w0)) {
debuga(_("directory name too long: %s\n"),name);
exit(EXIT_FAILURE);
}
if (chars>0 && name[i] == '/') {
w0[i] = '\0';
if(access(w0, R_OK) != 0) {
if(mkdir(w0,0755)) {
debuga(_("mkdir %s %s\n"),w0,strerror(errno));
debuga(_("process aborted.\n"));
exit(EXIT_FAILURE);
}
}
}
if (name[i] != '/') chars++;
w0[i] = name[i];
}
if(access(name, R_OK) != 0) {
if(mkdir(name,0755)) {
debuga(_("mkdir %s %s\n"),name,strerror(errno));
debuga(_("process aborted.\n"));
exit(EXIT_FAILURE);
}
}
}
char*find_file(const char*filename, char error)
{
include_dir_t*i = current_include_dirs;
FILE*fi = 0;
if(is_absolute(filename)) {
FILE*fi = fopen(filename, "rb");
if(fi) {
fclose(fi);
return strdup(filename);
}
} else {
if(!i && error) {
as3_warning("Include directory stack is empty, while looking for file %s", filename);
}
while(i) {
char*p = concat_paths(i->path, filename);
fi = fopen(p, "rb");
if(fi) {
fclose(fi);
return p;
} else {
free(p);
}
i = i->next;
}
}
if(!error) {
return 0;
}
as3_error("Couldn't find file %s", filename);
i = current_include_dirs;
while(i) {
fprintf(stderr, "include dir: %s\n", i->path);
i = i->next;
}
return 0;
}
//params is string representing path, either absolute or relative in respect to cur_path and root_path
//remove relatives from params and returns path concatenated of root cur_path params, buffer is allocated.
//to cur_path store new current path relative to root, buffer is allocated
char *
get_full_path(char *root, char **cur_path, char *params)
{
char *c_path;
if(is_absolute(params))
{
c_path = malloc(strlen(params) + 1);
strcpy(c_path, params);
}
else
{
c_path = malloc(strlen(*cur_path) + 1 + strlen(params) + 1);
strcpy(c_path, *cur_path);
strcat(c_path, "/");
strcat(c_path, params);
}
char *normalized_path = remove_relatives(remove_slashes(c_path));
free(c_path);
if(normalized_path)
{
*cur_path = normalized_path;
}
else
{
char *empty = malloc(1);
*empty = '\0';
*cur_path = empty;
}
char *res = malloc(strlen(root) + strlen(*cur_path) + 1);
strcpy(res, root);
strcat(res, *cur_path);
return res;
}
/** Determine paths.
Two directories must be found, the platform independent directory
(prefix), containing the common .py and .pyc files, and the platform
dependent directory (exec_prefix), containing the shared library
modules. Note that prefix and exec_prefix are the same directory
for UEFI installations.
Separate searches are carried out for prefix and exec_prefix.
Each search tries a number of different locations until a ``landmark''
file or directory is found. If no prefix or exec_prefix is found, a
warning message is issued and the preprocessor defined PREFIX and
EXEC_PREFIX are used (even though they may not work); python carries on
as best as is possible, but some imports may fail.
Before any searches are done, the location of the executable is
determined. If argv[0] has one or more slashes in it, it is used
unchanged. Otherwise, it must have been invoked from the shell's path,
so we search %PATH% for the named executable and use that. If the
executable was not found on %PATH% (or there was no %PATH% environment
variable), the original argv[0] string is used.
Finally, argv0_path is set to the directory containing the executable
(i.e. the last component is stripped).
With argv0_path in hand, we perform a number of steps. The same steps
are performed for prefix and for exec_prefix, but with a different
landmark.
The prefix landmark will always be lib/python.VERSION/os.py and the
exec_prefix will always be lib/python.VERSION/dynaload, where VERSION
is Python's version number as defined at the beginning of this file.
First. See if the %PYTHONHOME% environment variable points to the
installed location of the Python libraries. If %PYTHONHOME% is set, then
it points to prefix and exec_prefix. %PYTHONHOME% can be a single
directory, which is used for both, or the prefix and exec_prefix
directories separated by the DELIM character.
Next. Search the directories pointed to by the preprocessor variables
PREFIX and EXEC_PREFIX. These paths are prefixed with the volume name
extracted from argv0_path. The volume names correspond to the UEFI
shell "map" names.
That's it!
Well, almost. Once we have determined prefix and exec_prefix, the
preprocessor variable PYTHONPATH is used to construct a path. Each
relative path on PYTHONPATH is prefixed with prefix. Then the directory
containing the shared library modules is appended. The environment
variable $PYTHONPATH is inserted in front of it all. Finally, the
prefix and exec_prefix globals are tweaked so they reflect the values
expected by other code, by stripping the "lib/python$VERSION/..." stuff
off. This seems to make more sense given that currently the only
known use of sys.prefix and sys.exec_prefix is for the ILU installation
process to find the installed Python tree.
The final, fully resolved, paths should look something like:
fs0:/Efi/Tools/python.efi
fs0:/Efi/StdLib/lib/python27
fs0:/Efi/StdLib/lib/python27/dynaload
**/
static void
calculate_path(void)
{
extern char *Py_GetProgramName(void);
static char delimiter[2] = {DELIM, '\0'};
static char separator[2] = {SEP, '\0'};
char *pythonpath = PYTHONPATH;
char *rtpypath = Py_GETENV("PYTHONPATH");
//char *home = Py_GetPythonHome();
char *path = getenv("path");
char *prog = Py_GetProgramName();
char argv0_path[MAXPATHLEN+1];
char zip_path[MAXPATHLEN+1];
char *buf;
size_t bufsz;
size_t prefixsz;
char *defpath;
/* ###########################################################################
Determine path to the Python.efi binary.
Produces progpath, argv0_path, and volume_name.
########################################################################### */
/* If there is no slash in the argv0 path, then we have to
* assume python is on the user's $PATH, since there's no
* other way to find a directory to start the search from. If
* $PATH isn't exported, you lose.
*/
if (strchr(prog, SEP))
strncpy(progpath, prog, MAXPATHLEN);
else if (path) {
while (1) {
char *delim = strchr(path, DELIM);
if (delim) {
size_t len = delim - path;
if (len > MAXPATHLEN)
len = MAXPATHLEN;
strncpy(progpath, path, len);
*(progpath + len) = '\0';
}
else
strncpy(progpath, path, MAXPATHLEN);
joinpath(progpath, prog);
if (isxfile(progpath))
break;
if (!delim) {
progpath[0] = '\0';
break;
}
path = delim + 1;
}
}
else
progpath[0] = '\0';
if ( (!is_absolute(progpath)) && (progpath[0] != '\0') )
absolutize(progpath);
strncpy(argv0_path, progpath, MAXPATHLEN);
argv0_path[MAXPATHLEN] = '\0';
set_volume(volume_name, argv0_path);
reduce(argv0_path);
/* At this point, argv0_path is guaranteed to be less than
MAXPATHLEN bytes long.
*/
/* ###########################################################################
Build the FULL prefix string, including volume name.
This is the full path to the platform independent libraries.
########################################################################### */
strncpy(prefix, volume_name, MAXPATHLEN);
joinpath(prefix, PREFIX);
joinpath(prefix, lib_python);
/* ###########################################################################
Build the FULL path to the zipped-up Python library.
########################################################################### */
strncpy(zip_path, prefix, MAXPATHLEN);
zip_path[MAXPATHLEN] = '\0';
reduce(zip_path);
joinpath(zip_path, "python00.zip");
bufsz = strlen(zip_path); /* Replace "00" with version */
zip_path[bufsz - 6] = VERSION[0];
zip_path[bufsz - 5] = VERSION[1];
/* ###########################################################################
Build the FULL path to dynamically loadable libraries.
########################################################################### */
strncpy(exec_prefix, volume_name, MAXPATHLEN); // "fs0:"
joinpath(exec_prefix, EXEC_PREFIX); // "fs0:/Efi/StdLib"
joinpath(exec_prefix, lib_python); // "fs0:/Efi/StdLib/lib/python.27"
joinpath(exec_prefix, "lib-dynload"); // "fs0:/Efi/StdLib/lib/python.27/lib-dynload"
/* ###########################################################################
Build the module search path.
########################################################################### */
/* Reduce prefix and exec_prefix to their essence,
* e.g. /usr/local/lib/python1.5 is reduced to /usr/local.
* If we're loading relative to the build directory,
* return the compiled-in defaults instead.
*/
reduce(prefix);
reduce(prefix);
/* The prefix is the root directory, but reduce() chopped
* off the "/". */
if (!prefix[0]) {
strcpy(prefix, volume_name);
}
bufsz = strlen(prefix);
if(prefix[bufsz-1] == ':') { // if prefix consists solely of a volume_name
prefix[bufsz] = SEP; // then append SEP indicating the root directory
prefix[bufsz+1] = 0; // and ensure the new string is terminated
}
/* Calculate size of return buffer.
*/
defpath = pythonpath;
bufsz = 0;
if (rtpypath)
bufsz += strlen(rtpypath) + 1;
prefixsz = strlen(prefix) + 1;
while (1) {
char *delim = strchr(defpath, DELIM);
if (is_absolute(defpath) == 0)
/* Paths are relative to prefix */
bufsz += prefixsz;
if (delim)
bufsz += delim - defpath + 1;
else {
bufsz += strlen(defpath) + 1;
break;
}
defpath = delim + 1;
}
bufsz += strlen(zip_path) + 1;
bufsz += strlen(exec_prefix) + 1;
/* This is the only malloc call in this file */
buf = (char *)PyMem_Malloc(bufsz);
if (buf == NULL) {
/* We can't exit, so print a warning and limp along */
fprintf(stderr, "Not enough memory for dynamic PYTHONPATH.\n");
fprintf(stderr, "Using default static PYTHONPATH.\n");
module_search_path = PYTHONPATH;
}
else {
/* Run-time value of $PYTHONPATH goes first */
if (rtpypath) {
strcpy(buf, rtpypath);
strcat(buf, delimiter);
}
else
buf[0] = '\0';
/* Next is the default zip path */
strcat(buf, zip_path);
strcat(buf, delimiter);
/* Next goes merge of compile-time $PYTHONPATH with
* dynamically located prefix.
*/
defpath = pythonpath;
while (1) {
char *delim = strchr(defpath, DELIM);
if (is_absolute(defpath) != 1) {
strcat(buf, prefix);
strcat(buf, separator);
}
if (delim) {
size_t len = delim - defpath + 1;
size_t end = strlen(buf) + len;
strncat(buf, defpath, len);
*(buf + end) = '\0';
}
else {
strcat(buf, defpath);
break;
}
defpath = delim + 1;
}
strcat(buf, delimiter);
/* Finally, on goes the directory for dynamic-load modules */
strcat(buf, exec_prefix);
/* And publish the results */
module_search_path = buf;
}
/* At this point, exec_prefix is set to VOL:/Efi/StdLib/lib/python.27/dynalib.
We want to get back to the root value, so we have to remove the final three
segments to get VOL:/Efi/StdLib. Because we don't know what VOL is, and
EXEC_PREFIX is also indeterminate, we just remove the three final segments.
*/
reduce(exec_prefix);
reduce(exec_prefix);
reduce(exec_prefix);
if (!exec_prefix[0]) {
strcpy(exec_prefix, volume_name);
}
bufsz = strlen(exec_prefix);
if(exec_prefix[bufsz-1] == ':') {
exec_prefix[bufsz] = SEP;
exec_prefix[bufsz+1] = 0;
}
if (Py_VerboseFlag) PySys_WriteStderr("%s[%d]: module_search_path = \"%s\"\n", __func__, __LINE__, module_search_path);
if (Py_VerboseFlag) PySys_WriteStderr("%s[%d]: prefix = \"%s\"\n", __func__, __LINE__, prefix);
if (Py_VerboseFlag) PySys_WriteStderr("%s[%d]: exec_prefix = \"%s\"\n", __func__, __LINE__, exec_prefix);
if (Py_VerboseFlag) PySys_WriteStderr("%s[%d]: progpath = \"%s\"\n", __func__, __LINE__, progpath);
}
/// Converts a relative path in the current directory to an absolute path.
///
/// \pre The path is relative.
///
/// \return The absolute representation of the relative path.
fs::path
fs::path::to_absolute(void) const
{
PRE(!is_absolute());
return fs::current_path() / *this;
}
