std::string getOSXSystemLang()
{
// Get the user's language list (in order of preference)
CFArrayRef langs = CFLocaleCopyPreferredLanguages();
if( CFArrayGetCount( langs ) == 0 ) {
return "en_US";
}
const char *lang_code_raw = CFStringGetCStringPtr(
( CFStringRef )CFArrayGetValueAtIndex( langs, 0 ),
kCFStringEncodingUTF8 );
if( !lang_code_raw ) {
return "en_US";
}
// Convert to the underscore format expected by gettext
std::string lang_code( lang_code_raw );
std::replace( lang_code.begin(), lang_code.end(), '-', '_' );
/**
* Handle special case for simplified/traditional Chinese. Simplified/Traditional
* is actually denoted by the region code in older iterations of the
* language codes, whereas now (at least on OS X) region is distinct.
* That is, CDDA expects 'zh_CN' but OS X might give 'zh-Hans-CN'.
*/
if( string_starts_with( lang_code, "zh_Hans" ) ) {
return "zh_CN";
} else if( string_starts_with( lang_code, "zh_Hant" ) ) {
return "zh_TW";
}
return isValidLanguage( lang_code ) ? lang_code : "en_US";
}
static void test_string_starts_with() {
CU_ASSERT_TRUE(string_starts_with("#Comentario", "#"));
CU_ASSERT_TRUE(string_starts_with("Comentario", "Comen"));
CU_ASSERT_FALSE(string_starts_with("Comentario", "comen"));
CU_ASSERT_FALSE(string_starts_with("Comentario", "lala"));
CU_ASSERT_FALSE(string_starts_with("", "#"));
}
/*
* @NAME: config_create
* @DESC: Crea y devuelve un puntero a una estructura t_config
* @PARAMS:
* path - path del archivo de configuracion
*/
t_config *config_create(char *path) {
t_config *config = malloc(sizeof(t_config));
config->path = strdup(path);
config->properties = dictionary_create();
struct stat stat_file;
stat(path, &stat_file);
FILE* file = NULL;
file = fopen(path, "r");
if (file != NULL) {
char* buffer = calloc(1, stat_file.st_size + 1);
fread(buffer, stat_file.st_size, 1, file);
char** lines = string_split(buffer, "\n");
void add_cofiguration(char *line) {
if (!string_starts_with(line, "#")) {
char** keyAndValue = string_split(line, "=");
dictionary_put(config->properties, keyAndValue[0], keyAndValue[1]);
free(keyAndValue[0]);
free(keyAndValue);
}
}
string_iterate_lines(lines, add_cofiguration);
string_iterate_lines(lines, (void*) free);
free(lines);
free(buffer);
fclose(file);
} else {
int main(int argc, char **argv) {
char *arg;
char *address = NULL;
char *language = NULL;
bool use_json = false;
string_array *languages = NULL;
for (int i = 1; i < argc; i++) {
arg = argv[i];
if (string_equals(arg, "-h") || string_equals(arg, "--help")) {
printf(LIBPOSTAL_USAGE);
exit(EXIT_SUCCESS);
} else if (string_equals(arg, "--json")) {
use_json = true;
} else if (address == NULL) {
address = arg;
} else if (!string_starts_with(arg, "-")) {
if (languages == NULL) {
languages = string_array_new();
}
string_array_push(languages, arg);
}
}
if (address == NULL && (!use_json || isatty(fileno(stdin)))) {
log_error(LIBPOSTAL_USAGE);
exit(EXIT_FAILURE);
}
if (!libpostal_setup() || (languages == NULL && !libpostal_setup_language_classifier())) {
exit(EXIT_FAILURE);
}
normalize_options_t options = get_libpostal_default_options();
if (languages != NULL) {
options.languages = languages->a;
options.num_languages = languages->n;
}
if (address == NULL) {
char *line;
while ((line = file_getline(stdin)) != NULL) {
print_output(line, options, use_json);
free(line);
}
} else {
print_output(address, options, use_json);
}
if (languages != NULL) {
string_array_destroy(languages);
}
libpostal_teardown();
libpostal_teardown_language_classifier();
}
static void test_string_starts_with() {
TEST;
if(string_starts_with("Hello world", "Hello") != 1) {
FAILURE("Test case failed!\n");
}
TEST;
if(string_starts_with("Hello world", "Hello") != 1) {
FAILURE("Test case failed!\n");
}
TEST;
if(string_starts_with(" Hello world", " Hello") != 1) {
FAILURE("Test case failed!\n");
}
}
// ----------------------------------------------------------------
static char * test_starts_or_ends_with() {
mu_assert_lf(string_starts_with("abcde", ""));
mu_assert_lf(string_starts_with("abcde", "a"));
mu_assert_lf(string_starts_with("abcde", "abcd"));
mu_assert_lf(string_starts_with("abcde", "abcde"));
mu_assert_lf(!string_starts_with("abcde", "abcdef"));
mu_assert_lf(string_ends_with("abcde", "", NULL));
mu_assert_lf(string_ends_with("abcde", "e", NULL));
mu_assert_lf(string_ends_with("abcde", "de", NULL));
mu_assert_lf(string_ends_with("abcde", "abcde", NULL));
mu_assert_lf(!string_ends_with("abcde", "0abcde", NULL));
int len = -1;
mu_assert_lf(!string_ends_with("abcde", "0abcde", &len));
mu_assert_lf(len == 5);
return 0;
}
int lengthVecConfig(char * value){
int cont=1;
int i;
for (i=1;i< strlen(value);i++) {
if (string_starts_with(string_substring_from(value,i),","))
cont++;
}
return cont;
}
// This function parses the src_string for the key
// To simplify this function, key has to have the = sign in it
// for example: html_GET("SSID=");
uint8_t html_GET(uint8_t * destination, uint8_t * src, uint8_t * key) {
uint8_t * value = 0;
if(!src || !key) return FAILURE;
uint8_t * cur_ptr = src;
// Here we search for the existence of the key in the string
while(*cur_ptr != 0) {
if(string_starts_with(key,cur_ptr)) {
value = &cur_ptr[strlen((char *)key)];
break;
}
cur_ptr = &cur_ptr[1];
}
if(!value) return FAILURE;
// With the key found, we must terminate the string
cur_ptr = value;
uint8_t temp_character = 0;
while(cur_ptr) {
if(*cur_ptr == '?') break;
if(*cur_ptr == 0) break;
if(*cur_ptr == '&') break;
if(*cur_ptr == ' ') break;
cur_ptr++;
}
temp_character = *cur_ptr;
*cur_ptr = 0;
if(strlen((char *)value) == 0) return FAILURE;
if(destination) {
//+1 for null plug
if(strlen((char *)value)+1 < MAX_VARCHAR_LENGTH) memcpy(destination, value, strlen((char *)value)+1);
else return FAILURE;
}
*cur_ptr = temp_character;
return SUCCESS;
}
void test_string() {
constexpr size_t NUM_STRINGS = 1024;
std::vector<std::string> strings(NUM_STRINGS);
std::vector<grnxx::String> refs(NUM_STRINGS);
std::vector<grnxx::String> bodies(NUM_STRINGS);
for (size_t i = 0; i < NUM_STRINGS; ++i) {
std::stringstream stream;
stream << i;
strings[i] = stream.str();
refs[i] = grnxx::String(strings[i].data(), strings[i].size());
assert(refs[i].is_reference());
bodies[i].assign(refs[i]);
assert(bodies[i].is_instance());
}
for (size_t i = 0; i < NUM_STRINGS; ++i) {
assert(bodies[i].size() == static_cast<size_t>(strings[i].size()));
for (size_t j = 0; j < bodies[i].size(); ++j) {
assert(bodies[i][j] == strings[i][j]);
}
for (size_t j = 0; j < NUM_STRINGS; ++j) {
assert((bodies[i] == bodies[j]) == (strings[i] == strings[j]));
assert((bodies[i] != bodies[j]) == (strings[i] != strings[j]));
assert((bodies[i] < bodies[j]) == (strings[i] < strings[j]));
assert((bodies[i] > bodies[j]) == (strings[i] > strings[j]));
assert((bodies[i] <= bodies[j]) == (strings[i] <= strings[j]));
assert((bodies[i] >= bodies[j]) == (strings[i] >= strings[j]));
assert((bodies[i] == refs[j]) == (strings[i] == strings[j]));
assert((bodies[i] != refs[j]) == (strings[i] != strings[j]));
assert((bodies[i] < refs[j]) == (strings[i] < strings[j]));
assert((bodies[i] > refs[j]) == (strings[i] > strings[j]));
assert((bodies[i] <= refs[j]) == (strings[i] <= strings[j]));
assert((bodies[i] >= refs[j]) == (strings[i] >= strings[j]));
assert((bodies[i] == strings[j].c_str()) == (strings[i] == strings[j]));
assert((bodies[i] != strings[j].c_str()) == (strings[i] != strings[j]));
assert((bodies[i] < strings[j].c_str()) == (strings[i] < strings[j]));
assert((bodies[i] > strings[j].c_str()) == (strings[i] > strings[j]));
assert((bodies[i] <= strings[j].c_str()) == (strings[i] <= strings[j]));
assert((bodies[i] >= strings[j].c_str()) == (strings[i] >= strings[j]));
assert((refs[i] == bodies[j]) == (strings[i] == strings[j]));
assert((refs[i] != bodies[j]) == (strings[i] != strings[j]));
assert((refs[i] < bodies[j]) == (strings[i] < strings[j]));
assert((refs[i] > bodies[j]) == (strings[i] > strings[j]));
assert((refs[i] <= bodies[j]) == (strings[i] <= strings[j]));
assert((refs[i] >= bodies[j]) == (strings[i] >= strings[j]));
assert((strings[i].c_str() == bodies[j]) == (strings[i] == strings[j]));
assert((strings[i].c_str() != bodies[j]) == (strings[i] != strings[j]));
assert((strings[i].c_str() < bodies[j]) == (strings[i] < strings[j]));
assert((strings[i].c_str() > bodies[j]) == (strings[i] > strings[j]));
assert((strings[i].c_str() <= bodies[j]) == (strings[i] <= strings[j]));
assert((strings[i].c_str() >= bodies[j]) == (strings[i] >= strings[j]));
assert(bodies[i].starts_with(bodies[j]) ==
string_starts_with(strings[i], strings[j]));
assert(bodies[i].starts_with(strings[j].c_str()) ==
string_starts_with(strings[i], strings[j]));
assert(bodies[i].ends_with(bodies[j]) ==
string_ends_with(strings[i], strings[j]));
assert(bodies[i].ends_with(strings[j].c_str()) ==
string_ends_with(strings[i], strings[j]));
}
}
for (size_t i = 0; i < NUM_STRINGS; ++i) {
std::stringstream stream;
stream << (i / 2.0);
std::string extra_string = stream.str();
strings[i].append(extra_string);
bodies[i].append(extra_string.data(), extra_string.size());
assert(bodies[i] == grnxx::String(strings[i].data(), strings[i].size()));
}
for (size_t i = 0; i < NUM_STRINGS; ++i) {
strings[i].append(strings[i]);
bodies[i].append(bodies[i]);
assert(std::string(bodies[i].data(), bodies[i].size()) == strings[i]);
}
}
void String__starts_with(caStack* stack)
{
set_bool(circa_output(stack, 0), string_starts_with(circa_input(stack, 0), as_cstring(circa_input(stack, 1))));
}
NwaRefPtr
assemble_nwa(ProcedureMap const & procedures,
boost::function<void (Nwa &, State, State)> call_inserter,
boost::function<void (Nwa &, State, State, State)> return_inserter)
{
NwaRefPtr finalnwa = new Nwa();
std::map<std::string, std::set<State> > entries_map;
std::map<std::string, std::set<State> > exits_map;
////////
// We will set up the states, then fix up the transitions.
// First, combine all of the procedures (to get all the states
// and transitions.)
for (ProcedureMap::const_iterator proc = procedures.begin();
proc != procedures.end(); ++proc)
{
NwaRefPtr min = minimize_internal_nwa(proc->second);
//NwaRefPtr min = proc->second;
entries_map[proc->first] = min->getInitialStates();
exits_map[proc->first] = min->getFinalStates();
if (proc->first != "main") {
min->clearInitialStates();
min->clearFinalStates();
}
finalnwa->combineWith(*min);
}
////////
// Now set up the transitions
// Now, find each of the transitions on a symbol __call__*. These
// are the transitions we will replace.
Nwa::Internals fake_call_transitions;
for (Nwa::InternalIterator trans=finalnwa->beginInternalTrans();
trans != finalnwa->endInternalTrans(); ++trans)
{
std::string symbol = key2str(trans->second);
if (string_starts_with(symbol, call_prefix)) {
fake_call_transitions.insert(*trans);
}
}
// Okay, now we have to do two things with each of those
// transitions. The simpler one is to remove it. The more
// complicated one is add a call and a return transition. The
// call transition goes from the source to the entry of the
// procedure that corresponds to the transition's symbol. The
// return goes from the exit of that procedure to the return
// node, with the call node as the predecessor.
//
// Schematically:
// C ------------------> R
// __call__foo
// turns into
// C R
// | /\ .
// call | | return (C as call predecessor)
// | |
// V |
// entry_foo exit_foo
//
for (Nwa::Internals::iterator fake_call = fake_call_transitions.begin();
fake_call != fake_call_transitions.end(); ++fake_call)
{
// Remove the fake call.
finalnwa->removeInternalTrans(*fake_call);
// Prepare for the call and return transitions
Key call_site = fake_call->first;
Key return_site = fake_call->third;
std::string symbol = key2str(fake_call->second);
std::string callee_name = remove_prefix(symbol, call_prefix);
assert(entries_map.find(callee_name) != entries_map.end());
assert(exits_map.find(callee_name) != exits_map.end());
std::set<State> const & entries = entries_map[callee_name];
std::set<State> const & exits = exits_map[callee_name];
// I don't think these assertions are necessary for the below
// to work, but they do apply in my setting. TODO: consider
// removing them when I make this code more general. -Evan
// 3/10/11 (Actually change to >= 1 instead of remove
// entirely.)
assert(entries.size() == 1);
// Now add the call transition(s)
for (std::set<State>::const_iterator entry = entries.begin();
entry != entries.end(); ++entry)
{
call_inserter(*finalnwa, call_site, *entry);
//finalnwa->addCallTrans(call_site, call_key, *entry);
//finalnwa->addInternalTrans(call_site, EPSILON, *entry);
}
// Now add the return transition(s)
for (std::set<State>::const_iterator exit = exits.begin();
exit != exits.end(); ++exit)
{
return_inserter(*finalnwa, *exit, call_site, return_site);
//finalnwa->addReturnTrans(*exit, call_site, return_key, return_site);
//finalnwa->addInternalTrans(*exit, EPSILON, return_site);
}
}
// Finally, we remove the __call__ symbols from the automaton.
std::set<Symbol> to_remove;
for (Nwa::SymbolIterator symiter = finalnwa->beginSymbols();
symiter != finalnwa->endSymbols(); ++symiter)
{
Symbol symbol = *symiter;
if (string_starts_with(key2str(symbol), call_prefix)) {
// It shouldn't be used in any transitions. Check that.
assert(query::getSources_Sym(*finalnwa, symbol).size() == 0);
assert(query::getCallSites_Sym(*finalnwa, symbol).size() == 0);
assert(query::getExits_Sym(*finalnwa, symbol).size() == 0);
// Now schedule it for removal
to_remove.insert(symbol);
}
}
for (std::set<Symbol>::iterator s=to_remove.begin(); s!=to_remove.end(); ++s){
finalnwa->removeSymbol(*s);
}
return finalnwa;
} // end assemble_nwa()
std::string
remove_prefix(std::string const & str, std::string const & prefix)
{
assert(string_starts_with(str, prefix));
return str.substr(prefix.size());
}
int string_starts_with_string(String* source, String* prefix) {
return string_starts_with(source, prefix->string);
}
int parse_scan_line(type_t *type, boolean *is_counter, char **destformat, char *format) {
char buf[strlen(format)];
char *fmt = format;
char *c = buf;
int size;
*is_counter = false;
if (!format)
return 0;
while (*fmt != '\0') {
if (*fmt == '%') {
*c++ = *fmt++;
if (*fmt == '%') {
*c++ = *fmt++;
continue;
}
if (*fmt == '*') {
*c++ = *fmt++;
continue;
}
if (*fmt == '!') {
fmt++;
*is_counter = true;
}
break;
} else {
*c++ = *fmt++;
}
}
while (isdigit((int) *fmt))
*c++ = *fmt++;
if ( string_starts_with(fmt, "[")
|| string_starts_with(fmt, "s")
|| string_starts_with(fmt, "c")) {
*type = string_type;
size = buflen;
} else if (string_starts_with(fmt, "hhd")
|| string_starts_with(fmt, "hhi")
|| string_starts_with(fmt, "hhn")) {
*type = char_type;
size = sizeof(char);
} else if (string_starts_with(fmt, "hho")
|| string_starts_with(fmt, "hhu")
|| string_starts_with(fmt, "hhx")) {
*type = uchar_type;
size = sizeof(unsigned char);
} else if (string_starts_with(fmt, "hd")
|| string_starts_with(fmt, "hi")
|| string_starts_with(fmt, "hn")) {
*type = short_type;
size = sizeof(short);
} else if (string_starts_with(fmt, "ho")
|| string_starts_with(fmt, "hu")
|| string_starts_with(fmt, "hx")) {
*type = ushort_type;
size = sizeof(unsigned short);
} else if (string_starts_with(fmt, "d")
|| string_starts_with(fmt, "i")
|| string_starts_with(fmt, "n")) {
*type = int_type;
size = sizeof(int);
} else if (string_starts_with(fmt, "o")
|| string_starts_with(fmt, "u")
|| string_starts_with(fmt, "x")) {
*type = uint_type;
size = sizeof(unsigned int);
} else if (string_starts_with(fmt, "ld")
|| string_starts_with(fmt, "li")
|| string_starts_with(fmt, "ln")) {
*type = long_type;
size = sizeof(long);
} else if (string_starts_with(fmt, "lo")
|| string_starts_with(fmt, "lu")
|| string_starts_with(fmt, "lx")) {
*type = ulong_type;
size = sizeof(unsigned long);
} else if (string_starts_with(fmt, "Ld")
|| string_starts_with(fmt, "Li")
|| string_starts_with(fmt, "Ln")
|| string_starts_with(fmt, "lld")
|| string_starts_with(fmt, "lli")
|| string_starts_with(fmt, "lln")) {
*type = longlong_type;
size = sizeof(long long);
} else if (string_starts_with(fmt, "Lo")
|| string_starts_with(fmt, "Lu")
|| string_starts_with(fmt, "Lx")
|| string_starts_with(fmt, "llo")
|| string_starts_with(fmt, "llu")
|| string_starts_with(fmt, "llx")) {
*type = ulonglong_type;
size = sizeof(unsigned long long);
} else if (string_starts_with(fmt, "f")
|| string_starts_with(fmt, "e")
|| string_starts_with(fmt, "g")) {
*type = float_type;
size = sizeof(float);
} else if (string_starts_with(fmt, "lf")
|| string_starts_with(fmt, "le")
|| string_starts_with(fmt, "lg")) {
*type = double_type;
size = sizeof(double);
} else if (string_starts_with(fmt, "Lf")
|| string_starts_with(fmt, "Le")
|| string_starts_with(fmt, "Lg")
|| string_starts_with(fmt, "llf")
|| string_starts_with(fmt, "lle")
|| string_starts_with(fmt, "llg")) {
*type = longdouble_type;
size = sizeof(long double);
} else {
*type = invalid_type;
size = 0;
debugf("cannot determine var type for: %s", format);
}
while (*fmt != '\0')
*c++ = *fmt++;
*c = '\0';
*destformat = (char *) smalloc(strlen(buf)+1);
strcpy(*destformat, buf);
return size;
}
//
// Function called when a new HTTP request have been recieved.
//
static void http_handler(struct evhttp_request *request, void *userdata) {
struct owl_state* state = userdata;
// Setup general response headers
struct evkeyvalq *headers = evhttp_request_get_output_headers(request);
evhttp_add_header(headers, "Server", USER_AGENT);
// Get the requested URI
const char* uri = evhttp_request_get_uri(request);
const int http_method = evhttp_request_get_command(request);
if( http_method != EVHTTP_REQ_GET &&
http_method != EVHTTP_REQ_PUT &&
http_method != EVHTTP_REQ_POST) {
evhttp_send_error(request, 501, "Not Implemented");
return;
}
TRACE("Received HTTP request: %s (method %d)\n", uri, http_method);
// Keep the request for async usage
state->http_request = request;
//
// Retrieve application state (sync)
if(string_starts_with(uri, "/api/state") && http_method == EVHTTP_REQ_GET) {
state_action(state);
}
//
// Shutdown owl application (async)
else if(string_starts_with(uri, "/api/shutdown") && http_method == EVHTTP_REQ_GET) {
shutdown_action(state);
}
//
// Try to login to Spotify (async)
else if(string_starts_with(uri, "/api/login") && http_method == EVHTTP_REQ_GET) {
char* username = extract_uri_section(2, uri);
char* password = extract_uri_section(3, uri);
if(username != NULL && password != NULL) {
login_to_spotify_action(state, username, password);
}
else {
WARN("Could not extract username and password in order to login to Spotify!\n");
respond_error(request, OWL_HTTO_ERROR_NO_LOGIN_DETAILS, "No username or password given");
}
}
else if(string_starts_with(uri, "/api/login") && http_method == EVHTTP_REQ_POST) {
TRACE("POST LOGIN\n");
get_post_argument(request, "username");
evhttp_send_error(request, 501, "Not Implemented");
}
//
// Logout from spotify (async)
else if(string_starts_with(uri, "/api/logout") && http_method == EVHTTP_REQ_GET) {
if(state->state > OWL_STATE_LOGGING_IN && state->state < OWL_STATE_LOGGING_OUT)
logout_from_spotify_action(state);
else
respond_success(request);
}
//
// Clear the entire queue
else if(string_starts_with(uri, "/api/queue/clear") && http_method == EVHTTP_REQ_GET) {
if(state->state < OWL_STATE_IDLE || state->state > OWL_STATE_PLAYING) {
respond_error(request, OWL_HTTP_ERROR_NOT_LOGGED_IN, "Operation not allowed when not logged in");
}
else {
const int size = queue_size(state->spotify_state->queue);
for(int i = 0; i < size; i++) {
owl_track *track = pop_from_queue(state->spotify_state->queue);
free_track(track);
}
respond_success(request);
}
}
//
// Get the current playback queue (sync)
else if(string_starts_with(uri, "/api/queue") && http_method == EVHTTP_REQ_GET) {
if(state->state < OWL_STATE_IDLE || state->state > OWL_STATE_PLAYING) {
WARN("Operation not allowed at this state (%d)\n", state->state);
respond_error(request, OWL_HTTP_ERROR_NOT_LOGGED_IN, "Operation not allowed when not logged in");
}
else {
respond_with_queue(state->http_request, state->spotify_state->queue);
}
}
//
// Serve static file immediately
else {
// Create the buffer to retrn as content
struct evbuffer *content_buffer = evbuffer_new();
// If not a handler this is a static request
char *static_file = (char *) malloc(strlen(doc_root) + strlen(uri) + 1);
stpcpy(stpcpy(static_file, doc_root), uri);
TRACE("Looking for static file: %s\n", static_file);
bool file_exists = 1;
struct stat st;
if(stat(static_file, &st) == -1 || S_ISDIR(st.st_mode)) {
file_exists = 0;
evhttp_send_error(request, HTTP_NOTFOUND, "Not Found");
}
if(file_exists) {
const int file_size = st.st_size;
FILE *fp = fopen(static_file, "r");
const char* content_type = resolve_content_type(static_file);
evbuffer_add_file(content_buffer, fileno(fp), 0, file_size); // will close
TRACE("Resolving content type for filename: %s to: %s\n", static_file, content_type);
evhttp_add_header(headers, "Content-Type", content_type);
evhttp_send_reply(request, HTTP_OK, "OK", content_buffer);
}
free(static_file);
// Send the data
evhttp_send_reply(request, HTTP_OK, USER_AGENT, content_buffer);
// Free memrory
evbuffer_free(content_buffer);
}
return;
}