bool sentence_has_word( std::string sentence, std::string word )
{
sentence = sanitize(sentence) ;
word = trim( sanitize(word) ) ;
if( word.size() > sentence.size() ) return false ;
if( word.size() == sentence.size() ) return word == sentence ;
auto pos = sentence.find( word + ' ' ) ; // check for word at the beginning
if( pos == 0 ) return true ;
pos = sentence.find( ' ' + word + ' ' ) ; // check for word in the middle
if( pos != std::string::npos ) return true ;
word = ' ' + word ;
return sentence.substr( sentence.size() - word.size() ) == word ; // check for word at the end
}
/**
* AdvanceSelection in the list of text items - simple!
*/
int16_t ListWidget::advanceSelection(int16_t iAdv /*= 1*/)
{
//DEBUG_PRINT("ListWidget::advanceSelection "); DEBUG_PRINTDEC(iAdv); DEBUG_PRINTLN();
if(m_selectionMode != smSingleSelection)
return LB_ERR;
setCurSel(sanitize(getCurSel() + iAdv));
return 0;
}
void
ComplexBufferObject::recv()
{
complex<float>* pyData =
reinterpret_cast<complex<float>*>(PyArray_DATA((PyArrayObject*)_obj));
memcpy(_data + 1, pyData + 1, (_samples - 2) * sizeof(complex<float>));
_data[0] = complex<float>(pyData[0].real(), pyData[_samples - 1].real());
sanitize(_samples * 2 - 2, (float*)PyArray_DATA((PyArrayObject*)_obj));
}
// Test case: TestLookUp:1
// This test calls lookUp() for the condition where
// the query has an OR operator.
int TestLookUp1() {
START_TEST_CASE;
INVERTED_INDEX* testIndex = NULL;
int wordHash;
int wordHash2;
testIndex = initStructure(testIndex);
wordHash = hash1("dog") % MAX_NUMBER_OF_SLOTS;
DocumentNode* docNode = NULL;
docNode = newDocNode(docNode, 15, 1);
WordNode* wordNode = NULL;
wordNode = newWordNode(wordNode, docNode, "dog");
testIndex->hash[wordHash] = wordNode;
wordHash2 = hash1("cat") % MAX_NUMBER_OF_SLOTS;
DocumentNode* docNode2 = NULL;
docNode2 = newDocNode(docNode2, 20, 2);
WordNode* wordNode2 = NULL;
wordNode2 = newWordNode(wordNode2, docNode2, "cat");
testIndex->hash[wordHash2] = wordNode2;
char query[1000] = "dog OR cat";
sanitize(query);
char* temp[1000];
BZERO(temp, 1000);
char* queryList[2];
BZERO(queryList, 2);
curateWords(queryList, query);
SHOULD_BE(strcmp(queryList[0],"dog") == 0);
SHOULD_BE(strcmp(queryList[1],"OR") == 0);
SHOULD_BE(strcmp(queryList[2],"cat") == 0);
DocumentNode* saved[1000];
BZERO(saved, 1000);
lookUp(saved, queryList, testIndex);
SHOULD_BE(saved[0]->document_id == docNode->document_id);
SHOULD_BE(saved[0]->page_word_frequency == docNode->page_word_frequency);
SHOULD_BE(saved[1]->document_id == docNode2->document_id);
SHOULD_BE(saved[1]->page_word_frequency == docNode2->page_word_frequency);
cleanUpList(saved);
cleanUpQueryList(queryList);
BZERO(saved, 1000);
cleanUpIndex(testIndex);
END_TEST_CASE;
}
/// Insert event in heap deterministically
void HeapNode::insertDeterministic(Event *e)
{
#ifdef EH_SANITIZE
sanitize();
#endif
CmiAssert(this != NULL);
CmiAssert(e->timestamp > this->e->timestamp || (e->timestamp == this->e->timestamp && e->evID >= this->e->evID));
HeapNode *eh;
if (left == NULL) { // make it the left subheap
eh = new HeapNode(e, 1, NULL, NULL);
left = eh;
subheapsize += 1;
}
else if (right == NULL) { // make it the right subheap
eh = new HeapNode(e, 1, NULL, NULL);
right = eh;
subheapsize += 1;
}
else if ((e->timestamp < left->e->timestamp) ||
((e->timestamp == left->e->timestamp) &&
(e->evID <= left->e->evID))) { // make root of left subtree
eh = new HeapNode(e, left->subheapsize+1, left, NULL);
left = eh;
subheapsize += 1;
}
else if ((e->timestamp < right->e->timestamp) ||
((e->timestamp == right->e->timestamp) &&
(e->evID <= right->e->evID))) { // make root of right subtree
eh = new HeapNode(e, right->subheapsize+1, right, NULL);
right = eh;
subheapsize += 1;
}
else if (left->subheapsize < right->subheapsize) { // insert in left subtree
subheapsize += 1;
left->insertDeterministic(e);
}
else { // insert in right subtree
subheapsize += 1;
right->insertDeterministic(e);
}
#ifdef EH_SANITIZE
sanitize();
#endif
}
int main(int argc, char** argv)
{
struct sockaddr_in saddr;
struct hostent *hp;
char hostname[HOSTLEN];
int sock_id, sock_fd;
FILE *sock_fpi, *sock_fpo;
FILE *pipe_fp;
char dirname[BUFSIZ];
char command[BUFSIZ];
int dirlen, c;
sock_id = socket( PF_INET, SOCK_STREAM, 0 );
if ( sock_id == -1 )
oops("socket");
bzero((void *)&saddr, sizeof(saddr));
gethostname( hostname, HOSTLEN );
hp = gethostbyname( hostname );
bcopy( (void *)hp->h_addr, (void *)&saddr.sin_addr, hp->h_length );
saddr.sin_port = htons( PORTNUM );
saddr.sin_family = AF_INET;
if ( bind(sock_id, (struct sockaddr *)&saddr, sizeof(saddr)) != 0 )
oops( "bind" );
if ( listen(sock_id, 1) != 0 )
oops("listen");
while(1){
sock_fd = accept(sock_id, NULL, NULL);
if ( sock_fd == -1 )
oops("accept");
if ( (sock_fpi = fdopen( sock_fd, "r" )) == NULL )
oops("fdopen reading");
/* get a directory name from sock_fpi */
if ( fgets(dirname, BUFSIZ - 5, sock_fpi) == NULL )
oops("reading dirname");
sanitize(dirname);
if ( (sock_fpo = fdopen(sock_fd, "w")) == NULL )
oops("fdopen writing");
sprintf(command, "ls %s", dirname);
if ( (pipe_fp = popen(command, "r")) == NULL )
oops("popen");
/* transfer data to socket from ls */
while( (c = getc(pipe_fp)) != EOF)
putc(c, sock_fpo);
pclose(pipe_fp);
fclose(sock_fpo);
fclose(sock_fpi);
}
}
/// Insert e in the queue in timestamp order
void eventQueue::InsertEvent(Event *e)
{
tsOfLastInserted = e->timestamp;
if(pose_config.deterministic)
{
InsertEventDeterministic(e);
}
else
{
#ifdef EQ_SANITIZE
sanitize();
#endif
Event *tmp = backPtr->prev; // start at back of queue
if (e->timestamp > largest) largest = e->timestamp;
eventCount++;
// check if new event should go on heap:
// greater than last timestamp in queue,
// or currentPtr is at back (presumably because heap is empty)
//CkPrintf("Received event "); e->evID.dump(); CkPrintf(" at %d...\n", e->timestamp);
if ((tmp->timestamp < e->timestamp || (tmp->timestamp == e->timestamp && tmp->evID < e->evID)) && (currentPtr != backPtr))
eqh->InsertEvent(e); // insert in heap
else { // tmp->timestamp > e->timestamp; insert in linked list
if ((currentPtr != backPtr) && (currentPtr->timestamp > e->timestamp))
tmp = currentPtr; // may be closer to insertion point
while (tmp->timestamp > e->timestamp || (tmp->timestamp == e->timestamp && tmp->evID > e->evID)) // search for position
tmp = tmp->prev;
// insert e
e->prev = tmp;
e->next = tmp->next;
e->next->prev = e;
tmp->next = e;
// if e is inserted before currPtr, move currPtr back to avoid rollback
if ((currentPtr->prev == e) && (currentPtr->done < 1))
currentPtr = currentPtr->prev;
else if ((currentPtr == backPtr) || (e->timestamp < currentPtr->timestamp || (e->timestamp == currentPtr->timestamp && e->evID < currentPtr->evID)))
SetRBevent(e);
}
#ifdef EQ_SANITIZE
sanitize();
#endif
}
}
static long double getnum()
{
while (*str==' ') str++;
#define prefix(name, func) if (!strnicmp(str, name, strlen(name))) { str+=strlen(name); long double val=getnum(); return sanitize(func); }
prefix("-", -val);
prefix("~", ~(int)val);
prefix("+", val);
//prefix("#", val);
#undef prefix
return sanitize(getnumcore());
}
static inline T _to(const std::string &s, const std::string &name)
{
std::istringstream is(s);
T v;
is >> v;
if (is.fail() || !is.eof())
{
throw exc(std::string("cannot convert '") + sanitize(s) + "' to " + name, EINVAL);
}
return v;
}
void av_log_default_callback(void* ptr, int level, const char* fmt, va_list vl)
{
static int print_prefix = 1;
static int count;
static char prev[LINE_SZ];
AVBPrint part[3];
char line[LINE_SZ];
static int is_atty;
int type[2];
if (level > av_log_level)
return;
format_line(ptr, level, fmt, vl, part, &print_prefix, type);
snprintf(line, sizeof(line), "%s%s%s", part[0].str, part[1].str, part[2].str);
#if HAVE_ISATTY
if (!is_atty)
is_atty = isatty(2) ? 1 : -1;
#endif
if (print_prefix && (flags & AV_LOG_SKIP_REPEATED) && !strcmp(line, prev) &&
*line && line[strlen(line) - 1] != '\r'){
count++;
if (is_atty == 1)
fprintf(stderr, " Last message repeated %d times\r", count);
av_bprint_finalize(part+2, NULL);
return;
}
if (count > 0) {
fprintf(stderr, " Last message repeated %d times\n", count);
count = 0;
}
strcpy(prev, line);
sanitize(part[0].str);
colored_fputs(type[0], part[0].str);
sanitize(part[1].str);
colored_fputs(type[1], part[1].str);
sanitize(part[2].str);
colored_fputs(av_clip(level >> 3, 0, 6), part[2].str);
av_bprint_finalize(part+2, NULL);
}
void dump(x0::Buffer& out, x0::HttpConnection* c, bool debug)
{
out << "<tr>";
out << "<td class='cid'>" << c->id() << "</td>";
out << "<td class='wid'>" << c->worker().id() << "</td>";
out << "<td class='rn'>" << c->requestCount() << "</td>";
out << "<td class='ip'>" << c->remoteIP() << "</td>";
out << "<td class='state'>" << c->status_str();
if (c->status() == x0::HttpConnection::ReadingRequest)
out << " (" << c->state_str() << ")";
out << "</td>";
out << "<td class='age'>" << (c->worker().now() - c->socket()->startedAt()).str() << "</td>";
out << "<td class='idle'>" << (c->worker().now() - c->socket()->lastActivityAt()).str() << "</td>";
out << "<td class='read'>" << c->inputOffset() << "/" << c->inputSize() << "</td>";
const x0::HttpRequest* r = c->request();
if (r && c->status() != x0::HttpConnection::KeepAliveRead) {
out << "<td class='written'>" << r->bytesTransmitted() << "</td>";
out << "<td class='host'>" << sanitize(r->hostname) << "</td>";
out << "<td class='method'>" << sanitize(r->method) << "</td>";
out << "<td class='uri'>" << sanitize(r->unparsedUri) << "</td>";
out << "<td class='status'>" << r->statusStr(r->status) << "</td>";
} else {
out << "<td colspan='5'>" << "</td>";
}
if (debug) {
out << "<td class='debug'>";
out << "refcount:" << c->refCount() << ", ";
c->socket()->inspect(out);
if (c->request()) {
c->request()->inspect(out);
}
out << "</td>";
}
out << "</tr>\n";
}
void AudioRecord::initFilename(const std::string &peerNumber)
{
RING_DBG("Initialize audio record for peer : %s", peerNumber.c_str());
// if savePath_ don't contains filename
if (savePath_.find(".wav") == std::string::npos) {
filename_ = createFilename();
filename_.append("-" + sanitize(peerNumber) + "-" PACKAGE);
filename_.append(".wav");
} else {
filename_ = "";
}
}
/// Return event on top of heap, deleting it from the heap
Event *EqHeap::GetAndRemoveTopEvent()
{
#ifdef EH_SANITIZE
sanitize();
#endif
CmiAssert(top != NULL);
CmiAssert(top->subheapsize > 0);
HeapNode *tmp = top;
Event *result;
if (top->left) top = top->left->conjoin(top->right);
else top = top->right;
result = tmp->e;
tmp->e = NULL;
tmp->left = tmp->right = NULL;
delete(tmp);
heapSize--;
#ifdef EH_SANITIZE
sanitize();
#endif
return result;
}
/// Basic Constructor
eventQueue::eventQueue()
{
lastLoggedVT = 0;
Event *e;
eqh = new EqHeap(); // create the heap for incoming events
largest = POSE_UnsetTS;
mem_usage = 0;
eventCount = 0;
tsOfLastInserted = 0;
// create the front sentinel node
e = new Event();
e->timestamp = POSE_UnsetTS;
e->done = -1;
e->fnIdx = -99;
e->msg = NULL;
e->commitBfr = NULL;
e->spawnedList = NULL;
e->commitBfrLen = 0;
e->next = e->prev = NULL;
frontPtr = e;
// create the back sentinel node
e = new Event();
e->timestamp=POSE_UnsetTS;
e->done = -1;
e->fnIdx = -100;
e->msg = NULL;
e->commitBfr = NULL;
e->spawnedList = NULL;
e->commitBfrLen = 0;
e->next = e->prev = NULL;
currentPtr = backPtr = e; // when no unprocessed events, currentPtr=backPtr
// link them together
frontPtr->next = backPtr;
backPtr->prev = frontPtr;
RBevent = NULL;
// other variables
recentAvgEventSparsity = 1;
sparsityStartTime = 0;
sparsityCalcCount = 0;
tsDiffCount = 0;
lastCommittedTS = 0;
for (int i = 0; i < DIFFS_TO_STORE; i++) {
tsCommitDiffs[i] = 0;
}
#ifdef MEM_TEMPORAL
localTimePool = (TimePool *)CkLocalBranch(TempMemID);
#endif
#ifdef EQ_SANITIZE
sanitize();
#endif
}
/* format a string for the log, with suitable prefixes.
* A format starting with ~ indicates that this is a reprocessing
* of the message, so prefixing and quoting is suppressed.
*/
static void
fmt_log(char *buf, size_t buf_len, const char *fmt, va_list ap)
{
bool reproc = *fmt == '~';
size_t ps;
struct connection *c = cur_state != NULL ? cur_state->st_connection
: cur_connection;
buf[0] = '\0';
if (reproc)
fmt++; /* ~ at start of format suppresses this prefix */
else if (c != NULL)
{
/* start with name of connection */
char *const be = buf + buf_len;
char *bp = buf;
snprintf(bp, be - bp, "(%s)", c->name);
bp += strlen(bp);
/* if it fits, put in any connection instance information */
if (be - bp > CONN_INST_BUF)
{
fmt_conn_instance(c, bp);
bp += strlen(bp);
}
if (cur_state != NULL)
{
/* state number */
snprintf(bp, be - bp, " #%lu", cur_state->st_serialno);
bp += strlen(bp);
}
snprintf(bp, be - bp, ": ");
}
else if (cur_from != NULL)
{
/* peer's IP address */
/* Note: must not use ip_str() because our caller might! */
char ab[ADDRTOT_BUF];
(void) addrtot(cur_from, 0, ab, sizeof(ab));
snprintf(buf, buf_len, "packet from %s:%u: "
, ab, (unsigned)cur_from_port);
}
ps = strlen(buf);
vsnprintf(buf + ps, buf_len - ps, fmt, ap);
if (!reproc)
(void)sanitize(buf, buf_len);
}
int
exec_shlib(int argc, char **argv)
{
struct pkgdb *db = NULL;
char libname[MAXPATHLEN + 1];
int retcode = EPKG_OK;
int ch;
bool provides_only = false;
bool requires_only = false;
while ((ch = getopt(argc, argv, "PR")) != -1) {
switch (ch) {
case 'P':
provides_only = true;
break;
case 'R':
requires_only = true;
break;
default:
usage_shlib();
return (EX_USAGE);
}
}
argc -= optind;
argv += optind;
if (argc < 1 || (provides_only && requires_only)) {
usage_shlib();
return (EX_USAGE);
}
if (sanitize(libname, argv[0], sizeof(libname)) == NULL) {
usage_shlib();
return (EX_USAGE);
}
retcode = pkgdb_open(&db, PKGDB_DEFAULT);
if (retcode == EPKG_OK && !provides_only)
retcode = pkgs_providing_lib(db, libname);
if (retcode == EPKG_OK && !requires_only)
retcode = pkgs_requiring_lib(db, libname);
if (retcode != EPKG_OK)
retcode = (EX_IOERR);
pkgdb_close(db);
return (retcode);
}
void writeMsg(boolean tx, char *msg, int size) {
static const char SEND_PREFIX1[] = " ==>";
static const char SEND_PREFIX2[] = " ";
static const char RECEIVE_PREFIX1[] = "<== ";
static const char RECEIVE_PREFIX2[] = " ";
static const int BUFF_SIZE = 100;
const char *prefix;
if (tx) {
prefix = SEND_PREFIX1;
}
else {
prefix = RECEIVE_PREFIX1;
}
char buff[BUFF_SIZE];
while (size>0) {
int portion = BUFF_SIZE-10;
if (portion > size) {
portion = size;
}
if (tx) {
sanitize(buff, msg, portion);
strcat(buff, prefix);
fprintf(stdout, "%s\n", buff); fflush(stdout);
prefix = SEND_PREFIX2;
}
else {
strcpy(buff, prefix);
sanitize(buff+sizeof(RECEIVE_PREFIX1)-1, msg, portion);
fprintf(stdout, "%*s%s\n", BUFF_SIZE, "", buff); fflush(stdout);
prefix = RECEIVE_PREFIX2;
}
msg += portion;
size -= portion;
}
}
bool writeJson(const QVariantMap &variant, const QString &fileName)
{
#ifdef Q_OS_WIN
QFile file(fileName);
#else
QFile file(QString::fromLatin1("../") + fileName);
#endif
if (!file.open(QIODevice::WriteOnly|QIODevice::Truncate)) {
return false;
}
QVariant saneVariant(variant);
sanitize(saneVariant);
file.write(QJsonDocument::fromVariant(saneVariant).toJson());
return true;
}
static DDS_StdString
main_file_identifier()
{
DDS_StdString mainFile = BaseName(idl_global->main_filename()->get_string());
char *dot = (char*)strrchr((const char*)mainFile, '.');
if (dot)
{
*dot = 0;
}
sanitize(mainFile);
return mainFile;
}
static int call(int (*action)(svc_t *), char *buf, size_t len)
{
int result = 0;
char *input, *token, *pos;
input = sanitize(buf, len);
if (!input)
return -1;
token = strtok_r(input, " ", &pos);
while (token) {
svc_t *svc;
char *ptr = strchr(token, ':');
if (isdigit(token[0])) {
int job = atonum(token);
if (!ptr) {
svc = svc_job_iterator(1, job);
while (svc) {
result += action(svc);
svc = svc_job_iterator(0, job);
}
} else {
*ptr++ = 0;
job = atonum(token);
result += action(svc_find_by_jobid(job, atonum(ptr)));
}
} else {
if (!ptr) {
svc = svc_named_iterator(1, token);
while (svc) {
result += action(svc);
svc = svc_named_iterator(0, token);
}
} else {
*ptr++ = 0;
result += action(svc_find_by_nameid(token, atonum(ptr)));
}
}
token = strtok_r(NULL, " ", &pos);
}
return result;
}
static int do_handle_emit(char *buf, size_t len)
{
int result = 0;
char *input, *event, *pos;
input = sanitize(buf, len);
if (!input)
return -1;
event = strtok_r(input, " ", &pos);
while (event) {
result += do_handle_event(event);
event = strtok_r(NULL, " ", &pos);
}
return result;
}
static GString *sanitize_contents(GumboNode* node, GPtrArray *inlines_ary) {
GString *contents = g_string_new(NULL);
GString *tagname = get_tag_name(node);
gchar *key = g_strjoin(NULL, "|", tagname->str, "|", NULL);
g_string_free(tagname, TRUE);
// Since we include pipes (|) we have to escape the regex string
gchar *key_pattern = g_regex_escape_string(key, -1);
g_free(key);
gboolean no_entity_substitution = g_regex_match_simple(key_pattern, no_entity_sub, G_REGEX_CASELESS, 0);
g_free(key_pattern);
// build up result for each child, recursively if need be
GumboVector* children = &node->v.element.children;
guint i;
for (i = 0; i < children->length; ++i) {
GumboNode* child = (GumboNode*) (children->data[i]);
if (child->type == GUMBO_NODE_TEXT) {
if (no_entity_substitution) {
g_string_append(contents, child->v.text.text);
} else {
GString *subd = gstr_substitute_xml_entities_into_text(child->v.text.text);
g_string_append(contents, subd->str);
g_string_free(subd, TRUE);
}
} else if (child->type == GUMBO_NODE_ELEMENT ||
child->type == GUMBO_NODE_TEMPLATE) {
GString *child_ser = sanitize(child, inlines_ary);
g_string_append(contents, child_ser->str);
g_string_free(child_ser, TRUE);
} else if (child->type == GUMBO_NODE_WHITESPACE) {
// keep all whitespace to keep as close to original as possible
g_string_append(contents, child->v.text.text);
} else if (child->type != GUMBO_NODE_COMMENT) {
// Does this actually exist: (child->type == GUMBO_NODE_CDATA)
fprintf(stderr, "unknown element of type: %d\n", child->type);
}
}
return contents;
}
void
DBG_log(const char *message, ...)
{
va_list args;
char m[1024]; /* longer messages will be truncated */
va_start(args, message);
vsnprintf(m, sizeof(m), message, args);
va_end(args);
(void)sanitize(m, sizeof(m));
if (log_to_stderr)
fprintf(stderr, "| %s\n", m);
if (log_to_syslog)
syslog(LOG_DEBUG, "| %s", m);
}
// Test case: TestCurate:1
// This test case calls curateWords() for the condition where the query
// are all keywords (no non-alpha characters)
int TestCurate1() {
START_TEST_CASE;
char query[1000] = "dog cat mouse world";
sanitize(query);
char* queryList[1000];
curateWords(queryList, query);
SHOULD_BE(strcmp(queryList[0],"dog") == 0);
SHOULD_BE(strcmp(queryList[1],"cat") == 0);
SHOULD_BE(strcmp(queryList[2],"mouse") == 0);
SHOULD_BE(strcmp(queryList[3],"world") == 0);
cleanUpQueryList(queryList);
END_TEST_CASE;
}
int action_run(Graph g, char *act_name)
{
int error;
Node n;
n = find_node(g, act_name);
if (n != NULL) {
set_node_state(n, ACT_RUN, &error); //only raise error when state is set to ready and done
make_other_run_suspend(g, act_name);
mark_iter_nodes(n); /* handle iterations */
handle_selection(n); /* handle selections */
set_super_nodes_run(n); /*set super nodes to run */
sanitize(g); /* sanitize the markers used */
} else {
return -1;
}
return 1;
}
void NavigationControl::LineCallback(const Robosub::Line msg) {
if(LINEMODE == OFF)
return;
OnLine = moveToLine(msg.x, msg.y);
//Once it's on top of the line, rotate
if (!OnLine){
return; //keep rotating
}
int target_rot = sanitize(msg.rotation);
if(!target_rot){
start_rot = 0;
Rotating = 0;
setTurn(0);
return; //Stoppped by Higher Level
}
if(!Rotating){
start_rot = target_rot;
}
float per_rot = (target_rot/180);//start_rot);
//This needs to be implemented better (any ideas?)
//int direction = 1; //always rotate right?
int direction = target_rot>0 ? 1 : -1; //-1 Rotate left
int rate = 0;
int range=40;
int minR = 50;
if(abs(per_rot)<MAX_THRESHOLD ){
if(abs(per_rot)>.01)
rate = -60*direction;
else
rate = 0;
} else {
rate = (range*per_rot+minR)*direction;
}
setTurn(rate);
}
// Test case: TestCurate:2
// This test case calls curateWords() for the condition where the query
// are invalid (non-alpha characters).
int TestCurate2() {
START_TEST_CASE;
char empty[1000] = "$$";
sanitize(empty);
char* list[1000];
BZERO(list, 1000);
list[0] = (char*) malloc(sizeof(char) * 1000);
BZERO(list[0], 1000);
curateWords(list, empty);
SHOULD_BE(strcmp(list[0], "") == 0);
free(list[0]);
END_TEST_CASE;
}
void av_log_default_callback(void* ptr, int level, const char* fmt, va_list vl)
{
static int print_prefix=1;
static int count;
static char prev[1024];
char line[1024];
static int is_atty;
AVClass* avc= ptr ? *(AVClass**)ptr : NULL;
if(level>av_log_level)
return;
line[0]=0;
#undef fprintf
if(print_prefix && avc) {
if(avc->version >= (50<<16 | 15<<8 | 3) && avc->parent_log_context_offset){
AVClass** parent= *(AVClass***)(((uint8_t*)ptr) + avc->parent_log_context_offset);
if(parent && *parent){
snprintf(line, sizeof(line), "[%s @ %p] ", (*parent)->item_name(parent), parent);
}
}
snprintf(line + strlen(line), sizeof(line) - strlen(line), "[%s @ %p] ", avc->item_name(ptr), ptr);
}
vsnprintf(line + strlen(line), sizeof(line) - strlen(line), fmt, vl);
print_prefix= line[strlen(line)-1] == '\n';
#if HAVE_ISATTY
if(!is_atty) is_atty= isatty(2) ? 1 : -1;
#endif
if(print_prefix && (flags & AV_LOG_SKIP_REPEATED) && !strcmp(line, prev)){
count++;
if(is_atty==1)
fprintf(stderr, " Last message repeated %d times\r", count);
return;
}
if(count>0){
fprintf(stderr, " Last message repeated %d times\n", count);
count=0;
}
strcpy(prev, line);
sanitize(line);
colored_fputs(av_clip(level>>3, 0, 6), line);
}
void parse(const string& data) {
reset();
lstring lines = data.split("\n");
for(auto& line : lines) {
lstring part = line.split(":", 1L).strip();
if(part.size() != 2) continue;
if(part[0] == "offset") offset = eval(part[1]);
if(part[0] == "width") width = eval(part[1]);
if(part[0] == "height") height = eval(part[1]);
if(part[0] == "count") count = eval(part[1]);
if(part[0] == "endian") endian = eval(part[1]);
if(part[0] == "order") order = eval(part[1]);
if(part[0] == "depth") depth = eval(part[1]);
if(part[0] == "blockWidth") blockWidth = eval(part[1]);
if(part[0] == "blockHeight") blockHeight = eval(part[1]);
if(part[0] == "blockStride") blockStride = eval(part[1]);
if(part[0] == "blockOffset") blockOffset = eval(part[1]);
if(part[0] == "block") eval(block, part[1]);
if(part[0] == "tileWidth") tileWidth = eval(part[1]);
if(part[0] == "tileHeight") tileHeight = eval(part[1]);
if(part[0] == "tileStride") tileStride = eval(part[1]);
if(part[0] == "tileOffset") tileOffset = eval(part[1]);
if(part[0] == "tile") eval(tile, part[1]);
if(part[0] == "mosaicWidth") mosaicWidth = eval(part[1]);
if(part[0] == "mosaicHeight") mosaicHeight = eval(part[1]);
if(part[0] == "mosaicStride") mosaicStride = eval(part[1]);
if(part[0] == "mosaicOffset") mosaicOffset = eval(part[1]);
if(part[0] == "mosaic") eval(mosaic, part[1]);
if(part[0] == "paddingWidth") paddingWidth = eval(part[1]);
if(part[0] == "paddingHeight") paddingHeight = eval(part[1]);
if(part[0] == "paddingColor") paddingColor = eval(part[1]);
if(part[0] == "palette") eval(palette, part[1]);
}
sanitize();
}
/*
* This function is called to read the first row and store
* the field names as the header names.
*/
int get_field_headers() {
char token[MAX_TOKEN+1];
int status;
status=1;
fieldcount=0;
memset(&fields,0,sizeof(fields));
while(fieldcount<MAX_FIELDS && status>0) {
status=get_csv_token((char*)&token,MAX_TOKEN);
if(status<0) { break; }
if(token[0]==0) { fatal("Header row has null string"); }
if(xmlmode!=2) { sanitize((char*)&token); }
fields[fieldcount]=new char[strlen(token)+1];
strcpy(fields[fieldcount],token);
fieldcount++;
}
if(fieldcount==MAX_FIELDS) { fatal("Too many columns in this csv file"); }
return(status);
}
