bcf_directory_entry* CompoundFileDirectoryEntry(FILE* file)
{
bcf_directory_entry* dir = (bcf_directory_entry*)malloc(sizeof(bcf_directory_entry));
if(!dir) { embLog_error("compound-file-directory.c CompoundFileDirectoryEntry(), cannot allocate memory for dir\n"); } /* TODO: avoid crashing. null pointer will be accessed */
memset(dir->directoryEntryName, 0, 32);
parseDirectoryEntryName(file, dir);
dir->next = 0;
dir->directoryEntryNameLength = binaryReadUInt16(file);
dir->objectType = (unsigned char)binaryReadByte(file);
if( (dir->objectType != ObjectTypeStorage) &&
(dir->objectType != ObjectTypeStream) &&
(dir->objectType != ObjectTypeRootEntry))
{
embLog_error("compound-file-directory.c CompoundFileDirectoryEntry(), unexpected object type: %d\n", dir->objectType);
return 0;
}
dir->colorFlag = (unsigned char)binaryReadByte(file);
dir->leftSiblingId = binaryReadUInt32(file);
dir->rightSiblingId = binaryReadUInt32(file);
dir->childId = binaryReadUInt32(file);
readCLSID(file, dir);
dir->stateBits = binaryReadUInt32(file);
dir->creationTime = parseTime(file);
dir->modifiedTime = parseTime(file);
dir->startingSectorLocation = binaryReadUInt32(file);
dir->streamSize = binaryReadUInt32(file); /* This should really be __int64 or long long, but for our uses we should never run into an issue */
dir->streamSizeHigh = binaryReadUInt32(file); /* top portion of int64 */
return dir;
}
static const char *
parseRule(register char *buf, register const char *p)
{
long time;
register const char *q;
if (!(p = parseDate(buf, p, &dststart))) return NULL;
buf += strlen(buf);
if (*p == '/') {
q = ++p;
if (!(p = parseTime(&time, p, &dststart))) return NULL;
while( p != q) *buf++ = *q++;
}
if (*p != ',') return NULL;
p++;
if (!(p = parseDate(buf, p, &dstend))) return NULL;
buf += strlen(buf);
if (*p == '/') {
q = ++p;
if (!(p = parseTime(&time, p, &dstend))) return NULL;
while(*buf++ = *q++);
}
if (*p) return NULL;
return p;
}
/* The following routine parses timezone information in POSIX-format. For
* the requirements, see IEEE Std 1003.1-1988 section 8.1.1.
* The function returns as soon as it spots an error.
*/
static void
parseTZ(const char *p)
{
long tz, dst = 60 * 60, sign = 1;
static char lastTZ[2 * RULE_LEN];
static char buffer[RULE_LEN];
if (!p) return;
if (*p == ':') {
/*
* According to POSIX, this is implementation defined.
* Since it depends on the particular operating system, we
* can do nothing.
*/
return;
}
if (!strcmp(lastTZ, p)) return; /* nothing changed */
*_tzname[0] = '\0';
*_tzname[1] = '\0';
dststart.ds_type = 'U';
dststart.ds_sec = 2 * 60 * 60;
dstend.ds_type = 'U';
dstend.ds_sec = 2 * 60 * 60;
if (strlen(p) > 2 * RULE_LEN) return;
strcpy(lastTZ, p);
if (!(p = parseZoneName(buffer, p))) return;
if (*p == '-') {
sign = -1;
p++;
} else if (*p == '+') p++;
if (!(p = parseTime(&tz, p, NULL))) return;
tz *= sign;
_timezone = tz;
strncpy(_tzname[0], buffer, TZ_LEN);
if (!(_daylight = (*p != '\0'))) return;
buffer[0] = '\0';
if (!(p = parseZoneName(buffer, p))) return;
strncpy(_tzname[1], buffer, TZ_LEN);
buffer[0] = '\0';
if (*p && (*p != ','))
if (!(p = parseTime(&dst, p, NULL))) return;
_dst_off = dst; /* dst was initialized to 1 hour */
if (*p) {
if (*p != ',') return;
p++;
if (strlen(p) > RULE_LEN) return;
if (!(p = parseRule(buffer, p))) return;
}
}
QString WeatherPlugin::replace(const QString &text)
{
QString res = text;
QString sun_set, sun_raise, updated;
#if COMPAT_QT_VERSION >= 0x030000
QTime tmp_time;
QDateTime dt;
int h,m;
parseTime(getSun_set(),h,m);
tmp_time.setHMS(h,m,0,0);
sun_set = tmp_time.toString(Qt::LocalDate);
sun_set = sun_set.left(sun_set.length() - 3);
parseTime(getSun_raise(),h,m);
tmp_time.setHMS(h,m,0,0);
sun_raise = tmp_time.toString(Qt::LocalDate);
sun_raise = sun_raise.left(sun_raise.length() - 3);
parseDateTime(getUpdated(),dt);
updated = dt.toString(Qt::LocalDate);
updated = updated.left(updated.length() - 3);
#else
sun_set = getSun_set();
sun_raise = getSun_raise();
updated = getUpdated();
#endif
/* double Expressions *before* single or better RegExp ! */
res = res.replace(QRegExp("\\%mp"), i18n("moonphase", getMoonPhase()));
res = res.replace(QRegExp("\\%mi"), number(getMoonIcon()));
res = res.replace(QRegExp("\\%pp"), number(getPrecipitation()));
res = res.replace(QRegExp("\\%ut"), i18n("weather", getUV_Description()));
res = res.replace(QRegExp("\\%ui"), number(getUV_Intensity()));
res = res.replace(QRegExp("\\%t"), QString::number((int)getTemperature()) + QChar((unsigned short)176) + getUT());
res = res.replace(QRegExp("\\%f"), QString::number((int)getFeelsLike()) + QChar((unsigned short)176) + getUT());
res = res.replace(QRegExp("\\%d"), QString::number((int)getDewPoint()) + QChar((unsigned short)176) + getUT());
res = res.replace(QRegExp("\\%h"), number(getHumidity()) + "%");
res = res.replace(QRegExp("\\%w"), number(getWind_speed()) + " " + i18n(getUS()));
res = res.replace(QRegExp("\\%x"), QString::number(getWind_speed() * 10 / 36) + " " + i18n("m/s"));
res = res.replace(QRegExp("\\%g"), getWindGust() ? QString("(") + i18n("gust ") + number(getWindGust()) + i18n(getUS()) + QString(")") : QString(""));
res = res.replace(QRegExp("\\%y"), getWindGust() ? QString("(") + i18n("gust ") + number(getWindGust() * 10 / 36) + QString(" ") + i18n("m/s") + QString(")") : QString(""));
res = res.replace(QRegExp("\\%p"), number(getPressure()) + " " + i18n(getUP()));
res = res.replace(QRegExp("\\%a"), number(getPressure() * 75 / 100));
res = res.replace(QRegExp("\\%q"), i18n("weather", getPressureD()));
res = res.replace(QRegExp("\\%l"), getLocation());
res = res.replace(QRegExp("\\%b"), i18n("weather", getWind()));
res = res.replace(QRegExp("\\%u"), updated);
res = res.replace(QRegExp("\\%r"), sun_raise);
res = res.replace(QRegExp("\\%s"), sun_set);
res = res.replace(QRegExp("\\%c"), i18n_conditions(getConditions()));
res = res.replace(QRegExp("\\%v"), i18n("weather", getVisibility()) + (atol(getVisibility()) ? QString(" ") + i18n(getUD()) : QString("")));
res = res.replace(QRegExp("\\%i"), number(getIcon()));
return res;
}
struct tm *
gmtime(const time_t *gmt)
{
parseTime(gmt, FALSE, &system_time);
return (&system_time);
}
/** The gmtime_r() function converts the time in seconds since the Epoch pointed
to by 'time' into a broken-down time, expressed as Coordinated Universal Time
(UTC) (formerly called Greenwich Mean Time (GMT)).
This function is similar to gmtime(), except that it parses the time into a
tm structure pointed to by the argument, 'resultp.' The gmtime_r() function
is thread-safe and returns values in a user-supplied buffer instead of
possibly using a static data area that may be overwritten by each call.
If the conversion is successful the function returns a pointer to the object the
result was written into, i.e., it returns resultp.
\brief Parse a time into struct tm and return pointer to it.
\param const time_t *time - pointer to local or system (UNIX) time
\param struct tm *resultp - pointer to a tm structure to receive the result
*/
struct tm *
gmtime_r(const time_t *utc, struct tm *resultp)
{
parseTime(utc, FALSE, resultp);
return (resultp);
}
StructTime::StructTime(sp<MagicString>& mStr):
hour(0),
minute(0),
second(0),
mSecond(0){
parseTime(mStr);
}
int Params::evalAdjust(const std::string& optarg)
{
int rc = 0;
switch (action_) {
case Action::none:
action_ = Action::adjust;
adjust_ = parseTime(optarg, adjustment_);
if (!adjust_) {
std::cerr << progname() << ": " << _("Error parsing -a option argument") << " `"
<< optarg << "'\n";
rc = 1;
}
break;
case Action::adjust:
std::cerr << progname()
<< ": " << _("Ignoring surplus option -a") << " " << optarg << "\n";
break;
default:
std::cerr << progname()
<< ": " << _("Option -a is not compatible with a previous option\n");
rc = 1;
break;
}
return rc;
} // Params::evalAdjust
/* Read fields into Mod */
void ModFrame::dump(Mod * mod)
{
int n = 1;
// mode
mod->mod.mode = getChecked(modeRadios, MOVIESOAP_MOD_MODE_COUNT);
// times
mod->mod.start = parseTime(startText);
mod->mod.stop = parseTime(stopText);
mod->mod.title = parseInt(titleText);
// severity
mod->mod.severity = getChecked(severityRadios, MOVIESOAP_TOLERANCE_COUNT-1) + 1;
// category
mod->mod.category = categoryBox->currentIndex();
// description
mod->description = descText->text().toAscii().data();
}
bool WeatherPlugin::isDay()
{
int raise_h, raise_m;
int set_h, set_m;
if (!parseTime(getSun_raise(), raise_h, raise_m) || !parseTime(getSun_set(), set_h, set_m))
return false;
time_t now = time(NULL);
struct tm *tm = localtime(&now);
if ((tm->tm_hour > raise_h) && (tm->tm_hour < set_h))
return true;
if ((tm->tm_hour == raise_h) && (tm->tm_min >= raise_m))
return true;
if ((tm->tm_hour == set_h) && (tm->tm_min <= set_m))
return true;
return false;
}
boost::posix_time::ptime parseTimeNoThrow(const word * data)
{
try
{
return parseTime(data);
}
catch(std::exception &) {}
return boost::posix_time::ptime();
}
bool ubloxNMEA::parsePUBX_04( char chr )
{
#ifdef NMEAGPS_PARSE_PUBX_04
switch (fieldIndex) {
case 2: return parseTime( chr );
case 3: return parseDDMMYY( chr );
}
#endif
return true;
} // parsePUBX_04
bool getTimestamp(string dir_timestamp, unsigned int entry_number, ros::Time &stamp)
{
string str_support = (fs::path(dir_timestamp) / fs::path("timestamps.txt")).string();
ifstream timestamps(str_support.c_str());
if (!timestamps.is_open())
{
ROS_ERROR_STREAM("Fail to open " << timestamps);
return true;
}
timestamps.seekg(30*entry_number);
getline(timestamps,str_support);
stamp = parseTime(str_support);
return false;
}
void JourneySearchParser::parseDateAndTime( const QString& sDateTime,
QDateTime* dateTime, QDate* alreadyParsedDate )
{
QDate date;
QTime time;
bool callParseDate = alreadyParsedDate->isNull();
// Parse date and/or time from sDateTime
QStringList timeValues = sDateTime.split( QRegExp( "\\s|," ), QString::SkipEmptyParts );
if ( timeValues.count() >= 2 ) {
if ( callParseDate && !parseDate(timeValues[0], &date)
&& !parseDate(timeValues[1], &date) ) {
date = QDate::currentDate();
} else {
date = *alreadyParsedDate;
}
if ( !parseTime(timeValues[1], &time) && !parseTime(timeValues[0], &time) ) {
time = QTime::currentTime();
}
} else {
if ( !parseTime(sDateTime, &time) ) {
time = QTime::currentTime();
if ( callParseDate && !parseDate(sDateTime, &date) ) {
date = QDate::currentDate();
} else {
date = *alreadyParsedDate;
}
} else if ( callParseDate ) {
date = QDate::currentDate();
} else {
date = *alreadyParsedDate;
}
}
*dateTime = QDateTime( date, time );
}
void getAnalyzerRunInfo(void) {
AnalyzerRunInfo *prunInfo = &analyzerInfo;
get_analyzer_version(prunInfo->version,19);
char *s;
char *start;
char startTimeStr[64];
char tmp[1024];
memset(startTimeStr, 0, sizeof(startTimeStr));
prunInfo->isRunning = FALSE;
//ps -eo pid,cmd,lstart
FILE *file = popen("ps -eo lstart,cmd", "r");
if (file == NULL) {
return;
}
//Mon Mar 28 17:26:56 2011 /ptswitch/analyzer-linux_64 -d
//Tue May 4 03:31:33 2010
char *token;
while ((s = fgets(tmp, sizeof(tmp), file))) {
token = strtok(tmp, "\n");
while (token != NULL) {
start = strstr(token, "analyzer");
if (start) {
strncpy(startTimeStr, token, start - tmp);
prunInfo->isRunning = TRUE;
break;
}
token = strtok(NULL, "\n");
}
}
pclose(file);
sprintf(prunInfo->startTime, trim(startTimeStr));
// printf("hxzon debug,start time=%s\n",prunInfo->startTime);
struct tm startTimeInfo;
parseTime(prunInfo->startTime, &startTimeInfo);
long startTime = mktime(&startTimeInfo);
time_t t;
time(&t);
long span = t - startTime;
// printf("span time = %d\n",span);
span = span / (3600);
// printf("span time = %ld hour \n",span);
prunInfo->dayDuration = span / 24;
prunInfo->hourDuration = span % 24;
strftime(prunInfo->startTime, 50, "%Y-%m-%d %H:%M:%S\n", &startTimeInfo);
}
bool DateComponents::parseDateTimeLocal(const String& src, unsigned start, unsigned& end)
{
unsigned index;
if (!parseDate(src, start, index))
return false;
if (index >= src.length())
return false;
if (src[index] != 'T')
return false;
++index;
if (!parseTime(src, index, end))
return false;
if (!withinHTMLDateLimits(m_year, m_month, m_monthDay, m_hour, m_minute, m_second, m_millisecond))
return false;
m_type = DateTimeLocal;
return true;
}
/*------------------------------------------------------------------------
* ascdate - print a given date in ascii including hours:mins:secs
*------------------------------------------------------------------------
*/
int ascdate(long time, char * str)
{
long tmp;
int year, month, day, hour, minute, second;
long days;
parseTime(time,
&month,
&day,
&year,
&hour,
&minute,
&second);
sprintf(str, "%3s %d %4d %2d:%02d:%02d", Dat.dt_mnam[month],
day, year, hour, minute, second);
return(OK);
}
void
Factory::reg(const std::string & label,
const std::string & obj_name,
const buildPtr & build_ptr,
const paramsPtr & params_ptr,
const std::string & deprecated_time,
const std::string & replacement_name,
const std::string & file,
int line)
{
// do nothing if we have already added this exact object before
auto key = std::make_pair(label, obj_name);
if (_objects_by_label.find(key) != _objects_by_label.end())
return;
/*
* If _registerable_objects has been set the user has requested that we only register some
* subset
* of the objects for a dynamically loaded application. The objects listed in *this*
* application's
* registerObjects() method will have already been registered before that member was set.
*
* If _registerable_objects is empty, the factory is unrestricted
*/
if (_registerable_objects.empty() ||
_registerable_objects.find(obj_name) != _registerable_objects.end())
{
if (_name_to_build_pointer.find(obj_name) != _name_to_build_pointer.end())
mooseError("Object '" + obj_name + "' registered from multiple files: ",
file,
" and ",
_name_to_line.getInfo(obj_name).file());
_name_to_build_pointer[obj_name] = build_ptr;
_name_to_params_pointer[obj_name] = params_ptr;
_objects_by_label.insert(key);
}
_name_to_line.addInfo(obj_name, file, line);
if (!replacement_name.empty())
_deprecated_name[obj_name] = replacement_name;
if (!deprecated_time.empty())
_deprecated_time[obj_name] = parseTime(deprecated_time);
// TODO: Possibly store and print information about objects that are skipped here?
}
bool DateComponents::parseDateTime(const UChar* src, unsigned length, unsigned start, unsigned& end)
{
ASSERT(src);
unsigned index;
if (!parseDate(src, length, start, index))
return false;
if (index >= length)
return false;
if (src[index] != 'T')
return false;
++index;
if (!parseTime(src, length, index, index))
return false;
if (!parseTimeZone(src, length, index, end))
return false;
if (!withinHTMLDateLimits(m_year, m_month, m_monthDay, m_hour, m_minute, m_second, m_millisecond))
return false;
m_type = DateTime;
return true;
}
bool ubloxNMEA::parsePUBX_00( char chr )
{
bool ok = true;
switch (fieldIndex) {
case 1:
// The first field is actually a message subtype
if (chrCount == 0)
ok = (chr == '0');
else if (chrCount == 1) {
switch (chr) {
#if defined(NMEAGPS_PARSE_PUBX_00) | defined(NMEAGPS_RECOGNIZE_ALL)
case '0': break;
#endif
#if defined(NMEAGPS_PARSE_PUBX_04) | defined(NMEAGPS_RECOGNIZE_ALL)
case '4': nmeaMessage = (nmea_msg_t) PUBX_04; break;
#endif
default : ok = false;
}
} else // chrCount > 1
ok = (chr == ',');
break;
#ifdef NMEAGPS_PARSE_PUBX_00
case 2: return parseTime( chr );
PARSE_LOC(3);
case 7: return parseAlt( chr );
case 8: return parseFix( chr );
case 11: return parseSpeed( chr ); // kph!
case 12: return parseHeading( chr );
case 15: return parseHDOP( chr );
case 16: return parseVDOP( chr );
case 18: return parseSatellites( chr );
#endif
}
return ok;
} // parsePUBX_00
void ProgrammeTableParser::contentParsed(const QString &content)
{
if (m_x == 3) {
QString s = content.trimmed();
if (!s.isEmpty()) {
parseTime(s);
}
}
else if (m_x == 4) {
if (m_currentProgramme.title.isEmpty()) {
m_currentProgramme.title = content.trimmed();
}
}
else if (m_x == 5) {
QString s = content.trimmed();
if (!s.isEmpty() && m_currentProgramme.description.isEmpty()) {
m_currentProgramme.description = s;
m_parseContent = false;
}
}
else if (m_x == 6) {
QString s = content.trimmed();
QRegExp regex("(\\d{1,2})\\.(\\d{1,2})");
// qDebug() << s;
if (regex.indexIn(s) >= 0) {
int day = regex.cap(1).toInt();
int month = regex.cap(2).toInt();
if (day != m_requestedDate.day() || month != m_requestedDate.month()) {
m_validResults = false;
}
}
}
}
int main(int argc, char *argv[])
{
QCoreApplication a(argc, argv);
if(argc < 3)
{
qDebug() << "To few arguments!";
qDebug() << "Usage: cmdtimeout [00h][00m]00[s] command [argumentlist]";
}
int msec = parseTime(QString(argv[1]));
QStringList lst;
for(int idx=0; idx < argc-3; idx++)
{
QString tmpString(argv[idx+3]);
lst += tmpString;
}
QString cmd(argv[2]);
Application app(cmd,lst,msec);
return a.exec();
}
void Time::elapse(std::string time_string){
this->elapsed_time += parseTime(time_string);
}
int parseArgs(int argc, char **argv)
{
int c;
sensord_args.isDaemon = (argv[0][strlen (argv[0]) - 1] == 'd');
if (!sensord_args.isDaemon) {
fprintf(stderr, "Sensord no longer runs as an commandline"
" application.\n");
return -1;
}
while ((c = getopt_long(argc, argv, shortOptions, longOptions, NULL))
!= EOF) {
switch(c) {
case 'i':
if ((sensord_args.scanTime = parseTime(optarg)) < 0)
return -1;
break;
case 'l':
if ((sensord_args.logTime = parseTime(optarg)) < 0)
return -1;
break;
case 't':
if ((sensord_args.rrdTime = parseTime(optarg)) < 0)
return -1;
break;
case 'T':
sensord_args.rrdNoAverage = 1;
break;
case 'f':
sensord_args.syslogFacility = parseFacility(optarg);
if (sensord_args.syslogFacility < 0)
return -1;
break;
case 'a':
sensord_args.doLoad = 1;
break;
case 'c':
sensord_args.cfgFile = optarg;
break;
case 'p':
sensord_args.pidFile = optarg;
break;
case 'r':
sensord_args.rrdFile = optarg;
break;
case 'd':
sensord_args.debug = 1;
break;
case 'g':
sensord_args.doCGI = 1;
sensord_args.cgiDir = optarg;
break;
case 'v':
printf("sensord version %s\n", LM_VERSION);
exit(EXIT_SUCCESS);
case 'h':
printf("Syntax: %s {options} {chips}\n%s", argv[0],
daemonSyntax);
exit(EXIT_SUCCESS);
case ':':
case '?':
printf("Try `%s --help' for more information.\n",
argv[0]);
return -1;
default:
fprintf(stderr,
"Internal error while parsing options.\n");
return -1;
}
}
if (sensord_args.doCGI && !sensord_args.rrdFile) {
fprintf(stderr,
"Error: Incompatible --rrd-cgi without --rrd-file.\n");
return -1;
}
if (sensord_args.rrdFile && !sensord_args.rrdTime) {
fprintf(stderr,
"Error: Incompatible --rrd-file without --rrd-interval.\n");
return -1;
}
if (!sensord_args.logTime && !sensord_args.scanTime &&
!sensord_args.rrdFile) {
fprintf(stderr,
"Error: No logging, alarm or RRD scanning.\n");
return -1;
}
return 0;
}
Time::Time(std::string time_string){
this->init_time = parseTime(time_string);
this->elapsed_time = 0;
}
bool ubloxNMEA::parsePUBX_00( char chr )
{
bool ok = true;
switch (fieldIndex) {
case 1:
// The first field is actually a message subtype
if (chrCount == 0)
ok = (chr == '0');
else if (chrCount == 1) {
switch (chr) {
#if defined(NMEAGPS_PARSE_PUBX_00) | defined(NMEAGPS_RECOGNIZE_ALL)
case '0': break;
#endif
#if defined(NMEAGPS_PARSE_PUBX_04) | defined(NMEAGPS_RECOGNIZE_ALL)
case '4': nmeaMessage = (nmea_msg_t) PUBX_04; break;
#endif
default : ok = false;
}
} else // chrCount > 1
ok = (chr == ',');
break;
#ifdef NMEAGPS_PARSE_PUBX_00
case 2: return parseTime( chr );
PARSE_LOC(3);
case 7: return parseAlt( chr );
case 8: return parseFix( chr );
case 9: // use Horizontal accuracy for both lat and lon errors
#if defined(GPS_FIX_LAT_ERR)
ok = parse_lat_err( chr );
#if defined(GPS_FIX_LON_ERR)
// When the lat_err field is finished,
// copy it to the lon_err field.
if (chr == ',') {
m_fix.valid.lon_err = m_fix.valid.lat_err;
if (m_fix.valid.lon_err)
m_fix.lon_err_cm = m_fix.lat_err_cm;
}
#endif
#elif defined(GPS_FIX_LON_ERR)
ok = parse_lon_err( chr );
#endif
break;
case 10: return parse_alt_err( chr ); // vertical accuracy
case 11:
#ifdef GPS_FIX_SPEED
ok = parseSpeed( chr ); // PUBX,00 provides speed in km/h!
if ((chr == ',') && m_fix.valid.speed) {
uint32_t kph = m_fix.spd.int32_000();
uint32_t nmiph = (kph * 1000) / gps_fix::M_PER_NMI;
m_fix.spd.whole = nmiph / 1000;
m_fix.spd.frac = (nmiph - m_fix.spd.whole*1000);
// Convert to Nautical Miles/Hour
}
#endif
break;
case 12: return parseHeading( chr );
case 13: return parseVelocityDown( chr );
case 15: return parseHDOP( chr );
case 16: return parseVDOP( chr );
case 18: return parseSatellites( chr );
#endif
}
return ok;
} // parsePUBX_00
// Find last logged line in gestalt of all matching existing output files
static log_time lastLogTime(char *outputFileName) {
log_time retval(log_time::EPOCH);
if (!outputFileName) {
return retval;
}
log_time now(CLOCK_REALTIME);
std::string directory;
char *file = strrchr(outputFileName, '/');
if (!file) {
directory = ".";
file = outputFileName;
} else {
*file = '\0';
directory = outputFileName;
*file = '/';
++file;
}
size_t len = strlen(file);
log_time modulo(0, NS_PER_SEC);
std::unique_ptr<DIR, int(*)(DIR*)>dir(opendir(directory.c_str()), closedir);
struct dirent *dp;
while ((dp = readdir(dir.get())) != NULL) {
if ((dp->d_type != DT_REG)
|| strncmp(dp->d_name, file, len)
|| (dp->d_name[len]
&& ((dp->d_name[len] != '.')
|| !isdigit(dp->d_name[len+1])))) {
continue;
}
std::string file_name = directory;
file_name += "/";
file_name += dp->d_name;
std::string file;
if (!android::base::ReadFileToString(file_name, &file)) {
continue;
}
bool found = false;
for (const auto& line : android::base::Split(file, "\n")) {
log_time t(log_time::EPOCH);
char *ep = parseTime(t, line.c_str());
if (!ep || (*ep != ' ')) {
continue;
}
// determine the time precision of the logs (eg: msec or usec)
for (unsigned long mod = 1UL; mod < modulo.tv_nsec; mod *= 10) {
if (t.tv_nsec % (mod * 10)) {
modulo.tv_nsec = mod;
break;
}
}
// We filter any times later than current as we may not have the
// year stored with each log entry. Also, since it is possible for
// entries to be recorded out of order (very rare) we select the
// maximum we find just in case.
if ((t < now) && (t > retval)) {
retval = t;
found = true;
}
}
// We count on the basename file to be the definitive end, so stop here.
if (!dp->d_name[len] && found) {
break;
}
}
if (retval == log_time::EPOCH) {
return retval;
}
// tail_time prints matching or higher, round up by the modulo to prevent
// a replay of the last entry we have just checked.
retval += modulo;
return retval;
}
StyleParam::Value StyleParam::parseString(StyleParamKey key, const std::string& _value) {
switch (key) {
case StyleParamKey::extrude: {
return parseExtrudeString(_value);
}
case StyleParamKey::text_wrap: {
int textWrap;
if (_value == "false") {
return std::numeric_limits<uint32_t>::max();
}
if (_value == "true") {
return uint32_t(15); // DEFAULT
}
if (parseInt(_value, textWrap) > 0 && textWrap > 0) {
return static_cast<uint32_t>(textWrap);
}
return std::numeric_limits<uint32_t>::max();
}
case StyleParamKey::text_offset:
case StyleParamKey::offset: {
UnitVec<glm::vec2> vec;
if (!parseVec2(_value, { Unit::pixel }, vec) || std::isnan(vec.value.y)) {
LOGW("Invalid offset parameter '%s'.", _value.c_str());
}
return vec.value;
}
case StyleParamKey::size: {
UnitVec<glm::vec2> vec;
if (!parseVec2(_value, { Unit::pixel }, vec)) {
LOGW("Invalid size parameter '%s'.", _value.c_str());
}
return vec.value;
}
case StyleParamKey::transition_hide_time:
case StyleParamKey::transition_show_time:
case StyleParamKey::transition_selected_time:
case StyleParamKey::text_transition_hide_time:
case StyleParamKey::text_transition_show_time:
case StyleParamKey::text_transition_selected_time: {
float time = 0.0f;
if (!parseTime(_value, time)) {
LOGW("Invalid time param '%s'", _value.c_str());
}
return time;
}
case StyleParamKey::text_font_family:
case StyleParamKey::text_font_weight:
case StyleParamKey::text_font_style: {
std::string normalized = _value;
std::transform(normalized.begin(), normalized.end(), normalized.begin(), ::tolower);
return normalized;
}
case StyleParamKey::anchor:
case StyleParamKey::text_anchor: {
LabelProperty::Anchors anchors;
for (auto& anchor : splitString(_value, ',')) {
if (anchors.count == LabelProperty::max_anchors) { break; }
LabelProperty::Anchor labelAnchor;
if (LabelProperty::anchor(anchor, labelAnchor)) {
anchors.anchor[anchors.count++] = labelAnchor;
} else {
LOG("Invalid anchor %s", anchor.c_str());
}
}
return anchors;
}
case StyleParamKey::placement: {
LabelProperty::Placement placement = LabelProperty::Placement::vertex;
if (!LabelProperty::placement(_value, placement)) {
LOG("Invalid placement parameter, Setting vertex as default.");
}
return placement;
}
case StyleParamKey::text_align:
case StyleParamKey::text_source:
case StyleParamKey::text_transform:
case StyleParamKey::sprite:
case StyleParamKey::sprite_default:
case StyleParamKey::style:
case StyleParamKey::outline_style:
case StyleParamKey::repeat_group:
case StyleParamKey::text_repeat_group:
return _value;
case StyleParamKey::text_font_size: {
float fontSize = 0.f;
if (!parseFontSize(_value, fontSize)) {
LOGW("Invalid font-size '%s'.", _value.c_str());
}
return fontSize;
}
case StyleParamKey::flat:
case StyleParamKey::interactive:
case StyleParamKey::text_interactive:
case StyleParamKey::tile_edges:
case StyleParamKey::visible:
case StyleParamKey::text_visible:
case StyleParamKey::outline_visible:
case StyleParamKey::collide:
case StyleParamKey::text_optional:
case StyleParamKey::text_collide:
if (_value == "true") { return true; }
if (_value == "false") { return false; }
LOGW("Invalid boolean value %s for key %s", _value.c_str(), StyleParam::keyName(key).c_str());
break;
case StyleParamKey::text_order:
LOGW("text:order parameter is ignored.");
break;
case StyleParamKey::order:
case StyleParamKey::outline_order:
case StyleParamKey::priority:
case StyleParamKey::text_priority: {
int num;
if (parseInt(_value, num) > 0) {
if (num >= 0) {
return static_cast<uint32_t>(num);
}
}
LOGW("Invalid '%s' value '%s'", keyName(key).c_str(), _value.c_str());
break;
}
case StyleParamKey::placement_spacing: {
ValueUnitPair placementSpacing;
placementSpacing.unit = Unit::pixel;
int pos = parseValueUnitPair(_value, 0, placementSpacing);
if (pos < 0) {
LOGW("Invalid placement spacing value '%s'", _value.c_str());
placementSpacing.value = 80.0f;
placementSpacing.unit = Unit::pixel;
} else {
if (placementSpacing.unit != Unit::pixel) {
LOGW("Invalid unit provided for placement spacing");
}
}
return Width(placementSpacing);
}
case StyleParamKey::repeat_distance:
case StyleParamKey::text_repeat_distance: {
ValueUnitPair repeatDistance;
repeatDistance.unit = Unit::pixel;
int pos = parseValueUnitPair(_value, 0, repeatDistance);
if (pos < 0) {
LOGW("Invalid repeat distance value '%s'", _value.c_str());
repeatDistance.value = 256.0f;
repeatDistance.unit = Unit::pixel;
} else {
if (repeatDistance.unit != Unit::pixel) {
LOGW("Invalid unit provided for repeat distance");
}
}
return Width(repeatDistance);
}
case StyleParamKey::width:
case StyleParamKey::outline_width: {
ValueUnitPair width;
width.unit = Unit::meter;
int pos = parseValueUnitPair(_value, 0, width);
if (pos < 0) {
LOGW("Invalid width value '%s'", _value.c_str());
width.value = 2.0f;
width.unit = Unit::pixel;
}
return Width(width);
}
case StyleParamKey::angle: {
double num;
if (_value == "auto") {
return std::nanf("1");
} else if (parseFloat(_value, num) > 0) {
return static_cast<float>(num);
}
break;
}
case StyleParamKey::miter_limit:
case StyleParamKey::outline_miter_limit:
case StyleParamKey::placement_min_length_ratio:
case StyleParamKey::text_font_stroke_width: {
double num;
if (parseFloat(_value, num) > 0) {
return static_cast<float>(num);
}
break;
}
case StyleParamKey::color:
case StyleParamKey::outline_color:
case StyleParamKey::text_font_fill:
case StyleParamKey::text_font_stroke_color:
return parseColor(_value);
case StyleParamKey::cap:
case StyleParamKey::outline_cap:
return static_cast<uint32_t>(CapTypeFromString(_value));
case StyleParamKey::join:
case StyleParamKey::outline_join:
return static_cast<uint32_t>(JoinTypeFromString(_value));
default:
break;
}
return none_type{};
}
StyleParam::Value StyleParam::parseString(StyleParamKey key, const std::string& _value) {
switch (key) {
case StyleParamKey::extrude: {
return parseExtrudeString(_value);
}
case StyleParamKey::text_wrap: {
int textWrap;
if (_value == "false") {
return std::numeric_limits<uint32_t>::max();
}
if (_value == "true") {
return 15; // DEFAULT
}
if (parseInt(_value, textWrap) > 0 && textWrap > 0) {
return static_cast<uint32_t>(textWrap);
}
return std::numeric_limits<uint32_t>::max();
}
case StyleParamKey::text_offset:
case StyleParamKey::offset: {
UnitVec<glm::vec2> vec;
if (!parseVec2(_value, { Unit::pixel }, vec) || std::isnan(vec.value.y)) {
LOGW("Invalid offset parameter '%s'.", _value.c_str());
}
return vec.value;
}
case StyleParamKey::size: {
UnitVec<glm::vec2> vec;
if (!parseVec2(_value, { Unit::pixel }, vec)) {
LOGW("Invalid size parameter '%s'.", _value.c_str());
}
return vec.value;
}
case StyleParamKey::transition_hide_time:
case StyleParamKey::transition_show_time:
case StyleParamKey::transition_selected_time:
case StyleParamKey::text_transition_hide_time:
case StyleParamKey::text_transition_show_time:
case StyleParamKey::text_transition_selected_time: {
float time = 0.0f;
if (!parseTime(_value, time)) {
LOGW("Invalid time param '%s'", _value.c_str());
}
return time;
}
case StyleParamKey::text_font_family:
case StyleParamKey::text_font_weight:
case StyleParamKey::text_font_style: {
std::string normalized = _value;
std::transform(normalized.begin(), normalized.end(), normalized.begin(), ::tolower);
return normalized;
}
case StyleParamKey::text_align:
case StyleParamKey::anchor:
case StyleParamKey::text_anchor:
case StyleParamKey::text_source:
case StyleParamKey::text_transform:
case StyleParamKey::sprite:
case StyleParamKey::sprite_default:
case StyleParamKey::style:
case StyleParamKey::outline_style:
case StyleParamKey::text_repeat_group:
return _value;
case StyleParamKey::text_font_size: {
float fontSize = 0.f;
if (!parseFontSize(_value, fontSize)) {
LOGW("Invalid font-size '%s'.", _value.c_str());
}
return fontSize;
}
case StyleParamKey::centroid:
case StyleParamKey::interactive:
case StyleParamKey::text_interactive:
case StyleParamKey::tile_edges:
case StyleParamKey::visible:
case StyleParamKey::collide:
case StyleParamKey::text_collide:
if (_value == "true") { return true; }
if (_value == "false") { return false; }
LOGW("Bool value required for capitalized/visible. Using Default.");
break;
case StyleParamKey::order:
case StyleParamKey::outline_order:
case StyleParamKey::priority:
case StyleParamKey::text_priority: {
int num;
if (parseInt(_value, num) > 0) {
if (num >= 0) {
return static_cast<uint32_t>(num);
}
}
LOGW("Invalid '%s' value '%s'", keyName(key).c_str(), _value.c_str());
break;
}
case StyleParamKey::text_repeat_distance: {
ValueUnitPair repeatDistance;
repeatDistance.unit = Unit::pixel;
int pos = parseValueUnitPair(_value, 0, repeatDistance);
if (pos < 0) {
LOGW("Invalid repeat distance value '%s'", _value.c_str());
repeatDistance.value = 256.0f;
repeatDistance.unit = Unit::pixel;
} else {
if (repeatDistance.unit != Unit::pixel) {
LOGW("Invalid unit provided for repeat distance");
}
}
return Width(repeatDistance);
}
case StyleParamKey::width:
case StyleParamKey::outline_width: {
ValueUnitPair width;
width.unit = Unit::meter;
int pos = parseValueUnitPair(_value, 0, width);
if (pos < 0) {
LOGW("Invalid width value '%s'", _value.c_str());
width.value = 2.0f;
width.unit = Unit::pixel;
}
return Width(width);
}
case StyleParamKey::miter_limit:
case StyleParamKey::outline_miter_limit:
case StyleParamKey::text_font_stroke_width: {
double num;
if (parseFloat(_value, num) > 0) {
return static_cast<float>(num);
}
break;
}
case StyleParamKey::color:
case StyleParamKey::outline_color:
case StyleParamKey::text_font_fill:
case StyleParamKey::text_font_stroke_color:
return parseColor(_value);
case StyleParamKey::cap:
case StyleParamKey::outline_cap:
return static_cast<uint32_t>(CapTypeFromString(_value));
case StyleParamKey::join:
case StyleParamKey::outline_join:
return static_cast<uint32_t>(JoinTypeFromString(_value));
default:
break;
}
return none_type{};
}
// this function parses a single header record
void Rinex3ClockHeader::ParseHeaderRecord(string& line)
throw(FFStreamError)
{
string label(line, 60, 20);
// RINEX VERSION / TYPE
if ( label == versionString )
{
version = asDouble(line.substr(0,9));
fileType = strip(line.substr(20, 20));
// check version
if ( version <= 0.0 ||
version > 3.0 )
{
FFStreamError e( "This isn't an anticipated version number." +
asString(version) );
GPSTK_THROW(e);
}
// check type
if ( (fileType[0] != 'C') &&
(fileType[0] != 'c'))
{
FFStreamError e( "This isn't a Rinex3 Clock file type." );
GPSTK_THROW(e);
}
// get satellite system
string system_str = strip(line.substr(40, 20));
try
{
system.fromString(system_str);
}
catch (Exception& e)
{
FFStreamError ffse( "Input satellite system is unsupported: "
+ system_str + e.getText() );
GPSTK_THROW(ffse);
}
valid |= versionValid;
}
// PGM / RUN BY / DATE
else if ( label == runByString )
{
fileProgram = strip(line.substr( 0, 20));
fileAgency = strip(line.substr(20, 20));
date = strip(line.substr(40, 20));
isPGM = true;
valid |= runByValid;
}
// COMMENT
else if ( label == commentString )
{
string s = strip(line.substr(0, 60));
commentList.push_back(s);
valid |= commentValid;
}
// SYS / # / OBS TYPES
else if ( label == numObsString )
{
numObsTyp = asInt( line.substr(3,3) );
// TODO: more work needed
valid |= numObsValid;
}
// TIME SYSTEM ID
else if ( label == timeSystemString )
{
timeSystem = line.substr(3,3);
valid |= timeSystemValid;
}
// LEAP SECONDS
else if ( label == leapSecondsString )
{
leapSeconds = asInt(line.substr(0,6));
valid |= leapSecondsValid;
}
// DCBS APPLIED
else if ( label == sysDCBString )
{
valid |= sysDCBsValid;
}
// PCVS APPLIED
else if ( label == sysPCVString )
{
valid |= sysPCVsValid;
}
// # / TYPES OF DATA
else if ( label == dataTypesString )
{
// number of clock data types
int nTyp = asInt(line.substr(0,6));
// allocate memory
dataTypeList.resize(nTyp);
// add clock data types
for( int iTyp = 0; iTyp < nTyp; iTyp++ )
{
dataTypeList[iTyp] = strip( line.substr(6*(iTyp+1),6) );
}
valid |= dataTypesValid;
}
// STATION NAME / NUM
else if ( label == stationNameString )
{
clk0Name = line.substr(0,4);
valid |= stationNameValid;
}
// STATION CLK REF
else if ( label == calibrationClkString )
{
calName = strip( line.substr(0,60) );
valid |= calibrationClkValid;
}
// ANALYSIS CENTER
else if ( label == acNameString )
{
ac = line.substr(0, 3);
acName = strip(line.substr(5,55));
isAC = true;
valid |= acNameValid;
}
// # OF CLK REF
else if ( label == numRefClkString )
{
// new reference clock record
RefClkRecord ref;
// get the number of reference clocks for this record
ref.nRef = asInt( line.substr(0,6) );
// epoch
if( asInt(line.substr(7,4)) )
{
CommonTime T0 = parseTime( line.substr(7,26) );
// only one time
if( timeFirst == CommonTime::BEGINNING_OF_TIME )
{
timeFirst = T0;
}
// left boundary
ref.refWin[0] = T0 - timeFirst;
// right boundary
T0 = parseTime( line.substr(34,26) );
ref.refWin[1] = T0 - timeFirst;
// time inconsistency
if (T0 < timeFirst)
{
FFStreamError e( "Wrong epoch of file, expected epoch: " +
timeFirst.asString() + " detected epoch: " +
T0.asString() );
GPSTK_THROW(e);
}
}
// add the ref clk record to the list
refClkList.push_back(ref);
valid |= numRefClkValid;
}
/// ANALYSIS CLK REF
else if ( label == analysisClkRefString )
{
// get the previous reference clock record
std::list<RefClkRecord>::iterator iRef = refClkList.end();
--iRef;
// how many ref clk have been stored
size_t nClks = iRef->clk.size();
// is there any inconsistency?
if ( nClks < iRef->nRef )
{
RefClk refclk;
// reference clock info
refclk.name = line.substr(0,4);
refclk.sigma = asDouble( strip( line.substr(40,20) ) );
refclk.sigma *= 1e6; // ms^2
// add into the list
iRef->clk.push_back(refclk);
}
else
{
FFStreamError e( string("Number of items found in header ") +
"is inconsitent to the entry in header" );
GPSTK_THROW(e);
}
valid |= analysisClkRefValid;
}
/// # OF SOLN STA / TRF
else if ( label == numStationsString )
{
numSta = asInt(line.substr( 0, 6));
trfName = strip(line.substr(10, 50));
valid |= numStationsValid;
}
/// SOLN STA NAME / NUM
else if ( label == solnStaNameString )
{
// get 4-character station name
string name = line.substr(0,4);
// add it into the list
clkNameList.push_back( name );
// get integer & decimal part of the coordinates
int X = asInt( strip(line.substr(25,8)) );
int Xf = asInt( strip(line.substr(33,3)) );
int Y = asInt( strip(line.substr(37,8)) );
int Yf = asInt( strip(line.substr(45,3)) );
int Z = asInt( strip(line.substr(49,8)) );
int Zf = asInt( strip(line.substr(57,3)) );
// geocentric coordinates (be careful to the sign)
double x = X>0 ? X*1.0+Xf*1e-3 : X*1.0-Xf*1e-3;
double y = Y>0 ? Y*1.0+Yf*1e-3 : Y*1.0-Yf*1e-3;
double z = Z>0 ? Z*1.0+Zf*1e-3 : Z*1.0-Zf*1e-3;
// check the coordinates
double radius = std::sqrt(x*x+y*y+z*z);
// add them into the map
if (radius >= 5000.0e3 && radius < 12000.0e3)
{
staCoordList.push_back( Triple(X,Y,Z) );
}
else
{
staCoordList.push_back( Triple(0.0,0.0,0.0) );
}
valid |= solnStaNameValid;
}
// # OF SOLN SATS
else if ( label == numSatsString )
{
numSVs = asInt(line.substr(0,6));
valid |= numSatsValid;
}
// PRN LIST
else if ( label == prnListString )
{
string s = line.substr(0,60);
string word = stripFirstWord(s);
while ( !word.empty() )
{
clkNameList.push_back( word.append(" ") );
word = stripFirstWord(s);
}
valid |= prnListValid;
}
// END OF HEADER
else if ( label == endOfHeader )
{
valid |= endValid;
}
else
{
FFStreamError e("Unidentified label: " + label);
GPSTK_THROW(e);
}
return;
} // End of method 'Rinex3ClockHeader::ParseHeaderRecord(string& line)'
