void xmlLogger::log(char *type, char *key, long value)
{
#if USE_PC_LOGGER
/** Algorithm: */
/** Check to see if logging is enabled. */
if(m_logging_enabled)
{
/** Open a new tag, and write the key and value pair to it. */
openTag(type);
writeTagAttr(key, value);
/** Write the current time in ms to the tag and then close it. */
writeTagAttr("time", getTime());
closeTag();
}
#endif
}
void xmlLogger::log(char *type, int f1, int f2, int f3, int f4)
{
#if USE_PC_LOGGER
/** Algorithm: */
/** Check to see if logging is enabled. */
if(m_logging_enabled)
{
/** Open a new tag, then log each of the floating point arguments to it. */
openTag(type);
/** Write all three arguments to the tag. */
writeTagAttr("arg1", f1);
writeTagAttr("arg2", f2);
writeTagAttr("arg3", f3);
writeTagAttr("arg4", f4);
/** Add the time and then close the tag. */
writeTagAttr("time", getTime());
closeTag();
}
#endif
}
void xmlLogger::log(char *type)
{
#if USE_PC_LOGGER
/** Algorithm: */
/** Check to see if logging is enabled. */
if(m_logging_enabled)
{
/** Open a new tag, write the current time to it, and close it. */
openTag(type);
writeTagAttr("time", getTime());
closeTag();
}
#endif
}
void xmlLogger::logData(char *type, void *data, int length)
{
#if USE_PC_LOGGER
/** Algorithm: */
/** Check to see if logging is enabled. */
if(m_logging_enabled)
{
/** Open a new tag and then log the data stream to it. The tag will be automatically
* closed afterwards. */
openTag(type);
writeTagAttr("time", getTime());
writeTagData(data, length);
}
#endif
}
void xmlLogger::log(char *type, char *key, char *value)
{
#if USE_PC_LOGGER
/** Algorithm: */
/** Check to see if logging is enabled. */
if(m_logging_enabled)
{
/** Open a new tag, and write the key and value pair to it. */
openTag(type);
if(value == NULL)
{
char emptyquotes[3] = "\"\"";
writeTagAttr(key, emptyquotes);
}
else
{
writeTagAttr(key, value);
}
/** Write the current time in ms to the tag and then close it. */
writeTagAttr("time", getTime());
closeTag();
}
#endif
}
void xmlLogger::startSession()
{
#if USE_PC_LOGGER
/** Algorithm: */
/** Open up a new tag to enclose the session. */
openTag("session");
/** Get the current system date and time and log it in the session tag. */
struct tm *t = (struct tm*)malloc(sizeof(struct tm));
time_t now = time(NULL);
t = localtime(&now);
char str[32];
snprintf(str, 32, "%02d:%02d:%02d %02d/%02d/%04d", t->tm_hour, t->tm_min, t->tm_sec,
t->tm_mday + 1, t->tm_mon + 1, t->tm_year + 1900);
writeTagAttr("date", str);
#endif
}
void write_phcx(char* fileName, phcx* cand) {
FILE* file;
int indent;
int i, block, s;
int sb, si, bin;
int p, d, a, j;
int count;
char *attr[64];
char content[1024];
double max, min;
for (i = 0; i < 64; i++)
attr[i] = (char*) malloc(1024);
indent = 0;
file = fopen(fileName, "w");
fprintf(file, "<?xml version='1.0'?>\n");
openTag(file, &indent, "phcf"); // <phcf>
openTag(file, &indent, "head"); // <head>
writeTag(file, &indent, "SourceID", cand->header.sourceID);
writeTag(file, &indent, "Telescope", cand->header.telescope);
openTag(file, &indent, "Coordinate"); // <Coordinate>
strcpy(attr[0], "units");
strcpy(attr[1], "degrees");
sprintf(content, "%lf", cand->header.ra);
writeTagAttr(file, &indent, "RA", attr, 1, content);
sprintf(content, "%lf", cand->header.dec);
writeTagAttr(file, &indent, "Dec", attr, 1, content);
writeTag(file, &indent, "Epoch", "J2000");
closeTag(file, &indent, "Coordinate"); //</Coordinate>
strcpy(attr[0], "units");
strcpy(attr[1], "MHz");
sprintf(content, "%lf", cand->header.centreFreq);
writeTagAttr(file, &indent, "CentreFreq", attr, 1, content);
sprintf(content, "%lf", cand->header.bandwidth);
writeTagAttr(file, &indent, "BandWidth", attr, 1, content);
sprintf(content, "%lf", cand->header.mjdStart);
writeTag(file, &indent, "MjdStart", content);
strcpy(attr[0], "units");
strcpy(attr[1], "seconds");
sprintf(content, "%lf", cand->header.observationLength);
writeTagAttr(file, &indent, "ObservationLength", attr, 1, content);
for (i = 0; i < cand->nextrakey; i++) {
strcpy(content,cand->extravalue[i]);
strcpy(attr[0],cand->extrakey[i]);
writeTagAttr(file, &indent, "Extra", attr, 1, content);
}
closeTag(file, &indent, "head"); //</head>
for (s = 0; s < cand->nsections; s++) {
phcx_section* section = cand->sections + s;
strcpy(attr[0], "name");
strcpy(attr[1], section->name);
openTagAttr(file, &indent, "Section", attr, 1);
openTag(file, &indent, "BestValues");
strcpy(attr[0], "units");
strcpy(attr[1], "seconds");
sprintf(content, "%16.14lf", section->bestTopoPeriod);
writeTagAttr(file, &indent, "TopoPeriod", attr, 1, content);
sprintf(content, "%16.14lf", section->bestBaryPeriod);
writeTagAttr(file, &indent, "BaryPeriod", attr, 1, content);
sprintf(content, "%lf", section->bestDm);
writeTag(file, &indent, "Dm", content);
strcpy(attr[1], "m/s/s");
sprintf(content, "%lf", section->bestAccn);
writeTagAttr(file, &indent, "Accn", attr, 1, content);
strcpy(attr[1], "m/s/s/s");
sprintf(content, "%lf", section->bestJerk);
writeTagAttr(file, &indent, "Jerk", attr, 1, content);
sprintf(content, "%lf", section->bestSnr);
writeTag(file, &indent, "Snr", content);
sprintf(content, "%lf", section->bestWidth);
writeTag(file, &indent, "Width", content);
closeTag(file, &indent, "BestValues");
sprintf(content, "%lf", section->tsamp);
writeTag(file, &indent, "SampleRate", content);
if (section->subints != NULL) {
maxmin(section->subints, section->nsubints, section->nbins, &max, &min);
strcpy(attr[0], "nBins");
sprintf(attr[1], "%d", section->nbins);
strcpy(attr[2], "nSub");
sprintf(attr[3], "%d", section->nsubints);
strcpy(attr[4], "format");
strcpy(attr[5], "02X");
strcpy(attr[6], "min");
sprintf(attr[7], "%lf", min);
strcpy(attr[8], "max");
sprintf(attr[9], "%lf", max);
openTagAttr(file, &indent, "SubIntegrations", attr, 5);
hexprint(section->subints, section->nsubints, section->nbins, max, min, file);
closeTag(file, &indent, "SubIntegrations");
}
if (section->subbands != NULL) {
maxmin(section->subbands, section->nsubbands, section->nbins, &max, &min);
strcpy(attr[0], "nBins");
sprintf(attr[1], "%d", section->nbins);
strcpy(attr[2], "nSub");
sprintf(attr[3], "%d", section->nsubbands);
strcpy(attr[4], "format");
strcpy(attr[5], "02X");
strcpy(attr[6], "min");
sprintf(attr[7], "%lf", min);
strcpy(attr[8], "max");
sprintf(attr[9], "%lf", max);
openTagAttr(file, &indent, "SubBands", attr, 5);
hexprint(section->subbands, section->nsubbands, section->nbins, max, min, file);
closeTag(file, &indent, "SubBands");
}
if (section->pulseProfile != NULL) {
maxmin(&(section->pulseProfile), 1, section->nbins, &max, &min);
strcpy(attr[0], "nBins");
sprintf(attr[1], "%d", section->nbins);
strcpy(attr[2], "format");
strcpy(attr[3], "02X");
strcpy(attr[4], "min");
sprintf(attr[5], "%lf", min);
strcpy(attr[6], "max");
sprintf(attr[7], "%lf", max);
openTagAttr(file, &indent, "Profile", attr, 4);
hexprint(&(section->pulseProfile), 1, section->nbins, max, min, file);
closeTag(file, &indent, "Profile");
}
if (section->snrBlock.block != NULL) {
openTag(file, &indent, "SnrBlock");
strcpy(attr[0], "nVals");
sprintf(attr[1], "%d", section->snrBlock.nperiod);
strcpy(attr[2], "format");
strcpy(attr[3], "16.12f");
openTagAttr(file, &indent, "PeriodIndex", attr, 2);
for (i = 0; i < section->snrBlock.nperiod; i++) {
fprintf(file, "%1.12f\n", section->snrBlock.periodIndex[i]);
}
closeTag(file, &indent, "PeriodIndex");
strcpy(attr[0], "nVals");
sprintf(attr[1], "%d", section->snrBlock.ndm);
strcpy(attr[2], "format");
strcpy(attr[3], "6.4f");
openTagAttr(file, &indent, "DmIndex", attr, 2);
for (i = 0; i < section->snrBlock.ndm; i++) {
fprintf(file, "%6.4f\n", section->snrBlock.dmIndex[i]);
}
closeTag(file, &indent, "DmIndex");
strcpy(attr[0], "nVals");
sprintf(attr[1], "%d", section->snrBlock.naccn);
strcpy(attr[2], "format");
strcpy(attr[3], "6.4f");
openTagAttr(file, &indent, "AccnIndex", attr, 2);
for (i = 0; i < section->snrBlock.naccn; i++) {
fprintf(file, "%6.4f\n", section->snrBlock.accnIndex[i]);
}
closeTag(file, &indent, "AccnIndex");
strcpy(attr[0], "nVals");
sprintf(attr[1], "%d", section->snrBlock.njerk);
strcpy(attr[2], "format");
strcpy(attr[3], "6.4f");
openTagAttr(file, &indent, "JerkIndex", attr, 2);
for (i = 0; i < section->snrBlock.njerk; i++) {
fprintf(file, "%6.4f\n", section->snrBlock.jerkIndex[i]);
}
closeTag(file, &indent, "JerkIndex");
max = -1e200;
min = 1e200;
for (d = 0; d < section->snrBlock.ndm; d++) {
for (p = 0; p < section->snrBlock.nperiod; p++) {
for (a = 0; a < section->snrBlock.naccn; a++) {
for (j = 0; j < section->snrBlock.njerk; j++) {
if (section->snrBlock.block[d][p][a][j] > max)max = section->snrBlock.block[d][p][a][j];
if (section->snrBlock.block[d][p][a][j] < min)min = section->snrBlock.block[d][p][a][j];
}
}
}
}
strcpy(attr[0], "format");
sprintf(attr[1], "02X");
strcpy(attr[2], "min");
sprintf(attr[3], "%lf", min);
strcpy(attr[4], "max");
sprintf(attr[5], "%lf", max);
openTagAttr(file, &indent, "DataBlock", attr, 3);
count = 0;
for (d = 0; d < section->snrBlock.ndm; d++) {
for (p = 0; p < section->snrBlock.nperiod; p++) {
for (a = 0; a < section->snrBlock.naccn; a++) {
for (j = 0; j < section->snrBlock.njerk; j++) {
i = (int) (255*(section->snrBlock.block[d][p][a][j] - min) / (max - min) + 0.5);
fprintf(file, "%02X", i);
count++;
if (count == 40) {
fprintf(file, "\n");
count = 0;
}
}
}
}
}
closeTag(file, &indent, "DataBlock");
closeTag(file, &indent, "SnrBlock");
}
for (i = 0; i < section->nextrakey; i++) {
strcpy(content,section->extravalue[i]);
strcpy(attr[0],"key");
strcpy(attr[1],section->extrakey[i]);
writeTagAttr(file, &indent, "SecExtra", attr, 1, content);
}
closeTag(file, &indent, "Section");
}
closeTag(file, &indent, "phcf");
fclose(file);
}