void MATLABPLOTTER::savedata(std::vector <double> &timeVector, std::vector <double> &signalVector)
{
//generic data saving
std::ofstream myfile;
std::string filename_raw_data;
filename_raw_data = "AM Spectrum on " + generateDate() + ".csv";
std::string path = "\\\\atomsrv1\\EP\\Data\\sagnacAmplitudeModulator\\";
std::string fullPath = path + filename_raw_data;
myfile.open(const_cast<char*>( fullPath.c_str()) );
/*
myfile << "Pull Amplifier: 10-4200 MHz" << std::endl;
myfile << "Push Amplifier: 700-4200 MHz" << std::endl;
myfile << "Push NLTL: 7113-110" << std::endl;
myfile << "Pull NLTL: 7112-110" << std::endl;
myfile << "Push Function generator frequency: " << pushFrequency << " MHz" << std::endl;
myfile << "Pull Function generator frequency: " << pullFrequency << " MHz" << std::endl;
myfile << "Push Function generator power: " << pushPower << " dBm" << std::endl;
myfile << "Pull Function generator power: " << pullPower << " dBm" << std::endl;
myfile << "push pull low frequency serrodyne" << std::endl;
*/
myfile << "timeVector, signalVector" << std::endl;
for(unsigned int i = 0; i < timeVector.size(); i++)
{
myfile << timeVector.at(i) << ", " << signalVector.at(i) << std::endl;
}
myfile.close();
}
void MATLABPLOTTER::savedata(unsigned int number, double pushFrequency,double pullFrequency, double pushPower, double pullPower, std::vector <double> &timeVectorOff, std::vector <double> &signalVectorOff,
std::vector <double> &timeVectorSerrodyne, std::vector <double> &signalVectorSerrodyne)
{
std::ofstream myfile;
std::string filename_raw_data;
std::string numberString;
std::stringstream convert;
convert << number;
convert >> numberString;
filename_raw_data = "serrodyneRawData on " + generateDate() + " " + numberString + ".csv";
std::string path = "\\\\atomsrv1\\EP\\Data\\SerrodynePushPull\\";
//std::string save_command_raw_data = "csvwrite('" + path + filename_raw_data + "',[dataTime(:), dataSignal(:)]);";
//engEvalString(ep, save_command_raw_data.c_str());
std::string fullPath = path + filename_raw_data;
myfile.open(const_cast<char*>( fullPath.c_str()) );
//myfile << "Function generator frequency: " << frequency << " MHz" << std::endl;
//myfile << "Function generator output power: " << power << " dBM" << std::endl;
//myfile << "7113-110 PSPL Comb Generator" << std::endl;
//myfile << "0dB output attenuator" << std::endl;
//myfile << "700 - 4200 MHz input amplifier" << std::endl;
//myfile << "no output amplifier" << std::endl;
//myfile << "no output phase shifter" << std::endl;
myfile << "Pull Amplifier: 10-4200 MHz" << std::endl;
myfile << "Push Amplifier: 700-4200 MHz" << std::endl;
myfile << "Push NLTL: 7113-110" << std::endl;
myfile << "Pull NLTL: 7112-110" << std::endl;
myfile << "Push Function generator frequency: " << pushFrequency << " MHz" << std::endl;
myfile << "Pull Function generator frequency: " << pullFrequency << " MHz" << std::endl;
myfile << "Push Function generator power: " << pushPower << " dBm" << std::endl;
myfile << "Pull Function generator power: " << pullPower << " dBm" << std::endl;
myfile << "push pull low frequency serrodyne" << std::endl;
myfile << "timeVector, signalVector" << std::endl; //, timeVectorSerrodyne, signalVectorSerrodyne" << std::endl;
for(unsigned int i = 0; i < timeVectorOff.size(); i++)
{
myfile << timeVectorOff.at(i) << ", " << signalVectorOff.at(i) << std::endl; //<< ", " << timeVectorSerrodyne.at(i) << ", " << signalVectorSerrodyne.at(i) << std::endl;
}
myfile.close();
}
void DateFormatRoundTripTest::test(DateFormat *fmt, const Locale &origLocale, UBool timeOnly)
{
UnicodeString pat;
if(fmt->getDynamicClassID() != SimpleDateFormat::getStaticClassID()) {
errln("DateFormat wasn't a SimpleDateFormat");
return;
}
UBool isGregorian = FALSE;
UErrorCode minStatus = U_ZERO_ERROR;
UDate minDate = CalendarTest::minDateOfCalendar(*fmt->getCalendar(), isGregorian, minStatus);
if(U_FAILURE(minStatus)) {
errln((UnicodeString)"Failure getting min date for " + origLocale.getName());
return;
}
//logln(UnicodeString("Min date is ") + fullFormat(minDate) + " for " + origLocale.getName());
pat = ((SimpleDateFormat*)fmt)->toPattern(pat);
// NOTE TO MAINTAINER
// This indexOf check into the pattern needs to be refined to ignore
// quoted characters. Currently, this isn't a problem with the locale
// patterns we have, but it may be a problem later.
UBool hasEra = (pat.indexOf(UnicodeString("G")) != -1);
UBool hasZoneDisplayName = (pat.indexOf(UnicodeString("z")) != -1) || (pat.indexOf(UnicodeString("v")) != -1)
|| (pat.indexOf(UnicodeString("V")) != -1);
// Because patterns contain incomplete data representing the Date,
// we must be careful of how we do the roundtrip. We start with
// a randomly generated Date because they're easier to generate.
// From this we get a string. The string is our real starting point,
// because this string should parse the same way all the time. Note
// that it will not necessarily parse back to the original date because
// of incompleteness in patterns. For example, a time-only pattern won't
// parse back to the same date.
//try {
for(int i = 0; i < TRIALS; ++i) {
UDate *d = new UDate [DEPTH];
UnicodeString *s = new UnicodeString[DEPTH];
if(isGregorian == TRUE) {
d[0] = generateDate();
} else {
d[0] = generateDate(minDate);
}
UErrorCode status = U_ZERO_ERROR;
// We go through this loop until we achieve a match or until
// the maximum loop count is reached. We record the points at
// which the date and the string starts to match. Once matching
// starts, it should continue.
int loop;
int dmatch = 0; // d[dmatch].getTime() == d[dmatch-1].getTime()
int smatch = 0; // s[smatch].equals(s[smatch-1])
for(loop = 0; loop < DEPTH; ++loop) {
if (loop > 0) {
d[loop] = fmt->parse(s[loop-1], status);
failure(status, "fmt->parse", s[loop-1]+" in locale: " + origLocale.getName() + " with pattern: " + pat);
status = U_ZERO_ERROR; /* any error would have been reported */
}
s[loop] = fmt->format(d[loop], s[loop]);
// For displaying which date is being tested
//logln(s[loop] + " = " + fullFormat(d[loop]));
if(s[loop].length() == 0) {
errln("FAIL: fmt->format gave 0-length string in " + pat + " with number " + d[loop] + " in locale " + origLocale.getName());
}
if(loop > 0) {
if(smatch == 0) {
UBool match = s[loop] == s[loop-1];
if(smatch == 0) {
if(match)
smatch = loop;
}
else if( ! match)
errln("FAIL: String mismatch after match");
}
if(dmatch == 0) {
// {sfb} watch out here, this might not work
UBool match = d[loop]/*.getTime()*/ == d[loop-1]/*.getTime()*/;
if(dmatch == 0) {
if(match)
dmatch = loop;
}
else if( ! match)
errln("FAIL: Date mismatch after match");
}
if(smatch != 0 && dmatch != 0)
break;
}
}
// At this point loop == DEPTH if we've failed, otherwise loop is the
// max(smatch, dmatch), that is, the index at which we have string and
// date matching.
// Date usually matches in 2. Exceptions handled below.
int maxDmatch = 2;
int maxSmatch = 1;
if (dmatch > maxDmatch) {
// Time-only pattern with zone information and a starting date in PST.
if(timeOnly && hasZoneDisplayName) {
int32_t startRaw, startDst;
fmt->getTimeZone().getOffset(d[0], FALSE, startRaw, startDst, status);
failure(status, "TimeZone::getOffset");
// if the start offset is greater than the offset on Jan 1, 1970
// in PST, then need one more round trip. There are two cases
// fall into this category. The start date is 1) DST or
// 2) LMT (GMT-07:52:58).
if (startRaw + startDst > -28800000) {
maxDmatch = 3;
maxSmatch = 2;
}
}
}
// String usually matches in 1. Exceptions are checked for here.
if(smatch > maxSmatch) { // Don't compute unless necessary
UBool in0;
// Starts in BC, with no era in pattern
if( ! hasEra && getField(d[0], UCAL_ERA) == GregorianCalendar::BC)
maxSmatch = 2;
// Starts in DST, no year in pattern
else if((in0=fmt->getTimeZone().inDaylightTime(d[0], status)) && ! failure(status, "gettingDaylightTime") &&
pat.indexOf(UnicodeString("yyyy")) == -1)
maxSmatch = 2;
// If we start not in DST, but transition into DST
else if (!in0 &&
fmt->getTimeZone().inDaylightTime(d[1], status) && !failure(status, "gettingDaylightTime"))
maxSmatch = 2;
// Two digit year with no time zone change,
// unless timezone isn't used or we aren't close to the DST changover
else if (pat.indexOf(UnicodeString("y")) != -1
&& pat.indexOf(UnicodeString("yyyy")) == -1
&& getField(d[0], UCAL_YEAR)
!= getField(d[dmatch], UCAL_YEAR)
&& !failure(status, "error status [smatch>maxSmatch]")
&& ((hasZoneDisplayName
&& (fmt->getTimeZone().inDaylightTime(d[0], status)
== fmt->getTimeZone().inDaylightTime(d[dmatch], status)
|| getField(d[0], UCAL_MONTH) == UCAL_APRIL
|| getField(d[0], UCAL_MONTH) == UCAL_OCTOBER))
|| !hasZoneDisplayName)
)
{
maxSmatch = 2;
}
// If zone display name is used, fallback format might be used before 1970
else if (hasZoneDisplayName && d[0] < 0) {
maxSmatch = 2;
}
}
/*
* Special case for Japanese and Buddhist (could have large negative years)
* Also, Hebrew calendar need help handling leap month.
*/
if(dmatch > maxDmatch || smatch > maxSmatch) {
const char *type = fmt->getCalendar()->getType();
if(!strcmp(type,"japanese") || (!strcmp(type,"buddhist"))) {
maxSmatch = 4;
maxDmatch = 4;
} else if(!strcmp(type,"hebrew")) {
maxSmatch = 3;
maxDmatch = 3;
}
}
// Use @v to see verbose results on successful cases
UBool fail = (dmatch > maxDmatch || smatch > maxSmatch);
if (optionv || fail) {
if (fail) {
errln(UnicodeString("\nFAIL: Pattern: ") + pat +
" in Locale: " + origLocale.getName());
} else {
errln(UnicodeString("\nOk: Pattern: ") + pat +
" in Locale: " + origLocale.getName());
}
logln("Date iters until match=%d (max allowed=%d), string iters until match=%d (max allowed=%d)",
dmatch,maxDmatch, smatch, maxSmatch);
for(int j = 0; j <= loop && j < DEPTH; ++j) {
UnicodeString temp;
FieldPosition pos(FieldPosition::DONT_CARE);
errln((j>0?" P> ":" ") + fullFormat(d[j]) + " F> " +
escape(s[j], temp) + UnicodeString(" d=") + d[j] +
(j > 0 && d[j]/*.getTime()*/==d[j-1]/*.getTime()*/?" d==":"") +
(j > 0 && s[j] == s[j-1]?" s==":""));
}
}
delete[] d;
delete[] s;
}
/*}
catch (ParseException e) {
errln("Exception: " + e.getMessage());
logln(e.toString());
}*/
}
/// Check the signature and parse the identity
bool SipXauthIdentity::decode(const UtlString& identityValue,
const UtlString& callId,
const UtlString& fromTag,
DialogRule bindRule
)
{
/**
* See SipXauthIdentity Encoding comment at the top of the file
*/
Os::Logger::instance().log(FAC_SIP, PRI_DEBUG,
"SipXauthIdentity::decode "
"parse '%s'",
identityValue.data()
);
mIdentity.remove(0);
mIsValidIdentity = FALSE;
bool decodeError = false; // false iff the identity was correctly signed and successfully parsed
UtlString decodedIdentity;
unsigned long epochTimestamp = 0;
UtlString timestamp;
UtlString actualSignatureHash;
bool isBound = false;
Url encodedUrl(identityValue, Url::NameAddr);
if (Url::SipUrlScheme == encodedUrl.getScheme())
{
// Only proceed if the URL parsing succeeded
// Extract the identity
encodedUrl.getIdentity(decodedIdentity);
// Extract signature parameter
UtlString signatureParamValue;
if (encodedUrl.getUrlParameter(SignatureUrlParamName, signatureParamValue))
{
// only proceed if signature parameter was found
RegEx signatureRegEx(SignatureRegEx);
if (signatureRegEx.Search(signatureParamValue))
{
UtlString secondSeparator;
isBound = ( signatureRegEx.MatchString(&secondSeparator,2)
&& secondSeparator.isNull()); // there is only one ':' separator
if ( (requireDialogBinding == bindRule) // must be bound
&& ! isBound
)
{
decodeError = true;
Os::Logger::instance().log(FAC_SIP, PRI_WARNING,
"SipXauthIdentity::decode "
"'%s' is an unbound identity",
identityValue.data()
);
}
else
{
// extract timestamp
if ( !signatureRegEx.MatchString(×tamp,1)
|| !from_string(epochTimestamp, timestamp)
)
{
decodeError = true;
Os::Logger::instance().log(FAC_SIP, PRI_WARNING,
"SipXauthIdentity::decode "
"'%s' invalid timestamp",
identityValue.data()
);
}
// extract signature
else if (!signatureRegEx.MatchString(&actualSignatureHash,3))
{
decodeError = true;
Os::Logger::instance().log(FAC_SIP, PRI_WARNING,
"SipXauthIdentity::decode '%s' missing hash",
identityValue.data()
);
}
}
}
else
{
decodeError = true;
Os::Logger::instance().log(FAC_SIP, PRI_WARNING,
"SipXauthIdentity::decode "
"'%s' invalid signature format",
identityValue.data()
);
}
}
else
{
decodeError = true;
Os::Logger::instance().log(FAC_SIP, PRI_WARNING,
"SipXauthIdentity::decode "
"'%s' missing '%s' param",
identityValue.data(), SignatureUrlParamName
);
}
}
else
{
decodeError = true;
Os::Logger::instance().log(FAC_SIP, PRI_WARNING,
"SipXauthIdentity::decode "
"'%s' URL parsing failed",
identityValue.data()
);
}
// validate timestamp
if (!decodeError && !sSignatureValidityInterval.isNoWait())
{
// timestamp validity check
if (epochTimestamp + sSignatureValidityInterval.seconds() < OsDateTime::getSecsSinceEpoch())
{
decodeError = true;
OsDateTime generateDate(OsTime(epochTimestamp,0));
UtlString generateTimeString;
generateDate.getIsoTimeStringZ(generateTimeString);
Os::Logger::instance().log(FAC_SIP, PRI_WARNING,
"SipXauthIdentity::decode(%s)"
" timestamp '%lX' from '%s' too old with interval of '%d' seconds",
identityValue.data(), epochTimestamp, generateTimeString.data(),
sSignatureValidityInterval.seconds()
);
}
}
// validate signature hash
if (!decodeError)
{
UtlString validSignature;
// signature-hash=MD5(<timestamp><secret><from-tag><call-id><identity>)
NetMd5Codec signatureHash;
signatureHash.hash(timestamp);
signatureHash.hash(sSignatureSecret);
if (isBound)
{
signatureHash.hash(fromTag);
signatureHash.hash(callId);
}
signatureHash.hash(decodedIdentity);
signatureHash.appendHashValue(validSignature);
if (validSignature.compareTo(actualSignatureHash) == 0)
{
// the signature checks out
mIdentity = decodedIdentity;
mIsValidIdentity = TRUE;
}
else
{
Os::Logger::instance().log(FAC_SIP, PRI_WARNING,
"SipXauthIdentity::decode "
"'%s' invalid signature '%s' != '%s'",
identityValue.data(), actualSignatureHash.data(), validSignature.data()
);
}
}
return mIsValidIdentity;
}
