/**
* @param island A list of all cubes that are on this island are desired
*
* @returns A list of CubeSerialNumbers which are located on the given island
*/
const QVector< QString > ControlGraph::GetCubesOnIsland(const int & island)
const
{
if (connected)
{
std::string message = "\n\nGetCubesOnIsland called on connected graph ";
message += "with no islands!!!\n\n";
throw Isis::iException::Message(Isis::iException::Programmer, message,
_FILEINFO_);
}
ASSERT(islands->size() != 0);
if (island < 0 || island >= islands->size())
{
iString message = "\n\nA list of cubes was requested from island ";
message += iString(island);
message += "\nbut that island does not exist!!!";
message += "\n\nThere are " + iString(islands->size()) + " islands ";
message += "numbered from 0 to " + iString(islands->size() - 1) + "\n\n";
throw Isis::iException::Message(Isis::iException::Programmer, message,
_FILEINFO_);
}
QVector< QString > cubeList;
for (int i = 0; i < (*islands)[island].size(); i++)
{
cubeList.push_back(cubeIndexToIdHash->value((*islands)[island][i]));
}
return cubeList;
}
void Histogram::SetBinRange(double binStart, double binEnd) {
if(binEnd < binStart) {
string msg = "The binning range start [" + iString(binStart) +
" must be less than the end [" + iString(binEnd) + ".";
throw iException::Message(iException::Programmer,msg,_FILEINFO_);
}
p_binRangeStart = binStart;
p_binRangeEnd = binEnd;
}
/**
* @brief Loops through PvlKeyword containing Kernel file names
*
* This method interogates a PvlKeyword that is determined to
* contain SPICE kernel names. It will optionally load the
* kernels if initially requested and then adds the name to the
* internally managed list.
*
* Some keywords may contain special keywords. These are ignored in this
* method and can be handled explicitly in other methods.
*
* @param key PvlKeyword containing SPICE kernels
* @see loadKernelFromTable()
*/
void Kernels::loadKernel(PvlKeyword &key) {
for (int i=0; i<key.Size(); i++) {
if (key[i] == "") continue;
if (iString(key[i]).UpCase() == "NULL") continue;
if (iString(key[i]).UpCase() == "NADIR") continue;
if (iString(key[i]).UpCase() == "TABLE") continue;
Isis::Filename file(key[i]);
if (!file.exists()) {
string msg = "Spice file does not exist [" + file.Expanded() + "]";
throw Isis::iException::Message(Isis::iException::Io,msg,_FILEINFO_);
}
string fileName(file.Expanded());
if (_furnish) furnsh_c(fileName.c_str());
}
}
void selector::Begin(TTree *) {
// Can pass a string option which is 4th argument of runselector.C
// You can retrieve the option in any function in this file.
TString option = GetOption();
printf("Begin: The option is %s\n",option.Data());
// This code parses the options and finds options separated by white space
TObjArray *Strings = option.Tokenize(" ");
if(Strings->GetEntriesFast()) {
TIter iString(Strings);
TObjString* os=0;
Int_t j=0;
while ((os=(TObjString*)iString())) {
printf("token #%d ='%s'\n",j++, os->GetString().Data());
}
}
delete Strings;
// Print help message to users
if( option == "-h" ) {
printf("selector_null: sample selector function\n");
printf(" Edward Diehl 3/29/09\n");
exit(0); //Abort job
}
//Book histograms
// histlist = new TList();
raw_adc = new TH1F("raw_adc","ADC",100,0.,500.);
raw_tdc = new TH1F("raw_tdc","TDC",100,0.,3000.);
raw_adc_ntube = new TH2F("raw_adc_ntube","ADC",100,0.,500.,1,0.,MAXCHAMBERS);
rawMdt_gposX_gposY = new TH2F("rawMdt_gposX_gposY","rawMdt XvY",100,-15,15,100,-15,15);
rawMdt_gposY_gposZ = new TH2F("rawMdt_gposY_gposZ","rawMdt YvZ",100,-15,15,100,-15,15);
//Loop over chambers
/* for(int i=0;1<MAXCHAMBERS;i++){
rawadc_chamber[i] = new TH1F(Form("rawADC_%s",chlist[i].calname),Form("%s raw ADC",chlist[i].calname),100,0,500); //chlist is array in chamberlist that contains detector names e.g BEE_1_2
// }
//loop over multilayer and chambers
for(int j=0; j<MAXCHAMBERS; j++ ) { //Chambers
for( int i=0; i<2; i++ ) { //ML
int ml = i + 1 ;
raw_adc[j][i] =
raw_tdc[j][i] =
*/
}
/**
* Sets the vector of Columns and writes out the first row of the file.
*
* @param cols A vector of Columns, setting the format of the table
*/
void WriteTabular::SetColumns(std::vector <Column> cols ){
for (unsigned int index=0; index < cols.size(); index++) {
Column thisCol = cols[index];
std::string thisTitle = thisCol.Name();
if (thisTitle.length() > thisCol.Width()) {
std::string message = "Column header [" + thisTitle + "] is wider " +
"than the set width for column [" + iString((int)index) + "]";
throw Isis::iException::Message(Isis::iException::User,message,_FILEINFO_);
}
int iteration = 0;
while (thisTitle.length() < thisCol.Width()) {
if (thisCol.Alignment() == Column::Left) {
thisTitle += " ";
}
else if (thisCol.Alignment() == Column::Right ||
thisCol.Alignment() == Column::Decimal) {
thisTitle = " " + thisTitle;
}
else {
std::string message = "Alignment is improperly set";
throw Isis::iException::Message(Isis::iException::User,message,_FILEINFO_);
}
iteration++;
}//end while
p_cols.push_back(thisCol);
p_outfile << thisTitle;
if (index < (cols.size()-1)) {
p_outfile << p_delimiter;
}
}//end for
p_outfile << "\n";
}//end function
std::vector<TString> GA::split_string(TString line)
{
std::vector<TString> vtokens;
TObjArray* tokens = TString(line).Tokenize(",");
if(tokens->GetEntriesFast()) {
TIter iString(tokens);
TObjString* os=0;
while ((os=(TObjString*)iString())) {
vtokens.push_back( os->GetString() );
}
}
delete tokens;
return vtokens;
}
void Spice::ComputeSolarLongitude(double et) {
NaifStatus::CheckErrors();
if (iString(Target()).UpCase() == "SKY") {
p_solarLongitude = -999.0;
return;
}
if (p_bodyRotation->IsCached()) return;
double tipm[3][3], npole[3];
char frameName[32];
SpiceInt frameCode;
SpiceBoolean found;
cidfrm_c (p_spkBodyCode, sizeof(frameName), &frameCode, frameName, &found);
if ( found ) {
pxform_c("J2000",frameName,et,tipm);
}
else {
tipbod_c("J2000",p_spkBodyCode,et,tipm);
}
for (int i=0; i<3; i++) {
npole[i] = tipm[2][i];
}
double state[6], lt;
spkez_c(p_spkBodyCode,et,"J2000","NONE",10,state,<);
double uavel[3];
ucrss_c(state,&state[3],uavel);
double x[3], y[3], z[3];
vequ_c(uavel,z);
ucrss_c(npole,z,x);
ucrss_c(z,x,y);
double trans[3][3];
for (int i=0; i<3; i++) {
trans[0][i] = x[i];
trans[1][i] = y[i];
trans[2][i] = z[i];
}
spkez_c(10,et,"J2000","LT+S",p_spkBodyCode,state,<);
double pos[3];
mxv_c(trans,state,pos);
double radius, ls, lat;
reclat_c(pos,&radius,&ls,&lat);
ls *= 180.0 / Isis::PI;
if (ls < 0.0) ls += 360.0;
else if (ls > 360.0) ls -= 360.0;
p_solarLongitude = ls;
NaifStatus::CheckErrors();
}
/**
* Set the Hapke Henyey Greenstein coefficient for the single
* particle phase function. This is one of two coefficients
* needed for the single particle phase function. This parameter
* is limited to values that are >=0 and <=1.
*
* @param hg2 Hapke Henyey Greenstein coefficient, default is 0.0
*/
void HapkeHen::SetPhotoHg2 (const double hg2) {
if (hg2 < 0.0 || hg2 > 1.0) {
string msg = "Invalid value of Hapke Henyey Greenstein hg2 [" +
iString(hg2) + "]";
throw iException::Message(iException::User,msg,_FILEINFO_);
}
p_photoHg2 = hg2;
}
/**
* Set the Hapke Henyey Greenstein coefficient for the single
* particle phase function. This is one of two coefficients
* needed for the single particle phase function. This parameter
* is limited to values that are >-1 and <1.
*
* @param hg1 Hapke Henyey Greenstein coefficient, default is 0.0
*/
void HapkeHen::SetPhotoHg1 (const double hg1) {
if (hg1 <= -1.0 || hg1 >= 1.0) {
string msg = "Invalid value of Hapke Henyey Greenstein hg1 [" +
iString(hg1) + "]";
throw iException::Message(iException::User,msg,_FILEINFO_);
}
p_photoHg1 = hg1;
}
/**
* Set the normalization function parameter. This is the
* reference incidence angle to which the image photometry will
* be normalized. This parameter is limited to values that are
* >=0 and <90.
*
* @param incref Normalization function parameter, default
* is 0.0
*/
void Mixed::SetNormIncref (const double incref) {
if (incref < 0.0 || incref >= 90.0) {
std::string msg = "Invalid value of normalization incref [" +
iString(incref) + "]";
throw iException::Message(iException::User,msg,_FILEINFO_);
}
p_normIncref = incref;
}
/**
* Set the Atmospheric function parameter. This is the
* atmospheric shell thickness normalized to the planet radius
* and is used to modify angles to get more accurate path
* lengths near the terminator (ratio of scale height to the
* planetary radius). This parameter is limited to values that
* are >=0.
*
* @param hnorm Atmospheric function parameter, default is 0.003
*/
void Anisotropic1::SetAtmosHnorm (const double hnorm) {
if (hnorm < 0.0) {
std::string msg = "Invalid value of Atmospheric hnorm [" +
iString(hnorm) + "]";
throw iException::Message(iException::User,msg,_FILEINFO_);
}
p_atmosHnorm = hnorm;
}
/**
* Returns true if the kernel group has kernel files
*
* @param lab Label containing Instrument and Kernels groups.
* @return bool - status of kernel files in the kernel group
*/
bool Spice::HasKernels(Isis::Pvl &lab) {
// Get the kernel group and check main kernels
Isis::PvlGroup kernels = lab.FindGroup("Kernels",Isis::Pvl::Traverse);
std::vector<string> keywords;
keywords.push_back("TargetPosition");
if (kernels.HasKeyword("SpacecraftPosition")) {
keywords.push_back("SpacecraftPosition");
}
else {
keywords.push_back("InstrumentPosition");
}
if (kernels.HasKeyword("SpacecraftPointing")) {
keywords.push_back("SpacecraftPointing");
}
else {
keywords.push_back("InstrumentPointing");
}
if (kernels.HasKeyword("Frame")) {
keywords.push_back("Frame");
}
if (kernels.HasKeyword("Extra")) {
keywords.push_back("Extra");
}
Isis::PvlKeyword key;
for (int ikey = 0; ikey < (int) keywords.size(); ikey++) {
key = kernels[ikey];
for (int i=0; i<key.Size(); i++) {
if (key[i] == "") return false;
if (iString(key[i]).UpCase() == "NULL") return false;
if (iString(key[i]).UpCase() == "NADIR") return false;
if (iString(key[i]).UpCase() == "TABLE") return false;
}
}
return true;
}
//! Load/furnish NAIF kernel(s)
void Spice::Load(Isis::PvlKeyword &key) {
NaifStatus::CheckErrors();
for (int i=0; i<key.Size(); i++) {
if (key[i] == "") continue;
if (iString(key[i]).UpCase() == "NULL") break;
if (iString(key[i]).UpCase() == "NADIR") break;
if (iString(key[i]).UpCase() == "TABLE") break;
Isis::Filename file(key[i]);
if (!file.exists()) {
string msg = "Spice file does not exist [" + file.Expanded() + "]";
throw Isis::iException::Message(Isis::iException::Io,msg,_FILEINFO_);
}
string fileName(file.Expanded());
furnsh_c(fileName.c_str());
p_kernels.push_back((string)key[i]);
}
NaifStatus::CheckErrors();
}
/**
* Writes a floating-point value out to the next column in the current row
*
* @param item The value to be printed out
*/
void WriteTabular::Write(double item){
Column thisCol = p_cols[p_curCol];
if (thisCol.DataType() != Column::Real &&
thisCol.DataType() != Column::Pixel) {
std::string message = "Wrong data type for this Column";
throw Isis::iException::Message(Isis::iException::User,message,_FILEINFO_);
}
//Check for special pixels, if it's a pixel column
if (thisCol.DataType() == Column::Pixel && IsSpecial(item)) {
if (IsNullPixel(item)) {
Write("Null");
return;
}
if (IsHisPixel(item)) {
Write("His");
return;
}
if (IsHrsPixel(item)) {
Write("Hrs");
return;
}
if (IsLisPixel(item)) {
Write("Lis");
return;
}
if (IsLrsPixel(item)) {
Write("Lrs");
return;
}
}
iString thisItem(item);
if (thisCol.Alignment() == Column::Decimal) {
//Format and round the number
//First, split the number at the decimal point
iString tempString = thisItem;
iString intPart = tempString.Token(".");
//Make the fractional portion appear as such, so the iomanipulators
//handle it properly
if (tempString != "") {
tempString = "0." + tempString;
}
else tempString = "0.0";
//Put the fractional portion into a stringstream, and use
//stream manipulators to round it properly
std::stringstream b;
b << std::showpoint
<< std::setprecision(thisCol.Precision())
<< tempString.ToDouble();
//if the rounding causes a rollover (i.e. the decimal portion is greater
//than 0.95) increment the integer portion
if (iString(b.str()).ToDouble() >= 1) {
intPart = iString(intPart.ToInteger() + 1);
}
//Put it back into an iString, for easier manipulation
tempString = b.str();
tempString.Token(".");
//Add any zeros necessary to pad the number
while (tempString.size() < thisCol.Precision()) {
tempString += "0";
}
//Put the number back together, adding the decimal point in the right location
thisItem = intPart + "." + tempString;
}
std::stringstream tempStream;
tempStream.width(thisCol.Width());
tempStream.fill(' ');
if (thisCol.Alignment() == Column::Left) {
tempStream.setf(std::ios::left);
}
else tempStream.setf(std::ios::right);
tempStream << thisItem;
thisItem = tempStream.str();
if (p_curCol == 0) {
p_rows++;
}
//If the number is too wide for the column, replace with a string of stars
if (thisItem.length() > thisCol.Width()) {
thisItem = "*";
while (thisItem.length() < thisCol.Width()) {
thisItem += "*";
}
}
if (p_curCol < (p_cols.size()-1)) {
thisItem += p_delimiter;
p_curCol++;
}
else {
thisItem += "\n";
p_curCol = 0;
}
p_outfile << thisItem;
}
// TODO: DOCUMENT EVERYTHING
Spice::Spice (Isis::Pvl &lab) {
NaifStatus::CheckErrors();
// Initialization
p_startTime = 0.0;
p_endTime = 0.0;
p_cacheSize = 0;
p_et = -DBL_MAX;
p_allowDownsizing = false;
// Get the kernel group and load main kernels
Isis::PvlGroup kernels = lab.FindGroup("Kernels",Isis::Pvl::Traverse);
// Get the time padding first
if(kernels.HasKeyword("StartPadding")) {
p_startTimePadding = kernels["StartPadding"][0];
}
else {
p_startTimePadding = 0.0;
}
if(kernels.HasKeyword("EndPadding")) {
p_endTimePadding = kernels["EndPadding"][0];
}
else {
p_endTimePadding = 0.0;
}
// Modified to load planetary ephemeris SPKs before s/c SPKs since some
// missions (e.g., MESSENGER) may augment the s/c SPK with new planet
// ephemerides. (2008-02-27 (KJB))
Load(kernels["TargetPosition"]);
Load(kernels["InstrumentPosition"]);
Load(kernels["InstrumentPointing"]);
if (kernels.HasKeyword("Frame")) {
Load(kernels["Frame"]);
}
if (kernels.HasKeyword("Extra")) {
Load(kernels["Extra"]);
}
Load(kernels["TargetAttitudeShape"]);
Load(kernels["Instrument"]);
Load(kernels["InstrumentAddendum"]); // Always load after instrument
Load(kernels["LeapSecond"]);
Load(kernels["SpacecraftClock"]);
// Get NAIF ik, spk, sclk, and ck codes
//
// Use ikcode to get parameters from instrument kernel such as focal
// length, distortions, focal plane maps, etc
//
// Use spkcode to get spacecraft position from spk file
//
// Use sclkcode to transform times from et to tics
//
// Use ckcode to transform between frames
//
// Use bodycode to obtain radii and attitude (pole position/omega0)
//
// Use spkbodycode to read body position from spk
string trykey = "NaifIkCode";
if (kernels.HasKeyword("NaifFrameCode")) trykey = "NaifFrameCode";
p_ikCode = (int) kernels[trykey];
p_spkCode = p_ikCode / 1000;
p_sclkCode = p_spkCode;
p_ckCode = p_ikCode;
Isis::PvlGroup &inst = lab.FindGroup("Instrument",Isis::Pvl::Traverse);
p_target = (string) inst["TargetName"];
if (iString(p_target).UpCase() == "SKY") {
p_bodyCode = p_spkCode;
p_radii[0] = p_radii[1] = p_radii[2] = 1.0;
p_sky = true;
}
else {
p_bodyCode = NaifBodyCode();
SpiceInt n;
bodvar_c(p_bodyCode,"RADII",&n,p_radii);
p_sky = false;
}
p_spkBodyCode = p_bodyCode;
// Override them if they exist in the labels
if (kernels.HasKeyword("NaifSpkCode")) p_spkCode = (int) kernels["NaifSpkCode"];
if (kernels.HasKeyword("NaifCkCode")) p_ckCode = (int) kernels["NaifCkCode"];
if (kernels.HasKeyword("NaifSclkCode")) p_sclkCode = (int) kernels["NaifSclkCode"];
if (kernels.HasKeyword("NaifBodyCode")) p_bodyCode = (int) kernels["NaifBodyCode"];
if (!p_sky) {
if (kernels.HasKeyword("NaifSpkBodyCode")) p_spkBodyCode = (int) kernels["NaifSpkBodyCode"];
}
// Create our SpicePosition and SpiceRotation objects
p_bodyRotation = 0;
p_instrumentRotation = 0;
p_instrumentPosition = 0;
p_sunPosition = 0;
if (p_sky) {
// Create the identity rotation for sky targets
// Everything in bodyfixed will really be J2000
p_bodyRotation = new SpiceRotation(1);
}
else {
char frameName[32];
SpiceInt frameCode;
SpiceBoolean found;
cidfrm_c (p_spkBodyCode, sizeof(frameName), &frameCode, frameName, &found);
if (!found) {
string naifTarget = string("IAU_") + iString(p_target).UpCase();
namfrm_c(naifTarget.c_str(),&frameCode);
if (frameCode == 0) {
string msg = "Can not find NAIF code for [" + naifTarget + "]";
throw Isis::iException::Message(Isis::iException::Io,msg,_FILEINFO_);
}
}
p_bodyRotation = new SpiceRotation(frameCode);
}
p_instrumentRotation = new SpiceRotation(p_ckCode);
p_instrumentPosition = new SpicePosition(p_spkCode,p_spkBodyCode);
p_sunPosition = new SpicePosition(10,p_bodyCode);
// Check to see if we have nadir pointing that needs to be computed &
// See if we have table blobs to load
if (iString((std::string)kernels["TargetPosition"]).UpCase() == "TABLE") {
Table t("SunPosition",lab.Filename());
p_sunPosition->LoadCache(t);
Table t2("BodyRotation",lab.Filename());
p_bodyRotation->LoadCache(t2);
if (t2.Label().HasKeyword("SolarLongitude")) {
p_solarLongitude = t2.Label()["SolarLongitude"];
}
else {
SolarLongitude();
}
}
// We can't assume InstrumentPointing & InstrumentPosition exist, old
// files may be around with the old keywords, SpacecraftPointing &
// SpacecraftPosition. The old keywords were in existance before the
// Table option, so we don't need to check for Table under the old
// keywords.
if(kernels["InstrumentPointing"].Size() == 0) {
throw iException::Message(iException::Camera,
"No camera pointing available",
_FILEINFO_);
}
// 2009-03-18 Tracie Sucharski - Removed test for old keywords, any files
// with the old keywords should be re-run through spiceinit.
if (iString((std::string)kernels["InstrumentPointing"]).UpCase() == "NADIR") {
delete p_instrumentRotation;
p_instrumentRotation = new SpiceRotation(p_ikCode,p_spkBodyCode);
}
else if (iString((std::string)kernels["InstrumentPointing"]).UpCase() == "TABLE") {
Table t("InstrumentPointing",lab.Filename());
p_instrumentRotation->LoadCache(t);
}
if(kernels["InstrumentPosition"].Size() == 0) {
throw iException::Message(iException::Camera,
"No instrument position available",
_FILEINFO_);
}
if (iString((std::string)kernels["InstrumentPosition"]).UpCase() == "TABLE") {
Table t("InstrumentPosition",lab.Filename());
p_instrumentPosition->LoadCache(t);
}
NaifStatus::CheckErrors();
}
/**
* This method looks for any naif errors that might have occurred. It
* then compares the error to a list of known naif errors and converts
* the error into an iException.
*
* @param resetNaif True if the NAIF error status should be reset (naif calls valid)
*/
void NaifStatus::CheckErrors(bool resetNaif) {
if(!initialized) {
SpiceChar returnAct[32] = "RETURN";
SpiceChar printAct[32] = "NONE";
erract_c ( "SET", sizeof(returnAct), returnAct); // Reset action to return
errprt_c ( "SET", sizeof(printAct), printAct); // ... and print nothing
initialized = true;
}
// Do nothing if NAIF didn't fail
//getmsg_c("", 0, NULL);
if(!failed_c()) return;
// This method has been documented with the information provided
// from the NAIF documentation at:
// naif/cspice61/packages/cspice/doc/html/req/error.html
// This message is a character string containing a very terse, usually
// abbreviated, description of the problem. The message is a character
// string of length not more than 25 characters. It always has the form:
// SPICE(...)
// Short error messages used in CSPICE are CONSTANT, since they are
// intended to be used in code. That is, they don't contain any data which
// varies with the specific instance of the error they indicate.
// Because of the brief format of the short error messages, it is practical
// to use them in a test to determine which type of error has occurred.
const int SHORT_DESC_LEN = 26;
SpiceChar naifShort[SHORT_DESC_LEN];
getmsg_c("SHORT", SHORT_DESC_LEN, naifShort);
// This message may be up to 1840 characters long. The CSPICE error handling
// mechanism makes no use of its contents. Its purpose is to provide human-readable
// information about errors. Long error messages generated by CSPICE routines often
// contain data relevant to the specific error they describe.
const int LONG_DESC_LEN = 1841;
SpiceChar naifLong[LONG_DESC_LEN];
getmsg_c("LONG", LONG_DESC_LEN, naifLong);
// Search for known naif errors...
iString errMsg;
Pvl error;
PvlGroup errorDescription("ErrorDescription");
errorDescription.AddKeyword(PvlKeyword("ShortMessage", naifShort));
errorDescription.AddKeyword(PvlKeyword("LongMessage", naifLong));
error.AddGroup(errorDescription);
PvlTranslationManager trans(error, "$base/translations/NaifErrors.trn");
try {
errMsg = trans.Translate("ShortMessage");
}
catch(iException &e) {
e.Clear();
errMsg = "An unknown NAIF error has been encountered.";
}
try {
errMsg += " " + trans.Translate("LongMessage");
}
catch(iException &e) {
e.Clear();
}
// Now process the error
if(resetNaif) {
reset_c();
}
errMsg += " The short explanation ";
errMsg += "provided by NAIF is [" + iString(naifShort) + "]. ";
errMsg += "The Naif error is [" + iString(naifLong) + "]";
throw iException::Message(iException::Spice, errMsg, _FILEINFO_);
}
