int methodTest(void)
{
gpstk::TestUtil testFramework( "ValidType", "Various Methods", __FILE__, __LINE__ );
std::string failMesg;
gpstk::ValidType<float> vfloat0;
failMesg = "Is the invalid Valid object set as valid?";
testFramework.assert(!vfloat0.is_valid(), failMesg, __LINE__);
failMesg = "Is the invalid Valid object's value 0?";
testFramework.assert(std::abs(vfloat0.get_value()) < eps, failMesg, __LINE__);
gpstk::ValidType<float> vfloat (5);
failMesg = "Does the get_value method return the correct value?";
testFramework.assert(vfloat.get_value() == 5, failMesg, __LINE__);
failMesg = "Is the valid Valid object set as valid?";
testFramework.assert(vfloat.is_valid(), failMesg, __LINE__);
vfloat.set_valid(false);
failMesg = "Was the valid Valid object correctly set to invalid?";
testFramework.assert(!vfloat.is_valid(), failMesg, __LINE__);
return testFramework.countFails();
}
basis::basis(const vec &pex, const vec &pey, const vec &pez,
const String& pname) {
pvecerror("basis::basis(vec &pex, vec &pey, vec &pez, char pname[12])");
if (!check_perp(pex,pey,vprecision) ||
!check_perp(pex,pez,vprecision) ||
!check_perp(pey,pez,vprecision)) {
mcerr<<"ERROR in basis::basis(vec &pex, vec &pey, vec &pez) : \n"
<<"the vectors are not perpendicular\n";
mcerr<<" pex,pey,pez:\n";
mcerr<<pex<<pey<<pez;
mcerr<<"name="<<pname<<'\n';
spexit(mcerr);
}
//if(length(pex)!=vfloat(1.0) ||
// length(pey)!=vfloat(1.0) ||
// length(pez)!=vfloat(1.0) )
if (not_apeq(length(pex), vfloat(1.0)) ||
not_apeq(length(pey), vfloat(1.0)) ||
not_apeq(length(pez), vfloat(1.0))) {
mcerr<<"ERROR in basis::basis(vec &pex, vec &pey, vec &pez) : \n"
<<"the vectors are not of unit length\n";
mcerr<<" pex,pey,pez:\n";
mcerr<<pex<<pey<<pez;
mcerr<<"name="<<pname<<'\n';
spexit(mcerr);
}
if (not_apeq(pex||pey , pez, vprecision)) {
mcerr<<"ERROR in basis::basis(vec &pex, vec &pey, vec &pez) : \n";
mcerr<<"wrong direction of pez\n";
mcerr<<" pex,pey,pez:\n";
mcerr<<pex<<pey<<pez;
mcerr<<"name="<<pname<<'\n';
spexit(mcerr);
}
name = pname;
ex = pex;
ey = pey;
ez = pez;
}
INT32 Module3(INT16 *speech_samples, const UINT32 file_length, INT32 *hosm_Nparams,
FLOAT *hosm_params, FLOAT SubjectiveMOS)
{
typInputParameter InParameter;
typChannel channel;
INT32 RetVal=0;
FLOAT *ReferenceData=NULL;
FLOAT fHOSM_params[NR_OF_RESULTS];
SubjectiveMOS = 0;
ReferenceData = (FLOAT *)calloc(file_length, sizeof(FLOAT));
if(ReferenceData == 0)
return -1;
channel.file[REFER_FILE].Fptr = 0;
InParameter.MOS = MAX_MOS_VALUE;
vfloat(speech_samples, 1,ReferenceData, 1, file_length);
InParameter.ReferData = ReferenceData;
InParameter.Frequency = 8;
channel.file[REFER_FILE].filetype = 3;
RetVal = initStructures(&InParameter, &channel);
channel.file[REFER_FILE].FileSize = file_length*2;
channel.file[REFER_FILE].start = 0;
channel.file[REFER_FILE].stop = channel.file[REFER_FILE].FileSize;
RetVal = hosm (&InParameter, &channel, fHOSM_params);
vmov(fHOSM_params, 1, hosm_params, 1, NR_OF_RESULTS);
*hosm_Nparams = (INT32) NR_OF_RESULTS;
free(ReferenceData);
return RetVal;
}
