void SetRange(QCustomPlot& plot, int index, QVariantMap range, QCPAxis::AxisType type)
{
auto g = plot.graph(index);
auto it = range.find("lo");
if (it != range.end())
{
switch (type)
{
case QCPAxis::atLeft:
g->valueAxis()->setRangeLower(it->toReal());
break;
case QCPAxis::atBottom:
g->keyAxis()->setRangeLower(it->toReal());
break;
}
}
it = range.find("up");
if (it != range.end())
{
switch (type)
{
case QCPAxis::atLeft:
g->valueAxis()->setRangeUpper(it->toReal());
break;
case QCPAxis::atBottom:
g->keyAxis()->setRangeUpper(it->toReal());
break;
}
}
}
void c_assignvar::generate()
{
/// Execute the assigning of variables
string memberOf = (g_objStack.empty()) ? "" : g_objStack.top();
void *parent = (g_dataStack.empty()) ? NULL : g_dataStack.top();
string value;
char varType = m_expression->getType();
if(varType == STRING) value = m_expression->getText();
else if(varType == REAL) value = toText(m_expression->getReal());
// Set the built-in or custom variable
if(m_custom == false)
c_compiler::setVariable(m_varName.c_str(), memberOf.c_str(), parent, value);
else
{
// Set the value of the custom variable
int scope = g_scope;
while(scope >= 0)
{
if(varType == STRING)
{
// Get the string value
if(g_strings.find(scope) != g_strings.end())
{
if(g_strings[scope].find(m_varName) != g_strings[scope].end())
{
g_strings[scope][m_varName] = value;
break;
}
}
}
else if(varType == REAL)
{
// Set either the integer value or the float value in that scope which have the variable
if( g_integers.find(scope) != g_integers.end() )
{
if( g_integers[scope].find(m_varName) != g_integers[scope].end() )
{
g_integers[scope][m_varName] = (int)toReal(&value);
break;
}
}
else if(g_floats.find(scope) != g_floats.end())
{
if( g_floats[scope].find(m_varName) != g_floats[scope].end() )
{
g_floats[scope][m_varName] = toReal(&value);
break;
}
}
}
scope--;
}
}
}
void ValueSlider::
rangeChanged(int min, int max)
{
emit rangeChanged(toReal(min), toReal(max));
lineEdit()->setToolTip(QString("%3 [%1, %2]")
.arg(minimum(),0,'f',decimals(minimum()))
.arg(maximum(),0,'f',decimals(maximum()))
.arg(toolTip()));
//setValidator(new QDoubleValidator(minimum(), maximum(), 1000));
setValidator(new QDoubleValidator());// minimum(), maximum(), 1000));
}
void c_decvar::generate()
{
/// Set the declared variable to the value given to it
char varType = m_expression->getType();
string value;
if(varType == STRING) value = m_expression->getText();
else if(varType == REAL) value = toText(m_expression->getReal());
// Set the value of the custom variable
if(m_type == E_KW_INT) g_integers[g_scope][m_varName] = (int)toReal(&value);
else if(m_type == E_KW_FLOAT) g_floats[g_scope][m_varName] = toReal(&value);
else if(m_type == E_KW_STRING) g_strings[g_scope][m_varName] = value;
}
NITFAPI(NITF_BOOL) nitf_Field_get(nitf_Field * field,
NITF_DATA * outValue,
nitf_ConvType convType,
size_t length, nitf_Error * error)
{
NITF_BOOL status = NITF_FAILURE;
switch (convType)
{
case NITF_CONV_UINT:
status = toUint(field, outValue, length, error);
break;
case NITF_CONV_INT:
status = toInt(field, outValue, length, error);
break;
case NITF_CONV_STRING:
status = toString(field, (char *) outValue, length, error);
break;
case NITF_CONV_RAW:
status = toRaw(field, (char *) outValue, length, error);
break;
case NITF_CONV_REAL:
status = toReal(field, outValue, length, error);
break;
}
return status;
}
StringList ShareManager::getRealPaths(const string& virtualPath) {
if(virtualPath.empty())
throw ShareException("empty virtual path");
StringList ret;
Lock l(cs);
if(*(virtualPath.end() - 1) == '/') {
// directory
Directory::Ptr d = splitVirtual(virtualPath).first;
// imitate Directory::getRealPath
if(d->getParent()) {
ret.push_back(d->getParent()->getRealPath(this,d->getName()));
} else {
for(auto& i: shares) {
if(Util::stricmp(i.second, d->getName()) == 0) {
// remove the trailing path sep
if(FileFindIter(i.first.substr(0, i.first.size() - 1)) != FileFindIter()) {
ret.push_back(i.first);
}
}
}
}
} else {
// file
ret.push_back(toReal(virtualPath,false));
}
return ret;
}
double c_exprvar::getReal()
{
string memberOf = (g_objStack.empty()) ? "" : g_objStack.top();
void *parent = (g_dataStack.empty()) ? NULL : g_dataStack.top();
if( c_compiler::getVariable(m_varname.c_str(), memberOf.c_str()) )
{
string e = c_compiler::getVariable(m_varname.c_str(), memberOf.c_str(), parent);
return toReal(&e);
}
int scope = g_scope;
while(scope >= 0)
{
if(g_integers.find(scope) != g_integers.end())
{
if(g_integers[scope].find(m_varname) != g_integers[scope].end())
return g_integers[scope][m_varname];
}
if(g_floats.find(scope) != g_floats.end())
{
if(g_floats[g_scope].find(m_varname) != g_floats[g_scope].end())
return g_floats[g_scope][m_varname];
}
scope--;
}
return 0.0;
}
void
CJson::String::
printReal(std::ostream &os) const
{
double r;
if (toReal(r))
os << r;
else
print(os);
}
Number JSON::toNumber(const JSON::JSONValue& value)
{
MMLT_precondition_msg(
isNumber(value),
"Coordinate is not a number!"
);
if(isInt(value))
{
return toInt(value);
}
else
{
MMLT_precondition(isReal(value));
return toReal(value);
}
}
void LinearSolver :: solve( Factor& A,
vector<Quaternion>& x,
const vector<Quaternion>& b )
// solves the linear system Ax = b where A is positive-semidefinite
{
int n = x.size();
Dense result( cc, n*4, 1 );
Dense rhs( cc, n*4, 1 );
// convert right-hand side to real values
toReal( b, rhs );
// solve real linear system
result = cholmod_l_solve( CHOLMOD_A, *A, *rhs, cc );
// convert solution back to quaternions
toQuat( result, x );
}
inline ber::Value Value::toBerValue() const
{
switch(type().value())
{
case ParameterType::Integer:
return ber::Value(toInteger());
case ParameterType::Real:
return ber::Value(toReal());
case ParameterType::String:
return ber::Value(toString());
case ParameterType::Octets:
return ber::Value(toOctets());
case ParameterType::Boolean:
return ber::Value(toBoolean());
}
return ber::Value();
}
int MiniPS::Tokenizer::yylex() {
int c=0; /* dummy initialization */
bool hi;
unsigned hv;
slen_t nest, len;
signed long l;
double d;
Real::metric_t metric;
char saved;
if (ungot==EOFF) return EOFF;
if (ungot!=NO_UNGOT) { c=ungot; ungot=NO_UNGOT; goto again; }
again_getcc:
c=in.vi_getcc();
again:
switch (c) {
case -1: eof:
return ungot=EOFF;
case '\n': case '\r': case '\t': case ' ': case '\f': case '\0':
goto again_getcc;
case '%': /* one-line comment */
while ((c=in.vi_getcc())!='\n' && c!='\r' && c!=-1) ;
if (c==-1) goto eof;
goto again_getcc;
case '{': case '[':
return '[';
case '}': case ']':
return ']';
case ')': goto err;
case '>':
if (in.vi_getcc()!='>') goto err;
return '>';
case '<':
if ((c=in.vi_getcc())==-1) { uf_hex: Error::sev(Error::EERROR) << "miniPS: unfinished hexstr" << (Error*)0; }
if (c=='<') return '<';
if (c=='~') Error::sev(Error::EERROR) << "miniPS: a85str unsupported" << (Error*)0;
tv.bb=&b; b.clear();
hi=true;
while (c!='>') {
if ((hv=b.hexc2n(c))!=16) {
if (hi) { b << (char)(hv<<4); hi=false; }
else { b.end_()[-1]|=hv; hi=true; }
} else if (!is_ps_white(c)) Error::sev(Error::EERROR) << "miniPS: syntax error in hexstr" << (Error*)0;
if ((c=in.vi_getcc())==-1) goto uf_hex;
}
/* This is correct even if an odd number of hex digits have arrived */
return '(';
case '(':
tv.bb=&b; b.clear();
nest=1;
while ((c=in.vi_getcc())!=-1) { redo:
if (c==')' && --nest==0) return '(';
if (c!='\\') { if (c=='(') nest++; b << (char)c; continue; }
/* read a backslash */
switch (c=in.vi_getcc()) {
case -1: goto uf_str;
case 'n': b << '\n'; break;
case 'r': b << '\r'; break;
case 't': b << '\t'; break;
case 'b': b << '\010'; break; /* \b and \a conflict between -ansi and -traditional */
case 'f': b << '\f'; break;
default:
if (c<'0' || c>'7') { b << (char)c; break; }
hv=c-'0'; /* read at most 3 octal chars */
if ((c=in.vi_getcc())==-1) goto uf_str;
if (c<'0' || c>'7') { b << (char)hv; goto redo; }
hv=8*hv+(c-'0');
if ((c=in.vi_getcc())==-1) goto uf_str;
if (c<'0' || c>'7') { b << (char)hv; goto redo; }
b << (char)(8*hv+(c-'0'));
} /* SWITCH */
} /* WHILE */
uf_str: Error::sev(Error::EERROR) << "miniPS: unfinished str" << (Error*)0;
case '/':
/* fall-through, b will begin with '/' */
default: /* /nametype, /integertype or /realtype */
tv.bb=&b; b.clear();
b.clear(); b << (char)c;
while ((c=in.vi_getcc())!=-1 && is_ps_name(c)) b << (char)c;
ungot=c==-1?EOFF:c;
if (b[0]=='/') return '/';
b.term0();
/* Dat: we don't support base-n number such as `16#100' == 256 in PostScript */
if (!toInteger(b, l)) { tv.i=l; return '1'; }
/* Dat: call toInteger _before_ toReal */
// if (!toReal(b, tv.d)) { fprintf(stderr,"%f;\n", tv.d); }
/* assert(tv.bb!=NULLP); */
len=b.getLength();
if (!toReal(b, d)) { /* tv.bb is also valid */
tv.r=new Real(d, b(), len);
return '.';
}
if (len>2 && (metric=Real::str2metric(b()+len-2))!=Real::ME_COUNT) {
saved=b[len-2];
b[len-2]='\0';
if (!toReal(b, d)) {
tv.r=new Real(d, b(), len-2);
tv.r->setMetric(metric);
return ':'; /* Real with metric */
}
b[len-2]=saved;
}
return 'E'; /* /nametype */
}
err:
Error::sev(Error::EERROR) << "miniPS: syntax error" << (Error*)0;
goto again_getcc; /* notreached */
}
bool MiniPS::Real::isDimen(char const *str) {
double d;
slen_t len=strlen(str);
if (!toReal(str, len, d)) return true;
return len>2 && str2metric(str+len-2)!=ME_COUNT && !toReal(str, len-2, d);
}
void ValueSlider::
sliderMoved(int v)
{
value_ = toReal(v);
emit valueChanged(value_);
}
void ViFann::run(const qreal *input, qreal *output, const int &iterations)
{
toFloat(input, mInput, mInputCount);
run(mInput, mOutput, iterations);
toReal(mOutput, output, mOutputCount);
}
qreal ValueSlider::
maximum() const
{
return toReal(slider_->maximum());
}
void writingObject(refBuffer buffer, refObject object)
{ if (object == nil)
{ writeFormat(buffer, "[Nil]"); }
else
{ switch (tag(object))
{ case cellTag:
{ writeFormat(buffer, "[Cell %X]", object);
return; }
case characterTag:
{ writeCharacter(buffer, toCharacter(object));
return; }
case evenBinderTag:
{ writeFormat(buffer, "[EvenBinder %X]", object);
return; }
case hookTag:
{ writeFormat(buffer, "?%s", hookTo(object));
return; }
case hunkTag:
{ writeFormat(buffer, "[Hunk %X]", object);
return; }
case integerTag:
{ writeFormat(buffer, "%i", toInteger(object));
return; }
case jokerTag:
{ writeFormat(buffer, "[%s]", jokerTo(object));
return; }
case leftBinderTag:
{ writeFormat(buffer, "[LeftBinder %X]", object);
return; }
case markedTag:
{ writeFormat(buffer, "[...]");
return; }
case matchTag:
{ writeFormat(buffer, "[Match %X]", object);
return; }
case nameTag:
{ writeVisibleName(buffer, object);
return; }
case pairTag:
{ refObject pairs = object;
tag(object) = markedTag;
writeChar(buffer, '(');
writingObject(buffer, car(pairs));
pairs = cdr(pairs);
while (pairs != nil)
{ writeBlank(buffer);
writingObject(buffer, car(pairs));
pairs = cdr(pairs); }
writeChar(buffer, ')');
tag(object) = pairTag;
return; }
case realTag:
{ writeFormat(buffer, "%.17E", toReal(object));
return; }
case rightBinderTag:
{ writeFormat(buffer, "[RightBinder %X]", object);
return; }
case stringTag:
{ writeQuotedString(buffer, toRefString(object));
return; }
default:
{ writeFormat(buffer, "[Tag%i %X]", tag(object), object);
return; }}}}
void ViFann::run(const qreal *input, qreal *output)
{
toFloat(input, mInput, mInputCount);
run(mInput, mOutput);
toReal(mOutput, output, mOutputCount);
}
/// Accessor functions
double c_exprconst::getReal()
{
if(m_negative == true)
return -toReal(&m_value);
return toReal(&m_value);
}