// Called when terminal type is selected.
// This procedure should parse options on the command line.
// A list of the currently selected options should be stored in term_options[],
// in a form suitable for use with the set term command.
// term_options[] is used by the save command. Use options_null() if no options are available." *
void qt_options()
{
char *s = NULL;
QString fontSettings;
bool duplication = false;
bool set_enhanced = false, set_font = false;
bool set_persist = false, set_number = false;
bool set_raise = false, set_ctrl = false;
bool set_title = false, set_close = false;
bool set_capjoin = false, set_size = false;
bool set_widget = false;
#define SETCHECKDUP(x) { c_token++; if (x) duplication = true; x = true; }
while (!END_OF_COMMAND)
{
FPRINTF((stderr, "processing token\n"));
switch (lookup_table(&qt_opts[0], c_token)) {
case QT_WIDGET:
SETCHECKDUP(set_widget);
if (!(s = try_to_get_string()))
int_error(c_token, "widget: expecting string");
if (*s)
qt_optionWidget = QString(s);
free(s);
break;
case QT_FONT:
SETCHECKDUP(set_font);
if (!(s = try_to_get_string()))
int_error(c_token, "font: expecting string");
if (*s)
{
fontSettings = QString(s);
QStringList list = fontSettings.split(',');
if ((list.size() > 0) && !list[0].isEmpty())
qt_optionFontName = list[0];
if ((list.size() > 1) && (list[1].toInt() > 0))
qt_optionFontSize = list[1].toInt();
}
free(s);
break;
case QT_ENHANCED:
SETCHECKDUP(set_enhanced);
qt_optionEnhanced = true;
term->flags |= TERM_ENHANCED_TEXT;
break;
case QT_NOENHANCED:
SETCHECKDUP(set_enhanced);
qt_optionEnhanced = false;
term->flags &= ~TERM_ENHANCED_TEXT;
break;
case QT_SIZE:
SETCHECKDUP(set_size);
if (END_OF_COMMAND)
int_error(c_token, "size requires 'width,heigth'");
qt_optionWidth = real_expression();
if (!equals(c_token++, ","))
int_error(c_token, "size requires 'width,heigth'");
qt_optionHeight = real_expression();
if (qt_optionWidth < 1 || qt_optionHeight < 1)
int_error(c_token, "size is out of range");
break;
case QT_PERSIST:
SETCHECKDUP(set_persist);
qt_optionPersist = true;
break;
case QT_NOPERSIST:
SETCHECKDUP(set_persist);
qt_optionPersist = false;
break;
case QT_RAISE:
SETCHECKDUP(set_raise);
qt_optionRaise = true;
break;
case QT_NORAISE:
SETCHECKDUP(set_raise);
qt_optionRaise = false;
break;
case QT_CTRL:
SETCHECKDUP(set_ctrl);
qt_optionCtrl = true;
break;
case QT_NOCTRL:
SETCHECKDUP(set_ctrl);
qt_optionCtrl = false;
break;
case QT_TITLE:
SETCHECKDUP(set_title);
if (!(s = try_to_get_string()))
int_error(c_token, "title: expecting string");
if (*s)
qt_optionTitle = qt_codec->toUnicode(s);
free(s);
break;
case QT_CLOSE:
SETCHECKDUP(set_close);
break;
case QT_OTHER:
default:
qt_optionWindowId = int_expression();
qt_optionWidget = "";
if (set_number) duplication = true;
set_number = true;
break;
}
if (duplication)
int_error(c_token-1, "Duplicated or contradicting arguments in qt term options.");
}
// Save options back into options string in normalized format
QString termOptions = QString::number(qt_optionWindowId);
if (set_title)
{
termOptions += " title \"" + qt_optionTitle + '"';
if (qt_initialized)
qt_out << GETitle << qt_optionTitle;
}
if (set_size)
{
termOptions += " size " + QString::number(qt_optionWidth) + ", "
+ QString::number(qt_optionHeight);
qt_setSize = true;
qt_setWidth = qt_optionWidth;
qt_setHeight = qt_optionHeight;
}
if (set_enhanced) termOptions += qt_optionEnhanced ? " enhanced" : " noenhanced";
if (set_font) termOptions += " font \"" + fontSettings + '"';
if (set_widget) termOptions += " widget \"" + qt_optionWidget + '"';
if (set_persist) termOptions += qt_optionPersist ? " persist" : " nopersist";
if (set_raise) termOptions += qt_optionRaise ? " raise" : " noraise";
if (set_ctrl) termOptions += qt_optionCtrl ? " ctrl" : " noctrl";
if (set_close && qt_initialized) qt_out << GECloseWindow << qt_optionWindowId;
/// @bug change Utf8 to local encoding
strncpy(term_options, termOptions.toUtf8().data(), MAX_LINE_LEN);
}
bool URI::operator != (const URI& uri) const
{
return !equals(uri);
}
static void testFindIndexForSingleMonth() {
const int months[] = {6};
assert(equals(0, findIndex(1, months, 1)));
assert(equals(0, findIndex(2, months, 1)));
assert(equals(0, findIndex(3, months, 1)));
assert(equals(0, findIndex(4, months, 1)));
assert(equals(0, findIndex(5, months, 1)));
assert(equals(0, findIndex(6, months, 1)));
assert(equals(0, findIndex(7, months, 1)));
assert(equals(0, findIndex(8, months, 1)));
assert(equals(0, findIndex(9, months, 1)));
assert(equals(0, findIndex(10, months, 1)));
assert(equals(0, findIndex(11, months, 1)));
assert(equals(0, findIndex(12, months, 1)));
}
/**
* Construct an AVT by parsing the string, and either
* constructing a vector of AVTParts, or simply hold
* on to the string if the AVT is simple.
*/
AVT::AVT(
StylesheetConstructionContext& constructionContext,
const LocatorType* locator,
const XalanDOMChar* name,
const XalanDOMChar* stringedValue,
const PrefixResolver& resolver) :
m_parts(0),
m_partsSize(0),
m_simpleString(0),
m_simpleStringLength(0),
m_name(constructionContext.getPooledString(name))
{
StringTokenizer tokenizer(stringedValue, theTokenDelimiterCharacters, true);
const StringTokenizer::size_type nTokens = tokenizer.countTokens();
if(nTokens < 2)
{
// Do the simple thing
m_simpleStringLength = length(stringedValue);
m_simpleString = constructionContext.allocateXalanDOMCharVector(stringedValue, m_simpleStringLength, false);
}
else
{
// This over-allocates, but we probably won't waste that much space. If necessary,
// we could tokenize twice, just counting the numbers of AVTPart instances we
// will need the first time.
m_parts = constructionContext.allocateAVTPartPointerVector(nTokens + 1);
XalanDOMString buffer(constructionContext.getMemoryManager());
XalanDOMString exprBuffer(constructionContext.getMemoryManager());
XalanDOMString t(constructionContext.getMemoryManager()); // base token
XalanDOMString lookahead(constructionContext.getMemoryManager()); // next token
while(tokenizer.hasMoreTokens())
{
if(length(lookahead))
{
t = lookahead;
clear(lookahead);
}
else
{
nextToken(constructionContext, locator, tokenizer, t);
}
if(length(t) == 1)
{
const XalanDOMChar theChar = charAt(t, 0);
switch(theChar)
{
case(XalanUnicode::charLeftCurlyBracket):
{
// Attribute Value Template start
nextToken(constructionContext, locator, tokenizer, lookahead);
if(equals(lookahead, theLeftCurlyBracketString))
{
// Double braces mean escape to show brace
append(buffer, lookahead);
clear(lookahead);
break; // from switch
}
else
{
if(length(buffer) > 0)
{
assert(m_partsSize + 1 < nTokens);
m_parts[m_partsSize++] =
constructionContext.createAVTPart(
c_wstr(buffer),
length(buffer));
clear(buffer);
}
clear(exprBuffer);
while(length(lookahead) > 0 && !equals(lookahead, theRightCurlyBracketString))
{
if(length(lookahead) == 1)
{
switch(charAt(lookahead, 0))
{
case XalanUnicode::charApostrophe:
case XalanUnicode::charQuoteMark:
{
// String start
append(exprBuffer, lookahead);
const XalanDOMChar quote[2] =
{
lookahead[0],
0
};
// Consume stuff 'till next quote
nextToken(constructionContext, locator, tokenizer, lookahead);
while(!equals(lookahead, quote))
{
append(exprBuffer, lookahead);
nextToken(constructionContext, locator, tokenizer, lookahead);
}
append(exprBuffer,lookahead);
break;
}
case XalanUnicode::charLeftCurlyBracket:
{
GetCachedString theGuard(constructionContext);
// What's another brace doing here?
constructionContext.error(
XalanMessageLoader::getMessage(
theGuard.get(),
XalanMessages::LeftBraceCannotAppearWithinExpression),
0,
locator);
break;
}
default:
// part of the template stuff, just add it.
append(exprBuffer, lookahead);
break;
} // end inner switch
} // end if lookahead length == 1
else
{
// part of the template stuff, just add it.
append(exprBuffer,lookahead);
}
nextToken(constructionContext, locator, tokenizer, lookahead);
} // end while(!equals(lookahead, "}"))
assert(equals(lookahead, theRightCurlyBracketString));
// Proper close of attribute template. Evaluate the
// expression.
clear(buffer);
assert(m_partsSize + 1 < nTokens);
m_parts[m_partsSize++] =
constructionContext.createAVTPart(
locator,
c_wstr(exprBuffer),
length(exprBuffer),
resolver);
clear(lookahead); // breaks out of inner while loop
}
break;
}
case(XalanUnicode::charRightCurlyBracket):
{
nextToken(constructionContext, locator, tokenizer, lookahead);
if(equals(lookahead, theRightCurlyBracketString))
{
// Double brace mean escape to show brace
append(buffer, lookahead);
clear(lookahead); // swallow
}
else
{
GetCachedString theGuard(constructionContext);
constructionContext.error(
XalanMessageLoader::getMessage(
theGuard.get(),
XalanMessages::UnmatchedWasFound),
0,
locator);
}
break;
}
default:
{
// Anything else just add to string.
append(buffer, theChar);
}
} // end switch t
} // end if length == 1
else
{
// Anything else just add to string.
append(buffer,t);
}
} // end while(tokenizer.hasMoreTokens())
if(length(buffer) > 0)
{
assert(m_partsSize + 1 < nTokens);
m_parts[m_partsSize++] = constructionContext.createAVTPart(c_wstr(buffer), length(buffer));
clear(buffer);
}
} // end else nTokens > 1
}
bool SFVec3f::equals(float x, float y, float z)
{
SFVec3f vector(x, y, z);
return equals(&vector);
}
ConditionResponse Condition::evaluateFeatures(Request* req){
LOGD("[COND EVALUATE FEAT] 1 : %d",resource_attrs.size());
map<string,vector<match_info_str*> >::iterator it;
vector<match_info_str*> my_features = (it = resource_attrs.find(API_FEATURE))!=resource_attrs.end()
? it->second
: vector<match_info_str*>();
map<string, vector<string>* > requestResource_attrs = req->getResourceAttrs();
map<string, vector<string>* >::iterator rraIT = requestResource_attrs.find(API_FEATURE);
vector<string>* req_features = (rraIT != requestResource_attrs.end())
? rraIT->second
: NULL;
bool found;
bool anyUndetermined = resource_attrs.find(API_FEATURE)!= resource_attrs.end()
&& requestResource_attrs.find(API_FEATURE) == requestResource_attrs.end();
LOGD("Condition.evaluateFeatures - 03");
if(combine == AND){
LOGD("Condition.evaluateFeatures - 04");
// find any No Match
for(unsigned int j=0; req_features && j<my_features.size(); j++){
found = false;
for(unsigned int i=0; i<req_features->size(); i++){
string mod_function = my_features[j]->mod_func;
string s = (mod_function != "")
? modFunction(mod_function, req_features->at(i))
: req_features->at(i);
if(equals(s,my_features[j]->value, string2strcmp_mode(my_features[j]->equal_func)))
{
found = true;
break;
}
}
if (found == false)
return NO_MATCH;
}
if (anyUndetermined)
return NOT_DETERMINED;
else
return MATCH;
}
else if(combine == OR){
LOGD("Condition.evaluateFeatures - 05");
// find any Match
for(unsigned int j=0; req_features && j<my_features.size(); j++){
for(unsigned int i=0; i<req_features->size(); i++){
string mod_function = my_features[j]->mod_func;
string s = (mod_function != "")
? modFunction(mod_function, req_features->at(i))
: req_features->at(i);
if(equals(s,my_features[j]->value, string2strcmp_mode(my_features[j]->equal_func)))
return MATCH;
}
}
if (anyUndetermined)
return NOT_DETERMINED;
else
return NO_MATCH;
}
// TODO: is that right? What should happen if policy is invalid?
LOGD("Condition.evaluateFeatures - 09");
return NOT_DETERMINED;
}
inline bool equals(
const Range1T& Input,
const Range2T& Test)
{
return equals(Input, Test, is_equal());
}
static inline bool
equals(const Angle a, const Angle b)
{
return equals(a.Degrees(), b.Degrees());
}
static inline bool
equals(const GeoPoint a, const Angle lat, const Angle lon)
{
return equals(a.latitude, lat) && equals(a.longitude, lon);
}
int main(int argc, char **argv)
{
plan_tests(46);
// test constructor
GeoPoint p1(Angle::Degrees(fixed(345.32)), Angle::Degrees(fixed(-6.332)));
ok1(equals(p1, -6.332, 345.32));
// test normalize()
p1.Normalize();
ok1(equals(p1, -6.332, -14.68));
// test parametric()
GeoPoint p2(Angle::Degrees(fixed_two), Angle::Degrees(fixed_one));
GeoPoint p3 = p1.Parametric(p2, fixed(5));
ok1(equals(p3, -1.332, -4.68));
// test interpolate
GeoPoint p4 = p1.Interpolate(p3, fixed_half);
ok1(equals(p4, -3.832, -9.68));
GeoPoint p5 = p1.Interpolate(p3, fixed(0.25));
ok1(equals(p5, -5.082, -12.18));
// test *
GeoPoint p6 = p2 * fixed(3.5);
ok1(equals(p6, 3.5, 7));
// test +
p6 = p6 + p2;
ok1(equals(p6, 4.5, 9));
// test +=
p6 += p2;
ok1(equals(p6, 5.5, 11));
// test -
p6 = p6 - p2;
ok1(equals(p6, 4.5, 9));
// test sort()
ok1(!p1.Sort(p3));
ok1(p3.Sort(p1));
ok1(!p1.Sort(p4));
ok1(p4.Sort(p1));
ok1(!p1.Sort(p5));
ok1(p5.Sort(p1));
ok1(!p4.Sort(p3));
ok1(p3.Sort(p4));
ok1(!p5.Sort(p3));
ok1(p3.Sort(p5));
ok1(!p5.Sort(p4));
ok1(p4.Sort(p5));
// test distance()
//
// note: distance between p1 and p4 and between p3 and p4 is not
// the same due to linear interpolation instead of real geographic
// intermediate point calculation
ok1(equals(p2.Distance(p6), 869326.653160));
ok1(equals(p6.Distance(p2), 869326.653160));
ok1(equals(p1.Distance(p5), 309562.219016));
ok1(equals(p1.Distance(p4), 619603.149273));
ok1(equals(p1.Distance(p3), 1240649.267606));
ok1(equals(p3.Distance(p4), 621053.760625));
// test bearing()
//
// note: the bearings p1 -> p5, p5 -> p4 and so on are not the same due to
// linear interpolation instead of real geographic intermediate point
// calculation
ok1(equals(p2.Bearing(p6), 63.272424));
ok1(equals(p6.Bearing(p2), 243.608847));
ok1(equals(p1.Bearing(p5), 63.449343));
ok1(equals(p1.Bearing(p4), 63.582620));
ok1(equals(p1.Bearing(p3), 63.784526));
ok1(equals(p5.Bearing(p4), 63.466726));
ok1(equals(p5.Bearing(p3), 63.646072));
ok1(equals(p4.Bearing(p3), 63.540756));
ok1(equals(p5.Bearing(p6), 65.982854));
ok1(equals(p2.Bearing(p3), 250.786774));
// test distance_bearing()
// note: should be the same output as bearing() and distance()
GeoVector v = p2.DistanceBearing(p6);
ok1(equals(v.distance, 869326.653160));
ok1(equals(v.bearing, 63.272424));
// test intermediate_point()
GeoPoint p7(Angle::Degrees(fixed_zero), Angle::Degrees(fixed_zero));
GeoPoint p8 = p7.IntermediatePoint(p2, fixed(100000));
ok1(equals(p8, 0.402274, 0.804342));
ok1(equals(p8.Distance(p7), 100000));
GeoPoint p9 = p7.IntermediatePoint(p2, fixed(100000000));
ok1(equals(p9, p2));
// test projected_distance()
ok1(equals(p8.ProjectedDistance(p7, p2), 100000));
ok1(equals(p4.ProjectedDistance(p1, p3), 619599.304393));
ok1(equals((p2 * fixed_two).ProjectedDistance(p2, p6), 248567.832772));
// Tests moved here from test_fixed.cpp
GeoPoint l1(Angle::Zero(), Angle::Zero());
GeoPoint l2(Angle::Degrees(fixed(-0.3)), Angle::Degrees(fixed(1.0)));
GeoPoint l3(Angle::Degrees(fixed(0.00001)), Angle::Degrees(fixed_zero));
GeoPoint l4(Angle::Degrees(fixed(10)), Angle::Degrees(fixed_zero));
v = l1.DistanceBearing(l2);
printf("Dist %g bearing %d\n",
FIXED_DOUBLE(v.distance), FIXED_INT(v.bearing.Degrees()));
// 116090 @ 343
v = l1.DistanceBearing(l3);
printf("Dist %g bearing %d\n",
FIXED_DOUBLE(v.distance), FIXED_INT(v.bearing.Degrees()));
ok(positive(v.distance) && v.distance < fixed_two, "earth distance short", 0);
v = l1.DistanceBearing(l4);
printf("Dist %g bearing %d\n",
FIXED_DOUBLE(v.distance), FIXED_INT(v.bearing.Degrees()));
return exit_status();
}
ConditionResponse Condition::evaluateEnvironment(Request* req){
vector<match_info_str*> my_environment_params;
map<string, string> requestEnvironment_attrs = req->getEnvironmentAttrs();
map<string,vector<match_info_str*> >::iterator it;
match_info_str * my_roaming = (it = environment_attrs.find("roaming"))!=environment_attrs.end()
? it->second.at(0)
: NULL;
vector<match_info_str *> my_bearer_vet = (it = environment_attrs.find("bearer-type"))!=environment_attrs.end()
? it->second
: vector<match_info_str*>();
vector<match_info_str *> my_profile_vet = (it = environment_attrs.find("profile"))!=environment_attrs.end()
? it->second
: vector<match_info_str*>();
if(combine == OR){
LOGD("[ENVIRONMENT] dentro OR");
if(my_roaming != NULL){
string req_roaming = requestEnvironment_attrs["roaming"];
LOGD("[ENVIRONMENT] req_roaming : %s",req_roaming.data());
if(equals(req_roaming, my_roaming->value, string2strcmp_mode(my_roaming->equal_func)))
return MATCH;
}
else
LOGD("[ENVIRONMENT] my_roaming null");
string req_bearer = requestEnvironment_attrs["bearer-type"];
for(unsigned int j=0; j<my_bearer_vet.size(); j++){
if(equals(req_bearer, my_bearer_vet[j]->value, string2strcmp_mode(my_bearer_vet[j]->equal_func)))
return MATCH;
}
string req_profile = requestEnvironment_attrs["profile"];
for(unsigned int j=0; j<my_profile_vet.size(); j++){
if(equals(req_profile, my_profile_vet[j]->value, string2strcmp_mode(my_profile_vet[j]->equal_func)))
return MATCH;
}
return NO_MATCH;
}
else{ //combine == AND
// find any No Match
LOGD("[ENVIRONMENT] dentro AND");
if(my_roaming != NULL){
string req_roaming = requestEnvironment_attrs["roaming"];
LOGD("[ENVIRONMENT] confronto : %s con %s",req_roaming.data(),my_roaming->value.data());
if(!equals(req_roaming, my_roaming->value, string2strcmp_mode(my_roaming->equal_func)))
return NO_MATCH;
}
else
LOGD("[ENVIRONMENT] my_roaming null");
string req_bearer = requestEnvironment_attrs["bearer-type"];
for(unsigned int j=0; j<my_bearer_vet.size(); j++){
if(!equals(req_bearer, my_bearer_vet[j]->value, string2strcmp_mode(my_bearer_vet[j]->equal_func)))
return NO_MATCH;
}
string req_profile = requestEnvironment_attrs["profile"];
for(unsigned int j=0; j<my_profile_vet.size(); j++){
if(!equals(req_profile, my_profile_vet[j]->value, string2strcmp_mode(my_profile_vet[j]->equal_func)))
return NO_MATCH;
}
return MATCH;
}
}
bool GMBoundingSphere::operator!=(const GMBoundingSphere& sphere) const
{
return !equals(sphere, GMMath::kDoubleEqThreshold);
}
XALAN_CPP_NAMESPACE_BEGIN
ElemWithParam::ElemWithParam(
StylesheetConstructionContext& constructionContext,
Stylesheet& stylesheetTree,
const AttributeListType& atts,
int lineNumber,
int columnNumber) :
ElemTemplateElement(constructionContext,
stylesheetTree,
lineNumber,
columnNumber,
StylesheetConstructionContext::ELEMNAME_WITH_PARAM),
m_selectPattern(0),
m_qname(0)
{
const unsigned int nAttrs = atts.getLength();
for(unsigned int i = 0; i < nAttrs; i++)
{
const XalanDOMChar* const aname = atts.getName(i);
if(equals(aname, Constants::ATTRNAME_SELECT))
{
m_selectPattern = constructionContext.createXPath(getLocator(), atts.getValue(i), *this);
}
else if(equals(aname, Constants::ATTRNAME_NAME))
{
m_qname = constructionContext.createXalanQName(
atts.getValue(i),
stylesheetTree.getNamespaces(),
getLocator());
if (m_qname->isValid() == false)
{
constructionContext.error(
XalanMessageLoader::getMessage(
XalanMessages::AttributeValueNotValidQName_2Param,
Constants::ATTRNAME_NAME.c_str(),
atts.getValue(i)),
0,
this);
}
}
else if(!isAttrOK(aname, atts, i, constructionContext))
{
constructionContext.error(
XalanMessageLoader::getMessage(
XalanMessages::TemplateHasIllegalAttribute_2Param,
Constants::ELEMNAME_WITHPARAM_WITH_PREFIX_STRING.c_str(),
aname),
0,
this);
}
}
if(m_qname == 0)
{
constructionContext.error(
XalanMessageLoader::getMessage(
XalanMessages::TemplateMustHaveAttribute_2Param,
Constants::ELEMNAME_WITHPARAM_WITH_PREFIX_STRING,
Constants::ATTRNAME_NAME),
0,
this);
}
}
/** Set up variable with value. In this case allow any amount of whitespace,
* so re-tokenize the original argument line (minus the command).
*/
CpptrajState::RetType
Control_Set::SetupControl(CpptrajState& State, ArgList& argIn, Varray& CurrentVars)
{
ArgList remaining = argIn.RemainingArgs();
size_t pos0 = remaining.ArgLineStr().find_first_of("=");
if (pos0 == std::string::npos) {
mprinterr("Error: Expected <var>=<value>\n");
return CpptrajState::ERR;
}
size_t pos1 = pos0;
bool append = false;
if (pos0 > 0 && remaining.ArgLineStr()[pos0-1] == '+') {
pos0--;
append = true;
}
std::string variable = NoWhitespace( remaining.ArgLineStr().substr(0, pos0) );
if (variable.empty()) {
mprinterr("Error: No variable name.\n");
return CpptrajState::ERR;
}
ArgList equals( NoLeadingWhitespace(remaining.ArgLineStr().substr(pos1+1)) );
std::string value;
if (equals.Contains("inmask")) {
AtomMask mask( equals.GetStringKey("inmask") );
Topology* top = State.DSL().GetTopByIndex( equals );
if (top == 0) return CpptrajState::ERR;
if (top->SetupIntegerMask( mask )) return CpptrajState::ERR;
if (equals.hasKey("atoms"))
value = integerToString( mask.Nselected() );
else if (equals.hasKey("residues")) {
int curRes = -1;
int nres = 0;
for (AtomMask::const_iterator at = mask.begin(); at != mask.end(); ++at) {
int res = (*top)[*at].ResNum();
if (res != curRes) {
nres++;
curRes = res;
}
}
value = integerToString( nres );
} else if (equals.hasKey("molecules")) {
int curMol = -1;
int nmol = 0;
for (AtomMask::const_iterator at = mask.begin(); at != mask.end(); ++at) {
int mol = (*top)[*at].MolNum();
if (mol != curMol) {
nmol++;
curMol = mol;
}
}
value = integerToString( nmol );
} else {
mprinterr("Error: Expected 'atoms', 'residues', or 'molecules'.\n");
return CpptrajState::ERR;
}
} else if (equals.hasKey("trajinframes")) {
value = integerToString(State.InputTrajList().MaxFrames());
} else
value = equals.ArgLineStr();
if (append)
CurrentVars.AppendVariable( "$" + variable, value );
else
CurrentVars.UpdateVariable( "$" + variable, value );
mprintf("\tVariable '%s' set to '%s'\n", variable.c_str(), value.c_str());
for (int iarg = 0; iarg < argIn.Nargs(); iarg++)
argIn.MarkArg( iarg );
return CpptrajState::OK;
}
int main(int argc, char** argv){
//srand will force the random numbers to be always the same, so we can verify that our code works
//normally we would want them to be different.
srand(100);
struct DataSet* setA;
setA = allocDataSet();
struct DataSet* setB;
setB = allocDataSet();
int i = 0;
for(i = 0; i < 30; ++i){
Byte element = rand() % 20;
appendDataSet(setA, element);
Byte event = rand() % 100;
if(event < 30){
//30% of chance of repeating the same number
appendDataSet(setB, element);
}
else if(event < 65){
//65% of chance of adding a different element
//event should be a number between 0 and 99
//make it between 0 and 49 included
appendDataSet(setB, event % 50);
}
else{
//C requires an else, even if it is empty,
//this else does nothing, so setB could be smaller than setA
}
}
//Data has been initialized, now lets test the other methods
//Print
printf("SET A IS:\n");
printDataSet(setA);
printf("SET B IS:\n");
printDataSet(setB);
//Union (notice that union is another C keyword),
//actually what is does is like a struct,
//but guarantees the block will be put right after the other
//in this class you dont need to know it, but once more, if you want to learn
struct DataSet* unionSet;
unionSet = unionDataSet(setA, setB);
printf("A UNION B:\n");
printDataSet(unionSet);
//Intersection
struct DataSet* intersectionSet;
intersectionSet = intersectionDataSet(setA, setB);
printf("A INTERSECTION B:\n");
printDataSet(intersectionSet);
//Set difference
struct DataSet* diffSet;
diffSet = diffDataSet(setA, setB);
printf("A DIFF B:\n");
printDataSet(diffSet);
//Subset Test
struct DataSet* subsetTest;
subsetTest = subset(unionSet, 3, 7);
printf("ORIGINAL SET:\n");
printDataSet(unionSet);
printf("SUBSET:\n");
printDataSet(subsetTest);
printf("subsetTest %s a subset of unionSet\n", isSubset(subsetTest, unionSet) ? "IS" : "IS NOT");
printf("unionSet %s a subset of subsetSet\n", isSubset(unionSet, subsetTest) ? "IS" : "IS NOT");
struct DataSet* emptySet = allocDataSet();
//no data added so it should be the nullSet
printf("THE EMPTY SET LOOKS LIKE:\n");
printDataSet(emptySet);
printf("emptySet %s equal to the NULL set\n", isNull(emptySet) ? "IS" : "IS NOT");
struct DataSet* reverseSet = allocDataSet();
for(i = unionSet->length - 1; i >= 0; --i){
appendDataSet(reverseSet, unionSet->data[i]);
}
printf("reverseSet %s equal unionSet\n", equals(unionSet, reverseSet) ? "IS" : "IS NOT");
printf("reverseSet %s %u\n", contains(reverseSet, unionSet->data[0]) ? "CONTAINSS" : "DOES NOT CONTAIN", unionSet->data[0]);
printDataSet(reverseSet);
//Statistics:
printf("ORGINAL SET FOR STATISTICS:\n");
printDataSet(unionSet);
printf("Min value %u\n", unionSet->min);
printf("Max value %u\n", unionSet->max);
printf("Avg value %f\n", AverageDataSet(unionSet));
printf("Range value %u\n", RangeDataSet(unionSet));
//Release the DataSets resources after finish their usage.
releaseDataSet(setA);
releaseDataSet(setB);
return 0;
}
static inline bool
equals(const GeoPoint a, const GeoPoint b)
{
return equals(a.latitude, b.latitude) && equals(a.longitude, b.longitude);
}
bool operator !=(const_pointer value) const {
return !equals(value);
}
static inline bool
equals(const fixed a, int b)
{
return equals(a, fixed(b));
}
ConditionResponse Condition::evaluateCapabilities(Request* req){
LOGD("condition: device-cap size %d",req->getResourceAttrs()["device-cap"]->size());
vector<match_info_str*> my_capabilities_params;
vector<string>* req_capabilities_params = new vector<string>();
map<string, vector<string>* > requestResource_attrs = req->getResourceAttrs();
bool anyUndetermined = false;
bool found;
for(map<string, vector<match_info_str*> >::iterator it = resource_attrs.begin(); it!= resource_attrs.end(); it++)
{
if (it->first != API_FEATURE)
{
if(requestResource_attrs.find(it->first) == requestResource_attrs.end())
{
LOGD("Capabilities %s undetermined ",it->first.data());
anyUndetermined = true;
}
else
{
LOGD("Capabilities %s determined ",it->first.data());
my_capabilities_params.insert(my_capabilities_params.end(), it->second.begin(), it->second.end());
}
}
}
LOGD("[ANY CAP] %d", anyUndetermined);
for(map<string, vector<string>* >::iterator itr = requestResource_attrs.begin(); itr!= requestResource_attrs.end(); itr++)
{
if (itr->first != API_FEATURE)
{
// LOGD("REQ Capabilities %s", itr->first.data());
// LOGD("REQ Capabilities size %d", itr->second->size());
req_capabilities_params->insert(req_capabilities_params->end(), itr->second->begin(), itr->second->end());
}
}
if(combine == AND){
// find any No Match
LOGD("my_capabilities_params.size() %d",my_capabilities_params.size());
for(unsigned int j=0; j<my_capabilities_params.size(); j++){
found = false;
LOGD("req_capabilities_params->size() %d",req_capabilities_params->size());
for(unsigned int i=0; i<req_capabilities_params->size(); i++){
string mod_function = my_capabilities_params[j]->mod_func;
string s = (mod_function != "")
? modFunction(mod_function, req_capabilities_params->at(i))
: req_capabilities_params->at(i);
LOGD("Confronto %s con %s",s.data(),my_capabilities_params[j]->value.data());
if(equals(s.data(),my_capabilities_params[j]->value.data(), string2strcmp_mode(my_capabilities_params[j]->equal_func)))
// if(equals(req_capabilities_params->at(i).data(),my_capabilities_params[j]->value.data(), string2strcmp_mode(my_capabilities_params[j]->equal_func)))
{
LOGD("UGUALI");
found = true;
break;
}
else
LOGD("DIVERSI");
}
if (found == false)
return NO_MATCH;
}
if (anyUndetermined)
return NOT_DETERMINED;
else
return MATCH;
}
else if(combine == OR){
// find any Match
for(unsigned int j=0; j<my_capabilities_params.size(); j++){
for(unsigned int i=0; i<req_capabilities_params->size(); i++){
string mod_function = my_capabilities_params[j]->mod_func;
string s = (mod_function != "")
? modFunction(mod_function, req_capabilities_params->at(i))
: req_capabilities_params->at(i);
LOGD("Compare %s with %s",s.data(),my_capabilities_params[j]->value.data());
// LOGD("Compare %s with %s",req_capabilities_params->at(i).data(),my_capabilities_params[j]->value.data());
if(equals(s.data(),my_capabilities_params[j]->value.data(), string2strcmp_mode(my_capabilities_params[j]->equal_func))){
// if(equals(req_capabilities_params->at(i),my_capabilities_params[j]->value, string2strcmp_mode(my_capabilities_params[j]->equal_func)))
return MATCH;
}
}
}
if (anyUndetermined)
return NOT_DETERMINED;
else
return NO_MATCH;
}
// TODO: is that right? What should happen if policy invalid?
return NOT_DETERMINED;
}
static inline bool
equals(const Angle a, int b)
{
return equals(a.Degrees(), fixed(b));
}
void
multiplot_start()
{
TBOOLEAN set_spacing = FALSE;
TBOOLEAN set_margins = FALSE;
c_token++;
/* Only a few options are possible if we are already in multiplot mode */
/* So far we have "next". Maybe also "previous", "clear"? */
if (multiplot) {
if (equals(c_token, "next")) {
c_token++;
if (!mp_layout.auto_layout)
int_error(c_token, "only valid inside an auto-layout multiplot");
multiplot_next();
return;
} else if (almost_equals(c_token, "prev$ious")) {
c_token++;
if (!mp_layout.auto_layout)
int_error(c_token, "only valid inside an auto-layout multiplot");
multiplot_previous();
return;
} else {
term_end_multiplot();
}
}
/* FIXME: more options should be reset/initialized each time */
mp_layout.auto_layout = FALSE;
mp_layout.auto_layout_margins = FALSE;
mp_layout.current_panel = 0;
mp_layout.title.noenhanced = FALSE;
free(mp_layout.title.text);
mp_layout.title.text = NULL;
free(mp_layout.title.font);
mp_layout.title.font = NULL;
mp_layout.title.boxed = 0;
/* Parse options */
while (!END_OF_COMMAND) {
if (almost_equals(c_token, "ti$tle")) {
c_token++;
mp_layout.title.text = try_to_get_string();
continue;
}
if (equals(c_token, "font")) {
c_token++;
mp_layout.title.font = try_to_get_string();
continue;
}
if (almost_equals(c_token,"enh$anced")) {
mp_layout.title.noenhanced = FALSE;
c_token++;
continue;
}
if (almost_equals(c_token,"noenh$anced")) {
mp_layout.title.noenhanced = TRUE;
c_token++;
continue;
}
if (equals(c_token,"boxed")) {
mp_layout.title.boxed = 1;
c_token++;
continue;
}
if (almost_equals(c_token, "lay$out")) {
if (mp_layout.auto_layout)
int_error(c_token, "too many layout commands");
else
mp_layout.auto_layout = TRUE;
c_token++;
if (END_OF_COMMAND) {
int_error(c_token,"expecting '<num_cols>,<num_rows>'");
}
/* read row,col */
mp_layout.num_rows = int_expression();
if (END_OF_COMMAND || !equals(c_token,",") )
int_error(c_token, "expecting ', <num_cols>'");
c_token++;
if (END_OF_COMMAND)
int_error(c_token, "expecting <num_cols>");
mp_layout.num_cols = int_expression();
/* remember current values of the plot size and the margins */
mp_layout.prev_xsize = xsize;
mp_layout.prev_ysize = ysize;
mp_layout.prev_xoffset = xoffset;
mp_layout.prev_yoffset = yoffset;
mp_layout.prev_lmargin = lmargin;
mp_layout.prev_rmargin = rmargin;
mp_layout.prev_bmargin = bmargin;
mp_layout.prev_tmargin = tmargin;
mp_layout.act_row = 0;
mp_layout.act_col = 0;
continue;
}
/* The remaining options are only valid for auto-layout mode */
if (!mp_layout.auto_layout)
int_error(c_token, "only valid in the context of an auto-layout command");
switch(lookup_table(&set_multiplot_tbl[0],c_token)) {
case S_MULTIPLOT_COLUMNSFIRST:
mp_layout.row_major = TRUE;
c_token++;
break;
case S_MULTIPLOT_ROWSFIRST:
mp_layout.row_major = FALSE;
c_token++;
break;
case S_MULTIPLOT_DOWNWARDS:
mp_layout.downwards = TRUE;
c_token++;
break;
case S_MULTIPLOT_UPWARDS:
mp_layout.downwards = FALSE;
c_token++;
break;
case S_MULTIPLOT_SCALE:
c_token++;
mp_layout.xscale = real_expression();
mp_layout.yscale = mp_layout.xscale;
if (!END_OF_COMMAND && equals(c_token,",") ) {
c_token++;
if (END_OF_COMMAND) {
int_error(c_token, "expecting <yscale>");
}
mp_layout.yscale = real_expression();
}
break;
case S_MULTIPLOT_OFFSET:
c_token++;
mp_layout.xoffset = real_expression();
mp_layout.yoffset = mp_layout.xoffset;
if (!END_OF_COMMAND && equals(c_token,",") ) {
c_token++;
if (END_OF_COMMAND) {
int_error(c_token, "expecting <yoffset>");
}
mp_layout.yoffset = real_expression();
}
break;
case S_MULTIPLOT_MARGINS:
c_token++;
if (END_OF_COMMAND)
int_error(c_token,"expecting '<left>,<right>,<bottom>,<top>'");
mp_layout.lmargin.scalex = screen;
mp_layout_set_margin_or_spacing(&(mp_layout.lmargin));
if (!END_OF_COMMAND && equals(c_token,",") ) {
c_token++;
if (END_OF_COMMAND)
int_error(c_token, "expecting <right>");
mp_layout.rmargin.scalex = mp_layout.lmargin.scalex;
mp_layout_set_margin_or_spacing(&(mp_layout.rmargin));
} else {
int_error(c_token, "expecting <right>");
}
if (!END_OF_COMMAND && equals(c_token,",") ) {
c_token++;
if (END_OF_COMMAND)
int_error(c_token, "expecting <top>");
mp_layout.bmargin.scalex = mp_layout.rmargin.scalex;
mp_layout_set_margin_or_spacing(&(mp_layout.bmargin));
} else {
int_error(c_token, "expecting <bottom>");
}
if (!END_OF_COMMAND && equals(c_token,",") ) {
c_token++;
if (END_OF_COMMAND)
int_error(c_token, "expecting <bottom>");
mp_layout.tmargin.scalex = mp_layout.bmargin.scalex;
mp_layout_set_margin_or_spacing(&(mp_layout.tmargin));
} else {
int_error(c_token, "expection <top>");
}
set_margins = TRUE;
break;
case S_MULTIPLOT_SPACING:
c_token++;
if (END_OF_COMMAND)
int_error(c_token,"expecting '<xspacing>,<yspacing>'");
mp_layout.xspacing.scalex = screen;
mp_layout_set_margin_or_spacing(&(mp_layout.xspacing));
mp_layout.yspacing = mp_layout.xspacing;
if (!END_OF_COMMAND && equals(c_token, ",")) {
c_token++;
if (END_OF_COMMAND)
int_error(c_token, "expecting <yspacing>");
mp_layout_set_margin_or_spacing(&(mp_layout.yspacing));
}
set_spacing = TRUE;
break;
default:
int_error(c_token,"invalid or duplicate option");
break;
}
}
if (set_spacing || set_margins) {
if (set_spacing && set_margins) {
if (mp_layout.lmargin.x >= 0 && mp_layout.rmargin.x >= 0
&& mp_layout.tmargin.x >= 0 && mp_layout.bmargin.x >= 0
&& mp_layout.xspacing.x >= 0 && mp_layout.yspacing.x >= 0)
mp_layout.auto_layout_margins = TRUE;
else
int_error(NO_CARET, "must give positive margin and spacing values");
} else if (set_margins) {
mp_layout.auto_layout_margins = TRUE;
mp_layout.xspacing.scalex = screen;
mp_layout.xspacing.x = 0.05;
mp_layout.yspacing.scalex = screen;
mp_layout.yspacing.x = 0.05;
}
/* Sanity check that screen tmargin is > screen bmargin */
if (mp_layout.bmargin.scalex == screen && mp_layout.tmargin.scalex == screen)
if (mp_layout.bmargin.x > mp_layout.tmargin.x) {
double tmp = mp_layout.bmargin.x;
mp_layout.bmargin.x = mp_layout.tmargin.x;
mp_layout.tmargin.x = tmp;
}
}
/* If we reach here, then the command has been successfully parsed.
* Aug 2013: call term_start_plot() before setting multiplot so that
* the wxt and qt terminals will reset the plot count to 0 before
* ignoring subsequent TERM_LAYER_RESET requests.
*/
term_start_plot();
multiplot = TRUE;
fill_gpval_integer("GPVAL_MULTIPLOT", 1);
/* Place overall title before doing anything else */
if (mp_layout.title.text) {
unsigned int x, y;
char *p = mp_layout.title.text;
x = term->xmax / 2;
y = term->ymax - term->v_char;
write_label(x, y, &(mp_layout.title));
reset_textcolor(&(mp_layout.title.textcolor));
/* Calculate fractional height of title compared to entire page */
/* If it would fill the whole page, forget it! */
for (y=1; *p; p++)
if (*p == '\n')
y++;
/* Oct 2012 - v_char depends on the font used */
if (mp_layout.title.font && *mp_layout.title.font)
term->set_font(mp_layout.title.font);
mp_layout.title_height = (double)(y * term->v_char) / (double)term->ymax;
if (mp_layout.title.font && *mp_layout.title.font)
term->set_font("");
if (mp_layout.title_height > 0.9)
mp_layout.title_height = 0.05;
} else {
mp_layout.title_height = 0.0;
}
if (mp_layout.auto_layout_margins)
mp_layout_margins_and_spacing();
else
mp_layout_size_and_offset();
}
int main(void) {
std::unordered_map<int, std::unordered_map<int, cv::Mat1f>> map;
map[2][1] = cv::Mat1f::ones(1, 1);
map[3][1] = cv::Mat1f::ones(1, 1);
map[3][1] *= 2;
map[4][3] = cv::Mat1f::ones(1, 1);
map[5][3] *= 4;
map[7][4] = cv::Mat1f::ones(1, 1);
map[3][7] = cv::Mat1f::ones(1, 1);
std::cout << "before:" << std::endl;
for(int r = 0; r < 8; ++r) {
for(int c = 0; c < 8; ++c) {
if(map[r][c].empty()) {
std::cout << cv::Mat1f::zeros(1, 1);
} else {
std::cout << map[r][c];
}
}
std::cout << std::endl;
}
if(map[0][0].empty()) {
map[0][0] = cv::Mat1f::zeros(1, 1);
}
cv::Mat_<cv::Mat1f*> mapping(8, 8);
mapping.at<cv::Mat1f*>(0, 0) = &map[0][0];
for(int r = 1; r < 8; ++r) {
cv::Mat1f lastElement = *(mapping.at<cv::Mat1f*>(r - 1, 0));
if(!map[r][0].empty()) {
map[r][0] += lastElement;
mapping.at<cv::Mat1f*>(r, 0) = &map[r][0];
} else {
mapping.at<cv::Mat1f*>(r, 0) = mapping.at<cv::Mat1f*>(r - 1, 0);
}
}
for(int c = 1; c < 8; ++c) {
cv::Mat1f lastElement = *(mapping.at<cv::Mat1f*>(0, c - 1));
if(!map[0][c].empty()) {
map[0][c] += lastElement;
mapping.at<cv::Mat1f*>(0, c) = &map[0][c];
} else {
mapping.at<cv::Mat1f*>(0, c) = mapping.at<cv::Mat1f*>(0, c - 1);
}
}
for(int r = 1; r < 8; ++r) {
for(int c = 1; c < 8; ++c) {
cv::Mat1f lastLeft = *(mapping.at<cv::Mat1f*>(r, c - 1));
cv::Mat1f lastTop = *(mapping.at<cv::Mat1f*>(r - 1, c));
cv::Mat1f lastTopLeft = *(mapping.at<cv::Mat1f*>(r - 1, c - 1));
cv::Mat1f tmp;
if(!map[r][c].empty()) {
tmp = map[r][c] + lastLeft + lastTop - lastTopLeft;
} else {
tmp = lastLeft + lastTop - lastTopLeft;
}
cv::Scalar s = cv::sum(tmp - lastLeft);
if(equals(tmp, lastLeft)) {
mapping.at<cv::Mat1f*>(r, c) = mapping.at<cv::Mat1f*>(r, c - 1);
} else {
if(equals(tmp, lastTop)) {
std::cout << "Value changed, top entry equal" << std::endl;
mapping.at<cv::Mat1f*>(r, c) = mapping.at<cv::Mat1f*>(r - 1, c);
} else {
std::cout << "Value changed, new value" << std::endl;
map[r][c] = tmp;
mapping.at<cv::Mat1f*>(r, c) = &map[r][c];
}
}
}
}
std::cout << "after:" << std::endl;
for(int r = 0; r < 8; ++r) {
for(int c = 0; c < 8; ++c) {
if(map[r][c].empty()) {
std::cout << cv::Mat1f::zeros(1, 1);
} else {
std::cout << map[r][c];
}
}
std::cout << std::endl;
}
std::cout << "mapping:" << std::endl;
for(int y = 0; y < mapping.rows; ++y) {
for(int x = 0; x < mapping.cols; ++x) {
std::cout << "(" << mapping.at<cv::Mat1f*>(y, x) << "," << mapping.at<cv::Mat1f*>(y, x) << ")";
}
std::cout << std::endl;
}
std::cout << "result:" << std::endl;
for(int y = 0; y < mapping.rows; ++y) {
for(int x = 0; x < mapping.cols; ++x) {
std::cout << *mapping.at<cv::Mat1f*>(y, x);
}
std::cout << std::endl;
}
cv::Mat1f result;
result = (*mapping.at<cv::Mat1f*>(4, 4) - *mapping.at<cv::Mat1f*>(0, 4) - *mapping.at<cv::Mat1f*>(4, 0) + *mapping.at<cv::Mat1f*>(0, 0));
std::cout << result << std::endl;
return 0;
}
bool SFVec3f::equals(float value[3])
{
SFVec3f vector(value);
return equals(&vector);
}
/**
* Callback function for reading of config.txt
*/
static void kitConfig(char* pName, const void* pValue, DWORD a)
{
kattr_data* kd = (kattr_data*)a;
if (!kd) return;
switch (kd->attr)
{
case ATT_MODEL:
kd->kit.model = *(DWORD*)pValue;
kd->kit.attDefined |= MODEL;
GDB_DEBUG(wlog,(slog,L"model = %d\n",kd->kit.model));
break;
case ATT_COLLAR:
kd->kit.collar = *(DWORD*)pValue;
kd->kit.attDefined |= COLLAR;
GDB_DEBUG(wlog,(slog,L"collar = %d\n",kd->kit.collar));
break;
case ATT_SHIRT_NUMBER_LOCATION:
if (equals(pValue, L"off"))
kd->kit.shirtNumberLocation = 0;
else if (equals(pValue, L"center"))
kd->kit.shirtNumberLocation = 1;
else if (equals(pValue, L"topright"))
kd->kit.shirtNumberLocation = 2;
kd->kit.attDefined |= SHIRT_NUMBER_LOCATION;
GDB_DEBUG(wlog,(slog,L"shirtNumberLocation = %d\n",kd->kit.shirtNumberLocation));
break;
case ATT_SHORTS_NUMBER_LOCATION:
if (equals(pValue,L"off"))
kd->kit.shortsNumberLocation = 0;
else if (equals(pValue,L"left"))
kd->kit.shortsNumberLocation = 1;
else if (equals(pValue,L"right"))
kd->kit.shortsNumberLocation = 2;
kd->kit.attDefined |= SHORTS_NUMBER_LOCATION;
GDB_DEBUG(wlog,(slog,L"shortsNumberLocation = %d\n",kd->kit.shortsNumberLocation));
break;
case ATT_NAME_LOCATION:
if (equals(pValue, L"off"))
kd->kit.nameLocation = 0;
else if (equals(pValue, L"top"))
kd->kit.nameLocation = 1;
else if (equals(pValue, L"bottom"))
kd->kit.nameLocation = 2;
kd->kit.attDefined |= NAME_LOCATION;
GDB_DEBUG(wlog,(slog,L"nameLocation = %d\n",kd->kit.nameLocation));
break;
case ATT_NAME_SHAPE:
if (equals(pValue, L"type1"))
kd->kit.nameShape = 0;
else if (equals(pValue, L"type2"))
kd->kit.nameShape = 1;
else if (equals(pValue, L"type3"))
kd->kit.nameShape = 2;
else if (equals(pValue, L"type4"))
kd->kit.nameShape = 3;
kd->kit.attDefined |= NAME_SHAPE;
GDB_DEBUG(wlog,(slog,L"nameShape = %d\n",kd->kit.nameShape));
break;
case ATT_LOGO_LOCATION:
if (equals(pValue, L"off"))
kd->kit.logoLocation = 0;
else if (equals(pValue, L"top"))
kd->kit.logoLocation = 1;
else if (equals(pValue, L"bottom"))
kd->kit.logoLocation = 2;
kd->kit.attDefined |= LOGO_LOCATION;
GDB_DEBUG(wlog,(slog,L"logoLocation = %d\n",kd->kit.logoLocation));
break;
case ATT_MAIN_COLOR:
if (ParseColor((wchar_t*)pValue, &kd->kit.mainColor))
kd->kit.attDefined |= MAIN_COLOR;
GDB_DEBUG(wlog,(slog,L"mainColor = %02x%02x%02x%02x\n",
kd->kit.mainColor.r,
kd->kit.mainColor.g,
kd->kit.mainColor.b,
kd->kit.mainColor.a
));
break;
case ATT_SHORTS_COLOR:
if (ParseColor((wchar_t*)pValue, &kd->kit.shortsFirstColor))
kd->kit.attDefined |= SHORTS_MAIN_COLOR;
GDB_DEBUG(wlog,(slog,L"shortsFirstColor = %02x%02x%02x%02x\n",
kd->kit.shortsFirstColor.r,
kd->kit.shortsFirstColor.g,
kd->kit.shortsFirstColor.b,
kd->kit.shortsFirstColor.a
));
break;
case ATT_DESCRIPTION:
kd->kit.description = (wchar_t*)pValue;
GDB_DEBUG(wlog,(slog,L"description = {%s}\n",kd->kit.description));
break;
}
}
static size_t
gl_carray_indexof_from_to (gl_list_t list, size_t start_index, size_t end_index,
const void *elt)
{
size_t count = list->count;
if (!(start_index <= end_index && end_index <= count))
/* Invalid arguments. */
abort ();
if (start_index < end_index)
{
gl_listelement_equals_fn equals = list->base.equals_fn;
size_t allocated = list->allocated;
size_t i_end;
i_end = list->offset + end_index;
if (i_end >= allocated)
i_end -= allocated;
if (equals != NULL)
{
size_t i;
i = list->offset + start_index;
if (i >= allocated) /* can only happen if start_index > 0 */
i -= allocated;
for (;;)
{
if (equals (elt, list->elements[i]))
return (i >= list->offset ? i : i + allocated) - list->offset;
i++;
if (i == allocated)
i = 0;
if (i == i_end)
break;
}
}
else
{
size_t i;
i = list->offset + start_index;
if (i >= allocated) /* can only happen if start_index > 0 */
i -= allocated;
for (;;)
{
if (elt == list->elements[i])
return (i >= list->offset ? i : i + allocated) - list->offset;
i++;
if (i == allocated)
i = 0;
if (i == i_end)
break;
}
}
}
return (size_t)(-1);
}
bool String::operator !=(const String &x) const {
return !equals(x);
}
bool URI::operator != (const std::string& uri) const
{
URI parsedURI(uri);
return !equals(parsedURI);
}
bool String::operator !=(const char *x) const {
assert(x != 0);
return !equals(x);
}
static void testFindIndexForAllMonths() {
const int months[] = {1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12};
assert(equals(0, findIndex(1, months, 12)));
assert(equals(1, findIndex(2, months, 12)));
assert(equals(2, findIndex(3, months, 12)));
assert(equals(3, findIndex(4, months, 12)));
assert(equals(4, findIndex(5, months, 12)));
assert(equals(5, findIndex(6, months, 12)));
assert(equals(6, findIndex(7, months, 12)));
assert(equals(7, findIndex(8, months, 12)));
assert(equals(8, findIndex(9, months, 12)));
assert(equals(9, findIndex(10, months, 12)));
assert(equals(10, findIndex(11, months, 12)));
assert(equals(11, findIndex(12, months, 12)));
}
bool GMVector3D::operator!=(const GMVector3D& vec) const
{
return !equals(vec, GMMathHelper::DoubleEqThreshold);
}
