// realign to eps
void realign::realignNow(vector <baseType> &along, baseType eps, meanVar dist)
{
baseType factor = eps / sqrt(dist.var);
network::nodeIterator vi;
queue <baseType> states;
unsigned int i = 0;
for (vi = vl->begin(); vi != vl->end();vi++)
{
// baseType stat = theNodes[*vi]->getState();
baseType diff = along[i] - node::theNodes[*vi]->getState() ;
if (diff > 0.5)
diff = diff - 1;
else if (diff < -0.5)
diff = diff + 1;
diff = diff - dist.mean;
diff = diff * factor;
if (diff > 0.5 || diff < -0.5)
throw "Fehler Abstand zu gro� f�r den Raum (evolveAlong)";
baseType n;
if (diff > 0)
{
n = along[i] - diff;
if (n < 0)
n=n + 1;
}
else
{
n = along[i] - diff;
if ( n > 1)
n = n - 1;
}
states.push (n);
i++;
}
boost::function<baseType () > r = boost::bind(&frontAndPop, &states);
for (vi = vl->begin(); vi != vl->end();vi++)
{
((dynNode*) node::theNodes[*vi]) -> randomizeState( r) ;
}
}
// need to compare the typestring
bool isParameterRightType(const char* passedType, const char* expectedType, const char* methodNamespacePrefix, bool tryReverse)
{
if (strcmp(expectedType,passedType) == 0)
return true;
// well now things are a bit more complicated. We need to see if the passed type
// is a subset of the overall type
std::string et(expectedType);
bool isPointer = (et[0] == 'p' && et[1] == '.');
std::string baseType(et,(isPointer ? 2 : 0)); // this may contain a namespace
std::string ns(methodNamespacePrefix);
// cut off trailing '::'
if (ns.size() > 2 && ns[ns.size() - 1] == ':' && ns[ns.size() - 2] == ':')
ns = ns.substr(0,ns.size()-2);
bool done = false;
while(! done)
{
done = true;
// now we need to see if the expected type can be munged
// into the passed type by tacking on the namespace of
// of the method.
std::string check(isPointer ? "p." : "");
check += ns;
check += "::";
check += baseType;
if (strcmp(check.c_str(),passedType) == 0)
return true;
// see if the namespace is nested.
int posOfScopeOp = ns.find("::");
if (posOfScopeOp >= 0)
{
done = false;
// cur off the outermost namespace
ns = ns.substr(posOfScopeOp + 2);
}
}
// so far we applied the namespace to the expected type. Now lets try
// the reverse if we haven't already.
if (tryReverse)
return isParameterRightType(expectedType, passedType, methodNamespacePrefix, false);
return false;
}
//-*****************************************************************************
//! Prints out relevant information about the TimeSamplingType instance
std::ostream &operator<<( std::ostream &ostr, const TimeSamplingType &tst )
{
std::string baseType( "" );
if ( tst.isUniform() ) { baseType = "Uniform"; }
else if ( tst.isCyclic() ) { baseType = "Cyclic"; }
else { baseType = "Acyclic"; }
ostr << baseType << " time sampling";
if ( tst.isUniform() )
{
ostr << " with " << tst.getTimePerCycle() << " chrono_ts/cycle";
}
else if ( tst.isCyclic() )
{
ostr << " with " << tst.getNumSamplesPerCycle() << " samps/cycle "
<< "and " << tst.getTimePerCycle() << " chrono_ts/cycle";
}
return ostr;
}
void UmlClass::write(FileOut & out) {
QCString st = stereotype();
if (st == "metaclass")
return;
bool is_actor = (st == "actor");
bool is_enum = (st == "enum");
bool is_stereotype =
(st == "stereotype") &&
(parent()->parent()->kind() == aPackage) &&
(parent()->parent()->stereotype() == "profile");
if (!is_actor) {
switch (_lang) {
case Cpp:
if (cppDecl().isEmpty())
return;
break;
case Java:
if (javaDecl().isEmpty())
return;
default:
break;
}
}
const char * k = (parent()->kind() == aClass)
? "nestedClassifier"
: ((!_uml_20)
? "packagedElement"
: ((is_stereotype) ? "ownedStereotype" : "ownedMember"));
bool is_assoc_class = (_assoc != 0);
out.indent();
out << "<" << k << " xmi:type=\"uml:"
<< ((is_actor)
? "Actor"
: ((is_assoc_class)
? "AssociationClass"
: ((st == "interface")
? "Interface"
: ((is_enum)
?"Enumeration"
: ((is_stereotype) ? "Stereotype" : "Class")))))
<< "\" name=\"";
out.quote(name());
out << '"';
out.id(this);
write_visibility(out);
if (isAbstract())
out << " isAbstract=\"true\"";
if (isActive())
out << " isActive=\"true\"";
out << ">\n";
if (is_assoc_class)
_assoc->write_ends(out);
out.indent(+1);
write_constraint(out);
write_annotation(out);
write_description_properties(out);
if (_gen_extension && (st == "typedef")) {
const UmlTypeSpec & base = baseType();
if ((base.type != 0) || !base.explicit_type.isEmpty()) {
out.indent();
out << "<xmi:Extension extender=\"Bouml\">\n";
out.indent();
out << "\t<typedef>\n";
out.indent(+2);
UmlItem::write_type(out, base, "base");
out.indent(-2);
out.indent();
out << "\t</typedef>\n";
out.indent();
out << "</xmi:Extension>\n";
}
}
write_formals(out);
write_actuals(out);
const QVector<UmlItem> ch = children();
unsigned n = ch.size();
unsigned i;
for (i = 0; i != n; i += 1)
ch[i]->write(out);
if (is_stereotype) {
QCString path;
if (propertyValue("stereotypeIconPath", path) && !path.isEmpty()) {
out.indent();
out << "<icon xmi:type=\"uml:Image\"";
out.id_prefix(this, "Icon_");
out << " location=\"" << path << "\"/>\n";
}
}
out.indent(-1);
out.indent();
out << "</" << k << ">\n";
if (is_stereotype)
for (i = 0; i != n; i += 1)
if (ch[i]->kind() == aRelation)
((UmlRelation *) ch[i])->write_extension(out);
unload();
}
/**
* @retval true If this widget represents interface and DrawAsCircle
* property is set.
*/
bool ClassifierWidget::shouldDrawAsCircle() const
{
return baseType() == WidgetBase::wt_Interface && visualProperty(DrawAsCircle) == true;
}
void UmlClass::gen_cpp_decl(QCString s, bool descr) {
const char * p = (descr)
? (const char *) s
: (const char *) bypass_comment(s);
while (*p) {
if (!strncmp(p, "${comment}", 10))
p += 10;
else if (!strncmp(p, "${description}", 14))
p += 14;
else if (!strncmp(p, "${type}", 7)) {
p += 7;
bool find = FALSE;
if (baseType().type != 0) {
UmlClass * mother = baseType().type;
const QVector<UmlItem> ch = children();
for (unsigned i = 0; i != ch.size(); i += 1) {
if (ch[i]->kind() == aRelation) {
UmlRelation * rel = (UmlRelation *) ch[i];
aRelationKind k = rel->relationKind();
if (((k == aGeneralisation) ||
(k == aRealization)) &&
(rel->roleType() == mother)) {
rel->roleType()->write();
generate(actuals(), mother, TRUE);
find = TRUE;
break;
}
}
}
}
if (! find)
UmlItem::write(baseType(), cppLanguage);
}
else if (!strncmp(p, "${template}", 11)) {
p += 11;
generate(formals());
}
else if (!strncmp(p, "${name}", 7)) {
p += 7;
writeq(name());
}
else if (!strncmp(p, "${inherit}", 10)) {
p += 10;
const QVector<UmlItem> ch = children();
const char * sep = " : ";
for (unsigned i = 0; i != ch.size(); i += 1) {
if (ch[i]->kind() == aRelation) {
UmlRelation * rel = (UmlRelation *) ch[i];
aRelationKind k = rel->relationKind();
if (((k == aGeneralisation) ||
(k == aRealization)) &&
!rel->cppDecl().isEmpty()) {
fw.write(sep);
// UmlItem::write else G++ call UmlClass::write(QCString) !
UmlItem::write((rel->cppVisibility() == DefaultVisibility)
? rel->visibility() : rel->cppVisibility(),
cppLanguage);
fw.write((rel->cppVirtualInheritance()) ? " virtual " : " ");
rel->roleType()->write();
generate(actuals(), rel->roleType(), TRUE);
sep = ", ";
}
}
}
}
else if (*p == '{') {
if (descr)
fw.write(*p++);
else
break;
}
else if (*p == '\r')
p += 1;
else if (*p == '\n') {
if (descr) {
fw.write("<br />");
p += 1;
}
else {
fw.write(' ');
do
p += 1;
while ((*p != 0) && (*p <= ' '));
}
}
else if (*p == '@')
manage_alias(p);
else
writeq(*p++);
}
}
void UmlClass::compute_dependency(Q3PtrList<CppRefType> & dependencies,
const Q3CString &, bool all_in_h) {
Q3PtrVector<UmlItem> ch = children();
const Q3CString stereotype = cpp_stereotype();
bool a_typedef = (stereotype == "typedef");
bool an_enum = (stereotype == "enum");
const Q3ValueList<UmlFormalParameter> formals = this->formals();
const Q3ValueList<UmlActualParameter> actuals = this->actuals();
if (!formals.isEmpty())
// template class, force depend in h
all_in_h = TRUE;
for (unsigned index = 0; index != ch.size(); index += 1) {
if (ch[index]->kind() != aNcRelation) {
UmlClassItem * it = (UmlClassItem *) ch[index];
if (! it->cppDecl().isEmpty())
it->compute_dependency(dependencies, stereotype, all_in_h);
}
}
if (an_enum && (!formals.isEmpty() || !actuals.isEmpty())) {
write_trace_header();
UmlCom::trace(" <font color=\"red\"><b><i>template enum</i></b></font><br>");
incr_warning();
}
else if (a_typedef && !formals.isEmpty()) {
write_trace_header();
UmlCom::trace(" <font color=\"red\"><b><i>template typedef</i></b></font><br>");
incr_warning();
}
else {
Q3ValueList<UmlFormalParameter>::ConstIterator itf;
for (itf = formals.begin(); itf != formals.end(); ++itf)
CppRefType::remove((*itf).name(), dependencies);
Q3ValueList<UmlActualParameter>::ConstIterator ita;
for (ita = actuals.begin(); ita != actuals.end(); ++ita)
UmlClassMember::compute_dependency(dependencies, "${type}",
(*ita).value(), all_in_h);
if (a_typedef) {
Q3CString decl = cppDecl();
int index;
remove_comments(decl);
if ((index = decl.find("${name}")) != -1)
decl.remove((unsigned) index, 7);
replace_alias(decl);
UmlClassMember::compute_dependency(dependencies, decl,
baseType(), all_in_h);
}
}
if ((associatedArtifact() == 0) ||
(associatedArtifact()->associatedClasses().count() == 1))
CppRefType::remove(this, dependencies);
else
CppRefType::force_ref(this, dependencies);
}
void UmlClass::generate_decl(QTextOStream & f_h, Q3CString indent) {
context.append(this);
bool removed = FALSE;
Q3PtrVector<UmlItem> ch = children();
const unsigned sup = ch.size();
const Q3CString & stereotype = cpp_stereotype();
bool a_typedef = (stereotype == "typedef");
bool an_enum = (stereotype == "enum");
const Q3ValueList<UmlFormalParameter> formals = this->formals();
const Q3ValueList<UmlActualParameter> actuals = this->actuals();
unsigned index;
const char * p = cppDecl();
const char * pp = 0;
const char * sep;
bool nestedp = parent()->kind() == aClass;
if (nestedp)
indent += " ";
while ((*p == ' ') || (*p == '\t'))
indent += *p++;
if (*p != '#')
f_h << indent;
for (;;) {
if (*p == 0) {
if (pp == 0)
break;
// comment management done
p = pp;
pp = 0;
if (*p == 0)
break;
if (*p != '#')
f_h << indent;
}
if (*p == '\n') {
f_h << *p++;
if (*p && (*p != '#') &&
strncmp(p, "${members}", 10) &&
strncmp(p, "${items}", 8))
f_h << indent;
}
else if (*p == '@')
manage_alias(p, f_h);
else if (*p != '$')
f_h << *p++;
else if (!strncmp(p, "${comment}", 10))
manage_comment(p, pp, CppSettings::isGenerateJavadocStyleComment());
else if (!strncmp(p, "${description}", 14))
manage_description(p, pp);
else if (! strncmp(p, "${name}", 7)) {
p += 7;
f_h << name();
}
else if (a_typedef) {
if (!strncmp(p, "${type}", 7)) {
p += 7;
UmlClass::write(f_h, baseType(), FALSE);
UmlClass * cl = baseType().type;
if ((cl != 0) && !actuals.isEmpty()) {
Q3ValueList<UmlActualParameter>::ConstIterator ita;
BooL need_space = FALSE;
for (ita = actuals.begin(); ita != actuals.end(); ++ita)
if ((*ita).superClass() == cl)
if (! (*ita).generate(f_h, need_space))
// no specified value
break;
if (need_space)
f_h << " >";
else
f_h << '>';
}
}
else
// strange
f_h << *p++;
}
else if (an_enum) {
if (!strncmp(p, "${items}", 8)) {
p += 8;
// items declaration
aVisibility current_visibility = DefaultVisibility;
unsigned max = sup - 1;
BooL first = TRUE;
for (index = 0; index < sup; index += 1) {
UmlItem * it = ch[index];
switch (it->kind()) {
case aClass:
case aNcRelation:
break;
default:
if (! ((UmlClassItem *) it)->cppDecl().isEmpty())
((UmlClassItem *) it)->generate_decl(current_visibility,
f_h, stereotype, indent,
first, index == max);
}
}
if (*p == '}')
f_h << indent;
}
else
// strange
f_h << *p++;
}
else if (! strncmp(p, "${template}", 11)) {
p += 11;
// template
if (!formals.isEmpty()) {
sep = "template<";
const char * sep2 = "<";
BooL need_space = FALSE;
Q3ValueList<UmlFormalParameter>::ConstIterator itf;
for (itf = formals.begin(); itf != formals.end(); ++itf)
(*itf).generate(f_h, sep, sep2, need_space);
f_h << ((need_space) ? " >\n" : ">\n");
if (nestedp)
f_h << indent;
}
else if (name().find('<') != -1) {
f_h << "template<>\n";
if (nestedp)
f_h << indent;
}
}
else if (! strncmp(p, "${inherit}", 10)) {
p += 10;
// inherit
sep = " : ";
for (index = 0; index != sup; index += 1) {
UmlItem * x = ch[index];
if ((x->kind() == aRelation) &&
!((UmlRelation *) ch[index])->cppDecl().isEmpty())
((UmlRelation *) x)->generate_inherit(sep, f_h, actuals, stereotype);
}
}
else if (! strncmp(p, "${members}", 10)) {
p += 10;
// members declaration
aVisibility current_visibility;
current_visibility = ((stereotype == "struct") || (stereotype == "union"))
? PublicVisibility : DefaultVisibility;
unsigned last = sup - 1;
BooL first = TRUE;
for (index = 0; index != sup; index += 1) {
UmlItem * it = ch[index];
if ((it->kind() != aNcRelation) &&
! ((UmlClassItem *) it)->cppDecl().isEmpty())
((UmlClassItem *) it)->generate_decl(current_visibility,
f_h, stereotype, indent,
first, index == last);
}
if (*p == '}')
f_h << indent;
}
else if (!strncmp(p, "${inlines}", 10)) {
p += 10;
context.removeLast();
removed = TRUE;
if (! nestedp) {
// inline operations definition
// template class members
Q3CString templates;
Q3CString cl_names;
Q3CString templates_tmplop;
Q3CString cl_names_tmplop;
spec(templates, cl_names, templates_tmplop, cl_names_tmplop);
for (index = 0; index != sup; index += 1)
if (ch[index]->kind() != aNcRelation)
((UmlClassItem *) ch[index])
->generate_def(f_h, indent, TRUE, templates, cl_names,
templates_tmplop, cl_names_tmplop);
}
if (*p == '\n')
p += 1;
}
else
// strange
f_h << *p++;
}
if (! removed)
context.removeLast();
}
void dynNetwork::startingConditionOpenWaveEndingMiddle()
{
queue<baseType> initialCond;
unsigned int size = sqrt ( (baseType) node::theNodes.size() );
for ( unsigned int i = 0; i < size; i++ )
for ( unsigned int j = 0; j < size; j++ )
{
if ( i< size/3 || i > 2*size/3 )
{
initialCond.push ( -1.0 );
if ( node::theNodes[i + size *j]->getNodeInfo().theNodeKind & _dynNode_ )
for ( unsigned int n = 0; n > dynamic_cast<dynNode*>(node::theNodes[i+size*j] )->dimension() - 1; n = n + 1 )
initialCond.push ( 40.0 );
}
else
{
if ( j < size/3 || j > 2*size/3 )
initialCond.push ( 0.0 );
else
initialCond.push ( 100.0 );
if ( node::theNodes[i + size *j]->getNodeInfo().theNodeKind & _dynNode_ )
for ( unsigned int n = 0; n > dynamic_cast<dynNode*>( node::theNodes[i+size*j] )->dimension() - 1; n = n + 1 )
initialCond.push ( 0.0 );
}
}
boost::function<baseType () > r = bind ( &frontAndPop,&initialCond );
vector< node * >::iterator it;
for ( it = node::theNodes.begin(); it != node::theNodes.end(); it++ )
{
// if ( ( *it )->getNodeInfo().theNodeKind & _dynNode_ == 0 )
// continue;
//// continue;
// ( ( dynamic_cast<dynNode*>( ( *it ) )->state = r();
dynamic_cast<dynNode*>( ( *it ) )->randomizeState ( r );
}
}
QString PointerType::toString() const
{
QString baseString = (baseType() ? baseType()->toString() : "<notype>");
return QString("%1*").arg(baseString) + AbstractType::toString(true);
}