abstractmetabuilder.cpp - apiextractor in PySide

/*
 * This file is part of the API Extractor project.
 *
 * Copyright (C) 2009 Nokia Corporation and/or its subsidiary(-ies).
 *
 * Contact: PySide team <contact@pyside.org>
 *
 * This program is free software; you can redistribute it and/or
 * modify it under the terms of the GNU General Public License
 * version 2 as published by the Free Software Foundation.
 *
 * This program is distributed in the hope that it will be useful, but
 * WITHOUT ANY WARRANTY; without even the implied warranty of
 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the GNU
 * General Public License for more details.
 *
 * You should have received a copy of the GNU General Public License
 * along with this program; if not, write to the Free Software
 * Foundation, Inc., 51 Franklin St, Fifth Floor, Boston, MA
 * 02110-1301 USA
 *
 */

#include "abstractmetabuilder.h"
#include "reporthandler.h"
#include "typedatabase.h"

#include "parser/ast.h"
#include "parser/binder.h"
#include "parser/control.h"
#include "parser/default_visitor.h"
#include "parser/dumptree.h"
#include "parser/lexer.h"
#include "parser/parser.h"
#include "parser/tokens.h"

#include <QDebug>
#include <QFile>
#include <QFileInfo>
#include <QTextCodec>
#include <QTextStream>
#include <QVariant>
#include <QTime>
#include <QQueue>
#include <QDir>

#include <cstdio>
#include <algorithm>
#include "graph.h"
#include <QTemporaryFile>

static QString stripTemplateArgs(const QString &name)
{
    int pos = name.indexOf('<');
    return pos < 0 ? name : name.left(pos);
}

AbstractMetaBuilder::AbstractMetaBuilder() : m_currentClass(0), m_logDirectory(QString('.')+QDir::separator())
{
}

AbstractMetaBuilder::~AbstractMetaBuilder()
{
    qDeleteAll(m_globalEnums);
    qDeleteAll(m_globalFunctions);
    qDeleteAll(m_templates);
    qDeleteAll(m_metaClasses);
}

void AbstractMetaBuilder::checkFunctionModifications()
{
    TypeDatabase *types = TypeDatabase::instance();
    SingleTypeEntryHash entryHash = types->entries();
    QList<TypeEntry*> entries = entryHash.values();

    foreach (TypeEntry* entry, entries) {
        if (!entry)
            continue;
        if (!entry->isComplex() || entry->codeGeneration() == TypeEntry::GenerateNothing)
            continue;

        ComplexTypeEntry* centry = static_cast<ComplexTypeEntry*>(entry);
        FunctionModificationList modifications = centry->functionModifications();

        foreach (FunctionModification modification, modifications) {
            QString signature = modification.signature;

            QString name = signature.trimmed();
            name = name.mid(0, signature.indexOf("("));

            AbstractMetaClass* clazz = m_metaClasses.findClass(centry->qualifiedCppName());
            if (!clazz)
                continue;

            AbstractMetaFunctionList functions = clazz->functions();
            bool found = false;
            QStringList possibleSignatures;
            foreach (AbstractMetaFunction *function, functions) {
                if (function->minimalSignature() == signature && function->implementingClass() == clazz) {
                    found = true;
                    break;
                }

                if (function->originalName() == name)
                    possibleSignatures.append(function->minimalSignature() + " in " + function->implementingClass()->name());
            }

            if (!found) {
                QString warning
                = QString("signature '%1' for function modification in '%2' not found. Possible candidates: %3")
                  .arg(signature)
                  .arg(clazz->qualifiedCppName())
                  .arg(possibleSignatures.join(", "));

                ReportHandler::warning(warning);
            }
        }
    }
}

AbstractMetaClass* AbstractMetaBuilder::argumentToClass(ArgumentModelItem argument)
{
    AbstractMetaClass* returned = 0;
    bool ok = false;
    AbstractMetaType* type = translateType(argument->type(), &ok);
    if (ok && type && type->typeEntry() && type->typeEntry()->isComplex()) {
        const TypeEntry *entry = type->typeEntry();
        returned = m_metaClasses.findClass(entry->name());
    }
    delete type;
    return returned;
}

/**
 * Checks the argument of a hash function and flags the type if it is a complex type
 */
void AbstractMetaBuilder::registerHashFunction(FunctionModelItem function_item)
{
    ArgumentList arguments = function_item->arguments();
    if (arguments.size() == 1) {
        if (AbstractMetaClass *cls = argumentToClass(arguments.at(0)))
            cls->setHasHashFunction(true);
    }
}

/**
 * Check if a class has a debug stream operator that can be used as toString
 */

void AbstractMetaBuilder::registerToStringCapability(FunctionModelItem function_item)
{
    ArgumentList arguments = function_item->arguments();
    if (arguments.size() == 2) {
        if (arguments.at(0)->type().toString() == "QDebug") {
            ArgumentModelItem arg = arguments.at(1);
            if (AbstractMetaClass *cls = argumentToClass(arg)) {
                if (arg->type().indirections() < 2)
                    cls->setToStringCapability(true);
            }
        }
    }
}

void AbstractMetaBuilder::traverseOperatorFunction(FunctionModelItem item)
{
    if (item->accessPolicy() != CodeModel::Public)
        return;

    ArgumentList arguments = item->arguments();
    AbstractMetaClass* baseoperandClass;
    bool firstArgumentIsSelf = true;
    bool unaryOperator = false;

    baseoperandClass = argumentToClass(arguments.at(0));

    if (arguments.size() == 1) {
        unaryOperator = true;
    } else if (!baseoperandClass
               || !(baseoperandClass->typeEntry()->codeGeneration() & TypeEntry::GenerateTargetLang)) {
        baseoperandClass = argumentToClass(arguments.at(1));
        firstArgumentIsSelf = false;
    } else {
        bool ok;
        AbstractMetaType* type = translateType(item->type(), &ok);
        const TypeEntry* retType = ok ? type->typeEntry() : 0;
        AbstractMetaClass* otherArgClass = argumentToClass(arguments.at(1));
        if (otherArgClass && retType
            && (retType->isValue() || retType->isObject())
            && retType != baseoperandClass->typeEntry()
            && retType == otherArgClass->typeEntry()) {
            baseoperandClass = m_metaClasses.findClass(retType);
            firstArgumentIsSelf = false;
        }
        delete type;
    }

    if (baseoperandClass) {
        AbstractMetaClass* oldCurrentClass = m_currentClass;
        m_currentClass = baseoperandClass;
        AbstractMetaFunction *metaFunction = traverseFunction(item);
        if (metaFunction && !metaFunction->isInvalid()) {
            // Strip away first argument, since that is the containing object
            AbstractMetaArgumentList arguments = metaFunction->arguments();
            if (firstArgumentIsSelf || unaryOperator) {
                AbstractMetaArgument* first = arguments.takeFirst();
                if (!unaryOperator && first->type()->indirections())
                    metaFunction->setPointerOperator(true);
                delete first;
                metaFunction->setArguments(arguments);
            } else {
                // If the operator method is not unary and the first operator is
                // not of the same type of its owning class we suppose that it
                // must be an reverse operator (e.g. CLASS::operator(TYPE, CLASS)).
                // All operator overloads that operate over a class are already
                // being added as member functions of that class by the API Extractor.
                AbstractMetaArgument* last = arguments.takeLast();
                if (last->type()->indirections())
                    metaFunction->setPointerOperator(true);
                delete last;

                metaFunction->setArguments(arguments);
                metaFunction->setReverseOperator(true);
            }
            metaFunction->setFunctionType(AbstractMetaFunction::NormalFunction);
            metaFunction->setVisibility(AbstractMetaFunction::Public);
            metaFunction->setOriginalAttributes(metaFunction->attributes());
            setupFunctionDefaults(metaFunction, baseoperandClass);
            baseoperandClass->addFunction(metaFunction);
            Q_ASSERT(!metaFunction->wasPrivate());
        } else if (metaFunction) {
            delete metaFunction;
        }

        m_currentClass = oldCurrentClass;
    }
}

void AbstractMetaBuilder::traverseStreamOperator(FunctionModelItem item)
{
    ArgumentList arguments = item->arguments();
    if (arguments.size() == 2 && item->accessPolicy() == CodeModel::Public) {
        AbstractMetaClass* streamClass = argumentToClass(arguments.at(0));
        AbstractMetaClass* streamedClass = argumentToClass(arguments.at(1));

        if (streamClass && streamedClass && (streamClass->isStream())) {
            AbstractMetaClass *oldCurrentClass = m_currentClass;
            m_currentClass = streamedClass;
            AbstractMetaFunction *streamFunction = traverseFunction(item);

            if (streamFunction && !streamFunction->isInvalid()) {
                QString name = item->name();
                streamFunction->setFunctionType(AbstractMetaFunction::GlobalScopeFunction);
                // Strip first argument, since that is the containing object
                AbstractMetaArgumentList arguments = streamFunction->arguments();
                if (!streamClass->typeEntry()->generateCode())
                    delete arguments.takeLast();
                else
                    delete arguments.takeFirst();

                streamFunction->setArguments(arguments);

                *streamFunction += AbstractMetaAttributes::Final;
                *streamFunction += AbstractMetaAttributes::Public;
                streamFunction->setOriginalAttributes(streamFunction->attributes());

//              streamFunction->setType(0);

                AbstractMetaClass *funcClass;

                if (!streamClass->typeEntry()->generateCode()) {
                    AbstractMetaArgumentList reverseArgs = reverseList(streamFunction->arguments());
                    streamFunction->setArguments(reverseArgs);
                    streamFunction->setReverseOperator(true);
                    funcClass = streamedClass;
                } else {
                    funcClass = streamClass;
                }

                setupFunctionDefaults(streamFunction, funcClass);
                funcClass->addFunction(streamFunction);
                if (funcClass == streamClass)
                    funcClass->typeEntry()->addExtraInclude(streamedClass->typeEntry()->include());
                else
                    funcClass->typeEntry()->addExtraInclude(streamClass->typeEntry()->include());

                m_currentClass = oldCurrentClass;
            } else if (streamFunction) {
                delete streamFunction;
            }

        }
    }
}

void AbstractMetaBuilder::fixQObjectForScope(TypeDatabase *types,
                                             NamespaceModelItem scope)
{
    foreach (ClassModelItem item, scope->classes()) {
        QString qualifiedName = item->qualifiedName().join("::");
        TypeEntry* entry = types->findType(qualifiedName);
        if (entry) {
            if (isQObject(qualifiedName) && entry->isComplex())
                ((ComplexTypeEntry*) entry)->setQObject(true);
        }
    }

    foreach (NamespaceModelItem item, scope->namespaceMap().values()) {
        if (scope != item)
            fixQObjectForScope(types, item);
    }
}

void AbstractMetaBuilder::sortLists()
{
    foreach (AbstractMetaClass *cls, m_metaClasses)
        cls->sortFunctions();
}

bool AbstractMetaBuilder::build(QIODevice* input)
{
    Q_ASSERT(input);

    if (!input->isOpen()) {
        if (!input->open(QIODevice::ReadOnly))
            return false;
    }

    TypeDatabase* types = TypeDatabase::instance();

    QByteArray contents = input->readAll();
    input->close();

    Control control;
    Parser p(&control);
    pool __pool;

    TranslationUnitAST* ast = p.parse(contents, contents.size(), &__pool);

    CodeModel model;
    Binder binder(&model, p.location());
    m_dom = binder.run(ast);

    pushScope(model_dynamic_cast<ScopeModelItem>(m_dom));

    QHash<QString, ClassModelItem> typeMap = m_dom->classMap();

    // fix up QObject's in the type system..
    fixQObjectForScope(types, model_dynamic_cast<NamespaceModelItem>(m_dom));

    // Start the generation...
    ClassList typeValues = typeMap.values();
    qSort(typeValues);
    ClassList::iterator it = std::unique(typeValues.begin(), typeValues.end());
    typeValues.erase(it, typeValues.end());

    ReportHandler::setProgressReference(typeValues);
    foreach (ClassModelItem item, typeValues) {
        ReportHandler::progress("Generating class model...");
        AbstractMetaClass *cls = traverseClass(item);
        if (!cls)
            continue;

        addAbstractMetaClass(cls);
    }
    ReportHandler::flush();

    // We need to know all global enums
    QHash<QString, EnumModelItem> enumMap = m_dom->enumMap();
    ReportHandler::setProgressReference(enumMap);
    foreach (EnumModelItem item, enumMap) {
        ReportHandler::progress("Generating enum model...");
        AbstractMetaEnum *metaEnum = traverseEnum(item, 0, QSet<QString>());
        if (metaEnum) {
            if (metaEnum->typeEntry()->generateCode())
                m_globalEnums << metaEnum;
        }
    }
    ReportHandler::flush();

    QHash<QString, NamespaceModelItem> namespaceMap = m_dom->namespaceMap();
    NamespaceList namespaceTypeValues = namespaceMap.values();
    qSort(namespaceTypeValues);
    NamespaceList::iterator nsit = std::unique(namespaceTypeValues.begin(), namespaceTypeValues.end());
    namespaceTypeValues.erase(nsit, namespaceTypeValues.end());

    ReportHandler::setProgressReference(namespaceMap);
    foreach (NamespaceModelItem item, namespaceTypeValues) {
        ReportHandler::progress("Generating namespace model...");
        AbstractMetaClass *metaClass = traverseNamespace(item);
        if (metaClass)
            m_metaClasses << metaClass;
    }
    ReportHandler::flush();

    // Go through all typedefs to see if we have defined any
    // specific typedefs to be used as classes.
    TypeAliasList typeAliases = m_dom->typeAliases();
    ReportHandler::setProgressReference(typeAliases);
    foreach (TypeAliasModelItem typeAlias, typeAliases) {
        ReportHandler::progress("Resolving typedefs...");
        AbstractMetaClass* cls = traverseTypeAlias(typeAlias);
        addAbstractMetaClass(cls);
    }
    ReportHandler::flush();

    figureOutEnumValues();

    foreach (ClassModelItem item, typeValues)
        traverseClassMembers(item);

    foreach (NamespaceModelItem item, namespaceTypeValues)
        traverseNamespaceMembers(item);

    // Global functions
    foreach (FunctionModelItem func, m_dom->functions()) {
        if (func->accessPolicy() != CodeModel::Public || func->name().startsWith("operator"))
            continue;

        FunctionTypeEntry* funcEntry = types->findFunctionType(func->name());
        if (!funcEntry || !funcEntry->generateCode())
            continue;

        AbstractMetaFunction* metaFunc = traverseFunction(func);
        if (!metaFunc)
            continue;

        if (!funcEntry->hasSignature(metaFunc->minimalSignature())) {
            delete metaFunc;
            continue;
        }

        applyFunctionModifications(metaFunc);

        setInclude(funcEntry, func->fileName());
        if (metaFunc->typeEntry())
            delete metaFunc->typeEntry();

        metaFunc->setTypeEntry(funcEntry);
        m_globalFunctions << metaFunc;
    }

    ReportHandler::setProgressReference(m_metaClasses);
    foreach (AbstractMetaClass* cls, m_metaClasses) {
        ReportHandler::progress("Fixing class inheritance...");
        if (!cls->isInterface() && !cls->isNamespace())
            setupInheritance(cls);
    }
    ReportHandler::flush();

    ReportHandler::setProgressReference(m_metaClasses);
    foreach (AbstractMetaClass* cls, m_metaClasses) {
        ReportHandler::progress("Detecting inconsistencies in class model...");
        cls->fixFunctions();

        if (!cls->typeEntry()) {
            ReportHandler::warning(QString("class '%1' does not have an entry in the type system")
                                   .arg(cls->name()));
        } else {
            bool couldAddDefaultCtors = !cls->isFinalInCpp() && !cls->isInterface() && !cls->isNamespace();
            if (couldAddDefaultCtors) {
                if (!cls->hasConstructors())
                    cls->addDefaultConstructor();
                if (cls->typeEntry()->isValue() && !cls->isAbstract() && !cls->hasCopyConstructor())
                    cls->addDefaultCopyConstructor(ancestorHasPrivateCopyConstructor(cls));
            }
        }

        if (cls->isAbstract() && !cls->isInterface())
            cls->typeEntry()->setLookupName(cls->typeEntry()->targetLangName() + "$ConcreteWrapper");
    }
    ReportHandler::flush();

    TypeEntryHash allEntries = types->allEntries();
    ReportHandler::progress("Detecting inconsistencies in typesystem...");
    foreach (QList<TypeEntry*> entries, allEntries) {
        foreach (TypeEntry* entry, entries) {

            if (entry->isPrimitive())
                continue;

            if ((entry->isValue() || entry->isObject())
                && !entry->isString()
                && !entry->isChar()
                && !entry->isContainer()
                && !entry->isCustom()
                && !entry->isVariant()
                && !m_metaClasses.findClass(entry->qualifiedCppName())) {
                ReportHandler::warning(QString("type '%1' is specified in typesystem, but not defined. This could potentially lead to compilation errors.")
                                    .arg(entry->qualifiedCppName()));
            } else if (entry->generateCode() && entry->type() == TypeEntry::FunctionType) {
                const FunctionTypeEntry* fte = static_cast<const FunctionTypeEntry*>(entry);
                foreach (QString signature, fte->signatures()) {
                    bool ok = false;
                    foreach (AbstractMetaFunction* func, m_globalFunctions) {
                        if (signature == func->minimalSignature()) {
                            ok = true;
                            break;
                        }
                    }
                    if (!ok) {
                        ReportHandler::warning(QString("Global function '%1' is specified in typesystem, but not defined. This could potentially lead to compilation errors.")
                        .arg(signature));
                    }
                }
            } else if (entry->isEnum()) {
                const QString name = ((EnumTypeEntry*) entry)->targetLangQualifier();
                AbstractMetaClass* cls = m_metaClasses.findClass(name);

                bool enumFound = false;
                if (cls) {
                    enumFound = cls->findEnum(entry->targetLangName());
                } else { // Global enum
                    foreach (AbstractMetaEnum* metaEnum, m_enums) {
                        if (metaEnum->typeEntry() == entry) {
                            enumFound = true;
                            break;
                        }
                    }
                }
                if (!enumFound) {
                    entry->setCodeGeneration(TypeEntry::GenerateNothing);
                    ReportHandler::warning(QString("enum '%1' is specified in typesystem, but not declared")
                                           .arg(entry->qualifiedCppName()));
                }

            }
        }
    }
    ReportHandler::flush();

    {
        FunctionList hashFunctions = m_dom->findFunctions("qHash");
        foreach (FunctionModelItem item, hashFunctions)
            registerHashFunction(item);
    }

    {
        FunctionList hashFunctions = m_dom->findFunctions("operator<<");
        foreach (FunctionModelItem item, hashFunctions)
            registerToStringCapability(item);
    }

    {
        FunctionList binaryOperators = m_dom->findFunctions("operator==")
                                        + m_dom->findFunctions("operator!=")
                                        + m_dom->findFunctions("operator<=")
                                        + m_dom->findFunctions("operator>=")
                                        + m_dom->findFunctions("operator<")
                                        + m_dom->findFunctions("operator+")
                                        + m_dom->findFunctions("operator/")
                                        + m_dom->findFunctions("operator*")
                                        + m_dom->findFunctions("operator-")
                                        + m_dom->findFunctions("operator&")
                                        + m_dom->findFunctions("operator|")
                                        + m_dom->findFunctions("operator^")
                                        + m_dom->findFunctions("operator~")
                                        + m_dom->findFunctions("operator>");

        foreach (FunctionModelItem item, binaryOperators)
            traverseOperatorFunction(item);
    }

    {
        FunctionList streamOperators = m_dom->findFunctions("operator<<") + m_dom->findFunctions("operator>>");
        foreach (FunctionModelItem item, streamOperators)
            traverseStreamOperator(item);
    }

    figureOutDefaultEnumArguments();
    checkFunctionModifications();

    // sort all classes topologically
    m_metaClasses = classesTopologicalSorted();

    foreach (AbstractMetaClass* cls, m_metaClasses) {
//         setupEquals(cls);
//         setupComparable(cls);
        setupClonable(cls);
        setupExternalConversion(cls);

        // sort all inner classes topologically
        if (!cls->typeEntry()->codeGeneration() || cls->innerClasses().size() < 2)
            continue;

        cls->setInnerClasses(classesTopologicalSorted(cls));
    }

    dumpLog();

    sortLists();

    m_currentClass = 0;

    // Functions added to the module on the type system.
    foreach (AddedFunction addedFunc, types->globalUserFunctions()) {
        AbstractMetaFunction* metaFunc = traverseFunction(addedFunc);
        metaFunc->setFunctionType(AbstractMetaFunction::NormalFunction);
        m_globalFunctions << metaFunc;
    }

    std::puts("");
    return true;
}

void AbstractMetaBuilder::setLogDirectory(const QString& logDir)
{
    m_logDirectory = logDir;
    if (!m_logDirectory.endsWith(QDir::separator()))
       m_logDirectory.append(QDir::separator());
}

void AbstractMetaBuilder::addAbstractMetaClass(AbstractMetaClass *cls)
{
    if (!cls)
        return;

    cls->setOriginalAttributes(cls->attributes());
    if (cls->typeEntry()->isContainer()) {
        m_templates << cls;
    } else {
        m_metaClasses << cls;
        if (cls->typeEntry()->designatedInterface()) {
            AbstractMetaClass* interface = cls->extractInterface();
            m_metaClasses << interface;
            ReportHandler::debugSparse(QString(" -> interface '%1'").arg(interface->name()));
        }
    }
}

AbstractMetaClass* AbstractMetaBuilder::traverseNamespace(NamespaceModelItem namespaceItem)
{
    QString namespaceName = (!m_namespacePrefix.isEmpty() ? m_namespacePrefix + "::" : QString()) + namespaceItem->name();
    NamespaceTypeEntry *type = TypeDatabase::instance()->findNamespaceType(namespaceName);

    if (TypeDatabase::instance()->isClassRejected(namespaceName)) {
        m_rejectedClasses.insert(namespaceName, GenerationDisabled);
        return 0;
    }

    if (!type) {
        ReportHandler::warning(QString("namespace '%1' does not have a type entry").arg(namespaceName));
        return 0;
    }

    AbstractMetaClass* metaClass = createMetaClass();
    metaClass->setTypeEntry(type);

    *metaClass += AbstractMetaAttributes::Public;

    m_currentClass = metaClass;

    ReportHandler::debugSparse(QString("namespace '%1.%2'")
                               .arg(metaClass->package())
                               .arg(namespaceItem->name()));

    traverseEnums(model_dynamic_cast<ScopeModelItem>(namespaceItem), metaClass, namespaceItem->enumsDeclarations());

    pushScope(model_dynamic_cast<ScopeModelItem>(namespaceItem));
    m_namespacePrefix = currentScope()->qualifiedName().join("::");

    ClassList classes = namespaceItem->classes();
    foreach (ClassModelItem cls, classes) {
        AbstractMetaClass* mjc = traverseClass(cls);
        if (mjc) {
            metaClass->addInnerClass(mjc);
            mjc->setEnclosingClass(metaClass);
            addAbstractMetaClass(mjc);
        }
    }

    // Go through all typedefs to see if we have defined any
    // specific typedefs to be used as classes.
    TypeAliasList typeAliases = namespaceItem->typeAliases();
    foreach (TypeAliasModelItem typeAlias, typeAliases) {
        AbstractMetaClass* cls = traverseTypeAlias(typeAlias);
        if (cls) {
            metaClass->addInnerClass(cls);
            cls->setEnclosingClass(metaClass);
            addAbstractMetaClass(cls);
        }
    }

    // Traverse namespaces recursively
    NamespaceList innerNamespaces = namespaceItem->namespaceMap().values();
    qSort(innerNamespaces);
    NamespaceList::iterator it = std::unique(innerNamespaces.begin(), innerNamespaces.end());
    innerNamespaces.erase(it, innerNamespaces.end());
    foreach (const NamespaceModelItem &ni, innerNamespaces) {
        AbstractMetaClass* mjc = traverseNamespace(ni);
        if (mjc) {
            metaClass->addInnerClass(mjc);
            mjc->setEnclosingClass(metaClass);
            addAbstractMetaClass(mjc);
        }
    }

    m_currentClass = 0;

    popScope();
    m_namespacePrefix = currentScope()->qualifiedName().join("::");

    if (!type->include().isValid())
        setInclude(type, namespaceItem->fileName());

    return metaClass;
}

struct Operator
{
    enum Type { Complement, Plus, ShiftRight, ShiftLeft, None };

    Operator() : type(None) {}

    int calculate(int x)
    {
        switch (type) {
        case Complement: return ~value;
        case Plus: return x + value;
        case ShiftRight: return x >> value;
        case ShiftLeft: return x << value;
        case None: return x;
        }
        return x;
    }

    Type type;
    int value;
};



Operator findOperator(QString* s)
{
    const char *names[] = {
        "~",
        "+",
        ">>",
        "<<"
    };

    for (int i = 0; i < Operator::None; ++i) {
        QString name = QLatin1String(names[i]);
        QString str = *s;
        int splitPoint = str.indexOf(name);
        if (splitPoint > -1) {
            bool ok;
            QString right = str.mid(splitPoint + name.length());
            Operator op;

            op.value = right.toInt(&ok);
            if (!ok && right.length() > 0 && right.at(right.length() - 1).toLower() == QLatin1Char('u'))
                op.value = right.left(right.length() - 1).toUInt(&ok, 0);

            if (ok) {
                op.type = Operator::Type(i);
                if (splitPoint > 0)
                    *s = str.left(splitPoint).trimmed();
                else
                    *s = QString();
                return op;
            }
        }
    }
    return Operator();
}

int AbstractMetaBuilder::figureOutEnumValue(const QString &stringValue,
                                            int oldValuevalue,
                                            AbstractMetaEnum *metaEnum,
                                            AbstractMetaFunction *metaFunction)
{
    if (stringValue.isEmpty())
        return oldValuevalue;

    QStringList stringValues = stringValue.split("|");

    int returnValue = 0;

    bool matched = false;

    for (int i = 0; i < stringValues.size(); ++i) {
        QString s = stringValues.at(i).trimmed();

        bool ok;
        int v;

        Operator op = findOperator(&s);

        if (s.length() > 0 && s.at(0) == QLatin1Char('0'))
            v = s.toUInt(&ok, 0);
        else if (s.length() > 0 && s.at(s.length() - 1).toLower() == QLatin1Char('u'))
            v = s.left(s.length() - 1).toUInt(&ok, 0);
        else
            v = s.toInt(&ok);

        if (ok || s.isEmpty()) {
            matched = true;
        } else if (m_enumValues.contains(s)) {
            v = m_enumValues[s]->value();
            matched = true;
        } else {
            if (metaEnum) {
                v = findOutValueFromString(s, matched);
                if (!matched) {
                    QString enclosingClass = QString(metaEnum->enclosingClass() ? metaEnum->enclosingClass()->name() + "::" : QString());
                    ReportHandler::warning("unhandled enum value: " + s + " in "
                                           + enclosingClass + metaEnum->name()
                                           + " from header '" + metaEnum->typeEntry()->include().name() + "'");
                }
            } else {
                ReportHandler::warning("unhandled enum value: Unknown enum");
            }
        }

        if (matched)
            returnValue |= op.calculate(v);
    }

    if (!matched) {
        QString warn = QString("unmatched enum %1").arg(stringValue);

        if (metaFunction) {
            warn += QString(" when parsing default value of '%1' in class '%2'")
                    .arg(metaFunction->name())
                    .arg(metaFunction->implementingClass()->name());
        }
        warn += " from header '" + metaEnum->typeEntry()->include().name() + "'";

        ReportHandler::warning(warn);
        returnValue = oldValuevalue;
    }

    return returnValue;
}

void AbstractMetaBuilder::figureOutEnumValuesForClass(AbstractMetaClass* metaClass,
                                                      QSet<AbstractMetaClass*>* classes)
{
    AbstractMetaClass* base = metaClass->baseClass();

    if (base && !classes->contains(base))
        figureOutEnumValuesForClass(base, classes);

    if (classes->contains(metaClass))
        return;

    AbstractMetaEnumList enums = metaClass->enums();
    foreach (AbstractMetaEnum* e, enums) {
        if (!e) {
            ReportHandler::warning("bad enum in class " + metaClass->name());
            continue;
        }
        AbstractMetaEnumValueList lst = e->values();
        int value = 0;
        for (int i = 0; i < lst.size(); ++i) {
            value = figureOutEnumValue(lst.at(i)->stringValue(), value, e);
            lst.at(i)->setValue(value);
            value++;
        }
    }

    *classes += metaClass;
}


void AbstractMetaBuilder::figureOutEnumValues()
{
    // Keep a set of classes that we already traversed. We use this to
    // enforce that we traverse base classes prior to subclasses.
    QSet<AbstractMetaClass*> classes;
    foreach (AbstractMetaClass *c, m_metaClasses)
        figureOutEnumValuesForClass(c, &classes);

    foreach (AbstractMetaEnum* metaEnum, m_globalEnums) {
        AbstractMetaEnumValueList enumValues = metaEnum->values();
        int value = 0;
        for (int i = 0; i < enumValues.size(); ++i) {
            value = figureOutEnumValue(enumValues.at(i)->stringValue(), value, metaEnum);
            enumValues.at(i)->setValue(value);
            value++;
        }
    }
}

void AbstractMetaBuilder::figureOutDefaultEnumArguments()
{
    foreach (AbstractMetaClass* metaClass, m_metaClasses) {
        foreach (AbstractMetaFunction* metaFunction, metaClass->functions()) {
            foreach (AbstractMetaArgument *arg, metaFunction->arguments()) {
                QString expr = arg->defaultValueExpression();
                if (expr.isEmpty())
                    continue;

                if (!metaFunction->replacedDefaultExpression(metaFunction->implementingClass(),
                                                             arg->argumentIndex() + 1).isEmpty()) {
                    continue;
                }

                arg->setDefaultValueExpression(expr);
            }
        }
    }
}


AbstractMetaEnum* AbstractMetaBuilder::traverseEnum(EnumModelItem enumItem, AbstractMetaClass* enclosing, const QSet<QString> &enumsDeclarations)
{
    QString qualifiedName = enumItem->qualifiedName().join("::");

    TypeEntry* typeEntry = 0;
    if (enumItem->accessPolicy() == CodeModel::Private) {
        QStringList names = enumItem->qualifiedName();
        QString enumName = names.last();
        QString nspace;
        if (names.size() > 1)
            nspace = QStringList(names.mid(0, names.size() - 1)).join("::");
        typeEntry = new EnumTypeEntry(nspace, enumName, 0);
        TypeDatabase::instance()->addType(typeEntry);
    } else if (!enumItem->isAnonymous()) {
        typeEntry = TypeDatabase::instance()->findType(qualifiedName);
    } else {
        QStringList tmpQualifiedName = enumItem->qualifiedName();
        foreach (const EnumeratorModelItem& enumValue, enumItem->enumerators()) {
            tmpQualifiedName.removeLast();
            tmpQualifiedName << enumValue->name();
            qualifiedName = tmpQualifiedName.join("::");
            typeEntry = TypeDatabase::instance()->findType(qualifiedName);
            if (typeEntry)
                break;
        }
    }

    QString enumName = enumItem->name();

    QString className;
    if (m_currentClass)
        className = m_currentClass->typeEntry()->qualifiedCppName();

    if (TypeDatabase::instance()->isEnumRejected(className, enumName)) {
        if (typeEntry)
            typeEntry->setCodeGeneration(TypeEntry::GenerateNothing);
        m_rejectedEnums.insert(qualifiedName, GenerationDisabled);
        return 0;
    }

    if (!typeEntry || !typeEntry->isEnum()) {
        ReportHandler::warning(QString("enum '%1' does not have a type entry or is not an enum")
                               .arg(qualifiedName));
        m_rejectedEnums.insert(qualifiedName, NotInTypeSystem);
        return 0;
    }

    AbstractMetaEnum* metaEnum = createMetaEnum();
    if (enumsDeclarations.contains(qualifiedName)
        || enumsDeclarations.contains(enumName)) {
        metaEnum->setHasQEnumsDeclaration(true);
    }

    metaEnum->setTypeEntry((EnumTypeEntry*) typeEntry);
    switch (enumItem->accessPolicy()) {
    case CodeModel::Public:
        *metaEnum += AbstractMetaAttributes::Public;
        break;
    case CodeModel::Protected:
        *metaEnum += AbstractMetaAttributes::Protected;
        break;
    case CodeModel::Private:
        *metaEnum += AbstractMetaAttributes::Private;
        typeEntry->setCodeGeneration(TypeEntry::GenerateNothing);
        break;
    default:
        break;
    }

    ReportHandler::debugMedium(QString(" - traversing enum %1").arg(metaEnum->fullName()));

    foreach (EnumeratorModelItem value, enumItem->enumerators()) {

        AbstractMetaEnumValue* metaEnumValue = createMetaEnumValue();
        metaEnumValue->setName(value->name());
        // Deciding the enum value...

        metaEnumValue->setStringValue(value->value());
        metaEnum->addEnumValue(metaEnumValue);

        ReportHandler::debugFull("   - " + metaEnumValue->name() + " = "
                                 + metaEnumValue->value());

        // Add into global register...
        if (enclosing)
            m_enumValues[enclosing->name() + "::" + metaEnumValue->name()] = metaEnumValue;
        else
            m_enumValues[metaEnumValue->name()] = metaEnumValue;
    }

    m_enums << metaEnum;

    if (!metaEnum->typeEntry()->include().isValid())
        setInclude(metaEnum->typeEntry(), enumItem->fileName());

    metaEnum->setOriginalAttributes(metaEnum->attributes());

    // Register all enum values on Type database
    foreach(EnumeratorModelItem e, enumItem->enumerators()) {
        QString name;
        if (enclosing) {
            name += enclosing->name();
            name += "::";
        }
        name += e->name();
        EnumValueTypeEntry* enumValue = new EnumValueTypeEntry(name, e->value(), static_cast<EnumTypeEntry*>(typeEntry), typeEntry->version());
        TypeDatabase::instance()->addType(enumValue);
    }

    return metaEnum;
}

AbstractMetaClass* AbstractMetaBuilder::traverseTypeAlias(TypeAliasModelItem typeAlias)
{
    TypeDatabase* types = TypeDatabase::instance();
    QString className = stripTemplateArgs(typeAlias->name());

    QString fullClassName = className;
    // we have an inner class
    if (m_currentClass) {
        fullClassName = stripTemplateArgs(m_currentClass->typeEntry()->qualifiedCppName())
                          + "::" + fullClassName;
    }

    // If this is the alias for a primitive type
    // we store the aliased type on the alias
    // TypeEntry
    PrimitiveTypeEntry* ptype = types->findPrimitiveType(className);
    if (ptype) {
        QString typeAliasName = typeAlias->type().qualifiedName()[0];
        ptype->setAliasedTypeEntry(types->findPrimitiveType(typeAliasName));
        return 0;
    }


    // If we haven't specified anything for the typedef, then we don't care
    ComplexTypeEntry* type = types->findComplexType(fullClassName);
    if (!type)
        return 0;

    if (type->isObject())
        static_cast<ObjectTypeEntry *>(type)->setQObject(isQObject(stripTemplateArgs(typeAlias->type().qualifiedName().join("::"))));

    AbstractMetaClass *metaClass = createMetaClass();
    metaClass->setTypeAlias(true);
    metaClass->setTypeEntry(type);
    metaClass->setBaseClassNames(QStringList() << typeAlias->type().qualifiedName().join("::"));
    *metaClass += AbstractMetaAttributes::Public;

    // Set the default include file name
    if (!type->include().isValid())
        setInclude(type, typeAlias->fileName());

    fillAddedFunctions(metaClass);

    return metaClass;
}

AbstractMetaClass* AbstractMetaBuilder::traverseClass(ClassModelItem classItem)
{
    QString className = stripTemplateArgs(classItem->name());
    QString fullClassName = className;

    // we have inner an class
    if (m_currentClass) {
        fullClassName = stripTemplateArgs(m_currentClass->typeEntry()->qualifiedCppName())
                          + "::" + fullClassName;
    }

    ComplexTypeEntry* type = TypeDatabase::instance()->findComplexType(fullClassName);
    RejectReason reason = NoReason;

    if (fullClassName == "QMetaTypeId") {
        // QtScript: record which types have been declared
        int lpos = classItem->name().indexOf('<');
        int rpos = classItem->name().lastIndexOf('>');
        if ((lpos != -1) && (rpos != -1)) {
            QString declaredTypename = classItem->name().mid(lpos + 1, rpos - lpos - 1);
            m_qmetatypeDeclaredTypenames.insert(declaredTypename);
        }
    }

    if (TypeDatabase::instance()->isClassRejected(fullClassName)) {
        reason = GenerationDisabled;
    } else if (!type) {
        TypeEntry *te = TypeDatabase::instance()->findType(fullClassName);
        if (te && !te->isComplex())
            reason = RedefinedToNotClass;
        else
            reason = NotInTypeSystem;
    } else if (type->codeGeneration() == TypeEntry::GenerateNothing) {
        reason = GenerationDisabled;
    }
    if (reason != NoReason) {
        m_rejectedClasses.insert(fullClassName, reason);
        return 0;
    }

    if (type->isObject())
        ((ObjectTypeEntry*)type)->setQObject(isQObject(fullClassName));

    AbstractMetaClass* metaClass = createMetaClass();
    metaClass->setTypeEntry(type);
    metaClass->setBaseClassNames(classItem->baseClasses());
    *metaClass += AbstractMetaAttributes::Public;
    if (type->stream())
        metaClass->setStream(true);

    AbstractMetaClass* oldCurrentClass = m_currentClass;
    m_currentClass = metaClass;

    if (type->isContainer())
        ReportHandler::debugSparse(QString("container: '%1'").arg(fullClassName));
    else
        ReportHandler::debugSparse(QString("class: '%1'").arg(metaClass->fullName()));

    TemplateParameterList template_parameters = classItem->templateParameters();
    QList<TypeEntry *> template_args;
    template_args.clear();
    for (int i = 0; i < template_parameters.size(); ++i) {
        const TemplateParameterModelItem &param = template_parameters.at(i);
        TemplateArgumentEntry *param_type = new TemplateArgumentEntry(param->name(), type->version());
        param_type->setOrdinal(i);
        template_args.append(param_type);
    }
    metaClass->setTemplateArguments(template_args);

    parseQ_Property(metaClass, classItem->propertyDeclarations());

    traverseEnums(model_dynamic_cast<ScopeModelItem>(classItem), metaClass, classItem->enumsDeclarations());

    // Inner classes
    {
        QList<ClassModelItem> innerClasses = classItem->classMap().values();
        foreach (const ClassModelItem &ci, innerClasses) {
            AbstractMetaClass *cl = traverseClass(ci);
            if (cl) {
                cl->setEnclosingClass(metaClass);
                metaClass->addInnerClass(cl);
                m_metaClasses << cl;
            }
        }

    }

    // Go through all typedefs to see if we have defined any
    // specific typedefs to be used as classes.
    TypeAliasList typeAliases = classItem->typeAliases();
    foreach (TypeAliasModelItem typeAlias, typeAliases) {
        AbstractMetaClass* cls = traverseTypeAlias(typeAlias);
        if (cls) {
            cls->setEnclosingClass(metaClass);
            addAbstractMetaClass(cls);
        }
    }


    m_currentClass = oldCurrentClass;

    // Set the default include file name
    if (!type->include().isValid())
        setInclude(type, classItem->fileName());

    return metaClass;
}

void AbstractMetaBuilder::traverseScopeMembers(ScopeModelItem item, AbstractMetaClass* metaClass)
{
    // Classes/Namespace members
    traverseFields(item, metaClass);
    traverseFunctions(item, metaClass);

    // Inner classes
    ClassList innerClasses = item->classMap().values();
    qSort(innerClasses);
    ClassList::iterator it = std::unique(innerClasses.begin(), innerClasses.end());
    innerClasses.erase(it, innerClasses.end());
    foreach (const ClassModelItem& ci, innerClasses)
        traverseClassMembers(ci);
}

AbstractMetaClass* AbstractMetaBuilder::currentTraversedClass(ScopeModelItem item)
{
    QString className = stripTemplateArgs(item->name());
    QString fullClassName = className;

    // This is an inner class
    if (m_currentClass)
        fullClassName = stripTemplateArgs(m_currentClass->typeEntry()->qualifiedCppName()) + "::" + fullClassName;

    AbstractMetaClass* metaClass = m_metaClasses.findClass(fullClassName);
    if (!metaClass)
        metaClass = m_templates.findClass(fullClassName);
    return metaClass;
}

void AbstractMetaBuilder::traverseClassMembers(ClassModelItem item)
{
    AbstractMetaClass* metaClass = currentTraversedClass(model_dynamic_cast<ScopeModelItem>(item));
    if (!metaClass)
        return;

    AbstractMetaClass* oldCurrentClass = m_currentClass;
    m_currentClass = metaClass;

    // Class members
    traverseScopeMembers(model_dynamic_cast<ScopeModelItem>(item), metaClass);

    m_currentClass = oldCurrentClass;
}

void AbstractMetaBuilder::traverseNamespaceMembers(NamespaceModelItem item)
{
    AbstractMetaClass* metaClass = currentTraversedClass(model_dynamic_cast<ScopeModelItem>(item));
    if (!metaClass)
        return;

    AbstractMetaClass* oldCurrentClass = m_currentClass;
    m_currentClass = metaClass;

    // Namespace members
    traverseScopeMembers(model_dynamic_cast<ScopeModelItem>(item), metaClass);

    // Inner namespaces
    NamespaceList innerNamespaces = item->namespaceMap().values();
    qSort(innerNamespaces);
    NamespaceList::iterator it = std::unique(innerNamespaces.begin(), innerNamespaces.end());
    innerNamespaces.erase(it, innerNamespaces.end());
    foreach (const NamespaceModelItem &ni, innerNamespaces)
        traverseNamespaceMembers(ni);

    m_currentClass = oldCurrentClass;
}

AbstractMetaField* AbstractMetaBuilder::traverseField(VariableModelItem field, const AbstractMetaClass *cls)
{
    QString fieldName = field->name();
    QString className = m_currentClass->typeEntry()->qualifiedCppName();

    // Ignore friend decl.
    if (field->isFriend())
        return 0;

    if (field->accessPolicy() == CodeModel::Private)
        return 0;

    if (TypeDatabase::instance()->isFieldRejected(className, fieldName)) {
        m_rejectedFields.insert(className + "::" + fieldName, GenerationDisabled);
        return 0;
    }


    AbstractMetaField* metaField = createMetaField();
    metaField->setName(fieldName);
    metaField->setEnclosingClass(cls);

    bool ok;
    TypeInfo fieldType = field->type();
    AbstractMetaType *metaType = translateType(fieldType, &ok);

    if (!metaType || !ok) {
        ReportHandler::warning(QString("skipping field '%1::%2' with unmatched type '%3'")
                               .arg(m_currentClass->name())
                               .arg(fieldName)
                               .arg(TypeInfo::resolveType(fieldType, currentScope()->toItem()).qualifiedName().join("::")));
        delete metaField;
        return 0;
    }

    metaField->setType(metaType);

    uint attr = 0;
    if (field->isStatic())
        attr |= AbstractMetaAttributes::Static;

    CodeModel::AccessPolicy policy = field->accessPolicy();
    if (policy == CodeModel::Public)
        attr |= AbstractMetaAttributes::Public;
    else if (policy == CodeModel::Protected)
        attr |= AbstractMetaAttributes::Protected;
    else
        attr |= AbstractMetaAttributes::Private;
    metaField->setAttributes(attr);

    return metaField;
}

void AbstractMetaBuilder::traverseFields(ScopeModelItem scope_item, AbstractMetaClass *metaClass)
{
    foreach (VariableModelItem field, scope_item->variables()) {
        AbstractMetaField* metaField = traverseField(field, metaClass);

        if (metaField && !metaField->isModifiedRemoved()) {
            metaField->setOriginalAttributes(metaField->attributes());
            metaClass->addField(metaField);
        }
    }
}

void AbstractMetaBuilder::setupFunctionDefaults(AbstractMetaFunction* metaFunction, AbstractMetaClass *metaClass)
{
    // Set the default value of the declaring class. This may be changed
    // in fixFunctions later on
    metaFunction->setDeclaringClass(metaClass);

    // Some of the queries below depend on the implementing class being set
    // to function properly. Such as function modifications
    metaFunction->setImplementingClass(metaClass);

    if (metaFunction->name() == "operator_equal")
        metaClass->setHasEqualsOperator(true);

    if (!metaFunction->isFinalInTargetLang()
        && metaFunction->isRemovedFrom(metaClass, TypeSystem::TargetLangCode)) {
        *metaFunction += AbstractMetaAttributes::FinalInCpp;
    }
}

void AbstractMetaBuilder::fixReturnTypeOfConversionOperator(AbstractMetaFunction* metaFunction)
{
    if (!metaFunction->isConversionOperator()
        || metaFunction->implementingClass()->typeEntry() != metaFunction->type()->typeEntry())
        return;

    TypeDatabase* types = TypeDatabase::instance();
    QString castTo = metaFunction->name().remove(QRegExp("^operator ")).trimmed();

    if (castTo.endsWith('&'))
        castTo.chop(1);
    if (castTo.startsWith("const "))
        castTo.remove(0, 6);

    TypeEntry* retType = types->findType(castTo);
    if (!retType)
        return;

    AbstractMetaType* metaType = createMetaType();
    metaType->setTypeEntry(retType);
    metaFunction->replaceType(metaType);
}

static bool _compareAbstractMetaTypes(const AbstractMetaType* type, const AbstractMetaType* other)
{
    if (!type && !other)
        return true;
    if (!type || !other)
        return false;
    return type->typeEntry() == other->typeEntry()
            && type->isConstant() == other->isConstant()
            && type->isReference() == other->isReference()
            && type->indirections() == other->indirections();
}

static bool _compareAbstractMetaFunctions(const AbstractMetaFunction* func, const AbstractMetaFunction* other)
{
    if (!func && !other)
        return true;
    if (!func || !other)
        return false;
    if (func->arguments().count() != other->arguments().count()
        || func->isConstant() != other->isConstant()
        || func->isStatic() != other->isStatic()
        || !_compareAbstractMetaTypes(func->type(), other->type())) {
        return false;
    }
    for (int i = 0; i < func->arguments().count(); ++i) {
        if (!_compareAbstractMetaTypes(func->arguments().at(i)->type(), other->arguments().at(i)->type()))
            return false;
    }
    return true;
}

static bool _fixFunctionModelItemType(TypeInfo& type, const AbstractMetaClass* metaClass)
{
    if (metaClass->templateArguments().isEmpty()
        || type.qualifiedName().isEmpty()
        || type.qualifiedName().first() != metaClass->typeEntry()->qualifiedCppName()) {
        return false;
    }
    QStringList templateTypes;
    foreach (TypeEntry* templateType, metaClass->templateArguments())
        templateTypes << templateType->qualifiedCppName();
    QString fixedTypeName = QString("%1<%2 >").arg(metaClass->typeEntry()->qualifiedCppName()).arg(templateTypes.join(", "));
    type.setQualifiedName(QStringList(fixedTypeName));
    return true;
}

static bool _fixFunctionModelItemTypes(FunctionModelItem& function, const AbstractMetaClass* metaClass)
{
    TypeInfo functionType = function->type();
    bool templateTypeFixed = _fixFunctionModelItemType(functionType, metaClass);
    if (templateTypeFixed)
        function->setType(functionType);

    ArgumentList arguments = function->arguments();
    for (int i = 0; i < arguments.size(); ++i) {
        ArgumentModelItem arg = arguments.at(i);
        TypeInfo type = arg->type();
        bool tmpTypeFixed = _fixFunctionModelItemType(type, metaClass);
        if (tmpTypeFixed)
            arg->setType(type);
        templateTypeFixed |= tmpTypeFixed;
    }
    return templateTypeFixed;
}

void AbstractMetaBuilder::traverseFunctions(ScopeModelItem scopeItem, AbstractMetaClass* metaClass)
{
    foreach (FunctionModelItem function, scopeItem->functions()) {

        // This fixes method's arguments and return types that are templates
        // but the template variable wasn't declared in the C++ header.
        bool templateTypeFixed = _fixFunctionModelItemTypes(function, metaClass);

        AbstractMetaFunction* metaFunction = traverseFunction(function);

        if (!metaFunction)
            continue;

        if (templateTypeFixed) {
            foreach (AbstractMetaFunction* func, metaClass->queryFunctionsByName(metaFunction->name())) {
                if (_compareAbstractMetaFunctions(metaFunction, func)) {
                    delete metaFunction;
                    metaFunction = 0;
                    break;
                }
            }
            if (!metaFunction)
                continue;
        }

        metaFunction->setOriginalAttributes(metaFunction->attributes());
        if (metaClass->isNamespace())
            *metaFunction += AbstractMetaAttributes::Static;

        QPropertySpec *read = 0;
        if (!metaFunction->isSignal() && (read = metaClass->propertySpecForRead(metaFunction->name()))) {
            // Property reader must be in the form "<type> name()"
            if (metaFunction->type() && (read->type() == metaFunction->type()->typeEntry()) && (metaFunction->arguments().size() == 0)) {
                *metaFunction += AbstractMetaAttributes::PropertyReader;
                metaFunction->setPropertySpec(read);
            }
        } else if (QPropertySpec* write = metaClass->propertySpecForWrite(metaFunction->name())) {
            // Property setter must be in the form "void name(<type>)"
            // make sure the function was created with all aguments, some argument can be missing during the pareser because of errors on typesystem
            if ((!metaFunction->type()) && (metaFunction->arguments().size() == 1) && (write->type() == metaFunction->arguments().at(0)->type()->typeEntry())) {
                *metaFunction += AbstractMetaAttributes::PropertyWriter;
                metaFunction->setPropertySpec(write);
            }
        } else if (QPropertySpec* reset = metaClass->propertySpecForReset(metaFunction->name())) {
            // Property resetter must be in the form "void name()"
            if ((!metaFunction->type()) && (metaFunction->arguments().size() == 0)) {
                *metaFunction += AbstractMetaAttributes::PropertyResetter;
                metaFunction->setPropertySpec(reset);
            }
        }

        // Can not use metaFunction->isCopyConstructor() because
        // the function wasn't assigned to its owner class yet.
        bool isCopyCtor = false;
        if (metaFunction->isConstructor() && metaFunction->arguments().size() == 1) {
            const AbstractMetaType* argType = metaFunction->arguments().first()->type();
            isCopyCtor = argType->isConstant()
                         && argType->isReference()
                         && argType->typeEntry()->name() == metaFunction->name();
        }

        bool isInvalidDestructor = metaFunction->isDestructor() && metaFunction->isPrivate();
        bool isInvalidConstructor = metaFunction->isConstructor()
                                    && ((metaFunction->isPrivate() && !isCopyCtor) || metaFunction->isInvalid());

        if ((isInvalidDestructor || isInvalidConstructor)
            && !metaClass->hasNonPrivateConstructor()) {
            *metaClass += AbstractMetaAttributes::Final;
        } else if (metaFunction->isConstructor() && !metaFunction->isPrivate()) {
            *metaClass -= AbstractMetaAttributes::Final;
            metaClass->setHasNonPrivateConstructor(true);
        }

        // Classes with virtual destructors should always have a shell class
        // (since we aren't registering the destructors, we need this extra check)
        if (metaFunction->isDestructor() && !metaFunction->isFinal())
            metaClass->setForceShellClass(true);

        if (!metaFunction->isDestructor()
            && !metaFunction->isInvalid()
            && !(metaFunction->isPrivate() && metaFunction->isConstructor() && !isCopyCtor)) {

            setupFunctionDefaults(metaFunction, metaClass);

            if (metaFunction->isSignal() && metaClass->hasSignal(metaFunction)) {
                QString warn = QString("signal '%1' in class '%2' is overloaded.")
                               .arg(metaFunction->name()).arg(metaClass->name());
                ReportHandler::warning(warn);
            }

            if (metaFunction->isSignal() && !metaClass->isQObject()) {
                QString warn = QString("signal '%1' in non-QObject class '%2'")
                               .arg(metaFunction->name()).arg(metaClass->name());
                ReportHandler::warning(warn);
            }

            if (metaFunction->isConversionOperator())
                fixReturnTypeOfConversionOperator(metaFunction);

            metaClass->addFunction(metaFunction);
            applyFunctionModifications(metaFunction);
        } else if (metaFunction->isDestructor()) {
            metaClass->setHasPrivateDestructor(metaFunction->isPrivate());
            metaClass->setHasProtectedDestructor(metaFunction->isProtected());
            metaClass->setHasVirtualDestructor(metaFunction->isVirtual());
        }
        if (!metaFunction->ownerClass()) {
            delete metaFunction;
            metaFunction = 0;
        }
    }

    fillAddedFunctions(metaClass);
}

void AbstractMetaBuilder::fillAddedFunctions(AbstractMetaClass* metaClass)
{
    // Add the functions added by the typesystem
    foreach (AddedFunction addedFunc, metaClass->typeEntry()->addedFunctions())
        traverseFunction(addedFunc, metaClass);
}

void AbstractMetaBuilder::applyFunctionModifications(AbstractMetaFunction* func)
{
    FunctionModificationList mods = func->modifications(func->implementingClass());
    AbstractMetaFunction& funcRef = *func;
    foreach (FunctionModification mod, mods) {
        if (mod.isRenameModifier()) {
            func->setOriginalName(func->name());
            func->setName(mod.renamedTo());
        } else if (mod.isAccessModifier()) {
            funcRef -= AbstractMetaAttributes::Public;
            funcRef -= AbstractMetaAttributes::Protected;
            funcRef -= AbstractMetaAttributes::Private;
            funcRef -= AbstractMetaAttributes::Friendly;

            if (mod.isPublic())
                funcRef += AbstractMetaAttributes::Public;
            else if (mod.isProtected())
                funcRef += AbstractMetaAttributes::Protected;
            else if (mod.isPrivate())
                funcRef += AbstractMetaAttributes::Private;
            else if (mod.isFriendly())
                funcRef += AbstractMetaAttributes::Friendly;
        }

        if (mod.isFinal())
            funcRef += AbstractMetaAttributes::FinalInTargetLang;
        else if (mod.isNonFinal())
            funcRef -= AbstractMetaAttributes::FinalInTargetLang;
    }
}

bool AbstractMetaBuilder::setupInheritance(AbstractMetaClass *metaClass)
{
    Q_ASSERT(!metaClass->isInterface());

    if (m_setupInheritanceDone.contains(metaClass))
        return true;

    m_setupInheritanceDone.insert(metaClass);

    QStringList baseClasses = metaClass->baseClassNames();

    TypeDatabase* types = TypeDatabase::instance();

    // we only support our own containers and ONLY if there is only one baseclass
    if (baseClasses.size() == 1 && baseClasses.first().count('<') == 1) {
        QStringList scope = metaClass->typeEntry()->qualifiedCppName().split("::");
        scope.removeLast();
        for (int i = scope.size(); i >= 0; --i) {
            QString prefix = i > 0 ? QStringList(scope.mid(0, i)).join("::") + "::" : QString();
            QString completeName = prefix + baseClasses.first();
            TypeParser::Info info = TypeParser::parse(completeName);
            QString baseName = info.qualified_name.join("::");

            AbstractMetaClass* templ = 0;
            foreach (AbstractMetaClass *c, m_templates) {
                if (c->typeEntry()->name() == baseName) {
                    templ = c;
                    break;
                }
            }

            if (!templ)
                templ = m_metaClasses.findClass(baseName);

            if (templ) {
                setupInheritance(templ);
                inheritTemplate(metaClass, templ, info);
                metaClass->typeEntry()->setBaseContainerType(templ->typeEntry());
                return true;
            }
            ComplexTypeEntry* baseContainerType = types->findContainerType(baseName);
            if (baseContainerType)
                metaClass->typeEntry()->setBaseContainerType(baseContainerType);
        }

        ReportHandler::warning(QString("template baseclass '%1' of '%2' is not known")
                               .arg(baseClasses.first())
                               .arg(metaClass->name()));
        return false;
    }

    int primary = -1;
    int primaries = 0;
    for (int i = 0; i < baseClasses.size(); ++i) {

        if (types->isClassRejected(baseClasses.at(i)))
            continue;

        TypeEntry* baseClassEntry = types->findType(baseClasses.at(i));
        if (!baseClassEntry)
            ReportHandler::warning(QString("class '%1' inherits from unknown base class '%2'")
                                   .arg(metaClass->name()).arg(baseClasses.at(i)));

        // true for primary base class
        else if (!baseClassEntry->designatedInterface()) {
            primaries++;
            primary = i;
        }
    }

    if (primary >= 0) {
        AbstractMetaClass* baseClass = m_metaClasses.findClass(baseClasses.at(primary));
        if (!baseClass) {
            ReportHandler::warning(QString("unknown baseclass for '%1': '%2'")
                                   .arg(metaClass->name())
                                   .arg(baseClasses.at(primary)));
            return false;
        }
        metaClass->setBaseClass(baseClass);
    }

    for (int i = 0; i < baseClasses.size(); ++i) {
        if (types->isClassRejected(baseClasses.at(i)))
            continue;

        if (i != primary) {
            AbstractMetaClass* baseClass = m_metaClasses.findClass(baseClasses.at(i));
            if (!baseClass) {
                ReportHandler::warning(QString("class not found for setup inheritance '%1'").arg(baseClasses.at(i)));
                return false;
            }

            setupInheritance(baseClass);

            QString interfaceName = baseClass->isInterface() ? InterfaceTypeEntry::interfaceName(baseClass->name()) : baseClass->name();
            AbstractMetaClass* iface = m_metaClasses.findClass(interfaceName);
            if (!iface) {
                ReportHandler::warning(QString("unknown interface for '%1': '%2'")
                                       .arg(metaClass->name())
                                       .arg(interfaceName));
                return false;
            }
            metaClass->addInterface(iface);

            AbstractMetaClassList interfaces = iface->interfaces();
            foreach (AbstractMetaClass* iface, interfaces)
                metaClass->addInterface(iface);
        }
    }

    return true;
}

void AbstractMetaBuilder::traverseEnums(ScopeModelItem scopeItem, AbstractMetaClass* metaClass, const QStringList &enumsDeclarations)
{
    EnumList enums = scopeItem->enums();
    foreach (EnumModelItem enumItem, enums) {
        AbstractMetaEnum* metaEnum = traverseEnum(enumItem, metaClass, QSet<QString>::fromList(enumsDeclarations));
        if (metaEnum) {
            metaClass->addEnum(metaEnum);
            metaEnum->setEnclosingClass(metaClass);
        }
    }
}

AbstractMetaFunction* AbstractMetaBuilder::traverseFunction(const AddedFunction& addedFunc)
{
    return traverseFunction(addedFunc, 0);
}

AbstractMetaFunction* AbstractMetaBuilder::traverseFunction(const AddedFunction& addedFunc, AbstractMetaClass* metaClass)
{
    AbstractMetaFunction* metaFunction = createMetaFunction();
    metaFunction->setConstant(addedFunc.isConstant());
    metaFunction->setName(addedFunc.name());
    metaFunction->setOriginalName(addedFunc.name());
    int visibility = addedFunc.access() == AddedFunction::Public ? AbstractMetaAttributes::Public : AbstractMetaAttributes::Protected;
    metaFunction->setVisibility(visibility);
    metaFunction->setUserAdded(true);
    AbstractMetaAttributes::Attribute isStatic = addedFunc.isStatic() ? AbstractMetaFunction::Static : AbstractMetaFunction::None;
    metaFunction->setAttributes(metaFunction->attributes() | AbstractMetaAttributes::Final | isStatic);
    metaFunction->setType(translateType(addedFunc.version(), addedFunc.returnType()));


    QList<AddedFunction::TypeInfo> args = addedFunc.arguments();
    AbstractMetaArgumentList metaArguments;

    for (int i = 0; i < args.count(); ++i) {
        AddedFunction::TypeInfo& typeInfo = args[i];
        AbstractMetaArgument* metaArg = createMetaArgument();
        AbstractMetaType* type = translateType(addedFunc.version(), typeInfo);
        decideUsagePattern(type);
        metaArg->setType(type);
        metaArg->setArgumentIndex(i);
        metaArg->setDefaultValueExpression(typeInfo.defaultValue);
        metaArg->setOriginalDefaultValueExpression(typeInfo.defaultValue);
        metaArguments.append(metaArg);
    }

    metaFunction->setArguments(metaArguments);
    if (metaFunction->isOperatorOverload() && !metaFunction->isCallOperator()) {
        if (metaArguments.size() > 2) {
            ReportHandler::warning("An operator overload need to have 0, 1 or 2 arguments if it's reverse.");
        } else if (metaArguments.size() == 2) {
            // Check if it's a reverse operator
            if (metaArguments[1]->type()->typeEntry() == metaClass->typeEntry()) {
                metaFunction->setReverseOperator(true);
                // we need to call these two function to cache the old signature (with two args)
                // we do this buggy behaviour to comply with the original apiextractor buggy behaviour.
                metaFunction->signature();
                metaFunction->minimalSignature();
                metaArguments.removeLast();
                metaFunction->setArguments(metaArguments);
            } else {
                ReportHandler::warning("Operator overload can have two arguments only if it's a reverse operator!");
            }
        }
    }


    // Find the correct default values
    for (int i = 0; i < metaArguments.size(); ++i) {
        AbstractMetaArgument* metaArg = metaArguments.at(i);

        //use relace-default-expression for set default value
        QString replacedExpression;
        if (m_currentClass)
            replacedExpression = metaFunction->replacedDefaultExpression(m_currentClass, i + 1);

        if (!replacedExpression.isEmpty()) {
            QString expr = replacedExpression;
            if (!metaFunction->removedDefaultExpression(m_currentClass, i + 1)) {
                metaArg->setDefaultValueExpression(expr);
                metaArg->setOriginalDefaultValueExpression(expr);

                if (metaArg->type()->isEnum() || metaArg->type()->isFlags())
                    m_enumDefaultArguments << QPair<AbstractMetaArgument*, AbstractMetaFunction*>(metaArg, metaFunction);
            }
        }
    }

    metaFunction->setOriginalAttributes(metaFunction->attributes());
    fixArgumentNames(metaFunction);

    if (metaClass) {
        const AbstractMetaArgumentList fargs = metaFunction->arguments();
        if (metaClass->isNamespace())
            *metaFunction += AbstractMetaFunction::Static;
        if (metaFunction->name() == metaClass->name()) {
            metaFunction->setFunctionType(AbstractMetaFunction::ConstructorFunction);
            if (fargs.size() == 1 && fargs.first()->type()->typeEntry()->isCustom())
                metaFunction->setExplicit(true);
        } else {
            metaFunction->setFunctionType(AbstractMetaFunction::NormalFunction);
        }

        metaFunction->setDeclaringClass(metaClass);
        metaFunction->setImplementingClass(metaClass);
        metaClass->addFunction(metaFunction);
        metaClass->setHasNonPrivateConstructor(true);
    }

    return metaFunction;
}

void AbstractMetaBuilder::fixArgumentNames(AbstractMetaFunction* func)
{
    if (func->arguments().isEmpty())
        return;
    foreach (FunctionModification mod, func->modifications(m_currentClass)) {
        foreach (ArgumentModification argMod, mod.argument_mods) {
            if (!argMod.renamed_to.isEmpty()) {
                AbstractMetaArgument* arg = func->arguments().at(argMod.index - 1);
                arg->setOriginalName(arg->name());
                arg->setName(argMod.renamed_to, false);
            }
        }
    }

    int i = 1;
    foreach (AbstractMetaArgument* arg, func->arguments()) {
        if (arg->name().isEmpty())
            arg->setName("arg__" + QString::number(i), false);
        ++i;
    }
}

AbstractMetaFunction* AbstractMetaBuilder::traverseFunction(FunctionModelItem functionItem)
{
    QString functionName = functionItem->name();
    QString className;
    if (m_currentClass)
        className = m_currentClass->typeEntry()->qualifiedCppName();

    if (TypeDatabase::instance()->isFunctionRejected(className, functionName)) {
        m_rejectedFunctions.insert(className + "::" + functionName, GenerationDisabled);
        return 0;
    }

    Q_ASSERT(functionItem->functionType() == CodeModel::Normal
             || functionItem->functionType() == CodeModel::Signal
             || functionItem->functionType() == CodeModel::Slot);

    if (functionItem->isFriend())
        return 0;

    AbstractMetaFunction* metaFunction = createMetaFunction();
    metaFunction->setConstant(functionItem->isConstant());

    ReportHandler::debugMedium(QString(" - %2()").arg(functionName));

    metaFunction->setName(functionName);
    metaFunction->setOriginalName(functionItem->name());

    if (functionItem->isAbstract())
        *metaFunction += AbstractMetaAttributes::Abstract;

    if (!metaFunction->isAbstract())
        *metaFunction += AbstractMetaAttributes::Native;

    if (!functionItem->isVirtual())
        *metaFunction += AbstractMetaAttributes::Final;

    if (functionItem->isInvokable())
        *metaFunction += AbstractMetaAttributes::Invokable;

    if (functionItem->isStatic()) {
        *metaFunction += AbstractMetaAttributes::Static;
        *metaFunction += AbstractMetaAttributes::Final;
    }

    // Access rights
    if (functionItem->accessPolicy() == CodeModel::Public)
        *metaFunction += AbstractMetaAttributes::Public;
    else if (functionItem->accessPolicy() == CodeModel::Private)
        *metaFunction += AbstractMetaAttributes::Private;
    else
        *metaFunction += AbstractMetaAttributes::Protected;


    QString strippedClassName = className;
    int cc_pos = strippedClassName.lastIndexOf("::");
    if (cc_pos > 0)
        strippedClassName = strippedClassName.mid(cc_pos + 2);

    TypeInfo functionType = functionItem->type();
    if (functionName.startsWith('~')) {
        metaFunction->setFunctionType(AbstractMetaFunction::DestructorFunction);
        metaFunction->setInvalid(true);
    } else if (stripTemplateArgs(functionName) == strippedClassName) {
        metaFunction->setFunctionType(AbstractMetaFunction::ConstructorFunction);
        metaFunction->setExplicit(functionItem->isExplicit());
        metaFunction->setName(m_currentClass->name());
    } else {
        bool ok;
        AbstractMetaType* type = translateType(functionType, &ok);

        if (!ok) {
            Q_ASSERT(type == 0);
            ReportHandler::warning(QString("skipping function '%1::%2', unmatched return type '%3'")
                                   .arg(className)
                                   .arg(functionItem->name())
                                   .arg(functionItem->type().toString()));
            m_rejectedFunctions[className + "::" + functionName] =
                UnmatchedReturnType;
            metaFunction->setInvalid(true);
            return metaFunction;
        }

        metaFunction->setType(type);

        if (functionItem->functionType() == CodeModel::Signal)
            metaFunction->setFunctionType(AbstractMetaFunction::SignalFunction);
        else if (functionItem->functionType() == CodeModel::Slot)
            metaFunction->setFunctionType(AbstractMetaFunction::SlotFunction);
    }

    ArgumentList arguments = functionItem->arguments();

    if (arguments.size() == 1) {
        ArgumentModelItem arg = arguments.at(0);
        TypeInfo type = arg->type();
        if (type.qualifiedName().first() == "void" && type.indirections() == 0)
            delete arguments.takeFirst();
    }

    AbstractMetaArgumentList metaArguments;

    for (int i = 0; i < arguments.size(); ++i) {
        ArgumentModelItem arg = arguments.at(i);

        bool ok;
        AbstractMetaType* metaType = translateType(arg->type(), &ok);
        if (!ok) {
            Q_ASSERT(metaType == 0);
            ReportHandler::warning(QString("skipping function '%1::%2', "
                                           "unmatched parameter type '%3'")
                                   .arg(className)
                                   .arg(functionItem->name())
                                   .arg(arg->type().toString()));
            m_rejectedFunctions[className + "::" + functionName] =
                UnmatchedArgumentType;
            metaFunction->setInvalid(true);
            return metaFunction;
        }

        AbstractMetaArgument* metaArgument = createMetaArgument();

        metaArgument->setType(metaType);
        metaArgument->setName(arg->name());
        metaArgument->setArgumentIndex(i);
        metaArguments << metaArgument;
    }

    metaFunction->setArguments(metaArguments);

    // Find the correct default values
    for (int i = 0; i < arguments.size(); ++i) {
        ArgumentModelItem arg = arguments.at(i);
        AbstractMetaArgument* metaArg = metaArguments.at(i);

        //use relace-default-expression for set default value
        QString replacedExpression;
        if (m_currentClass) {
            replacedExpression = metaFunction->replacedDefaultExpression(m_currentClass, i + 1);
        } else {
            FunctionModificationList mods = TypeDatabase::instance()->functionModifications(metaFunction->minimalSignature());
            if (!mods.isEmpty()) {
                QList<ArgumentModification> argMods = mods.first().argument_mods;
                if (!argMods.isEmpty())
                    replacedExpression = argMods.first().replacedDefaultExpression;
            }
        }

        bool hasDefaultValue = false;
        if (arg->defaultValue() || !replacedExpression.isEmpty()) {
            QString expr = arg->defaultValueExpression();
            expr = fixDefaultValue(arg, metaArg->type(), metaFunction, m_currentClass, i);
            metaArg->setOriginalDefaultValueExpression(expr);

            if (metaFunction->removedDefaultExpression(m_currentClass, i + 1)) {
                expr = "";
            } else if (!replacedExpression.isEmpty()) {
                expr = replacedExpression;
            }
            metaArg->setDefaultValueExpression(expr);

            if (metaArg->type()->isEnum() || metaArg->type()->isFlags())
                m_enumDefaultArguments << QPair<AbstractMetaArgument *, AbstractMetaFunction *>(metaArg, metaFunction);

            hasDefaultValue = !expr.isEmpty();
        }

        //Check for missing argument name
        if (hasDefaultValue
            && !metaArg->hasName()
            && !metaFunction->isOperatorOverload()
            && !metaFunction->isSignal()
            && metaFunction->argumentName(i+1, false, m_currentClass).isEmpty()) {
            ReportHandler::warning(QString("Argument %1 on function '%2::%3' has default expression but does not have name.").arg(i+1).arg(className).arg(metaFunction->minimalSignature()));
        }

    }

    fixArgumentNames(metaFunction);
    return metaFunction;
}

AbstractMetaType* AbstractMetaBuilder::translateType(double vr, const AddedFunction::TypeInfo& typeInfo)
{
    Q_ASSERT(!typeInfo.name.isEmpty());
    TypeDatabase* typeDb = TypeDatabase::instance();
    TypeEntry* type;

    QString typeName = typeInfo.name;

    if (typeName == "void")
        return 0;

    type = typeDb->findType(typeName);

    // test if the type is a template, like a container
    bool isTemplate = false;
    QString templateArg;
    if (!type) {
        QRegExp r("(.*)<(.*)>$");
        if (r.indexIn(typeInfo.name) != -1) {
            templateArg = r.cap(2);
            if (templateArg.contains(','))
                ReportHandler::warning("add-function tag doesn't support container types with more than one argument or template arguments.");
            else
                isTemplate = (type = typeDb->findContainerType(r.cap(1)));
        }
    }

    if (!type) {
        QStringList candidates;
        SingleTypeEntryHash entries = typeDb->entries();
        foreach (QString candidate, entries.keys()) {
            // Let's try to find the type in different scopes.
            if (candidate.endsWith("::"+typeName))
                candidates << candidate;
        }

        QString msg = QString("Type '%1' wasn't found in the type database.\n").arg(typeName);

        if (candidates.isEmpty())
            qFatal(qPrintable(QString(msg + "Declare it in the type system using the proper <*-type> tag.")), NULL);

        msg += "Remember to inform the full qualified name for the type you want to use.\nCandidates are:\n";
        candidates.sort();
        foreach (const QString& candidate, candidates) {
            msg += "    " + candidate + "\n";
        }
        qFatal(qPrintable(msg), NULL);
    }

    AbstractMetaType* metaType = createMetaType();
    metaType->setTypeEntry(type);
    metaType->setIndirections(typeInfo.indirections);
    metaType->setReference(typeInfo.isReference);
    metaType->setConstant(typeInfo.isConstant);
    if (isTemplate) {
        type = typeDb->findType(templateArg);
        if (type) {
            AbstractMetaType* metaArgType = createMetaType();
            metaArgType->setTypeEntry(type);
            metaType->addInstantiation(metaArgType);
            metaType->setTypeUsagePattern(AbstractMetaType::ContainerPattern);
        }
    }

    return metaType;
}

static const TypeEntry* findTypeEntryUsingContext(const AbstractMetaClass* metaClass, const QString& qualifiedName)
{
    const TypeEntry* type = 0;
    QStringList context = metaClass->qualifiedCppName().split("::");
    while(!type && (context.size() > 0) ) {
        type = TypeDatabase::instance()->findType(context.join("::") + "::" + qualifiedName);
        context.removeLast();
    }
    return type;
}

AbstractMetaType* AbstractMetaBuilder::translateType(const TypeInfo& _typei, bool *ok, bool resolveType, bool resolveScope)
{
    Q_ASSERT(ok);
    *ok = true;

    // 1. Test the type info without resolving typedefs in case this is present in the
    //    type system
    TypeInfo typei;
    if (resolveType) {
        bool ok;
        AbstractMetaType* t = translateType(_typei, &ok, false, resolveScope);
        if (t && ok)
            return t;
        Q_ASSERT(t == 0);
    }

    if (!resolveType) {
        typei = _typei;
    } else {
        // Go through all parts of the current scope (including global namespace)
        // to resolve typedefs. The parser does not properly resolve typedefs in
        // the global scope when they are referenced from inside a namespace.
        // This is a work around to fix this bug since fixing it in resolveType
        // seemed non-trivial
        int i = m_scopes.size() - 1;
        while (i >= 0) {
            typei = TypeInfo::resolveType(_typei, m_scopes.at(i--)->toItem());
            if (typei.qualifiedName().join("::") != _typei.qualifiedName().join("::"))
                break;
        }

    }

    if (typei.isFunctionPointer()) {
        *ok = false;
        return 0;
    }

    TypeParser::Info typeInfo = TypeParser::parse(typei.toString());
    if (typeInfo.is_busted) {
        *ok = false;
        return 0;
    }

    // 2. Handle pointers specified as arrays with unspecified size
    bool arrayOfUnspecifiedSize = false;
    if (typeInfo.arrays.size() > 0) {
        arrayOfUnspecifiedSize = true;
        for (int i = 0; i < typeInfo.arrays.size(); ++i)
            arrayOfUnspecifiedSize = arrayOfUnspecifiedSize && typeInfo.arrays.at(i).isEmpty();

        if (!arrayOfUnspecifiedSize) {
            TypeInfo newInfo;
            //newInfo.setArguments(typei.arguments());
            newInfo.setIndirections(typei.indirections());
            newInfo.setConstant(typei.isConstant());
            newInfo.setFunctionPointer(typei.isFunctionPointer());
            newInfo.setQualifiedName(typei.qualifiedName());
            newInfo.setReference(typei.isReference());
            newInfo.setVolatile(typei.isVolatile());

            AbstractMetaType* elementType = translateType(newInfo, ok);
            if (!(*ok))
                return 0;

            for (int i = typeInfo.arrays.size() - 1; i >= 0; --i) {
                QString s = typeInfo.arrays.at(i);
                bool _ok;
                int elems = findOutValueFromString(s, _ok);

                AbstractMetaType* arrayType = createMetaType();
                arrayType->setArrayElementCount(elems);
                arrayType->setArrayElementType(elementType);
                arrayType->setTypeEntry(new ArrayTypeEntry(elementType->typeEntry() , elementType->typeEntry()->version()));
                decideUsagePattern(arrayType);

                elementType = arrayType;
            }

            return elementType;
        }  else {
            typeInfo.indirections += typeInfo.arrays.size();
        }
    }

    QStringList qualifierList = typeInfo.qualified_name;
    if (qualifierList.isEmpty()) {
        ReportHandler::warning(QString("horribly broken type '%1'").arg(_typei.toString()));
        *ok = false;
        return 0;
    }

    QString qualifiedName = qualifierList.join("::");
    QString name = qualifierList.takeLast();

    // 3. Special case 'void' type
    if (name == "void" && !typeInfo.indirections)
        return 0;

    // 4. Special case QFlags (include instantiation in name)
    if (qualifiedName == "QFlags")
        qualifiedName = typeInfo.toString();

    const TypeEntry *type = 0;
    // 5. Try to find the type

    // 5.1 - Try first using the current scope
    if (m_currentClass) {
        type = findTypeEntryUsingContext(m_currentClass, qualifiedName);

        // 5.1.1 - Try using the class parents' scopes
        if (!type && !m_currentClass->baseClassNames().isEmpty()) {
            foreach (const AbstractMetaClass* cls, getBaseClasses(m_currentClass)) {
                type = findTypeEntryUsingContext(cls, qualifiedName);
                if (type)
                    break;
            }
        }
    }

    // 5.2 - Try without scope
    if (!type)
        type = TypeDatabase::instance()->findType(qualifiedName);

    // 6. No? Try looking it up as a flags type
    if (!type)
        type = TypeDatabase::instance()->findFlagsType(qualifiedName);

    // 7. No? Try looking it up as a container type
    if (!type)
        type = TypeDatabase::instance()->findContainerType(name);

    // 8. No? Check if the current class is a template and this type is one
    //    of the parameters.
    if (!type && m_currentClass) {
        QList<TypeEntry *> template_args = m_currentClass->templateArguments();
        foreach (TypeEntry *te, template_args) {
            if (te->name() == qualifiedName)
                type = te;
        }
    }

    // 9. Try finding the type by prefixing it with the current
    //    context and all baseclasses of the current context
    if (!type && !TypeDatabase::instance()->isClassRejected(qualifiedName) && m_currentClass && resolveScope) {
        QStringList contexts;
        contexts.append(m_currentClass->qualifiedCppName());
        contexts.append(currentScope()->qualifiedName().join("::"));


        TypeInfo info = typei;
        bool subclassesDone = false;
        while (!contexts.isEmpty() && !type) {
            type = TypeDatabase::instance()->findType(contexts.at(0) + "::" + qualifiedName);
            contexts.pop_front();

            // 10. Last resort: Special cased prefix of Qt namespace since the meta object implicitly inherits this, so
            //     enum types from there may be addressed without any scope resolution in properties.
            if (!contexts.size() && !subclassesDone) {
                contexts << "Qt";
                subclassesDone = true;
            }
        }

    }

    if (!type) {
        *ok = false;
        return 0;
    }

    // Used to for diagnostics later...
    m_usedTypes << type;

    // These are only implicit and should not appear in code...
    Q_ASSERT(!type->isInterface());

    AbstractMetaType* metaType = createMetaType();
    metaType->setTypeEntry(type);
    metaType->setIndirections(typeInfo.indirections);
    metaType->setReference(typeInfo.is_reference);
    metaType->setConstant(typeInfo.is_constant);
    metaType->setOriginalTypeDescription(_typei.toString());

    foreach (const TypeParser::Info &ta, typeInfo.template_instantiations) {
        TypeInfo info;
        info.setConstant(ta.is_constant);
        info.setReference(ta.is_reference);
        info.setIndirections(ta.indirections);

        info.setFunctionPointer(false);
        info.setQualifiedName(ta.instantiationName().split("::"));

        AbstractMetaType* targType = translateType(info, ok);
        if (!(*ok)) {
            delete metaType;
            return 0;
        }

        metaType->addInstantiation(targType, true);
    }

    // The usage pattern *must* be decided *after* the possible template
    // instantiations have been determined, or else the absence of
    // such instantiations will break the caching scheme of
    // AbstractMetaType::cppSignature().
    decideUsagePattern(metaType);

    return metaType;
}


int AbstractMetaBuilder::findOutValueFromString(const QString& stringValue, bool& ok)
{
    int value = stringValue.toInt(&ok);
    if (ok)
        return value;

    if (stringValue == "true" || stringValue == "false") {
        ok = true;
        return (stringValue == "true");
    }

    // This is a very lame way to handle expression evaluation,
    // but it is not critical and will do for the time being.
    static QRegExp variableNameRegExp("^[a-zA-Z_][a-zA-Z0-9_]*$");
    if (!variableNameRegExp.exactMatch(stringValue)) {
        ok = true;
        return 0;
    }

    AbstractMetaEnumValue* enumValue = m_metaClasses.findEnumValue(stringValue);
    if (enumValue) {
        ok = true;
        return enumValue->value();
    }

    foreach (AbstractMetaEnum* metaEnum, m_globalEnums) {
        foreach (AbstractMetaEnumValue* ev, metaEnum->values()) {
            if (ev->name() == stringValue) {
                ok = true;
                return ev->value();
            }
        }
    }

    ok = false;
    return 0;
}

void AbstractMetaBuilder::decideUsagePattern(AbstractMetaType *metaType)
{
    metaType->decideUsagePattern();
}

QString AbstractMetaBuilder::fixDefaultValue(ArgumentModelItem item, AbstractMetaType* type,
                                                   AbstractMetaFunction* fnc, AbstractMetaClass* implementingClass,
                                                   int argumentIndex)
{
    QString functionName = fnc->name();
    QString className = implementingClass ? implementingClass->qualifiedCppName() : QString();

    QString expr = item->defaultValueExpression();
    if (type) {
        if (type->isPrimitive()) {
            if (type->name() == "boolean") {
                if (expr != "false" && expr != "true") {
                    bool ok = false;
                    int number = expr.toInt(&ok);
                    if (ok && number)
                        expr = "true";
                    else
                        expr = "false";
                }
            } else {
                // This can be an enum or flag so I need to delay the
                // translation untill all namespaces are completly
                // processed. This is done in figureOutEnumValues()
            }
        } else if (type->isFlags() || type->isEnum()) {
            bool isNumber;
            expr.toInt(&isNumber);
            if (!isNumber && expr.indexOf("::") < 0) {
                // Add the enum/flag scope to default value, making it usable
                // from other contexts beside its owner class hierarchy
                QRegExp typeRegEx("[^<]*[<]([^:]*::).*");
                typeRegEx.indexIn(type->minimalSignature());
                expr = typeRegEx.cap(1) + expr;
            }
        } else if (type->isContainer() && expr.contains('<')) {
            QRegExp typeRegEx("[^<]*<(.*)>");
            typeRegEx.indexIn(type->minimalSignature());
            QRegExp defaultRegEx("([^<]*<).*(>[^>]*)");
            defaultRegEx.indexIn(expr);
            expr = defaultRegEx.cap(1) + typeRegEx.cap(1) + defaultRegEx.cap(2);
        } else {
            // Here the default value is supposed to be a constructor,
            // a class field, or a constructor receiving a class field
            QRegExp defaultRegEx("([^\\(]*\\(|)([^\\)]*)(\\)|)");
            defaultRegEx.indexIn(expr);

            QString defaultValueCtorName = defaultRegEx.cap(1);
            if (defaultValueCtorName.endsWith('('))
                defaultValueCtorName.chop(1);

            // Fix the scope for constructor using the already
            // resolved argument type as a reference.
            // The following regular expression extracts any
            // use of namespaces/scopes from the type string.
            QRegExp typeRegEx("^(?:const[\\s]+|)([\\w:]*::|)([A-Za-z_]\\w*)\\s*[&\\*]?$");
            typeRegEx.indexIn(type->minimalSignature());

            QString typeNamespace = typeRegEx.cap(1);
            QString typeCtorName = typeRegEx.cap(2);
            if (!typeNamespace.isEmpty() && defaultValueCtorName == typeCtorName)
                expr.prepend(typeNamespace);

            // Fix scope if the parameter is a field of the current class
            if (implementingClass) {
                foreach (const AbstractMetaField* field, implementingClass->fields()) {
                    if (defaultRegEx.cap(2) == field->name()) {
                        expr = defaultRegEx.cap(1) + implementingClass->name() + "::" + defaultRegEx.cap(2) + defaultRegEx.cap(3);
                        break;
                    }
                }
            }
        }
    } else {
        QString warn = QString("undefined type for default value '%3' of argument in function '%1', class '%2'")
                       .arg(functionName).arg(className).arg(item->defaultValueExpression());
        ReportHandler::warning(warn);
        expr = QString();
    }

    return expr;
}

bool AbstractMetaBuilder::isQObject(const QString& qualifiedName)
{
    if (qualifiedName == "QObject")
        return true;

    ClassModelItem classItem = m_dom->findClass(qualifiedName);

    if (!classItem) {
        QStringList names = qualifiedName.split(QLatin1String("::"));
        NamespaceModelItem ns = model_dynamic_cast<NamespaceModelItem>(m_dom);
        for (int i = 0; i < names.size() - 1 && ns; ++i)
            ns = ns->namespaceMap().value(names.at(i));
        if (ns && names.size() >= 2)
            classItem = ns->findClass(names.at(names.size() - 1));
    }

    bool isqobject = classItem && classItem->extendsClass("QObject");

    if (classItem && !isqobject) {
        QStringList baseClasses = classItem->baseClasses();
        for (int i = 0; i < baseClasses.count(); ++i) {

            isqobject = isQObject(baseClasses.at(i));
            if (isqobject)
                break;
        }
    }

    return isqobject;
}


bool AbstractMetaBuilder::isEnum(const QStringList& qualified_name)
{
    CodeModelItem item = m_dom->model()->findItem(qualified_name, m_dom->toItem());
    return item && item->kind() == _EnumModelItem::__node_kind;
}

AbstractMetaClassList AbstractMetaBuilder::getBaseClasses(const AbstractMetaClass* metaClass) const
{
    AbstractMetaClassList baseClasses;
    foreach (const QString& parent, metaClass->baseClassNames()) {
        AbstractMetaClass* cls = m_metaClasses.findClass(parent);
        if (cls)
            baseClasses << cls;
    }
    return baseClasses;
}

bool AbstractMetaBuilder::ancestorHasPrivateCopyConstructor(const AbstractMetaClass* metaClass) const
{
    if (metaClass->hasPrivateCopyConstructor())
        return true;
    foreach (const AbstractMetaClass* cls, getBaseClasses(metaClass)) {
        if (ancestorHasPrivateCopyConstructor(cls))
            return true;
    }
    return false;
}

AbstractMetaType* AbstractMetaBuilder::inheritTemplateType(const QList<AbstractMetaType*>& templateTypes,
                                                           const AbstractMetaType* metaType, bool* ok)
{
    if (ok)
        *ok = true;
    if (!metaType || (!metaType->typeEntry()->isTemplateArgument() && !metaType->hasInstantiations()))
        return metaType ? metaType->copy() : 0;

    AbstractMetaType *returned = metaType->copy();
    returned->setOriginalTemplateType(metaType->copy());

    if (returned->typeEntry()->isTemplateArgument()) {
        const TemplateArgumentEntry* tae = static_cast<const TemplateArgumentEntry*>(returned->typeEntry());

        // If the template is intantiated with void we special case this as rejecting the functions that use this
        // parameter from the instantiation.
        if (templateTypes.size() <= tae->ordinal() || templateTypes.at(tae->ordinal())->typeEntry()->name() == "void") {
            if (ok)
                *ok = false;
            return 0;
        }

        AbstractMetaType* t = returned->copy();
        t->setTypeEntry(templateTypes.at(tae->ordinal())->typeEntry());
        t->setIndirections(templateTypes.at(tae->ordinal())->indirections() + t->indirections() ? 1 : 0);
        decideUsagePattern(t);

        delete returned;
        returned = inheritTemplateType(templateTypes, t, ok);
        if (ok && !(*ok))
            return 0;
    }

    if (returned->hasInstantiations()) {
        AbstractMetaTypeList instantiations = returned->instantiations();
        for (int i = 0; i < instantiations.count(); ++i) {
            AbstractMetaType *type = instantiations[i];
            instantiations[i] = inheritTemplateType(templateTypes, type, ok);
            if (ok && !(*ok))
                return 0;
        }
        returned->setInstantiations(instantiations, true);
    }

    return returned;
}

bool AbstractMetaBuilder::inheritTemplate(AbstractMetaClass* subclass,
                                          const AbstractMetaClass* templateClass,
                                          const TypeParser::Info& info)
{
    QList<TypeParser::Info> targs = info.template_instantiations;
    QList<AbstractMetaType*> templateTypes;

    if (subclass->isTypeAlias()) {
        subclass->setHasCloneOperator(templateClass->hasCloneOperator());
        subclass->setHasEqualsOperator(templateClass->hasEqualsOperator());
        subclass->setHasHashFunction(templateClass->hasHashFunction());
        subclass->setHasNonPrivateConstructor(templateClass->hasNonPrivateConstructor());
        subclass->setHasPrivateDestructor(templateClass->hasPrivateDestructor());
        subclass->setHasProtectedDestructor(templateClass->hasProtectedDestructor());
        subclass->setHasVirtualDestructor(templateClass->hasVirtualDestructor());
    }

    foreach (const TypeParser::Info &i, targs) {
        QString typeName = i.qualified_name.join("::");
        QStringList possibleNames;
        possibleNames << subclass->qualifiedCppName() + "::" + typeName;
        possibleNames << templateClass->qualifiedCppName() + "::" + typeName;
        if (subclass->enclosingClass())
            possibleNames << subclass->enclosingClass()->qualifiedCppName() + "::" + typeName;
        possibleNames << typeName;

        TypeDatabase* typeDb = TypeDatabase::instance();
        TypeEntry* t = 0;
        QString templateParamName;
        foreach (QString possibleName, possibleNames) {
            t = typeDb->findType(possibleName);
            if (t) {
                QString templateParamName = possibleName;
                break;
            }
        }

        if (t) {
            AbstractMetaType* temporaryType = createMetaType();
            temporaryType->setTypeEntry(t);
            temporaryType->setConstant(i.is_constant);
            temporaryType->setReference(i.is_reference);
            temporaryType->setIndirections(i.indirections);
            temporaryType->decideUsagePattern();
            templateTypes << temporaryType;
        } else {
            ReportHandler::warning("Ignoring template parameter " + templateParamName + " from " + info.instantiationName() + ", because I don't know what it is.");
        }
    }

    AbstractMetaFunctionList funcs = subclass->functions();
    foreach (const AbstractMetaFunction* function, templateClass->functions()) {
        if (function->isModifiedRemoved(TypeSystem::All))
            continue;

        AbstractMetaFunction *f = function->copy();
        f->setArguments(AbstractMetaArgumentList());

        bool ok = true;
        AbstractMetaType *ftype = function->type();
        f->replaceType(inheritTemplateType(templateTypes, ftype, &ok));
        if (!ok) {
            delete f;
            continue;
        }

        foreach (AbstractMetaArgument* argument, function->arguments()) {
            AbstractMetaType* atype = argument->type();

            AbstractMetaArgument *arg = argument->copy();
            arg->replaceType(inheritTemplateType(templateTypes, atype, &ok));
            if (!ok)
                break;
            f->addArgument(arg);
        }

        if (!ok) {
            delete f;
            continue;
        }

        // There is no base class in the target language to inherit from here, so
        // the template instantiation is the class that implements the function.
        f->setImplementingClass(subclass);

        // We also set it as the declaring class, since the superclass is
        // supposed to disappear. This allows us to make certain function modifications
        // on the inherited functions.
        f->setDeclaringClass(subclass);


        if (f->isConstructor() && subclass->isTypeAlias()) {
            f->setName(subclass->name());
            f->setOriginalName(subclass->name());
        } else if (f->isConstructor()) {
            delete f;
            continue;
        }

        // if the instantiation has a function named the same as an existing
        // function we have shadowing so we need to skip it.
        bool found = false;
        for (int i = 0; i < funcs.size(); ++i) {
            if (funcs.at(i)->name() == f->name()) {
                found = true;
                continue;
            }
        }
        if (found) {
            delete f;
            continue;
        }

        ComplexTypeEntry* te = subclass->typeEntry();
        FunctionModificationList mods = function->modifications(templateClass);
        for (int i = 0; i < mods.size(); ++i) {
            FunctionModification mod = mods.at(i);
            mod.signature = f->minimalSignature();

            // If we ever need it... Below is the code to do
            // substitution of the template instantation type inside
            // injected code..
#if 0
            if (mod.modifiers & Modification::CodeInjection) {
                for (int j = 0; j < template_types.size(); ++j) {
                    CodeSnip &snip = mod.snips.last();
                    QString code = snip.code();
                    code.replace(QString::fromLatin1("$$QT_TEMPLATE_%1$$").arg(j),
                                 template_types.at(j)->typeEntry()->qualifiedCppName());
                    snip.codeList.clear();
                    snip.addCode(code);
                }
            }
#endif
            te->addFunctionModification(mod);
        }

        subclass->addFunction(f);
    }

    subclass->setTemplateBaseClass(templateClass);
    subclass->setTemplateBaseClassInstantiations(templateTypes);
    subclass->setInterfaces(templateClass->interfaces());
    subclass->setBaseClass(templateClass->baseClass());

    return true;
}

void AbstractMetaBuilder::parseQ_Property(AbstractMetaClass* metaClass, const QStringList& declarations)
{
    for (int i = 0; i < declarations.size(); ++i) {
        QString p = declarations.at(i);

        QStringList l = p.split(QLatin1String(" "));


        QStringList qualifiedScopeName = currentScope()->qualifiedName();
        bool ok = false;
        AbstractMetaType* type = 0;
        QString scope;
        for (int j = qualifiedScopeName.size(); j >= 0; --j) {
            scope = j > 0 ? QStringList(qualifiedScopeName.mid(0, j)).join("::") + "::" : QString();
            TypeInfo info;
            info.setQualifiedName((scope + l.at(0)).split("::"));

            type = translateType(info, &ok);
            if (type && ok)
                break;
        }

        if (!type || !ok) {
            ReportHandler::warning(QString("Unable to decide type of property: '%1' in class '%2'")
                                   .arg(l.at(0)).arg(metaClass->name()));
            continue;
        }

        QString typeName = scope + l.at(0);

        QPropertySpec* spec = new QPropertySpec(type->typeEntry());
        spec->setName(l.at(1));
        spec->setIndex(i);

        for (int pos = 2; pos + 1 < l.size(); pos += 2) {
            if (l.at(pos) == QLatin1String("READ"))
                spec->setRead(l.at(pos + 1));
            else if (l.at(pos) == QLatin1String("WRITE"))
                spec->setWrite(l.at(pos + 1));
            else if (l.at(pos) == QLatin1String("DESIGNABLE"))
                spec->setDesignable(l.at(pos + 1));
            else if (l.at(pos) == QLatin1String("RESET"))
                spec->setReset(l.at(pos + 1));
        }

        metaClass->addPropertySpec(spec);
        delete type;
    }
}

static AbstractMetaFunction* findCopyCtor(AbstractMetaClass* cls)
{
    AbstractMetaFunctionList functions = cls->queryFunctions(AbstractMetaClass::Invisible);
    functions <<  cls->queryFunctions(AbstractMetaClass::Visible);

    foreach (AbstractMetaFunction* f, functions) {
        if (f->isConstructor() || f->name() == "operator=") {
            AbstractMetaArgumentList arguments = f->arguments();
            if (arguments.size() == 1) {
                if (cls->typeEntry()->qualifiedCppName() == arguments.at(0)->type()->typeEntry()->qualifiedCppName())
                    return f;
            }
        }
    }
    return 0;
}

void AbstractMetaBuilder::setupClonable(AbstractMetaClass* cls)
{
    bool result = true;

    // find copy ctor for the current class
    AbstractMetaFunction* copyCtor = findCopyCtor(cls);
    if (copyCtor) { // if exists a copy ctor in this class
        result = copyCtor->isPublic();
    } else { // else... lets find one in the parent class
        QQueue<AbstractMetaClass*> baseClasses;
        if (cls->baseClass())
            baseClasses.enqueue(cls->baseClass());
        baseClasses << cls->interfaces();

        while (!baseClasses.isEmpty()) {
            AbstractMetaClass* currentClass = baseClasses.dequeue();
            baseClasses << currentClass->interfaces();
            if (currentClass->baseClass())
                baseClasses.enqueue(currentClass->baseClass());

            copyCtor = findCopyCtor(currentClass);
            if (copyCtor) {
                result = copyCtor->isPublic();
                break;
            }
        }
    }
    cls->setHasCloneOperator(result);
}

void AbstractMetaBuilder::setupExternalConversion(AbstractMetaClass* cls) {
    AbstractMetaFunctionList convOps = cls->operatorOverloads(AbstractMetaClass::ConversionOp);
    foreach (AbstractMetaFunction* func, convOps) {
        if (func->isModifiedRemoved())
            continue;
        AbstractMetaClass* metaClass = m_metaClasses.findClass(func->type()->typeEntry());
        if (!metaClass)
            continue;
        metaClass->addExternalConversionOperator(func);
    }
    foreach (AbstractMetaClass* innerClass, cls->innerClasses())
        setupExternalConversion(innerClass);
}

static void writeRejectLogFile(const QString &name,
                                  const QMap<QString, AbstractMetaBuilder::RejectReason> &rejects)
{
    QFile f(name);
    if (!f.open(QIODevice::WriteOnly | QIODevice::Text)) {
        ReportHandler::warning(QString("failed to write log file: '%1'")
                               .arg(f.fileName()));
        return;
    }

    QTextStream s(&f);


    for (int reason = 0; reason < AbstractMetaBuilder::NoReason; ++reason) {
        s << QString(72, '*') << endl;
        switch (reason) {
        case AbstractMetaBuilder::NotInTypeSystem:
            s << "Not in type system";
            break;
        case AbstractMetaBuilder::GenerationDisabled:
            s << "Generation disabled by type system";
            break;
        case AbstractMetaBuilder::RedefinedToNotClass:
            s << "Type redefined to not be a class";
            break;

        case AbstractMetaBuilder::UnmatchedReturnType:
            s << "Unmatched return type";
            break;

        case AbstractMetaBuilder::UnmatchedArgumentType:
            s << "Unmatched argument type";
            break;

        case AbstractMetaBuilder::ApiIncompatible:
            s << "Incompatible API";
            break;

        default:
            s << "unknown reason";
            break;
        }

        s << endl;

        for (QMap<QString, AbstractMetaBuilder::RejectReason>::const_iterator it = rejects.constBegin();
             it != rejects.constEnd(); ++it) {
            if (it.value() != reason)
                continue;
            s << " - " << it.key() << endl;
        }

        s << QString(72, '*') << endl << endl;
    }

}


void AbstractMetaBuilder::dumpLog()
{
    writeRejectLogFile(m_logDirectory + "mjb_rejected_classes.log", m_rejectedClasses);
    writeRejectLogFile(m_logDirectory + "mjb_rejected_enums.log", m_rejectedEnums);
    writeRejectLogFile(m_logDirectory + "mjb_rejected_functions.log", m_rejectedFunctions);
    writeRejectLogFile(m_logDirectory + "mjb_rejected_fields.log", m_rejectedFields);
}

AbstractMetaClassList AbstractMetaBuilder::classesTopologicalSorted(const AbstractMetaClass* cppClass) const
{
    QLinkedList<int> unmappedResult;
    QHash<QString, int> map;
    QHash<int, AbstractMetaClass*> reverseMap;

    const AbstractMetaClassList& classList = cppClass ? cppClass->innerClasses() : m_metaClasses;

    int i = 0;
    foreach (AbstractMetaClass* clazz, classList) {
        if (map.contains(clazz->qualifiedCppName()))
            continue;
        map[clazz->qualifiedCppName()] = i;
        reverseMap[i] = clazz;
        i++;
    }

    Graph graph(map.count());

    // TODO choose a better name to these regexs
    QRegExp regex1("\\(.*\\)");
    QRegExp regex2("::.*");
    foreach (AbstractMetaClass* clazz, classList) {
        if (clazz->isInterface() || !clazz->typeEntry()->generateCode())
            continue;

        if (clazz->enclosingClass() && map.contains(clazz->enclosingClass()->qualifiedCppName()))
            graph.addEdge(map[clazz->enclosingClass()->qualifiedCppName()], map[clazz->qualifiedCppName()]);

        AbstractMetaClassList bases = getBaseClasses(clazz);
        foreach(AbstractMetaClass* baseClass, bases) {
            // Fix polymorphic expression
            if (clazz->baseClass() == baseClass)
                clazz->setBaseClass(baseClass);

            if (map.contains(baseClass->qualifiedCppName()))
                graph.addEdge(map[baseClass->qualifiedCppName()], map[clazz->qualifiedCppName()]);
        }

        foreach (AbstractMetaFunction* func, clazz->functions()) {
            foreach (AbstractMetaArgument* arg, func->arguments()) {
                // check methods with default args
                QString defaultExpression = arg->originalDefaultValueExpression();
                if (!defaultExpression.isEmpty()) {
                    if ((defaultExpression == "0") && (arg->type()->isValue()))
                        defaultExpression = arg->type()->name();

                    defaultExpression.replace(regex1, "");
                    defaultExpression.replace(regex2, "");
                }
                if (!defaultExpression.isEmpty()) {
                    QString exprClassName = clazz->qualifiedCppName() + "::" + defaultExpression;
                    if (!map.contains(exprClassName)) {
                        bool found = false;
                        foreach(AbstractMetaClass* baseClass, bases) {
                            exprClassName = baseClass->qualifiedCppName() + "::" + defaultExpression;
                            if (map.contains(exprClassName)) {
                                found = true;
                                break;
                            }
                        }
                        if (!found) {
                            if (map.contains(defaultExpression))
                                exprClassName = defaultExpression;
                            else
                                exprClassName.clear();
                        }
                    }
                    if (!exprClassName.isEmpty() && exprClassName != clazz->qualifiedCppName())
                        graph.addEdge(map[exprClassName], map[clazz->qualifiedCppName()]);
                }
            }
        }
    }

    AbstractMetaClassList result;
    unmappedResult = graph.topologicalSort();
    if (unmappedResult.isEmpty() && graph.nodeCount()) {
        QTemporaryFile tempFile;
        tempFile.setAutoRemove(false);
        tempFile.open();
        QHash<int, QString> hash;
        QHash<QString, int>::iterator it = map.begin();
        for (; it != map.end(); ++it)
            hash[it.value()] = it.key();
        graph.dumpDot(hash, tempFile.fileName());
        ReportHandler::warning("Cyclic dependency found! Graph can be found at "+tempFile.fileName());
    } else {
        foreach (int i, unmappedResult) {
            Q_ASSERT(reverseMap.contains(i));
            if (!reverseMap[i]->isInterface())
                result << reverseMap[i];
        }
    }

    return result;
}

AbstractMetaArgumentList AbstractMetaBuilder::reverseList(const AbstractMetaArgumentList& list)
{
    AbstractMetaArgumentList ret;

    int index = list.size();
    foreach (AbstractMetaArgument* arg, list) {
        arg->setArgumentIndex(index);
        ret.prepend(arg);
        index--;
    }

    return ret;
}

void AbstractMetaBuilder::setGlobalHeader(const QString& globalHeader)
{
    m_globalHeader = QFileInfo(globalHeader);
}

void AbstractMetaBuilder::setInclude(TypeEntry* te, const QString& fileName) const
{
    QFileInfo info(fileName);
    if (m_globalHeader.fileName() != info.fileName())
        te->setInclude(Include(Include::IncludePath, info.fileName()));
}
Gitorious
