#ifndef OSGINTROSPECTION_REFLECTOR_
#define OSGINTROSPECTION_REFLECTOR_

#include <osgIntrospection/Reflection>
#include <osgIntrospection/Type>
#include <osgIntrospection/Value>
#include <osgIntrospection/PropertyInfo>
#include <osgIntrospection/MethodInfo>
#include <osgIntrospection/ConstructorInfo>
#include <osgIntrospection/InstanceCreator>
#include <osgIntrospection/ReaderWriter>
#include <osgIntrospection/TypedConstructorInfo>
#include <osgIntrospection/Comparator>

#include <string>
#include <sstream>
#include <iterator>

namespace osgIntrospection
{

    class CustomAttribute;
    class ReaderWriter;

    /// A Reflector is a proxy class that is used to create a new description
    /// of a given type. If the type to be described is simple and doesn't
    /// require additional details such as properties and methods, it can be
    /// reflected by simply creating a global instance of one of the classes
    /// derived from Reflector, for example ValueReflector. Other types may
    /// need further information and therefore it could be necessary to create
    /// a new subclass of Reflector or extend one of the existing subclasses.
    /// The reflected type can be set by calling Reflector's protected 
    /// methods.
    ///
    /// NOTE: when you create a Reflector for type T, it will automatically
    /// create descriptions for types T* and const T*. You should NEVER
    /// create reflectors for pointer types explicitely.
    ///
    template<typename T>
    class Reflector
    {
    public:
        typedef T reflected_type;
        typedef Reflector<T> inherited;

        /// Virtual destructor.
        virtual ~Reflector() {}

    protected:
        /// Direct initialization constructor. Parameter 'name' is the name
        /// of the type being reflected and 'ns' is its namespace.
        Reflector(const std::string &name, const std::string &ns, bool abstract = false);

        /// Direct initialization constructor. Parameter 'qname' is the 
        /// fully-qualified name of the type being reflected, i.e. containing
        /// both the namespace and the name (separated by "::"). 
        Reflector(const std::string &qname, bool abstract = false);

    protected:

        /// Returns the Type object being described.
        Type *getType() { return type_; }

        /// Declares a new base type for the current type.
        void addBaseType(const Type &type);
        
        /// Sets the comparator object for the current type.
        void setComparator(const Comparator *cmp);

        /// Adds a property description to the current type.
        PropertyInfo *addProperty(PropertyInfo *pi);

        /// Adds a method description to the current type.
        MethodInfo *addMethod(MethodInfo *mi);

        /// Adds an enumeration label to the current type.
        void addEnumLabel(int v, const std::string &label, bool strip_namespace = true);

        /// Adds a constructor description to the current type.
        /// As soon as a constructor is added through this method,
        /// the automatically-generated default constructor is
        /// removed.
        ConstructorInfo *addConstructor(ConstructorInfo *ci);

        /// Returns a string containing the qualified version of 'name'.
        std::string qualifyName(const std::string name) const;

        /// Adds a custom attribute to the type being described.
        CustomAttributeProvider *addAttribute(const CustomAttribute *attrib);

        /// Sets the current type's ReaderWriter object.
        void setReaderWriter(const ReaderWriter *rw);

    private:
		struct PtrConstructor: ConstructorInfo
		{
			PtrConstructor(const Type *pt)
			:	ConstructorInfo(*pt, ParameterInfoList())
			{
			}

			Value createInstance(ValueList &) const { T* x = 0; return x; }
		};
		
		struct ConstPtrConstructor: ConstructorInfo
		{
			ConstPtrConstructor(const Type *pt)
			:	ConstructorInfo(*pt, ParameterInfoList())
			{
			}
			
			Value createInstance(ValueList &) const { const T *x = 0; return x; }
		};
		
        void init();
        static std::string purify(const std::string &s);
        static void split_qualified_name(const std::string &q, std::string &n, std::string &ns);

		typedef std::vector<MethodInfo *> TempMethodList;
		TempMethodList temp_methods_;
        Type *type_;
    };

    /// This reflector ought to be used to describe types that can be
    /// created on the stack. Such types are for example int, double,
    /// std::string, or other (possibly small) user-defined structs or
    /// classes. The instance creator associated to types created through
    /// this reflector will create Value objects whose internal type is T.
    template<typename T>
    struct ValueReflector: Reflector<T>
    {
        typedef ValueReflector<T> inherited;
        typedef ValueInstanceCreator<typename Reflector<T>::reflected_type> instance_creator_type;

        ValueReflector(const std::string &name, const std::string &ns)
        :    Reflector<T>(name, ns, false)
        {
        }

        ValueReflector(const std::string &qname)
        :    Reflector<T>(qname, false)
        {
        }    
    };

    /// This reflector is to be used to describe abstract types that can't
    /// be instantiated. For this reason a DummyInstanceCreator is used in
    /// order to avoid compiler errors.
    template<typename T>
    struct AbstractObjectReflector: Reflector<T>
    {
        typedef AbstractObjectReflector<T> inherited;
        typedef DummyInstanceCreator<typename Reflector<T>::reflected_type> instance_creator_type;

        AbstractObjectReflector(const std::string &name, const std::string &ns)
        :    Reflector<T>(name, ns, true)
        {
        }

        AbstractObjectReflector(const std::string &qname)
        :    Reflector<T>(qname, true)
        {
        }
    };

    /// This reflector is to be used to describe types that ought to be
    /// created on the heap. Such types are for example all classes derived
    /// from osg::Referenced. The instance creator associated to types 
    /// created through this reflector will create Value objects whose 
    /// internal type is T*.
    template<typename T>
    struct ObjectReflector: Reflector<T>
    {
        typedef ObjectReflector<T> inherited;
        typedef ObjectInstanceCreator<typename Reflector<T>::reflected_type> instance_creator_type;

        ObjectReflector(const std::string &name, const std::string &ns)
        :    Reflector<T>(name, ns, false)
        {
        }

        ObjectReflector(const std::string &qname)
        :    Reflector<T>(qname, false)
        {
        }
    };


    /// This reflector is a ValueReflector that should be used to define
    /// types that can be read and written from/to streams using the <<
    /// and >> operators. A StdReaderWriter is assigned by default.
    template<typename T>
    struct AtomicValueReflector: ValueReflector<T>
    {
        typedef typename ValueReflector<T>::instance_creator_type instance_creator_type;
	
        AtomicValueReflector(const std::string &name, const std::string &ns)
        :    ValueReflector<T>(name, ns)
        {
			setReaderWriter(new StdReaderWriter<T>);
			setComparator(new PartialOrderComparator<T>);
			addConstructor(new TypedConstructorInfo0<T, instance_creator_type>(ParameterInfoList()));
        }

        AtomicValueReflector(const std::string &qname)
        :    ValueReflector<T>(qname)
        {
			setReaderWriter(new StdReaderWriter<T>);
			setComparator(new PartialOrderComparator<T>);
			addConstructor(new TypedConstructorInfo0<T, instance_creator_type>(ParameterInfoList()));			
        }
    };


    /// This reflector is a ValueReflector that should be used to define
    /// enumerations. It assigns an EnumReaderWriter by default.
    template<typename T>
    struct EnumReflector: ValueReflector<T>
    {
        typedef EnumReflector<T> inherited;
        typedef typename ValueReflector<T>::instance_creator_type instance_creator_type;

        EnumReflector(const std::string &name, const std::string &ns)
        :    ValueReflector<T>(name, ns)
        {
			setReaderWriter(new EnumReaderWriter<T>);
			setComparator(new TotalOrderComparator<T>);
			addConstructor(new TypedConstructorInfo0<T, instance_creator_type>(ParameterInfoList()));
        }

        EnumReflector(const std::string &qname)
        :    ValueReflector<T>(qname)
        {
			setReaderWriter(new EnumReaderWriter<T>);
			setComparator(new TotalOrderComparator<T>);
			addConstructor(new TypedConstructorInfo0<T, instance_creator_type>(ParameterInfoList()));
        }
    };


    /// This class allows to define the means for reflecting STL containers
    /// such as std::deque and std::vector.
    template<typename T, typename VT>
    struct StdVectorReflector: ValueReflector<T>
    {
        typedef typename ValueReflector<T>::instance_creator_type instance_creator_type;
	
        struct Getter: PropertyGetter
        {
            virtual Value get(Value &instance, int i) const
            {
                T &ctr = variant_cast<T &>(instance);
                return ctr.at(i);
            }
            
            virtual Value get(const Value &instance, int i) const
            {
                const T &ctr = variant_cast<const T &>(instance);
                return ctr.at(i);
            }
        };

        struct Setter: PropertySetter
        {
            virtual void set(Value &instance, int i, const Value &v) const
            {
                T &ctr = variant_cast<T &>(instance);
                ctr.at(i) = variant_cast<const typename T::value_type &>(v);
            }
        };

        struct Counter: PropertyCounter
        {
            virtual int count(const Value &instance) const
            {
                const T &ctr = variant_cast<const T &>(instance);
                return static_cast<int>(ctr.size());
            }
        };

        struct Adder: PropertyAdder
        {
            virtual void add(Value &instance, const Value &v) const
            {
                T &ctr = variant_cast<T &>(instance);
                ctr.push_back(variant_cast<const typename T::value_type &>(v));
            }
        };

        struct Remover: PropertyRemover
        {
			virtual void remove(Value &instance, int i) const
			{
				T &ctr = variant_cast<T &>(instance);
				typename T::iterator j=ctr.begin();
				std::advance(j, i);
				ctr.erase(j);
			}
        };

        StdVectorReflector(const std::string &name): ValueReflector<T>(name)
        {
			addConstructor(new TypedConstructorInfo0<T, instance_creator_type>(ParameterInfoList()));
			
            PropertyInfo *pi = new PropertyInfo(typeof(T), typeof(typename T::value_type), "Items", 0, 0, 0, 0, 0);
            pi->addAttribute(new CustomPropertyGetAttribute(new Getter));
            pi->addAttribute(new CustomPropertySetAttribute(new Setter));
            pi->addAttribute(new CustomPropertyCountAttribute(new Counter));
            pi->addAttribute(new CustomPropertyAddAttribute(new Adder));
            pi->addAttribute(new CustomPropertyRemoveAttribute(new Remover));
            
            if (typeid(VT).before(typeid(typename T::value_type)) ||
                typeid(typename T::value_type).before(typeid(VT)))
            {
                pi->addAttribute(new PropertyTypeAttribute(typeof(VT)));
            }

            this->addProperty(pi);
        }
    };

    /// This class allows to define the means for reflecting STL containers
    /// such as std::set and std::multiset.
    template<typename T, typename VT>
    struct StdSetReflector: ValueReflector<T>
    {
        typedef typename ValueReflector<T>::instance_creator_type instance_creator_type;
	
        struct Getter: PropertyGetter
        {
            virtual Value get(Value &instance, int i) const
            {
                T &ctr = variant_cast<T &>(instance);
                typename T::iterator j=ctr.begin();
                std::advance(j, i);
                return *j;
            }

            virtual Value get(const Value &instance, int i) const
            {
                const T &ctr = variant_cast<const T &>(instance);
                typename T::const_iterator j=ctr.begin();
                std::advance(j, i);
                return *j;
            }
        };

        struct Counter: PropertyCounter
        {
            virtual int count(const Value &instance) const
            {
                const T &ctr = variant_cast<const T &>(instance);
                return static_cast<int>(ctr.size());
            }
        };

        struct Adder: PropertyAdder
        {
            virtual void add(Value &instance, const Value &v) const
            {
                T &ctr = variant_cast<T &>(instance);
                ctr.insert(variant_cast<const typename T::value_type &>(v));
            }
        };
        
        struct Remover: PropertyRemover
        {
			virtual void remove(Value &instance, int i) const
			{
				T &ctr = variant_cast<T &>(instance);
				typename T::iterator j=ctr.begin();
				std::advance(j, i);
				ctr.erase(j);
			}
        };

        StdSetReflector(const std::string &name): ValueReflector<T>(name)
        {
			addConstructor(new TypedConstructorInfo0<T, instance_creator_type>(ParameterInfoList()));
			
            PropertyInfo *pi = new PropertyInfo(typeof(T), typeof(typename T::value_type), "Items", 0, 0, 0, 0, 0);
            pi->addAttribute(new CustomPropertyGetAttribute(new Getter));
            pi->addAttribute(new CustomPropertyCountAttribute(new Counter));
            pi->addAttribute(new CustomPropertyAddAttribute(new Adder));
            pi->addAttribute(new CustomPropertyRemoveAttribute(new Remover));
            
            if (typeid(VT).before(typeid(typename T::value_type)) ||
                typeid(typename T::value_type).before(typeid(VT)))
            {
                pi->addAttribute(new PropertyTypeAttribute(typeof(VT)));
            }

            this->addProperty(pi);
        }
    };

    /// This class allows to define the means for reflecting STL containers
    /// that cannot be indexed directly, such as std::list.
    template<typename T, typename VT>
    struct StdListReflector: ValueReflector<T>
    {
        typedef typename ValueReflector<T>::instance_creator_type instance_creator_type;
	
        struct Getter: PropertyGetter
        {
            virtual Value get(Value &instance, int i) const
            {
                T &ctr = variant_cast<T &>(instance);
                typename T::iterator j=ctr.begin();
                std::advance(j, i);
                return *j;
            }

            virtual Value get(const Value &instance, int i) const
            {
                const T &ctr = variant_cast<const T &>(instance);
                typename T::const_iterator j=ctr.begin();
                std::advance(j, i);
                return *j;
            }
        };

        struct Setter: PropertySetter
        {
            virtual void set(Value &instance, int i, const Value &v) const
            {
                T &ctr = variant_cast<T &>(instance);
                typename T::iterator j=ctr.begin();
                std::advance(j, i);
                *j = variant_cast<const typename T::value_type &>(v);
            }
        };

        struct Counter: PropertyCounter
        {
            virtual int count(const Value &instance) const
            {
                const T &ctr = variant_cast<const T &>(instance);
                return static_cast<int>(ctr.size());
            }
        };

        struct Adder: PropertyAdder
        {
            virtual void add(Value &instance, const Value &v) const
            {
                T &ctr = variant_cast<T &>(instance);
                ctr.push_back(variant_cast<const typename T::value_type &>(v));
            }
        };

        struct Remover: PropertyRemover
        {
			virtual void remove(Value &instance, int i) const
			{
				T &ctr = variant_cast<T &>(instance);
				typename T::iterator j=ctr.begin();
				std::advance(j, i);
				ctr.erase(j);
			}
        };

        StdListReflector(const std::string &name): ValueReflector<T>(name)
        {
			addConstructor(new TypedConstructorInfo0<T, instance_creator_type>(ParameterInfoList()));
			
            PropertyInfo *pi = new PropertyInfo(typeof(T), typeof(typename T::value_type), "Items", 0, 0, 0, 0, 0);
            pi->addAttribute(new CustomPropertyGetAttribute(new Getter));
            pi->addAttribute(new CustomPropertySetAttribute(new Setter));
            pi->addAttribute(new CustomPropertyCountAttribute(new Counter));
            pi->addAttribute(new CustomPropertyAddAttribute(new Adder));
            pi->addAttribute(new CustomPropertyRemoveAttribute(new Remover));
            
            if (typeid(VT).before(typeid(typename T::value_type)) ||
                typeid(typename T::value_type).before(typeid(VT)))
            {
                pi->addAttribute(new PropertyTypeAttribute(typeof(VT)));
            }

            this->addProperty(pi);
        }
    };

    /// This class allows to define the means for reflecting STL associative
    /// containers which hold pairs of key+value, such as std::map.
    template<typename T, typename IT, typename VT>
    struct StdMapReflector: ValueReflector<T>
    {
        typedef typename ValueReflector<T>::instance_creator_type instance_creator_type;
	
		typedef typename T::iterator iterator;
        typedef typename T::const_iterator const_iterator;
        typedef typename T::key_type key_type;
        typedef typename T::mapped_type mapped_type;

        struct Getter: PropertyGetter
        {
            virtual Value get(Value &instance, const ValueList &indices) const
            {
                T& ctr = variant_cast<T &>(instance);
                const key_type& key = variant_cast<const key_type &>(indices.front());
                
                iterator i = ctr.find(key);
                if (i == ctr.end()) return Value();
                return i->second;
            }
            
            virtual Value get(const Value &instance, const ValueList &indices) const
            {
                const T& ctr = variant_cast<const T &>(instance);
                const key_type& key = variant_cast<const key_type &>(indices.front());
                
                const_iterator i = ctr.find(key);
                if (i == ctr.end()) return Value();
                return i->second;
            }
        };

        struct Setter: PropertySetter
        {
            virtual void set(Value &instance, const ValueList &indices, const Value &v) const
            {
                T &ctr = variant_cast<T &>(instance);
                ctr.insert(std::make_pair(variant_cast<const key_type &>(indices.front()), variant_cast<const mapped_type &>(v)));
            }
        };

        struct Indexer: IndexInfo
        {
            ParameterInfoList params_;
            const Type &itype_;

            Indexer()
            :    itype_(typeof(IT))
            {
                params_.push_back(new ParameterInfo("key", typeof(key_type), 0, ParameterInfo::IN));
            }

            virtual ~Indexer()
            {
                delete params_.front();
            }

            virtual const ParameterInfoList &getIndexParameters() const
            {
                return params_;
            }

            virtual void getIndexValueSet(int /*whichindex*/, const Value &instance, ValueList &values) const
            {
                const T &ctr = variant_cast<const T &>(instance);
                for (const_iterator i=ctr.begin(); 
                    i!=ctr.end(); 
                    ++i)
                {
                    values.push_back(Value(i->first).convertTo(itype_));
                }
            }
        };

        StdMapReflector(const std::string &name): ValueReflector<T>(name)
        {
			addConstructor(new TypedConstructorInfo0<T, instance_creator_type>(ParameterInfoList()));
			
            PropertyInfo *pi = new PropertyInfo(typeof(T), typeof(typename T::mapped_type), "Items", 0, 0);
            pi->addAttribute(new CustomPropertyGetAttribute(new Getter));
            pi->addAttribute(new CustomPropertySetAttribute(new Setter));
            pi->addAttribute(new CustomIndexAttribute(new Indexer));

            if (typeid(VT).before(typeid(typename T::mapped_type)) ||
                typeid(typename T::mapped_type).before(typeid(VT)))
            {
                pi->addAttribute(new PropertyTypeAttribute(typeof(VT)));
            }

            this->addProperty(pi);
        }
    };

    template<typename T, typename PT1, typename PT2>
    struct StdPairReflector: ValueReflector<T>
    {
        typedef typename ValueReflector<T>::instance_creator_type instance_creator_type;
	
        struct Accessor: PropertyGetter, PropertySetter
        {
            Accessor(int i): i_(i) {}
            
            virtual Value get(const Value &instance) const
            {
                switch (i_)
                {
                case 0: return variant_cast<T &>(instance).first;
                case 1: return variant_cast<T &>(instance).second;
                default: return Value();
                }
            }

            virtual Value get(Value &instance) const
            {
                switch (i_)
                {
                case 0: return variant_cast<const T &>(instance).first;
                case 1: return variant_cast<const T &>(instance).second;
                default: return Value();
                }
            }

            virtual void set(const Value &instance, const Value &v) const
            {
                T &ctr = variant_cast<T &>(instance);

                switch (i_)
                {                
                case 0: ctr.first = variant_cast<const typename T::first_type &>(v); break;
                case 1: ctr.second = variant_cast<const typename T::second_type &>(v); break;
                }
            }

            int i_;
        };

        StdPairReflector(const std::string &name): ValueReflector<T>(name)
        {
			addConstructor(new TypedConstructorInfo0<T, instance_creator_type>(ParameterInfoList()));
			
            PropertyInfo *pi1 = new PropertyInfo(typeof(T), typeof(typename T::first_type), "first", 0, 0);
            pi1->addAttribute(new CustomPropertyGetAttribute(new Accessor(0)));
            pi1->addAttribute(new CustomPropertySetAttribute(new Accessor(0)));

            if (typeid(PT1).before(typeid(typename T::first_type)) ||
                typeid(typename T::first_type).before(typeid(PT1)))
                pi1->addAttribute(new PropertyTypeAttribute(typeof(PT1)));

            this->addProperty(pi1);

            PropertyInfo *pi2 = new PropertyInfo(typeof(T), typeof(typename T::second_type), "second", 0, 0);
            pi2->addAttribute(new CustomPropertyGetAttribute(new Accessor(1)));
            pi2->addAttribute(new CustomPropertySetAttribute(new Accessor(1)));

            if (typeid(PT2).before(typeid(typename T::second_type)) ||
                typeid(typename T::second_type).before(typeid(PT2)))
                pi2->addAttribute(new PropertyTypeAttribute(typeof(PT2)));

            this->addProperty(pi2);
        }
    };


    // TEMPLATE METHODS

    template<typename T>
    Reflector<T>::Reflector(const std::string &name, const std::string &ns, bool abstract)
    :    type_(Reflection::getOrRegisterType(typeid(T), true))
    {
		if (!type_->name_.empty())
			type_->aliases_.push_back(ns.empty()? purify(name): purify(ns+"::"+name));
		else
		{
	        type_->name_ = purify(name);
			type_->namespace_ = purify(ns);
		}
        type_->is_abstract_ = abstract;
        init();
    }

    template<typename T>
    Reflector<T>::Reflector(const std::string &qname, bool abstract)
    :    type_(Reflection::getOrRegisterType(typeid(T), true))
    {
		if (!type_->name_.empty())
			type_->aliases_.push_back(purify(qname));
		else
		{
			split_qualified_name(purify(qname), type_->name_, type_->namespace_);
		}
        type_->is_abstract_ = abstract;
        init();
    }

    template<typename T>
    void Reflector<T>::init()
    {
        // pointer type
        if (!type_->pointed_type_)
        {
            Type *ptype = Reflection::getOrRegisterType(typeid(T*), true);
            ptype->name_ = type_->name_;
            ptype->namespace_ = type_->namespace_;
            ptype->pointed_type_ = type_;
            ptype->is_defined_ = true;
            ptype->cons_.push_back(new PtrConstructor(ptype));
            ptype->rw_ = new PtrReaderWriter<T*>();
            ptype->cmp_ = new TotalOrderComparator<T*>();
        }

        // const pointer type
        if (!type_->pointed_type_ || !type_->is_const_)
        {
            Type *cptype = Reflection::getOrRegisterType(typeid(const T*), true);
            cptype->name_ = type_->name_;
            cptype->namespace_ = type_->namespace_;
            cptype->is_const_ = true;
            cptype->pointed_type_ = type_;
            cptype->is_defined_ = true;
            cptype->cons_.push_back(new ConstPtrConstructor(cptype));
            cptype->rw_ = new PtrReaderWriter<const T*>();
            cptype->cmp_ = new TotalOrderComparator<const T*>();
        }

        type_->is_defined_ = true;
    }
    
    template<typename T>
    std::string Reflector<T>::purify(const std::string &s)
    {		
		std::string r(s);
		while (true)
		{
			std::string::size_type p = r.find(" COMMA ");
			if (p == std::string::npos) break;
			r.replace(p, 7, ", ");
		};
		return r;
    }
    
    template<typename T>
    void Reflector<T>::split_qualified_name(const std::string &q, std::string &n, std::string &ns)
    {
		int templ = 0;
		std::string::size_type split_point = std::string::npos;
		std::string::size_type j = 0;
		for (std::string::const_iterator i=q.begin(); i!=q.end(); ++i, ++j)
		{
			if (*i == '<') ++templ;
			if (*i == '>') --templ;
			if (templ == 0)
			{
				if (*i == ':' && (i+1)!=q.end() && *(i+1) == ':')
					split_point = j;
			}
		}
		if (split_point == std::string::npos)
		{
			ns.clear();
			n = q;
		}
		else
		{
			n = q.substr(split_point+2);
			ns = q.substr(0, split_point);
		}
    }

    template<typename T>
    void Reflector<T>::addBaseType(const Type &type)
    {
        type_->base_.push_back(&type);
    }

    template<typename T>
    PropertyInfo *Reflector<T>::addProperty(PropertyInfo *pi)
    {
        type_->props_.push_back(pi);
        return pi;
    }

    template<typename T>
    MethodInfo *Reflector<T>::addMethod(MethodInfo *mi)
    {
		for (TempMethodList::iterator i=temp_methods_.begin(); i!=temp_methods_.end(); ++i)
		{
			if (mi->overrides(*i))
				return *i;
		}
		
		temp_methods_.push_back(mi);
        type_->methods_.push_back(mi);
        return mi;
    }

    template<typename T>
    void Reflector<T>::addEnumLabel(int v, const std::string &label, bool strip_namespace)
    {
        if (strip_namespace)
        {
            std::string::size_type p = label.rfind("::");
            if (p != std::string::npos)
            {
                type_->labels_.insert(std::make_pair(v, label.substr(p+2)));
                return;
            }
        }
        type_->labels_.insert(std::make_pair(v, label));
    }

    template<typename T>
    ConstructorInfo *Reflector<T>::addConstructor(ConstructorInfo *ci)
    {
        type_->cons_.push_back(ci);
        return ci;
    }

    template<typename T>
    std::string Reflector<T>::qualifyName(const std::string name) const
    {
        std::string s;
        if (!type_->namespace_.empty())
        {
            s.append(type_->namespace_);
            s.append("::");
        }
        if (!type_->name_.empty())
        {
            s.append(type_->name_);
            s.append("::");
        }
        s.append(name);
        return s;
    }

    template<typename T>
    CustomAttributeProvider *Reflector<T>::addAttribute(const CustomAttribute *attrib)
    {
        return type_->addAttribute(attrib);
    }

    template<typename T>
    void Reflector<T>::setReaderWriter(const ReaderWriter *rw)
    {
        type_->rw_ = rw;
    }
    
    template<typename T>
    void Reflector<T>::setComparator(const Comparator *cmp)
    {
		type_->cmp_ = cmp;
    }

}

#endif