CWE-ou-minkata/Sources/Plasma/CoreLib/hsTemplates.h

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*==LICENSE==*/
#ifndef hsTemplatesDefined
#define hsTemplatesDefined

#include "hsExceptions.h"
#include "hsMemory.h"
#include "hsRefCnt.h"

#include <cstdarg>


#ifdef HS_DEBUGGING
// #define   HS_DEBUGTARRAY
#endif

#ifdef HS_DEBUGTARRAY

    // just a quickie d-link list class for debugging
class hsDlistNode
{
public:
    static hsDlistNode *fpFirst;
    static hsDlistNode *fpLast;
    static uint32_t       fcreated;
    static uint32_t       fdestroyed;

    void *fpThing;
    hsDlistNode *fpPrev;
    hsDlistNode *fpNext;
    hsDlistNode(void *tng): fpThing(tng), fpNext(0), fpPrev(0) { AddNode(); }
    void AddNode();
    void RemoveNode();
    hsDlistNode *GetNext() { return fpNext; }
};

#endif  

// Use this for a pointer to a single object of class T allocated with new
template <class T> class hsTempObject {
    T*  fObject;
public:
    hsTempObject(): fObject(nil){}
    hsTempObject(T* p) : fObject(p) {}
    hsTempObject(const hsTempObject & that)
    {*this=that;}
    ~hsTempObject() { delete fObject; }
    hsTempObject & operator=(const hsTempObject & src)
    {
        if (fObject!=src.fObject)
        {
            delete fObject;
            fObject=src.fObject;
        }
        return *this;
    }
    hsTempObject & operator=(T * ptr)
    {
        if (fObject!=ptr)
        {
            delete fObject;
            fObject=ptr;
        }
        return *this;
    }
    operator T*() const { return fObject; }
    operator T*&() { return fObject; }
    operator const T&() const { return *fObject; }
    operator bool() const { return fObject!=nil;}
    T * operator->() const { return fObject; }
    T * operator *() const { return fObject; }
};

// Use this for subclasses of hsRefCnt, where UnRef should be called at the end
template <class T> class hsTempRef {
    T*  fObject;
public:
        hsTempRef(T* object = nil) : fObject(object) {}
        ~hsTempRef() { if (fObject) fObject->UnRef(); }

        operator T*() const { return fObject; }
    T*  operator->() const { return fObject; }
    
    T*  operator=(T* src) { hsRefCnt_SafeUnRef(fObject); fObject = src; return fObject; }
};

// Use this for an array of objects of class T allocated with new[]
template <class T> class hsTempArray {
    T*      fArray;
    uint32_t  fCount;
    hsTempArray<T>& operator=(const hsTempArray<T>&);
public:
    hsTempArray(long count) : fArray(new T[count]), fCount(count)
    {
    }
    hsTempArray(long count, T initValue) : fArray(new T[count]), fCount(count)
    {
        for (int i = 0; i < count; i++)
            fArray[i] = initValue;
    }
    hsTempArray(T* p) : fArray(p), fCount(1)
    {
    }
    hsTempArray() : fArray(nil), fCount(0)
    {
    }
    ~hsTempArray()
    {
        delete[] fArray;
    }

    operator T*() const { return fArray; }
    T* GetArray() const { return fArray; }
    void Accomodate(uint32_t count)
    {
        if (count > fCount)
        {   delete[] fArray;
            fCount = count;
            fArray = new T[count];
        }
    }
};

////////////////////////////////////////////////////////////////////////////////
//
//// Like hsTempArray, but more useful when working with char * type arrays.
//enum KStringFormatConstructor {kFmtCtor};
//enum KStringFormatVConstructor    {kFmtVCtor};
//class hsTempString
//{
//public:
//  char * fStr;
//  hsTempString(): fStr(nil){}
//  hsTempString(char * p) : fStr(p) {}
//  hsTempString(const char * p) { fStr=hsStrcpy(p); }
//  hsTempString(KStringFormatConstructor, char * fmt, ...);
//  hsTempString(KStringFormatVConstructor, char * fmt, va_list args);
//  hsTempString(const hsTempString & other):fStr(hsStrcpy(other.fStr)){}
//  virtual ~hsTempString() { delete [] fStr; }
//  hsTempString & operator=(char * ptr)
//  {
//      if (fStr!=ptr)
//      {
//          delete [] fStr;
//          fStr=ptr;
//      }
//      return *this;
//  }
//  hsTempString & operator=(const hsTempString & other)
//  {
//      delete [] fStr;
//      fStr=hsStrcpy(other.fStr);
//      return *this;
//  }
//  operator char *() const { return fStr; }
//  operator char *&() { return fStr; }
//  operator const char *() const { return fStr; }
//  operator bool() const { return fStr!=nil;}
//  char * operator *() const { return fStr; }
//  const char* c_str() const { return fStr; }
//  char* c_str() { return fStr; }
//};
//
//// shorthand
//typedef hsTempString tmpstr_t;
//
//class hsTempStringF : public hsTempString
//{
//public:
//  hsTempStringF(char * fmt, ...);
//  void Format(char * fmt, ...);
//
//  hsTempString & operator=(char * ptr) { return hsTempString::operator=(ptr); }
//  hsTempString & operator=(const hsTempString & other) { return hsTempString::operator=(other);   }
//  hsTempString & operator=(const hsTempStringF & other) { return hsTempString::operator=(other);  }
//  operator char *() const { return fStr; }
//  operator char *&() { return fStr; }
//  operator const char *() const { return fStr; }
//  operator bool() const { return fStr!=nil;}
//  char * operator *() const { return fStr; }  
//};

//////////////////////////////////////////////////////////////////////////////

template <class T> class hsDynamicArray {
private:
    int32_t     fCount;
    T*          fArray; 

    hsDynamicArray<T>&  operator=(const hsDynamicArray<T>&);        // don't allow assignment
public:
    enum { kMissingIndex = -1 };

                hsDynamicArray(int32_t count = 0);
    virtual     ~hsDynamicArray();

    int32_t       GetCount() const { return fCount; }
    bool          IsEmpty() const { return fCount == 0; }
    const T&      Get(int32_t index) const;
    int32_t       Get(int32_t index, int32_t count, T data[]) const;
    int32_t       Find(const T&) const;   // returns kMissingIndex if not found

    void          SetCount(int32_t count);
    T&            operator[]( int32_t index );
    int32_t       Append(const T&);
    int32_t       InsertAtIndex(uint32_t index, const T& obj);
    int32_t       Push(const T&);
    int32_t       Pop(T*);
    void          Remove(int32_t);
    void          Reset();    // clears out everything

    T*                 AcquireArray() { return fArray; }
    T*                 DetachArray() { T* t = fArray; fCount = 0; fArray = nil; return t;  }
    void               ReleaseArray(T*) {}
    hsDynamicArray<T>* Copy(hsDynamicArray<T>* dst = nil) const;

    T*            ForEach(int32_t (*proc)(T&));
    T*            ForEach(int32_t (*proc)(T&, void* p1), void* p1);
    T*            ForEach(int32_t (*proc)(T&, void* p1, void* p2), void* p1, void* p2);
};

// Use this for block of memory allocated with HSMemory::New()
template <class T> class hsDynamicArrayAccess {
    T*  fArray;
    hsDynamicArray<T> *fArrayObj;
    hsDynamicArrayAccess<T>& operator=(const hsDynamicArrayAccess<T>&);
public:
    hsDynamicArrayAccess(hsDynamicArray<T> *array) : fArrayObj(array) { fArray = array->AcquireArray();}
    ~hsDynamicArrayAccess() { fArrayObj->ReleaseArray(fArray); }
        
        operator T*() const { return fArray; }
    T*  operator->() const { return fArray; }
};


template <class T>
    hsDynamicArray<T>::hsDynamicArray(int32_t count)
{
    fCount  = count;
    fArray  = nil;
    if (count)
        fArray = new T[ count ];
}

template <class T>
hsDynamicArray<T>::~hsDynamicArray()
{
    this->Reset();
}

template <class T>
void hsDynamicArray<T>::SetCount(int32_t count)
{
    if (fCount != count)
    {   if (count == 0)
            this->Reset();
        else
        {   T*  newArray = new T[count];
            
            if (fArray)
            {   int copyCount = hsMinimum(count, fCount);

                for (int i = 0; i < copyCount; i++)
                    newArray[i] = fArray[i];
                delete[] fArray;
            }
            fCount = count;
            fArray = newArray;
        }
    }
}

template <class T> T& hsDynamicArray<T>::operator[]( int32_t index )
{
    hsDebugCode(hsThrowIfBadParam((uint32_t)index >= (uint32_t)fCount);)

    return fArray[index];
}

template <class T> const T& hsDynamicArray<T>::Get( int32_t index ) const
{
    hsDebugCode(hsThrowIfBadParam((uint32_t)index >= (uint32_t)fCount);)

    return fArray[index];
}

template <class T>
int32_t hsDynamicArray<T>::Get(int32_t index, int32_t count, T data[]) const
{
    if (count > 0)
    {   hsThrowIfNilParam(data);
        hsThrowIfBadParam((uint32_t)index >= fCount);

        if (index + count > fCount)
            count = fCount - index;
        for (int i = 0; i < count; i++)
            data[i] = fArray[i + index];
    }
    return count;
}

template <class T>
int32_t hsDynamicArray<T>::Find(const T& obj) const
{
    for (int i = 0; i < fCount; i++)
        if (fArray[i] == obj)
            return i;
    return kMissingIndex;
}

template <class T>
void hsDynamicArray<T>::Remove(int32_t index)
{
    hsThrowIfBadParam((uint32_t)index >= (uint32_t)fCount);
    
    T rVal = fArray[index];

    if (--fCount > 0)
    {   
        int i;
        T* newList = new T[fCount];
        for(i = 0 ; i < index;i++)
            newList[i] = fArray[i];
        for (i = index; i < fCount; i++)
            newList[i] = fArray[i + 1];
        delete [] fArray;
        fArray = newList;
    }
    else
    {   delete[] fArray;
        fArray = nil;
    }
}

template <class T>
int32_t hsDynamicArray<T>::Pop(T *obj)
{
    hsThrowIfBadParam(this->IsEmpty());

    *obj = fArray[0];
    Remove(0);
    return fCount;
}


template <class T>
int32_t hsDynamicArray<T>::Push(const T& obj)
{
    if (fArray)
    {
        T* newList = new T[fCount+1];
        for(int i = 0 ; i < fCount; i++)
            newList[i+1] = fArray[i];
        newList[0] = obj;
        delete [] fArray;
        fArray = newList;
    }
    else
    {   hsAssert(fCount == 0, "mismatch");
        fArray = new T[1];
        fArray[0] = obj;
    }
    return ++fCount;
}

template <class T>
int32_t hsDynamicArray<T>::Append(const T& obj)
{
    if (fArray)
    {   T* newList = new T[fCount + 1];

        for (int i = 0; i < fCount; i++)
            newList[i] = fArray[i];
        newList[fCount] = obj;
        delete [] fArray;
        fArray = newList;
    }
    else
    {   hsAssert(fCount == 0, "mismatch");
        fArray = new T[1];
        fArray[0] = obj;
    }
    return ++fCount;
}


template <class T>
int32_t hsDynamicArray<T>::InsertAtIndex(uint32_t index, const T& obj)
{
    if (fArray)
    {   
        hsAssert(uint32_t(fCount) >= index, "Index too large for array");
        T* newList = new T[fCount + 1];
        unsigned i;
        for ( i = 0; i < index; i++)
            newList[i] = fArray[i];
        newList[index] = obj;
        for ( i = index; i < uint32_t(fCount); i++)
            newList[i+1] = fArray[i];
    
        delete [] fArray;
        fArray = newList;
    }
    else
    {   
        hsAssert(fCount == 0, "mismatch");
        hsAssert(index ==0,"Can't insert at non zero index in empty array");
        fArray = new T[1];
        fArray[0] = obj;
    }
    return ++fCount;
}

template <class T> void hsDynamicArray<T>::Reset()
{
    if (fArray)
    {   delete[] fArray;
        fArray = nil;
        fCount = 0;
    }
}

template <class T>
hsDynamicArray<T>* hsDynamicArray<T>::Copy(hsDynamicArray<T>* dst) const
{
    if (dst == nil)
        dst = new hsDynamicArray<T>;
    else
        dst->Reset();

    dst->SetCount(this->fCount);
    for (int i = 0; i < this->fCount; i++)
        dst->fArray[i] = this->fArray[i];

    return dst;
}

template <class T> T* hsDynamicArray<T>::ForEach(int32_t (*proc)(T&))
{
    for (int i = 0; i < fCount; i++)
        if (proc(fArray[i]))
            return &fArray[i];
    return nil;
}

template <class T> T* hsDynamicArray<T>::ForEach(int32_t (*proc)(T&, void* p1), void * p1)
{
    for (int i = 0; i < fCount; i++)
        if (proc(fArray[i], p1))
            return &fArray[i];
    return nil;
}

template <class T> T* hsDynamicArray<T>::ForEach(int32_t (*proc)(T&, void* p1, void* p2), void *p1, void *p2)
{
    for (int i = 0; i < fCount; i++)
        if (proc(fArray[i], p1, p2))
            return &fArray[i];
    return nil;
}

////////////////////////////////////////////////////////////////////////////////

class hsTArrayBase 
{
protected:
    uint16_t      fUseCount;
    uint16_t      fTotalCount;

    void GrowArraySize(uint16_t nSize);

#ifdef HS_DEBUGTARRAY
    hsTArrayBase();
    virtual char    *GetTypeName();
    virtual int      GetSizeOf();
    hsDlistNode *self;
    friend void TArrayStats();
    virtual ~hsTArrayBase();
#else
    hsTArrayBase():fUseCount(0), fTotalCount(0){}
#endif

public:
    uint16_t GetNumAlloc() const { return fTotalCount; }
};

template <class T> void hsTArray_CopyForward(const T src[], T dst[], int count);

template <class T> class hsTArray : public hsTArrayBase 
{
    T*      fArray;
    
    inline void IncCount(int index, int count);
    inline void DecCount(int index, int count);

#ifdef HS_DEBUGGING
    #define hsTArray_ValidateCount(count)       hsAssert(((count) >= 0)&&((count) <= 0xffffL), "bad count")
    #define hsTArray_ValidateIndex(index)       hsAssert(unsigned(index) < fUseCount, "bad index")
    #define hsTArray_ValidateInsertIndex(index) hsAssert(unsigned(index) <= fUseCount, "bad index")
    #define hsTArray_Validate(condition)        hsAssert(condition, "oops")

    #ifdef HS_DEBUGTARRAY
        virtual int      GetSizeOf() { return sizeof(T); }
    #endif
#else
    #define hsTArray_ValidateCount(count)
    #define hsTArray_ValidateIndex(index)
    #define hsTArray_ValidateInsertIndex(index)
    #define hsTArray_Validate(condition)
#endif
public:
    hsTArray() : fArray(nil) {}
    inline  hsTArray(int count);
    inline  hsTArray(const hsTArray<T>& src);
            ~hsTArray() { if (fArray) delete[] fArray; 
            }
    inline void Expand(int NewTotal);

    inline hsTArray<T>& operator=(const hsTArray<T>& src);
    bool operator==(const hsTArray<T>& src) const;  // checks sizes and contents

    // Swaps the internal data (including the fArray POINTER) with the data from the array given
    void    Swap( hsTArray<T>& src );

    void    Set(int index, const T& item)   { hsTArray_ValidateIndex(index); fArray[index]=item; }
    const T&    Get(int index) const { hsTArray_ValidateIndex(index); return fArray[index]; }
    T&      operator[](int index) const { hsTArray_ValidateIndex(index); return fArray[index]; }

    T*      FirstIter() { return &fArray[0]; }
    T*      StopIter() { return &fArray[fUseCount]; }

    int     Count() const { return fUseCount; }
    int     GetCount() const { return fUseCount; }
    inline void SetCount(int count);
    
    inline void SetCountAndZero(int count); // does block clear, don't use for types with vtbl
    inline void ExpandAndZero(int count);   // Same as set count and zero except won't decrease
                                            // usecount
    inline void Reset();

    T*      Insert(int index)
            {
                hsTArray_ValidateInsertIndex(index);
                this->IncCount(index, 1);
                return &fArray[index];
            }
    void        Insert(int index, const T& item)
            {
                hsTArray_ValidateInsertIndex(index);
                this->IncCount(index, 1);
                fArray[index] = item;
            }
    void        Insert(int index, int count, T item[])
            {
                hsTArray_ValidateCount(count);
                if (count > 0)
                {   hsTArray_ValidateInsertIndex(index);
                    this->IncCount(index, count);
                    hsTArray_CopyForward(item, &fArray[index], count);
                }
            }
    // This guy is a duplicate for compatibility with the older hsDynamicArray<>
    void        InsertAtIndex(int index, const T& item) { this->Insert(index, item); }

    void        Remove(int index)
            {
                hsTArray_ValidateIndex(index);
                this->DecCount(index, 1);
            }
    void        Remove(int index, int count)
            {
                hsTArray_ValidateCount(count);
                hsTArray_ValidateIndex(index);
                hsTArray_ValidateIndex(index + count - 1);
                this->DecCount(index, count);
            }
    bool        RemoveItem(const T& item);

    T*      Push()
            {
                this->IncCount(fUseCount, 1);
                return &fArray[fUseCount - 1];
            }
    void        Push(const T& item)
            {
                this->IncCount(fUseCount, 1);
                fArray[fUseCount - 1] = item;
            }
    void        Append(const T& item)
            {
                this->IncCount(fUseCount, 1);
                fArray[fUseCount - 1] = item;
            }
    inline T    Pop();
    inline const T& Peek() const;

    enum {
        kMissingIndex    = -1
    };
    int     Find(const T& item) const;  // returns kMissingIndex if not found
    inline T*   ForEach(int32_t (*proc)(T&));
    inline T*   ForEach(int32_t (*proc)(T&, void* p1), void* p1);
    inline T*   ForEach(int32_t (*proc)(T&, void* p1, void* p2), void* p1, void* p2);

    T*      DetachArray()
            {
                T* array = fArray;
                fUseCount = fTotalCount = 0;
                fArray = nil;
                return array;
            }
    T*      AcquireArray() { return fArray; }
};

//////////////  Public hsTArray methods

template <class T> hsTArray<T>::hsTArray(int count) : fArray(nil)
{
    hsTArray_ValidateCount(count);
    fUseCount = fTotalCount = count;
    if (count > 0)
        fArray = new T[count];
}

template <class T> hsTArray<T>::hsTArray(const hsTArray<T>& src) : fArray(nil)
{
    int count = src.Count();
    fUseCount = fTotalCount = count;

    if (count > 0)
    {   
        fArray = new T[count];
        hsTArray_CopyForward(src.fArray, fArray, count);
    }
}

template <class T> hsTArray<T>& hsTArray<T>::operator=(const hsTArray<T>& src)
{
    if (this->Count() != src.Count())
        this->SetCount(src.Count());
    hsTArray_CopyForward(src.fArray, fArray, src.Count());
    return *this;
}

// checks sizes and contents
template <class T> 
bool hsTArray<T>::operator==(const hsTArray<T>& src) const
{
    if (&src==this)
        return true;    // it's me

    if (GetCount() != src.GetCount())
        return false;   // different sizes

    int i;
    for(i=0;i<GetCount();i++)
        if (Get(i) != src[i])
            return false;   // different contents

    return true;        // the same
}


//// Swap ////////////////////////////////////////////////////////////////////
//  Added 5.2.2001 mcn - Given another hsTArray of the same type, "swaps" the
//  data stored in both. Basically we're literally swapping the fArray pointers
//  around, plus the use counts and such.

template <class T> void hsTArray<T>::Swap( hsTArray<T>& src )
{
    uint16_t      use, tot;
    T           *array;


    use = fUseCount;
    tot = fTotalCount;
    array = fArray;

    fUseCount = src.fUseCount;
    fTotalCount = src.fTotalCount;
    fArray = src.fArray;

    src.fUseCount = use;
    src.fTotalCount = tot;
    src.fArray = array;
}

template <class T> void hsTArray<T>::SetCountAndZero(int count)
{
    if( fTotalCount <= count )
    {
        int n = fTotalCount;
        Expand(count);
    }
    int i;
    for( i = 0; i < fTotalCount; i++ )
        fArray[i] = 0;
    fUseCount = count;
}

template <class T> void hsTArray<T>::ExpandAndZero(int count)
{
    if( fTotalCount <= count )
    {
        int n = fTotalCount;
        Expand(count);
        int i;
        for( i = n; i < count; i++ )
            fArray[i] = 0;
    }
    if( fUseCount < count )
        fUseCount = count;
}

template <class T> void hsTArray<T>::SetCount(int count)
{
    hsTArray_ValidateCount(count);
    if (count > fTotalCount)
    {   
        if (fArray)
            delete[] fArray;
        fArray = new T[count];
        fUseCount = fTotalCount = count;
    }
    fUseCount = count;
}

template <class T> void hsTArray<T>::Expand(int NewCount) // New Count is Absolute not additional
{
    hsTArray_ValidateCount(NewCount);
    if (NewCount > fTotalCount)         // This is Expand not Shrink
    {   
        T*  newArray = new T[NewCount];

        if (fArray != nil)
        {   hsTArray_CopyForward(fArray, newArray, fUseCount);
//          hsTArray_CopyForward(&fArray[index], &newArray[index + count], fUseCount - index);
            delete[] fArray;
        }
        fArray = newArray;
        fTotalCount = NewCount;
    }
}

template <class T> void hsTArray<T>::Reset()
{
    if (fArray)
    {   
        delete[] fArray;
        fArray = nil;
        fUseCount = fTotalCount = 0;
    }
}

template <class T> T hsTArray<T>::Pop()
{
    hsTArray_Validate(fUseCount > 0);
    fUseCount -= 1;
    return fArray[fUseCount];
}

template <class T> const T& hsTArray<T>::Peek() const
{
    hsTArray_Validate(fUseCount > 0);
    return fArray[fUseCount-1];
}

template <class T> int hsTArray<T>::Find(const T& item) const
{
    for (int i = 0; i < fUseCount; i++)
        if (fArray[i] == item)
            return i;
    return kMissingIndex;
}

template <class T> bool hsTArray<T>::RemoveItem(const T& item)
{
    for (int i = 0; i < fUseCount; i++)
        if (fArray[i] == item)
        {   this->DecCount(i, 1);
            return true;
        }
    return false;
}

//////////  These are the private methods for hsTArray

template <class T> void hsTArray_CopyForward(const T src[], T dst[], int count)
{
    for (int i = 0; i < count; i++)
        dst[i] = src[i];
}

template <class T> void hsTArray_CopyBackward(const T src[], T dst[], int count)
{
    for (int i = count - 1; i >= 0; --i)
        dst[i] = src[i];
}

template <class T> void hsTArray<T>::IncCount(int index, int count)
{
    int newCount = fUseCount + count;

    if (newCount > fTotalCount)
    {   if (fTotalCount == 0)
            fTotalCount = newCount;

        GrowArraySize(newCount);    // Sets new fTotalCount
        T*  newArray = new T[fTotalCount];

        if (fArray != nil)
        {   hsTArray_CopyForward(fArray, newArray, index);
            hsTArray_CopyForward(&fArray[index], &newArray[index + count], fUseCount - index);
            delete[] fArray;
        }
        fArray = newArray;
    }
    else
        hsTArray_CopyBackward(&fArray[index], &fArray[index + count], fUseCount - index);
    fUseCount = newCount;
}

template <class T> void hsTArray<T>::DecCount(int index, int count)
{
    if (fUseCount == count)
        this->Reset();
    else
    {   hsTArray_CopyForward(&fArray[index + count], &fArray[index], fUseCount - index - count);
        fUseCount -= count;
    }
}

template <class T> T* hsTArray<T>::ForEach(int32_t (*proc)(T&))
{
    for (int i = 0; i < fUseCount; i++)
        if (proc(fArray[i]))
            return &fArray[i];
    return nil;
}

template <class T> T* hsTArray<T>::ForEach(int32_t (*proc)(T&, void* p1), void* p1)
{
    for (int i = 0; i < fUseCount; i++)
        if (proc(fArray[i], p1))
            return &fArray[i];
    return nil;
}

template <class T> T* hsTArray<T>::ForEach(int32_t (*proc)(T&, void* p1, void* p2), void* p1, void* p2)
{
    for (int i = 0; i < fUseCount; i++)
        if (proc(fArray[i], p1, p2))
            return &fArray[i];
    return nil;
}

////////////////////////////////////////////////////////////////////////////////////////////////
//
// hsTArray's big brother. Only to be used when expecting more than 64K of elements. The
// only difference between hsTArray and hsLargeArray is LargeArray uses 32 bit counters,
// vs 16 bit counters for hsTArray.

class hsLargeArrayBase 
{
protected:
    uint32_t      fUseCount;
    uint32_t      fTotalCount;

    void GrowArraySize(uint32_t nSize);

#ifdef HS_DEBUGTARRAY
    hsLargeArrayBase();
    virtual char    *GetTypeName();
    virtual int      GetSizeOf();
    hsDlistNode *self;
    friend void LargeArrayStats();
    virtual ~hsLargeArrayBase();
#else
    hsLargeArrayBase():fUseCount(0), fTotalCount(0){}
#endif

public:
    uint32_t GetNumAlloc() const { return fTotalCount; }
};


template <class T> class hsLargeArray : public hsLargeArrayBase 
{
    T*      fArray;
    
    inline void IncCount(int index, int count);
    inline void DecCount(int index, int count);

#ifdef HS_DEBUGGING
    #define hsLargeArray_ValidateCount(count)       hsAssert((count) >= 0, "bad count")
    #define hsLargeArray_ValidateIndex(index)       hsAssert(unsigned(index) < fUseCount, "bad index")
    #define hsLargeArray_ValidateInsertIndex(index) hsAssert(unsigned(index) <= fUseCount, "bad index")
    #define hsLargeArray_Validate(condition)        hsAssert(condition, "oops")

    #ifdef HS_DEBUGTARRAY
        virtual int      GetSizeOf() { return sizeof(T); }
    #endif
#else
    #define hsLargeArray_ValidateCount(count)
    #define hsLargeArray_ValidateIndex(index)
    #define hsLargeArray_ValidateInsertIndex(index)
    #define hsLargeArray_Validate(condition)
#endif
public:
    hsLargeArray() : fArray(nil) {}
    inline  hsLargeArray(int count);
    inline  hsLargeArray(const hsLargeArray<T>& src);
            ~hsLargeArray() { if (fArray) delete[] fArray; 
            }
    inline void Expand(int NewTotal);

    inline hsLargeArray<T>& operator=(const hsLargeArray<T>& src);

    // Swaps the internal data (including the fArray POINTER) with the data from the array given
    void    Swap( hsLargeArray<T>& src );

    void    Set(int index, const T& item)   { hsLargeArray_ValidateIndex(index); fArray[index]=item; }
    const T&    Get(int index) const { hsLargeArray_ValidateIndex(index); return fArray[index]; }
    T&      operator[](int index) const { hsLargeArray_ValidateIndex(index); return fArray[index]; }

    T*      FirstIter() { return &fArray[0]; }
    T*      StopIter() { return &fArray[fUseCount]; }

    int     Count() const { return fUseCount; }
    int     GetCount() const { return fUseCount; }
    inline void SetCount(int count);
    
    inline void SetCountAndZero(int count); // does block clear, don't use for types with vtbl
    inline void ExpandAndZero(int count);   // Same as set count and zero except won't decrease
                                            // usecount
    inline void Reset();

    T*      Insert(int index)
            {
                hsLargeArray_ValidateInsertIndex(index);
                this->IncCount(index, 1);
                return &fArray[index];
            }
    void        Insert(int index, const T& item)
            {
                hsLargeArray_ValidateInsertIndex(index);
                this->IncCount(index, 1);
                fArray[index] = item;
            }
    void        Insert(int index, int count, T item[])
            {
                hsLargeArray_ValidateCount(count);
                if (count > 0)
                {   hsLargeArray_ValidateInsertIndex(index);
                    this->IncCount(index, count);
                    hsLargeArray_CopyForward(item, &fArray[index], count);
                }
            }
    // This guy is a duplicate for compatibility with the older hsDynamicArray<>
    void        InsertAtIndex(int index, const T& item) { this->Insert(index, item); }

    void        Remove(int index)
            {
                hsLargeArray_ValidateIndex(index);
                this->DecCount(index, 1);
            }
    void        Remove(int index, int count)
            {
                hsLargeArray_ValidateCount(count);
                hsLargeArray_ValidateIndex(index);
                hsLargeArray_ValidateIndex(index + count - 1);
                this->DecCount(index, count);
            }
    bool    RemoveItem(const T& item);

    T*      Push()
            {
                this->IncCount(fUseCount, 1);
                return &fArray[fUseCount - 1];
            }
    void        Push(const T& item)
            {
                this->IncCount(fUseCount, 1);
                fArray[fUseCount - 1] = item;
            }
    void        Append(const T& item)
            {
                this->IncCount(fUseCount, 1);
                fArray[fUseCount - 1] = item;
            }
    inline T    Pop();
    inline const T& Peek() const;

    enum {
        kMissingIndex    = -1
    };
    int     Find(const T& item) const;  // returns kMissingIndex if not found
    inline T*   ForEach(int32_t (*proc)(T&));
    inline T*   ForEach(int32_t (*proc)(T&, void* p1), void* p1);
    inline T*   ForEach(int32_t (*proc)(T&, void* p1, void* p2), void* p1, void* p2);

    T*      DetachArray()
            {
                T* array = fArray;
                fUseCount = fTotalCount = 0;
                fArray = nil;
                return array;
            }
    T*      AcquireArray() { return fArray; }
};

//////////////  Public hsLargeArray methods

template <class T> hsLargeArray<T>::hsLargeArray(int count) : fArray(nil)
{
    hsLargeArray_ValidateCount(count);
    fUseCount = fTotalCount = count;
    if (count > 0)
        fArray = new T[count];
}

template <class T> hsLargeArray<T>::hsLargeArray(const hsLargeArray<T>& src) : fArray(nil)
{
    int count = src.Count();
    fUseCount = fTotalCount = count;

    if (count > 0)
    {   
        fArray = new T[count];
        hsLargeArray_CopyForward(src.fArray, fArray, count);
    }
}

template <class T> hsLargeArray<T>& hsLargeArray<T>::operator=(const hsLargeArray<T>& src)
{
    if (this->Count() != src.Count())
        this->SetCount(src.Count());
    hsLargeArray_CopyForward(src.fArray, fArray, src.Count());
    return *this;
}

template <class T> void hsLargeArray<T>::Swap( hsLargeArray<T>& src )
{
    uint32_t      use, tot;
    T           *array;


    use = fUseCount;
    tot = fTotalCount;
    array = fArray;

    fUseCount = src.fUseCount;
    fTotalCount = src.fTotalCount;
    fArray = src.fArray;

    src.fUseCount = use;
    src.fTotalCount = tot;
    src.fArray = array;
}

template <class T> void hsLargeArray<T>::SetCountAndZero(int count)
{
    if( fTotalCount <= count )
    {
        int n = fTotalCount;
        Expand(count);
    }
    HSMemory::Clear(fArray, fTotalCount * sizeof( T ));
    fUseCount = count;
}

template <class T> void hsLargeArray<T>::ExpandAndZero(int count)
{
    if( fTotalCount <= count )
    {
        int n = fTotalCount;
        Expand(count);
        HSMemory::Clear(fArray+n, (count - n) * sizeof( T ));
    }
    if( fUseCount < count )
        fUseCount = count;
}

template <class T> void hsLargeArray<T>::SetCount(int count)
{
    hsLargeArray_ValidateCount(count);
    if (count > fTotalCount)
    {   
        if (fArray)
            delete[] fArray;
        fArray = new T[count];
        fUseCount = fTotalCount = count;
    }
    fUseCount = count;
}

template <class T> void hsLargeArray<T>::Expand(int NewCount) // New Count is Absolute not additional
{
    hsLargeArray_ValidateCount(NewCount);
    if (NewCount > fTotalCount)         // This is Expand not Shrink
    {   
        T*  newArray = new T[NewCount];

        if (fArray != nil)
        {   hsLargeArray_CopyForward(fArray, newArray, fUseCount);
//          hsLargeArray_CopyForward(&fArray[index], &newArray[index + count], fUseCount - index);
            delete[] fArray;
        }
        fArray = newArray;
        fTotalCount = NewCount;
    }
}

template <class T> void hsLargeArray<T>::Reset()
{
    if (fArray)
    {   
        delete[] fArray;
        fArray = nil;
        fUseCount = fTotalCount = 0;
    }
}

template <class T> T hsLargeArray<T>::Pop()
{
    hsLargeArray_Validate(fUseCount > 0);
    fUseCount -= 1;
    return fArray[fUseCount];
}

template <class T> const T& hsLargeArray<T>::Peek() const
{
    hsLargeArray_Validate(fUseCount > 0);
    return fArray[fUseCount-1];
}

template <class T> int hsLargeArray<T>::Find(const T& item) const
{
    for (int i = 0; i < fUseCount; i++)
        if (fArray[i] == item)
            return i;
    return kMissingIndex;
}

template <class T> bool hsLargeArray<T>::RemoveItem(const T& item)
{
    for (int i = 0; i < fUseCount; i++)
        if (fArray[i] == item)
        {   this->DecCount(i, 1);
            return true;
        }
    return false;
}

//////////  These are the private methods for hsLargeArray

template <class T> void hsLargeArray_CopyForward(const T src[], T dst[], int count)
{
    for (int i = 0; i < count; i++)
        dst[i] = src[i];
}

template <class T> void hsLargeArray_CopyBackward(const T src[], T dst[], int count)
{
    for (int i = count - 1; i >= 0; --i)
        dst[i] = src[i];
}

template <class T> void hsLargeArray<T>::IncCount(int index, int count)
{
    int newCount = fUseCount + count;

    if (newCount > fTotalCount)
    {   if (fTotalCount == 0)
            fTotalCount = newCount;

        GrowArraySize(newCount);    // Sets new fTotalCount
        T*  newArray = new T[fTotalCount];

        if (fArray != nil)
        {   hsLargeArray_CopyForward(fArray, newArray, index);
            hsLargeArray_CopyForward(&fArray[index], &newArray[index + count], fUseCount - index);
            delete[] fArray;
        }
        fArray = newArray;
    }
    else
        hsLargeArray_CopyBackward(&fArray[index], &fArray[index + count], fUseCount - index);
    fUseCount = newCount;
}

template <class T> void hsLargeArray<T>::DecCount(int index, int count)
{
    if (fUseCount == count)
        this->Reset();
    else
    {   hsLargeArray_CopyForward(&fArray[index + count], &fArray[index], fUseCount - index - count);
        fUseCount -= count;
    }
}

template <class T> T* hsLargeArray<T>::ForEach(int32_t (*proc)(T&))
{
    for (int i = 0; i < fUseCount; i++)
        if (proc(fArray[i]))
            return &fArray[i];
    return nil;
}

template <class T> T* hsLargeArray<T>::ForEach(int32_t (*proc)(T&, void* p1), void* p1)
{
    for (int i = 0; i < fUseCount; i++)
        if (proc(fArray[i], p1))
            return &fArray[i];
    return nil;
}

template <class T> T* hsLargeArray<T>::ForEach(int32_t (*proc)(T&, void* p1, void* p2), void* p1, void* p2)
{
    for (int i = 0; i < fUseCount; i++)
        if (proc(fArray[i], p1, p2))
            return &fArray[i];
    return nil;
}



#endif