/*---------------------------------------------------------------------------*

  Copyright (C) Nintendo.  All rights reserved.

  These coded instructions, statements, and computer programs contain
  proprietary information of Nintendo of America Inc. and/or Nintendo
  Company Ltd., and are protected by Federal copyright law.  They may
  not be disclosed to third parties or copied or duplicated in any form,
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 *---------------------------------------------------------------------------*/

// gx2Misc.h
//
// Declares misc function prototypes for gx2 library.

#ifndef _CAFE_GX2_MISC_H_
#define _CAFE_GX2_MISC_H_

#if !(defined _WIN32 || defined _WIN64)
#include <cafe/mem.h>
#endif

#ifdef __cplusplus
extern "C"
{
#endif // __cplusplus

/// @addtogroup GX2UTComponentGroup
/// @{

// -----------------
// Types that are used in multiple areas

/// \brief Used to define a component (swap/routing) selection set
///
/// Use the macros in \ref GX2UTComponentGroup to create or decode a selection.
/// There are also predefined variables to use for common selections.
///
typedef u32 GX2CompSel;

/// \brief Macro to get X_R component from a component selection set
///
#define GX2_GET_COMPONENT_X_R(v)  (((v)>>24)&0xff)

/// \brief Macro to get Y_G component from a component selection set
///
#define GX2_GET_COMPONENT_Y_G(v)  (((v)>>16)&0xff)

/// \brief Macro to get Z_B component from a component selection set
///
#define GX2_GET_COMPONENT_Z_B(v)  (((v)>> 8)&0xff)

/// \brief Macro to get W_A component from a component selection set
///
#define GX2_GET_COMPONENT_W_A(v)  (((v)>> 0)&0xff)

/// \brief Macro to assemble a component selection set from individual components
///
#define GX2_GET_COMP_SEL(x,y,z,w) ((((x)&0xff)<<24)|(((y)&0xff)<<16)|(((z)&0xff)<<8)|((w)&0xff))

/// \brief Predefined component select (0,0,0,1) or (0,0,0,1)
#define GX2_COMP_SEL_NONE GX2_GET_COMP_SEL(GX2_COMPONENT_C_0,GX2_COMPONENT_C_0,GX2_COMPONENT_C_0,GX2_COMPONENT_C_1)

/// \brief Predefined component select (X,0,0,1) or (R,0,0,1)
#define GX2_COMP_SEL_X001 GX2_GET_COMP_SEL(GX2_COMPONENT_X_R,GX2_COMPONENT_C_0,GX2_COMPONENT_C_0,GX2_COMPONENT_C_1)

/// \brief Predefined component select (X,Y,0,1) or (R,G,0,1)
#define GX2_COMP_SEL_XY01 GX2_GET_COMP_SEL(GX2_COMPONENT_X_R,GX2_COMPONENT_Y_G,GX2_COMPONENT_C_0,GX2_COMPONENT_C_1)

/// \brief Predefined component select (X,Y,Z,1) or (R,G,B,1)
#define GX2_COMP_SEL_XYZ1 GX2_GET_COMP_SEL(GX2_COMPONENT_X_R,GX2_COMPONENT_Y_G,GX2_COMPONENT_Z_B,GX2_COMPONENT_C_1)

/// \brief Predefined component select (X,Y,Z,W) or (R,G,B,A)
#define GX2_COMP_SEL_XYZW GX2_GET_COMP_SEL(GX2_COMPONENT_X_R,GX2_COMPONENT_Y_G,GX2_COMPONENT_Z_B,GX2_COMPONENT_W_A)

/// \brief Predefined component select (X,X,X,X) or (R,R,R,R)
#define GX2_COMP_SEL_XXXX GX2_GET_COMP_SEL(GX2_COMPONENT_X_R,GX2_COMPONENT_X_R,GX2_COMPONENT_X_R,GX2_COMPONENT_X_R)

/// \brief Predefined component select (Y,Y,Y,Y) or (G,G,G,G)
#define GX2_COMP_SEL_YYYY GX2_GET_COMP_SEL(GX2_COMPONENT_Y_G,GX2_COMPONENT_Y_G,GX2_COMPONENT_Y_G,GX2_COMPONENT_Y_G)

/// \brief Predefined component select (Z,Z,Z,Z) or (B,B,B,B)
#define GX2_COMP_SEL_ZZZZ GX2_GET_COMP_SEL(GX2_COMPONENT_Z_B,GX2_COMPONENT_Z_B,GX2_COMPONENT_Z_B,GX2_COMPONENT_Z_B)

/// \brief Predefined component select (W,W,W,W) or (A,A,A,A)
#define GX2_COMP_SEL_WWWW GX2_GET_COMP_SEL(GX2_COMPONENT_W_A,GX2_COMPONENT_W_A,GX2_COMPONENT_W_A,GX2_COMPONENT_W_A)

/// \brief Predefined component select (W,Z,Y,X) or (A,B,G,R)
#define GX2_COMP_SEL_WZYX GX2_GET_COMP_SEL(GX2_COMPONENT_W_A,GX2_COMPONENT_Z_B,GX2_COMPONENT_Y_G,GX2_COMPONENT_X_R)

/// \brief Predefined component select (W,X,Y,Z) or (A,R,G,B)
#define GX2_COMP_SEL_WXYZ GX2_GET_COMP_SEL(GX2_COMPONENT_W_A,GX2_COMPONENT_X_R,GX2_COMPONENT_Y_G,GX2_COMPONENT_Z_B);

/// @}
/// @addtogroup GX2UTHelperGroup
/// @{

// -----------------
// Utility #defines

/// \brief Swap byte order in a 32-bit int.
///
#define GX2_SWAP_8_IN_32(x) \
    ( (((x) >> 24) & 0xff) | (((x) >> 8) & 0xff00) | (((x) << 8) & 0xff0000) | (((x) << 24) & 0xff000000) )

/// \brief Swap byte order in a 16-bit int.
///
/// Note: x must already be cast to a 16-bit int-type.
///
#define GX2_SWAP_8_IN_16(x) \
    ( ((x) >> 8) | ((x) << 8) )

/// \brief Swap 16-bit word order in a 32-bit int.
///
/// Note: x must already be cast to a 32-bit int-type.
///
#define GX2_SWAP_16_IN_32(x) \
    ( ((x) >> 16) | ((x) << 16) )

/// \brief Swap byte order in a 64-bit int.
///
/// \note 0xffull is a 64-bit constant = 0xff
#define GX2_SWAP_8_IN_64(x) \
    ((((x)>>56)&(0xffull<< 0))|(((x)>>40)&(0xffull<< 8))|(((x)>>24)&(0xffull<<16))|(((x)>> 8)&(0xffull<<24))| \
     (((x)<< 8)&(0xffull<<32))|(((x)<<24)&(0xffull<<40))|(((x)<<40)&(0xffull<<48))|(((x)<<56)&(0xffull<<56)))

/// \brief Utility function to copy and endian-swap a given range of bytes.
/// It performs a 8-in-32 swap while copying u32 units from source to dest.
/// For best results, you should also call DCZeroRange() on the dest first
/// (this can only be done when the range is 32-byte aligned in location and
/// size, though).
///
/// \param dst     Start of the given dest buffer range to copy and swap
/// \param src     Start of the given src buffer range
/// \param byteLen Length of the given range specified in bytes. Must be a multiple of 4.
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE void GX2CopyEndianSwap(void *dst, const void *src, u32 byteLen)
{
    ASSERT((byteLen % sizeof(u32))==0);
#if !(defined _WIN32 || defined _WIN64)
    u32 i;
    u32 *csrc = (u32 *) src;
    __bytereversed u32 *cdst = (__bytereversed u32 *) dst;
    for(i=0; i<(byteLen>>2); i++) cdst[i] = csrc[i];
#else
    {
        u32* csrc = (u32*)src;
        u32* cdst = (u32*)dst;
        u32 i;
        for (i=0; i<byteLen>>2; i++)
        {
            cdst[i] = GX2_SWAP_8_IN_32(csrc[i]);
        }
    }
#endif
}

/// \brief Utility function to endian-swap a given range of bytes. 8-in-32 swap is done in-place.
///
/// \note Length is given in bytes to mirror other APIs that operate on ranges.
/// \param ptr     Start of the given range to swap
/// \param byteLen Length of the given range specified in bytes. Must be a multiple of 4.
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE void GX2EndianSwap(void *ptr, u32 byteLen)
{
    ASSERT((byteLen % sizeof(u32))==0);
#if !(defined _WIN32 || defined _WIN64)
    u32 i;
    u32 *src = (u32 *) ptr;
    __bytereversed u32 *dst = (__bytereversed u32 *) ptr;
    for(i=0; i<(byteLen>>2); i++) dst[i] = src[i];
#else
    {
        u32* src = (u32*)ptr;
        u32 i;
        for (i=0; i<byteLen>>2; i++)
        {
            src[i] = GX2_SWAP_8_IN_32(src[i]);
        }
    }
#endif
}

/// \brief Utility function to round a value up to a multiple of a power of 2 size
///
/// \note This function only works if size is a power of 2
///
/// \param value    the input value to be rounded up
/// \param size     a power of 2 multiple to round value up to
/// \return         value rounded up to a multiple of size
///
/// \donotcall \threadsafe \devonly \enddonotcall
///
GX2_INLINE u32 GX2RoundUp(u32 value, u32 size)
{
    // assert if the size is not a power of 2
    ASSERT((size & (size - 1)) == 0);
    return ((value + (size - 1)) & ~(size - 1));
}

/// @}
/// @addtogroup GX2ManagementMemGroup
/// @{

/// \brief Type used for default GX2 memory allocator
typedef void* (*GX2DefaultAllocateFunc)(u32 userArg, u32 byteCount, u32 alignment);

/// \brief Type used for default GX2 memory free function
typedef void (*GX2DefaultFreeFunc)(u32 userArg, void* pMem);

/// \brief Set default functions to use for memory allocation/freeing.
///
/// These will be used by GX2R regular & debug features as well as by the debug PM4 capture
/// unless other allocators are specifically set using other APIs.  These functions can also
/// be easily used by the perf APIs by passing in \ref GX2MEMDefaultAllocator.
///
/// If not set by the user, these will just call MEMAllocFromDefaultHeap/MEMFreeToDefaultHeap.
///
/// \param pfnAlloc pointer to allocator function
/// \param pfnFree  pointer to free function
///
/// \donotcall \fgonly \notthreadsafe \notinterrupt \notexception \devonly \enddonotcall
///
void GX2API GX2SetDefaultAllocator(GX2DefaultAllocateFunc pfnAlloc, GX2DefaultFreeFunc pfnFree);

/// \brief Get default functions to use for memory allocation/freeing.
/// \param ppfnAlloc pointer to get pointer to allocator function
/// \param ppfnFree  pointer to get pointer to free function
///
/// \donotcall \threadsafe \devonly \enddonotcall
///
void GX2API GX2GetDefaultAllocator(GX2DefaultAllocateFunc *ppfnAlloc, GX2DefaultFreeFunc *ppfnFree);

#if !(defined _WIN32 || defined _WIN64)
/// \brief A pre-defined allocator that will call the default GX2 allocator/free functions
/// that are set up using \ref GX2SetDefaultAllocator.
extern MEMAllocator GX2MEMDefaultAllocator;
#endif

#ifdef _DEBUG
/// \brief Tell GX2 about graphics memory allocation.
///
/// While not required, calling this function when allocating GPU-accessed
/// graphics data may help the GPU debugger PM4 frame capture feature
/// work properly or more efficiently.
///
/// \donotcall \fgonly \notthreadsafe \notinterrupt \notexception \devonly \enddonotcall
///
void GX2API GX2NotifyMemAlloc(void* addr, u32 size, u32 align);

/// \brief Tell GX2 about graphics memory free.
///
/// While not required, calling this function when freeing GPU-accessed
/// graphics data may help the GPU debugger PM4 frame capture feature
/// work properly or more efficiently.
///
/// \donotcall \fgonly \notthreadsafe \notinterrupt \notexception \devonly \enddonotcall
///
void GX2API GX2NotifyMemFree(void* addr);
#else
GX2_INLINE void GX2NotifyMemAlloc(const void* addr, u32 size, u32 align){
    addr=addr;
    size=size;
    align=align;
}
GX2_INLINE void GX2NotifyMemFree(const void* addr){
    addr=addr;
}
#endif

/// \brief Invalidate GPU input caches or flush GPU output caches/pipelines.
///
/// This function invalidates GPU input caches or flushes GPU output caches.
/// For CPU ranges, it calls DCFlushRange() (i.e., it flushes the data cache).
///
/// Every memory range to be read by the GPU must be flushed or
/// invalidated from the CPU cache before use.  For display lists,
/// you should call GX2Invalidate() on the memory *before* writing
/// to it with GX2 commands.  For any vertex, texture, shader, or
/// uniform buffer data written by the CPU, you should call
/// GX2Invalidate() *after* writing it.
///
/// For rendering to textures, this function must be called twice:
/// - Once to flush the color buffer (or depth buffer) write pipe
/// - Once to invalidate the texture read cache
///
/// \note For GPU input cache flushes, you may specify a range of 0x0 - 0xffffffff.  
/// This can make resource management easier for the CPU, though it may 
/// cause some unnecessary invalidation.
/// \note For GPU output cache flushes, you may specify a range of 0x0 - 0xffffffff.
///  This can make resource management easier for the CPU, though it may cause some
///  unnecessary invalidation.  In addition, the GPU has optimizations to avoid
///  unnecessary stalling when it is given ranges that match the ones it knows about.
///
/// \param invType  Flags indicating which invalidations/flushes to perform
/// \param ptr      start of cached data area
/// \param size     size of cached data area in bytes
///
/// \donotcall \gx2_typical \enddonotcall
///
/// \writesgpu
/// \writesgpu{if the invType contains any GPU invalidation bit}
///
void GX2API GX2Invalidate( GX2InvalidateType invType, void *ptr, u32 size );

/// @}
/// @addtogroup GX2DebugGroup
/// @{

// -----------------
// Debugging Helpers

/// \brief Enable or disable debug drawing modes
///
/// - "Flush per draw" makes sure that each draw command is submitted to the
/// hardware as soon as possible.
/// - "Done per flush" waits for each submit (of any type) to complete before
/// continuing.
///
/// \note This function only operates in debug builds of GX2.  In non-debug
/// builds, the function still exists, but does not do anything.
///
/// \donotcall \fgonly \notthreadsafe \devonly \enddonotcall
///
void GX2API GX2SetDebugMode(GX2DebugMode dm);

/// \brief Determines the maximum amount of time to wait for the GPU to
/// perform certain actions before regarding it as hung.
///
/// This value affects functions such as \ref GX2WaitTimeStamp and
/// \ref GX2WaitForVsync. When GX2 thinks the GPU might be hung,
/// it can report the state of some GPU registers and determine which
/// GPU blocks are busy.
///
/// This API can change the timeout value for debugging purposes.  Note
/// that you should avoid setting the timeout to less than 17 msec, or
/// some functions will most likely timeout on you.  The default timeout
/// is given by \ref GX2_DEFAULT_GPU_TIMEOUT_IN_MILLISEC.
///
/// \param millisec amount of time before GX2 considers GPU to be hung
///
/// \donotcall \fgonly \notthreadsafe \devonly \enddonotcall
///
void GX2API GX2SetGPUTimeout(u32 millisec);

/// \brief Returns the value set by \ref GX2SetGPUTimeout
///
/// \donotcall \fgonly \threadsafe \devonly \enddonotcall
///
u32 GX2API GX2GetGPUTimeout(void);

/// \brief Determines the maximum number of interrupts allowed during
/// a single frame time (1/60 of a second) before a warning is issued.
///
/// In debug builds only, a warning is printed out if this limit is
/// exceeded.  This is to help alert the user of unexpected processing
/// that can interfere with normal operations.  The default limit is
/// given by \ref GX2_DEFAULT_INTERRUPT_COUNT_LIMIT.
///
/// \param limit The interrupt count limit during each 1/60 sec frame.
///
/// \donotcall \fgonly \notthreadsafe \devonly \enddonotcall
///
void GX2API GX2SetInterruptCountLimit(u32 limit);

/// \brief Helper function to see current GPU status.
///
/// \warning This should not be used in production code.
///
/// \donotcall \gx2_typical \enddonotcall
///
void GX2API GX2PrintGPUStatus(void);

/// \brief Function used to set GX2Log-related settings.
///
/// \donotcall \threadsafe \devonly \enddonotcall
///
void GX2API GX2LogSetMisc(GX2LogAttrib attrib, u32 value);


/// @}
/// @addtogroup GX2DebugCaptureGroup
/// @{

/// \brief Function to write a user string to the PM4 capture
/// \param userTagType      A semantic tag written with the string for tool use
/// \param formatString     printf-style arguments, written to the captured command buffer
///
/// \donotcall \gx2_typical \enddonotcall
///
/// \writesgpu
/// \alwayswritesgpu
///
void GX2API GX2DebugTagUserString(GX2DebugTagUserStringType userTagType, const char* formatString, ...);

/// \brief Use this version of \ref GX2DebugTagUserString if you want to forward a varargs wrapper
/// \param userTagType      A semantic tag written with the string for tool use
/// \param formatString     printf-style arguments, written to the captured command buffer
/// \param args             Extract from varargs "..." using C standard library va_start()/va_end()
///
/// \donotcall \gx2_typical \enddonotcall
///
/// \writesgpu
/// \alwayswritesgpu
///
void GX2API GX2DebugTagUserStringVA(GX2DebugTagUserStringType userTagType, const char* formatString, va_list args);

/// \brief Initialize the capture system.
///
/// Initialize the capture system. The remote Capture button in the Spark GPU debugger
/// will be enabled after this call.
///
/// \note You must link with gx2spark.a to use this function.
///
/// \param initAttribs  Reserved for future use.
///
/// \donotcall \fgonly \notthreadsafe \notinterrupt \notexception \notcallback \devonly \enddonotcall
///
void GX2DebugCaptureInit(u32 *initAttribs);

/// \brief Captures the PM4 command sequence and associated buffers to a capture file
///        for analysis with pm4parse tool or Spark GPU debugger.
///
/// The capture will start at the next \ref GX2SwapScanBuffers and will end at
/// the subsequent occurrence of that function.
///
/// \note This is the officially supported API for debug captures.
///
/// \param filename Name of the .4mp output file in data/save/common
///
/// \donotcall \fgonly \notthreadsafe \notinterrupt \notexception \devonly \enddonotcall
///
void GX2API GX2DebugCaptureFrame(const char* filename);

/// \brief Similar to \ref GX2DebugCaptureFrame, but handles multiple frames.
///
/// \note This function is deprecated.  Please use \ref GX2DebugCaptureFrame instead.
///
/// \param filename Name of the .4mp output file in data/save
/// \param numFrames Number of frames to capture
///
/// \donotcall \fgonly \notthreadsafe \notinterrupt \notexception \devonly \enddonotcall
///
void GX2API GX2DebugCaptureFrames(const char* filename, u32 numFrames);

/// \brief Start capturing the PM4 command sequence and associated buffers to a capture file.
///
/// \note This API is for advanced usage.  Capturing more or less than a full single frame
///       may present debugger support issues not present otherwise (we may not support such
///       usage).  It should be fine for viewing with pm4parse, however.
///
/// \param filename     Name of the .4mp output file in data/save/common
/// \param optionFlags  See \ref GX2DebugCaptureOptions
///
/// \donotcall \nomulticore \gx2_dl \enddonotcall
///
/// \writesgpu
/// \writesgpu{if \ref GX2_DEBUG_CAPTURE_NO_FLUSH is not set.}
///
void GX2API GX2DebugCaptureStart(const char* filename, GX2DebugCaptureOptions optionFlags);

/// \brief Stops a PM4 capture.
///
/// \note This API is for advanced usage.  Capturing more or less than a full single frame
///       may present debugger support issues not present otherwise (we may not support such
///       usage).  It should be fine for viewing with pm4parse, however.
///
/// \param optionFlags  See \ref GX2DebugCaptureOptions
///
/// \donotcall \nomulticore \gx2_dl \enddonotcall
///
/// \writesgpu
/// \writesgpu{if \ref GX2_DEBUG_CAPTURE_NO_FLUSH is not set.}
///
void GX2API GX2DebugCaptureEnd(GX2DebugCaptureOptions optionFlags);

/// @}
/// @addtogroup GX2UTHelperGroup
/// @{

/// \brief Compile-time assert
#define GX2_STATIC_ASSERT(e, message)   typedef int static_assert_failed_##message[!(e) ? -1 : 1]

/// \brief Set the bits in *pFlags
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE void GX2SetBitFlags(u32* pFlags, u32 bits)                 { *pFlags |= bits; }

/// \brief Clear the bits in *pFlags
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE void GX2ClearBitFlags(u32* pFlags, u32 bits)               { *pFlags &= ~bits; }

/// \brief Mask the bits in *pFlags
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE void GX2MaskBitFlags(u32* pFlags, u32 mask)                { *pFlags &= mask; }

/// \brief Replace the bits in mask with bits
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE void GX2ReplaceBitFlags(u32* pFlags, u32 mask, u32 bits)   { *pFlags &= ~mask; *pFlags |= (bits & mask); }

/// \brief Returns GX2_TRUE if any of the bits are set
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE GX2Boolean GX2TestBitFlagsAny(u32 flags, u32 bits)         { return (GX2Boolean)((flags & bits) != 0); }

/// \brief Returns GX2_TRUE if all of the bits are set
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE GX2Boolean GX2TestBitFlagsAll(u32 flags, u32 bits)         { return (GX2Boolean)((flags & bits) == bits); }

/// \brief Returns the min of a and b
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE u32  GX2Min(u32 a, u32 b)                                  { return (a < b) ? a : b; }

/// \brief Returns the max of a and b
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE u32  GX2Max(u32 a, u32 b)                                  { return (a > b) ? a : b; }

/// \brief Utility function, returns GX2_TRUE if the pointer meets the given alignment
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE GX2Boolean GX2IsAligned(const void *p, u32 alignment)
{
    return (GX2Boolean)((u32)p == GX2RoundUp((u32)p, alignment));
}


/// \brief Returns true if the specified format supports the fast fixed-function box MSAA resolve.
///
/// \donotcall \threadsafe \enddonotcall
///
GX2_INLINE GX2Boolean GX2IsResolveSupported(GX2SurfaceFormat format)
{
    switch(format)
    {
        //Only the following formats support fixed function (box-filter) MSAA resolve
        case GX2_SURFACE_FORMAT_TC_R32_G32_B32_A32_FLOAT:

        case GX2_SURFACE_FORMAT_TC_R16_G16_B16_A16_FLOAT:
        case GX2_SURFACE_FORMAT_TC_R16_G16_B16_A16_UNORM:
        case GX2_SURFACE_FORMAT_TC_R16_G16_B16_A16_SNORM:
        case GX2_SURFACE_FORMAT_TC_R32_G32_FLOAT:

        case GX2_SURFACE_FORMAT_TCS_R8_G8_B8_A8_UNORM:
        case GX2_SURFACE_FORMAT_TCS_R8_G8_B8_A8_SRGB:
        case GX2_SURFACE_FORMAT_TC_R8_G8_B8_A8_SNORM:
        case GX2_SURFACE_FORMAT_TCS_R10_G10_B10_A2_UNORM:
        case GX2_SURFACE_FORMAT_TCS_A2_B10_G10_R10_UNORM:
        case GX2_SURFACE_FORMAT_TC_R11_G11_B10_FLOAT:
        case GX2_SURFACE_FORMAT_TC_R16_G16_FLOAT:
        case GX2_SURFACE_FORMAT_TC_R16_G16_UNORM:
        case GX2_SURFACE_FORMAT_TC_R16_G16_SNORM:
        case GX2_SURFACE_FORMAT_TCD_R32_FLOAT:

        case GX2_SURFACE_FORMAT_TCS_R5_G6_B5_UNORM:
        case GX2_SURFACE_FORMAT_TC_R5_G5_B5_A1_UNORM:
        case GX2_SURFACE_FORMAT_TC_A1_B5_G5_R5_UNORM:
        case GX2_SURFACE_FORMAT_TC_R4_G4_B4_A4_UNORM:
        case GX2_SURFACE_FORMAT_TC_R8_G8_UNORM:
        case GX2_SURFACE_FORMAT_TC_R8_G8_SNORM:
        case GX2_SURFACE_FORMAT_TC_R16_FLOAT:
        case GX2_SURFACE_FORMAT_TCD_R16_UNORM:
        case GX2_SURFACE_FORMAT_TC_R16_SNORM:

        case GX2_SURFACE_FORMAT_TC_R8_UNORM:
        case GX2_SURFACE_FORMAT_TC_R8_SNORM:
        case GX2_SURFACE_FORMAT_T_R4_G4_UNORM:
            return GX2_TRUE;
    }

    return GX2_FALSE;
}

/// @}
/// @addtogroup GX2ManagementContextStateGroup
/// @{

/// \brief Context state data size in bytes.
///
#define GX2_CONTEXT_STATE_DATA_SIZE 41216

/// \brief Context state
///
/// Context state
typedef struct _GX2ContextState {
    u32 data[GX2_CONTEXT_STATE_DATA_SIZE/sizeof(u32)];
} GX2ContextState;

///  \brief Call other GX2 commands to set up the default render state. See \ref GX2SetDefaultStateSect.
///
/// \donotcall \gx2_typical \enddonotcall
///
/// \clobberstate
///
/// \writesgpu
/// \alwayswritesgpu
///
void GX2API GX2SetDefaultState(void);

/// \brief Initialize the given context state memory with the default state and set it in use.
///
/// \note When profiling is disabled GX2 will not override any state based on the profile mode or
///       toss stage that was setup during initialization.
///
/// \note This function will normally create an internal display list as an optimization to speed
///       up calls to GX2SetupContextState.  Since it must call GX2BeginDisplayList in order to
///       create the internal display list, this means you cannot call this function while
///       making a display list.
///
/// \param pState          pointer to a GX2ContextState buffer.
/// \param enableProfiling enable HW profiling for this context state.
///
/// \donotcall \gx2_typical \enddonotcall
///
/// \enablesstateshadow
/// \clobberstate
///
/// \writesgpu
/// \alwayswritesgpu
///
void GX2API GX2SetupContextStateEx(GX2ContextState* pState, GX2Boolean enableProfiling);

/// \brief Initialize the given context state memory with the default state and set it in use.
///
/// \note HW Profiling will be enabled for the context state
///
/// \param pState  pointer to a GX2ContextState buffer.
///
/// \donotcall \gx2_typical \enddonotcall
///
/// \enablesstateshadow if pState is non-NULL.
/// \disablesstateshadow if pState is NULL.
/// \clobberstate
///
/// \writesgpu
/// \alwayswritesgpu
///
GX2_INLINE void GX2SetupContextState(GX2ContextState* pState)
{
    GX2SetupContextStateEx(pState, GX2_ENABLE);
}

/// \brief Loads the given context state and makes it current for future changes.
///
/// \note If pState is NULL the previous context state is preserved
/// and future state changes will not be saved to memory.
/// (I.e., this disables state shadowing.)
///
/// \note Normally this function will just call or copy an internal display list that
///       contains all the necessary load commands.  A call is used unless we are in
///       the process of creating a display list, in which case a copy is done instead.
///
/// \note This function invokes a full pipeline flush; it takes approx. 23 microseconds.
///
/// \param pState  pointer to an already-initialized GX2ContextState buffer, or NULL.
///
/// \donotcall \gx2_typical \enddonotcall
///
/// \clobberstate
/// \enablesstateshadow State shadowing is enabled if pState is non-NULL.
/// \disablesstateshadow State shadowing is disabled if pState is NULL.
/// \notincompute
///
/// \writesgpu
/// \alwayswritesgpu
///
void GX2API GX2SetContextState(const GX2ContextState* pState);

/// \brief Returns the pointer and size for the internal display list found in a GX2ContextState.
///
/// \note To improve the performance of GX2SetContextState, when you call GX2SetupContextState,
/// we create an internal display list that performs all the necessary register loads.
/// Then, when you call GX2SetContextState, we either make a call to that display list (if
/// you are currently writing to a command buffer), or we copy that display list (if you
/// are currently writing to a display list).  The latter is done to avoid having too many
/// nested display list calls.  However, if you know you will not exceed the nesting level,
/// you can call the display list directly by getting its parameters with this API.
///
/// \param pState         pointer to an already-initialized GX2ContextState buffer.
/// \param ppDisplayList  pointer to receive the display list pointer.
/// \param pByteSize      pointer to receive the display list size.
///
/// \donotcall \threadsafe \devonly \enddonotcall
///
void GX2API GX2GetContextStateDisplayList(const GX2ContextState *pState, void **ppDisplayList, u32 *pByteSize);

/// \brief Patches a sequence of display list commands that were created using
/// offline display list compilation.
///
/// \param pDisplayList     Pointer to the start of the display list to patch
/// \param type             Type GX2 entry that needs to be patched
/// \param offset           Offset in u32s from the start of the display list
/// \param gx2ObjectPointer Pointer to the GX2 object that generated the patch
///                         entry.
///
/// See \ref gshCompileOfflineGX2Sect for more details.
///
/// \warning After all display list entries have been patched, the user must
///          flush the CPU memory from the cache using \ref GX2Invalidate.
///
/// \donotcall \threadsafe \devonly \enddonotcall
///
void GX2API GX2PatchDisplayList(void *pDisplayList, GX2PatchType type, u32 offset, void *gx2ObjectPointer);
/// @}

#ifdef __cplusplus
}
#endif // __cplusplus

#endif // _CAFE_GX2_MISC_H_