gceSTATUS vgsMEMORYMANAGER_Construct(
IN gcoOS Os,
IN gctUINT ItemSize,
IN gctUINT Granularity,
OUT vgsMEMORYMANAGER_PTR * Manager
)
{
gceSTATUS status;
vgsMEMORYMANAGER_PTR manager = gcvNULL;
gcmHEADER_ARG("Os=0x%x ItemSize=0x%x Granularity=0x%x Manager=0x%x",
Os, ItemSize, Granularity, Manager);
gcmVERIFY_ARGUMENT(ItemSize > 0);
gcmVERIFY_ARGUMENT(Granularity > 0);
gcmVERIFY_ARGUMENT(Manager != gcvNULL);
do
{
gctUINT itemSize;
gctUINT allocationSize;
/* Allocate the memory manager structure. */
gcmERR_BREAK(gcoOS_Allocate(
Os,
gcmSIZEOF(vgsMEMORYMANAGER),
(gctPOINTER *) &manager
));
/* Determine the size of the item. */
itemSize = gcmSIZEOF(vgsMEMORYITEM) + ItemSize;
/* Determine the allocation size. */
allocationSize = gcmSIZEOF(vgsMEMORYITEM) + Granularity * itemSize;
/* Initialize the structure. */
manager->os = Os;
manager->allocationSize = allocationSize;
manager->itemCount = Granularity;
manager->itemSize = itemSize;
manager->firstAllocated = gcvNULL;
manager->firstFree = gcvNULL;
#if vgvVALIDATE_MEMORY_MANAGER
manager->allocatedCount = 0;
manager->maximumAllocated = 0;
manager->allocatedBufferCount = 0;
#endif
/* Set the result pointer. */
* Manager = manager;
}
while (gcvNULL);
gcmFOOTER();
/* Return status. */
return status;
}
gceSTATUS
gckIOMMU_Construct(
IN gckOS Os,
OUT gckIOMMU * Iommu
)
{
gceSTATUS status;
gckIOMMU iommu = gcvNULL;
struct device *dev;
int ret;
gcmkHEADER();
dev = &Os->device->platform->device->dev;
gcmkONERROR(gckOS_Allocate(Os, gcmSIZEOF(gcsIOMMU), (gctPOINTER *)&iommu));
gckOS_ZeroMemory(iommu, gcmSIZEOF(gcsIOMMU));
iommu->domain = iommu_domain_alloc(&platform_bus_type);
if (!iommu->domain)
{
gcmkTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_OS, "iommu_domain_alloc() fail");
gcmkONERROR(gcvSTATUS_NOT_SUPPORTED);
}
iommu_set_fault_handler(iommu->domain, _IOMMU_Fault_Handler, dev);
ret = iommu_attach_device(iommu->domain, dev);
if (ret)
{
gcmkTRACE_ZONE(
gcvLEVEL_INFO, gcvZONE_OS, "iommu_attach_device() fail %d", ret);
gcmkONERROR(gcvSTATUS_NOT_SUPPORTED);
}
iommu->device = dev;
_FlatMapping(iommu);
*Iommu = iommu;
gcmkFOOTER_NO();
return gcvSTATUS_OK;
OnError:
gckIOMMU_Destory(Os, iommu);
gcmkFOOTER();
return status;
}
gceSTATUS
gcfDump(
IN gcoOS Os,
IN gctCONST_STRING Message,
...
)
{
gctUINT offset = 0;
gctARGUMENTS args;
char buffer[80];
if (!setDumpFlag)
return gcvSTATUS_OK;
#if gcdDUMP_IN_KERNEL
gcsHAL_INTERFACE ioctl;
gcmARGUMENTS_START(args, Message);
gcmVERIFY_OK(gcoOS_PrintStrVSafe(ioctl.u.Debug.message,
gcmSIZEOF(ioctl.u.Debug.message),
&offset,
Message, args));
gcmARGUMENTS_END(args);
ioctl.command = gcvHAL_DEBUG;
ioctl.u.Debug.set = gcvFALSE;
#if gcdDUMP
ioctl.u.Debug.type = gcvMESSAGE_TEXT;
#else
ioctl.u.Debug.type = gcvMESSAGE_DUMP;
#endif
ioctl.u.Debug.messageSize = (gctUINT32)gcmSIZEOF(ioctl.u.Debug.message);
gcmVERIFY_OK(gcoOS_DeviceControl(Os,
IOCTL_GCHAL_INTERFACE,
&ioctl, gcmSIZEOF(ioctl),
&ioctl, gcmSIZEOF(ioctl)));
#else
gcmARGUMENTS_START(args, Message);
gcmVERIFY_OK(gcoOS_PrintStrVSafe(buffer, gcmSIZEOF(buffer),
&offset,
Message, args));
gcmARGUMENTS_END(args);
gcoOS_Print("%s", buffer);
#endif
return gcvSTATUS_OK;
}
static gceSTATUS
_Print(
_VGContext * Context,
gctCONST_STRING Format,
...
)
{
char buffer[256];
gctUINT offset = 0;
gceSTATUS status;
gcmONERROR(
gcoOS_PrintStrVSafe(buffer, gcmSIZEOF(buffer),
&offset,
Format,
(gctPOINTER) (&Format + 1)));
gcmONERROR(
gcoPROFILER_Write(Context->hal,
offset,
buffer));
return gcvSTATUS_OK;
OnError:
return status;
}
static void
OutputDebugString(
IN gctCONST_STRING String
)
{
#if gcdBUFFERED_OUTPUT
static gctCHAR outputBuffer[gcdBUFFERED_OUTPUT];
static gctINT outputBufferIndex = 0;
gctINT n, i;
n = (String != gcvNULL) ? strlen(String) + 1 : 0;
if ((n == 0) || (outputBufferIndex + n > gcmSIZEOF(outputBuffer)))
{
for (i = 0; i < outputBufferIndex; i += strlen(outputBuffer + i) + 1)
{
printk(outputBuffer + i);
}
outputBufferIndex = 0;
}
if (n > 0)
{
memcpy(outputBuffer + outputBufferIndex, String, n);
outputBufferIndex += n;
}
#else
if (String != gcvNULL)
{
printk(String);
}
#endif
}
gceSTATUS
gckKERNEL_DumpProcessDB(
IN gckKERNEL Kernel
)
{
gcsDATABASE_PTR database;
gctINT i, pid;
gctUINT8 name[24];
gcmkHEADER_ARG("Kernel=0x%x", Kernel);
/* Acquire the database mutex. */
gcmkVERIFY_OK(
gckOS_AcquireMutex(Kernel->os, Kernel->db->dbMutex, gcvINFINITE));
gcmkPRINT("**************************\n");
gcmkPRINT("*** PROCESS DB DUMP ***\n");
gcmkPRINT("**************************\n");
gcmkPRINT_N(8, "%-8s%s\n", "PID", "NAME");
/* Walk the databases. */
for (i = 0; i < gcmCOUNTOF(Kernel->db->db); ++i)
{
for (database = Kernel->db->db[i];
database != gcvNULL;
database = database->next)
{
pid = database->processID;
gcmkVERIFY_OK(gckOS_ZeroMemory(name, gcmSIZEOF(name)));
gcmkVERIFY_OK(gckOS_GetProcessNameByPid(pid, gcmSIZEOF(name), name));
gcmkPRINT_N(8, "%-8d%s\n", pid, name);
}
}
/* Release the database mutex. */
gcmkVERIFY_OK(gckOS_ReleaseMutex(Kernel->os, Kernel->db->dbMutex));
/* Success. */
gcmkFOOTER_NO();
return gcvSTATUS_OK;
}
gceSTATUS
gcoQUEUE_Commit(
IN gcoQUEUE Queue
)
{
gceSTATUS status = gcvSTATUS_OK;
gcsHAL_INTERFACE iface;
gcmHEADER_ARG("Queue=0x%x", Queue);
/* Verify the arguments. */
gcmVERIFY_OBJECT(Queue, gcvOBJ_QUEUE);
if (Queue->head != gcvNULL)
{
/* Initialize event commit command. */
iface.command = gcvHAL_EVENT_COMMIT;
iface.u.Event.queue = Queue->head;
/* Send command to kernel. */
gcmONERROR(
gcoOS_DeviceControl(gcvNULL,
IOCTL_GCHAL_INTERFACE,
&iface, gcmSIZEOF(iface),
&iface, gcmSIZEOF(iface)));
/* Test for error. */
gcmONERROR(iface.status);
/* Free any records in the queue. */
gcmONERROR(gcoQUEUE_Free(Queue));
}
/* Success. */
gcmFOOTER_NO();
return gcvSTATUS_OK;
OnError:
/* Return the status. */
gcmFOOTER();
return status;
}
void
_glshInitializeRenderbuffer(
GLContext Context
)
{
/* No renderbuffers bound yet. */
Context->renderbuffer = gcvNULL;
/* No frame buffer objects. */
gcmVERIFY_OK(gcoOS_ZeroMemory(&Context->renderbufferObjects,
gcmSIZEOF(Context->renderbufferObjects)));
}
/*******************************************************************************
**
** _Split
**
** Split a node on the required byte boundary.
**
** INPUT:
**
** gckOS Os
** Pointer to an gckOS object.
**
** gcuVIDMEM_NODE_PTR Node
** Pointer to the node to split.
**
** gctSIZE_T Bytes
** Number of bytes to keep in the node.
**
** OUTPUT:
**
** Nothing.
**
** RETURNS:
**
** gctBOOL
** gcvTRUE if the node was split successfully, or gcvFALSE if there is an
** error.
**
*/
static gctBOOL
_Split(
IN gckOS Os,
IN gcuVIDMEM_NODE_PTR Node,
IN gctSIZE_T Bytes
)
{
gcuVIDMEM_NODE_PTR node;
/* Make sure the byte boundary makes sense. */
if ((Bytes <= 0) || (Bytes > Node->VidMem.bytes))
{
return gcvFALSE;
}
/* Allocate a new gcuVIDMEM_NODE object. */
if (gcmIS_ERROR(gckOS_Allocate(Os,
gcmSIZEOF(gcuVIDMEM_NODE),
(gctPOINTER *) &node)))
{
/* Error. */
return gcvFALSE;
}
/* Initialize gcuVIDMEM_NODE structure. */
node->VidMem.offset = Node->VidMem.offset + Bytes;
node->VidMem.bytes = Node->VidMem.bytes - Bytes;
node->VidMem.alignment = 0;
node->VidMem.locked = 0;
node->VidMem.memory = Node->VidMem.memory;
node->VidMem.pool = Node->VidMem.pool;
node->VidMem.physical = Node->VidMem.physical;
#ifdef __QNXNTO__
node->VidMem.logical = gcvNULL;
node->VidMem.handle = 0;
#endif
/* Insert node behind specified node. */
node->VidMem.next = Node->VidMem.next;
node->VidMem.prev = Node;
Node->VidMem.next = node->VidMem.next->VidMem.prev = node;
/* Insert free node behind specified node. */
node->VidMem.nextFree = Node->VidMem.nextFree;
node->VidMem.prevFree = Node;
Node->VidMem.nextFree = node->VidMem.nextFree->VidMem.prevFree = node;
/* Adjust size of specified node. */
Node->VidMem.bytes = Bytes;
/* Success. */
return gcvTRUE;
}
/**
*
* @param Hal
* @param Node
* @return
*/
static gceSTATUS UnlockVideoNode(
IN gcoHAL Hal,
IN gcuVIDMEM_NODE_PTR Node,
IN gceSURF_TYPE surftype) {
gcsHAL_INTERFACE iface;
gceSTATUS status;
gcmASSERT(Node != gcvNULL);
iface.command = gcvHAL_UNLOCK_VIDEO_MEMORY;
iface.u.UnlockVideoMemory.node = Node;
iface.u.UnlockVideoMemory.type = surftype;
iface.u.UnlockVideoMemory.asynchroneous = gcvTRUE;
/* Call the kernel. */
gcmONERROR(gcoOS_DeviceControl(
gcvNULL,
IOCTL_GCHAL_INTERFACE,
&iface, gcmSIZEOF(iface),
&iface, gcmSIZEOF(iface)
));
/* Success? */
gcmONERROR(iface.status);
/* Do we need to schedule an event for the unlock? */
if (iface.u.UnlockVideoMemory.asynchroneous)
{
iface.u.UnlockVideoMemory.asynchroneous = gcvFALSE;
gcmONERROR(gcoHAL_ScheduleEvent(Hal, &iface));
}
OnError:
/* Call kernel API. */
return gcvSTATUS_FALSE;
}
static gceSTATUS
_AddMap(
IN gckOS Os,
IN gctPOINTER Source,
IN gctSIZE_T Bytes,
OUT gctPOINTER * Destination,
IN OUT gcsMAPPED_PTR * Stack
)
{
gcsMAPPED_PTR map = gcvNULL;
gceSTATUS status;
/* Don't try to map NULL pointers. */
if (Source == gcvNULL)
{
*Destination = gcvNULL;
return gcvSTATUS_OK;
}
/* Allocate the gcsMAPPED structure. */
gcmkONERROR(
gckOS_Allocate(Os, gcmSIZEOF(*map), (gctPOINTER *) &map));
/* Map the user pointer into kernel addressing space. */
gcmkONERROR(
gckOS_MapUserPointer(Os, Source, Bytes, Destination));
/* Save mapping. */
map->pointer = Source;
map->kernelPointer = *Destination;
map->bytes = Bytes;
/* Push structure on top of the stack. */
map->next = *Stack;
*Stack = map;
/* Success. */
return gcvSTATUS_OK;
OnError:
if (gcmIS_ERROR(status) && (map != gcvNULL))
{
/* Roll back on error. */
gcmkVERIFY_OK(gckOS_Free(Os, map));
}
/* Return the status. */
return status;
}
/*******************************************************************************
**
** gcoHAL_Construct
**
** Construct a new gcoHAL object.
**
** INPUT:
**
** gctPOINTER Context
** Pointer to a context that can be used by the platform specific
** functions.
**
** gcoOS Os
** Pointer to an gcoOS object.
**
** OUTPUT:
**
** gcoHAL * Hal
** Pointer to a variable that will hold the gcoHAL object pointer.
*/
gceSTATUS
gcoHAL_Construct(
IN gctPOINTER Context,
IN gcoOS Os,
OUT gcoHAL * Hal
)
{
gctBOOL created = gcvFALSE;
gcoHAL hal = gcPLS.hal;
gceSTATUS status;
gctPOINTER pointer = gcvNULL;
gctBOOL separated3D = gcvFALSE;
gctBOOL separated2D = gcvFALSE;
gcsHAL_INTERFACE iface;
gctINT32 i;
gcmHEADER_ARG("Context=0x%x OS=0x%x", Context, Os);
/* Verify the arguments. */
gcmDEBUG_VERIFY_ARGUMENT(Hal != gcvNULL);
if (hal == gcvNULL)
{
/* Create the gcoHAL object. */
gcmONERROR(gcoOS_Allocate(gcvNULL,
gcmSIZEOF(struct _gcoHAL),
&pointer));
hal = pointer;
created = gcvTRUE;
gcoOS_ZeroMemory(hal, gcmSIZEOF(struct _gcoHAL));
/* Initialize the object. */
hal->object.type = gcvOBJ_HAL;
/* Zero the gco2D, gco3D, and gcoDUMP objects. */
hal->dump = gcvNULL;
hal->reference = gcvNULL;
/* Initialize timeOut value */
hal->timeOut = gcdGPU_TIMEOUT;
/* Query the kernel version number. */
iface.command = gcvHAL_VERSION;
gcmONERROR(gcoOS_DeviceControl(gcvNULL,
IOCTL_GCHAL_INTERFACE,
&iface, gcmSIZEOF(iface),
&iface, gcmSIZEOF(iface)));
/* Test if versions match. */
if ((iface.u.Version.major != gcvVERSION_MAJOR)
|| (iface.u.Version.minor != gcvVERSION_MINOR)
|| (iface.u.Version.patch != gcvVERSION_PATCH)
|| (iface.u.Version.build != gcvVERSION_BUILD)
)
{
gcmPRINT("HAL user version %d.%d.%d build %u %s %s",
gcvVERSION_MAJOR, gcvVERSION_MINOR, gcvVERSION_PATCH,
gcvVERSION_BUILD, gcvVERSION_DATE, gcvVERSION_TIME);
gcmPRINT("HAL kernel version %d.%d.%d build %u",
iface.u.Version.major, iface.u.Version.minor,
iface.u.Version.patch, iface.u.Version.build);
gcmONERROR(gcvSTATUS_VERSION_MISMATCH);
}
#if gcmIS_DEBUG(gcdDEBUG_TRACE)
gcmTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_HAL,
"HAL user version %d.%d.%d build %u %s %s",
gcvVERSION_MAJOR, gcvVERSION_MINOR, gcvVERSION_PATCH,
gcvVERSION_BUILD, gcvVERSION_DATE, gcvVERSION_TIME);
gcmTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_HAL,
"HAL kernel version %d.%d.%d build %u",
iface.u.Version.major, iface.u.Version.minor,
iface.u.Version.patch, iface.u.Version.build);
#endif
/* Query chip info */
iface.command = gcvHAL_CHIP_INFO;
gcmONERROR(gcoOS_DeviceControl(gcvNULL,
IOCTL_GCHAL_INTERFACE,
&iface, gcmSIZEOF(iface),
&iface, gcmSIZEOF(iface)));
hal->chipCount = iface.u.ChipInfo.count;
for (i = 0; i < hal->chipCount; i++)
{
hal->chipTypes[i] = iface.u.ChipInfo.types[i];
switch (hal->chipTypes[i])
{
case gcvHARDWARE_3D:
separated3D = gcvTRUE;
break;
case gcvHARDWARE_2D:
separated2D = gcvTRUE;
break;
default:
break;
}
}
hal->separated3D2D = (separated3D && separated2D);
#if VIVANTE_PROFILER
hal->profiler.enable = 0;
#endif
/* Create reference. */
gcmONERROR(gcoOS_AtomConstruct(Os, &hal->reference));
}
/*******************************************************************************
**
** gcoBUFFER_Commit
**
** Commit the command buffer to the hardware.
**
** INPUT:
**
** gcoBUFFER Buffer
** Pointer to a gcoBUFFER object.
**
** gcePIPE_SELECT CurrentPipe
** Current graphics pipe.
**
** gcsSTATE_DELTA_PTR StateDelta
** Pointer to the state delta.
**
** gcoQUEUE Queue
** Pointer to a gcoQUEUE object.
**
** OUTPUT:
**
** Nothing.
*/
gceSTATUS
gcoBUFFER_Commit(
IN gcoBUFFER Buffer,
IN gcePIPE_SELECT CurrentPipe,
IN gcsSTATE_DELTA_PTR StateDelta,
IN gcoQUEUE Queue
)
{
gcsHAL_INTERFACE iface;
gceSTATUS status;
gcoCMDBUF current;
gcmHEADER_ARG("Buffer=0x%x Queue=0x%x",
Buffer, Queue);
/* Verify the arguments. */
gcmVERIFY_OBJECT(Buffer, gcvOBJ_BUFFER);
gcmVERIFY_OBJECT(Queue, gcvOBJ_QUEUE);
/* Grab current command buffer. */
current = Buffer->currentCommandBuffer;
if (current == gcvNULL)
{
/* No command buffer, done. */
gcmFOOTER_NO();
return gcvSTATUS_OK;
}
if (current->offset - current->startOffset <= Buffer->info.reservedHead)
{
/* Commit the event queue. */
status = gcoQUEUE_Commit(Queue);
gcmFOOTER();
return status;
}
/* Make sure the tail got aligned properly. */
current->offset = gcmALIGN(current->offset, Buffer->info.alignment);
if (gcPLS.hal->dump != gcvNULL)
{
/* Dump the command buffer. */
gcmVERIFY_OK(
gcoDUMP_DumpData(gcPLS.hal->dump,
gcvTAG_COMMAND,
0,
current->offset
- current->startOffset
- Buffer->info.reservedHead,
(gctUINT8_PTR) current->logical
+ current->startOffset
+ Buffer->info.reservedHead));
}
/* The current pipe becomes the exit pipe for the current command buffer. */
current->exitPipe = CurrentPipe;
/* Send command and context buffer to hardware. */
iface.command = gcvHAL_COMMIT;
iface.u.Commit.context =
#ifndef VIVANTE_NO_3D
(current->using2D && !current->using3D) ? gcvNULL : Buffer->context;
#else
gcvNULL;
#endif
iface.u.Commit.commandBuffer = current;
iface.u.Commit.delta = StateDelta;
iface.u.Commit.queue = Queue->head;
/* Call kernel service. */
gcmONERROR(
gcoOS_DeviceControl(gcvNULL,
IOCTL_GCHAL_INTERFACE,
&iface, gcmSIZEOF(iface),
&iface, gcmSIZEOF(iface)));
gcmONERROR(iface.status);
/* Free the event queue. */
gcmONERROR(gcoQUEUE_Free(Queue));
/* Advance the offset for next commit. */
current->startOffset = current->offset + Buffer->info.reservedTail;
if (current->bytes - current->startOffset > Buffer->totalReserved)
{
/* Adjust buffer offset and size. */
current->offset = current->startOffset + Buffer->info.reservedHead;
current->free = current->bytes - current->offset
- Buffer->info.alignment
- Buffer->info.reservedTail;
}
else
{
/* Buffer is full. */
current->startOffset = current->bytes;
current->offset = current->bytes;
current->free = 0;
}
/* The exit pipe becomes the entry pipe for the next command buffer. */
current->entryPipe = current->exitPipe;
#if gcdSECURE_USER
/* Reset the state array tail. */
current->hintArrayTail = current->hintArray;
#endif
/* Reset usage flags. */
current->using2D = gcvFALSE;
current->using3D = gcvFALSE;
current->usingFilterBlit = gcvFALSE;
current->usingPalette = gcvFALSE;
/* Success. */
gcmFOOTER_NO();
return gcvSTATUS_OK;
OnError:
/* Return the status. */
gcmFOOTER();
return status;
}
/*******************************************************************************
**
** gckVIDMEM_ConstructVirtual
**
** Construct a new gcuVIDMEM_NODE union for virtual memory.
**
** INPUT:
**
** gckKERNEL Kernel
** Pointer to an gckKERNEL object.
**
** gctSIZE_T Bytes
** Number of byte to allocate.
**
** OUTPUT:
**
** gcuVIDMEM_NODE_PTR * Node
** Pointer to a variable that receives the gcuVIDMEM_NODE union pointer.
*/
gceSTATUS
gckVIDMEM_ConstructVirtual(
IN gckKERNEL Kernel,
IN gctBOOL Contiguous,
IN gctSIZE_T Bytes,
#ifdef __QNXNTO__
IN gctHANDLE Handle,
#endif
OUT gcuVIDMEM_NODE_PTR * Node
)
{
gckOS os;
gceSTATUS status;
gcuVIDMEM_NODE_PTR node = gcvNULL;
gcmkHEADER_ARG("Kernel=0x%x Bytes=%lu", Kernel, Bytes);
/* Verify the arguments. */
gcmkVERIFY_OBJECT(Kernel, gcvOBJ_KERNEL);
gcmkVERIFY_ARGUMENT(Bytes > 0);
gcmkVERIFY_ARGUMENT(Node != gcvNULL);
#ifdef __QNXNTO__
gcmkVERIFY_ARGUMENT(Handle != gcvNULL);
#endif
/* Extract the gckOS object pointer. */
os = Kernel->os;
gcmkVERIFY_OBJECT(os, gcvOBJ_OS);
/* Allocate an gcuVIDMEM_NODE union. */
gcmkONERROR(
gckOS_Allocate(os, gcmSIZEOF(gcuVIDMEM_NODE), (gctPOINTER *) &node));
/* Initialize gcuVIDMEM_NODE union for virtual memory. */
node->Virtual.kernel = Kernel;
node->Virtual.contiguous = Contiguous;
node->Virtual.locked = 0;
node->Virtual.logical = gcvNULL;
node->Virtual.pageTable = gcvNULL;
node->Virtual.mutex = gcvNULL;
#ifdef __QNXNTO__
node->Virtual.next = gcvNULL;
node->Virtual.unlockPending = gcvFALSE;
node->Virtual.freePending = gcvFALSE;
node->Virtual.handle = Handle;
#else
node->Virtual.pending = gcvFALSE;
#endif
/* Create the mutex. */
gcmkONERROR(
gckOS_CreateMutex(os, &node->Virtual.mutex));
/* Allocate the virtual memory. */
gcmkONERROR(
gckOS_AllocatePagedMemoryEx(os,
node->Virtual.contiguous,
node->Virtual.bytes = Bytes,
&node->Virtual.physical));
#ifdef __QNXNTO__
/* Register. */
gckMMU_InsertNode(Kernel->mmu, node);
#endif
/* Return pointer to the gcuVIDMEM_NODE union. */
*Node = node;
gcmkTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_VIDMEM,
"Created virtual node 0x%x for %u bytes @ 0x%x",
node, Bytes, node->Virtual.physical);
/* Success. */
gcmkFOOTER_ARG("*Node=0x%x", *Node);
return gcvSTATUS_OK;
OnError:
/* Roll back. */
if (node != gcvNULL)
{
if (node->Virtual.mutex != gcvNULL)
{
/* Destroy the mutex. */
gcmkVERIFY_OK(gckOS_DeleteMutex(os, node->Virtual.mutex));
}
/* Free the structure. */
gcmkVERIFY_OK(gckOS_Free(os, node));
}
/* Return the status. */
gcmkFOOTER();
return status;
}
/*******************************************************************************
**
** gckVIDMEM_Construct
**
** Construct a new gckVIDMEM object.
**
** INPUT:
**
** gckOS Os
** Pointer to an gckOS object.
**
** gctUINT32 BaseAddress
** Base address for the video memory heap.
**
** gctSIZE_T Bytes
** Number of bytes in the video memory heap.
**
** gctSIZE_T Threshold
** Minimum number of bytes beyond am allocation before the node is
** split. Can be used as a minimum alignment requirement.
**
** gctSIZE_T BankSize
** Number of bytes per physical memory bank. Used by bank
** optimization.
**
** OUTPUT:
**
** gckVIDMEM * Memory
** Pointer to a variable that will hold the pointer to the gckVIDMEM
** object.
*/
gceSTATUS
gckVIDMEM_Construct(
IN gckOS Os,
IN gctUINT32 BaseAddress,
IN gctSIZE_T Bytes,
IN gctSIZE_T Threshold,
IN gctSIZE_T BankSize,
OUT gckVIDMEM * Memory
)
{
gckVIDMEM memory = gcvNULL;
gceSTATUS status;
gcuVIDMEM_NODE_PTR node;
gctINT i, banks = 0;
gcmkHEADER_ARG("Os=0x%x BaseAddress=%08x Bytes=%lu Threshold=%lu "
"BankSize=%lu",
Os, BaseAddress, Bytes, Threshold, BankSize);
/* Verify the arguments. */
gcmkVERIFY_OBJECT(Os, gcvOBJ_OS);
gcmkVERIFY_ARGUMENT(Bytes > 0);
gcmkVERIFY_ARGUMENT(Memory != gcvNULL);
/* Allocate the gckVIDMEM object. */
gcmkONERROR(
gckOS_Allocate(Os,
gcmSIZEOF(struct _gckVIDMEM),
(gctPOINTER *) &memory));
/* Initialize the gckVIDMEM object. */
memory->object.type = gcvOBJ_VIDMEM;
memory->os = Os;
/* Set video memory heap information. */
memory->baseAddress = BaseAddress;
memory->bytes = Bytes;
memory->freeBytes = Bytes;
memory->threshold = Threshold;
memory->mutex = gcvNULL;
BaseAddress = 0;
/* Walk all possible banks. */
for (i = 0; i < gcmCOUNTOF(memory->sentinel); ++i)
{
gctSIZE_T bytes;
if (BankSize == 0)
{
/* Use all bytes for the first bank. */
bytes = Bytes;
}
else
{
/* Compute number of bytes for this bank. */
bytes = gcmALIGN(BaseAddress + 1, BankSize) - BaseAddress;
if (bytes > Bytes)
{
/* Make sure we don't exceed the total number of bytes. */
bytes = Bytes;
}
}
if (bytes == 0)
{
/* Mark heap is not used. */
memory->sentinel[i].VidMem.next =
memory->sentinel[i].VidMem.prev =
memory->sentinel[i].VidMem.nextFree =
memory->sentinel[i].VidMem.prevFree = gcvNULL;
continue;
}
/* Allocate one gcuVIDMEM_NODE union. */
gcmkONERROR(
gckOS_Allocate(Os,
gcmSIZEOF(gcuVIDMEM_NODE),
(gctPOINTER *) &node));
/* Initialize gcuVIDMEM_NODE union. */
node->VidMem.memory = memory;
node->VidMem.next =
node->VidMem.prev =
node->VidMem.nextFree =
node->VidMem.prevFree = &memory->sentinel[i];
node->VidMem.offset = BaseAddress;
node->VidMem.bytes = bytes;
node->VidMem.alignment = 0;
node->VidMem.physical = 0;
node->VidMem.pool = gcvPOOL_UNKNOWN;
node->VidMem.locked = 0;
#ifdef __QNXNTO__
node->VidMem.logical = gcvNULL;
node->VidMem.handle = 0;
#endif
/* Initialize the linked list of nodes. */
memory->sentinel[i].VidMem.next =
memory->sentinel[i].VidMem.prev =
memory->sentinel[i].VidMem.nextFree =
memory->sentinel[i].VidMem.prevFree = node;
/* Mark sentinel. */
memory->sentinel[i].VidMem.bytes = 0;
/* Adjust address for next bank. */
BaseAddress += bytes;
Bytes -= bytes;
banks ++;
}
/* Assign all the bank mappings. */
memory->mapping[gcvSURF_RENDER_TARGET] = banks - 1;
memory->mapping[gcvSURF_BITMAP] = banks - 1;
if (banks > 1) --banks;
memory->mapping[gcvSURF_DEPTH] = banks - 1;
memory->mapping[gcvSURF_HIERARCHICAL_DEPTH] = banks - 1;
if (banks > 1) --banks;
memory->mapping[gcvSURF_TEXTURE] = banks - 1;
if (banks > 1) --banks;
memory->mapping[gcvSURF_VERTEX] = banks - 1;
if (banks > 1) --banks;
memory->mapping[gcvSURF_INDEX] = banks - 1;
if (banks > 1) --banks;
memory->mapping[gcvSURF_TILE_STATUS] = banks - 1;
if (banks > 1) --banks;
memory->mapping[gcvSURF_TYPE_UNKNOWN] = 0;
gcmkTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_VIDMEM,
"[GALCORE] INDEX: bank %d",
memory->mapping[gcvSURF_INDEX]);
gcmkTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_VIDMEM,
"[GALCORE] VERTEX: bank %d",
memory->mapping[gcvSURF_VERTEX]);
gcmkTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_VIDMEM,
"[GALCORE] TEXTURE: bank %d",
memory->mapping[gcvSURF_TEXTURE]);
gcmkTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_VIDMEM,
"[GALCORE] RENDER_TARGET: bank %d",
memory->mapping[gcvSURF_RENDER_TARGET]);
gcmkTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_VIDMEM,
"[GALCORE] DEPTH: bank %d",
memory->mapping[gcvSURF_DEPTH]);
gcmkTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_VIDMEM,
"[GALCORE] TILE_STATUS: bank %d",
memory->mapping[gcvSURF_TILE_STATUS]);
/* Allocate the mutex. */
gcmkONERROR(gckOS_CreateMutex(Os, &memory->mutex));
/* Return pointer to the gckVIDMEM object. */
*Memory = memory;
/* Success. */
gcmkFOOTER_ARG("*Memory=0x%x", *Memory);
return gcvSTATUS_OK;
OnError:
/* Roll back. */
if (memory != gcvNULL)
{
if (memory->mutex != gcvNULL)
{
/* Delete the mutex. */
gcmkVERIFY_OK(gckOS_DeleteMutex(Os, memory->mutex));
}
for (i = 0; i < banks; ++i)
{
/* Free the heap. */
gcmkASSERT(memory->sentinel[i].VidMem.next != gcvNULL);
gcmkVERIFY_OK(gckOS_Free(Os, memory->sentinel[i].VidMem.next));
}
/* Free the object. */
gcmkVERIFY_OK(gckOS_Free(Os, memory));
}
/* Return the status. */
gcmkFOOTER();
return status;
}
/*******************************************************************************
** gckKERNEL_NewRecord
**
** Create a new database record structure and insert it to the head of the
** database.
**
** INPUT:
**
** gckKERNEL Kernel
** Pointer to a gckKERNEL object.
**
** gcsDATABASE_PTR Database
** Pointer to a database structure.
**
** OUTPUT:
**
** gcsDATABASE_RECORD_PTR * Record
** Pointer to a variable receiving the database record structure
** pointer on success.
*/
static gceSTATUS
gckKERNEL_NewRecord(
IN gckKERNEL Kernel,
IN gcsDATABASE_PTR Database,
IN gctUINT32 Slot,
OUT gcsDATABASE_RECORD_PTR * Record
)
{
gceSTATUS status;
gctBOOL acquired = gcvFALSE;
gcsDATABASE_RECORD_PTR record = gcvNULL;
gcmkHEADER_ARG("Kernel=0x%x Database=0x%x", Kernel, Database);
/* Acquire the database mutex. */
gcmkONERROR(
gckOS_AcquireMutex(Kernel->os, Kernel->db->dbMutex, gcvINFINITE));
acquired = gcvTRUE;
if (Kernel->db->freeRecord != gcvNULL)
{
/* Allocate the record from the free list. */
record = Kernel->db->freeRecord;
Kernel->db->freeRecord = record->next;
}
else
{
gctPOINTER pointer = gcvNULL;
/* Allocate the record from the heap. */
gcmkONERROR(gckOS_Allocate(Kernel->os,
gcmSIZEOF(gcsDATABASE_RECORD),
&pointer));
record = pointer;
}
/* Insert the record in the database. */
record->next = Database->list[Slot];
Database->list[Slot] = record;
/* Release the database mutex. */
gcmkONERROR(gckOS_ReleaseMutex(Kernel->os, Kernel->db->dbMutex));
/* Return the record. */
*Record = record;
/* Success. */
gcmkFOOTER_ARG("*Record=0x%x", *Record);
return gcvSTATUS_OK;
OnError:
if (acquired)
{
/* Release the database mutex. */
gcmkVERIFY_OK(gckOS_ReleaseMutex(Kernel->os, Kernel->db->dbMutex));
}
if (record != gcvNULL)
{
gcmkVERIFY_OK(gcmkOS_SAFE_FREE(Kernel->os, record));
}
/* Return the status. */
gcmkFOOTER();
return status;
}
static gceSTATUS _ReferenceObjectCache(
vgsCONTEXT_PTR Context,
vgsOBJECT_CACHE_PTR * ObjectCache
)
{
gceSTATUS status, last;
vgsOBJECT_CACHE_PTR objectCache = gcvNULL;
do
{
/* Has the object cache been created? */
if (*ObjectCache == gcvNULL)
{
static vgtSET_OBJECT_LIST initList[] =
{
vgfSetPathObjectList,
vgfSetImageObjectList,
vgfSetMaskObjectList,
vgfSetFontObjectList,
vgfSetPaintObjectList
};
gctUINT i;
/* Allocate the context structure. */
gcmERR_BREAK(gcoOS_Allocate(
Context->os,
gcmSIZEOF(vgsOBJECT_CACHE),
(gctPOINTER *) &objectCache
));
gcmERR_BREAK(gcoOS_ZeroMemory(
objectCache,
gcmSIZEOF(vgsOBJECT_CACHE)));
/* Initialize the object. */
objectCache->loHandle = ~0;
objectCache->hiHandle = 0;
objectCache->referenceCount = 0;
/* Initialize object arrays. */
for (i = 0; i < gcmCOUNTOF(initList); i++)
{
initList[i] (&objectCache->cache[i]);
}
/* Set the result pointer. */
*ObjectCache = objectCache;
}
/* Increment the counter. */
(*ObjectCache)->referenceCount++;
/* Success. */
return gcvSTATUS_OK;
}
while (gcvFALSE);
/* Roll back. */
if (objectCache != gcvNULL)
{
gcmCHECK_STATUS(gcoOS_Free(Context->os, objectCache));
}
/* Return status. */
return status;
}
int
main(
int argc,
char * argv[]
)
{
gctBOOL dumpLog = gcvFALSE;
gctSTRING fileName[2] = { gcvNULL, gcvNULL };
gcSHADER shaders[2] = { gcvNULL, gcvNULL };
gctINT i;
gcoOS os = gcvNULL;
gcoHAL hal = gcvNULL;
gceSTATUS result;
gctUINT option = 1; /* no optimization */
char outFile[128] = { '\0' };
char logVSFile[128] = { '\0' };
char logFSFile[128] = { '\0' };
printf("vCompile version 0.8, Copyright (c) 2005-2011, Vivante Corporation\n\n");
#ifdef _WIN32
_CrtSetDbgFlag(_CrtSetDbgFlag(_CRTDBG_REPORT_FLAG) /*| _CRTDBG_CHECK_ALWAYS_DF*/ | _CRTDBG_DELAY_FREE_MEM_DF | _CRTDBG_LEAK_CHECK_DF);
_CrtSetReportMode( _CRT_WARN, _CRTDBG_MODE_FILE );
_CrtSetReportFile( _CRT_WARN, _CRTDBG_FILE_STDERR );
/* _CrtSetBreakAlloc(79); */
#endif
#if gcdDEBUG
gcoOS_SetDebugLevel(gcvLEVEL_VERBOSE);
gcoOS_SetDebugZone(gcvZONE_COMPILER);
#endif
for (i = 1; i < argc; i++)
{
if (gcmIS_SUCCESS(gcoOS_StrCmp(argv[i], "-l")))
{
dumpLog = gcvTRUE;
}
else if (gcmIS_SUCCESS(gcoOS_StrCmp(argv[i], "-O0")))
{
/* Currently, optimization level is either FULL or NONE */
option = 0; /* no optimization */
}
else if (gcmIS_SUCCESS(gcoOS_StrCmp(argv[i], "-O")))
{
option = 1; /* full optimization */
}
else if (gcmIS_SUCCESS(gcoOS_StrCmp(argv[i], "-OT")))
{
/* For optimization unit test */
if (i++ == argc)
{
printf("*ERROR* Optimization testing pattern not provided.\n");
return 1;
}
else
{
gctINT testPattern;
gcmVERIFY_OK(gcoOS_StrToInt(argv[i], (gctINT *)&testPattern));
if (testPattern < 0)
{
printf("*ERROR* Unknown optimization testing pattern.\n");
return 1;
}
option = testPattern;
}
}
else
{
if (fileName[0] == gcvNULL) fileName[0] = argv[i];
else if (fileName[1] == gcvNULL) fileName[1] = argv[i];
else
{
printf("*ERROR* Too many shaders.\n");
return 1;
}
}
}
if (fileName[0] == gcvNULL)
{
printf("Usage: %s [-l] [-O0] shaderFileName [shaderFileName]\n", argv[0]);
printf(" -l Generate log file.\n"
" -O0 Disable optimizations.\n"
"\n"
"If only one shader is specified, that shader will be compiled into a .gcSL\n"
"file. If two shaders are specified, those shaders will be compiled and\n"
"linked into a .gcPGM file. With two shaders, the vertex shader file needs\n"
"to be the first.\n");
return 0;
}
result = gcoOS_Construct(gcvNULL, &os);
if (result != gcvSTATUS_OK)
{
printf("*ERROR* Failed to construct a new gcoOS object\n");
return 1;
}
result = gcoHAL_Construct(gcvNULL, os, &hal);
if (result != gcvSTATUS_OK)
{
printf("*ERROR* Failed to construct a new gcoHAL object\n");
goto ErrorExit;
}
/* Dump compile log only when one shader is present */
shaders[0] = CompileFile(os, fileName[0], hal, option, dumpLog && (fileName[1] == gcvNULL), fileName[1] == gcvNULL );
if (shaders[0] == gcvNULL)
{
goto ErrorExit;
}
if (fileName[1] != gcvNULL)
{
gctSIZE_T programBufferSize = 0;
gctPOINTER programBuffer = gcvNULL;
gcsHINT_PTR hints = gcvNULL;
gceSTATUS status;
gctPOINTER binary = gcvNULL;
gctSIZE_T binarySize = 0;
FILE * f;
gctSTRING p;
gcoOS_StrCopySafe(outFile, gcmSIZEOF(outFile), fileName[0]);
p = strrchr(outFile, '.');
gcoOS_StrCopySafe(p, gcmSIZEOF(outFile) - (p - outFile), ".gcPGM");
gcoOS_StrCopySafe(logVSFile, gcmSIZEOF(logVSFile), fileName[0]);
gcoOS_StrCatSafe(logVSFile, gcmSIZEOF(logVSFile), ".log");
gcoOS_StrCopySafe(logFSFile, gcmSIZEOF(logFSFile), fileName[1]);
gcoOS_StrCatSafe(logFSFile, gcmSIZEOF(logFSFile), ".log");
shaders[1] = CompileFile(os, fileName[1], hal, option, gcvFALSE, gcvFALSE);
if (shaders[1] == gcvNULL)
{
goto ErrorExit;
}
if ( dumpLog)
{
gcoOS_SetDebugShaderFiles(logVSFile, logFSFile);
}
status = gcLinkShaders(shaders[0],
shaders[1],
gcvSHADER_DEAD_CODE
| gcvSHADER_RESOURCE_USAGE
| gcvSHADER_OPTIMIZER
| gcvSHADER_USE_GL_Z
| gcvSHADER_USE_GL_POSITION
| gcvSHADER_USE_GL_FACE,
&programBufferSize,
&programBuffer,
&hints);
if ( dumpLog)
{
gcoOS_SetDebugShaderFiles(gcvNULL, gcvNULL);
}
if (gcmIS_ERROR(status))
{
printf("*ERROR* gcLinkShaders returned errror %d\n", status);
}
else
{
int ret;
status = gcSaveProgram(shaders[0],
shaders[1],
programBufferSize,
programBuffer,
hints,
&binary,
&binarySize);
if (gcmIS_ERROR(status))
{
printf("*ERROR* gcSaveShaders returned errror %d\n", status);
}
f = fopen(outFile, "wb");
ret = fwrite(binary, binarySize, 1, f);
if (ret);
fclose(f);
}
if (programBuffer != gcvNULL) gcoOS_Free(os, programBuffer);
if (hints != gcvNULL) gcoOS_Free(os, hints);
if (binary != gcvNULL) gcoOS_Free(os, binary);
}
gcSHADER_Destroy(shaders[0]);
if (shaders[1] != gcvNULL) gcSHADER_Destroy(shaders[1]);
gcoHAL_Destroy(hal);
gcoOS_Destroy(os);
return 0;
ErrorExit:
if (shaders[0] != gcvNULL) gcSHADER_Destroy(shaders[0]);
if (shaders[1] != gcvNULL) gcSHADER_Destroy(shaders[1]);
if (gcvNULL != hal) gcoHAL_Destroy(hal);
if (gcvNULL != os) gcoOS_Destroy(os);
return 1;
}
static gceSTATUS
_CompactKernelHeap(
IN gckHEAP Heap
)
{
gcskHEAP_PTR heap, next;
gctPOINTER p;
gcskHEAP_PTR freeList = gcvNULL;
gcmkHEADER_ARG("Heap=0x%x", Heap);
/* Walk all the heaps. */
for (heap = Heap->heap; heap != gcvNULL; heap = next)
{
gcskNODE_PTR lastFree = gcvNULL;
/* Zero out the free list. */
heap->freeList = gcvNULL;
/* Start at the first node. */
for (p = (gctUINT8_PTR) (heap + 1);;)
{
/* Convert the pointer. */
gcskNODE_PTR node = (gcskNODE_PTR) p;
gcmkASSERT(p <= (gctPOINTER) ((gctUINT8_PTR) (heap + 1) + heap->size));
/* Test if this node not used. */
if (node->next != gcdIN_USE)
{
/* Test if this is the end of the heap. */
if (node->bytes == 0)
{
break;
}
/* Test of this is the first free node. */
else if (lastFree == gcvNULL)
{
/* Initialzie the free list. */
heap->freeList = node;
lastFree = node;
}
else
{
/* Test if this free node is contiguous with the previous
** free node. */
if ((gctUINT8_PTR) lastFree + lastFree->bytes == p)
{
/* Just increase the size of the previous free node. */
lastFree->bytes += node->bytes;
}
else
{
/* Add to linked list. */
lastFree->next = node;
lastFree = node;
}
}
}
/* Move to next node. */
p = (gctUINT8_PTR) node + node->bytes;
}
/* Mark the end of the chain. */
if (lastFree != gcvNULL)
{
lastFree->next = gcvNULL;
}
/* Get next heap. */
next = heap->next;
/* Check if the entire heap is free. */
if ((heap->freeList != gcvNULL)
&& (heap->freeList->bytes == heap->size - gcmSIZEOF(gcskNODE))
)
{
/* Remove the heap from the linked list. */
if (heap->prev == gcvNULL)
{
Heap->heap = next;
}
else
{
heap->prev->next = next;
}
if (heap->next != gcvNULL)
{
heap->next->prev = heap->prev;
}
#if VIVANTE_PROFILER || gcmIS_DEBUG(gcdDEBUG_CODE)
/* Update profiling. */
Heap->heapCount -= 1;
Heap->heapMemory -= heap->size + gcmSIZEOF(gcskHEAP);
#endif
/* Add this heap to the list of heaps that need to be freed. */
heap->next = freeList;
freeList = heap;
}
}
if (freeList != gcvNULL)
{
/* Release the mutex, remove any chance for a dead lock. */
gcmkVERIFY_OK(
gckOS_ReleaseMutex(Heap->os, Heap->mutex));
/* Free all heaps in the free list. */
for (heap = freeList; heap != gcvNULL; heap = next)
{
/* Get pointer to the next heap. */
next = heap->next;
/* Free the heap. */
gcmkTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_HEAP,
"Freeing heap 0x%x (%lu bytes)",
heap, heap->size + gcmSIZEOF(gcskHEAP));
gcmkVERIFY_OK(gckOS_FreeMemory(Heap->os, heap));
}
/* Acquire the mutex again. */
gcmkVERIFY_OK(
gckOS_AcquireMutex(Heap->os, Heap->mutex, gcvINFINITE));
}
/* Success. */
gcmkFOOTER_NO();
return gcvSTATUS_OK;
}
gceSTATUS
gcoQUEUE_AppendEvent(
IN gcoQUEUE Queue,
IN gcsHAL_INTERFACE * Interface
)
{
gceSTATUS status;
gcsQUEUE_PTR record = gcvNULL;
#ifdef __QNXNTO__
gctSIZE_T allocationSize;
gctPHYS_ADDR physAddr;
#else
gctPOINTER pointer = gcvNULL;
#endif
gcmHEADER_ARG("Queue=0x%x Interface=0x%x", Queue, Interface);
/* Verify the arguments. */
gcmVERIFY_OBJECT(Queue, gcvOBJ_QUEUE);
gcmVERIFY_ARGUMENT(Interface != gcvNULL);
/* Allocate record. */
#ifdef __QNXNTO__
allocationSize = gcmSIZEOF(gcsQUEUE);
if (Queue->freeBytes < allocationSize)
{
gctSIZE_T recordsSize = BUFFER_SIZE;
gcsQUEUE_PTR prevRecords = Queue->records;
gcsHAL_INTERFACE iface;
/* Allocate new set of records. */
gcmONERROR(
gcoOS_AllocateNonPagedMemory(gcvNULL,
gcvTRUE,
&recordsSize,
&physAddr,
(gctPOINTER *) &Queue->records));
Queue->freeBytes = recordsSize;
Queue->offset = 0;
if ( Queue->freeBytes < allocationSize )
{
gcmFOOTER_ARG("status=%d", gcvSTATUS_DATA_TOO_LARGE);
return gcvSTATUS_DATA_TOO_LARGE;
}
/* Schedule to free Queue->records,
* hence not unmapping currently scheduled events immediately. */
iface.command = gcvHAL_FREE_NON_PAGED_MEMORY;
iface.u.FreeNonPagedMemory.bytes = BUFFER_SIZE;
iface.u.FreeNonPagedMemory.physical = 0;
iface.u.FreeNonPagedMemory.logical = prevRecords;
gcmONERROR(
gcoQUEUE_AppendEvent(Queue, &iface));
}
record = (gcsQUEUE_PTR)((gctUINT32)Queue->records + Queue->offset);
Queue->offset += allocationSize;
Queue->freeBytes -= allocationSize;
#else
/* Check if we have records on the free list. */
if (Queue->freeList != gcvNULL)
{
/* Allocate from hte free list. */
record = Queue->freeList;
Queue->freeList = record->next;
}
else
{
gcmONERROR(gcoOS_Allocate(gcvNULL,
gcmSIZEOF(gcsQUEUE),
&pointer));
record = pointer;
}
#endif
/* Initialize record. */
record->next = gcvNULL;
gcoOS_MemCopy(&record->iface, Interface, gcmSIZEOF(record->iface));
if (Queue->head == gcvNULL)
{
/* Initialize queue. */
Queue->head = record;
}
else
{
/* Append record to end of queue. */
Queue->tail->next = record;
}
/* Mark end of queue. */
Queue->tail = record;
/* update count */
Queue->recordCount++;
/* Success. */
gcmFOOTER_NO();
return gcvSTATUS_OK;
OnError:
#ifndef __QNXNTO__
if (pointer != gcvNULL)
{
/* Put record on free list. */
record->next = Queue->freeList;
Queue->freeList = record;
}
#endif
/* Return the status. */
gcmFOOTER();
return status;
}
static ssize_t gc_proc_write(
struct file *file,
const char *buff,
size_t len,
loff_t *off)
{
char messages[256];
if(len > 256)
len = 256;
if(copy_from_user(messages, buff, len))
return -EFAULT;
printk("\n");
if(strncmp(messages, "dutycycle", 9) == 0)
{
gctINT32 option;
gcuDATABASE_INFO gpuIdle;
static gctUINT64 startTime = 0;
static gctUINT64 endTime = 0;
gcmkVERIFY_OK(gckOS_ZeroMemory((gctPOINTER)&gpuIdle, gcmSIZEOF(gcuDATABASE_INFO)));
sscanf(messages+9, "%d", &option);
switch(option) {
case 0:
gcmkVERIFY_OK(gckOS_GetProfileTick(&startTime));
gcmkVERIFY_OK(gckKERNEL_QueryDutyCycleDB(galDevice->kernels[gcvCORE_MAJOR], gcvTRUE, &gpuIdle));
gpuIdle.time = 0;
endTime = 0;
break;
case 1:
gcmkVERIFY_OK(gckKERNEL_QueryDutyCycleDB(galDevice->kernels[gcvCORE_MAJOR], gcvFALSE, &gpuIdle));
gcmkVERIFY_OK(gckOS_GetProfileTick(&endTime));
break;
default:
printk(KERN_INFO "usage: echo dutycycle [0|1] > /proc/driver/gc\n");
}
if(startTime != 0 && endTime != 0)
{
gctUINT64 delta = endTime - startTime;
gctUINT32 per = 100 - 100 * gckOS_ProfileToMS(gpuIdle.time) / gckOS_ProfileToMS(delta);
printk(KERN_INFO "\n %%GPU START END DELTA IDLE\n");
printk(KERN_INFO "%5u%% %8u %8u %8u %8u\n\n",
per,
gckOS_ProfileToMS(startTime),
gckOS_ProfileToMS(endTime),
gckOS_ProfileToMS(delta),
gckOS_ProfileToMS(gpuIdle.time));
}
}
else if(strncmp(messages, "reg", 3) == 0)
{
gctINT32 option;
gctUINT32 idle, address, clockControl;
sscanf(messages+3, "%d", &option);
switch(option) {
case 1:
/* Read the current FE address. */
gckOS_ReadRegisterEx(galDevice->os,
galDevice->kernels[0]->hardware->core,
0x00664,
&address);
gcmkPRINT("address: 0x%2x\n", address);
break;
case 2:
/* Read idle register. */
gckOS_ReadRegisterEx(galDevice->os,
galDevice->kernels[0]->hardware->core,
0x00004,
&idle);
gcmkPRINT("idle: 0x%2x\n", idle);
break;
case 3:
gckOS_ReadRegisterEx(galDevice->os,
gcvCORE_MAJOR,
0x00000,
&clockControl);
gcmkPRINT("clockControl: 0x%2x\n", clockControl);
break;
default:
printk(KERN_INFO "usage: echo reg [1|2|3] > /proc/driver/gc\n");
}
}
else if(strncmp(messages, "help", 4) == 0)
{
printk("Supported options:\n"
"dutycycle measure dutycycle in a period\n"
"reg enable debugging for register reading\n"
"help show this help page\n"
"\n");
}
else
{
gcmkPRINT("unknown echo\n");
}
printk("\n");
return len;
}
/*******************************************************************************
**
** gckCOMMAND_Commit
**
** Commit a command buffer to the command queue.
**
** INPUT:
**
** gckCOMMAND Command
** Pointer to an gckCOMMAND object.
**
** gcoCMDBUF CommandBuffer
** Pointer to an gcoCMDBUF object.
**
** gcoCONTEXT Context
** Pointer to an gcoCONTEXT object.
**
** OUTPUT:
**
** Nothing.
*/
gceSTATUS
gckCOMMAND_Commit(
IN gckCOMMAND Command,
IN gcoCMDBUF CommandBuffer,
IN gcoCONTEXT Context,
IN gctHANDLE Process
)
{
gcoCMDBUF commandBuffer;
gcoCONTEXT context;
gckHARDWARE hardware;
gceSTATUS status;
gctPOINTER initialLink, link;
gctSIZE_T bytes, initialSize, lastRun;
gcoCMDBUF buffer;
gctPOINTER wait;
gctSIZE_T waitSize;
gctUINT32 offset;
gctPOINTER fetchAddress;
gctSIZE_T fetchSize;
gctUINT8_PTR logical;
gcsMAPPED_PTR stack = gcvNULL;
gctINT acquired = 0;
#if gcdSECURE_USER
gctUINT32_PTR hint;
#endif
#if gcdDUMP_COMMAND
gctPOINTER dataPointer;
gctSIZE_T dataBytes;
#endif
gctPOINTER flushPointer;
gctSIZE_T flushSize;
gcmkHEADER_ARG("Command=0x%x CommandBuffer=0x%x Context=0x%x",
Command, CommandBuffer, Context);
/* Verify the arguments. */
gcmkVERIFY_OBJECT(Command, gcvOBJ_COMMAND);
#if gcdNULL_DRIVER == 2
/* Do nothing with infinite hardware. */
gcmkFOOTER_NO();
return gcvSTATUS_OK;
#endif
gcmkONERROR(
_AddMap(Command->os,
CommandBuffer,
gcmSIZEOF(struct _gcoCMDBUF),
(gctPOINTER *) &commandBuffer,
&stack));
gcmkVERIFY_OBJECT(commandBuffer, gcvOBJ_COMMANDBUFFER);
gcmkONERROR(
_AddMap(Command->os,
Context,
gcmSIZEOF(struct _gcoCONTEXT),
(gctPOINTER *) &context,
&stack));
gcmkVERIFY_OBJECT(context, gcvOBJ_CONTEXT);
/* Extract the gckHARDWARE and gckEVENT objects. */
hardware = Command->kernel->hardware;
gcmkVERIFY_OBJECT(hardware, gcvOBJ_HARDWARE);
/* Acquire the context switching mutex. */
gcmkONERROR(
gckOS_AcquireMutex(Command->os,
Command->mutexContext,
gcvINFINITE));
++acquired;
/* Reserved slot in the context or command buffer. */
gcmkONERROR(
gckHARDWARE_PipeSelect(hardware, gcvNULL, 0, &bytes));
/* Test if we need to switch to this context. */
if ((context->id != 0)
&& (context->id != Command->currentContext)
)
{
/* Map the context buffer.*/
gcmkONERROR(
_AddMap(Command->os,
context->logical,
context->bufferSize,
(gctPOINTER *) &logical,
&stack));
#if gcdSECURE_USER
/* Map the hint array.*/
gcmkONERROR(
_AddMap(Command->os,
context->hintArray,
context->hintCount * gcmSIZEOF(gctUINT32),
(gctPOINTER *) &hint,
&stack));
/* Loop while we have valid hints. */
while (*hint != 0)
{
/* Map handle into physical address. */
gcmkONERROR(
gckKERNEL_MapLogicalToPhysical(
Command->kernel,
Process,
(gctPOINTER *) (logical + *hint)));
/* Next hint. */
++hint;
}
#endif
/* See if we have to check pipes. */
if (context->pipe2DIndex != 0)
{
/* See if we are in the correct pipe. */
if (context->initialPipe == Command->pipeSelect)
{
gctUINT32 reserved = bytes;
gctUINT8_PTR nop = logical;
/* Already in the correct pipe, fill context buffer with NOP. */
while (reserved > 0)
{
bytes = reserved;
gcmkONERROR(
gckHARDWARE_Nop(hardware, nop, &bytes));
gcmkASSERT(reserved >= bytes);
reserved -= bytes;
nop += bytes;
}
}
else
{
/* Switch to the correct pipe. */
gcmkONERROR(
gckHARDWARE_PipeSelect(hardware,
logical,
context->initialPipe,
&bytes));
}
}
/* Save initial link pointer. */
initialLink = logical;
initialSize = context->bufferSize;
#if MRVL_PRINT_CMD_BUFFER
_AddCmdBuffer(
Command, initialLink, initialSize, gcvTRUE, gcvFALSE
);
#endif
/* Save initial buffer to flush. */
flushPointer = initialLink;
flushSize = initialSize;
/* Save pointer to next link. */
gcmkONERROR(
_AddMap(Command->os,
context->link,
8,
&link,
&stack));
/* Start parsing CommandBuffer. */
buffer = commandBuffer;
/* Mark context buffer as used. */
if (context->inUse != gcvNULL)
{
gctBOOL_PTR inUse;
gcmkONERROR(
_AddMap(Command->os,
(gctPOINTER) context->inUse,
gcmSIZEOF(gctBOOL),
(gctPOINTER *) &inUse,
&stack));
*inUse = gcvTRUE;
}
}
else
{
/* Test if this is a new context. */
if (context->id == 0)
{
/* Generate unique ID for the context buffer. */
context->id = ++ Command->contextCounter;
if (context->id == 0)
{
/* Context counter overflow (wow!) */
gcmkONERROR(gcvSTATUS_TOO_COMPLEX);
}
}
/* Map the command buffer. */
gcmkONERROR(
_AddMap(Command->os,
commandBuffer->logical,
commandBuffer->offset,
(gctPOINTER *) &logical,
&stack));
#if gcdSECURE_USER
/* Map the hint table. */
gcmkONERROR(
_AddMap(Command->os,
commandBuffer->hintCommit,
commandBuffer->offset - commandBuffer->startOffset,
(gctPOINTER *) &hint,
&stack));
/* Walk while we have valid hints. */
while (*hint != 0)
{
/* Map the handle to a physical address. */
gcmkONERROR(
gckKERNEL_MapLogicalToPhysical(
Command->kernel,
Process,
(gctPOINTER *) (logical + *hint)));
/* Next hint. */
++hint;
}
#endif
if (context->entryPipe == Command->pipeSelect)
{
gctUINT32 reserved = Command->reservedHead;
gctUINT8_PTR nop = logical + commandBuffer->startOffset;
/* Already in the correct pipe, fill context buffer with NOP. */
while (reserved > 0)
{
bytes = reserved;
gcmkONERROR(
gckHARDWARE_Nop(hardware, nop, &bytes));
gcmkASSERT(reserved >= bytes);
reserved -= bytes;
nop += bytes;
}
}
else
{
/* Switch to the correct pipe. */
gcmkONERROR(
gckHARDWARE_PipeSelect(hardware,
logical + commandBuffer->startOffset,
context->entryPipe,
&bytes));
}
/* Save initial link pointer. */
initialLink = logical + commandBuffer->startOffset;
initialSize = commandBuffer->offset
- commandBuffer->startOffset
+ Command->reservedTail;
#if MRVL_PRINT_CMD_BUFFER
_AddCmdBuffer(
Command, initialLink, initialSize, gcvFALSE, gcvFALSE
);
#endif
/* Save initial buffer to flush. */
flushPointer = initialLink;
flushSize = initialSize;
/* Save pointer to next link. */
link = logical + commandBuffer->offset;
/* No more data. */
buffer = gcvNULL;
}
#if MRVL_PRINT_CMD_BUFFER
_AddLink(Command, Command->wait, initialLink);
#endif
#if gcdDUMP_COMMAND
dataPointer = initialLink;
dataBytes = initialSize;
#endif
/* Loop through all remaining command buffers. */
if (buffer != gcvNULL)
{
/* Map the command buffer. */
gcmkONERROR(
_AddMap(Command->os,
buffer->logical,
buffer->offset + Command->reservedTail,
(gctPOINTER *) &logical,
&stack));
#if MRVL_PRINT_CMD_BUFFER
_AddCmdBuffer(
Command, (gctUINT32_PTR)logical, buffer->offset + Command->reservedTail, gcvFALSE, gcvFALSE
);
#endif
#if gcdSECURE_USER
/* Map the hint table. */
gcmkONERROR(
_AddMap(Command->os,
buffer->hintCommit,
buffer->offset - buffer->startOffset,
(gctPOINTER *) &hint,
&stack));
/* Walk while we have valid hints. */
while (*hint != 0)
{
/* Map the handle to a physical address. */
gcmkONERROR(
gckKERNEL_MapLogicalToPhysical(
Command->kernel,
Process,
(gctPOINTER *) (logical + *hint)));
/* Next hint. */
++hint;
}
#endif
/* First slot becomes a NOP. */
{
gctUINT32 reserved = Command->reservedHead;
gctUINT8_PTR nop = logical + buffer->startOffset;
/* Already in the correct pipe, fill context buffer with NOP. */
while (reserved > 0)
{
bytes = reserved;
gcmkONERROR(
gckHARDWARE_Nop(hardware, nop, &bytes));
gcmkASSERT(reserved >= bytes);
reserved -= bytes;
nop += bytes;
}
}
/* Generate the LINK to this command buffer. */
gcmkONERROR(
gckHARDWARE_Link(hardware,
link,
logical + buffer->startOffset,
buffer->offset
- buffer->startOffset
+ Command->reservedTail,
&bytes));
#if MRVL_PRINT_CMD_BUFFER
_AddLink(Command, link, (gctUINT32_PTR)logical);
#endif
/* Flush the initial buffer. */
gcmkONERROR(gckOS_CacheFlush(Command->os,
Process,
flushPointer,
flushSize));
/* Save new flush pointer. */
flushPointer = logical + buffer->startOffset;
flushSize = buffer->offset
- buffer->startOffset
+ Command->reservedTail;
#if gcdDUMP_COMMAND
_DumpCommand(Command, dataPointer, dataBytes);
dataPointer = logical + buffer->startOffset;
dataBytes = buffer->offset - buffer->startOffset
+ Command->reservedTail;
#endif
/* Save pointer to next link. */
link = logical + buffer->offset;
}
/* Compute number of bytes required for WAIT/LINK. */
gcmkONERROR(
gckHARDWARE_WaitLink(hardware,
gcvNULL,
Command->offset,
&bytes,
gcvNULL,
gcvNULL));
lastRun = bytes;
/* Grab the command queue mutex. */
gcmkONERROR(
gckOS_AcquireMutex(Command->os,
Command->mutexQueue,
gcvINFINITE));
++acquired;
if (Command->kernel->notifyIdle)
{
/* Increase the commit stamp */
Command->commitStamp++;
/* Set busy if idle */
if (Command->idle)
{
Command->idle = gcvFALSE;
gcmkVERIFY_OK(gckOS_NotifyIdle(Command->os, gcvFALSE));
}
}
/* Compute number of bytes left in current command queue. */
bytes = Command->pageSize - Command->offset;
if (bytes < lastRun)
{
/* Create a new command queue. */
gcmkONERROR(_NewQueue(Command, gcvTRUE));
/* Adjust run size with any extra commands inserted. */
lastRun += Command->offset;
}
/* Get current offset. */
offset = Command->offset;
/* Append WAIT/LINK in command queue. */
bytes = Command->pageSize - offset;
gcmkONERROR(
gckHARDWARE_WaitLink(hardware,
(gctUINT8 *) Command->logical + offset,
offset,
&bytes,
&wait,
&waitSize));
/* Flush the cache for the wait/link. */
gcmkONERROR(gckOS_CacheFlush(Command->os,
gcvNULL,
(gctUINT8 *) Command->logical + offset,
bytes));
#if gcdDUMP_COMMAND
_DumpCommand(Command, (gctUINT8 *) Command->logical + offset, bytes);
#endif
/* Adjust offset. */
offset += bytes;
if (Command->newQueue)
{
/* Compute fetch location and size for a new command queue. */
fetchAddress = Command->logical;
fetchSize = offset;
}
else
{
/* Compute fetch location and size for an existing command queue. */
fetchAddress = (gctUINT8 *) Command->logical + Command->offset;
fetchSize = offset - Command->offset;
}
bytes = 8;
/* Link in WAIT/LINK. */
gcmkONERROR(
gckHARDWARE_Link(hardware,
link,
fetchAddress,
fetchSize,
&bytes));
#if MRVL_PRINT_CMD_BUFFER
_AddLink(Command, link, fetchAddress);
#endif
/* Flush the cache for the command buffer. */
gcmkONERROR(gckOS_CacheFlush(Command->os,
Process,
flushPointer,
flushSize));
#if gcdDUMP_COMMAND
_DumpCommand(Command, dataPointer, dataBytes);
#endif
/* Execute the entire sequence. */
gcmkONERROR(
gckHARDWARE_Link(hardware,
Command->wait,
initialLink,
initialSize,
&Command->waitSize));
/* Flush the cache for the link. */
gcmkONERROR(gckOS_CacheFlush(Command->os,
gcvNULL,
Command->wait,
Command->waitSize));
#if gcdDUMP_COMMAND
_DumpCommand(Command, Command->wait, Command->waitSize);
#endif
/* Update command queue offset. */
Command->offset = offset;
Command->newQueue = gcvFALSE;
/* Update address of last WAIT. */
Command->wait = wait;
Command->waitSize = waitSize;
/* Update context and pipe select. */
Command->currentContext = context->id;
Command->pipeSelect = context->currentPipe;
/* Update queue tail pointer. */
gcmkONERROR(
gckHARDWARE_UpdateQueueTail(hardware,
Command->logical,
Command->offset));
#if gcdDUMP_COMMAND
gcmkPRINT("@[kernel.commit]");
#endif
/* Release the command queue mutex. */
gcmkONERROR(gckOS_ReleaseMutex(Command->os, Command->mutexQueue));
--acquired;
/* Release the context switching mutex. */
gcmkONERROR(gckOS_ReleaseMutex(Command->os, Command->mutexContext));
--acquired;
/* Submit events if asked for. */
if (Command->submit)
{
/* Submit events. */
status = gckEVENT_Submit(Command->kernel->event, gcvFALSE, gcvFALSE);
if (gcmIS_SUCCESS(status))
{
/* Success. */
Command->submit = gcvFALSE;
}
else
{
gcmkTRACE_ZONE(gcvLEVEL_WARNING, gcvZONE_COMMAND,
"gckEVENT_Submit returned %d",
status);
}
}
/* Success. */
status = gcvSTATUS_OK;
OnError:
if (acquired > 1)
{
/* Release the command queue mutex. */
gcmkVERIFY_OK(
gckOS_ReleaseMutex(Command->os, Command->mutexQueue));
}
if (acquired > 0)
{
/* Release the context switching mutex. */
gcmkVERIFY_OK(
gckOS_ReleaseMutex(Command->os, Command->mutexContext));
}
/* Unmap all mapped pointers. */
while (stack != gcvNULL)
{
gcsMAPPED_PTR map = stack;
stack = map->next;
gcmkVERIFY_OK(
gckOS_UnmapUserPointer(Command->os,
map->pointer,
map->bytes,
map->kernelPointer));
gcmkVERIFY_OK(
gckOS_Free(Command->os, map));
}
/* Return status. */
gcmkFOOTER();
return status;
}
/*******************************************************************************
** InitializeVGProfiler
**
** Initialize the profiler for the context provided.
**
** Arguments:
**
** VGContext Context
** Pointer to a new VGContext object.
*/
void
InitializeVGProfiler(
_VGContext * Context
)
{
gceSTATUS status;
gctUINT rev;
char *env;
status = gcoPROFILER_Initialize(Context->hal);
if (gcmIS_ERROR(status))
{
Context->profiler.enable = gcvFALSE;
return;
}
/* Clear the profiler. */
gcmVERIFY_OK(
gcoOS_ZeroMemory(&Context->profiler, gcmSIZEOF(Context->profiler)));
gcoOS_GetEnv(Context->os, "VP_COUNTER_FILTER", &env);
if ((env == gcvNULL) || (env[0] ==0))
{
Context->profiler.drvEnable =
Context->profiler.timeEnable =
Context->profiler.memEnable = gcvTRUE;
}
else
{
gctSIZE_T bitsLen;
gcoOS_StrLen(env, &bitsLen);
if (bitsLen > 0)
{
Context->profiler.timeEnable = (env[0] == '1');
}
else
{
Context->profiler.timeEnable = gcvTRUE;
}
if (bitsLen > 1)
{
Context->profiler.memEnable = (env[1] == '1');
}
else
{
Context->profiler.memEnable = gcvTRUE;
}
if (bitsLen > 4)
{
Context->profiler.drvEnable = (env[4] == '1');
}
else
{
Context->profiler.drvEnable = gcvTRUE;
}
}
Context->profiler.enable = gcvTRUE;
#if gcdNEW_PROFILER_FILE
{
/* Write Generic Info. */
char* infoCompany = "Vivante Corporation";
char* infoVersion = "1.0";
char infoRevision[255] = {'\0'}; /* read from hw */
char* infoRenderer = Context->chipName;
char* infoDriver = "OpenVG 1.1";
gctUINT offset = 0;
rev = Context->revision;
#define BCD(digit) ((rev >> (digit * 4)) & 0xF)
gcoOS_MemFill(infoRevision, 0, gcmSIZEOF(infoRevision));
gcoOS_MemFill(infoRevision, 0, gcmSIZEOF(infoRevision));
if (BCD(3) == 0)
{
/* Old format. */
gcoOS_PrintStrSafe(infoRevision, gcmSIZEOF(infoRevision),
&offset, "revision=\"%d.%d\" ", BCD(1), BCD(0));
}
else
{
/* New format. */
gcoOS_PrintStrSafe(infoRevision, gcmSIZEOF(infoRevision),
&offset, "revision=\"%d.%d.%d_rc%d\" ",
BCD(3), BCD(2), BCD(1), BCD(0));
}
gcmWRITE_CONST(VPG_INFO);
gcmWRITE_CONST(VPC_INFOCOMPANY);
gcmWRITE_STRING(infoCompany);
gcmWRITE_CONST(VPC_INFOVERSION);
gcmWRITE_STRING(infoVersion);
gcmWRITE_CONST(VPC_INFORENDERER);
gcmWRITE_STRING(infoRenderer);
gcmWRITE_CONST(VPC_INFOREVISION);
gcmWRITE_STRING(infoRevision);
gcmWRITE_CONST(VPC_INFODRIVER);
gcmWRITE_STRING(infoDriver);
gcmWRITE_CONST(VPG_END);
}
#else
/* Print generic info */
_Print(Context, "<GenericInfo company=\"Vivante Corporation\" "
"version=\"%d.%d\" renderer=\"%s\" ",
1, 0, Context->chipName);
rev = Context->revision;
#define BCD(digit) ((rev >> (digit * 4)) & 0xF)
if (BCD(3) == 0)
{
/* Old format. */
_Print(Context, "revision=\"%d.%d\" ", BCD(1), BCD(0));
}
else
{
/* New format. */
_Print(Context, "revision=\"%d.%d.%d_rc%d\" ",
BCD(3), BCD(2), BCD(1), BCD(0));
}
_Print(Context, "driver=\"%s\" />\n", "OpenVG 1.1");
#endif
gcoOS_GetTime(&Context->profiler.frameStart);
Context->profiler.frameStartTimeusec = Context->profiler.frameStart;
Context->profiler.primitiveStartTimeusec = Context->profiler.frameStart;
gcoOS_GetCPUTime(&Context->profiler.frameStartCPUTimeusec);
}
/*******************************************************************************
** gckKERNEL_NewDatabase
**
** Create a new database structure and insert it to the head of the hash list.
**
** INPUT:
**
** gckKERNEL Kernel
** Pointer to a gckKERNEL object.
**
** gctUINT32 ProcessID
** ProcessID that identifies the database.
**
** OUTPUT:
**
** gcsDATABASE_PTR * Database
** Pointer to a variable receiving the database structure pointer on
** success.
*/
static gceSTATUS
gckKERNEL_NewDatabase(
IN gckKERNEL Kernel,
IN gctUINT32 ProcessID,
OUT gcsDATABASE_PTR * Database
)
{
gceSTATUS status;
gcsDATABASE_PTR database;
gctBOOL acquired = gcvFALSE;
gctSIZE_T slot;
gcsDATABASE_PTR existingDatabase;
gcmkHEADER_ARG("Kernel=0x%x ProcessID=%d", Kernel, ProcessID);
/* Acquire the database mutex. */
gcmkONERROR(gckOS_AcquireMutex(Kernel->os, Kernel->db->dbMutex, gcvINFINITE));
acquired = gcvTRUE;
/* Compute the hash for the database. */
slot = ProcessID % gcmCOUNTOF(Kernel->db->db);
/* Walk the hash list. */
for (existingDatabase = Kernel->db->db[slot];
existingDatabase != gcvNULL;
existingDatabase = existingDatabase->next)
{
if (existingDatabase->processID == ProcessID)
{
/* One process can't be added twice. */
gcmkONERROR(gcvSTATUS_NOT_SUPPORTED);
}
}
if (Kernel->db->freeDatabase != gcvNULL)
{
/* Allocate a database from the free list. */
database = Kernel->db->freeDatabase;
Kernel->db->freeDatabase = database->next;
}
else
{
gctPOINTER pointer = gcvNULL;
/* Allocate a new database from the heap. */
gcmkONERROR(gckOS_Allocate(Kernel->os,
gcmSIZEOF(gcsDATABASE),
&pointer));
database = pointer;
}
/* Insert the database into the hash. */
database->next = Kernel->db->db[slot];
Kernel->db->db[slot] = database;
/* Save the hash slot. */
database->slot = slot;
/* Release the database mutex. */
gcmkONERROR(gckOS_ReleaseMutex(Kernel->os, Kernel->db->dbMutex));
/* Return the database. */
*Database = database;
/* Success. */
gcmkFOOTER_ARG("*Database=0x%x", *Database);
return gcvSTATUS_OK;
OnError:
if (acquired)
{
/* Release the database mutex. */
gcmkVERIFY_OK(gckOS_ReleaseMutex(Kernel->os, Kernel->db->dbMutex));
}
/* Return the status. */
gcmkFOOTER();
return status;
}
gceSTATUS
gcoPROFILER_Initialize(
IN gcoHAL Hal
)
{
gceSTATUS status = gcvSTATUS_OK;
char* fileName;
char* filter = gcvNULL;
gctSTRING portName;
gctINT port;
gcsHAL_INTERFACE iface;
gcmHEADER();
/* Check if already initialized. */
if (gcPLS.hal->profiler.enable)
{
gcPLS.hal->profiler.enable++;
gcmFOOTER();
return status;
}
/* Get profile setting. */
iface.command = gcvHAL_GET_PROFILE_SETTING;
/* Call the kernel. */
status = gcoOS_DeviceControl(gcvNULL,
IOCTL_GCHAL_INTERFACE,
&iface, gcmSIZEOF(iface),
&iface, gcmSIZEOF(iface));
if (gcmIS_ERROR(status) || !iface.u.GetProfileSetting.enable)
{
gcPLS.hal->profiler.enable = 0;
status = gcvSTATUS_GENERIC_IO;
gcmFOOTER();
return status;
}
gcmVERIFY_OK(gcoOS_ZeroMemory(&gcPLS.hal->profiler, gcmSIZEOF(gcPLS.hal->profiler)));
gcoOS_GetEnv(gcvNULL,
"VP_COUNTER_FILTER",
&filter);
/* Enable/Disable specific counters. */
if ((filter != gcvNULL))
{
gctSIZE_T bitsLen;
gcoOS_StrLen(filter, &bitsLen);
if (bitsLen > 2)
{
gcPLS.hal->profiler.enableHal = (filter[2] == '1');
}
else
{
gcPLS.hal->profiler.enableHal = gcvTRUE;
}
if (bitsLen > 3)
{
gcPLS.hal->profiler.enableHW = (filter[3] == '1');
}
else
{
gcPLS.hal->profiler.enableHW = gcvTRUE;
}
if (bitsLen > 8)
{
gcPLS.hal->profiler.enableSH = (filter[8] == '1');
}
else
{
gcPLS.hal->profiler.enableSH = gcvTRUE;
}
}
else
{
gcPLS.hal->profiler.enableHal = gcvTRUE;
gcPLS.hal->profiler.enableHW = gcvTRUE;
gcPLS.hal->profiler.enableSH = gcvTRUE;
}
gcoOS_GetEnv(gcvNULL,
"VPROFILER_OUTPUT",
&fileName);
gcPLS.hal->profiler.useSocket = gcvFALSE;
if (fileName && *fileName != '\0' && *fileName != ' ')
{
/* Extract port info. */
gcoOS_StrFindReverse(fileName, ':', &portName);
if (portName)
{
gcoOS_StrToInt(portName + 1, &port);
if (port > 0)
{
/*status = gcoOS_Socket(gcvNULL, AF_INET, SOCK_STREAM, 0, &gcPLS.hal->profiler.sockFd);*/
status = gcoOS_Socket(gcvNULL, 2, 1, 0, &gcPLS.hal->profiler.sockFd);
if (gcmIS_SUCCESS(status))
{
*portName = '\0';
status = gcoOS_Connect(gcvNULL,
gcPLS.hal->profiler.sockFd, fileName, port);
*portName = ':';
if (gcmIS_SUCCESS(status))
{
gcPLS.hal->profiler.useSocket = gcvTRUE;
}
}
}
}
}
else
{
fileName = iface.u.GetProfileSetting.fileName;
}
if (! gcPLS.hal->profiler.useSocket)
{
status = gcoOS_Open(gcvNULL,
fileName,
#ifdef gcdNEW_PROFILER_FILE
gcvFILE_CREATE,
#else
gcvFILE_CREATETEXT,
#endif
&gcPLS.hal->profiler.file);
}
if (gcmIS_ERROR(status))
{
gcPLS.hal->profiler.enable = 0;
status = gcvSTATUS_GENERIC_IO;
gcmFOOTER();
return status;
}
gcPLS.hal->profiler.enable = 1;
gcoOS_GetTime(&gcPLS.hal->profiler.frameStart);
gcPLS.hal->profiler.frameStartTimeusec = gcPLS.hal->profiler.frameStart;
gcPLS.hal->profiler.prevVSInstCount = 0;
gcPLS.hal->profiler.prevVSBranchInstCount = 0;
gcPLS.hal->profiler.prevVSTexInstCount = 0;
gcPLS.hal->profiler.prevVSVertexCount = 0;
gcPLS.hal->profiler.prevPSInstCount = 0;
gcPLS.hal->profiler.prevPSBranchInstCount = 0;
gcPLS.hal->profiler.prevPSTexInstCount = 0;
gcPLS.hal->profiler.prevPSPixelCount = 0;
#if gcdNEW_PROFILER_FILE
gcmWRITE_CONST(VPHEADER);
gcmWRITE_BUFFER(4, "VP12");
#else
gcmWRITE_STRING("<?xml version=\"1.0\" encoding=\"utf-8\" ?>\n<VProfile>\n");
#endif
/* Success. */
gcmFOOTER();
return status;
}
gceSTATUS vgfConvertArc(
vgsPATHWALKER_PTR Destination,
gctFLOAT HorRadius,
gctFLOAT VerRadius,
gctFLOAT RotAngle,
gctFLOAT EndX,
gctFLOAT EndY,
gctBOOL CounterClockwise,
gctBOOL Large,
gctBOOL Relative
)
{
gceSTATUS status;
vgsARCCOORDINATES_PTR arcCoords = gcvNULL;
do
{
gctFLOAT endX, endY;
gceVGCMD segmentCommand;
vgsCONTROL_COORD_PTR coords;
/*******************************************************************
** Determine the absolute end point coordinates.
*/
/* Get a shortcut to the control coordinates. */
coords = Destination->coords;
if (Relative)
{
endX = EndX + coords->lastX;
endY = EndY + coords->lastY;
}
else
{
endX = EndX;
endY = EndY;
}
/* If both of the radiuses are zeros, make a line out of the arc. */
if ((HorRadius == 0.0f) || (VerRadius == 0.0f) ||
((endX == coords->lastX) && (endY == coords->lastY)))
{
/* Determine the segment command. */
segmentCommand = Relative
? gcvVGCMD_ARC_LINE_REL
: gcvVGCMD_ARC_LINE;
/* Allocate a new subpath. */
gcmERR_BREAK(vgsPATHWALKER_StartSubpath(
Destination, vgmCOMMANDSIZE(2, gctFLOAT), gcePATHTYPE_FLOAT
));
/* Write the command. */
gcmERR_BREAK(vgsPATHWALKER_WriteCommand(
Destination,
segmentCommand
));
/* Write the coordinates. */
Destination->set(Destination, EndX);
Destination->set(Destination, EndY);
}
else
{
VGfloat phi, cosPhi, sinPhi;
VGfloat dxHalf, dyHalf;
VGfloat x1Prime, y1Prime;
VGfloat rx, ry;
VGfloat x1PrimeSquare, y1PrimeSquare;
VGfloat lambda;
VGfloat rxSquare, rySquare;
VGint sign;
VGfloat sq, signedSq;
VGfloat cxPrime, cyPrime;
VGfloat theta1, thetaSpan;
VGint segs;
VGfloat theta, ax, ay, x, y;
VGfloat controlX, controlY, anchorX, anchorY;
VGfloat lastX, lastY;
gctUINT bufferSize;
/*******************************************************************
** Converting.
*/
phi = RotAngle / 180.0f * vgvPI;
cosPhi = gcmCOSF(phi);
sinPhi = gcmSINF(phi);
if (Relative)
{
dxHalf = - EndX / 2.0f;
dyHalf = - EndY / 2.0f;
}
else
{
dxHalf = (coords->lastX - endX) / 2.0f;
dyHalf = (coords->lastY - endY) / 2.0f;
}
x1Prime = cosPhi * dxHalf + sinPhi * dyHalf;
y1Prime = -sinPhi * dxHalf + cosPhi * dyHalf;
rx = gcmFABSF(HorRadius);
ry = gcmFABSF(VerRadius);
x1PrimeSquare = x1Prime * x1Prime;
y1PrimeSquare = y1Prime * y1Prime;
lambda = x1PrimeSquare / (rx * rx) + y1PrimeSquare / (ry * ry);
if (lambda > 1.0f)
{
rx *= gcmSQRTF(lambda);
ry *= gcmSQRTF(lambda);
}
rxSquare = rx * rx;
rySquare = ry * ry;
sign = (Large == CounterClockwise) ? -1 : 1;
sq = ( rxSquare * rySquare
- rxSquare * y1PrimeSquare
- rySquare * x1PrimeSquare
)
/
( rxSquare * y1PrimeSquare
+ rySquare * x1PrimeSquare
);
signedSq = sign * ((sq < 0) ? 0 : gcmSQRTF(sq));
cxPrime = signedSq * (rx * y1Prime / ry);
cyPrime = signedSq * -(ry * x1Prime / rx);
theta1 = _Angle(1, 0, (x1Prime - cxPrime) / rx, (y1Prime - cyPrime) / ry);
theta1 = gcmFMODF(theta1, 2 * vgvPI);
thetaSpan = _Angle(( x1Prime - cxPrime) / rx, ( y1Prime - cyPrime) / ry,
(-x1Prime - cxPrime) / rx, (-y1Prime - cyPrime) / ry);
if (!CounterClockwise && (thetaSpan > 0))
{
thetaSpan -= 2 * vgvPI;
}
else if (CounterClockwise && (thetaSpan < 0))
{
thetaSpan += 2 * vgvPI;
}
thetaSpan = gcmFMODF(thetaSpan, 2 * vgvPI);
/*******************************************************************
** Drawing.
*/
segs = (VGint) (gcmCEILF(gcmFABSF(thetaSpan) / (45.0f / 180.0f * vgvPI)));
gcmASSERT(segs > 0);
theta = thetaSpan / segs;
ax = coords->lastX - gcmCOSF(theta1) * rx;
ay = coords->lastY - gcmSINF(theta1) * ry;
/* Determine the segment command. */
segmentCommand = Relative
? gcvVGCMD_ARC_QUAD_REL
: gcvVGCMD_ARC_QUAD;
/* Determine the size of the buffer required. */
bufferSize = (1 + 2 * 2) * gcmSIZEOF(gctFLOAT) * segs;
/* Allocate a new subpath. */
gcmERR_BREAK(vgsPATHWALKER_StartSubpath(
Destination, bufferSize, gcePATHTYPE_FLOAT
));
/* Set initial last point. */
lastX = coords->lastX;
lastY = coords->lastY;
while (segs-- > 0)
{
theta1 += theta;
controlX = ax + gcmCOSF(theta1 - (theta / 2.0f)) * rx / gcmCOSF(theta / 2.0f);
controlY = ay + gcmSINF(theta1 - (theta / 2.0f)) * ry / gcmCOSF(theta / 2.0f);
anchorX = ax + gcmCOSF(theta1) * rx;
anchorY = ay + gcmSINF(theta1) * ry;
if (RotAngle != 0)
{
x = coords->lastX + cosPhi * (controlX - coords->lastX) - sinPhi * (controlY - coords->lastY);
y = coords->lastY + sinPhi * (controlX - coords->lastX) + cosPhi * (controlY - coords->lastY);
controlX = x;
controlY = y;
x = coords->lastX + cosPhi * (anchorX - coords->lastX) - sinPhi * (anchorY - coords->lastY);
y = coords->lastY + sinPhi * (anchorX - coords->lastX) + cosPhi * (anchorY - coords->lastY);
anchorX = x;
anchorY = y;
}
if (segs == 0)
{
/* Use end point directly to avoid accumulated errors. */
anchorX = endX;
anchorY = endY;
}
/* Adjust relative coordinates. */
if (Relative)
{
VGfloat nextLastX = anchorX;
VGfloat nextLastY = anchorY;
controlX -= lastX;
controlY -= lastY;
anchorX -= lastX;
anchorY -= lastY;
lastX = nextLastX;
lastY = nextLastY;
}
/* Write the command. */
gcmERR_BREAK(vgsPATHWALKER_WriteCommand(
Destination, segmentCommand
));
/* Set the coordinates. */
Destination->set(Destination, controlX);
Destination->set(Destination, controlY);
Destination->set(Destination, anchorX);
Destination->set(Destination, anchorY);
}
}
/* Store ARC coordinates. */
gcmERR_BREAK(vgsMEMORYMANAGER_Allocate(
Destination->arcCoordinates,
(gctPOINTER *) &arcCoords
));
arcCoords->large = Large;
arcCoords->counterClockwise = CounterClockwise;
arcCoords->horRadius = HorRadius;
arcCoords->verRadius = VerRadius;
arcCoords->rotAngle = RotAngle;
arcCoords->endX = EndX;
arcCoords->endY = EndY;
/* Store the pointer to ARC coordinates. */
Destination->currPathData->extraManager = Destination->arcCoordinates;
Destination->currPathData->extra = arcCoords;
/* Update the control coordinates. */
coords->lastX = endX;
coords->lastY = endY;
coords->controlX = endX;
coords->controlY = endY;
/* Success. */
return gcvSTATUS_OK;
}
while (gcvFALSE);
/* Roll back. */
vgsPATHWALKER_Rollback(Destination);
/* Return status. */
return status;
}
/*#endif*/
gcmFOOTER_NO();
return gcvSTATUS_OK;
}
#endif /* vivante_no_3d */
gceSTATUS
gcoPROFILER_EndFrame(
IN gcoHAL Hal
)
{
/*#if (PROFILE_HAL_COUNTERS || PROFILE_HW_COUNTERS)*/
gcsHAL_INTERFACE iface;
gceSTATUS status;
/*#endif*/
gcmHEADER();
if (!gcPLS.hal->profiler.enable)
{
gcmFOOTER_NO();
return gcvSTATUS_OK;
}
/*#if PROFILE_HAL_COUNTERS*/
if (gcPLS.hal->profiler.enableHal)
{
#if gcdNEW_PROFILER_FILE
gcmWRITE_CONST(VPG_HAL);
gcmWRITE_COUNTER(VPC_HALVERTBUFNEWBYTEALLOC, gcPLS.hal->profiler.vertexBufferNewBytesAlloc);
gcmWRITE_COUNTER(VPC_HALVERTBUFTOTALBYTEALLOC, gcPLS.hal->profiler.vertexBufferTotalBytesAlloc);
gcmWRITE_COUNTER(VPC_HALVERTBUFNEWOBJALLOC, gcPLS.hal->profiler.vertexBufferNewObjectsAlloc);
gcmWRITE_COUNTER(VPC_HALVERTBUFTOTALOBJALLOC, gcPLS.hal->profiler.vertexBufferTotalObjectsAlloc);
gcmWRITE_COUNTER(VPC_HALINDBUFNEWBYTEALLOC, gcPLS.hal->profiler.indexBufferNewBytesAlloc);
gcmWRITE_COUNTER(VPC_HALINDBUFTOTALBYTEALLOC, gcPLS.hal->profiler.indexBufferTotalBytesAlloc);
gcmWRITE_COUNTER(VPC_HALINDBUFNEWOBJALLOC, gcPLS.hal->profiler.indexBufferNewObjectsAlloc);
gcmWRITE_COUNTER(VPC_HALINDBUFTOTALOBJALLOC, gcPLS.hal->profiler.indexBufferTotalObjectsAlloc);
gcmWRITE_COUNTER(VPC_HALTEXBUFNEWBYTEALLOC, gcPLS.hal->profiler.textureBufferNewBytesAlloc);
gcmWRITE_COUNTER(VPC_HALTEXBUFTOTALBYTEALLOC, gcPLS.hal->profiler.textureBufferTotalBytesAlloc);
gcmWRITE_COUNTER(VPC_HALTEXBUFNEWOBJALLOC, gcPLS.hal->profiler.textureBufferNewObjectsAlloc);
gcmWRITE_COUNTER(VPC_HALTEXBUFTOTALOBJALLOC, gcPLS.hal->profiler.textureBufferTotalObjectsAlloc);
gcmWRITE_CONST(VPG_END);
#else
gcmWRITE_STRING("<HALCounters>\n");
gcmPRINT_XML_COUNTER(vertexBufferNewBytesAlloc);
gcmPRINT_XML_COUNTER(vertexBufferTotalBytesAlloc);
gcmPRINT_XML_COUNTER(vertexBufferNewObjectsAlloc);
gcmPRINT_XML_COUNTER(vertexBufferTotalObjectsAlloc);
gcmPRINT_XML_COUNTER(indexBufferNewBytesAlloc);
gcmPRINT_XML_COUNTER(indexBufferTotalBytesAlloc);
gcmPRINT_XML_COUNTER(indexBufferNewObjectsAlloc);
gcmPRINT_XML_COUNTER(indexBufferTotalObjectsAlloc);
gcmPRINT_XML_COUNTER(textureBufferNewBytesAlloc);
gcmPRINT_XML_COUNTER(textureBufferTotalBytesAlloc);
gcmPRINT_XML_COUNTER(textureBufferNewObjectsAlloc);
gcmPRINT_XML_COUNTER(textureBufferTotalObjectsAlloc);
gcmWRITE_STRING("</HALCounters>\n");
#endif
/* Reset per-frame counters. */
gcPLS.hal->profiler.vertexBufferNewBytesAlloc = 0;
gcPLS.hal->profiler.vertexBufferNewObjectsAlloc = 0;
gcPLS.hal->profiler.indexBufferNewBytesAlloc = 0;
gcPLS.hal->profiler.indexBufferNewObjectsAlloc = 0;
gcPLS.hal->profiler.textureBufferNewBytesAlloc = 0;
gcPLS.hal->profiler.textureBufferNewObjectsAlloc = 0;
}
/*#endif*/
/*#if PROFILE_HW_COUNTERS*/
/* gcvHAL_READ_ALL_PROFILE_REGISTERS. */
if (gcPLS.hal->profiler.enableHW)
{
iface.command = gcvHAL_READ_ALL_PROFILE_REGISTERS;
/* Call the kernel. */
status = gcoOS_DeviceControl(gcvNULL,
IOCTL_GCHAL_INTERFACE,
&iface, gcmSIZEOF(iface),
&iface, gcmSIZEOF(iface));
/* Verify result. */
if (gcmNO_ERROR(status))
{
#define gcmCOUNTER(name) iface.u.RegisterProfileData.counters.name
#if gcdNEW_PROFILER_FILE
gcmWRITE_CONST(VPG_HW);
gcmWRITE_CONST(VPG_GPU);
gcmWRITE_COUNTER(VPC_GPUREAD64BYTE, gcmCOUNTER(gpuTotalRead64BytesPerFrame));
gcmWRITE_COUNTER(VPC_GPUWRITE64BYTE, gcmCOUNTER(gpuTotalWrite64BytesPerFrame));
gcmWRITE_COUNTER(VPC_GPUCYCLES, gcmCOUNTER(gpuCyclesCounter));
gcmWRITE_CONST(VPG_END);
gcmWRITE_CONST(VPG_VS);
gcmWRITE_COUNTER(VPC_VSINSTCOUNT, gcmCOUNTER(vs_inst_counter) - gcPLS.hal->profiler.prevVSInstCount);
gcmWRITE_COUNTER(VPC_VSBRANCHINSTCOUNT, gcmCOUNTER(vtx_branch_inst_counter) - gcPLS.hal->profiler.prevVSBranchInstCount);
gcmWRITE_COUNTER(VPC_VSTEXLDINSTCOUNT, gcmCOUNTER(vtx_texld_inst_counter) - gcPLS.hal->profiler.prevVSTexInstCount);
gcmWRITE_COUNTER(VPC_VSRENDEREDVERTCOUNT, gcmCOUNTER(rendered_vertice_counter) - gcPLS.hal->profiler.prevVSVertexCount);
gcmWRITE_CONST(VPG_END);
gcPLS.hal->profiler.prevVSInstCount = gcmCOUNTER(vs_inst_counter);
gcPLS.hal->profiler.prevVSBranchInstCount = gcmCOUNTER(vtx_branch_inst_counter);
gcPLS.hal->profiler.prevVSTexInstCount = gcmCOUNTER(vtx_texld_inst_counter);
gcPLS.hal->profiler.prevVSVertexCount = gcmCOUNTER(rendered_vertice_counter);
gcmWRITE_CONST(VPG_PA);
gcmWRITE_COUNTER(VPC_PAINVERTCOUNT, gcmCOUNTER(pa_input_vtx_counter));
gcmWRITE_COUNTER(VPC_PAINPRIMCOUNT, gcmCOUNTER(pa_input_prim_counter));
gcmWRITE_COUNTER(VPC_PAOUTPRIMCOUNT, gcmCOUNTER(pa_output_prim_counter));
gcmWRITE_COUNTER(VPC_PADEPTHCLIPCOUNT, gcmCOUNTER(pa_depth_clipped_counter));
gcmWRITE_COUNTER(VPC_PATRIVIALREJCOUNT, gcmCOUNTER(pa_trivial_rejected_counter));
gcmWRITE_COUNTER(VPC_PACULLCOUNT, gcmCOUNTER(pa_culled_counter));
gcmWRITE_CONST(VPG_END);
gcmWRITE_CONST(VPG_SETUP);
gcmWRITE_COUNTER(VPC_SETRIANGLECOUNT, gcmCOUNTER(se_culled_triangle_count));
gcmWRITE_COUNTER(VPC_SELINECOUNT, gcmCOUNTER(se_culled_lines_count));
gcmWRITE_CONST(VPG_END);
gcmWRITE_CONST(VPG_RA);
gcmWRITE_COUNTER(VPC_RAVALIDPIXCOUNT, gcmCOUNTER(ra_valid_pixel_count));
gcmWRITE_COUNTER(VPC_RATOTALQUADCOUNT, gcmCOUNTER(ra_total_quad_count));
gcmWRITE_COUNTER(VPC_RAVALIDQUADCOUNTEZ, gcmCOUNTER(ra_valid_quad_count_after_early_z));
gcmWRITE_COUNTER(VPC_RATOTALPRIMCOUNT, gcmCOUNTER(ra_total_primitive_count));
gcmWRITE_COUNTER(VPC_RAPIPECACHEMISSCOUNT, gcmCOUNTER(ra_pipe_cache_miss_counter));
gcmWRITE_COUNTER(VPC_RAPREFCACHEMISSCOUNT, gcmCOUNTER(ra_prefetch_cache_miss_counter));
gcmWRITE_COUNTER(VPC_RAEEZCULLCOUNT, gcmCOUNTER(ra_eez_culled_counter));
gcmWRITE_CONST(VPG_END);
gcmWRITE_CONST(VPG_TX);
gcmWRITE_COUNTER(VPC_TXTOTBILINEARREQ, gcmCOUNTER(tx_total_bilinear_requests));
gcmWRITE_COUNTER(VPC_TXTOTTRILINEARREQ, gcmCOUNTER(tx_total_trilinear_requests));
gcmWRITE_COUNTER(VPC_TXTOTTEXREQ, gcmCOUNTER(tx_total_texture_requests));
gcmWRITE_COUNTER(VPC_TXMEMREADCOUNT, gcmCOUNTER(tx_mem_read_count));
gcmWRITE_COUNTER(VPC_TXMEMREADIN8BCOUNT, gcmCOUNTER(tx_mem_read_in_8B_count));
gcmWRITE_COUNTER(VPC_TXCACHEMISSCOUNT, gcmCOUNTER(tx_cache_miss_count));
gcmWRITE_COUNTER(VPC_TXCACHEHITTEXELCOUNT, gcmCOUNTER(tx_cache_hit_texel_count));
gcmWRITE_COUNTER(VPC_TXCACHEMISSTEXELCOUNT, gcmCOUNTER(tx_cache_miss_texel_count));
gcmWRITE_CONST(VPG_END);
gcmWRITE_CONST(VPG_PS);
gcmWRITE_COUNTER(VPC_PSINSTCOUNT, gcmCOUNTER(ps_inst_counter) - gcPLS.hal->profiler.prevPSInstCount);
gcmWRITE_COUNTER(VPC_PSBRANCHINSTCOUNT, gcmCOUNTER(pxl_branch_inst_counter) - gcPLS.hal->profiler.prevPSBranchInstCount);
gcmWRITE_COUNTER(VPC_PSTEXLDINSTCOUNT, gcmCOUNTER(pxl_texld_inst_counter) - gcPLS.hal->profiler.prevPSTexInstCount);
gcmWRITE_COUNTER(VPC_PSRENDEREDPIXCOUNT, gcmCOUNTER(rendered_pixel_counter) - gcPLS.hal->profiler.prevPSPixelCount);
gcmWRITE_CONST(VPG_END);
gcPLS.hal->profiler.prevPSInstCount = gcmCOUNTER(ps_inst_counter);
gcPLS.hal->profiler.prevPSBranchInstCount = gcmCOUNTER(pxl_branch_inst_counter);
gcPLS.hal->profiler.prevPSTexInstCount = gcmCOUNTER(pxl_texld_inst_counter);
gcPLS.hal->profiler.prevPSPixelCount = gcmCOUNTER(rendered_pixel_counter);
gcmWRITE_CONST(VPG_PE);
gcmWRITE_COUNTER(VPC_PEKILLEDBYCOLOR, gcmCOUNTER(pe_pixel_count_killed_by_color_pipe));
gcmWRITE_COUNTER(VPC_PEKILLEDBYDEPTH, gcmCOUNTER(pe_pixel_count_killed_by_depth_pipe));
gcmWRITE_COUNTER(VPC_PEDRAWNBYCOLOR, gcmCOUNTER(pe_pixel_count_drawn_by_color_pipe));
gcmWRITE_COUNTER(VPC_PEDRAWNBYDEPTH, gcmCOUNTER(pe_pixel_count_drawn_by_depth_pipe));
gcmWRITE_CONST(VPG_END);
gcmWRITE_CONST(VPG_MC);
gcmWRITE_COUNTER(VPC_MCREADREQ8BPIPE, gcmCOUNTER(mc_total_read_req_8B_from_pipeline));
gcmWRITE_COUNTER(VPC_MCREADREQ8BIP, gcmCOUNTER(mc_total_read_req_8B_from_IP));
gcmWRITE_COUNTER(VPC_MCWRITEREQ8BPIPE, gcmCOUNTER(mc_total_write_req_8B_from_pipeline));
gcmWRITE_CONST(VPG_END);
gcmWRITE_CONST(VPG_AXI);
gcmWRITE_COUNTER(VPC_AXIREADREQSTALLED, gcmCOUNTER(hi_axi_cycles_read_request_stalled));
gcmWRITE_COUNTER(VPC_AXIWRITEREQSTALLED, gcmCOUNTER(hi_axi_cycles_write_request_stalled));
gcmWRITE_COUNTER(VPC_AXIWRITEDATASTALLED, gcmCOUNTER(hi_axi_cycles_write_data_stalled));
gcmWRITE_CONST(VPG_END);
gcmWRITE_CONST(VPG_END);
#else
gcmWRITE_STRING("<HWCounters>\n");
gcmPRINT_XML("<read_64Byte value=\"%u\"/>\n",
gcmCOUNTER(gpuTotalRead64BytesPerFrame));
gcmPRINT_XML("<write_64Byte value=\"%u\"/>\n",
gcmCOUNTER(gpuTotalWrite64BytesPerFrame));
gcmPRINT_XML("<gpu_cycles value=\"%u\"/>\n",
gcmCOUNTER(gpuCyclesCounter));
gcmPRINT_XML("<pe_pixel_count_killed_by_color_pipe value=\"%u\"/>\n",
gcmCOUNTER(pe_pixel_count_killed_by_color_pipe));
gcmPRINT_XML("<pe_pixel_count_killed_by_depth_pipe value=\"%u\"/>\n",
gcmCOUNTER(pe_pixel_count_killed_by_depth_pipe));
gcmPRINT_XML("<pe_pixel_count_drawn_by_color_pipe value=\"%u\"/>\n",
gcmCOUNTER(pe_pixel_count_drawn_by_color_pipe));
gcmPRINT_XML("<pe_pixel_count_drawn_by_depth_pipe value=\"%u\"/>\n",
gcmCOUNTER(pe_pixel_count_drawn_by_depth_pipe));
gcmPRINT_XML("<ps_inst_counter value=\"%u\"/>\n",
gcmCOUNTER(ps_inst_counter));
gcmPRINT_XML("<rendered_pixel_counter value=\"%u\"/>\n",
gcmCOUNTER(rendered_pixel_counter));
gcmPRINT_XML("<vs_inst_counter value=\"%u\"/>\n",
gcmCOUNTER(vs_inst_counter));
gcmPRINT_XML("<rendered_vertice_counter value=\"%u\"/>\n",
gcmCOUNTER(rendered_vertice_counter));
gcmPRINT_XML("<vtx_branch_inst_counter value=\"%u\"/>\n",
gcmCOUNTER(vtx_branch_inst_counter));
gcmPRINT_XML("<vtx_texld_inst_counter value=\"%u\"/>\n",
gcmCOUNTER(vtx_texld_inst_counter));
gcmPRINT_XML("<pxl_branch_inst_counter value=\"%u\"/>\n",
gcmCOUNTER(pxl_branch_inst_counter));
gcmPRINT_XML("<pxl_texld_inst_counter value=\"%u\"/>\n",
gcmCOUNTER(pxl_texld_inst_counter));
gcmPRINT_XML("<pa_input_vtx_counter value=\"%u\"/>\n",
gcmCOUNTER(pa_input_vtx_counter));
gcmPRINT_XML("<pa_input_prim_counter value=\"%u\"/>\n",
gcmCOUNTER(pa_input_prim_counter));
gcmPRINT_XML("<pa_output_prim_counter value=\"%u\"/>\n",
gcmCOUNTER(pa_output_prim_counter));
gcmPRINT_XML("<pa_depth_clipped_counter value=\"%u\"/>\n",
gcmCOUNTER(pa_depth_clipped_counter));
gcmPRINT_XML("<pa_trivial_rejected_counter value=\"%u\"/>\n",
gcmCOUNTER(pa_trivial_rejected_counter));
gcmPRINT_XML("<pa_culled_counter value=\"%u\"/>\n",
gcmCOUNTER(pa_culled_counter));
gcmPRINT_XML("<se_culled_triangle_count value=\"%u\"/>\n",
gcmCOUNTER(se_culled_triangle_count));
gcmPRINT_XML("<se_culled_lines_count value=\"%u\"/>\n",
gcmCOUNTER(se_culled_lines_count));
gcmPRINT_XML("<ra_valid_pixel_count value=\"%u\"/>\n",
gcmCOUNTER(ra_valid_pixel_count));
gcmPRINT_XML("<ra_total_quad_count value=\"%u\"/>\n",
gcmCOUNTER(ra_total_quad_count));
gcmPRINT_XML("<ra_valid_quad_count_after_early_z value=\"%u\"/>\n",
gcmCOUNTER(ra_valid_quad_count_after_early_z));
gcmPRINT_XML("<ra_total_primitive_count value=\"%u\"/>\n",
gcmCOUNTER(ra_total_primitive_count));
gcmPRINT_XML("<ra_pipe_cache_miss_counter value=\"%u\"/>\n",
gcmCOUNTER(ra_pipe_cache_miss_counter));
gcmPRINT_XML("<ra_prefetch_cache_miss_counter value=\"%u\"/>\n",
gcmCOUNTER(ra_prefetch_cache_miss_counter));
gcmPRINT_XML("<ra_eez_culled_counter value=\"%u\"/>\n",
gcmCOUNTER(ra_eez_culled_counter));
gcmPRINT_XML("<tx_total_bilinear_requests value=\"%u\"/>\n",
gcmCOUNTER(tx_total_bilinear_requests));
gcmPRINT_XML("<tx_total_trilinear_requests value=\"%u\"/>\n",
gcmCOUNTER(tx_total_trilinear_requests));
gcmPRINT_XML("<tx_total_discarded_texture_requests value=\"%u\"/>\n",
gcmCOUNTER(tx_total_discarded_texture_requests));
gcmPRINT_XML("<tx_total_texture_requests value=\"%u\"/>\n",
gcmCOUNTER(tx_total_texture_requests));
gcmPRINT_XML("<tx_mem_read_count value=\"%u\"/>\n",
gcmCOUNTER(tx_mem_read_count));
gcmPRINT_XML("<tx_mem_read_in_8B_count value=\"%u\"/>\n",
gcmCOUNTER(tx_mem_read_in_8B_count));
gcmPRINT_XML("<tx_cache_miss_count value=\"%u\"/>\n",
gcmCOUNTER(tx_cache_miss_count));
gcmPRINT_XML("<tx_cache_hit_texel_count value=\"%u\"/>\n",
gcmCOUNTER(tx_cache_hit_texel_count));
gcmPRINT_XML("<tx_cache_miss_texel_count value=\"%u\"/>\n",
gcmCOUNTER(tx_cache_miss_texel_count));
gcmPRINT_XML("<mc_total_read_req_8B_from_pipeline value=\"%u\"/>\n",
gcmCOUNTER(mc_total_read_req_8B_from_pipeline));
gcmPRINT_XML("<mc_total_read_req_8B_from_IP value=\"%u\"/>\n",
gcmCOUNTER(mc_total_read_req_8B_from_IP));
gcmPRINT_XML("<mc_total_write_req_8B_from_pipeline value=\"%u\"/>\n",
gcmCOUNTER(mc_total_write_req_8B_from_pipeline));
gcmPRINT_XML("<hi_axi_cycles_read_request_stalled value=\"%u\"/>\n",
gcmCOUNTER(hi_axi_cycles_read_request_stalled));
gcmPRINT_XML("<hi_axi_cycles_write_request_stalled value=\"%u\"/>\n",
gcmCOUNTER(hi_axi_cycles_write_request_stalled));
gcmPRINT_XML("<hi_axi_cycles_write_data_stalled value=\"%u\"/>\n",
gcmCOUNTER(hi_axi_cycles_write_data_stalled));
gcmWRITE_STRING("</HWCounters>\n");
#endif
}
}
/*#endif*/
/* Success. */
gcmFOOTER_NO();
return gcvSTATUS_OK;
}
gceSTATUS
gckKERNEL_Construct(
IN gckOS Os,
IN gctPOINTER Context,
OUT gckKERNEL * Kernel
)
{
gckKERNEL kernel = gcvNULL;
gceSTATUS status;
gcmkHEADER_ARG("Os=0x%x Context=0x%x", Os, Context);
/* Verify the arguments. */
gcmkVERIFY_OBJECT(Os, gcvOBJ_OS);
gcmkVERIFY_ARGUMENT(Kernel != gcvNULL);
/* Allocate the gckKERNEL object. */
gcmkONERROR(
gckOS_Allocate(Os,
gcmSIZEOF(struct _gckKERNEL),
(gctPOINTER *) &kernel));
#if MRVL_LOW_POWER_MODE_DEBUG
gcmERR_RETURN(
gckOS_Allocate(Os, 0x1000000, (gctPOINTER *) &kernel->kernelMSG));
kernel->msgLen = 0;
#endif
/* Zero the object pointers. */
kernel->hardware = gcvNULL;
kernel->command = gcvNULL;
kernel->event = gcvNULL;
kernel->mmu = gcvNULL;
/* Initialize the gckKERNEL object. */
kernel->object.type = gcvOBJ_KERNEL;
kernel->os = Os;
/* Save context. */
kernel->context = Context;
/* Construct atom holding number of clients. */
kernel->atomClients = gcvNULL;
gcmkONERROR(gckOS_AtomConstruct(Os, &kernel->atomClients));
#if gcdSECURE_USER
kernel->cacheSlots = 0;
kernel->cacheTimeStamp = 0;
#endif
/* Construct the gckHARDWARE object. */
gcmkONERROR(
gckHARDWARE_Construct(Os, &kernel->hardware));
/* Set pointer to gckKERNEL object in gckHARDWARE object. */
kernel->hardware->kernel = kernel;
/* Initialize the hardware. */
gcmkONERROR(
gckHARDWARE_InitializeHardware(kernel->hardware));
/* Construct the gckCOMMAND object. */
gcmkONERROR(
gckCOMMAND_Construct(kernel, &kernel->command));
/* Construct the gckEVENT object. */
gcmkONERROR(
gckEVENT_Construct(kernel, &kernel->event));
/* Construct the gckMMU object. */
gcmkONERROR(
gckMMU_Construct(kernel, gcdMMU_SIZE, &kernel->mmu));
kernel->notifyIdle = gcvTRUE; /* gcvFALSE; */
#if VIVANTE_PROFILER
/* Initialize profile setting */
#if defined ANDROID
kernel->profileEnable = gcvFALSE;
#else
kernel->profileEnable = gcvTRUE;
#endif
gcmkVERIFY_OK(
gckOS_MemCopy(kernel->profileFileName,
DEFAULT_PROFILE_FILE_NAME,
gcmSIZEOF(DEFAULT_PROFILE_FILE_NAME) + 1));
#endif
/* Return pointer to the gckKERNEL object. */
*Kernel = kernel;
/* Success. */
gcmkFOOTER_ARG("*Kernel=0x%x", *Kernel);
return gcvSTATUS_OK;
OnError:
if (kernel != gcvNULL)
{
if (kernel->event != gcvNULL)
{
gcmkVERIFY_OK(gckEVENT_Destroy(kernel->event));
}
if (kernel->command != gcvNULL)
{
gcmkVERIFY_OK(gckCOMMAND_Destroy(kernel->command));
}
if (kernel->hardware != gcvNULL)
{
gcmkVERIFY_OK(gckHARDWARE_Destroy(kernel->hardware));
}
if (kernel->atomClients != gcvNULL)
{
gcmkVERIFY_OK(gckOS_AtomDestroy(Os, kernel->atomClients));
}
kernel->version = _GC_VERSION_STRING_;
#if MRVL_LOW_POWER_MODE_DEBUG
gcmkVERIFY_OK(
gckOS_Free(Os, kernel->kernelMSG));
#endif
gcmkVERIFY_OK(gckOS_Free(Os, kernel));
}
/* Return the error. */
gcmkFOOTER();
return status;
}
/*******************************************************************************
**
** gckHEAP_Allocate
**
** Allocate data from the heap.
**
** INPUT:
**
** gckHEAP Heap
** Pointer to a gckHEAP object.
**
** IN gctSIZE_T Bytes
** Number of byte to allocate.
**
** OUTPUT:
**
** gctPOINTER * Memory
** Pointer to a variable that will hold the address of the allocated
** memory.
*/
gceSTATUS
gckHEAP_Allocate(
IN gckHEAP Heap,
IN gctSIZE_T Bytes,
OUT gctPOINTER * Memory
)
{
gctBOOL acquired = gcvFALSE;
gcskHEAP_PTR heap;
gceSTATUS status;
gctSIZE_T bytes;
gcskNODE_PTR node, used, prevFree = gcvNULL;
gctPOINTER memory = gcvNULL;
gcmkHEADER_ARG("Heap=0x%x Bytes=%lu", Heap, Bytes);
/* Verify the arguments. */
gcmkVERIFY_OBJECT(Heap, gcvOBJ_HEAP);
gcmkVERIFY_ARGUMENT(Bytes > 0);
gcmkVERIFY_ARGUMENT(Memory != gcvNULL);
/* Determine number of bytes required for a node. */
bytes = gcmALIGN(Bytes + gcmSIZEOF(gcskNODE), 8);
/* Acquire the mutex. */
gcmkONERROR(
gckOS_AcquireMutex(Heap->os, Heap->mutex, gcvINFINITE));
acquired = gcvTRUE;
/* Check if this allocation is bigger than the default allocation size. */
if (bytes > Heap->allocationSize - gcmSIZEOF(gcskHEAP) - gcmSIZEOF(gcskNODE))
{
/* Adjust allocation size. */
Heap->allocationSize = bytes * 2;
}
else if (Heap->heap != gcvNULL)
{
gctINT i;
/* 2 retries, since we might need to compact. */
for (i = 0; i < 2; ++i)
{
/* Walk all the heaps. */
for (heap = Heap->heap; heap != gcvNULL; heap = heap->next)
{
/* Check if this heap has enough bytes to hold the request. */
if (bytes <= heap->size - gcmSIZEOF(gcskNODE))
{
prevFree = gcvNULL;
/* Walk the chain of free nodes. */
for (node = heap->freeList;
node != gcvNULL;
node = node->next
)
{
gcmkASSERT(node->next != gcdIN_USE);
/* Check if this free node has enough bytes. */
if (node->bytes >= bytes)
{
/* Use the node. */
goto UseNode;
}
/* Save current free node for linked list management. */
prevFree = node;
}
}
}
if (i == 0)
{
/* Compact the heap. */
gcmkVERIFY_OK(_CompactKernelHeap(Heap));
#if gcmIS_DEBUG(gcdDEBUG_CODE)
gcmkTRACE_ZONE(gcvLEVEL_VERBOSE, gcvZONE_HEAP,
"===== KERNEL HEAP =====");
gcmkTRACE_ZONE(gcvLEVEL_VERBOSE, gcvZONE_HEAP,
"Number of allocations : %12u",
Heap->allocCount);
gcmkTRACE_ZONE(gcvLEVEL_VERBOSE, gcvZONE_HEAP,
"Number of bytes allocated : %12llu",
Heap->allocBytes);
gcmkTRACE_ZONE(gcvLEVEL_VERBOSE, gcvZONE_HEAP,
"Maximum allocation size : %12llu",
Heap->allocBytesMax);
gcmkTRACE_ZONE(gcvLEVEL_VERBOSE, gcvZONE_HEAP,
"Total number of bytes allocated : %12llu",
Heap->allocBytesTotal);
gcmkTRACE_ZONE(gcvLEVEL_VERBOSE, gcvZONE_HEAP,
"Number of heaps : %12u",
Heap->heapCount);
gcmkTRACE_ZONE(gcvLEVEL_VERBOSE, gcvZONE_HEAP,
"Heap memory in bytes : %12llu",
Heap->heapMemory);
gcmkTRACE_ZONE(gcvLEVEL_VERBOSE, gcvZONE_HEAP,
"Maximum number of heaps : %12u",
Heap->heapCountMax);
gcmkTRACE_ZONE(gcvLEVEL_VERBOSE, gcvZONE_HEAP,
"Maximum heap memory in bytes : %12llu",
Heap->heapMemoryMax);
#endif
}
}
}
/* Release the mutex. */
gcmkONERROR(
gckOS_ReleaseMutex(Heap->os, Heap->mutex));
acquired = gcvFALSE;
/* Allocate a new heap. */
gcmkONERROR(
gckOS_AllocateMemory(Heap->os,
Heap->allocationSize,
&memory));
gcmkTRACE_ZONE(gcvLEVEL_INFO, gcvZONE_HEAP,
"Allocated heap 0x%x (%lu bytes)",
memory, Heap->allocationSize);
/* Acquire the mutex. */
gcmkONERROR(
gckOS_AcquireMutex(Heap->os, Heap->mutex, gcvINFINITE));
acquired = gcvTRUE;
/* Use the allocated memory as the heap. */
heap = (gcskHEAP_PTR) memory;
/* Insert this heap to the head of the chain. */
heap->next = Heap->heap;
heap->prev = gcvNULL;
heap->size = Heap->allocationSize - gcmSIZEOF(gcskHEAP);
if (heap->next != gcvNULL)
{
heap->next->prev = heap;
}
Heap->heap = heap;
/* Mark the end of the heap. */
node = (gcskNODE_PTR) ( (gctUINT8_PTR) heap
+ Heap->allocationSize
- gcmSIZEOF(gcskNODE)
);
node->bytes = 0;
node->next = gcvNULL;
/* Create a free list. */
node = (gcskNODE_PTR) (heap + 1);
heap->freeList = node;
/* Initialize the free list. */
node->bytes = heap->size - gcmSIZEOF(gcskNODE);
node->next = gcvNULL;
/* No previous free. */
prevFree = gcvNULL;
#if VIVANTE_PROFILER || gcmIS_DEBUG(gcdDEBUG_CODE)
/* Update profiling. */
Heap->heapCount += 1;
Heap->heapMemory += Heap->allocationSize;
if (Heap->heapCount > Heap->heapCountMax)
{
Heap->heapCountMax = Heap->heapCount;
}
if (Heap->heapMemory > Heap->heapMemoryMax)
{
Heap->heapMemoryMax = Heap->heapMemory;
}
#endif
UseNode:
/* Verify some stuff. */
gcmkASSERT(heap != gcvNULL);
gcmkASSERT(node != gcvNULL);
gcmkASSERT(node->bytes >= bytes);
if (heap->prev != gcvNULL)
{
/* Unlink the heap from the linked list. */
heap->prev->next = heap->next;
if (heap->next != gcvNULL)
{
heap->next->prev = heap->prev;
}
/* Move the heap to the front of the list. */
heap->next = Heap->heap;
heap->prev = gcvNULL;
Heap->heap = heap;
heap->next->prev = heap;
}
/* Check if there is enough free space left after usage for another free
** node. */
if (node->bytes - bytes >= gcmSIZEOF(gcskNODE))
{
/* Allocated used space from the back of the free list. */
used = (gcskNODE_PTR) ((gctUINT8_PTR) node + node->bytes - bytes);
/* Adjust the number of free bytes. */
node->bytes -= bytes;
gcmkASSERT(node->bytes >= gcmSIZEOF(gcskNODE));
}
else
{
/* Remove this free list from the chain. */
if (prevFree == gcvNULL)
{
heap->freeList = node->next;
}
else
{
prevFree->next = node->next;
}
/* Consume the entire free node. */
used = (gcskNODE_PTR) node;
bytes = node->bytes;
}
/* Mark node as used. */
used->bytes = bytes;
used->next = gcdIN_USE;
#if gcmIS_DEBUG(gcdDEBUG_CODE)
used->timeStamp = ++Heap->timeStamp;
#endif
#if VIVANTE_PROFILER || gcmIS_DEBUG(gcdDEBUG_CODE)
/* Update profile counters. */
Heap->allocCount += 1;
Heap->allocBytes += bytes;
Heap->allocBytesMax = gcmMAX(Heap->allocBytes, Heap->allocBytesMax);
Heap->allocBytesTotal += bytes;
#endif
/* Release the mutex. */
gcmkVERIFY_OK(
gckOS_ReleaseMutex(Heap->os, Heap->mutex));
/* Return pointer to memory. */
*Memory = used + 1;
/* Success. */
gcmkFOOTER_ARG("*Memory=0x%x", *Memory);
return gcvSTATUS_OK;
OnError:
if (acquired)
{
/* Release the mutex. */
gcmkVERIFY_OK(
gckOS_ReleaseMutex(Heap->os, Heap->mutex));
}
if (memory != gcvNULL)
{
/* Free the heap memory. */
gckOS_FreeMemory(Heap->os, memory);
}
/* Return the status. */
gcmkFOOTER();
return status;
}
/*******************************************************************************
** gckKERNEL_QueryProcessDB
**
** Query a process database for the current usage of a particular record type.
**
** INPUT:
**
** gckKERNEL Kernel
** Pointer to a gckKERNEL object.
**
** gctUINT32 ProcessID
** Process ID used to identify the database.
**
** gctBOOL LastProcessID
** gcvTRUE if searching for the last known process ID. gcvFALSE if
** we need to search for the process ID specified by the ProcessID
** argument.
**
** gceDATABASE_TYPE Type
** Type of the record to query.
**
** OUTPUT:
**
** gcuDATABASE_INFO * Info
** Pointer to a variable that receives the requested information.
*/
gceSTATUS
gckKERNEL_QueryProcessDB(
IN gckKERNEL Kernel,
IN gctUINT32 ProcessID,
IN gctBOOL LastProcessID,
IN gceDATABASE_TYPE Type,
OUT gcuDATABASE_INFO * Info
)
{
gceSTATUS status;
gcsDATABASE_PTR database;
gcmkHEADER_ARG("Kernel=0x%x ProcessID=%d Type=%d Info=0x%x",
Kernel, ProcessID, Type, Info);
/* Verify the arguments. */
gcmkVERIFY_OBJECT(Kernel, gcvOBJ_KERNEL);
gcmkVERIFY_ARGUMENT(Info != gcvNULL);
/* Find the database. */
gcmkONERROR(
gckKERNEL_FindDatabase(Kernel, ProcessID, LastProcessID, &database));
/* Get pointer to counters. */
switch (Type)
{
case gcvDB_VIDEO_MEMORY:
gckOS_MemCopy(&Info->counters,
&database->vidMem,
gcmSIZEOF(database->vidMem));
break;
case gcvDB_NON_PAGED:
gckOS_MemCopy(&Info->counters,
&database->nonPaged,
gcmSIZEOF(database->vidMem));
break;
case gcvDB_CONTIGUOUS:
gckOS_MemCopy(&Info->counters,
&database->contiguous,
gcmSIZEOF(database->vidMem));
break;
case gcvDB_IDLE:
Info->time = Kernel->db->idleTime;
Kernel->db->idleTime = 0;
break;
case gcvDB_MAP_MEMORY:
gckOS_MemCopy(&Info->counters,
&database->mapMemory,
gcmSIZEOF(database->mapMemory));
break;
case gcvDB_MAP_USER_MEMORY:
gckOS_MemCopy(&Info->counters,
&database->mapUserMemory,
gcmSIZEOF(database->mapUserMemory));
break;
default:
break;
}
/* Success. */
gcmkFOOTER_NO();
return gcvSTATUS_OK;
OnError:
/* Return the status. */
gcmkFOOTER();
return status;
}
