static bool performanceTest()
{
static const int kTableMax = 100;
IndirectRefTable irt;
IndirectRef manyRefs[kTableMax];
ClassObject* clazz = dvmFindClass("Ljava/lang/Object;", NULL);
Object* obj0 = dvmAllocObject(clazz, ALLOC_DONT_TRACK);
const u4 cookie = IRT_FIRST_SEGMENT;
const int kLoops = 100000;
Stopwatch stopwatch;
DBUG_MSG("+++ START performance\n");
if (!irt.init(kTableMax, kTableMax, kIndirectKindGlobal)) {
return false;
}
stopwatch.reset();
for (int loop = 0; loop < kLoops; loop++) {
for (int i = 0; i < kTableMax; i++) {
manyRefs[i] = irt.add(cookie, obj0);
}
for (int i = 0; i < kTableMax; i++) {
irt.remove(cookie, manyRefs[i]);
}
}
DBUG_MSG("Add/remove %d objects FIFO order, %d iterations, %0.3fms / iteration",
kTableMax, kLoops, stopwatch.elapsedSeconds() * 1000 / kLoops);
stopwatch.reset();
for (int loop = 0; loop < kLoops; loop++) {
for (int i = 0; i < kTableMax; i++) {
manyRefs[i] = irt.add(cookie, obj0);
}
for (int i = kTableMax; i-- > 0; ) {
irt.remove(cookie, manyRefs[i]);
}
}
DBUG_MSG("Add/remove %d objects LIFO order, %d iterations, %0.3fms / iteration",
kTableMax, kLoops, stopwatch.elapsedSeconds() * 1000 / kLoops);
for (int i = 0; i < kTableMax; i++) {
manyRefs[i] = irt.add(cookie, obj0);
}
stopwatch.reset();
for (int loop = 0; loop < kLoops; loop++) {
for (int i = 0; i < kTableMax; i++) {
irt.get(manyRefs[i]);
}
}
DBUG_MSG("Get %d objects, %d iterations, %0.3fms / iteration",
kTableMax, kLoops, stopwatch.elapsedSeconds() * 1000 / kLoops);
for (int i = kTableMax; i-- > 0; ) {
irt.remove(cookie, manyRefs[i]);
}
irt.destroy();
return true;
}
void _get_page_map_tbl_info(__u32 nlogical,__u8 *InOrder, __u16 *nValidPage)
{
__u16 LastUsedPage,PhysicPage;
__u32 i;
struct __LogBlkType_t LogBlk;
*InOrder = 1;
*nValidPage = 0;
BMM_GetLogBlk(nlogical, &LogBlk);
LastUsedPage = LogBlk.LastUsedPage;
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LogBlk.LogBlkType == LSB_TYPE))
{
DBUG_MSG("[DBUG_MSG] _get_page_map_tbl_info, select bak log block\n");
*InOrder = 0;
}
for (i = 0; i < PAGE_CNT_OF_SUPER_BLK; i++)
{
PhysicPage = PMM_GetCurMapPage(i);
if (PhysicPage != 0xffff){
*nValidPage = *nValidPage + 1;
if (PhysicPage != i)
*InOrder = 0;
}
}
if (*nValidPage < LastUsedPage + 1)
*InOrder = 0;
}
/*
************************************************************************************************************************
* GET FREE BLOCK FROM FREE BLOCK TABLE
*
*Description: Get a free block from the free block table with highest erase counter or lowest
* erase counter.
*
*Arguments : nType the type of the free block which need be got;
* pFreeBlk the pointer to the free block pointer for return.
*
*Return : get free block result;
* = 0 get free block successful;
* =-1 get free block failed.
************************************************************************************************************************
*/
__s32 BMM_GetFreeBlk(__u32 nType, struct __SuperPhyBlkType_t *pFreeBlk)
{
__s32 i, tmpFreePst = -1;
__u16 tmpItem = LAST_FREE_BLK_PST + 1;
__u32 tmpEraseCnt;
if(nType == LOWEST_EC_TYPE)
{
//need look for the free block with the lowest erase count
tmpEraseCnt = 0xffff;
}
else
{
//need look for the free block with the highest erase count
tmpEraseCnt = 0x0000;
}
for(i=0; i<FREE_BLK_CNT_OF_ZONE; i++, tmpItem++)
{
if(tmpItem >= FREE_BLK_CNT_OF_ZONE)
{
tmpItem = 0;
}
if(FREE_BLK_TBL[tmpItem].PhyBlkNum != 0xffff)
{
//current free block item is valid
if(((nType == LOWEST_EC_TYPE) && (FREE_BLK_TBL[tmpItem].BlkEraseCnt <= tmpEraseCnt))
|| ((nType != LOWEST_EC_TYPE) && (FREE_BLK_TBL[tmpItem].BlkEraseCnt >= tmpEraseCnt)))
{
tmpEraseCnt = FREE_BLK_TBL[tmpItem].BlkEraseCnt;
tmpFreePst = tmpItem;
}
}
}
if(tmpFreePst < 0)
{
MAPPING_ERR("[MAPPING_ERR] There is none free block in the free block table!\n");
pFreeBlk->PhyBlkNum = 0xffff;
pFreeBlk->BlkEraseCnt = 0xffff;
return -1;
}
pFreeBlk->PhyBlkNum = FREE_BLK_TBL[tmpFreePst].PhyBlkNum;
pFreeBlk->BlkEraseCnt = FREE_BLK_TBL[tmpFreePst].BlkEraseCnt;
LAST_FREE_BLK_PST = tmpFreePst;
//delete the free block item from the free block table
FREE_BLK_TBL[tmpFreePst].PhyBlkNum = 0xffff;
FREE_BLK_TBL[tmpFreePst].BlkEraseCnt = 0xffff;
DBUG_MSG("[DBUG] BMM_GetFreeBlk, pos: %x\n", LAST_FREE_BLK_PST);
return 0;
}
/*
************************************************************************************************************************
* SET FREE BLOCK TO FREE BLOCK TABLE
*
*Description: Fill a free block to the free block table.
*
*Arguments : pFreeBlk the pointer to the free block which need be fill free block table.
*
*Return : set free block result;
* = 0 set free block successful;
* =-1 set free block failed.
************************************************************************************************************************
*/
__s32 BMM_SetFreeBlk(struct __SuperPhyBlkType_t *pFreeBlk)
{
__s32 i;
for(i=0; i<FREE_BLK_CNT_OF_ZONE; i++)
{
//look for a empty free block item in the free block table to fill the free block
if(FREE_BLK_TBL[i].PhyBlkNum == 0xffff)
{
FREE_BLK_TBL[i].PhyBlkNum = pFreeBlk->PhyBlkNum;
FREE_BLK_TBL[i].BlkEraseCnt = pFreeBlk->BlkEraseCnt;
DBUG_MSG("[DBUG] BMM_SetFreeBlk, pos: %x\n", i);
return 0;
}
}
return -1;
}
__u32 PMM_CalNextLogPage(__u32 current_page)
{
__u32 next_page = 0xffff;
__u32 page_index = current_page;
if(SUPPORT_LOG_BLOCK_MANAGE)
{
//DBUG_MSG("[DBUG_MSG] PMM_CalNextLogPage, select bak log block\n");
if(current_page == 0xffff)
next_page = 0;
else
{
while(page_index <PAGE_CNT_OF_LOGIC_BLK)
{
if(lsb_page[page_index] == 1)
{
next_page = page_index;
break;
}
else
{
page_index++;
}
}
if(page_index == PAGE_CNT_OF_LOGIC_BLK)
next_page = PAGE_CNT_OF_LOGIC_BLK;
if((page_index<PAGE_CNT_OF_LOGIC_BLK)&&(lsb_page[page_index]!= 1))
PRINT("PMM_CalNextLogPage error, current: %x, next: %x\n", current_page, next_page);
}
}
else
next_page = current_page;
DBUG_MSG("[DBUG] PMM_CalNextLogPage, current: %x, next: %x\n", current_page, next_page);
return next_page;
}
/*
* Basic add/get/delete tests in an unsegmented table.
*/
static bool basicTest()
{
static const int kTableMax = 20;
IndirectRefTable irt;
IndirectRef iref0, iref1, iref2, iref3;
IndirectRef manyRefs[kTableMax];
ClassObject* clazz = dvmFindClass("Ljava/lang/Object;", NULL);
Object* obj0 = dvmAllocObject(clazz, ALLOC_DONT_TRACK);
Object* obj1 = dvmAllocObject(clazz, ALLOC_DONT_TRACK);
Object* obj2 = dvmAllocObject(clazz, ALLOC_DONT_TRACK);
Object* obj3 = dvmAllocObject(clazz, ALLOC_DONT_TRACK);
const u4 cookie = IRT_FIRST_SEGMENT;
bool result = false;
if (!irt.init(kTableMax/2, kTableMax, kIndirectKindGlobal)) {
return false;
}
iref0 = (IndirectRef) 0x11110;
if (irt.remove(cookie, iref0)) {
ALOGE("unexpectedly successful removal");
goto bail;
}
/*
* Add three, check, remove in the order in which they were added.
*/
DBUG_MSG("+++ START fifo\n");
iref0 = irt.add(cookie, obj0);
iref1 = irt.add(cookie, obj1);
iref2 = irt.add(cookie, obj2);
if (iref0 == NULL || iref1 == NULL || iref2 == NULL) {
ALOGE("trivial add1 failed");
goto bail;
}
if (irt.get(iref0) != obj0 ||
irt.get(iref1) != obj1 ||
irt.get(iref2) != obj2) {
ALOGE("objects don't match expected values %p %p %p vs. %p %p %p",
irt.get(iref0), irt.get(iref1), irt.get(iref2),
obj0, obj1, obj2);
goto bail;
} else {
DBUG_MSG("+++ obj1=%p --> iref1=%p\n", obj1, iref1);
}
if (!irt.remove(cookie, iref0) ||
!irt.remove(cookie, iref1) ||
!irt.remove(cookie, iref2))
{
ALOGE("fifo deletion failed");
goto bail;
}
/* table should be empty now */
if (irt.capacity() != 0) {
ALOGE("fifo del not empty");
goto bail;
}
/* get invalid entry (off the end of the list) */
if (irt.get(iref0) != kInvalidIndirectRefObject) {
ALOGE("stale entry get succeeded unexpectedly");
goto bail;
}
/*
* Add three, remove in the opposite order.
*/
DBUG_MSG("+++ START lifo\n");
iref0 = irt.add(cookie, obj0);
iref1 = irt.add(cookie, obj1);
iref2 = irt.add(cookie, obj2);
if (iref0 == NULL || iref1 == NULL || iref2 == NULL) {
ALOGE("trivial add2 failed");
goto bail;
}
if (!irt.remove(cookie, iref2) ||
!irt.remove(cookie, iref1) ||
!irt.remove(cookie, iref0))
{
ALOGE("lifo deletion failed");
goto bail;
}
/* table should be empty now */
if (irt.capacity() != 0) {
ALOGE("lifo del not empty");
goto bail;
}
/*
* Add three, remove middle / middle / bottom / top. (Second attempt
* to remove middle should fail.)
*/
DBUG_MSG("+++ START unorder\n");
iref0 = irt.add(cookie, obj0);
iref1 = irt.add(cookie, obj1);
iref2 = irt.add(cookie, obj2);
if (iref0 == NULL || iref1 == NULL || iref2 == NULL) {
ALOGE("trivial add3 failed");
goto bail;
}
if (irt.capacity() != 3) {
ALOGE("expected 3 entries, found %d", irt.capacity());
goto bail;
}
if (!irt.remove(cookie, iref1) || irt.remove(cookie, iref1)) {
ALOGE("unorder deletion1 failed");
goto bail;
}
/* get invalid entry (from hole) */
if (irt.get(iref1) != kInvalidIndirectRefObject) {
ALOGE("hole get succeeded unexpectedly");
goto bail;
}
if (!irt.remove(cookie, iref2) || !irt.remove(cookie, iref0)) {
ALOGE("unorder deletion2 failed");
goto bail;
}
/* table should be empty now */
if (irt.capacity() != 0) {
ALOGE("unorder del not empty");
goto bail;
}
/*
* Add four entries. Remove #1, add new entry, verify that table size
* is still 4 (i.e. holes are getting filled). Remove #1 and #3, verify
* that we delete one and don't hole-compact the other.
*/
DBUG_MSG("+++ START hole fill\n");
iref0 = irt.add(cookie, obj0);
iref1 = irt.add(cookie, obj1);
iref2 = irt.add(cookie, obj2);
iref3 = irt.add(cookie, obj3);
if (iref0 == NULL || iref1 == NULL || iref2 == NULL || iref3 == NULL) {
ALOGE("trivial add4 failed");
goto bail;
}
if (!irt.remove(cookie, iref1)) {
ALOGE("remove 1 of 4 failed");
goto bail;
}
iref1 = irt.add(cookie, obj1);
if (irt.capacity() != 4) {
ALOGE("hole not filled");
goto bail;
}
if (!irt.remove(cookie, iref1) || !irt.remove(cookie, iref3)) {
ALOGE("remove 1/3 failed");
goto bail;
}
if (irt.capacity() != 3) {
ALOGE("should be 3 after two deletions");
goto bail;
}
if (!irt.remove(cookie, iref2) || !irt.remove(cookie, iref0)) {
ALOGE("remove 2/0 failed");
goto bail;
}
if (irt.capacity() != 0) {
ALOGE("not empty after split remove");
goto bail;
}
/*
* Add an entry, remove it, add a new entry, and try to use the original
* iref. They have the same slot number but are for different objects.
* With the extended checks in place, this should fail.
*/
DBUG_MSG("+++ START switched\n");
iref0 = irt.add(cookie, obj0);
irt.remove(cookie, iref0);
iref1 = irt.add(cookie, obj1);
if (irt.remove(cookie, iref0)) {
ALOGE("mismatched del succeeded (%p vs %p)", iref0, iref1);
goto bail;
}
if (!irt.remove(cookie, iref1)) {
ALOGE("switched del failed");
goto bail;
}
if (irt.capacity() != 0) {
ALOGE("switching del not empty");
goto bail;
}
/*
* Same as above, but with the same object. A more rigorous checker
* (e.g. with slot serialization) will catch this.
*/
DBUG_MSG("+++ START switched same object\n");
iref0 = irt.add(cookie, obj0);
irt.remove(cookie, iref0);
iref1 = irt.add(cookie, obj0);
if (iref0 != iref1) {
/* try 0, should not work */
if (irt.remove(cookie, iref0)) {
ALOGE("temporal del succeeded (%p vs %p)", iref0, iref1);
goto bail;
}
}
if (!irt.remove(cookie, iref1)) {
ALOGE("temporal cleanup failed");
goto bail;
}
if (irt.capacity() != 0) {
ALOGE("temporal del not empty");
goto bail;
}
DBUG_MSG("+++ START null lookup\n");
if (irt.get(NULL) != kInvalidIndirectRefObject) {
ALOGE("null lookup succeeded");
goto bail;
}
DBUG_MSG("+++ START stale lookup\n");
iref0 = irt.add(cookie, obj0);
irt.remove(cookie, iref0);
if (irt.get(iref0) != kInvalidIndirectRefObject) {
ALOGE("stale lookup succeeded");
goto bail;
}
/*
* Test table overflow.
*/
DBUG_MSG("+++ START overflow\n");
int i;
for (i = 0; i < kTableMax; i++) {
manyRefs[i] = irt.add(cookie, obj0);
if (manyRefs[i] == NULL) {
ALOGE("Failed adding %d of %d", i, kTableMax);
goto bail;
}
}
if (irt.add(cookie, obj0) != NULL) {
ALOGE("Table overflow succeeded");
goto bail;
}
if (irt.capacity() != (size_t)kTableMax) {
ALOGE("Expected %d entries, found %d", kTableMax, irt.capacity());
goto bail;
}
irt.dump("table with 20 entries, all filled");
for (i = 0; i < kTableMax-1; i++) {
if (!irt.remove(cookie, manyRefs[i])) {
ALOGE("multi-remove failed at %d", i);
goto bail;
}
}
irt.dump("table with 20 entries, 19 of them holes");
/* because of removal order, should have 20 entries, 19 of them holes */
if (irt.capacity() != (size_t)kTableMax) {
ALOGE("Expected %d entries (with holes), found %d",
kTableMax, irt.capacity());
goto bail;
}
if (!irt.remove(cookie, manyRefs[kTableMax-1])) {
ALOGE("multi-remove final failed");
goto bail;
}
if (irt.capacity() != 0) {
ALOGE("multi-del not empty");
goto bail;
}
/* Done */
DBUG_MSG("+++ basic test complete\n");
result = true;
bail:
irt.destroy();
return result;
}
/*
************************************************************************************************************************
* GET LOG PAGE PARAMETER
*
*Description: Get a page from log block for read or write.
*
*Arguments : nBlk the logical block number of the log block;
* nPage the number of the logical page, which page need log page;
* nMode the type of get log page, 'r' or 'w', others is invalid.
*
*Return : the number of the log page;
* != 0xffff get log page successful, return page number;
* = 0xffff get log page failed.
*
*Note : Scan the log block table to try to get the log block.
* when the get type is 'r', if the log block is exsit and the logical
* page contain a log page, return the number of the log page, else,
* return 0xffff;
* when the get type is 'w', if the log block is not exsit, need create
* log block, then, if get log page failed, need merge the log block, and
* try to get log page again, this mode should return a value page number
* except there is no enough valid blocks.
************************************************************************************************************************
*/
__u32 PMM_GetLogPage(__u32 nBlk, __u32 nPage, __u8 nMode)
{
__s32 result, tmpLogPst;
__u16 tmpPage, PhyPageNum;
if(nMode == 'r')
{
tmpLogPst = _GetLogBlkPst(nBlk);
if(tmpLogPst < 0)
{
//get log page by read mode, there is no log block, return invalid value
return INVALID_PAGE_NUM;
}
//need swap the page mapping table to ram which is accessing currently
result = PMM_SwitchMapTbl(tmpLogPst);
if(result < 0)
{
MAPPING_ERR("[MAPPING_ERR] Switch page mapping table failed when get log page! Err:0x%x\n", result);
return INVALID_PAGE_NUM;
}
_CalLogAccessCnt(tmpLogPst);
//get active read log block index
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[tmpLogPst].LogBlkType == LSB_TYPE))
{
PhyPageNum = PAGE_MAP_TBL[nPage].PhyPageNum;
if((PhyPageNum&(0x1<<15))&&(PhyPageNum!= 0xffff))
{
LOG_BLK_TBL[tmpLogPst].ReadBlkIndex = 1;
PhyPageNum &= 0x7fff;
}
else
LOG_BLK_TBL[tmpLogPst].ReadBlkIndex = 0;
return (PhyPageNum|LOG_BLK_TBL[tmpLogPst].ReadBlkIndex<<16);
}
else
{
LOG_BLK_TBL[tmpLogPst].ReadBlkIndex = 0;
return PAGE_MAP_TBL[nPage].PhyPageNum;
}
}
result = _GetLogPageForWrite(nBlk, nPage, &tmpPage, (__u32 *)&tmpLogPst);
if(result < 0)
{
//get log page for write failed
MAPPING_ERR("[MAPPING_ERR] Get log page for write failed!\n");
return INVALID_PAGE_NUM;
}
//check if the log page is valid
if(!(tmpPage < PAGE_CNT_OF_SUPER_BLK))
{
//the log page is not invalid, need to merge the log block, and get again
result = LML_MergeLogBlk(SPECIAL_MERGE_MODE, nBlk);
if(result < 0)
{
//merge log block failed, report error
MAPPING_ERR("[MAPPING_ERR] Merge log block failed when get log page! Err:0x%x\n", result);
return INVALID_PAGE_NUM;
}
//try to get log page for write again
result = _GetLogPageForWrite(nBlk, nPage, &tmpPage, (__u32 *)&tmpLogPst);
if(result < 0)
{
//get log page for write failed
MAPPING_ERR("[MAPPING_ERR] Get log page for write failed!\n");
return INVALID_PAGE_NUM;
}
}
//check if the log page is valid
if(!(tmpPage < PAGE_CNT_OF_SUPER_BLK))
{
//get log page for write failed
MAPPING_ERR("[MAPPING_ERR] Get log page for write failed!\n");
return INVALID_PAGE_NUM;
}
else
{
LOG_BLK_TBL[tmpLogPst].LastUsedPage = tmpPage;
}
//update the page mapping table item
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[tmpLogPst].LogBlkType == LSB_TYPE))
{
DBUG_MSG("[DBUG_MSG] PMM_GetLogPage 2, select bak log block\n");
PAGE_MAP_TBL[nPage].PhyPageNum = tmpPage|((LOG_BLK_TBL[tmpLogPst].WriteBlkIndex&0x1)<<15);
}
else
PAGE_MAP_TBL[nPage].PhyPageNum = tmpPage;
//set the flag that mark need update the page mapping table
PAGE_MAP_CACHE->DirtyFlag = 1;
_CalLogAccessCnt(tmpLogPst);
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[tmpLogPst].LogBlkType == LSB_TYPE))
return (tmpPage|LOG_BLK_TBL[tmpLogPst].WriteBlkIndex<<16);
else
return tmpPage;
}
/*
************************************************************************************************************************
* GET LOG PAGE FOR WRITE
*
*Description: Get a log page for write.
*
*Arguments : nBlk the logical block number of the log block;
* nPage the number of the logical page, which page need log page;
* pLogPage the pointer to the log page number, for return value;
* pLogPst the pointer to the position of the log block in the log block table.
*
*Return : get log page result.
* = 0 get log page for write successful;
* =-1 get log page for write failed.
************************************************************************************************************************
*/
static __s32 _GetLogPageForWrite(__u32 nBlk, __u32 nPage, __u16 *pLogPage, __u32 *pLogPst)
{
__s32 result, tmpLogPst;
__u16 tmpPage, tempBank;
struct __PhysicOpPara_t tmpPhyPage;
struct __NandUserData_t tmpSpare[2];
tmpLogPst = _GetLogBlkPst(nBlk);
if(tmpLogPst < 0)
{
//get log block position failed, there is no such log block, need create a new one
result = _CreateNewLogBlk(nBlk, (__u32 *)&tmpLogPst);
if(result < 0)
{
MAPPING_ERR("[MAPPING_ERR] Create new log block failed!\n");
return -1;
}
}
//need swap the page mapping table to ram which is accessing currently
result = PMM_SwitchMapTbl(tmpLogPst);
if(result < 0)
{
MAPPING_ERR("[MAPPING_ERR] Switch page mapping table failed when get log page! Err:0x%x\n", result);
return -1;
}
//need get log page by write mode,
tmpPage = LOG_BLK_TBL[tmpLogPst].LastUsedPage;
if(SUPPORT_ALIGN_NAND_BNK)
{
if(tmpPage == 0xffff)
{
//the log block is empty, need get log page in the first page line
tmpPage = nPage % INTERLEAVE_BANK_CNT;
}
else
{
//need bank align, the log page and the data page should be in the same bank
if((nPage % INTERLEAVE_BANK_CNT) > (tmpPage % INTERLEAVE_BANK_CNT))
{
//get the log page in the same page line with last used page
tmpPage = tmpPage + ((nPage % INTERLEAVE_BANK_CNT) - (tmpPage % INTERLEAVE_BANK_CNT));
}
else
{
//need get the log page in the next page line of the last used page
tmpPage = tmpPage + (nPage % INTERLEAVE_BANK_CNT) + (INTERLEAVE_BANK_CNT - (tmpPage % INTERLEAVE_BANK_CNT));
}
}
}
else
{
//use the page which is the next of the last used page
tmpPage = tmpPage + 1;
}
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[tmpLogPst].LogBlkType == LSB_TYPE))
{
DBUG_MSG("[DBUG_MSG] _GetLogPageForWrite, select bak log block\n");
if(SUPPORT_ALIGN_NAND_BNK)
{
tempBank = tmpPage%INTERLEAVE_BANK_CNT;
tmpPage =PMM_CalNextLogPage(tmpPage);
while(tmpPage%INTERLEAVE_BANK_CNT != tempBank)
{
tmpPage++;
tmpPage =PMM_CalNextLogPage(tmpPage);
if(tmpPage>=PAGE_CNT_OF_SUPER_BLK)
break;
}
}
else
{
tmpPage =PMM_CalNextLogPage(tmpPage);
}
if((tmpPage >= PAGE_CNT_OF_SUPER_BLK)&&(LOG_BLK_TBL[tmpLogPst].WriteBlkIndex == 0))
{
LOG_BLK_TBL[tmpLogPst].WriteBlkIndex = 1;
tmpPage = tmpPage - PAGE_CNT_OF_SUPER_BLK;
}
if(LOG_BLK_TBL[tmpLogPst].WriteBlkIndex == 1)
DBUG_MSG("[DBUG_MSG] _GetLogPageForWrite, log block index: %x, log block num: %x, page: %x \n", LOG_BLK_TBL[tmpLogPst].WriteBlkIndex, LOG_BLK_TBL[tmpLogPst].PhyBlk1.PhyBlkNum, tmpPage);
else
DBUG_MSG("[DBUG_MSG] _GetLogPageForWrite, log block index: %x, log block num: %x, page: %x \n", LOG_BLK_TBL[tmpLogPst].WriteBlkIndex, LOG_BLK_TBL[tmpLogPst].PhyBlk.PhyBlkNum, tmpPage);
}
__CHECK_WRITE_LOGICAL_INFO_OF_LOG_BLOCK:
//check if need write the logical information in the first page of the log block
if((LOG_BLK_TBL[tmpLogPst].LastUsedPage == 0xffff) && (tmpPage != 0))
{
//get logical information from the data block
LML_CalculatePhyOpPar(&tmpPhyPage, CUR_MAP_ZONE, DATA_BLK_TBL[nBlk].PhyBlkNum, 0);
tmpPhyPage.SectBitmap = 0x03;
tmpPhyPage.MDataPtr = LML_TEMP_BUF;
tmpPhyPage.SDataPtr = (void *)tmpSpare;
LML_VirtualPageRead(&tmpPhyPage);
//if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[tmpLogPst].LogBlkType == LSB_TYPE))
//{
// PRINT("_GetLogPageForWrite log %x page 0, data age: %x, log age: %x\n", LOG_BLK_TBL[tmpLogPst].WriteBlkIndex, tmpSpare[0].PageStatus, tmpSpare[0].PageStatus+1);
//}
tmpSpare[0].BadBlkFlag = 0xff;
tmpSpare[1].BadBlkFlag = 0xff;
tmpSpare[0].LogicInfo = ((CUR_MAP_ZONE % ZONE_CNT_OF_DIE)<<10) | nBlk;
tmpSpare[1].LogicInfo = ((CUR_MAP_ZONE % ZONE_CNT_OF_DIE)<<10) | nBlk;
tmpSpare[0].LogicPageNum = 0xffff;
tmpSpare[1].LogicPageNum = 0xffff;
tmpSpare[0].PageStatus = tmpSpare[0].PageStatus + 1;
tmpSpare[1].PageStatus = tmpSpare[0].PageStatus;
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[tmpLogPst].LogBlkType == LSB_TYPE))
{
tmpSpare[0].LogType = LSB_TYPE|(LOG_BLK_TBL[tmpLogPst].WriteBlkIndex<<4);
tmpSpare[1].LogType = LSB_TYPE|(LOG_BLK_TBL[tmpLogPst].WriteBlkIndex<<4);
}
else
{
tmpSpare[0].LogType = 0xff;
tmpSpare[1].LogType = 0xff;
}
//write the logical information to the spare area of the data block
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[tmpLogPst].LogBlkType == LSB_TYPE))
{
DBUG_MSG("[DBUG] _GetLogPageForWrite, write the logical information to log page 0, writeblkindex: %x\n", LOG_BLK_TBL[tmpLogPst].WriteBlkIndex);
LML_CalculatePhyOpPar(&tmpPhyPage, CUR_MAP_ZONE, LOG_BLK_TBL[tmpLogPst].PhyBlk.PhyBlkNum, 0);
}
else
LML_CalculatePhyOpPar(&tmpPhyPage, CUR_MAP_ZONE, LOG_BLK_TBL[tmpLogPst].PhyBlk.PhyBlkNum, 0);
tmpPhyPage.SectBitmap = FULL_BITMAP_OF_SUPER_PAGE;
result = LML_VirtualPageWrite(&tmpPhyPage);
if(result < 0)
{
LOGICCTL_ERR("[MAPPING_ERR] Physical write module failed when write logical information, Err:0x%x!\n", result);
return -1;
}
result = PHY_SynchBank(tmpPhyPage.BankNum, SYNC_CHIP_MODE);
if(result < 0)
{
//the last write operation on current bank is failed, the block is bad, need proccess it
LOGICCTL_DBG("[LOGICCTL_DBG] Find a bad block when write logical page! bank:0x%x, block:0x%x, page:0x%x\n",
tmpPhyPage.BankNum, tmpPhyPage.BlkNum, tmpPhyPage.PageNum);
//process the bad block
result = LML_BadBlkManage(&LOG_BLK_TBL[tmpLogPst].PhyBlk, CUR_MAP_ZONE, 0, &LOG_BLK_TBL[tmpLogPst].PhyBlk);
if(result < 0)
{
LOGICCTL_ERR("[MAPPING_ERR] Bad block process failed when get log page for write, Err:0x%x!\n", result);
return -1;
}
goto __CHECK_WRITE_LOGICAL_INFO_OF_LOG_BLOCK;
}
}
//set the log page number for return
*pLogPage = tmpPage;
*pLogPst = tmpLogPst;
return 0;
}
/*
************************************************************************************************************************
* CREATE A NEW LOG BLOCK
*
*Description: Create a new log block.
*
*Arguments : nBlk the logical block number of the log block;
* pLogPst the pointer to the log block position in the log block table.
*
*Return : create new log block result.
* = 0 create new log block successful;
* =-1 create new log block failed.
************************************************************************************************************************
*/
static __s32 _CreateNewLogBlk(__u32 nBlk, __u32 *pLogPst)
{
__s32 i, result, LogBlkType,tmpPst=-1;
__u16 tmpLogAccessAge = 0xffff;
struct __SuperPhyBlkType_t tmpFreeBlk, tmpFreeBlk1;
struct __PhysicOpPara_t tmpPhyPage;
struct __NandUserData_t tmpSpare[2];
#if CFG_SUPPORT_WEAR_LEVELLING
//check if need do wear-levelling
if(BLK_ERASE_CNTER >= WEAR_LEVELLING_FREQUENCY)
{
LML_WearLevelling();
}
#endif
//try to search an empty item in the log block table
for(i=0; i<LOG_BLK_CNT_OF_ZONE; i++)
{
if(LOG_BLK_TBL[i].LogicBlkNum == 0xffff)
{
//find a empty item
tmpPst = i;
break;
}
}
//there is no empty item in the log block table, need merge a log block
if(tmpPst == -1)
{
//check if there is some full log block
for(i=0; i<LOG_BLK_CNT_OF_ZONE; i++)
{
if(LOG_BLK_TBL[i].LastUsedPage == PAGE_CNT_OF_SUPER_BLK-1)
{
tmpPst = i;
break;
}
}
if(tmpPst == -1)
{
//there is no full log block, look for an oldest log block to merge
for(i=0; i<LOG_BLK_CNT_OF_ZONE; i++)
{
if(LOG_ACCESS_AGE[i] < tmpLogAccessAge)
{
tmpLogAccessAge = LOG_ACCESS_AGE[i];
tmpPst = i;
}
}
}
//switch the page mapping table for merge the log block
result = PMM_SwitchMapTbl(tmpPst);
if(result < 0)
{
MAPPING_ERR("[MAPPING_ERR] Switch page mapping table failed when create new log block! Err:0x%x\n", result);
return -1;
}
//merge the log block with normal type, to make an empty item
result = LML_MergeLogBlk(NORMAL_MERGE_MODE, LOG_BLK_TBL[tmpPst].LogicBlkNum);
if(result < 0)
{
//merge log block failed, report error
MAPPING_ERR("[MAPPING_ERR] Merge log block failed when create new log block! Err:0x%x\n", result);
return -1;
}
}
LogBlkType = BMM_CalLogBlkType(nBlk);
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LogBlkType == LSB_TYPE))
{
DBUG_MSG("[DBUG_MSG] _CreateNewLogBlk, select bak log block\n");
//get a free block to create a new log block
result = BMM_GetFreeBlk(LOWEST_EC_TYPE, &tmpFreeBlk);
if(result < 0)
{
MAPPING_ERR("[MAPPING_ERR] Get free block failed when create new log block!\n");
return -1;
}
//get a free block to create a new log block
result = BMM_GetFreeBlk(LOWEST_EC_TYPE, &tmpFreeBlk1);
if(result < 0)
{
MAPPING_ERR("[MAPPING_ERR] Get free block failed when create new log block!\n");
return -1;
}
//DBUG_INF("[DBUG] _CreateNewLogBlk, logic: %x, logblk0: %x, logblk1:%x \n", nBlk, tmpFreeBlk.PhyBlkNum, tmpFreeBlk1.PhyBlkNum);
//make a new log item in the log block table
LOG_BLK_TBL[tmpPst].LogicBlkNum = nBlk;
LOG_BLK_TBL[tmpPst].LastUsedPage = 0xffff;
LOG_BLK_TBL[tmpPst].LogBlkType = LogBlkType;
LOG_BLK_TBL[tmpPst].WriteBlkIndex = 0;
LOG_BLK_TBL[tmpPst].ReadBlkIndex = 0;
LOG_BLK_TBL[tmpPst].PhyBlk = tmpFreeBlk;
LOG_BLK_TBL[tmpPst].PhyBlk1 = tmpFreeBlk1;
//set the return vaule of the log position
*pLogPst = tmpPst;
}
else
{
//get a free block to create a new log block
result = BMM_GetFreeBlk(LOWEST_EC_TYPE, &tmpFreeBlk);
if(result < 0)
{
MAPPING_ERR("[MAPPING_ERR] Get free block failed when create new log block!\n");
return -1;
}
//make a new log item in the log block table
LOG_BLK_TBL[tmpPst].LogicBlkNum = nBlk;
LOG_BLK_TBL[tmpPst].LastUsedPage = 0xffff;
LOG_BLK_TBL[tmpPst].LogBlkType = LogBlkType;
LOG_BLK_TBL[tmpPst].WriteBlkIndex = 0;
LOG_BLK_TBL[tmpPst].ReadBlkIndex = 0;
LOG_BLK_TBL[tmpPst].PhyBlk = tmpFreeBlk;
//set the return vaule of the log position
*pLogPst = tmpPst;
}
__CHECK_LOGICAL_INFO_OF_DATA_BLOCK:
//check if the data block is an empty block, if so, need update the logic information in the spare area
LML_CalculatePhyOpPar(&tmpPhyPage, CUR_MAP_ZONE, DATA_BLK_TBL[nBlk].PhyBlkNum, 0);
tmpPhyPage.SectBitmap = 0x03;
tmpPhyPage.MDataPtr = LML_TEMP_BUF;
tmpPhyPage.SDataPtr = (void *)tmpSpare;
LML_VirtualPageRead(&tmpPhyPage);
if(tmpSpare[0].LogicInfo == 0xffff)
{
tmpSpare[0].BadBlkFlag = 0xff;
tmpSpare[1].BadBlkFlag = 0xff;
tmpSpare[0].LogicInfo = ((CUR_MAP_ZONE % ZONE_CNT_OF_DIE)<<10) | nBlk;
tmpSpare[1].LogicInfo = ((CUR_MAP_ZONE % ZONE_CNT_OF_DIE)<<10) | nBlk;
tmpSpare[0].LogicPageNum = 0xffff;
tmpSpare[1].LogicPageNum = 0xffff;
tmpSpare[0].PageStatus = 0xff;
tmpSpare[1].PageStatus = 0xff;
//write the logical information to the spare area of the data block
tmpPhyPage.SectBitmap = FULL_BITMAP_OF_SUPER_PAGE;
result = LML_VirtualPageWrite(&tmpPhyPage);
if(result < 0)
{
LOGICCTL_ERR("[MAPPING_ERR] Physical write module failed when write logical information, Err:0x%x!\n", result);
return -1;
}
result = PHY_SynchBank(tmpPhyPage.BankNum, SYNC_CHIP_MODE);
if(result < 0)
{
//the last write operation on current bank is failed, the block is bad, need proccess it
LOGICCTL_DBG("[LOGICCTL_DBG] Find a bad block when write logical page! bank:0x%x, block:0x%x, page:0x%x\n",
tmpPhyPage.BankNum, tmpPhyPage.BlkNum, tmpPhyPage.PageNum);
//process the bad block
result = LML_BadBlkManage(&DATA_BLK_TBL[nBlk], CUR_MAP_ZONE, 0, &tmpFreeBlk);
if(result < 0)
{
LOGICCTL_ERR("[MAPPING_ERR] Bad block process failed when create new log block, Err:0x%x!\n", result);
return -1;
}
DATA_BLK_TBL[nBlk] = tmpFreeBlk;
goto __CHECK_LOGICAL_INFO_OF_DATA_BLOCK;
}
}
return 0;
}
/*!
*
* \par Description:
* This function move valuable data from log block to free block,then replace them.
*
* \param [in] LogNum,serial number within log block space
* \return sucess or failed.
* \note this function was called when log block is full, and valid pages is less than half of one block.
**/
__s32 _free2log_move_merge(__u32 nlogical)
{
__u8 bank;
__u16 LastUsedPage,SuperPage;
__u16 SrcPage,DstPage, SrcBlock, DstBlock;
struct __SuperPhyBlkType_t FreeBlk,FreeBlk1;
struct __LogBlkType_t LogBlk;
struct __PhysicOpPara_t SrcParam,DstParam;
struct __NandUserData_t UserData[2];
/*init info of log block , and get one free block */
BMM_GetLogBlk(nlogical, &LogBlk);
if (NAND_OP_TRUE != BMM_GetFreeBlk(LOWEST_EC_TYPE, &FreeBlk))
return NAND_OP_FALSE;
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LogBlk.LogBlkType == LSB_TYPE))
{
if (NAND_OP_TRUE != BMM_GetFreeBlk(LOWEST_EC_TYPE, &FreeBlk1))
return NAND_OP_FALSE;
//DBUG_INF("[DBUG] lsb move merge, new log0: %x, new log1: %x\n", FreeBlk.PhyBlkNum, FreeBlk1.PhyBlkNum);
}
SrcParam.MDataPtr = DstParam.MDataPtr = NULL;
SrcParam.SDataPtr = DstParam.SDataPtr = NULL;
SrcParam.SectBitmap = DstParam.SectBitmap = FULL_BITMAP_OF_SUPER_PAGE;
if(SUPPORT_ALIGN_NAND_BNK)
{
redo:
/*copy data bank by bank, for copy-back using*/
LastUsedPage = 0;
for (bank = 0; bank < INTERLEAVE_BANK_CNT; bank++)
{
DstPage = bank;
for (SuperPage = bank; SuperPage < PAGE_CNT_OF_SUPER_BLK; SuperPage+= INTERLEAVE_BANK_CNT)
{
SrcPage = PMM_GetCurMapPage(SuperPage);
if (SrcPage != 0xffff)
{
/*set source and destinate address*/
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LogBlk.LogBlkType == LSB_TYPE))
{
DBUG_MSG("[DBUG_MSG] _free2log_move_merge 2, select bak log block\n");
DstPage = PMM_CalNextLogPage(DstPage);
while((DstPage%INTERLEAVE_BANK_CNT)!=bank)
{
DstPage++;
DstPage = PMM_CalNextLogPage(DstPage);
if(DstPage>=PAGE_CNT_OF_SUPER_BLK)
break;
}
if(DstPage >= PAGE_CNT_OF_SUPER_BLK)
{
LOGICCTL_ERR("move merge : dst page cal error\n");
return NAND_OP_FALSE;
}
if(SrcPage&(0x1<<15))
SrcBlock = LogBlk.PhyBlk1.PhyBlkNum;
else
SrcBlock = LogBlk.PhyBlk.PhyBlkNum;
DstBlock = FreeBlk.PhyBlkNum;
SrcPage &= (~(0x1<<15));
}
else
{
SrcBlock = LogBlk.PhyBlk.PhyBlkNum;
DstBlock = FreeBlk.PhyBlkNum;
}
LML_CalculatePhyOpPar(&SrcParam,CUR_MAP_ZONE, SrcBlock, SrcPage);
LML_CalculatePhyOpPar(&DstParam,CUR_MAP_ZONE, DstBlock, DstPage);
if (DstPage == 0)
{
if ( NAND_OP_FALSE == _copy_page0(SrcBlock,SrcPage,FreeBlk.PhyBlkNum,0))
{
LOGICCTL_ERR("move merge : copy page 0 err1\n");
return NAND_OP_FALSE;
}
}
else
{
if (NAND_OP_TRUE != PHY_PageCopyback(&SrcParam,&DstParam))
{
LOGICCTL_ERR("move merge : copy back err\n");
return NAND_OP_FALSE;
}
}
if (NAND_OP_TRUE != PHY_SynchBank(DstParam.BankNum, SYNC_BANK_MODE))
{
struct __SuperPhyBlkType_t SubBlk;
if (NAND_OP_TRUE != LML_BadBlkManage(&FreeBlk,CUR_MAP_ZONE,0,&SubBlk))
{
LOGICCTL_ERR("move merge : bad block manage err after copy back\n");
return NAND_OP_FALSE;
}
FreeBlk = SubBlk;
goto redo;
}
PMM_SetCurMapPage(SuperPage,DstPage);
DstPage += INTERLEAVE_BANK_CNT;
}
}
/*if bank 0 is empty, need write mange info in page 0*/
if ((bank == 0) && (DstPage == 0))
{
if ( NAND_OP_FALSE == _copy_page0(LogBlk.PhyBlk.PhyBlkNum,0,FreeBlk.PhyBlkNum,0))
{
LOGICCTL_ERR("move merge : copy page 0 err2\n");
return NAND_OP_FALSE;
}
LML_CalculatePhyOpPar(&DstParam, CUR_MAP_ZONE, FreeBlk.PhyBlkNum, 0);
if (NAND_OP_TRUE != PHY_SynchBank(DstParam.BankNum, SYNC_BANK_MODE))
{
struct __SuperPhyBlkType_t SubBlk;
if (NAND_OP_TRUE != LML_BadBlkManage(&FreeBlk,CUR_MAP_ZONE,0,&SubBlk))
{
LOGICCTL_ERR("move merge : bad block manage err after copy back\n");
return NAND_OP_FALSE;
}
FreeBlk = SubBlk;
goto redo;
}
}
/*reset LastUsedPage*/
if ((DstPage - INTERLEAVE_BANK_CNT) > LastUsedPage)
{
LastUsedPage = DstPage - INTERLEAVE_BANK_CNT;
}
}
}
else
{
/*copy data page by page*/
DstPage = 0;
LastUsedPage = 0;
for (SuperPage = 0; SuperPage < PAGE_CNT_OF_LOGIC_BLK; SuperPage++)
{
SrcPage = PMM_GetCurMapPage(SuperPage);
if (SrcPage != 0xffff)
{
/*set source and destinate address*/
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LogBlk.LogBlkType == LSB_TYPE))
{
DBUG_MSG("[DBUG_MSG] _free2log_move_merge 3, select bak log block\n");
DstPage = PMM_CalNextLogPage(DstPage);
if(DstPage >= PAGE_CNT_OF_SUPER_BLK)
{
LOGICCTL_ERR("move merge : dst page cal error\n");
return NAND_OP_FALSE;
}
if(SrcPage&(0x1<<15))
SrcBlock = LogBlk.PhyBlk1.PhyBlkNum;
else
SrcBlock = LogBlk.PhyBlk.PhyBlkNum;
DstBlock = FreeBlk.PhyBlkNum;
SrcPage &= 0x7fff;
}
else
{
SrcBlock = LogBlk.PhyBlk.PhyBlkNum;
DstBlock = FreeBlk.PhyBlkNum;
}
LML_CalculatePhyOpPar(&SrcParam,CUR_MAP_ZONE, SrcBlock, SrcPage);
LML_CalculatePhyOpPar(&DstParam,CUR_MAP_ZONE, DstBlock, DstPage);
if (0 == DstPage)
{
if ( NAND_OP_FALSE == _copy_page0(SrcBlock,SrcPage,FreeBlk.PhyBlkNum,0))
{
LOGICCTL_ERR("move merge : copy page 0 err1\n");
return NAND_OP_FALSE;
}
}
else
{
SrcParam.MDataPtr = DstParam.MDataPtr = LML_TEMP_BUF;
SrcParam.SDataPtr = DstParam.SDataPtr = (void *)&UserData;
MEMSET((void *)&UserData,0xff,sizeof(struct __NandUserData_t) * 2);
SrcParam.SectBitmap = DstParam.SectBitmap = FULL_BITMAP_OF_SUPER_PAGE;
if (LML_VirtualPageRead(&SrcParam) < 0){
LOGICCTL_ERR("move merge : read main data err\n");
return NAND_OP_FALSE;
}
if (NAND_OP_TRUE != LML_VirtualPageWrite(&DstParam)){
LOGICCTL_ERR("move merge : write err\n");
return NAND_OP_FALSE;
}
}
if (NAND_OP_TRUE != PHY_SynchBank(DstParam.BankNum, SYNC_BANK_MODE))
{
struct __SuperPhyBlkType_t SubBlk;
if (NAND_OP_TRUE != LML_BadBlkManage(&FreeBlk,CUR_MAP_ZONE,LastUsedPage,&SubBlk))
{
LOGICCTL_ERR("move merge : bad block manage err after copy back\n");
return NAND_OP_FALSE;
}
FreeBlk = SubBlk;
SuperPage -= 1;
}
PMM_SetCurMapPage(SuperPage,DstPage);
LastUsedPage = DstPage;
DstPage++;
}
}
}
/*erase log block*/
if(NAND_OP_TRUE != LML_VirtualBlkErase(CUR_MAP_ZONE, LogBlk.PhyBlk.PhyBlkNum))
{
if(NAND_OP_TRUE != LML_BadBlkManage(&LogBlk.PhyBlk,CUR_MAP_ZONE,0,NULL))
{
LOGICCTL_ERR("move merge : bad block manage err after erase log block\n");
return NAND_OP_FALSE;
}
}
/*move erased log block to free block*/
if(LogBlk.PhyBlk.BlkEraseCnt < 0xffff)
{
LogBlk.PhyBlk.BlkEraseCnt ++;
}
BMM_SetFreeBlk(&LogBlk.PhyBlk);
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LogBlk.LogBlkType == LSB_TYPE))
{
//DBUG_INF("[DBUG] logic %x move merge: erase log block 0: %x\n", LogBlk.LogicBlkNum, LogBlk.PhyBlk.PhyBlkNum);
if(NAND_OP_TRUE != LML_VirtualBlkErase(CUR_MAP_ZONE, LogBlk.PhyBlk1.PhyBlkNum))
{
if(NAND_OP_TRUE != LML_BadBlkManage(&LogBlk.PhyBlk1,CUR_MAP_ZONE,0,NULL))
{
LOGICCTL_ERR("move merge : bad block manage err after erase log block\n");
return NAND_OP_FALSE;
}
}
/*move erased log block to free block*/
if(LogBlk.PhyBlk1.BlkEraseCnt < 0xffff)
{
LogBlk.PhyBlk1.BlkEraseCnt ++;
}
BMM_SetFreeBlk(&LogBlk.PhyBlk1);
//DBUG_INF("[DBUG] logic %x move merge: erase log block 1: %x\n", LogBlk.LogicBlkNum, LogBlk.PhyBlk1.PhyBlkNum);
}
/*move free block to log block*/
LogBlk.PhyBlk.PhyBlkNum= FreeBlk.PhyBlkNum;
LogBlk.PhyBlk.BlkEraseCnt= FreeBlk.BlkEraseCnt;
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LogBlk.LogBlkType == LSB_TYPE))
{
DBUG_MSG("[DBUG_MSG] _free2log_move_merge 4, select bak log block\n");
LogBlk.PhyBlk1.PhyBlkNum= FreeBlk1.PhyBlkNum;
LogBlk.PhyBlk1.BlkEraseCnt= FreeBlk1.BlkEraseCnt;
LogBlk.WriteBlkIndex = 0;
LogBlk.ReadBlkIndex = 0;
DBUG_MSG("[DBUG] move merge to new log block, logic block: %x, logblock0: %x, logblock1: %x\n", LogBlk.LogicBlkNum, LogBlk.PhyBlk.PhyBlkNum, LogBlk.PhyBlk1.PhyBlkNum);
}
else
{
LogBlk.LogBlkType = 0;
LogBlk.WriteBlkIndex = 0;
LogBlk.ReadBlkIndex = 0;
}
LogBlk.LastUsedPage = LastUsedPage;
BMM_SetLogBlk(nlogical, &LogBlk);
//if((SUPPORT_LOG_BLOCK_MANAGE)&&(LogBlk.LogBlkType == LSB_TYPE))
// DBUG_INF("logic %x move merge, lastusedpage: %x\n", LogBlk.LogicBlkNum, LogBlk.LastUsedPage);
return NAND_OP_TRUE;
}
static __s32 _read_page_map_tbl(__u32 nLogBlkPst)
{
__s32 ret;
__u16 TablePage;
__u32 TableBlk, checksum;
__u16 logicpagenum;
__u8 status;
struct __NandUserData_t UserData[2];
struct __PhysicOpPara_t param;
/*check page poisition, merge if no free page*/
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[nLogBlkPst].LogBlkType == LSB_TYPE))
{
DBUG_MSG("[DBUG_MSG] _read_page_map_tbl, select bak log block\n");
TablePage = LOG_BLK_TBL[nLogBlkPst].LastUsedPage;
if(LOG_BLK_TBL[nLogBlkPst].WriteBlkIndex == 1)
TableBlk = LOG_BLK_TBL[nLogBlkPst].PhyBlk1.PhyBlkNum;
else
TableBlk = LOG_BLK_TBL[nLogBlkPst].PhyBlk.PhyBlkNum;
}
else
{
TablePage = LOG_BLK_TBL[nLogBlkPst].LastUsedPage;
TableBlk = LOG_BLK_TBL[nLogBlkPst].PhyBlk.PhyBlkNum;
}
if (TablePage == 0xffff){
/*log block is empty*/
MEMSET(PAGE_MAP_TBL, 0xff,PAGE_CNT_OF_SUPER_BLK*sizeof(struct __PageMapTblItem_t) );
return NAND_OP_TRUE;
}
/*read page map table*/
param.MDataPtr = LML_PROCESS_TBL_BUF;
param.SDataPtr = (void *)&UserData;
param.SectBitmap = 0xf;
LML_CalculatePhyOpPar(¶m, CUR_MAP_ZONE, TableBlk, TablePage);
ret = LML_VirtualPageRead(¶m);
if(PAGE_CNT_OF_SUPER_BLK >= 512)
{
checksum = _GetTblCheckSum((__u32 *)LML_PROCESS_TBL_BUF, \
PAGE_CNT_OF_SUPER_BLK*2/sizeof(__u32));
}
else
{
checksum = _GetTblCheckSum((__u32 *)LML_PROCESS_TBL_BUF, \
PAGE_CNT_OF_SUPER_BLK*sizeof(struct __PageMapTblItem_t)/sizeof(__u32));
}
status = UserData[0].PageStatus;
logicpagenum = UserData[0].LogicPageNum;
if((ret < 0) || (status != 0xaa) || (logicpagenum != 0xffff) || (checksum != ((__u32 *)LML_PROCESS_TBL_BUF)[511]))
{
if(NAND_OP_TRUE != _rebuild_page_map_tbl(nLogBlkPst))
{
MAPPING_ERR("rebuild page map table err\n");
return NAND_OP_FALSE;
}
}
else
{
if(PAGE_CNT_OF_SUPER_BLK >= 512)
{
__u32 page;
for(page = 0; page < PAGE_CNT_OF_SUPER_BLK; page++)
PAGE_MAP_TBL[page].PhyPageNum = *((__u16 *)LML_PROCESS_TBL_BUF + page);
}
else
MEMCPY(PAGE_MAP_TBL,LML_PROCESS_TBL_BUF, PAGE_CNT_OF_SUPER_BLK*sizeof(struct __PageMapTblItem_t));
}
return NAND_OP_TRUE;
}
static __s32 _rebuild_page_map_tbl(__u32 nLogBlkPst)
{
__s32 ret;
__u16 TablePage;
__u32 TableBlk, TableBlk1;
__u16 logicpagenum;
//__u8 status;
struct __NandUserData_t UserData[2];
struct __PhysicOpPara_t param;
MEMSET(PAGE_MAP_TBL,0xff, PAGE_CNT_OF_SUPER_BLK*sizeof(struct __PageMapTblItem_t));
TableBlk = LOG_BLK_TBL[nLogBlkPst].PhyBlk.PhyBlkNum;
TableBlk1 = LOG_BLK_TBL[nLogBlkPst].PhyBlk1.PhyBlkNum;
param.MDataPtr = LML_PROCESS_TBL_BUF;
param.SDataPtr = (void *)&UserData;
param.SectBitmap = 0x3;
//PRINT("-----------------------rebuild page table for blk %x\n",TableBlk);
for(TablePage = 0; TablePage < PAGE_CNT_OF_SUPER_BLK; TablePage++){
LML_CalculatePhyOpPar(¶m, CUR_MAP_ZONE, TableBlk, TablePage);
ret = LML_VirtualPageRead(¶m);
if (ret < 0){
MAPPING_ERR("rebuild logic block %x page map table : read err\n",LOG_BLK_TBL[nLogBlkPst].LogicBlkNum);
return NAND_OP_FALSE;
}
//status = UserData[0].PageStatus;
logicpagenum = UserData[0].LogicPageNum;
//if(((!TablePage || (status == 0x55))) && (logicpagenum != 0xffff) && (logicpagenum < PAGE_CNT_OF_SUPER_BLK)) /*legal page*/
if((logicpagenum != 0xffff) && (logicpagenum < PAGE_CNT_OF_SUPER_BLK)) /*legal page*/
{
PAGE_MAP_TBL[logicpagenum].PhyPageNum = TablePage; /*l2p:logical to physical*/
}
}
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[nLogBlkPst].LogBlkType == LSB_TYPE))
{
DBUG_MSG("[DBUG_MSG] _rebuild_page_map_tbl, select bak log block\n");
for(TablePage = 0; TablePage < PAGE_CNT_OF_SUPER_BLK; TablePage++){
LML_CalculatePhyOpPar(¶m, CUR_MAP_ZONE, TableBlk1, TablePage);
ret = LML_VirtualPageRead(¶m);
if (ret < 0){
MAPPING_ERR("rebuild logic block %x page map table : read err\n",LOG_BLK_TBL[nLogBlkPst].LogicBlkNum);
return NAND_OP_FALSE;
}
//status = UserData[0].PageStatus;
logicpagenum = UserData[0].LogicPageNum;
//if(((!TablePage || (status == 0x55))) && (logicpagenum != 0xffff) && (logicpagenum < PAGE_CNT_OF_SUPER_BLK)) /*legal page*/
if((logicpagenum != 0xffff) && (logicpagenum < PAGE_CNT_OF_SUPER_BLK)) /*legal page*/
{
PAGE_MAP_TBL[logicpagenum].PhyPageNum = TablePage|(0x1U<<15); /*l2p:logical to physical*/
}
}
}
PAGE_MAP_CACHE->DirtyFlag = 1;
BMM_SetDirtyFlag();
return NAND_OP_TRUE;
}
static __s32 _write_back_page_map_tbl(__u32 nLogBlkPst)
{
__u16 TablePage;
__u32 TableBlk;
struct __NandUserData_t UserData[2];
struct __PhysicOpPara_t param, tmpPage0;
struct __SuperPhyBlkType_t BadBlk,NewBlk;
__s32 result;
/*check page poisition, merge if no free page*/
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[nLogBlkPst].LogBlkType == LSB_TYPE))
{
TablePage = LOG_BLK_TBL[nLogBlkPst].LastUsedPage + 1;
TableBlk = LOG_BLK_TBL[nLogBlkPst].PhyBlk.PhyBlkNum;
DBUG_MSG("[DBUG] _write_back_page_map_tbl, log block: %x, bak log block %x\n", LOG_BLK_TBL[nLogBlkPst].PhyBlk.PhyBlkNum, LOG_BLK_TBL[nLogBlkPst].PhyBlk1.PhyBlkNum);
DBUG_MSG("[DBUG] _write_back_page_map_tbl, select bak log block\n");
TablePage = PMM_CalNextLogPage(TablePage);
if((TablePage >= PAGE_CNT_OF_SUPER_BLK)&&(LOG_BLK_TBL[nLogBlkPst].WriteBlkIndex == 0))
{
DBUG_MSG("[DBUG] _write_back_page_map_tbl, change to log block 1, phyblock1: %x\n", LOG_BLK_TBL[nLogBlkPst].PhyBlk1.PhyBlkNum);
LOG_BLK_TBL[nLogBlkPst].WriteBlkIndex = 1;
TablePage = TablePage - PAGE_CNT_OF_SUPER_BLK;
}
if(LOG_BLK_TBL[nLogBlkPst].WriteBlkIndex == 1)
TableBlk = LOG_BLK_TBL[nLogBlkPst].PhyBlk1.PhyBlkNum;
else
TableBlk = LOG_BLK_TBL[nLogBlkPst].PhyBlk.PhyBlkNum;
if (TablePage >= PAGE_CNT_OF_SUPER_BLK){
//DBUG_INF("[DBUG] _write_back_page_map_tbl, log block full, need merge\n");
/*block id full,need merge*/
if (LML_MergeLogBlk(SPECIAL_MERGE_MODE,LOG_BLK_TBL[nLogBlkPst].LogicBlkNum)){
MAPPING_ERR("write back page tbl : merge err\n");
return NAND_OP_FALSE;
}
DBUG_MSG("[DBUG] _write_back_page_map_tbl, log block merge end\n");
if (PAGE_MAP_CACHE->ZoneNum != 0xff){
/*move merge*/
TablePage = LOG_BLK_TBL[nLogBlkPst].LastUsedPage + 1;
TableBlk = LOG_BLK_TBL[nLogBlkPst].PhyBlk.PhyBlkNum;
TablePage = PMM_CalNextLogPage(TablePage);
//DBUG_INF("[DBUG] _write_back_page_map_tbl, after move merge, table block: %x, table page %x\n", TableBlk, TablePage);
}
else
return NAND_OP_TRUE;
}
}
else
{
TablePage = LOG_BLK_TBL[nLogBlkPst].LastUsedPage + 1;
TableBlk = LOG_BLK_TBL[nLogBlkPst].PhyBlk.PhyBlkNum;
if (TablePage == PAGE_CNT_OF_SUPER_BLK){
/*block id full,need merge*/
if (LML_MergeLogBlk(SPECIAL_MERGE_MODE,LOG_BLK_TBL[nLogBlkPst].LogicBlkNum)){
MAPPING_ERR("write back page tbl : merge err\n");
return NAND_OP_FALSE;
}
if (PAGE_MAP_CACHE->ZoneNum != 0xff){
/*move merge*/
TablePage = LOG_BLK_TBL[nLogBlkPst].LastUsedPage + 1;
TableBlk = LOG_BLK_TBL[nLogBlkPst].PhyBlk.PhyBlkNum;
}
else
return NAND_OP_TRUE;
}
}
rewrite:
//PRINT("-------------------write back page tbl for blk %x\n",TableBlk);
/*write page map table*/
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[nLogBlkPst].LogBlkType == LSB_TYPE))
{
if((TablePage== 0)&&(LOG_BLK_TBL[nLogBlkPst].WriteBlkIndex == 1))
{
MEMSET((void *)(&UserData[0]),0xff,sizeof(struct __NandUserData_t) * 2);
//log page is the page0 of the logblk1, should copy page0 of logblock0, and skip the page
LML_CalculatePhyOpPar(&tmpPage0, CUR_MAP_ZONE, LOG_BLK_TBL[nLogBlkPst].PhyBlk.PhyBlkNum, 0);
tmpPage0.SectBitmap = FULL_BITMAP_OF_SUPER_PAGE;
tmpPage0.MDataPtr = LML_TEMP_BUF;
tmpPage0.SDataPtr = (void *)UserData;
result = LML_VirtualPageRead(&tmpPage0);
if(result < 0)
{
LOGICCTL_ERR("[LOGICCTL_ERR] Get log age of data block failed when write logical page, Err:0x%x!\n", result);
return -ERR_PHYSIC;
}
//log page is the page0 of the logblk1, should skip the page
UserData[0].LogType = LSB_TYPE|(LOG_BLK_TBL[nLogBlkPst].WriteBlkIndex<<4);
UserData[1].LogType = LSB_TYPE|(LOG_BLK_TBL[nLogBlkPst].WriteBlkIndex<<4);
LML_CalculatePhyOpPar(&tmpPage0, CUR_MAP_ZONE, LOG_BLK_TBL[nLogBlkPst].PhyBlk1.PhyBlkNum, 0);
tmpPage0.SectBitmap = FULL_BITMAP_OF_SUPER_PAGE;
tmpPage0.MDataPtr = LML_TEMP_BUF;
tmpPage0.SDataPtr = (void *)UserData;
result = LML_VirtualPageWrite(&tmpPage0);
TablePage++;
}
}
MEMSET((void *)(&UserData[0]),0xff,sizeof(struct __NandUserData_t) * 2);
UserData[0].PageStatus = 0xaa;
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[nLogBlkPst].LogBlkType == LSB_TYPE))
{
UserData[0].LogType = LSB_TYPE|(LOG_BLK_TBL[nLogBlkPst].WriteBlkIndex<<4);
UserData[1].LogType = LSB_TYPE|(LOG_BLK_TBL[nLogBlkPst].WriteBlkIndex<<4);
}
else
{
UserData[0].LogType = 0xff;
UserData[1].LogType = 0xff;
}
//if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[nLogBlkPst].LogBlkType == LSB_TYPE)&&(TablePage== 0))
//{
// DBUG_INF("[DBUG] _write_back_page_map_tbl in page0, TablePage: %x, TableBlk: %x\n", TablePage, TableBlk);
// DBUG_INF("[DBUG] _write_back_page_map_tbl in page0, logicNum: %x, log0: %x, log1: %x\n", LOG_BLK_TBL[nLogBlkPst].LogicBlkNum,LOG_BLK_TBL[nLogBlkPst].PhyBlk.PhyBlkNum, LOG_BLK_TBL[nLogBlkPst].PhyBlk1.PhyBlkNum);
// DBUG_INF("[DBUG] _write_back_page_map_tbl in page0, logicinfo: %x, logicpage: %x\n", UserData[0].LogicInfo, UserData[0].LogicPageNum);
// DBUG_INF("[DBUG] _write_back_page_map_tbl in page0, logtype: %x, pagestatus: %x\n", UserData[0].LogType, UserData[0].PageStatus);
//}
MEMSET(LML_PROCESS_TBL_BUF,0xff,SECTOR_CNT_OF_SUPER_PAGE * SECTOR_SIZE);
if(PAGE_CNT_OF_SUPER_BLK >= 512)
{
__u32 page;
for(page = 0; page < PAGE_CNT_OF_SUPER_BLK; page++)
*((__u16 *)LML_PROCESS_TBL_BUF + page) = PAGE_MAP_TBL[page].PhyPageNum;
((__u32 *)LML_PROCESS_TBL_BUF)[511] = \
_GetTblCheckSum((__u32 *)LML_PROCESS_TBL_BUF, PAGE_CNT_OF_SUPER_BLK*2/(sizeof (__u32)));
}
else
{
MEMCPY(LML_PROCESS_TBL_BUF, PAGE_MAP_TBL,PAGE_CNT_OF_SUPER_BLK*sizeof(struct __PageMapTblItem_t));
((__u32 *)LML_PROCESS_TBL_BUF)[511] = \
_GetTblCheckSum((__u32 *)LML_PROCESS_TBL_BUF, PAGE_CNT_OF_SUPER_BLK*sizeof(struct __PageMapTblItem_t)/(sizeof (__u32)));
}
param.MDataPtr = LML_PROCESS_TBL_BUF;
param.SDataPtr = (void *)&UserData;
param.SectBitmap = FULL_BITMAP_OF_SUPER_PAGE;
//rewrite:
LML_CalculatePhyOpPar(¶m, CUR_MAP_ZONE, TableBlk, TablePage);
LML_VirtualPageWrite(¶m);
if (NAND_OP_TRUE != PHY_SynchBank(param.BankNum, SYNC_CHIP_MODE)){
BadBlk.PhyBlkNum = TableBlk;
if (NAND_OP_TRUE != LML_BadBlkManage(&BadBlk,CUR_MAP_ZONE,TablePage,&NewBlk)){
MAPPING_ERR("write page map table : bad block mange err after write\n");
return NAND_OP_FALSE;
}
TableBlk = NewBlk.PhyBlkNum;
LOG_BLK_TBL[nLogBlkPst].PhyBlk = NewBlk;
goto rewrite;
}
LOG_BLK_TBL[nLogBlkPst].LastUsedPage = TablePage;
PAGE_MAP_CACHE->ZoneNum = 0xff;
PAGE_MAP_CACHE->LogBlkPst = 0xff;
if((SUPPORT_LOG_BLOCK_MANAGE)&&(LOG_BLK_TBL[nLogBlkPst].LogBlkType == LSB_TYPE))
DBUG_MSG("[DBUG] _write_back_page_map_tbl end, lastusedpage: %x, write_index: %x\n", LOG_BLK_TBL[nLogBlkPst].LastUsedPage, LOG_BLK_TBL[nLogBlkPst].WriteBlkIndex);
return NAND_OP_TRUE;
}
/*
* Test operations on a segmented table.
*/
static bool segmentTest(void)
{
static const int kTableMax = 20;
IndirectRefTable irt;
IndirectRef iref0, iref1, iref2, iref3;
ClassObject* clazz = dvmFindClass("Ljava/lang/Object;", NULL);
Object* obj0 = dvmAllocObject(clazz, ALLOC_DONT_TRACK);
Object* obj1 = dvmAllocObject(clazz, ALLOC_DONT_TRACK);
Object* obj2 = dvmAllocObject(clazz, ALLOC_DONT_TRACK);
Object* obj3 = dvmAllocObject(clazz, ALLOC_DONT_TRACK);
u4 cookie;
u4 segmentState[4];
bool result = false;
if (!dvmInitIndirectRefTable(&irt, kTableMax, kTableMax,
kIndirectKindLocal))
{
return false;
}
cookie = segmentState[0] = IRT_FIRST_SEGMENT;
DBUG_MSG("+++ objs %p %p %p %p\n", obj0, obj1, obj2, obj3);
/*
* Push two, create new segment, push two more, try to get all four,
* try to delete all 4. All four should be accessible, but only the
* last two should be deletable.
*/
DBUG_MSG("+++ START basic segment\n");
iref0 = dvmAddToIndirectRefTable(&irt, cookie, obj0);
iref1 = dvmAddToIndirectRefTable(&irt, cookie, obj1);
cookie = segmentState[1] = dvmPushIndirectRefTableSegment(&irt);
DBUG_MSG("+++ pushed, cookie is 0x%08x\n", cookie);
iref2 = dvmAddToIndirectRefTable(&irt, cookie, obj2);
iref3 = dvmAddToIndirectRefTable(&irt, cookie, obj3);
if (dvmRemoveFromIndirectRefTable(&irt, cookie, iref0) ||
dvmRemoveFromIndirectRefTable(&irt, cookie, iref1))
{
LOGE("removed values from earlier segment\n");
goto bail;
}
if (!dvmRemoveFromIndirectRefTable(&irt, cookie, iref2) ||
!dvmRemoveFromIndirectRefTable(&irt, cookie, iref3))
{
LOGE("unable to remove values from current segment\n");
goto bail;
}
if (dvmIndirectRefTableEntries(&irt) != 2) {
LOGE("wrong total entries\n");
goto bail;
}
dvmPopIndirectRefTableSegment(&irt, segmentState[1]);
cookie = segmentState[0];
if (!dvmRemoveFromIndirectRefTable(&irt, cookie, iref0) ||
!dvmRemoveFromIndirectRefTable(&irt, cookie, iref1))
{
LOGE("unable to remove values from first segment\n");
goto bail;
}
if (dvmIndirectRefTableEntries(&irt) != 0) {
LOGE("basic push/pop not empty\n");
goto bail;
}
/*
* Push two, delete first, segment, push two more, pop segment, verify
* the last two are no longer present and hole count is right. The
* adds after the segment pop should not be filling in the hole.
*/
DBUG_MSG("+++ START segment pop\n");
iref0 = dvmAddToIndirectRefTable(&irt, cookie, obj0);
iref1 = dvmAddToIndirectRefTable(&irt, cookie, obj1);
dvmRemoveFromIndirectRefTable(&irt, cookie, iref0);
cookie = segmentState[1] = dvmPushIndirectRefTableSegment(&irt);
iref2 = dvmAddToIndirectRefTable(&irt, cookie, obj2);
iref3 = dvmAddToIndirectRefTable(&irt, cookie, obj3);
dvmPopIndirectRefTableSegment(&irt, segmentState[1]);
cookie = segmentState[0];
if (dvmIndirectRefTableEntries(&irt) != 2) {
LOGE("wrong total entries after pop\n");
goto bail;
}
dvmRemoveFromIndirectRefTable(&irt, cookie, iref1);
if (dvmIndirectRefTableEntries(&irt) != 0) {
LOGE("not back to zero after pop + del\n");
goto bail;
}
/*
* Multiple segments, some empty.
*/
DBUG_MSG("+++ START multiseg\n");
iref0 = dvmAppendToIndirectRefTable(&irt, cookie, obj0);
iref1 = dvmAppendToIndirectRefTable(&irt, cookie, obj1);
cookie = segmentState[1] = dvmPushIndirectRefTableSegment(&irt);
cookie = segmentState[2] = dvmPushIndirectRefTableSegment(&irt);
iref3 = dvmAppendToIndirectRefTable(&irt, cookie, obj3);
iref2 = dvmAppendToIndirectRefTable(&irt, cookie, obj2);
dvmRemoveFromIndirectRefTable(&irt, cookie, iref3);
cookie = segmentState[3] = dvmPushIndirectRefTableSegment(&irt);
iref3 = dvmAppendToIndirectRefTable(&irt, cookie, obj3);
if (dvmGetFromIndirectRefTable(&irt, iref0) != obj0 ||
dvmGetFromIndirectRefTable(&irt, iref1) != obj1 ||
dvmGetFromIndirectRefTable(&irt, iref2) != obj2 ||
dvmGetFromIndirectRefTable(&irt, iref3) != obj3)
{
LOGE("Unable to retrieve all multiseg objects\n");
goto bail;
}
dvmDumpIndirectRefTable(&irt, "test");
//int i;
//for (i = 0; i < sizeof(segmentState) / sizeof(segmentState[0]); i++) {
// DBUG_MSG("+++ segment %d = 0x%08x\n", i, segmentState[i]);
//}
dvmRemoveFromIndirectRefTable(&irt, cookie, iref3);
if (dvmRemoveFromIndirectRefTable(&irt, cookie, iref2)) {
LOGE("multiseg del2 worked\n");
goto bail;
}
dvmPopIndirectRefTableSegment(&irt, segmentState[3]);
cookie = segmentState[2];
if (!dvmRemoveFromIndirectRefTable(&irt, cookie, iref2)) {
LOGE("multiseg del2b failed (cookie=0x%08x ref=%p)\n", cookie, iref2);
goto bail;
}
iref2 = dvmAddToIndirectRefTable(&irt, cookie, obj2);
/* pop two off at once */
dvmPopIndirectRefTableSegment(&irt, segmentState[1]);
cookie = segmentState[0];
if (dvmIndirectRefTableEntries(&irt) != 2) {
LOGE("Unexpected entry count in multiseg\n");
goto bail;
}
dvmRemoveFromIndirectRefTable(&irt, cookie, iref0);
dvmRemoveFromIndirectRefTable(&irt, cookie, iref1);
if (dvmIndirectRefTableEntries(&irt) != 0) {
LOGE("Unexpected entry count at multiseg end\n");
goto bail;
}
DBUG_MSG("+++ segment test complete\n");
result = true;
bail:
dvmClearIndirectRefTable(&irt);
return result;
}
OMX_ERRORTYPE omx_flacdec_component_Constructor(OMX_COMPONENTTYPE *openmaxStandComp, OMX_STRING cComponentName)
{
OMX_ERRORTYPE err = OMX_ErrorNone;
omx_flacdec_component_PrivateType* omx_flacdec_component_Private;
omx_base_audio_PortType *inPort,*outPort;
OMX_U32 i;
#ifdef HAVE_ANDROID_OS
if (1)
#else
if (!openmaxStandComp->pComponentPrivate)
#endif
{
openmaxStandComp->pComponentPrivate = TCC_calloc(1, sizeof(omx_flacdec_component_PrivateType));
if(openmaxStandComp->pComponentPrivate==NULL)
{
return OMX_ErrorInsufficientResources;
}
}
else
{
DBUG_MSG("In %s, Error Component %x Already Allocated\n",
__func__, (int)openmaxStandComp->pComponentPrivate);
}
omx_flacdec_component_Private = openmaxStandComp->pComponentPrivate;
omx_flacdec_component_Private->ports = NULL;
/** we could create our own port structures here
* fixme maybe the base class could use a "port factory" function pointer?
*/
err = omx_base_filter_Constructor(openmaxStandComp, cComponentName);
DBUG_MSG("constructor of FLAC decoder component is called\n");
/* Domain specific section for the ports. */
/* first we set the parameter common to both formats */
/* parameters related to input port which does not depend upon input audio format */
/* Allocate Ports and call port constructor. */
omx_flacdec_component_Private->sPortTypesParam[OMX_PortDomainAudio].nStartPortNumber = 0;
omx_flacdec_component_Private->sPortTypesParam[OMX_PortDomainAudio].nPorts = 2;
if (omx_flacdec_component_Private->sPortTypesParam[OMX_PortDomainAudio].nPorts && !omx_flacdec_component_Private->ports)
{
omx_flacdec_component_Private->ports = TCC_calloc(omx_flacdec_component_Private->sPortTypesParam[OMX_PortDomainAudio].nPorts, sizeof(omx_base_PortType *));
if (!omx_flacdec_component_Private->ports)
{
return OMX_ErrorInsufficientResources;
}
for (i=0; i < omx_flacdec_component_Private->sPortTypesParam[OMX_PortDomainAudio].nPorts; i++)
{
omx_flacdec_component_Private->ports[i] = TCC_calloc(1, sizeof(omx_base_audio_PortType));
if (!omx_flacdec_component_Private->ports[i])
{
return OMX_ErrorInsufficientResources;
}
}
}
base_audio_port_Constructor(openmaxStandComp, &omx_flacdec_component_Private->ports[0], 0, OMX_TRUE); // input
base_audio_port_Constructor(openmaxStandComp, &omx_flacdec_component_Private->ports[1], 1, OMX_FALSE); // output
/** parameters related to input port */
inPort = (omx_base_audio_PortType *) omx_flacdec_component_Private->ports[OMX_BASE_FILTER_INPUTPORT_INDEX];
inPort->sPortParam.nBufferSize = DEFAULT_IN_BUFFER_SIZE*2;
strcpy(inPort->sPortParam.format.audio.cMIMEType, "audio/flac");
inPort->sPortParam.format.audio.eEncoding = OMX_AUDIO_CodingFLAC;
inPort->sAudioParam.eEncoding = OMX_AUDIO_CodingFLAC;
/** parameters related to output port */
outPort = (omx_base_audio_PortType *) omx_flacdec_component_Private->ports[OMX_BASE_FILTER_OUTPUTPORT_INDEX];
outPort->sPortParam.format.audio.eEncoding = OMX_AUDIO_CodingPCM;
outPort->sPortParam.nBufferSize = AUDIO_DEC_OUT_BUFFER_SIZE;
outPort->sAudioParam.eEncoding = OMX_AUDIO_CodingPCM;
//Default values for AAC audio param port
setHeader(&omx_flacdec_component_Private->pAudioFlac, sizeof(OMX_AUDIO_PARAM_FLACTYPE));
omx_flacdec_component_Private->pAudioFlac.nPortIndex = 0;
omx_flacdec_component_Private->pAudioFlac.nChannels = 2;
omx_flacdec_component_Private->pAudioFlac.nBitRate = 0;
omx_flacdec_component_Private->pAudioFlac.nSampleRate = 44100;
omx_flacdec_component_Private->pAudioFlac.eChannelMode = OMX_AUDIO_ChannelModeStereo;
/** settings of output port audio format - pcm */
setHeader(&omx_flacdec_component_Private->pAudioPcmMode, sizeof(OMX_AUDIO_PARAM_PCMMODETYPE));
omx_flacdec_component_Private->pAudioPcmMode.nPortIndex = 1;
omx_flacdec_component_Private->pAudioPcmMode.nChannels = 2;
omx_flacdec_component_Private->pAudioPcmMode.eNumData = OMX_NumericalDataSigned;
omx_flacdec_component_Private->pAudioPcmMode.eEndian = OMX_EndianLittle;
omx_flacdec_component_Private->pAudioPcmMode.bInterleaved = OMX_TRUE;
omx_flacdec_component_Private->pAudioPcmMode.nBitPerSample = 16;
omx_flacdec_component_Private->pAudioPcmMode.nSamplingRate = 44100;
omx_flacdec_component_Private->pAudioPcmMode.ePCMMode = OMX_AUDIO_PCMModeLinear;
omx_flacdec_component_Private->pAudioPcmMode.eChannelMapping[0] = OMX_AUDIO_ChannelLF;
omx_flacdec_component_Private->pAudioPcmMode.eChannelMapping[1] = OMX_AUDIO_ChannelRF;
/** now it's time to know the audio coding type of the component */
if(!strcmp(cComponentName, AUDIO_DEC_FLAC_NAME))
{
omx_flacdec_component_Private->audio_coding_type = OMX_AUDIO_CodingFLAC;
}
else if (!strcmp(cComponentName, AUDIO_DEC_BASE_NAME))
{
omx_flacdec_component_Private->audio_coding_type = OMX_AUDIO_CodingUnused;
}
else
{
// IL client specified an invalid component name
LOGE("OMX_ErrorInvalidComponentName %s", cComponentName);
return OMX_ErrorInvalidComponentName;
}
/** general configuration irrespective of any audio formats */
/** setting values of other fields of omx_maddec_component_Private structure */
omx_flacdec_component_Private->BufferMgmtCallback = omx_audiodec_component_BufferMgmtCallback;
omx_flacdec_component_Private->messageHandler = omx_audiodec_component_MessageHandler;
omx_flacdec_component_Private->destructor = omx_audiodec_component_Destructor;
openmaxStandComp->SetParameter = omx_audiodec_component_SetParameter;
openmaxStandComp->GetParameter = omx_audiodec_component_GetParameter;
openmaxStandComp->GetExtensionIndex = omx_audiodec_component_GetExtensionIndex;
omx_flacdec_component_Private->decode_ready = OMX_FALSE;
memset(&omx_flacdec_component_Private->cdk_core, 0x00, sizeof(cdk_core_t));
memset(&omx_flacdec_component_Private->cdmx_info, 0x00, sizeof(cdmx_info_t));
memset(&omx_flacdec_component_Private->cdmx_out, 0x00, sizeof(cdmx_output_t));
omx_flacdec_component_Private->cdk_core.m_iAudioProcessMode = 2; /* decoded pcm mode */
omx_flacdec_component_Private->cdk_core.m_psCallback = &(omx_flacdec_component_Private->callback_func);
omx_flacdec_component_Private->cdk_core.m_psCallback->m_pfMalloc = (void* (*) ( unsigned int ))malloc;
omx_flacdec_component_Private->cdk_core.m_psCallback->m_pfRealloc = (void* (*) ( void*, unsigned int ))realloc;
omx_flacdec_component_Private->cdk_core.m_psCallback->m_pfFree = (void (*) ( void* ))free;
omx_flacdec_component_Private->cdk_core.m_psCallback->m_pfMemcpy = (void* (*) ( void*, const void*, unsigned int ))memcpy;
omx_flacdec_component_Private->cdk_core.m_psCallback->m_pfMemmove = (void* (*) ( void*, const void*, unsigned int ))memmove;
omx_flacdec_component_Private->cdk_core.m_psCallback->m_pfMemset = (void (*) ( void*, int, unsigned int ))memset;
omx_flacdec_component_Private->iAdecType = AUDIO_ID_FLAC;
omx_flacdec_component_Private->iCtype = CONTAINER_TYPE_AUDIO;
omx_flacdec_component_Private->cb_function = TCC_FLAC_DEC;
if (omx_flacdec_component_Private->pRest == NULL)
{
omx_flacdec_component_Private->pRest = (OMX_U8*)malloc(DEFAULT_OUT_BUFFER_SIZE);
}
DBUG_MSG("constructor of FLAC decoder component is completed ret = %d \n", err);
return err;
}