void* q__AllocateMemory(size_t size)
{
// dumb alloc, no free
qprintf("*** AllocateMemory(%x)", size);
static uint32_t alloc_ptr = 0x10000000;
void* ans = (void*)ALIGN32(alloc_ptr + 64);
alloc_ptr = ALIGN32(alloc_ptr + size + 128);
qprintf(" => %x\n", ans);
return ans;
}
int NandTitle::LoadFileFromNand(const char *filepath, u8 **outbuffer, u32 *outfilesize)
{
if(!filepath)
return -1;
fstats *stats = (fstats *) memalign(32, ALIGN32(sizeof(fstats)));
if(!stats)
return IPC_ENOMEM;
int fd = ISFS_Open(filepath, ISFS_OPEN_READ);
if(fd < 0)
{
free(stats);
return fd;
}
int ret = ISFS_GetFileStats(fd, stats);
if (ret < 0)
{
free(stats);
ISFS_Close(fd);
return ret;
}
u32 filesize = stats->file_length;
free(stats);
u8 *buffer = (u8 *) memalign(32, ALIGN32(filesize));
if(!buffer)
{
ISFS_Close(fd);
return IPC_ENOMEM;
}
ret = ISFS_Read(fd, buffer, filesize);
ISFS_Close(fd);
if (ret < 0)
{
free(buffer);
return ret;
}
*outbuffer = buffer;
*outfilesize = filesize;
return 0;
}
int Playlog_Delete(void)
{
s32 res = -1;
//Open play_rec.dat
s32 fd = IOS_Open(PLAYRECPATH, IPC_OPEN_RW);
if(fd < 0)
return fd;
PlayRec * playrec_buf = memalign(32, ALIGN32(sizeof(PlayRec)));
if(!playrec_buf)
goto cleanup;
//Read play_rec.dat
if(IOS_Read(fd, playrec_buf, sizeof(PlayRec)) != sizeof(PlayRec))
goto cleanup;
if(IOS_Seek(fd, 0, 0) < 0)
goto cleanup;
// invalidate checksum
playrec_buf->checksum = 0;
if(IOS_Write(fd, playrec_buf, sizeof(PlayRec)) != sizeof(PlayRec))
goto cleanup;
res = 0;
cleanup:
free(playrec_buf);
IOS_Close(fd);
return res;
}
int Playlog_Update(const char * ID, const u16 * title)
{
if(!ID || !title)
return -1;
//If not started from SystemMenu, create playlog
Playlog_Create();
s32 fd = -1, res = -1;
u32 sum = 0;
u8 i;
//Open play_rec.dat
fd = IOS_Open(PLAYRECPATH, IPC_OPEN_RW);
if(fd == -106)
{
//In case the play_rec.dat wasn´t found create one and try again
int ret = Playlog_Create();
if(ret < 0)
return ret;
fd = IOS_Open(PLAYRECPATH, IPC_OPEN_RW);
}
if(fd < 0)
return res;
PlayRec * playrec_buf = memalign(32, ALIGN32(sizeof(PlayRec))); //! Should be 32 byte aligned
if(!playrec_buf)
{
IOS_Close(fd);
return res;
}
memset(playrec_buf, 0, sizeof(PlayRec));
u64 stime = getWiiTime();
playrec_buf->ticks_boot = stime;
playrec_buf->ticks_last = stime;
//Update channel name and ID
memcpy(playrec_buf->name, title, 84);
memcpy(playrec_buf->title_id, ID, 6);
//Calculate and update checksum
for(i = 0; i < 31; i++)
sum += playrec_buf->data[i];
playrec_buf->checksum = sum;
//Write play_rec.dat
if(IOS_Write(fd, playrec_buf, sizeof(PlayRec)) == sizeof(PlayRec))
res = 0;
IOS_Close(fd);
free(playrec_buf);
return res;
}
Decode_Status VaapiDecoderVP9::ensureContext(const Vp9FrameHdr* hdr)
{
// only reset va context when there is a larger frame
if (m_configBuffer.width < hdr->width
|| m_configBuffer.height < hdr->height) {
INFO("frame size changed, reconfig codec. orig size %d x %d, new size: %d x %d",
m_configBuffer.width, m_configBuffer.height, hdr->width, hdr->height);
Decode_Status status = VaapiDecoderBase::terminateVA();
if (status != DECODE_SUCCESS)
return status;
m_configBuffer.width = hdr->width;
m_configBuffer.height = hdr->height;
m_configBuffer.surfaceWidth = ALIGN8(hdr->width);
m_configBuffer.surfaceHeight = ALIGN32(hdr->height);
status = VaapiDecoderBase::start(&m_configBuffer);
if (status != DECODE_SUCCESS)
return status;
return DECODE_FORMAT_CHANGE;
} else if (m_videoFormatInfo.width != hdr->width
|| m_videoFormatInfo.height != hdr->height) {
// notify client of resolution change, no need to reset hw context
INFO("frame size changed, reconfig codec. orig size %d x %d, new size: %d x %d\n", m_videoFormatInfo.width, m_videoFormatInfo.height, hdr->width, hdr->height);
m_videoFormatInfo.width = hdr->width;
m_videoFormatInfo.height = hdr->height;
return DECODE_FORMAT_CHANGE;
}
return DECODE_SUCCESS;
}
//------------------------------------------------------------------------------
tQueueReturn lfq_entryEnqueue (tQueueInstance pInstance_p,
UINT8 *pData_p, UINT16 size_p)
{
tQueue *pQueue = (tQueue*)pInstance_p;
UINT16 entryPayloadSize;
tEntryHeader entryHeader;
if(pQueue == NULL || pData_p == NULL || size_p > QUEUE_MAX_PAYLOAD)
return kQueueInvalidParameter;
switch(getHwQueueState(pQueue))
{
case kQueueStateOperational:
break;
case kQueueStateReset:
/// queue was reset by consumer, producer reactivates queue
setHwQueueState(pQueue, kQueueStateOperational);
break;
default:
case kQueueStateInvalid:
return kQueueHwError;
}
if(UNALIGNED32(pData_p))
return kQueueAlignment;
getHwQueueBufferHeader(pQueue);
entryPayloadSize = ALIGN32(size_p);
if(!checkPayloadFitable(pQueue, entryPayloadSize))
return kQueueFull;
/// prepare header
entryHeader.magic = QUEUE_MAGIC;
entryHeader.payloadSize = entryPayloadSize;
memset(entryHeader.aReserved, 0, sizeof(entryHeader.aReserved));
writeHeader(pQueue, &entryHeader);
writeData(pQueue, pData_p, entryPayloadSize);
/// new element is written
pQueue->local.entryIndices.write += 1;
/// the new indices are written to hw only if the queue is still operational
if(getHwQueueState(pQueue) != kQueueStateOperational)
return kQueueSuccessful;
setHwQueueWrite(pQueue);
return kQueueSuccessful;
}
int
cpu_coredump32(struct lwp *l, struct coredump_iostate *iocookie,
struct core32 *chdr)
{
struct md_core32 md_core;
struct coreseg cseg;
int error;
if (iocookie == NULL) {
CORE_SETMAGIC(*chdr, COREMAGIC, MID_I386, 0);
chdr->c_hdrsize = ALIGN32(sizeof(*chdr));
chdr->c_seghdrsize = ALIGN32(sizeof(cseg));
chdr->c_cpusize = sizeof(md_core);
chdr->c_nseg++;
return 0;
}
/* Save integer registers. */
error = netbsd32_process_read_regs(l, &md_core.intreg);
if (error)
return error;
/* Save floating point registers. */
error = netbsd32_process_read_fpregs(l, &md_core.freg, NULL);
if (error)
return error;
CORE_SETMAGIC(cseg, CORESEGMAGIC, MID_I386, CORE_CPU);
cseg.c_addr = 0;
cseg.c_size = chdr->c_cpusize;
error = coredump_write(iocookie, UIO_SYSSPACE, &cseg,
chdr->c_seghdrsize);
if (error)
return error;
return coredump_write(iocookie, UIO_SYSSPACE, &md_core,
sizeof(md_core));
}
status_t VideoThread::convertNV12Linear2Tiled(const AtomBuffer &buff)
{
#ifdef GRAPHIC_IS_GEN
VAStatus ret;
RenderTarget Src, Dst;
ANativeWindowBuffer *nativeBuffer = buff.gfxInfo_rec.gfxBuffer->getNativeBuffer();
if (mVpp == NULL) {
ALOGE("@%s vpp is not valid", __FUNCTION__);
return UNKNOWN_ERROR;
}
Src.width = buff.bpl;
Src.height = buff.height;
Src.stride = buff.bpl;
Src.format = VA_RT_FORMAT_YUV420;
Src.pixel_format = VA_FOURCC_NV12;
Src.type = RenderTarget::ANDROID_GRALLOC;
Src.handle = (int)*buff.gfxInfo.gfxBufferHandle;
Src.rect.x = Src.rect.y = 0;
Src.rect.width = buff.width;
Src.rect.height = buff.height;
// Specific format information is in graphic handle.
Dst.width = nativeBuffer->stride;
Dst.height = ALIGN32(buff.height);
Dst.stride = nativeBuffer->stride;
Dst.format = VA_RT_FORMAT_YUV420;
Dst.pixel_format = VA_FOURCC_NV12;
Dst.type = RenderTarget::ANDROID_GRALLOC;
Dst.handle = (int)*buff.gfxInfo_rec.gfxBufferHandle;
Dst.rect.x = Dst.rect.y = 0;
Dst.rect.width = buff.width;
Dst.rect.height = buff.height;
LOG2("@%s Src %dx%d s:%d handle:%x", __FUNCTION__, Src.width, Src.height, Src.stride, Src.handle);
LOG2("@%s Dst %dx%d s:%d handle:%x", __FUNCTION__, Dst.width, Dst.height, Dst.stride, Dst.handle);
/**
* vpp start will be called automatically inside perform
* perform asynchronously to speed up recording process.
*/
ret = mVpp->perform(Src, Dst, NULL, true);
if (ret != VA_STATUS_SUCCESS) {
ALOGE("@%s error:%x", __FUNCTION__, ret);
return UNKNOWN_ERROR;
}
#endif //GRAPHIC_IS_GEN
return OK;
}
unsigned char *dcps_key_data_get (Topic_t *tp,
const void *data,
int dynamic,
int secure,
unsigned char buf [16],
size_t *size,
DDS_ReturnCode_t *ret)
{
unsigned char *keys;
const TypeSupport_t *ts;
ts = tp->type->type_support;
if (!ts->ts_keys) {
*ret = DDS_RETCODE_PRECONDITION_NOT_MET;
return (NULL);
}
if (!data) {
*ret = DDS_RETCODE_BAD_PARAMETER;
return (NULL);
}
*size = ts->ts_mkeysize;
if (!*size || !ts->ts_fksize) {
*size = DDS_KeySizeFromNativeData (data, dynamic, ts, ret);
if (!*size) {
*ret = DDS_RETCODE_BAD_PARAMETER;
warn_printf ("key_data_get: DDS_KeySize() returns error!");
return (NULL);
}
}
if (*size > 16) {
keys = xmalloc (ALIGN32 (*size));
if (!keys) {
*ret = DDS_RETCODE_OUT_OF_RESOURCES;
warn_printf ("key_data_get: xmalloc() returns NULL!");
return (NULL);
}
}
else
keys = buf;
*ret = DDS_KeyFromNativeData (keys, data, dynamic, secure, ts);
if (*ret != DDS_RETCODE_OK) {
if (*size > 16)
xfree (keys);
return (NULL);
}
*ret = DDS_RETCODE_OK;
return (keys);
}
void BufferCircle::SetBufferBlockSize(int size)
{
if(size < 0)
return;
BufferBlockSize = size;
for(int i = 0; i < Size(); i++)
{
if(SoundBuffer[i] != NULL)
free(SoundBuffer[i]);
SoundBuffer[i] = (u8 *) memalign(32, ALIGN32(BufferBlockSize));
BufferSize[i] = 0;
BufferReady[i] = false;
}
}
//------------------------------------------------------------------------------
tQueueReturn lfq_entryDequeue (tQueueInstance pInstance_p,
UINT8 *pData_p, UINT16 *pSize_p)
{
tQueue *pQueue = (tQueue*)pInstance_p;
tEntryHeader EntryHeader;
UINT16 size;
if(pQueue == NULL || pData_p == NULL)
return kQueueInvalidParameter;
/// not operational queues are empty for the consumer
if(getHwQueueState(pQueue) != kQueueStateOperational)
return kQueueEmpty;
if(UNALIGNED32(pData_p))
return kQueueAlignment;
getHwQueueBufferHeader(pQueue);
if(checkQueueEmpty(pQueue))
return kQueueEmpty;
readHeader(pQueue, &EntryHeader);
if(!checkMagicValid(&EntryHeader))
return kQueueInvalidEntry;
size = ALIGN32(EntryHeader.payloadSize);
if(size > *pSize_p)
return kQueueNoResource;
readData(pQueue, pData_p, size);
/// element is read
pQueue->local.entryIndices.read += 1;
setHwQueueRead(pQueue);
/// return entry size
*pSize_p = size;
return kQueueSuccessful;
}
static void write_pcapng_decrypted(struct wlantest *wt)
{
size_t len;
struct pcapng_enhanced_packet *pkt;
u8 *pos;
u32 *block_len;
if (!wt->pcapng || wt->decrypted == NULL)
return;
add_note(wt, MSG_EXCESSIVE, "decrypted version of the previous frame");
len = sizeof(*pkt) + wt->decrypted_len + 100 + notes_len(wt, 32);
pkt = os_zalloc(len);
if (pkt == NULL)
return;
pkt->block_type = PCAPNG_BLOCK_ENHANCED_PACKET;
pkt->interface_id = 0;
pkt->timestamp_high = wt->write_pcapng_time_high;
pkt->timestamp_low = wt->write_pcapng_time_low;
pkt->captured_len = wt->decrypted_len;
pkt->packet_len = wt->decrypted_len;
pos = (u8 *) (pkt + 1);
os_memcpy(pos, wt->decrypted, wt->decrypted_len);
pos += ALIGN32(wt->decrypted_len);
pos = pcapng_add_comments(wt, pos);
block_len = (u32 *) pos;
pos += 4;
*block_len = pkt->block_total_len = pos - (u8 *) pkt;
fwrite(pkt, pos - (u8 *) pkt, 1, wt->pcapng);
if (wt->pcap_no_buffer)
fflush(wt->pcapng);
os_free(pkt);
}
void BufferCircle::Resize(int size)
{
while(size < Size())
RemoveBuffer(Size()-1);
int oldSize = Size();
SoundBuffer.resize(size);
BufferSize.resize(size);
BufferReady.resize(size);
for(int i = oldSize; i < Size(); i++)
{
if(BufferBlockSize > 0)
SoundBuffer[i] = (u8 *) memalign(32, ALIGN32(BufferBlockSize));
else
SoundBuffer[i] = NULL;
BufferSize[i] = 0;
BufferReady[i] = false;
}
}
void GuiImageData::LoadTPL(const u8 *img, int imgSize)
{
TplImage TplFile(img, imgSize);
width = TplFile.GetWidth(0);
height = TplFile.GetHeight(0);
format = (u8) TplFile.GetFormat(0);
const u8 * ImgPtr = TplFile.GetTextureBuffer(0);
if(ImgPtr)
{
int len = ALIGN32(TplFile.GetTextureSize(0));
data = (u8 *) memalign(32, len);
if(!data)
return;
memcpy(data, ImgPtr, len);
DCFlushRange(data, len);
}
}
u8 *ISFS_GetFile(u8 *path, u32 *size, s32 length)
{
*size = 0;
s32 fd = ISFS_Open((const char *) path, ISFS_OPEN_READ);
u8 *buf = NULL;
static fstats stats ATTRIBUTE_ALIGN(32);
if (fd >= 0)
{
if (ISFS_GetFileStats(fd, &stats) >= 0)
{
if (length <= 0) length = stats.file_length;
if (length > 0)
buf = (u8 *) MEM2_alloc(ALIGN32(length));
if (buf)
{
*size = stats.file_length;
if (ISFS_Read(fd, (char*)buf, length) != length)
{
*size = 0;
SAFE_FREE(buf);
}
}
}
ISFS_Close(fd);
}
if (*size > 0)
{
DCFlushRange(buf, *size);
ICInvalidateRange(buf, *size);
}
return buf;
}
SIGN32 MV_DRMLIB_Load_Customer_Key(UNSG8* pbCustKeyStore, UNSG32 uKeyStoreSize)
{
FIGODRV_HANDLE hFigoDrv = NULL;
UNSG32 i = 0;
UNSG32 uEncImgSize = MEMPOLL_SIZE;
SIGN32 nRet = 0;
UNSG32 uErrCode = 0;
UNSG32 uCheckSize = 1024;
UNSG8* pbSrcDDR = NULL;
UNSG8* pbDstImg = NULL;
SIE_DRMROM_CMD drmCmd;
SIE_DRMROM_CMD drmRsp;
T32SECSTATUS_CFG cfgSecStatus;
void *pDiagDtcm = NULL;
UNSG32 uReady = 0;
UNSG32 uRspFlag = 0;
UNSG32 uCmdFlag = 0;
UNSG32 uErrorCode = 0;
UNSG32 uKeyNum = 0;
UNSG32 uKeyId = 0;
UNSG32 uSize = 0;
UNSG8 * pbTemp = NULL;
get_figo_img(gp_cust_figo_image);
flush_all_dcache();
nRet = MV_DRMLIB_PreProcess_Customer_KeyStore(pbCustKeyStore, uKeyStoreSize, &uKeyNum);
if(0 != nRet) {
lgpl_printf("Warning: Failed to preprocess keystore \n");
return -1;
}
pbCustKeyStore = pbCustKeyStore + 8; //Skip the key store header: 16 bytes
uKeyStoreSize = uKeyStoreSize - 8;
//!Wait FIGO Ready
Wait_FIGO();
//!Prepare the Image
{
UNSG8* pbAlloc = NULL;
UNSG32 uVSize = MEMPOLL_SIZE;
unsigned int i = 0;
pbAlloc = (UNSG8*)mempool;
pbSrcDDR = (UNSG8*)(ALIGN32(pbAlloc) + 32);
pbTemp = pbSrcDDR;
for (i = 0; i< uVSize - 64; i = i + 4)
{
pbTemp = pbSrcDDR + i;
*(UNSG32 *)(pbTemp) = 0;
}
}
pbDstImg = pbSrcDDR;
{
unsigned int i = 0;
for (i = 0; i < CUSTK_IMAGE_MAX_SIZE; i++)
*(pbDstImg + i) = *((UNSG8*)gp_cust_figo_image + i);
}
//! Init DTCM
{
int i = 0;
void* pDiagDtcm = NULL;
UNSG32 uSize = 0;
pDiagDtcm = (void *)(ALIGN32(dtcmpool) + 32);
for(i = 0 ; i< (9688/4); i = i+1 )
*(((UNSG32*)pDiagDtcm) + i) = 0;
uSize = 9688 - RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag;
//lgpl_printf("Before Init the DTCM, the Size = [0x%x]\n", uSize);
for ( i = 0; i < uSize/4; i +=1 )
{
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag + i*4, 0);
}
}
flush_all_dcache();
//Load FIGO Image
{
int i = 0;
for (i = 0; i < sizeof(drmCmd)/8; i = i + 8)
*((UNSG64 *)&drmCmd + i) = 0;
cfgSecStatus.u32 = MV_FIGODRV_IO_RD32(DRMFIGOREG_SECSTAT);
if ( cfgSecStatus.uCFG_flag != SECSTATUS_CFG_flag_ENABLED )
{
return MV_FIGODRV_ERR_INVLAID_ARG;
}
//! Check figo command status
drmCmd.u32DRMROM_CMD_STAT = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_STAT);
if ( drmCmd.uSTAT_en )
{
return MV_FIGODRV_ERR_INVLAID_STATUS;
}
drmCmd.uCMD_CFG_tag = DRMROM_CMD_TYPE_LD_FIGOIMG;
drmCmd.uCMD_CFG_nonce = (UNSG32)0xffffffff;
drmCmd.uCMD_DAT0_crcCmd32 = 0;
drmCmd.uCMD_DAT1_imgSz = 0;
drmCmd.uCMD_DAT2_imgSrcAddr = (UNSG32)pbDstImg;
drmCmd.uSTAT_en = 1;
//! Issue command
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_CMD_CFG, drmCmd.u32DRMROM_CMD_CMD_CFG);
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_CMD_DAT0, drmCmd.u32DRMROM_CMD_CMD_DAT0);
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_CMD_DAT1, drmCmd.u32DRMROM_CMD_CMD_DAT1);
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_CMD_DAT2, drmCmd.u32DRMROM_CMD_CMD_DAT2);
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_CMD_DAT3, drmCmd.u32DRMROM_CMD_CMD_DAT3);
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_STAT, drmCmd.u32DRMROM_CMD_STAT);
//! Check figo command status
while(1)
{
drmRsp.u32DRMROM_CMD_STAT = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_STAT);
if ( drmRsp.uSTAT_en )
{
continue;
}
break;
}
//! Load Reponse
drmRsp.u32DRMROM_CMD_RSP_CFG = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_RSP_CFG);
drmRsp.u32DRMROM_CMD_RSP_DAT0 = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_RSP_DAT0);
drmRsp.u32DRMROM_CMD_RSP_DAT1 = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_RSP_DAT1);
if ( drmRsp.uRSP_CFG_tag != DRMROM_CMD_TYPE_LD_FIGOIMG)
{
return MV_FIGODRV_ERR;
}
//!Todo verify crc32 value with nonce
uErrorCode = drmRsp.uRSP_DAT1_error;
if (0 != uErrorCode)
return MV_FIGODRV_ERR;
}
flush_all_dcache();
// Load the customer keystore into DTCM
{
UNSG32 uAESKeyCnt = 0;
UNSG32 uRSAPubKeyCnt = 0;
UNSG32 uRSAPrvKeyCnt = 0;
UNSG32 j = 0;
for(i =0; i< uKeyNum; i++)
{
uKeyId = *(UNSG32*)pbCustKeyStore; //! First Word is Key ID
uSize = *((UNSG32*)(pbCustKeyStore + 4)); //! Second word is size
//printf("%s, %d, key id == 0x%x\n", __FUNCTION__, __LINE__, uKeyId);
if((uKeyId == 0x80 || uKeyId == 0x81)&& uSize == 0x90)
{
uAESKeyCnt++;
#if 0
pbCustKeyStore = pbCustKeyStore + 8 + uSize;
continue;
#endif
lgpl_printf("Load No.%d AES Key into User Key DTCM Area\n", uAESKeyCnt);
}
else if(uKeyId == 0x82&& uSize == 0x140)
{
uRSAPubKeyCnt++;
lgpl_printf("Load No.%d RSA Public Key into User Key DTCM Area\n", uRSAPubKeyCnt);
}
else if(uKeyId == 0x8e && uSize == 0x180)
{
uRSAPrvKeyCnt++;
lgpl_printf("Load No.%d RSA Private Key into User Key DTCM Area\n", uRSAPrvKeyCnt);
}
else
{
lgpl_printf("Warning: Invalid key store!Key Id is:0x%x, keystore size is: 0x%x\n", uKeyId, uSize);
uErrorCode = 0xff;
break;
}
pbCustKeyStore = pbCustKeyStore + 8;
for(j = 0; j < uSize/4; j++)
{
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_custKeystore + j*4, *(UNSG32*)(pbCustKeyStore + j*4));
}
lgpl_printf("Loading Secure Customer Key Store is finished\n");
do{
uRspFlag = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_rspFlag);
uRspFlag = uRspFlag & 0xffff;
MV_FIGODRV_SLEEP(1000);
} while (uRspFlag != 0x3010);
// Send Command to FIOG image
{
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_uKeyId, uKeyId);
uCmdFlag = 0xa5;
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag, uCmdFlag);
}
// Wait the Command is executed
do{
uCmdFlag = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag);
uCmdFlag = uCmdFlag & 0xff;
MV_FIGODRV_SLEEP(1000);
} while (uCmdFlag != 0x30);
uErrorCode = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + BA_DRMDiag_CUSTOMER_KEYSTORE_CTX_uErrorCode);
uErrorCode = uErrorCode&0xff;
MV_DRMLIB_Check_ReturnError(uErrorCode);
if(uErrorCode != 0)
{
break;
}
//lgpl_printf("******* Load Customer Key store successfully*********\n");
pbCustKeyStore = pbCustKeyStore + uSize;
}
}
uCmdFlag = 0x5a;
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag, uCmdFlag);
do{
uRspFlag = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_rspFlag);
uRspFlag = uRspFlag & 0xffff;
MV_FIGODRV_SLEEP(1000);
} while (uRspFlag != 0x88de);
// uCmdFlag = 0xf3;
// MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag, uCmdFlag);
lgpl_printf("Finish to load Customer Key store\n");
uErrorCode = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + BA_DRMDiag_CUSTOMER_KEYSTORE_CTX_uErrorCode);
uErrorCode = uErrorCode&0xff;
MV_DRMLIB_Check_ReturnError(uErrorCode);
if(uErrorCode != 0)
{
lgpl_printf("uErrorCode = 0x%x\n", uErrorCode);
//return -1;
}
uCmdFlag = 0xde;
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag, uCmdFlag);
// Wait Figo ROM code ready
Wait_FIGO();
lgpl_printf("FIGO is running at FIGO ROM Code agian\n");
if(uErrorCode != 0)
{
return -1;
}
return MV_FIGODRV_OK;
}
s8 LoadHacks_Hash( bool Force_Load_Nand )
{
if( hacks_hash.size() ) //hacks_hash already loaded
{
hacks_hash.clear();
if(states_hash)
{
mem_free(states_hash);
}
}
if(foff != 0)
foff=0;
bool mode = true;
s32 fd=0;
char *buf=NULL;
STACK_ALIGN(fstats,status,sizeof(fstats),32);
unsigned int size=0;
FILE* in = NULL;
if(!Force_Load_Nand)
{
in = fopen ("fat:/apps/priiloader/hacks_hash.ini","rb");
if(!in)
gprintf("fopen error : strerror %s\n",strerror(errno));
}
if( !in )
{
fd = ISFS_Open("/title/00000001/00000002/data/hackshas.ini", 1 );
if( fd < 0 )
{
gprintf("LoadHacks : hacks_hash.ini not on FAT or Nand. ISFS_Open error %d\n",fd);
return 0;
}
mode = false;
}
if( mode ) //read file from FAT
{
//read whole file in
fseek( in, 0, SEEK_END );
size = ftell(in);
fseek( in, 0, 0);
if( size == 0 )
{
PrintFormat( 1, ((640/2)-((strlen("Error \"hacks_hash.ini\" is 0 byte!"))*13/2))>>1, 208, "Error \"hacks_hash.ini\" is 0 byte!");
sleep(5);
return 0;
}
buf = (char*)mem_align( 32, ALIGN32(size));
if( buf == NULL )
{
error = ERROR_MALLOC;
return 0;
}
memset( buf, 0, size );
if(fread( buf, sizeof( char ), size, in ) != size )
{
mem_free(buf);
PrintFormat( 1, ((640/2)-((strlen("Error reading \"hacks_hash.ini\""))*13/2))>>1, 208, "Error reading \"hacks_hash.ini\"");
sleep(5);
return 0;
}
int NandTitle::ExtractFile(const char *nandPath, const char *filepath)
{
if(!nandPath || !filepath)
return -1;
char *strDup = strdup(filepath);
if(!strDup)
return -666;
char *ptr = strrchr(strDup, '/');
if(!ptr)
{
free(strDup);
return -333;
}
else
{
*ptr = 0;
CreateSubfolder(strDup);
free(strDup);
}
int done = 0;
int fd = -1;
int blocksize = 32*1024;
u8 *buffer = (u8 *) memalign(32, ALIGN32(blocksize));
if(!buffer)
return -666;
fstats *stats = (fstats *) memalign(32, ALIGN32(sizeof(fstats)));
if(!stats)
{
free(buffer);
return -666;
}
do
{
fd = ISFS_Open(nandPath, ISFS_OPEN_READ);
if(fd < 0)
break;
int ret = ISFS_GetFileStats(fd, stats);
if (ret < 0)
break;
int filesize = stats->file_length;
FILE *pFile = fopen(filepath, "wb");
if(!pFile)
break;
while(done < filesize)
{
if(filesize-done < blocksize)
blocksize = filesize-done;
ret = ISFS_Read(fd, buffer, blocksize);
if(ret < 0)
{
done = ret;
break;
}
fwrite(buffer, 1, ret, pFile);
done += ret;
}
fclose(pFile);
} while(0);
free(buffer);
free(stats);
if(fd >= 0)
ISFS_Close(fd);
return done;
}
int NandTitle::InternalExtractDir(char *nandPath, std::string &filepath)
{
int ret = -1;
u32 list_len = 0;
ret = ISFS_ReadDir(nandPath, NULL, &list_len);
if(ret < 0)
return ret;
char * name_list = (char *) memalign(32, ALIGN32(list_len * ISFS_MAXPATH));
if(!name_list)
return -666;
ret = ISFS_ReadDir(nandPath, name_list, &list_len);
if(ret < 0)
{
free(name_list);
return ret;
}
char *entry = name_list;
for(u32 i = 0; i < list_len; ++i)
{
u32 dummy;
int posNandPath = strlen(nandPath);
int posFilePath = filepath.size();
if(posFilePath > 0 && filepath[posFilePath-1] != '/')
filepath += '/';
filepath += entry;
if(posNandPath > 0 && nandPath[posNandPath-1] != '/')
strcat(nandPath, "/");
strcat(nandPath, entry);
if(ISFS_ReadDir(nandPath, NULL, &dummy) < 0)
{
std::string filepathCpy = filepath;
ConvertInvalidCharacters(filepathCpy);
int res = ExtractFile(nandPath, filepathCpy.c_str());
if(res < 0) {
gprintf("ExtractFile: Error %i occured on file extract: %s\n", res, nandPath);
ret = -2;
}
}
else
{
int res = InternalExtractDir(nandPath, filepath);
if(res < 0) {
gprintf("InternalExtractDir: Error %i occured in: %s\n", res, nandPath);
ret = -3;
}
}
nandPath[posNandPath] = 0;
filepath.erase(posFilePath);
entry += strlen(entry) + 1;
}
free(name_list);
return ret;
}
s8 WritePriiloader( bool priiloader_found )
{
s32 ret = 0;
s32 fd = 0;
Nand_Permissions SysPerm;
if(priiloader_found == false)
{
memset(&SysPerm,0,sizeof(Nand_Permissions));
SysPerm.otherperm = 3;
SysPerm.groupperm = 3;
SysPerm.ownerperm = 3;
//system menu coping
printf("Moving System Menu app...");
ret = nand_copy(original_app,copy_app,SysPerm);
if (ret < 0)
{
if (ret == -80)
{
//checksum issues
printf("\x1b[%u;%dm", 33, 1);
printf("\nWARNING!!\n Installer could not calculate the Checksum for the System menu app");
printf("\nbut Copy was successfull.\n");
printf("Do you want the Continue ?\n");
printf("A = Yes B = No\n ");
printf("\x1b[%u;%dm", 37, 1);
if(!UserYesNoStop())
{
printf("reverting changes...\n");
ISFS_Delete(copy_app);
abort("System Menu Copying Failure");
}
else
printf("\nDone!\n");
}
else
abort("\nUnable to move the system menu. error %d",ret);
}
else
{
gprintf("Moving System Menu Done\n");
printf("Done!\n");
}
}
ret = 0;
//sys_menu app moved. lets write priiloader
STACK_ALIGN(fstats,status,sizeof(fstats),32);
memset(&SysPerm,0,sizeof(Nand_Permissions));
SysPerm.otherperm = 3;
SysPerm.groupperm = 3;
SysPerm.ownerperm = 3;
printf("Writing Priiloader app...");
gprintf("Writing Priiloader\n");
char temp_dest[ISFS_MAXPATH];
memset(temp_dest,0,ISFS_MAXPATH);
char *ptemp = NULL;
ptemp = strstr(original_app,"/");
while(ptemp != NULL && strstr(ptemp+1,"/") != NULL)
{
ptemp = strstr(ptemp+1,"/");
}
if(ptemp[0] == '/')
{
ptemp = ptemp+1;
}
memset(temp_dest,0,ISFS_MAXPATH);
sprintf(temp_dest,"/tmp/%s",ptemp);
ISFS_Delete(temp_dest);
ret = ISFS_CreateFile(temp_dest,SysPerm.attributes,SysPerm.ownerperm,SysPerm.groupperm,SysPerm.otherperm);
fd = ISFS_Open(temp_dest,ISFS_OPEN_RW);
if (fd < 0)
{
gprintf("error %d\n",fd);
abort("\nFailed to open file for Priiloader writing");
}
ret = ISFS_Write(fd,priiloader_app,priiloader_app_size);
if (ret < 0 ) //check if the app was writen correctly
{
ISFS_Close(fd);
ISFS_Delete(copy_app);
ISFS_Delete(temp_dest);
gprintf("Write failed. ret %d\n",ret);
abort("\nWrite of Priiloader app failed");
}
ISFS_Close(fd);
//SHA1 check here
fd = ISFS_Open(temp_dest,ISFS_OPEN_READ);
if (fd < 0)
{
ISFS_Delete(copy_app);
abort("\nFailed to open file for Priiloader checking");
}
if (ISFS_GetFileStats(fd,status) < 0)
{
ISFS_Close(fd);
ISFS_Delete(copy_app);
abort("Failed to get stats of %s. System Menu Recovered",temp_dest);
}
else
{
if ( status->file_length != priiloader_app_size )
{
ISFS_Close(fd);
ISFS_Delete(copy_app);
abort("Written Priiloader app isn't the correct size.System Menu Recovered");
}
else
{
gprintf("Size Check Success\n");
printf("Size Check Success!\n");
}
}
u8 *AppData = (u8 *)memalign(32,ALIGN32(status->file_length));
if (AppData)
ret = ISFS_Read(fd,AppData,status->file_length);
else
{
ISFS_Close(fd);
ISFS_Delete(copy_app);
abort("Checksum comparison Failure! MemAlign Failure of AppData\n");
}
ISFS_Close(fd);
if (ret < 0)
{
if (AppData)
{
free(AppData);
AppData = NULL;
}
ISFS_Delete(copy_app);
abort("Checksum comparison Failure! read of priiloader app returned %u\n",ret);
}
if(CompareSha1Hash((u8*)priiloader_app,priiloader_app_size,AppData,status->file_length))
printf("Checksum comparison Success!\n");
else
{
if (AppData)
{
free(AppData);
AppData = NULL;
}
ISFS_Delete(copy_app);
abort("Checksum comparison Failure!\n");
}
if (AppData)
{
free(AppData);
AppData = NULL;
}
// rename and do a final SHA1 chezck
ISFS_Delete(original_app);
ret = ISFS_Rename(temp_dest,original_app);
if(ret < 0 )
{
gprintf("WritePriiloader : rename returned %d\n",ret);
nand_copy(copy_app,original_app,SysPerm);
ISFS_Delete(copy_app);
abort("\nFailed to Write Priiloader : error Ren %d",ret);
}
printf("Done!!\n");
gprintf("Wrote Priiloader App.Checking Installation\n");
printf("\nChecking Priiloader Installation...\n");
memset(status,0,sizeof(fstats));
fd = ISFS_Open(original_app,ISFS_OPEN_READ);
if (fd < 0)
{
nand_copy(copy_app,original_app,SysPerm);
ISFS_Delete(copy_app);
abort("\nFailed to open file for Priiloader checking");
}
if (ISFS_GetFileStats(fd,status) < 0)
{
ISFS_Close(fd);
nand_copy(copy_app,original_app,SysPerm);
abort("Failed to get stats of %s. System Menu Recovered",original_app);
}
else
{
if ( status->file_length != priiloader_app_size )
{
ISFS_Close(fd);
nand_copy(copy_app,original_app,SysPerm);
ISFS_Delete(copy_app);
abort("Written Priiloader app isn't the correct size.System Menu Recovered");
}
else
{
gprintf("Size Check Success\n");
printf("Size Check Success!\n");
}
}
AppData = (u8 *)memalign(32,ALIGN32(status->file_length));
if (AppData != NULL)
ret = ISFS_Read(fd,AppData,status->file_length);
else
{
ISFS_Close(fd);
nand_copy(copy_app,original_app,SysPerm);
ISFS_Delete(copy_app);
abort("Checksum comparison Failure! MemAlign Failure of AppData\n");
}
ISFS_Close(fd);
if (ret < 0)
{
if (AppData)
{
free(AppData);
AppData = NULL;
}
nand_copy(copy_app,original_app,SysPerm);
ISFS_Delete(copy_app);
abort("Checksum comparison Failure! read of priiloader app returned %u\n",ret);
}
if(CompareSha1Hash((u8*)priiloader_app,priiloader_app_size,AppData,status->file_length))
printf("Checksum comparison Success!\n");
else
{
if (AppData)
{
free(AppData);
AppData = NULL;
}
nand_copy(copy_app,original_app,SysPerm);
ISFS_Delete(copy_app);
abort("Checksum comparison Failure!\n");
}
if (AppData)
{
free(AppData);
AppData = NULL;
}
gprintf("Priiloader Update Complete\n");
printf("Done!\n\n");
return 1;
}
/*
* ======== RMP_create ========
*/
RMP_Handle RMP_create(RMP_Attrs *attrs)
{
RMP_Obj *handle = NULL;
Int shmId = -1;
unsigned int shmSize = 0;
Void * addr = NULL;
RMM_Attrs rmmAttrs;
static Int shmCount = 0;
/* Create a shared memory object RMP_Obj using the key and the lock
Size of this will depend numResources and RMM_Obj etc */
Assert_isTrue(shmCount < RMMP_MAXINSTANCES, (Assert_Id)NULL);
shmSize = sizeof(RMP_Obj) + sizeof(RMM_Obj) + sizeof(UInt32);
shmSize = ALIGN32(shmSize);
shmSize += (attrs->maxFreeListBlocks * sizeof(RMM_Header));
shmSize = ALIGN32(shmSize);
#ifdef xdc_target__os_Linux
addr = SHM_getObj((GateProcess_Handle_upCast)(attrs->gate), shmSize,
(key_t)attrs->key, (SHM_InitFxn)&setInternalState, &shmId);
#else
addr = (void *)malloc(shmSize);
if (NULL != addr) {
setInternalState(addr);
shmId = 0;
}
#endif
if (shmId != -1) {
handle = (RMP_Obj *)addr;
if (0 == handle->refCount) {
/* RMM_create has to happen */
rmmAttrs.segid = shmCount; /* Use shmCount as segId */
rmmAttrs.base = attrs->base;
rmmAttrs.length = attrs->length;
rmmAttrs.maxFreeListBlocks = attrs->maxFreeListBlocks;
/* My alloc fxn will use the sharedMem address to increment an
offset pointer */
rmmAttrs.allocFxn = shmAlloc;
rmmAttrs.freeFxn = shmFree;
/* Store the shmCount in the SHM_Obj part of the handle */
handle->shmCount = shmCount;
shmCount++;
}
/* Successful acquisition of shared Mem object, so store in array
for use by allocFxn */
shmAddrs[handle->shmCount] = (unsigned int)addr;
shmIndex[handle->shmCount] = sizeof(RMP_Obj); /* Change this to work for
the allocFxn */
if (handle->refCount == 0) {
/* Whatever the RMM_create returns, store that as an offset from
shmBase */
handle->rmmOffset = OFFSET(handle, RMM_create(&rmmAttrs));
}
handle->refCount++;
/* Store the sharedMemId in the RMP_Obj */
handle->sharedMemId = shmId;
}
return (handle);
}
u8 *U8Archive::DecompressCopy( const u8 * stuff, u32 len, u32 *size ) const
{
// check for IMD5 header and skip it
if( len > 0x40 && *(u32*)stuff == 0x494d4435 )// IMD5
{
stuff += 0x20;
len -= 0x20;
}
u8* ret = NULL;
// determine if it needs to be decompressed
if( IsAshCompressed( stuff, len ) )
{
//u32 len2 = len;
// ASH0
ret = DecompressAsh( stuff, len );
if( !ret )
{
gprintf( "out of memory\n" );
return NULL;
}
}
else if( (len > 8) && *(u32*)( stuff ) == 0x59617a30 )// Yaz0
{
// Yaz0 with a magic word
Yaz0_Header *header = (Yaz0_Header *) stuff;
// set decompress length
len = header->decompressed_size;
// allocate memory
ret = (u8*) memalign(32, ALIGN32(len));
if(!ret)
{
gprintf("out of memory\n");
return NULL;
}
// function can not fail at this point
uncompressYaz0(stuff, ret, len);
}
else if( isLZ77compressed( stuff ) )
{
// LZ77 with no magic word
if( decompressLZ77content( stuff, len, &ret, &len ) )
{
return NULL;
}
}
else if( *(u32*)( stuff ) == 0x4C5A3737 )// LZ77
{
// LZ77 with a magic word
if( decompressLZ77content( stuff + 4, len - 4, &ret, &len ) )
{
return NULL;
}
}
else
{
// just copy the data out of the archive
ret = (u8*)memalign( 32, ALIGN32( len ) );
if( !ret )
{
gprintf( "out of memory\n" );
return NULL;
}
memcpy( ret, stuff, len );
}
if( size )
{
*size = len;
}
// flush the cache so if there are any textures in this data, it will be ready for the GX
DCFlushRange( ret, len );
return ret;
}
s8 GetTitleName(u64 id, u32 app, char* name,u8* _dst_uncode_name) {
s32 r;
int lang = 1; //CONF_GetLanguage();
/*
languages:
enum {
CONF_LANG_JAPANESE = 0,
CONF_LANG_ENGLISH,
CONF_LANG_GERMAN,
CONF_LANG_FRENCH,
CONF_LANG_SPANISH,
CONF_LANG_ITALIAN,
CONF_LANG_DUTCH,
CONF_LANG_SIMP_CHINESE,
CONF_LANG_TRAD_CHINESE,
CONF_LANG_KOREAN
};
cause we dont support unicode stuff in font.cpp we will force to use english then(1)
*/
u8 return_unicode_name = 0;
if(_dst_uncode_name == NULL)
{
return_unicode_name = 0;
}
else
{
return_unicode_name = 1;
}
char file[256] ATTRIBUTE_ALIGN(32);
memset(file,0,256);
sprintf(file, "/title/%08x/%08x/content/%08x.app", (u32)(id >> 32), (u32)(id & 0xFFFFFFFF), app);
gdprintf("GetTitleName : %s\n",file);
u32 cnt ATTRIBUTE_ALIGN(32);
cnt = 0;
IMET *data = (IMET *)mem_align(32, ALIGN32( sizeof(IMET) ) );
if(data == NULL)
{
gprintf("GetTitleName : IMET header align failure\n");
return -1;
}
memset(data,0,sizeof(IMET) );
r = ES_GetNumTicketViews(id, &cnt);
if(r < 0)
{
gprintf("GetTitleName : GetNumTicketViews error %d!\n",r);
mem_free(data);
return -1;
}
tikview *views = (tikview *)mem_align( 32, sizeof(tikview)*cnt );
if(views == NULL)
{
mem_free(data);
return -2;
}
r = ES_GetTicketViews(id, views, cnt);
if (r < 0)
{
gprintf("GetTitleName : GetTicketViews error %d \n",r);
mem_free(data);
mem_free(views);
return -3;
}
//lets get this party started with the right way to call ES_OpenTitleContent. and not like how libogc < 1.8.3 does it. patch was passed on , and is done correctly in 1.8.3
//the right way is ES_OpenTitleContent(u64 TitleID,tikview* views,u16 Index); note the views >_>
s32 fh = ES_OpenTitleContent(id, views, 0);
if (fh == -106)
{
CheckTitleOnSD(id);
mem_free(data);
mem_free(views);
return -106;
}
else if(fh < 0)
{
//ES method failed. remove tikviews from memory and fall back on ISFS method
gprintf("GetTitleName : ES_OpenTitleContent error %d\n",fh);
mem_free(views);
fh = ISFS_Open(file, ISFS_OPEN_READ);
// f**k failed. lets check SD & GTFO
if (fh == -106)
{
CheckTitleOnSD(id);
return -106;
}
else if (fh < 0)
{
mem_free(data);
gprintf("open %s error %d\n",file,fh);
return -5;
}
// read the completed IMET header
r = ISFS_Read(fh, data, sizeof(IMET));
if (r < 0) {
gprintf("IMET read error %d\n",r);
ISFS_Close(fh);
mem_free(data);
return -6;
}
ISFS_Close(fh);
}
else
{
//ES method
r = ES_ReadContent(fh,(u8*)data,sizeof(IMET));
if (r < 0) {
gprintf("GetTitleName : ES_ReadContent error %d\n",r);
ES_CloseContent(fh);
mem_free(data);
mem_free(views);
return -8;
}
//free data and let it point to IMET_data so everything else can work just fine
ES_CloseContent(fh);
mem_free(views);
}
char str[10][84];
char str_unprocessed[10][84];
//clear any memory that is in the place of the array cause we dont want any confusion here
memset(str,0,10*84);
if(return_unicode_name)
memset(str_unprocessed,0,10*84);
if(data->imet == 0x494d4554) // check if its a valid imet header
{
for(u8 y =0;y <= 9;y++)
{
u8 p = 0;
u8 up = 0;
for(u8 j=0;j<83;j++)
{
if(data->names[y][j] < 0x20)
if(return_unicode_name && data->names[y][j] == 0x00)
str_unprocessed[y][up++] = data->names[y][j];
else
continue;
else if(data->names[y][j] > 0x7E)
continue;
else
{
str[y][p++] = data->names[y][j];
str_unprocessed[y][up++] = data->names[y][j];
}
}
str[y][83] = '\0';
}
mem_free(data);
}
else
{
gprintf("invalid IMET header for 0x%08x/0x%08x\n", (u32)(id >> 32), (u32)(id & 0xFFFFFFFF));
return -9;
}
if(str[lang][0] != '\0')
{
gdprintf("GetTitleName : title %s\n",str[lang]);
snprintf(name,255, "%s", str[lang]);
if (return_unicode_name && str_unprocessed[lang][1] != '\0')
{
memcpy(_dst_uncode_name,&str_unprocessed[lang][0],83);
}
else if(return_unicode_name)
gprintf("WARNING : empty unprocessed string\n");
}
else
gprintf("GetTitleName: no name found\n");
memset(str,0,10*84);
memset(str_unprocessed,0,10*84);
return 1;
}
s32 nand_copy(const char *destination,u8* Buf_To_Write_to_Copy, u32 buf_size,Nand_Permissions src_perm)
{
if( Buf_To_Write_to_Copy == NULL || buf_size < 1 )
{
return -1;
}
s32 ret, dest_handler;
gprintf("owner %d group %d attributes %X perm:%X-%X-%X\n", src_perm.owner, (u32)src_perm.group, (u32)src_perm.attributes, (u32)src_perm.ownerperm, (u32)src_perm.groupperm, (u32)src_perm.otherperm);
//extract filename from destination
char temp_dest[ISFS_MAXPATH];
memset(temp_dest,0,ISFS_MAXPATH);
char *ptemp = NULL;
ptemp = strstr(destination,"/");
while(ptemp != NULL && strstr(ptemp+1,"/") != NULL)
{
ptemp = strstr(ptemp+1,"/");
}
if(ptemp[0] == '/')
{
ptemp = ptemp+1;
}
//create temp path
memset(temp_dest,0,ISFS_MAXPATH);
sprintf(temp_dest,"/tmp/%s",ptemp);
ISFS_Delete(temp_dest);
//and go for it
ret = ISFS_CreateFile(temp_dest,src_perm.attributes,src_perm.ownerperm,src_perm.groupperm,src_perm.otherperm);
if (ret != ISFS_OK)
{
printf("Failed to create file %s. ret = %d\n",temp_dest,ret);
gprintf("Failed to create file %s. ret = %d\n",temp_dest,ret);
return ret;
}
dest_handler = ISFS_Open(temp_dest,ISFS_OPEN_RW);
if (dest_handler < 0)
{
gprintf("failed to open destination : %s\n",temp_dest);
ISFS_Delete(temp_dest);
return dest_handler;
}
ret = ISFS_Write(dest_handler,Buf_To_Write_to_Copy,buf_size);
if (ret < 0)
{
gprintf("failed to write destination : %s\n",temp_dest);
ISFS_Close(dest_handler);
ISFS_Delete(temp_dest);
return ret;
}
ISFS_Close(dest_handler);
s32 temp = 0;
u8 *Data2 = NULL;
STACK_ALIGN(fstats,D2stat,sizeof(fstats),32);
/*if (D2stat == NULL)
{
temp = -1;
goto free_and_Return;
}*/
dest_handler = ISFS_Open(temp_dest,ISFS_OPEN_RW);
if(dest_handler < 0)
{
gprintf("temp_dest open error %d\n",dest_handler);
temp = -2;
goto free_and_Return;
}
temp = ISFS_GetFileStats(dest_handler,D2stat);
if(temp < 0)
{
goto free_and_Return;
}
Data2 = (u8*)memalign(32,ALIGN32(D2stat->file_length));
if (Data2 == NULL)
{
temp = -3;
goto free_and_Return;
}
if( ISFS_Read(dest_handler,Data2,D2stat->file_length) > 0 )
{
if( !CompareSha1Hash(Buf_To_Write_to_Copy,buf_size,Data2,D2stat->file_length))
{
temp = -4;
goto free_and_Return;
}
}
else
{
temp = -5;
goto free_and_Return;
}
if(Data2)
{
free(Data2);
Data2 = NULL;
}
ISFS_Close(dest_handler);
//so it was written to /tmp correctly. lets call ISFS_Rename and compare AGAIN
ISFS_Delete(destination);
ret = ISFS_Rename(temp_dest,destination);
if(ret < 0 )
{
gprintf("nand_copy(buf) : rename returned %d\n",ret);
temp = -6;
goto free_and_Return;
}
free_and_Return:
if(Data2 != NULL)
{
free(Data2);
Data2 = NULL;
}
ISFS_Close(dest_handler);
if (temp < 0)
{
gprintf("temp %d\n",temp);
//ISFS_Delete(destination);
return -80;
}
return 1;
}
s32 nand_copy(const char *source, const char *destination,Nand_Permissions src_perm)
{
//variables
u8 *buffer = NULL;
STACK_ALIGN(fstats,status,sizeof(fstats),32);
s32 file_handler, ret;
u32 FileHash_D1[5];
memset(FileHash_D1,0,5);
u32 FileHash_D2[5];
memset(FileHash_D2,0xFF,5); //place different data in D2 so that if something goes wrong later on, the comparison will fail
SHA1 sha;
sha.Reset();
//variables - temp dir & SHA1 check
char temp_dest[ISFS_MAXPATH];
memset(temp_dest,0,ISFS_MAXPATH);
char *ptemp = NULL;
u8 temp = 0;
//get temp filename
ptemp = strstr(destination,"/");
while(ptemp != NULL && strstr(ptemp+1,"/") != NULL)
{
ptemp = strstr(ptemp+1,"/");
}
if(ptemp[0] == '/')
{
ptemp = ptemp+1;
}
memset(temp_dest,0,ISFS_MAXPATH);
sprintf(temp_dest,"/tmp/%s",ptemp);
//get data into pointer from original file
file_handler = ISFS_Open(source,ISFS_OPEN_READ);
if (file_handler < 0)
{
gprintf("failed to open source : %s\n",source);
return file_handler;
}
ret = ISFS_GetFileStats(file_handler,status);
if (ret < 0)
{
printf("\n\nFailed to get information about %s!\n",source);
sleepx(2);
ISFS_Close(file_handler);
return ret;
}
buffer = (u8 *)memalign(32,ALIGN32(status->file_length));
if (buffer == NULL)
{
gprintf("buffer failed to align\n");
sleepx(2);
ISFS_Close(file_handler);
return 0;
}
memset(buffer,0,status->file_length);
ret = ISFS_Read(file_handler,buffer,status->file_length);
if (ret < 0)
{
printf("\n\nFailed to Read Data from %s!\n",source);
sleepx(2);
ISFS_Close(file_handler);
free(buffer);
buffer = NULL;
return ret;
}
ISFS_Close(file_handler);
//everything read into buffer. generate SHA1 hash of the buffer
sha.Input(buffer,status->file_length);
if (!sha.Result(FileHash_D1))
{
gprintf("could not compute Hash of D1!\n");
free(buffer);
buffer = NULL;
return -80;
}
sha.Reset();
//done, lets create temp file and write :')
ISFS_Delete(temp_dest);
ISFS_CreateFile(temp_dest,src_perm.attributes,src_perm.ownerperm,src_perm.groupperm,src_perm.otherperm);
//created. opening it...
file_handler = ISFS_Open(temp_dest,ISFS_OPEN_RW);
if (file_handler < 0)
{
gprintf("failed to open destination : %s\n",temp_dest);
ISFS_Delete(temp_dest);
free(buffer);
buffer = NULL;
return file_handler;
}
ret = ISFS_Write(file_handler,buffer,status->file_length);
if (ret < 0)
{
gprintf("failed to write destination : %s\n",destination);
ISFS_Close(file_handler);
ISFS_Delete(temp_dest);
free(buffer);
buffer = NULL;
return ret;
}
//write done. reopen file for reading and compare SHA1 hash
ISFS_Close(file_handler);
free(buffer);
buffer = NULL;
memset(status,0,sizeof(fstats));
file_handler = ISFS_Open(temp_dest,ISFS_OPEN_READ);
if(!file_handler)
{
temp = -1;
goto free_and_Return;
}
ret = ISFS_GetFileStats(file_handler,status);
if (ret < 0)
{
ISFS_Close(file_handler);
temp = -2;
goto free_and_Return;
}
buffer = (u8 *)memalign(32,ALIGN32(status->file_length));
if (buffer == NULL)
{
gprintf("buffer failed to align\n");
ISFS_Close(file_handler);
temp = -3;
goto free_and_Return;
}
memset(buffer,0,status->file_length);
if( ISFS_Read(file_handler,buffer,status->file_length) < 0 )
{
temp = -4;
goto free_and_Return;
}
ISFS_Close(file_handler);
sha.Reset();
sha.Input(buffer,status->file_length);
free(buffer);
buffer = NULL;
if (!sha.Result(FileHash_D2))
{
gprintf("could not compute Hash of D2!\n");
return -80;
}
sha.Reset();
/*gprintf("sha1 original : %x %x %x %x %x\nsha1 written : %x %x %x %x %x\n",
FileHash_D1[0],FileHash_D1[1],FileHash_D1[2],FileHash_D1[3],FileHash_D1[4],
FileHash_D2[0],FileHash_D2[1],FileHash_D2[2],FileHash_D2[3],FileHash_D2[4]);*/
if (!memcmp(FileHash_D1,FileHash_D2,sizeof(FileHash_D1)))
{
gprintf("nand_copy : SHA1 hash success\n");
ISFS_Delete(destination);
ret = ISFS_Rename(temp_dest,destination);
gprintf("ISFS_Rename ret %d\n",ret);
if ( ret < 0)
temp = -5;
goto free_and_Return;
}
else
{
temp = -6;
goto free_and_Return;
}
free_and_Return:
if(buffer)
{
free(buffer);
buffer = NULL;
}
if (temp < 0)
{
gprintf("nand_copy temp %d fail o.o;\n",temp);
ISFS_Delete(temp_dest);
return -80;
}
return 1;
}
HRESULT MV_Gen_Random_Server(UINT8* pbOutDat, UINT32*uOutSize )
{
HRESULT lRes = S_OK;
UNSG32 i = 0;
UNSG32 uEncImgSize = MEMPOLL_SIZE;
SIGN32 nRet = 0;
UNSG32 uErrCode = 0;
UNSG32 uCheckSize = 1024;
UNSG8* pbSrcDDR = NULL;
UNSG8* pbDstImg = NULL;
SIE_DRMROM_CMD drmCmd;
SIE_DRMROM_CMD drmRsp;
T32SECSTATUS_CFG cfgSecStatus;
SIE_DRMDiag_CUSTOMER_KEYSTORE_CTX *pDiagDtcm = NULL;
UNSG32 uReady = 0;
UNSG32 uRspFlag = 0;
UNSG32 uCmdFlag = 0;
UNSG32 uErrorCode = 0;
UNSG32 uKeyNum = 0;
UNSG32 uKeyId = 0;
UNSG32 uSize = 0;
UNSG32 uOut_data = 0;
UNSG8 * pbTemp = NULL;
UINT8* pbBufAligned32 = NULL;
UINT32 uBufSizeAligned32 = (32 + 31)&(~(32-1));
if((pbOutDat ==NULL) && (uOutSize == NULL) && (*uOutSize == 0))
{
lRes = MV_FIGODRV_ERR_INVLAID_ARG;
printf("invalid lenght of randon number(0)\n");
return lRes;
}
uBufSizeAligned32 = (*uOutSize + 15)&(~(16-1));
#if 1
{
get_figo_img(gp_cust_figo_image);
}
#endif
flush_all_dcache();
//!Wait FIGO Ready
Wait_FIGO();
//!Prepare the Image
{
UNSG8* pbAlloc = NULL;
UNSG32 uVSize = MEMPOLL_SIZE;
unsigned int i = 0;
pbAlloc = (UNSG8*)mempool;
pbSrcDDR = (UNSG8*)(ALIGN32(pbAlloc) + 32);
pbTemp = pbSrcDDR;
for (i = 0; i< uVSize - 64; i = i + 4)
{
pbTemp = pbSrcDDR + i;
*(UNSG32 *)(pbTemp) = 0;
}
}
pbDstImg = pbSrcDDR;
{
unsigned int i = 0;
for (i = 0; i < CUSTK_IMAGE_MAX_SIZE; i++)
*(pbDstImg + i) = *((UNSG8*)gp_cust_figo_image + i);
}
//! Init DTCM
{
int i = 0;
SIE_DRMDiag_CUSTOMER_KEYSTORE_CTX* pDiagDtcm = NULL;
UNSG32 uSize = 0;
pDiagDtcm = (SIE_DRMDiag_CUSTOMER_KEYSTORE_CTX *)(ALIGN32(dtcmpool) + 32);
for(i = 0 ; i< sizeof(SIE_DRMDiag_CUSTOMER_KEYSTORE_CTX)/4; i = i+1 )
*(((UNSG32*)pDiagDtcm) + i) = 0;
uSize = sizeof(SIE_DRMDiag_CUSTOMER_KEYSTORE_CTX) - RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag;
//lgpl_printf("Before Init the DTCM, the Size = [0x%x]\n", uSize);
for ( i = 0; i < uSize/4; i +=1 )
{
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag + i*4, 0);
}
}
flush_all_dcache();
//Load FIGO Image
{
int i = 0;
for (i = 0; i < sizeof(drmCmd)/8; i = i + 8)
*((UNSG64 *)&drmCmd + i) = 0;
cfgSecStatus.u32 = MV_FIGODRV_IO_RD32(DRMFIGOREG_SECSTAT);
if ( cfgSecStatus.uCFG_flag != SECSTATUS_CFG_flag_ENABLED )
{
return MV_FIGODRV_ERR_INVLAID_ARG;
}
//! Check figo command status
drmCmd.u32DRMROM_CMD_STAT = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_STAT);
if ( drmCmd.uSTAT_en )
{
return MV_FIGODRV_ERR_INVLAID_STATUS;
}
drmCmd.uCMD_CFG_tag = DRMROM_CMD_TYPE_LD_FIGOIMG;
drmCmd.uCMD_CFG_nonce = (UNSG32)0xffffffff;
drmCmd.uCMD_DAT0_crcCmd32 = 0;
drmCmd.uCMD_DAT1_imgSz = 0;
drmCmd.uCMD_DAT2_imgSrcAddr = (UNSG32)pbDstImg;
drmCmd.uSTAT_en = 1;
//! Issue command
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_CMD_CFG, drmCmd.u32DRMROM_CMD_CMD_CFG);
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_CMD_DAT0, drmCmd.u32DRMROM_CMD_CMD_DAT0);
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_CMD_DAT1, drmCmd.u32DRMROM_CMD_CMD_DAT1);
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_CMD_DAT2, drmCmd.u32DRMROM_CMD_CMD_DAT2);
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_CMD_DAT3, drmCmd.u32DRMROM_CMD_CMD_DAT3);
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_STAT, drmCmd.u32DRMROM_CMD_STAT);
//! Check figo command status
while(1)
{
drmRsp.u32DRMROM_CMD_STAT = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_STAT);
if ( drmRsp.uSTAT_en )
{
continue;
}
break;
}
//! Load Reponse
drmRsp.u32DRMROM_CMD_RSP_CFG = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_RSP_CFG);
drmRsp.u32DRMROM_CMD_RSP_DAT0 = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_RSP_DAT0);
drmRsp.u32DRMROM_CMD_RSP_DAT1 = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMROM_CMD_RSP_DAT1);
if ( drmRsp.uRSP_CFG_tag != DRMROM_CMD_TYPE_LD_FIGOIMG)
{
return MV_FIGODRV_ERR;
}
//!Todo verify crc32 value with nonce
uErrorCode = drmRsp.uRSP_DAT1_error;
if (0 != uErrorCode)
return MV_FIGODRV_ERR;
}
flush_all_dcache();
// Load the customer keystore into DTCM
{
UNSG32 uAESKeyCnt = 0;
UNSG32 uRSAPubKeyCnt = 0;
UNSG32 uRSAPrvKeyCnt = 0;
UNSG32 j = 0;
//for(i =0; i< uKeyNum; i++)
{
uKeyId = uBufSizeAligned32; //! First Word is Key ID
do{
uRspFlag = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_rspFlag);
uRspFlag = uRspFlag & 0xffff;
MV_FIGODRV_SLEEP(1000);
} while (uRspFlag != 0x3010);
// Send Command to FIOG image
{
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_uKeyId, uKeyId);
uCmdFlag = 0xbf;
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag, uCmdFlag);
}
}
}
do{
uRspFlag = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_rspFlag);
uRspFlag = uRspFlag & 0xffff;
MV_FIGODRV_SLEEP(1000);
} while (uRspFlag != 0x88de);
for ( i = 0; i < uBufSizeAligned32/4; i +=1 )
{
uOut_data = MV_FIGODRV_IO_RD32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_custKeystore + i*4);
memcpy(((UINT8 *)pDiagDtcm->ie_custKeystore + i*4), &uOut_data, sizeof(uOut_data));
}
memcpy(pbOutDat, pDiagDtcm->ie_custKeystore, *uOutSize);
// uCmdFlag = 0xf3;
// MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag, uCmdFlag);
uCmdFlag = 0xde;
MV_FIGODRV_IO_WR32(DRMFIGOREG_CMDSTAT + RA_DRMDiag_CUSTOMER_KEYSTORE_CTX_cmdFlag, uCmdFlag);
// Wait Figo ROM code ready
Wait_FIGO();
return MV_FIGODRV_OK;
}
/*
* ======== SMGRMP_create ========
*/
SMGRMP_Handle SMGRMP_create(SMGRMP_Attrs *attrs)
{
SMGRMP_Obj *handle;
Int shmId = -1;
unsigned int shmSize = 0;
Void * addr;
SMGR_Attrs smgrAttrs;
/* Create a shared memory object SMGRMP_Obj using the key and the lock
Size of this will depend numResources and SMGR_Obj etc */
GT_assert(CURTRACE, shmCount < SMGRMP_MAXINSTANCES);
shmSize = sizeof(SMGRMP_Obj) + sizeof(SMGR_Obj) + sizeof(UInt32);
shmSize = ALIGN32(shmSize);
shmSize += (sizeof(SMGR_Counter) * attrs->numResources);
shmSize = ALIGN32(shmSize);
#ifdef xdc_target__os_Linux
addr = SHM_getObj(attrs->lock, shmSize, (key_t)attrs->key,
(SHM_InitFxn)&setInternalState, &shmId);
#else
addr = (void *)malloc(shmSize);
setInternalState(addr);
shmId = 0;
#endif
if (shmId != -1) {
handle = (SMGRMP_Obj *)addr;
/* This will return a unique object for each key, and the same object
for different processes */
if (0 == handle->refCount) {
/* SMGR_create has to happen */
smgrAttrs.segid = shmCount; /* Use shmCount as segId */
smgrAttrs.numResources = attrs->numResources;
smgrAttrs.numScratchGroups = attrs->numScratchGroups;
smgrAttrs.allocFxn = shmAlloc;
smgrAttrs.freeFxn = shmFree;
/* Store the shmCount in the SHM_Obj part of the handle */
handle->shmCount = shmCount;
shmCount++;
shmTotal++;
}
/* Successful acquisition of shared Mem object, so store in array
for use by alloc/free functions */
shmAddrs[handle->shmCount] = (unsigned int)addr;
shmIndex[handle->shmCount] = sizeof(SMGRMP_Obj); /* Change this to
work for the alloFxn
*/
if (handle->refCount == 0) {
/* Whatever the SMGR_create returns, store that as an offset from
shmBase */
handle->smgrOffset = OFFSET(handle, SMGR_create(&smgrAttrs));
}
handle->refCount++;
/* Store the sharedMemId in the SMGRMP_Obj */
handle->sharedMemId = shmId;
return (handle);
}
else {
return (NULL);
}
}