/**************************************************************************
* Handle Nand Flash Erase
**************************************************************************/
u32 force_erase (DM_IMG_INFO * img_info, u32 pktsz)
{
DM_TIME_BEGIN;
// erase whole partition to keep data consistent
{
u32 erase_limit = 0;
if (img_info->img_type == DM_IMG_TYPE_USRDATA)
{
erase_limit = g_nand_chip.chipsize;
//print ("%s : erase limit address (0x%x)\n", MOD,erase_limit);
//print ("%s : user data partition ! erase 0x%x ~ 0x%x\n", MOD, img_info->addr_off, g_nand_chip.chipsize);
if (FALSE == g_boot_dev.dev_erase_data (img_info->addr_off, g_nand_chip.chipsize, g_nand_chip.chipsize - img_info->addr_off))
{
DM_ASSERT (0);
dm_ctx.dm_status = DM_STATUS_ERR_ONGOING;
dm_ctx.dm_err = DM_ERR_NAND_ER_FAIL;
}
}
else
{
erase_limit = dm_ctx.img_info.addr_off + dm_ctx.part_range;
//print ("%s : erase limit address (0x%x)\n", MOD, erase_limit);
if (FALSE == g_boot_dev.dev_erase_data (img_info->addr_off, erase_limit, dm_ctx.part_range))
{
DM_ASSERT (0);
dm_ctx.dm_status = DM_STATUS_ERR_ONGOING;
dm_ctx.dm_err = DM_ERR_NAND_ER_FAIL;
}
}
}
DM_TIME_END_NAND_ERASE;
}
void Objects::validate(Entity& ent)
{
DM_ASSERT(ent.is_object(), "Must be object");
Object& o = (Object&) ent;
bool found = false;
for (auto& obj : objs) {
if (obj.get() == &o) found = true;
}
DM_ASSERT(found, "Object must be in object list");
}
void call(Args&&... args)
{
if (this->enabled()) {
DM_ASSERT(m_script != nullptr, "Script was null");
m_script->call(this->func, std::forward<Args>(args)...);
}
}
u32 get_part_range (DM_IMG_TYPE img_type)
{
part_t *part;
blkdev_t *blkdev = blkdev_get(CFG_BOOT_DEV);
u8 *name = get_part_name (img_type);
DM_ASSERT (name);
if (name == NULL)
return 0;
part = part_get(name);
DM_ASSERT (part);
return ((part->pgnum) * blkdev->blksz);
}
int intcall(Args&&... args)
{
if (this->enabled()) {
DM_ASSERT(m_script != nullptr, "Script was null");
return m_script->retcall(this->func, std::forward<Args>(args)...);
}
return -1;
}
/**************************************************************************
* Allocate Buffer
**************************************************************************/
u8 * prepare_data_buf (void)
{
#if 1 //CFG_FPGA_PLATFORM
dm_ctx.data_buf = (u8 *) 0xF00000;
#else
dm_ctx.data_buf = (u8 *) dm_rx_buf;
#endif
if (dm_ctx.data_buf)
return dm_ctx.data_buf;
DM_ASSERT (dm_ctx.data_buf);
{
DM_ERRCODE_PACKET errp = { DM_ERROR_PKT_PATN, 0 };
errp.err_code = DM_ERR_NOMEM; //TODO
mt_usbtty_putcn (DM_SZ_ERR_CODE_PKT, (u8 *) & errp, TRUE);
return NULL;
}
}
osGLOBAL void
dmGetRequirements(
dmRoot_t *dmRoot,
dmSwConfig_t *swConfig,
dmMemoryRequirement_t *memoryRequirement,
bit32 *usecsPerTick,
bit32 *maxNumLocks)
{
bit32 memoryReqCount = 0;
bit32 max_expander = DM_MAX_EXPANDER_DEV;
char *buffer;
bit32 buffLen;
bit32 lenRecv = 0;
static char tmpBuffer[DEFAULT_KEY_BUFFER_SIZE];
char *pLastUsedChar = agNULL;
char globalStr[] = "Global";
char iniParmsStr[] = "InitiatorParms";
char SwParmsStr[] = "SWParms";
DM_DBG3(("dmGetRequirements: start\n"));
/* sanity check */
DM_ASSERT((agNULL != swConfig), "");
DM_ASSERT((agNULL != memoryRequirement), "");
DM_ASSERT((agNULL != usecsPerTick), "");
DM_ASSERT((agNULL != maxNumLocks), "");
/* memory requirement for dmRoot, CACHE memory */
memoryRequirement->dmMemory[DM_ROOT_MEM_INDEX].singleElementLength = sizeof(dmIntRoot_t);
memoryRequirement->dmMemory[DM_ROOT_MEM_INDEX].numElements = 1;
memoryRequirement->dmMemory[DM_ROOT_MEM_INDEX].totalLength =
(memoryRequirement->dmMemory[DM_ROOT_MEM_INDEX].singleElementLength) * (memoryRequirement->dmMemory[DM_ROOT_MEM_INDEX].numElements);
memoryRequirement->dmMemory[DM_ROOT_MEM_INDEX].alignment = 4;
memoryRequirement->dmMemory[DM_ROOT_MEM_INDEX].type = DM_CACHED_MEM;
memoryReqCount++;
/* memory requirement for Port Context Links, CACHE memory */
memoryRequirement->dmMemory[DM_PORT_MEM_INDEX].singleElementLength = sizeof(dmIntPortContext_t);
memoryRequirement->dmMemory[DM_PORT_MEM_INDEX].numElements = DM_MAX_PORT_CONTEXT;
memoryRequirement->dmMemory[DM_PORT_MEM_INDEX].totalLength =
(memoryRequirement->dmMemory[DM_PORT_MEM_INDEX].singleElementLength) * (memoryRequirement->dmMemory[DM_PORT_MEM_INDEX].numElements);
memoryRequirement->dmMemory[DM_PORT_MEM_INDEX].alignment = 4;
memoryRequirement->dmMemory[DM_PORT_MEM_INDEX].type = DM_CACHED_MEM;
memoryReqCount++;
/* memory requirement for Device Links, CACHE memory */
memoryRequirement->dmMemory[DM_DEVICE_MEM_INDEX].singleElementLength = sizeof(dmDeviceData_t);
memoryRequirement->dmMemory[DM_DEVICE_MEM_INDEX].numElements = DM_MAX_DEV;
memoryRequirement->dmMemory[DM_DEVICE_MEM_INDEX].totalLength =
(memoryRequirement->dmMemory[DM_DEVICE_MEM_INDEX].singleElementLength) * (memoryRequirement->dmMemory[DM_DEVICE_MEM_INDEX].numElements);
memoryRequirement->dmMemory[DM_DEVICE_MEM_INDEX].alignment = 4;
memoryRequirement->dmMemory[DM_DEVICE_MEM_INDEX].type = DM_CACHED_MEM;
memoryReqCount++;
/* memory requirement for Expander Device Links, CACHE memory */
/*
Maximum number of expanders are configurable
The default is DM_MAX_EXPANDER_DEV
*/
buffer = tmpBuffer;
buffLen = sizeof(tmpBuffer);
dm_memset(buffer, 0, buffLen);
lenRecv = 0;
if ((tddmGetTransportParam(
dmRoot,
globalStr,
iniParmsStr,
agNULL,
agNULL,
agNULL,
agNULL,
"MaxExpanders",
buffer,
buffLen,
&lenRecv
) == DM_RC_SUCCESS) && (lenRecv != 0))
{
if (osti_strncmp(buffer, "0x", 2) == 0)
{
max_expander = osti_strtoul (buffer, &pLastUsedChar, 0);
}
else
{
max_expander = osti_strtoul (buffer, &pLastUsedChar, 10);
}
}
DM_DBG3(("dmGetRequirements: max_expander %d\n", max_expander));
memoryRequirement->dmMemory[DM_EXPANDER_MEM_INDEX].singleElementLength = sizeof(dmExpander_t);
memoryRequirement->dmMemory[DM_EXPANDER_MEM_INDEX].numElements = max_expander;
memoryRequirement->dmMemory[DM_EXPANDER_MEM_INDEX].totalLength =
(memoryRequirement->dmMemory[DM_EXPANDER_MEM_INDEX].singleElementLength) * (memoryRequirement->dmMemory[DM_EXPANDER_MEM_INDEX].numElements);
memoryRequirement->dmMemory[DM_EXPANDER_MEM_INDEX].alignment = 4;
memoryRequirement->dmMemory[DM_EXPANDER_MEM_INDEX].type = DM_CACHED_MEM;
memoryReqCount++;
/* memory requirement for SMP command Links, CACHE memory */
memoryRequirement->dmMemory[DM_SMP_MEM_INDEX].singleElementLength = sizeof(dmSMPRequestBody_t);
memoryRequirement->dmMemory[DM_SMP_MEM_INDEX].numElements = DM_MAX_SMP;
memoryRequirement->dmMemory[DM_SMP_MEM_INDEX].totalLength =
(memoryRequirement->dmMemory[DM_SMP_MEM_INDEX].singleElementLength) * (memoryRequirement->dmMemory[DM_SMP_MEM_INDEX].numElements);
memoryRequirement->dmMemory[DM_SMP_MEM_INDEX].alignment = 4;
memoryRequirement->dmMemory[DM_SMP_MEM_INDEX].type = DM_CACHED_MEM;
memoryReqCount++;
/* memory requirement for INDIRECT SMP command/response Links, DMA memory */
memoryRequirement->dmMemory[DM_INDIRECT_SMP_MEM_INDEX].singleElementLength = SMP_INDIRECT_PAYLOAD; /* 512 */
memoryRequirement->dmMemory[DM_INDIRECT_SMP_MEM_INDEX].numElements = DM_MAX_INDIRECT_SMP;
memoryRequirement->dmMemory[DM_INDIRECT_SMP_MEM_INDEX].totalLength =
(memoryRequirement->dmMemory[DM_INDIRECT_SMP_MEM_INDEX].singleElementLength) * (memoryRequirement->dmMemory[DM_INDIRECT_SMP_MEM_INDEX].numElements);
memoryRequirement->dmMemory[DM_INDIRECT_SMP_MEM_INDEX].alignment = 4;
memoryRequirement->dmMemory[DM_INDIRECT_SMP_MEM_INDEX].type = DM_DMA_MEM;
memoryReqCount++;
/* set up memory requirement count */
memoryRequirement->count = memoryReqCount;
/* requirement for locks */
*maxNumLocks = DM_MAX_LOCKS;
/* setup the time tick */
*usecsPerTick = DM_USECS_PER_TICK;
/* set up the number of Expander device handles */
swConfig->numDevHandles = DM_MAX_DEV;
swConfig->itNexusTimeout = IT_NEXUS_TIMEOUT; /* default is 2000 ms*/
dm_memset(buffer, 0, buffLen);
lenRecv = 0;
if ((tddmGetTransportParam(
dmRoot,
globalStr,
SwParmsStr,
agNULL,
agNULL,
agNULL,
agNULL,
"IT_NEXUS_TIMEOUT",
buffer,
buffLen,
&lenRecv
) == DM_RC_SUCCESS) && (lenRecv != 0))
{
if (osti_strncmp(buffer, "0x", 2) == 0)
{
swConfig->itNexusTimeout = osti_strtoul (buffer, &pLastUsedChar, 0);
}
else
{
swConfig->itNexusTimeout = osti_strtoul (buffer, &pLastUsedChar, 10);
}
}
DM_DBG1(("dmGetRequirements: swConfig->itNexusTimeout 0x%X\n", swConfig->itNexusTimeout));
DM_DBG3(("dmGetRequirements: memoryReqCount %d\n", memoryRequirement->count));
return;
}
/*
??? processing swConfig
*/
osGLOBAL bit32
dmInitialize(
dmRoot_t *dmRoot,
agsaRoot_t *agRoot,
dmMemoryRequirement_t *memoryAllocated,
dmSwConfig_t *swConfig,
bit32 usecsPerTick )
{
dmIntRoot_t *dmIntRoot;
dmIntPortContext_t *dmIntPortContext;
dmDeviceData_t *dmDevice;
dmExpander_t *dmExpander;
dmSMPRequestBody_t *dmSMPRequest;
bit8 *dmIndirectSMPRequest;
dmIntContext_t *dmAllShared;
bit32 i;
bit32 max_expander = DM_MAX_EXPANDER_DEV;
char *buffer;
bit32 buffLen;
bit32 lenRecv = 0;
static char tmpBuffer[DEFAULT_KEY_BUFFER_SIZE];
char *pLastUsedChar = agNULL;
char globalStr[] = "Global";
char iniParmsStr[] = "InitiatorParms";
char SwParmsStr[] = "SWParms";
DM_DBG3(("dmInitialize: start\n"));
/* sanity check */
DM_ASSERT((agNULL != dmRoot), "");
DM_ASSERT((agNULL != agRoot), "");
DM_ASSERT((agNULL != memoryAllocated), "");
DM_ASSERT((agNULL != swConfig), "");
DM_ASSERT((DM_ROOT_MEM_INDEX < memoryAllocated->count), "");
DM_ASSERT((DM_PORT_MEM_INDEX < memoryAllocated->count), "");
DM_ASSERT((DM_DEVICE_MEM_INDEX < memoryAllocated->count), "");
DM_ASSERT((DM_EXPANDER_MEM_INDEX < memoryAllocated->count), "");
DM_ASSERT((DM_SMP_MEM_INDEX < memoryAllocated->count), "");
DM_ASSERT((DM_INDIRECT_SMP_MEM_INDEX < memoryAllocated->count), "");
/* Check the memory allocated */
for ( i = 0; i < memoryAllocated->count; i ++ )
{
/* If memory allocatation failed */
if (memoryAllocated->dmMemory[i].singleElementLength &&
memoryAllocated->dmMemory[i].numElements)
{
if ( (0 != memoryAllocated->dmMemory[i].numElements)
&& (0 == memoryAllocated->dmMemory[i].totalLength) )
{
/* return failure */
DM_DBG1(("dmInitialize: Memory[%d] singleElementLength = 0x%0x numElements = 0x%x NOT allocated!!!\n",
i,
memoryAllocated->dmMemory[i].singleElementLength,
memoryAllocated->dmMemory[i].numElements));
return DM_RC_FAILURE;
}
}
}
/* DM's internal root */
dmIntRoot = (dmIntRoot_t *) (memoryAllocated->dmMemory[DM_ROOT_MEM_INDEX].virtPtr);
dmRoot->dmData = (void *) dmIntRoot;
dmAllShared = (dmIntContext_t *)&(dmIntRoot->dmAllShared);
/**< Initialize the TDM data part of the interrupt context */
dmAllShared->dmRootOsData.dmRoot = dmRoot;
dmAllShared->dmRootOsData.dmAllShared = (void *) dmAllShared;
/* Port Contexts */
dmIntPortContext = (dmIntPortContext_t *) (memoryAllocated->dmMemory[DM_PORT_MEM_INDEX].virtPtr);
dmAllShared->PortContextMem = (dmIntPortContext_t *)dmIntPortContext;
/* Devices */
dmDevice = (dmDeviceData_t *) (memoryAllocated->dmMemory[DM_DEVICE_MEM_INDEX].virtPtr);
dmAllShared->DeviceMem = (dmDeviceData_t *)dmDevice;
/* Expanders */
dmExpander = (dmExpander_t *) (memoryAllocated->dmMemory[DM_EXPANDER_MEM_INDEX].virtPtr);
dmAllShared->ExpanderMem = (dmExpander_t *)dmExpander;
/* SMP commands */
dmSMPRequest = (dmSMPRequestBody_t *) (memoryAllocated->dmMemory[DM_SMP_MEM_INDEX].virtPtr);
dmAllShared->SMPMem = (dmSMPRequestBody_t *)dmSMPRequest;
/* DMAable SMP request/reponse pointed by dmSMPRequestBody_t */
dmIndirectSMPRequest = (bit8 *) (memoryAllocated->dmMemory[DM_INDIRECT_SMP_MEM_INDEX].virtPtr);
dmAllShared->IndirectSMPMem = (bit8 *)dmIndirectSMPRequest;
dmAllShared->IndirectSMPUpper32 = memoryAllocated->dmMemory[DM_INDIRECT_SMP_MEM_INDEX].physAddrUpper;
dmAllShared->IndirectSMPLower32 = memoryAllocated->dmMemory[DM_INDIRECT_SMP_MEM_INDEX].physAddrLower;
dmAllShared->agRoot = agRoot;
dmAllShared->usecsPerTick = usecsPerTick;
dmAllShared->itNexusTimeout = IT_NEXUS_TIMEOUT;/*swConfig->itNexusTimeout;*/
dmAllShared->MaxRetryDiscovery = DISCOVERY_RETRIES;
dmAllShared->RateAdjust = 0;
/**< initializes timers */
dmInitTimers(dmRoot);
/**< initializes port contexts */
dmPortContextInit(dmRoot);
/**< initializes devices */
dmDeviceDataInit(dmRoot);
/**< initializes expander devices */
buffer = tmpBuffer;
buffLen = sizeof(tmpBuffer);
dm_memset(buffer, 0, buffLen);
lenRecv = 0;
if ((tddmGetTransportParam(
dmRoot,
globalStr,
iniParmsStr,
agNULL,
agNULL,
agNULL,
agNULL,
"MaxExpanders",
buffer,
buffLen,
&lenRecv
) == DM_RC_SUCCESS) && (lenRecv != 0))
{
if (osti_strncmp(buffer, "0x", 2) == 0)
{
max_expander = osti_strtoul (buffer, &pLastUsedChar, 0);
}
else
{
max_expander = osti_strtoul (buffer, &pLastUsedChar, 10);
}
}
dm_memset(buffer, 0, buffLen);
lenRecv = 0;
if ((tddmGetTransportParam(
dmRoot,
globalStr,
SwParmsStr,
agNULL,
agNULL,
agNULL,
agNULL,
"IT_NEXUS_TIMEOUT",
buffer,
buffLen,
&lenRecv
) == DM_RC_SUCCESS) && (lenRecv != 0))
{
if (osti_strncmp(buffer, "0x", 2) == 0)
{
dmAllShared->itNexusTimeout = osti_strtoul (buffer, &pLastUsedChar, 0);
}
else
{
dmAllShared->itNexusTimeout = osti_strtoul (buffer, &pLastUsedChar, 10);
}
}
DM_DBG1(("dmAllShared->itNexusTimeout %d \n", dmAllShared->itNexusTimeout));
dm_memset(buffer, 0, buffLen);
lenRecv = 0;
if ((tddmGetTransportParam(
dmRoot,
globalStr,
SwParmsStr,
agNULL,
agNULL,
agNULL,
agNULL,
"MaxRetryDiscovery",
buffer,
buffLen,
&lenRecv
) == DM_RC_SUCCESS) && (lenRecv != 0))
{
if (osti_strncmp(buffer, "0x", 2) == 0)
{
dmAllShared->MaxRetryDiscovery = osti_strtoul (buffer, &pLastUsedChar, 0);
}
else
{
dmAllShared->MaxRetryDiscovery = osti_strtoul (buffer, &pLastUsedChar, 10);
}
}
DM_DBG1(("dmAllShared->MaxRetryDiscovery %d \n", dmAllShared->MaxRetryDiscovery));
dm_memset(buffer, 0, buffLen);
lenRecv = 0;
if ((tddmGetTransportParam(
dmRoot,
globalStr,
SwParmsStr,
agNULL,
agNULL,
agNULL,
agNULL,
"RateAdjust",
buffer,
buffLen,
&lenRecv
) == DM_RC_SUCCESS) && (lenRecv != 0))
{
if (osti_strncmp(buffer, "0x", 2) == 0)
{
dmAllShared->RateAdjust = osti_strtoul (buffer, &pLastUsedChar, 0);
}
else
{
dmAllShared->RateAdjust = osti_strtoul (buffer, &pLastUsedChar, 10);
}
}
DM_DBG1(("dmAllShared->RateAdjust %d \n", dmAllShared->RateAdjust));
dmExpanderDeviceDataInit(dmRoot, max_expander);
/**< initializes SMP commands */
dmSMPInit(dmRoot);
#ifdef DM_DEBUG
gDMDebugLevel = swConfig->DMDebugLevel;
#endif
return DM_RC_SUCCESS;
}
/// game ///
auto& state() {
DM_ASSERT(this->currentState != nullptr, "State must be initialized");
return *this->currentState;
}
// game inputs
Inputs& inputs() noexcept {
DM_ASSERT(current_inputs != nullptr, "Inputs must be initialized");
return *current_inputs;
}
// game camera
Camera& camera() noexcept {
DM_ASSERT(current_camera != nullptr, "Camera must be initialized");
return *current_camera;
}
// main protagonist
Player& player() noexcept {
DM_ASSERT(current_player != nullptr, "Player must be initialized");
return *current_player;
}
// current world
World& world() noexcept {
DM_ASSERT(current_world != nullptr, "World must be initialized");
return *current_world;
}
void create(int count, int speed = 4)
{
DM_ASSERT(count > 0, "Validate animation creation");
this->anims.resize(count);
this->frame_speed = speed;
}
inline int frameCount(const int set, int d) {
auto& anim = PANS.at(set)[d];
DM_ASSERT(anim.size() > 0, "Animation needs frames");
return anim.size();
}
/**************************************************************************
* Check Image Information
**************************************************************************/
u32 check_imgp (DM_IMAGE_INFO_PACKET * imgp, u32 * pktsz)
{
print ("\n%s : ------------------ IMG ---------------\n", MOD);
print ("%s : IMG fmt = %s \t type = %s\n", MOD, get_img_fmt (imgp->img_info.img_format), get_img_type (imgp->img_info.img_type));
print ("%s : IMG sz = 0x%x \t addr = 0x%x\n", MOD,(imgp->img_info.img_size), (imgp->img_info.addr_off));
print ("%s : addr = 0x%x \t boundary = 0x%x\n", MOD, (imgp->img_info.addr_off), (imgp->img_info.addr_boundary));
print ("%s : pkt sz = 0x%x \n", MOD, (imgp->img_info.pkt_size));
//print ("%s : --------------------------------------\n", MOD);
print ("%s : IMG range = 0x%x ~ 0x%x\n", MOD, (imgp->img_info.addr_off), (imgp->img_info.addr_off) + (imgp->img_info.img_size));
//print ("%s : --------------------------------------\n", MOD);
// image type is partition table inform
if (DM_IMG_TYPE_PT_TABLE_INFORM == imgp->img_info.img_type)
{
print ("partition table inform\n");
mt_usbtty_puts (DM_STR_START_REQ);
handle_pt_cmd ();
return;
}
// check image boundary
if (g_dl_safe_start_addr > imgp->img_info.addr_off)
{
print ("can't flash this image !\n");
print ("current safe starting address for flashing (0x%x) > current image address (0x%x)\n", g_dl_safe_start_addr, imgp->img_info.addr_off);
ASSERT (0);
}
DM_LOG ("%s : cur safe start addr for flashing (0x%x)\n", MOD, g_dl_safe_start_addr);
g_dl_safe_start_addr = imgp->img_info.addr_off;
if (imgp->pattern != DM_IMAGE_INFO_PKT_PATN)
{
DM_ASSERT (imgp->pattern == DM_IMAGE_INFO_PKT_PATN);
dm_ctx.dm_status = DM_STATUS_ERR_ONGOING;
dm_ctx.dm_err = DM_ERR_WRONG_SEQ;
}
// start address offset must be block alignment
else if (imgp->img_info.addr_off % dm_ctx.block_size)
{
DM_ASSERT (imgp->img_info.addr_off % dm_ctx.block_size == 0);
dm_ctx.dm_status = DM_STATUS_ERR_ONGOING;
dm_ctx.dm_err = DM_ERR_WRONG_ADDR;
*pktsz = save_imgp (imgp);
}
// packet size must be page size + spare size
else if (imgp->img_info.pkt_size != dm_ctx.page_size + dm_ctx.spare_size)
{
DM_ASSERT (imgp->img_info.pkt_size == dm_ctx.page_size + dm_ctx.spare_size);
dm_ctx.dm_status = DM_STATUS_ERR_ONGOING;
dm_ctx.dm_err = DM_ERR_WRONG_PKT_SZ;
*pktsz = save_imgp (imgp);
}
else
{
*pktsz = save_imgp (imgp);
dm_ctx.dm_status = DM_STATUS_SECT_ONGING;
DM_TIME_BEGIN;
// erase whole partition to keep data consistent
force_erase (&imgp->img_info, *pktsz);
DM_TIME_END_NAND_ERASE;
}
return *pktsz;
}
