/**
* see jtag_add_ir_scan()
*
*/
int interface_jtag_add_ir_scan(struct jtag_tap* active, const struct scan_field *in_fields, tap_state_t state)
{
size_t num_taps = jtag_tap_count_enabled();
struct jtag_command * cmd = cmd_queue_alloc(sizeof(struct jtag_command));
struct scan_command * scan = cmd_queue_alloc(sizeof(struct scan_command));
struct scan_field * out_fields = cmd_queue_alloc(num_taps * sizeof(struct scan_field));
jtag_queue_command(cmd);
cmd->type = JTAG_SCAN;
cmd->cmd.scan = scan;
scan->ir_scan = true;
scan->num_fields = num_taps; /* one field per device */
scan->fields = out_fields;
scan->end_state = state;
struct scan_field * field = out_fields; /* keep track where we insert data */
/* loop over all enabled TAPs */
for (struct jtag_tap * tap = jtag_tap_next_enabled(NULL); tap != NULL; tap = jtag_tap_next_enabled(tap))
{
/* search the input field list for fields for the current TAP */
if (tap == active)
{
/* if TAP is listed in input fields, copy the value */
tap->bypass = 0;
cmd_queue_scan_field_clone(field, in_fields);
} else
{
/* if a TAP isn't listed in input fields, set it to BYPASS */
tap->bypass = 1;
field->num_bits = tap->ir_length;
field->out_value = buf_set_ones(cmd_queue_alloc(DIV_ROUND_UP(tap->ir_length, 8)), tap->ir_length);
field->in_value = NULL; /* do not collect input for tap's in bypass */
}
/* update device information */
buf_cpy(field->out_value, tap->cur_instr, tap->ir_length);
field++;
}
assert(field == out_fields + num_taps); /* paranoia: jtag_tap_count_enabled() and jtag_tap_next_enabled() not in sync */
return ERROR_OK;
}
int interface_jtag_add_clocks(int num_cycles)
{
/* allocate memory for a new list member */
struct jtag_command * cmd = cmd_queue_alloc(sizeof(struct jtag_command));
jtag_queue_command(cmd);
cmd->type = JTAG_STABLECLOCKS;
cmd->cmd.stableclocks = cmd_queue_alloc(sizeof(struct stableclocks_command));
cmd->cmd.stableclocks->num_cycles = num_cycles;
return ERROR_OK;
}
int interface_jtag_add_sleep(uint32_t us)
{
/* allocate memory for a new list member */
struct jtag_command * cmd = cmd_queue_alloc(sizeof(struct jtag_command));
jtag_queue_command(cmd);
cmd->type = JTAG_SLEEP;
cmd->cmd.sleep = cmd_queue_alloc(sizeof(struct sleep_command));
cmd->cmd.sleep->us = us;
return ERROR_OK;
}
int interface_jtag_add_reset(int req_trst, int req_srst)
{
/* allocate memory for a new list member */
struct jtag_command * cmd = cmd_queue_alloc(sizeof(struct jtag_command));
jtag_queue_command(cmd);
cmd->type = JTAG_RESET;
cmd->cmd.reset = cmd_queue_alloc(sizeof(struct reset_command));
cmd->cmd.reset->trst = req_trst;
cmd->cmd.reset->srst = req_srst;
return ERROR_OK;
}
int interface_jtag_add_runtest(int num_cycles, tap_state_t state)
{
/* allocate memory for a new list member */
struct jtag_command * cmd = cmd_queue_alloc(sizeof(struct jtag_command));
jtag_queue_command(cmd);
cmd->type = JTAG_RUNTEST;
cmd->cmd.runtest = cmd_queue_alloc(sizeof(struct runtest_command));
cmd->cmd.runtest->num_cycles = num_cycles;
cmd->cmd.runtest->end_state = state;
return ERROR_OK;
}
/**
* Copy a struct scan_field for insertion into the queue.
*
* This allocates a new copy of out_value using cmd_queue_alloc.
*/
static void cmd_queue_scan_field_clone(struct scan_field * dst, const struct scan_field * src)
{
dst->tap = src->tap;
dst->num_bits = src->num_bits;
dst->out_value = buf_cpy(src->out_value, cmd_queue_alloc(DIV_ROUND_UP(src->num_bits, 8)), src->num_bits);
dst->in_value = src->in_value;
}
int interface_jtag_add_tlr(void)
{
tap_state_t state = TAP_RESET;
/* allocate memory for a new list member */
struct jtag_command * cmd = cmd_queue_alloc(sizeof(struct jtag_command));
jtag_queue_command(cmd);
cmd->type = JTAG_TLR_RESET;
cmd->cmd.statemove = cmd_queue_alloc(sizeof(struct statemove_command));
cmd->cmd.statemove->end_state = state;
return ERROR_OK;
}
int interface_jtag_add_pathmove(int num_states, const tap_state_t *path)
{
/* allocate memory for a new list member */
struct jtag_command * cmd = cmd_queue_alloc(sizeof(struct jtag_command));
jtag_queue_command(cmd);
cmd->type = JTAG_PATHMOVE;
cmd->cmd.pathmove = cmd_queue_alloc(sizeof(struct pathmove_command));
cmd->cmd.pathmove->num_states = num_states;
cmd->cmd.pathmove->path = cmd_queue_alloc(sizeof(tap_state_t) * num_states);
for (int i = 0; i < num_states; i++)
cmd->cmd.pathmove->path[i] = path[i];
return ERROR_OK;
}
/**
* see jtag_add_plain_dr_scan()
*
*/
int interface_jtag_add_plain_dr_scan(int in_num_fields, const struct scan_field *in_fields, tap_state_t state)
{
struct jtag_command * cmd = cmd_queue_alloc(sizeof(struct jtag_command));
struct scan_command * scan = cmd_queue_alloc(sizeof(struct scan_command));
struct scan_field * out_fields = cmd_queue_alloc(in_num_fields * sizeof(struct scan_field));
jtag_queue_command(cmd);
cmd->type = JTAG_SCAN;
cmd->cmd.scan = scan;
scan->ir_scan = false;
scan->num_fields = in_num_fields;
scan->fields = out_fields;
scan->end_state = state;
for (int i = 0; i < in_num_fields; i++)
cmd_queue_scan_field_clone(out_fields + i, in_fields + i);
return ERROR_OK;
}
static int jtag_add_plain_scan(int num_bits, const uint8_t *out_bits,
uint8_t *in_bits, tap_state_t state, bool ir_scan)
{
struct jtag_command * cmd = cmd_queue_alloc(sizeof(struct jtag_command));
struct scan_command * scan = cmd_queue_alloc(sizeof(struct scan_command));
struct scan_field * out_fields = cmd_queue_alloc(sizeof(struct scan_field));
jtag_queue_command(cmd);
cmd->type = JTAG_SCAN;
cmd->cmd.scan = scan;
scan->ir_scan = ir_scan;
scan->num_fields = 1;
scan->fields = out_fields;
scan->end_state = state;
out_fields->num_bits = num_bits;
out_fields->out_value = buf_cpy(out_bits, cmd_queue_alloc(DIV_ROUND_UP(num_bits, 8)), num_bits);
out_fields->in_value = in_bits;
return ERROR_OK;
}
int interface_add_tms_seq(unsigned num_bits, const uint8_t *seq, enum tap_state state)
{
struct jtag_command *cmd;
cmd = cmd_queue_alloc(sizeof(struct jtag_command));
if (cmd == NULL)
return ERROR_FAIL;
cmd->type = JTAG_TMS;
cmd->cmd.tms = cmd_queue_alloc(sizeof(*cmd->cmd.tms));
if (!cmd->cmd.tms)
return ERROR_FAIL;
/* copy the bits; our caller doesn't guarantee they'll persist */
cmd->cmd.tms->num_bits = num_bits;
cmd->cmd.tms->bits = buf_cpy(seq,
cmd_queue_alloc(DIV_ROUND_UP(num_bits, 8)), num_bits);
if (!cmd->cmd.tms->bits)
return ERROR_FAIL;
jtag_queue_command(cmd);
return ERROR_OK;
}
/* add callback to end of queue */
void interface_jtag_add_callback4(jtag_callback_t callback, jtag_callback_data_t data0, jtag_callback_data_t data1, jtag_callback_data_t data2, jtag_callback_data_t data3)
{
struct jtag_callback_entry *entry = cmd_queue_alloc(sizeof(struct jtag_callback_entry));
entry->next = NULL;
entry->callback = callback;
entry->data0 = data0;
entry->data1 = data1;
entry->data2 = data2;
entry->data3 = data3;
if (jtag_callback_queue_head == NULL)
{
jtag_callback_queue_head = entry;
jtag_callback_queue_tail = entry;
} else
{
jtag_callback_queue_tail->next = entry;
jtag_callback_queue_tail = entry;
}
}
/**
* Generate a DR SCAN using the array of output values passed to the function
*
* This function assumes that the parameter target_tap specifies the one TAP
* that is not bypassed. All other TAPs must be bypassed and the function will
* generate a dummy 1bit field for them.
*
* For the target_tap a sequence of output-only fields will be generated where
* each field has the size num_bits and the field's values are taken from
* the array value.
*
* The bypass status of TAPs is set by jtag_add_ir_scan().
*
*/
void interface_jtag_add_dr_out(struct jtag_tap *target_tap,
int in_num_fields,
const int *num_bits,
const uint32_t *value,
tap_state_t end_state)
{
/* count devices in bypass */
size_t bypass_devices = 0;
for (struct jtag_tap * tap = jtag_tap_next_enabled(NULL); tap != NULL; tap = jtag_tap_next_enabled(tap))
{
if (tap->bypass)
bypass_devices++;
}
struct jtag_command * cmd = cmd_queue_alloc(sizeof(struct jtag_command));
struct scan_command * scan = cmd_queue_alloc(sizeof(struct scan_command));
struct scan_field * out_fields = cmd_queue_alloc((in_num_fields + bypass_devices) * sizeof(struct scan_field));
jtag_queue_command(cmd);
cmd->type = JTAG_SCAN;
cmd->cmd.scan = scan;
scan->ir_scan = false;
scan->num_fields = in_num_fields + bypass_devices;
scan->fields = out_fields;
scan->end_state = end_state;
bool target_tap_match = false;
struct scan_field * field = out_fields; /* keep track where we insert data */
/* loop over all enabled TAPs */
for (struct jtag_tap * tap = jtag_tap_next_enabled(NULL); tap != NULL; tap = jtag_tap_next_enabled(tap))
{
/* if TAP is not bypassed insert matching input fields */
if (!tap->bypass)
{
assert(tap == target_tap); /* target_tap must match the one not bypassed TAP */
target_tap_match = true;
for (int j = 0; j < in_num_fields; j++)
{
uint8_t out_value[4];
size_t scan_size = num_bits[j];
buf_set_u32(out_value, 0, scan_size, value[j]);
field->num_bits = scan_size;
field->out_value = buf_cpy(out_value, cmd_queue_alloc(DIV_ROUND_UP(scan_size, 8)), scan_size);
field->in_value = NULL;
field++;
}
}
/* if a TAP is bypassed, generated a dummy bit*/
else
{
field->num_bits = 1;
field->out_value = NULL;
field->in_value = NULL;
field++;
}
}
assert(target_tap_match); /* target_tap should be enabled and not bypassed */
}
/**
* see jtag_add_dr_scan()
*
*/
int interface_jtag_add_dr_scan(struct jtag_tap* active, int in_num_fields, const struct scan_field *in_fields, tap_state_t state)
{
/* count devices in bypass */
size_t bypass_devices = 0;
for (struct jtag_tap * tap = jtag_tap_next_enabled(NULL); tap != NULL; tap = jtag_tap_next_enabled(tap))
{
if (tap->bypass)
bypass_devices++;
}
struct jtag_command * cmd = cmd_queue_alloc(sizeof(struct jtag_command));
struct scan_command * scan = cmd_queue_alloc(sizeof(struct scan_command));
struct scan_field * out_fields = cmd_queue_alloc((in_num_fields + bypass_devices) * sizeof(struct scan_field));
jtag_queue_command(cmd);
cmd->type = JTAG_SCAN;
cmd->cmd.scan = scan;
scan->ir_scan = false;
scan->num_fields = in_num_fields + bypass_devices;
scan->fields = out_fields;
scan->end_state = state;
struct scan_field * field = out_fields; /* keep track where we insert data */
/* loop over all enabled TAPs */
for (struct jtag_tap * tap = jtag_tap_next_enabled(NULL); tap != NULL; tap = jtag_tap_next_enabled(tap))
{
/* if TAP is not bypassed insert matching input fields */
if (!tap->bypass)
{
assert(active == tap);
#ifndef NDEBUG
/* remember initial position for assert() */
struct scan_field *start_field = field;
#endif /* NDEBUG */
for (int j = 0; j < in_num_fields; j++)
{
cmd_queue_scan_field_clone(field, in_fields + j);
field++;
}
assert(field > start_field); /* must have at least one input field per not bypassed TAP */
}
/* if a TAP is bypassed, generated a dummy bit*/
else
{
field->num_bits = 1;
field->out_value = NULL;
field->in_value = NULL;
field++;
}
}
assert(field == out_fields + scan->num_fields); /* no superfluous input fields permitted */
return ERROR_OK;
}
int32_t nand_reset_identy(nand_cfg_t * cfg,struct aml_nand_platform * plat,cntl_t *cntl)
{
clrbits_le32(P_PAD_PULL_UP_REG3,(0xff<<0) | (1<<16));
int32_t num,i,max_ce;
void * addr;
max_ce=min(cntl->feature&FEATURE_SUPPORT_MAX_CES,plat->ce_num?plat->ce_num:FEATURE_SUPPORT_MAX_CES);
struct id_read_s *id;
addr=dma_alloc_coherent(max_ce*sizeof(struct id_read_s),(dma_addr_t *)&id);
jobkey_t * job[5];
for(i=0;i<5;i++)
job[i]=cntl_job_get((i|0x100));
#if 0
for(i=0;i<max_ce;i++)
{
cntl_ctrl(i,NAND_CLE(NAND_CMD_RESET));
}
for(i=0;i<max_ce;i++)
{
cntl_nop(i,1);
cntl_ctrl(i,NAND_CLE(NAND_CMD_STATUS));
cntl_wait(i,NAND_RB_IO6,31);//wait for 1M/16 nand cycle , about 1sec
cntl_sts(job[i],STS_NO_INTERRUPT);
/// read uni id
cntl_ctrl(i,NAND_CLE(NAND_CMD_READID));
cntl_ctrl(i,NAND_ALE(0));
cntl_readbytes(&id[i].id,sizeof(id[i].id));
/// read onfi id
cntl_ctrl(i,NAND_CLE(NAND_CMD_READID));
cntl_ctrl(i,NAND_ALE(0x20));
cntl_readbytes(&id[i].onfi,sizeof(id[i].onfi));
}
cntl_sts(job[4],STS_NO_INTERRUPT);
#else
cmd_queue_t *pout;
cmd_queue_t * p=cmd_queue_alloc();
uint32_t cemask=0;
int32_t stat[max_ce];
assert(p!=NULL);
for (i = 0; i < max_ce; i++)
{
stat[i]=NAND_CMD_STAT_START;
}
while (cemask != ((1 << max_ce) - 1))
{
for (i = 0; i < max_ce; i++)
{
if(stat[i]==NAND_CMD_STAT_END)
continue;
stat[i]=nand_reset_identy_queue(p,stat[i],i,&id[i],job[i]);
if(stat[i]==NAND_CMD_STAT_END)
cemask|=(1<<i);
}
}
nand_write_finish(p,job[4]);
pout=cmd_queue_alloc();
cntl_write_cmd(p,pout);
cmd_queue_free(p);
cmd_queue_free(pout);
#endif
while(cntl_job_status(job[4],4|0x100)<0)
{
uint32_t ce;
if(cntl_error(&ce)==NAND_CNTL_ERROR_TIMEOUT)
{
nanddebug(1,"ce %d timeout",ce);
cntl_continue();
}
};
amlogic_log_print();
printf("\n");
/**
* @todo implement this function
if(nand_cfg_set(&nand_cfg,0,id)<0)
return -1;
*/
for(i=0;i<max_ce;i++)
{
nanddebug(1,"CE%d:id=%llx,onfi=%llx,sts=%x",i,id[i].id,id[i].onfi,cntl_job_status(job[i],i|0x100));
cntl_job_free(job[i]);
}
cntl_job_free(job[4]);
nand_cfg.ce_mask=1;
num=1;
for(i=1;i<max_ce;i++)
{
if(id[i].id!=id[0].id||id[i].onfi!=id[0].onfi)
{
nand_cfg.ce_mask&=~(1<<i);
continue;
}
nand_cfg.ce_mask|=(1<<i);
num++;
}
dma_free_coherent(max_ce*sizeof(struct id_read_s),(dma_addr_t )id,addr);
return num;
}
