struct fm_timer *fm_timer_create(const fm_s8 *name)
{
struct fm_timer *tmp;
struct timer_list *timerlist;
tmp = fm_zalloc(sizeof(struct fm_timer));
if (!tmp) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(fm_timer) -ENOMEM\n");
return NULL;
}
timerlist = fm_zalloc(sizeof(struct timer_list));
if (!timerlist) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(struct timer_list) -ENOMEM\n");
fm_free(tmp);
return NULL;
}
init_timer(timerlist);
fm_memcpy(tmp->name, name, (strlen(name) > FM_NAME_MAX) ? (FM_NAME_MAX) : (strlen(name)));
tmp->priv = timerlist;
tmp->ref = 0;
tmp->init = fm_timer_init;
tmp->start = fm_timer_start;
tmp->stop = fm_timer_stop;
tmp->update = fm_timer_update;
tmp->control = fm_timer_control;
return tmp;
}
struct fm_flag_event *fm_flag_event_create(const fm_s8 *name)
{
struct fm_flag_event *tmp;
wait_queue_head_t *wq;
tmp = fm_zalloc(sizeof(struct fm_flag_event));
if (!tmp) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(fm_event) -ENOMEM\n");
return NULL;
}
wq = fm_zalloc(sizeof(wait_queue_head_t));
if (!wq) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(wait_queue_head_t) -ENOMEM\n");
fm_free(tmp);
return NULL;
}
fm_memcpy(tmp->name, name, (strlen(name) > FM_NAME_MAX) ? (FM_NAME_MAX) : (strlen(name)));
tmp->priv = wq;
init_waitqueue_head(wq);
tmp->ref = 0;
tmp->send = fm_event_send;
tmp->wait = fm_event_wait;
tmp->wait_timeout = fm_event_wait_timeout;
tmp->clr = fm_event_clr;
tmp->get = fm_event_get;
tmp->rst = fm_event_rst;
tmp->rst(tmp); /* set flag to 0x00000000 */
return tmp;
}
struct fm_lock *fm_spin_lock_create(const fm_s8 *name)
{
struct fm_lock *tmp;
spinlock_t *spin_lock;
tmp = fm_zalloc(sizeof(struct fm_lock));
if (!tmp) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(fm_lock) -ENOMEM\n");
return NULL;
}
spin_lock = fm_zalloc(sizeof(spinlock_t));
if (!spin_lock) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(spinlock_t) -ENOMEM\n");
fm_free(tmp);
return NULL;
}
tmp->priv = spin_lock;
spin_lock_init(spin_lock);
tmp->ref = 0;
fm_memcpy(tmp->name, name, (strlen(name) > FM_NAME_MAX) ? (FM_NAME_MAX) : (strlen(name)));
tmp->lock = fm_spin_lock_lock;
tmp->unlock = fm_spin_lock_unlock;
return tmp;
}
struct fm_lock *fm_lock_create(const fm_s8 *name)
{
struct fm_lock *tmp;
struct semaphore *mutex;
tmp = fm_zalloc(sizeof(struct fm_lock));
if (!tmp) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(fm_lock) -ENOMEM\n");
return NULL;
}
mutex = fm_zalloc(sizeof(struct semaphore));
if (!mutex) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(struct semaphore) -ENOMEM\n");
fm_free(tmp);
return NULL;
}
tmp->priv = mutex;
sema_init(mutex, 1);
tmp->ref = 0;
fm_memcpy(tmp->name, name, (strlen(name) > FM_NAME_MAX) ? (FM_NAME_MAX) : (strlen(name)));
tmp->lock = fm_lock_lock;
tmp->trylock = fm_lock_try;
tmp->unlock = fm_lock_unlock;
return tmp;
}
fm_s32 fm_trace_out(struct fm_trace_fifo_t *thiz, struct fm_trace_t *dst_tra)
{
if (thiz->len > 0) {
if (dst_tra) {
fm_memcpy(dst_tra, &(thiz->trace[thiz->out]), sizeof(struct fm_trace_t));
fm_memset(&(thiz->trace[thiz->out]), 0, sizeof(struct fm_trace_t));
}
thiz->out = (thiz->out + 1) % thiz->size;
thiz->len--;
/* WCN_DBG(FM_DBG | RDSC, "del a tra[len=%d]\n", thiz->len); */
} else {
WCN_DBG(FM_WAR | RDSC, "tra buf is empty\n");
}
return 0;
}
fm_s32 fm_fifo_out(struct fm_fifo *thiz, void *item)
{
if (thiz->len > 0) {
if (item) {
fm_memcpy(item, (thiz->obj.priv + (thiz->item_size * thiz->out)), thiz->item_size);
fm_memset((thiz->obj.priv + (thiz->item_size * thiz->out)), 0, thiz->item_size);
}
thiz->out = (thiz->out + 1) % thiz->size;
thiz->len--;
/* WCN_DBG(FM_DBG | MAIN, "del an item[len=%d]\n", thiz->len); */
} else {
WCN_DBG(FM_WAR | MAIN, "%s fifo is empty\n", thiz->obj.name);
}
return 0;
}
fm_s32 fm_fifo_in(struct fm_fifo *thiz, void *item)
{
FMR_ASSERT(item);
if (thiz->len < thiz->size) {
fm_memcpy((thiz->obj.priv + (thiz->item_size * thiz->in)), item, thiz->item_size);
thiz->in = (thiz->in + 1) % thiz->size;
thiz->len++;
/* WCN_DBG(FM_DBG | MAIN, "add a new item[len=%d]\n", thiz->len); */
} else {
WCN_DBG(FM_WAR | MAIN, "%s fifo is full\n", thiz->obj.name);
return -FM_ENOMEM;
}
return 0;
}
fm_s32 fm_trace_in(struct fm_trace_fifo_t *thiz, struct fm_trace_t *new_tra)
{
FMR_ASSERT(new_tra);
if (thiz->len < thiz->size) {
fm_memcpy(&(thiz->trace[thiz->in]), new_tra, sizeof(struct fm_trace_t));
thiz->trace[thiz->in].time = jiffies;
thiz->in = (thiz->in + 1) % thiz->size;
thiz->len++;
/* WCN_DBG(FM_DBG | RDSC, "add a new tra[len=%d]\n", thiz->len); */
} else {
WCN_DBG(FM_WAR | RDSC, "tra buf is full\n");
return -FM_ENOMEM;
}
return 0;
}
struct fm_workthread* fm_workthread_create(const fm_s8* name)
{
struct fm_workthread *my_thread;
struct workqueue_struct *sys_thread;
if (!(my_thread = fm_zalloc(sizeof(struct fm_workthread)))) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(fm_workthread) -ENOMEM\n");
return NULL;
}
sys_thread = create_singlethread_workqueue(name);
fm_memcpy(my_thread->name, name, (strlen(name)>FM_NAME_MAX)?(FM_NAME_MAX):(strlen(name)));
my_thread->priv = sys_thread;
my_thread->add_work = fm_workthread_add_work;
return my_thread;
}
struct fm_fifo *fm_fifo_init(struct fm_fifo *fifo, void *buf, const fm_s8 *name, fm_s32 item_size, fm_s32 item_num)
{
fm_memcpy(fifo->obj.name, name, 20);
fifo->size = item_num;
fifo->in = 0;
fifo->out = 0;
fifo->len = 0;
fifo->item_size = item_size;
fifo->obj.priv = buf;
fifo->input = fm_fifo_in;
fifo->output = fm_fifo_out;
fifo->is_full = fm_fifo_is_full;
fifo->is_empty = fm_fifo_is_empty;
fifo->get_total_len = fm_fifo_get_total_len;
fifo->get_valid_len = fm_fifo_get_valid_len;
fifo->reset = fm_fifo_reset;
WCN_DBG(FM_NTC | LINK, "%s inited\n", fifo->obj.name);
return fifo;
}
struct fm_work* fm_work_create(const fm_s8 *name)
{
struct fm_work *my_work;
struct work_struct *sys_work;
if (!(my_work = fm_zalloc(sizeof(struct fm_work)))) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(fm_work) -ENOMEM\n");
return NULL;
}
if (!(sys_work = fm_zalloc(sizeof(struct work_struct)))) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(struct work_struct) -ENOMEM\n");
fm_free(my_work);
return NULL;
}
fm_memcpy(my_work->name, name, (strlen(name)>FM_NAME_MAX)?(FM_NAME_MAX):(strlen(name)));
my_work->priv = sys_work;
my_work->init = fm_work_init;
return my_work;
}
struct fm_trace_fifo_t *fm_trace_fifo_create(const fm_s8 *name)
{
struct fm_trace_fifo_t *tmp;
if (!(tmp = fm_zalloc(sizeof(struct fm_trace_fifo_t)))) {
WCN_DBG(FM_ALT | MAIN, "fm_zalloc(fm_trace_fifo) -ENOMEM\n");
return NULL;
}
fm_memcpy(tmp->name, name, (strlen(name)+1));
tmp->size = FM_TRACE_FIFO_SIZE;
tmp->in = 0;
tmp->out = 0;
tmp->len = 0;
tmp->trace_in = fm_trace_in;
tmp->trace_out = fm_trace_out;
tmp->is_full = fm_trace_is_full;
tmp->is_empty = fm_trace_is_empty;
WCN_DBG(FM_NTC | LINK, "%s created\n", tmp->name);
return tmp;
}
fm_s32 fm_event_parser(fm_s32(*rds_parser) (struct rds_rx_t *, fm_s32))
{
fm_s32 len;
fm_s32 i = 0;
fm_u8 opcode = 0;
fm_u16 length = 0;
fm_u8 ch;
fm_u8 rx_buf[RX_BUF_SIZE + 10] = { 0 }; /* the 10 bytes are protect gaps */
static volatile fm_task_parser_state state = FM_TASK_RX_PARSER_PKT_TYPE;
struct fm_trace_t trace;
struct task_struct *task = current;
len = mtk_wcn_stp_receive_data(rx_buf, RX_BUF_SIZE, FM_TASK_INDX);
WCN_DBG(FM_DBG | LINK, "[len=%d],[CMD=0x%02x 0x%02x 0x%02x 0x%02x]\n", len, rx_buf[0],
rx_buf[1], rx_buf[2], rx_buf[3]);
while (i < len) {
ch = rx_buf[i];
switch (state) {
case FM_TASK_RX_PARSER_PKT_TYPE:
if (ch == FM_TASK_EVENT_PKT_TYPE) {
if ((i + 5) < RX_BUF_SIZE) {
WCN_DBG(FM_DBG | LINK,
"0x%02x 0x%02x 0x%02x 0x%02x 0x%02x 0x%02x\n",
rx_buf[i], rx_buf[i + 1], rx_buf[i + 2],
rx_buf[i + 3], rx_buf[i + 4], rx_buf[i + 5]);
} else {
WCN_DBG(FM_DBG | LINK, "0x%02x 0x%02x\n", rx_buf[i],
rx_buf[i + 1]);
}
state = FM_TASK_RX_PARSER_OPCODE;
} else {
WCN_DBG(FM_ALT | LINK,
"event pkt type error (rx_buf[%d] = 0x%02x)\n", i, ch);
}
i++;
break;
case FM_TASK_RX_PARSER_OPCODE:
i++;
opcode = ch;
state = FM_TASK_RX_PARSER_PKT_LEN_1;
break;
case FM_TASK_RX_PARSER_PKT_LEN_1:
i++;
length = ch;
state = FM_TASK_RX_PARSER_PKT_LEN_2;
break;
case FM_TASK_RX_PARSER_PKT_LEN_2:
i++;
length |= (fm_u16) (ch << 0x8);
#ifdef FM_TRACE_ENABLE
trace.type = FM_TASK_EVENT_PKT_TYPE;
trace.opcode = opcode;
trace.len = length;
trace.tid = (fm_s32) task->pid;
fm_memset(trace.pkt, 0, FM_TRACE_PKT_SIZE);
fm_memcpy(trace.pkt, &rx_buf[i],
(length > FM_TRACE_PKT_SIZE) ? FM_TRACE_PKT_SIZE : length);
if (fm_true == FM_TRACE_FULL(cmd_fifo)) {
FM_TRACE_OUT(cmd_fifo, NULL);
}
FM_TRACE_IN(cmd_fifo, &trace);
#endif
if (length > 0) {
state = FM_TASK_RX_PARSER_PKT_PAYLOAD;
} else if (opcode == CSPI_WRITE_OPCODE) {
state = FM_TASK_RX_PARSER_PKT_TYPE;
FM_EVENT_SEND(link_event->ln_event, FLAG_CSPI_WRITE);
} else {
state = FM_TASK_RX_PARSER_PKT_TYPE;
FM_EVENT_SEND(link_event->ln_event, (1 << opcode));
}
break;
case FM_TASK_RX_PARSER_PKT_PAYLOAD:
switch (opcode) {
case FM_TUNE_OPCODE:
if ((length == 1) && (rx_buf[i] == 1)) {
FM_EVENT_SEND(link_event->ln_event, FLAG_TUNE_DONE);
}
break;
case FM_SOFT_MUTE_TUNE_OPCODE:
if (length >= 2) {
fm_memcpy(link_event->result.cqi, &rx_buf[i],
(length >
FM_CQI_BUF_SIZE) ? FM_CQI_BUF_SIZE : length);
FM_EVENT_SEND(link_event->ln_event, FLAG_SM_TUNE);
}
break;
case FM_SEEK_OPCODE:
if ((i + 1) < RX_BUF_SIZE) {
link_event->result.seek_result = rx_buf[i] + (rx_buf[i + 1] << 8); /* 8760 means 87.60Mhz */
}
FM_EVENT_SEND(link_event->ln_event, FLAG_SEEK_DONE);
break;
case FM_SCAN_OPCODE:
/* check if the result data is long enough */
if ((RX_BUF_SIZE - i) < (sizeof(fm_u16) * FM_SCANTBL_SIZE)) {
WCN_DBG(FM_ALT | LINK,
"FM_SCAN_OPCODE err, [tblsize=%d],[bufsize=%d]\n",
(unsigned int)(sizeof(fm_u16) * FM_SCANTBL_SIZE),
(unsigned int)(RX_BUF_SIZE - i));
FM_EVENT_SEND(link_event->ln_event, FLAG_SCAN_DONE);
return 0;
} else if ((length >= FM_CQI_BUF_SIZE)
&& ((RX_BUF_SIZE - i) >= FM_CQI_BUF_SIZE)) {
fm_memcpy(link_event->result.cqi, &rx_buf[i],
FM_CQI_BUF_SIZE);
FM_EVENT_SEND(link_event->ln_event, FLAG_CQI_DONE);
} else {
fm_memcpy(link_event->result.scan_result, &rx_buf[i],
sizeof(fm_u16) * FM_SCANTBL_SIZE);
FM_EVENT_SEND(link_event->ln_event, FLAG_SCAN_DONE);
}
break;
case FSPI_READ_OPCODE:
if ((i + 1) < RX_BUF_SIZE) {
link_event->result.fspi_rd =
(rx_buf[i] + (rx_buf[i + 1] << 8));
}
FM_EVENT_SEND(link_event->ln_event, (1 << opcode));
break;
case CSPI_READ_OPCODE:
{
if ((i + 1) < RX_BUF_SIZE) {
link_event->result.cspi_rd =
(rx_buf[i] + (rx_buf[i + 1] << 8) +
(rx_buf[i + 2] << 16) + (rx_buf[i + 3] << 24));
}
FM_EVENT_SEND(link_event->ln_event, FLAG_CSPI_READ);
break;
}
case FM_HOST_READ_OPCODE:
{
if ((i + 1) < RX_BUF_SIZE) {
link_event->result.cspi_rd =
(rx_buf[i] + (rx_buf[i + 1] << 8) +
(rx_buf[i + 2] << 16) + (rx_buf[i + 3] << 24));
}
FM_EVENT_SEND(link_event->ln_event, (1 << opcode));
break;
}
case RDS_RX_DATA_OPCODE:
/* check if the rds data is long enough */
if ((RX_BUF_SIZE - i) < length) {
WCN_DBG(FM_ALT | LINK,
"RDS RX err, [rxlen=%d],[bufsize=%d]\n",
(fm_s32) length, (RX_BUF_SIZE - i));
FM_EVENT_SEND(link_event->ln_event, (1 << opcode));
break;
}
/* copy rds data to rds buf */
fm_memcpy(&link_event->result.rds_rx_result, &rx_buf[i], length);
/*Handle the RDS data that we get */
if (rds_parser) {
rds_parser(&link_event->result.rds_rx_result, length);
} else {
WCN_DBG(FM_WAR | LINK, "no method to parse RDS data\n");
}
FM_EVENT_SEND(link_event->ln_event, (1 << opcode));
break;
default:
FM_EVENT_SEND(link_event->ln_event, (1 << opcode));
break;
}
state = FM_TASK_RX_PARSER_PKT_TYPE;
i += length;
break;
default:
break;
}
}
return 0;
}
/*
* fm_cmd_tx() - send cmd to FM firmware and wait event
* @buf - send buffer
* @len - the length of cmd
* @mask - the event flag mask
* @ cnt - the retry conter
* @timeout - timeout per cmd
* Return 0, if success; error code, if failed
*/
fm_s32 fm_cmd_tx(fm_u8 *buf, fm_u16 len, fm_s32 mask, fm_s32 cnt, fm_s32 timeout,
fm_s32(*callback) (struct fm_res_ctx *result))
{
fm_s32 ret_time = 0;
struct task_struct *task = current;
struct fm_trace_t trace;
if ((NULL == buf) || (len < 0) || (0 == mask)
|| (cnt > SW_RETRY_CNT_MAX) || (timeout > SW_WAIT_TIMEOUT_MAX)) {
WCN_DBG(FM_ERR | LINK, "cmd tx, invalid para\n");
return -FM_EPARA;
}
FM_EVENT_CLR(link_event->ln_event, mask);
#ifdef FM_TRACE_ENABLE
trace.type = buf[0];
trace.opcode = buf[1];
trace.len = len - 4;
trace.tid = (fm_s32) task->pid;
fm_memset(trace.pkt, 0, FM_TRACE_PKT_SIZE);
fm_memcpy(trace.pkt, &buf[4],
(trace.len > FM_TRACE_PKT_SIZE) ? FM_TRACE_PKT_SIZE : trace.len);
#endif
sw_retry:
#ifdef FM_TRACE_ENABLE
if (fm_true == FM_TRACE_FULL(cmd_fifo)) {
FM_TRACE_OUT(cmd_fifo, NULL);
}
FM_TRACE_IN(cmd_fifo, &trace);
#endif
/* send cmd to FM firmware */
if ((ret_time = mtk_wcn_stp_send_data(buf, len, FM_TASK_INDX)) <= 0) {
WCN_DBG(FM_EMG | LINK, "send data over stp failed[%d]\n", ret_time);
return -FM_ELINK;
}
/* wait the response form FM firmware */
ret_time = FM_EVENT_WAIT_TIMEOUT(link_event->ln_event, mask, timeout);
if (!ret_time) {
if (0 < cnt--) {
WCN_DBG(FM_WAR | LINK, "wait even timeout, [retry_cnt=%d], pid=%d\n", cnt,
task->pid);
fm_print_cmd_fifo();
fm_print_evt_fifo();
return -FM_EFW;
goto sw_retry; /* retry if timeout and retry cnt > 0 */
} else {
WCN_DBG(FM_ALT | LINK, "fatal error, SW retry failed, reset HW\n");
return -FM_EFW;
}
}
FM_EVENT_CLR(link_event->ln_event, mask);
if (callback) {
callback(&link_event->result);
}
return 0;
}