static void gc3355_set_core_freq(struct cgpu_info *gridseed)
{
GRIDSEED_INFO *info = (GRIDSEED_INFO*)(gridseed->device_data);
gc3355_write_data(gridseed, info->freq_cmd, sizeof(info->freq_cmd));
cgsleep_ms(GRIDSEED_COMMAND_DELAY);
applog(LOG_NOTICE, "Set GC3355 core frequency to %d MHz", info->freq);
}
static bool gc3355_write_register(struct cgpu_info *gridseed, uint32_t reg_addr,
uint32_t reg_value) {
GRIDSEED_INFO *info = (GRIDSEED_INFO*)(gridseed->device_data);
char cmd[16] = "\x55\xaa\xc0\x02";
uint32_t reg_len = 4;
unsigned char buf[4];
if (info->fw_version != 0x01140113) {
applog(LOG_ERR, "Can't write registers; incompatible firmware %08X on %i",
info->fw_version, gridseed->device_id);
return false;
}
*(uint32_t *)(cmd + 4) = htole32(reg_addr);
*(uint32_t *)(cmd + 8) = htole32(reg_value);
*(uint32_t *)(cmd + 12) = htole32(reg_len);
if (gc3355_write_data(gridseed, cmd, sizeof(cmd)) != 0) {
applog(LOG_DEBUG, "Failed to write data to %i", gridseed->device_id);
return false;
}
cgsleep_ms(GRIDSEED_COMMAND_DELAY);
if (gc3355_get_data(gridseed, buf, 4)) {
applog(LOG_DEBUG, "No response from %i", gridseed->device_id);
return false;
}
return true;
}
/* A generic wait function for threads that poll that will wait a specified
* time tdiff waiting on a work restart request. Returns zero if the condition
* was met (work restart requested) or ETIMEDOUT if not.
*/
int restart_wait(struct thr_info *thr, unsigned int mstime)
{
struct timeval tv_timer, tv_now, tv_timeout;
fd_set rfds;
SOCKETTYPE wrn = thr->work_restart_notifier[0];
int rv;
if (unlikely(thr->work_restart_notifier[1] == INVSOCK))
{
// This is a bug!
applog(LOG_ERR, "%"PRIpreprv": restart_wait called without a work_restart_notifier", thr->cgpu->proc_repr);
cgsleep_ms(mstime);
return (thr->work_restart ? 0 : ETIMEDOUT);
}
timer_set_now(&tv_now);
timer_set_delay(&tv_timer, &tv_now, mstime * 1000);
while (true)
{
FD_ZERO(&rfds);
FD_SET(wrn, &rfds);
tv_timeout = tv_timer;
rv = select(wrn + 1, &rfds, NULL, NULL, select_timeout(&tv_timeout, &tv_now));
if (rv == 0)
return ETIMEDOUT;
if (rv > 0)
{
if (thr->work_restart)
return 0;
notifier_read(thr->work_restart_notifier);
}
timer_set_now(&tv_now);
}
}
static void bitforce_flash_led(struct cgpu_info *bitforce)
{
int err, amount;
/* Do not try to flash the led if we're polling for a result to
* minimise the chance of interleaved results */
if (bitforce->polling)
return;
/* It is not critical flashing the led so don't get stuck if we
* can't grab the mutex now */
if (mutex_trylock(&bitforce->device_mutex))
return;
if ((err = usb_write(bitforce, BITFORCE_FLASH, BITFORCE_FLASH_LEN, &amount, C_REQUESTFLASH)) < 0 || amount != BITFORCE_FLASH_LEN) {
applog(LOG_ERR, "%s%i: flash request failed (%d:%d)",
bitforce->drv->name, bitforce->device_id, amount, err);
} else {
/* However, this stops anything else getting a reply
* So best to delay any other access to the BFL */
cgsleep_ms(4000);
}
/* Once we've tried - don't do it until told to again */
bitforce->flash_led = false;
mutex_unlock(&bitforce->device_mutex);
return; // nothing is returned by the BFL
}
static void gc3355_enable_btc_cores(struct cgpu_info *gridseed, GRIDSEED_INFO *info)
{
unsigned char cmd[24], c1, c2;
uint16_t mask;
int i;
mask = 0x00;
for(i=0; i<info->btcore; i++)
mask = mask << 1 | 0x01;
if (mask == 0)
return;
c1 = mask & 0x00ff;
c2 = mask >> 8;
memset(cmd, 0, sizeof(cmd));
memcpy(cmd, "\x55\xAA\xEF\x02", 4);
for(i=4; i<24; i++) {
cmd[i] = ((i%2)==0) ? c1 : c2;
gc3355_write_data(gridseed, cmd, sizeof(cmd));
cgsleep_ms(GRIDSEED_COMMAND_DELAY);
}
return;
}
static void gc3355_send_cmds_bin(struct cgpu_info *gridseed, const char *cmds[], int size)
{
int i;
for(i=0; ; i++) {
if (cmds[i] == NULL)
break;
gc3355_write_data(gridseed, (char *)cmds[i], size);
cgsleep_ms(GRIDSEED_COMMAND_DELAY);
}
return;
}
static void gc3355_send_cmds(struct cgpu_info *gridseed, const char *cmds[])
{
unsigned char ob[512];
int i;
for(i=0; ; i++) {
if (cmds[i] == NULL)
break;
hex2bin(ob, cmds[i], sizeof(ob));
gc3355_write_data(gridseed, ob, strlen(cmds[i])/2);
cgsleep_ms(GRIDSEED_COMMAND_DELAY);
}
}
static bool bitforce_thread_init(struct thr_info *thr)
{
struct cgpu_info *bitforce = thr->cgpu;
unsigned int wait;
/* Pause each new thread at least 100ms between initialising
* so the devices aren't making calls all at the same time. */
wait = thr->id * MAX_START_DELAY_MS;
applog(LOG_DEBUG, "%s%d: Delaying start by %dms",
bitforce->drv->name, bitforce->device_id, wait / 1000);
cgsleep_ms(wait);
return true;
}
void *miner_thread(void *userdata)
{
struct thr_info *mythr = userdata;
struct cgpu_info *cgpu = mythr->cgpu;
struct device_drv *drv = cgpu->drv;
pthread_setcanceltype(PTHREAD_CANCEL_ASYNCHRONOUS, NULL);
char threadname[20];
snprintf(threadname, 20, "miner_%s", cgpu->proc_repr_ns);
RenameThread(threadname);
if (drv->thread_init && !drv->thread_init(mythr)) {
dev_error(cgpu, REASON_THREAD_FAIL_INIT);
for (struct cgpu_info *slave = cgpu->next_proc; slave && !slave->threads; slave = slave->next_proc)
dev_error(slave, REASON_THREAD_FAIL_INIT);
__thr_being_msg(LOG_ERR, mythr, "failure, exiting");
goto out;
}
thread_reportout(mythr);
applog(LOG_DEBUG, "Popping ping in miner thread");
notifier_read(mythr->notifier); // Wait for a notification to start
cgtime(&cgpu->cgminer_stats.start_tv);
if (drv->minerloop)
drv->minerloop(mythr);
else
minerloop_scanhash(mythr);
__thr_being_msg(LOG_NOTICE, mythr, "shutting down");
out: ;
struct cgpu_info *proc = cgpu;
do
{
proc->deven = DEV_DISABLED;
proc->status = LIFE_DEAD2;
}
while ( (proc = proc->next_proc) && !proc->threads);
mythr->getwork = 0;
mythr->has_pth = false;
cgsleep_ms(1000);
if (drv->thread_shutdown)
drv->thread_shutdown(mythr);
notifier_destroy(mythr->notifier);
return NULL;
}
static void gc3355_init(struct cgpu_info *gridseed, GRIDSEED_INFO *info)
{
unsigned char buf[512];
int amount;
applog(LOG_NOTICE, "System reseting");
gc3355_send_cmds(gridseed, str_reset);
cgsleep_ms(200);
usb_buffer_clear(gridseed);
usb_read_timeout(gridseed, buf, sizeof(buf), &amount, 10, C_GETRESULTS);
gc3355_send_cmds(gridseed, str_init);
gc3355_send_cmds(gridseed, str_ltc_reset);
gc3355_set_core_freq(gridseed);
if (info->voltage)
gc3355_increase_voltage(gridseed);
}
static int polling(struct thr_info *thr)
{
int i, tmp;
struct avalon2_pkg send_pkg;
struct avalon2_ret ar;
struct cgpu_info *avalon2 = thr->cgpu;
struct avalon2_info *info = avalon2->device_data;
static int pre_led_red[AVA2_DEFAULT_MODULARS];
for (i = 0; i < AVA2_DEFAULT_MODULARS; i++) {
if (info->modulars[i] && info->enable[i]) {
cgsleep_ms(20);
memset(send_pkg.data, 0, AVA2_P_DATA_LEN);
tmp = be32toh(info->led_red[i]); /* RED LED */
memcpy(send_pkg.data + 12, &tmp, 4);
tmp = be32toh(i); /* ID */
memcpy(send_pkg.data + 28, &tmp, 4);
if (info->led_red[i] && mm_cmp_1404(info, i)) {
avalon2_init_pkg(&send_pkg, AVA2_P_TEST, 1, 1);
while (avalon2_send_pkg(info->fd, &send_pkg, thr) != AVA2_SEND_OK)
;
info->enable[i] = 0;
continue;
} else
avalon2_init_pkg(&send_pkg, AVA2_P_POLLING, 1, 1);
while (avalon2_send_pkg(info->fd, &send_pkg, thr) != AVA2_SEND_OK)
;
avalon2_get_result(thr, info->fd, &ar);
}
}
return 0;
}
static void gc3355_init(struct cgpu_info *gridseed, GRIDSEED_INFO *info, bool set_nonce)
{
unsigned char buf[512];
int amount;
applog(LOG_NOTICE, "System reseting");
gc3355_send_cmds(gridseed, str_reset);
cgsleep_ms(200);
usb_buffer_clear(gridseed);
usb_read_timeout(gridseed, buf, sizeof(buf), &amount, 10, C_GETRESULTS);
gc3355_send_cmds(gridseed, str_init);
gc3355_send_cmds(gridseed, str_ltc_reset);
gc3355_set_core_freq(gridseed);
if (set_nonce)
gc3355_set_init_nonce(gridseed);
//gc3355_send_cmds(gridseed, str_baud);
//gc3355_send_cmds(gridseed, str_enable_btc_cores);
gc3355_enable_btc_cores(gridseed, info);
if (info->usefifo == 0)
gc3355_send_cmds(gridseed, str_nofifo);
gridseed_request_ltc_task(gridseed, info);
return;
}
static struct work *wq_dequeue(struct T1_chain *t1, bool sig)
{
struct work_ent *we;
struct work *work = NULL;
struct work_queue *wq = &t1->active_wq;
if (wq == NULL)
return NULL;
/* Sleep only a small duration if there is no work queued in case it's
* still refilling rather than we have no upstream work. */
if (unlikely(!wq->num_elems && sig))
cgsleep_ms(10);
mutex_lock(&t1->lock);
if (likely(wq->num_elems > 0)) {
we = list_entry(wq->head.next, struct work_ent, head);
work = we->work;
list_del(&we->head);
free(we);
wq->num_elems--;
}
static int avalon2_send_pkg(int fd, const struct avalon2_pkg *pkg,
struct thr_info __maybe_unused *thr)
{
int ret;
uint8_t buf[AVA2_WRITE_SIZE];
size_t nr_len = AVA2_WRITE_SIZE;
memcpy(buf, pkg, AVA2_WRITE_SIZE);
if (opt_debug) {
applog(LOG_DEBUG, "Avalon2: Sent(%ld):", nr_len);
hexdump((uint8_t *)buf, nr_len);
}
ret = write(fd, buf, nr_len);
if (unlikely(ret != nr_len)) {
applog(LOG_DEBUG, "Avalon2: Send(%d)!", ret);
return AVA2_SEND_ERROR;
}
cgsleep_ms(20);
#if 0
ret = avalon2_gets(fd, result);
if (ret != AVA2_GETS_OK) {
applog(LOG_DEBUG, "Avalon2: Get(%d)!", ret);
return AVA2_SEND_ERROR;
}
ret = decode_pkg(thr, &ar, result);
if (ret != AVA2_P_ACK) {
applog(LOG_DEBUG, "Avalon2: PKG(%d)!", ret);
hexdump((uint8_t *)result, AVA2_READ_SIZE);
return AVA2_SEND_ERROR;
}
#endif
return AVA2_SEND_OK;
}
static int hashratio_send_pkg(int fd, const struct hashratio_pkg *pkg,
struct thr_info __maybe_unused *thr)
{
int ret;
uint8_t buf[HRTO_WRITE_SIZE];
int nr_len = HRTO_WRITE_SIZE;
memcpy(buf, pkg, HRTO_WRITE_SIZE);
// if (opt_debug) {
// applog(LOG_DEBUG, "hashratio: Sent(%d):", nr_len);
// hexdump((uint8_t *)buf, nr_len);
// }
ret = write(fd, buf, nr_len);
if (unlikely(ret != nr_len)) {
applog(LOG_DEBUG, "hashratio: Send(%d)!", ret);
return HRTO_SEND_ERROR;
}
cgsleep_ms(20);
#if 0
ret = hashratio_gets(fd, result);
if (ret != HRTO_GETS_OK) {
applog(LOG_DEBUG, "hashratio: Get(%d)!", ret);
return HRTO_SEND_ERROR;
}
ret = decode_pkg(thr, &ar, result);
if (ret != HRTO_P_ACK) {
applog(LOG_DEBUG, "hashratio: PKG(%d)!", ret);
hexdump((uint8_t *)result, HRTO_READ_SIZE);
return HRTO_SEND_ERROR;
}
#endif
return HRTO_SEND_OK;
}
static void hashratio_stratum_pkgs(struct cgpu_info *hashratio, struct pool *pool)
{
const int merkle_offset = 36;
struct hashratio_pkg pkg;
int i, a, b, tmp;
unsigned char target[32];
int job_id_len;
unsigned short crc;
/* Send out the first stratum message STATIC */
applog(LOG_DEBUG, "hashratio: Pool stratum message STATIC: %d, %d, %d, %d, %d, %d",
pool->coinbase_len,
pool->nonce2_offset,
pool->n2size,
merkle_offset,
pool->merkles,
pool->pool_no);
memset(pkg.data, 0, HRTO_P_DATA_LEN);
tmp = be32toh(pool->coinbase_len);
memcpy(pkg.data, &tmp, 4);
tmp = be32toh(pool->nonce2_offset);
memcpy(pkg.data + 4, &tmp, 4);
tmp = be32toh(pool->n2size);
memcpy(pkg.data + 8, &tmp, 4);
tmp = be32toh(merkle_offset);
memcpy(pkg.data + 12, &tmp, 4);
tmp = be32toh(pool->merkles);
memcpy(pkg.data + 16, &tmp, 4);
tmp = be32toh((int)pool->sdiff);
memcpy(pkg.data + 20, &tmp, 4);
tmp = be32toh((int)pool->pool_no);
memcpy(pkg.data + 24, &tmp, 4);
hashratio_init_pkg(&pkg, HRTO_P_STATIC, 1, 1);
if (hashratio_send_pkgs(hashratio, &pkg))
return;
set_target(target, pool->sdiff);
memcpy(pkg.data, target, 32);
if (opt_debug) {
char *target_str;
target_str = bin2hex(target, 32);
applog(LOG_DEBUG, "hashratio: Pool stratum target: %s", target_str);
free(target_str);
}
hashratio_init_pkg(&pkg, HRTO_P_TARGET, 1, 1);
if (hashratio_send_pkgs(hashratio, &pkg))
return;
applog(LOG_DEBUG, "hashratio: Pool stratum message JOBS_ID: %s",
pool->swork.job_id);
memset(pkg.data, 0, HRTO_P_DATA_LEN);
job_id_len = strlen(pool->swork.job_id);
crc = crc16((const unsigned char *)pool->swork.job_id, job_id_len);
pkg.data[0] = (crc & 0xff00) >> 8;
pkg.data[1] = crc & 0x00ff;
hashratio_init_pkg(&pkg, HRTO_P_JOB_ID, 1, 1);
if (hashratio_send_pkgs(hashratio, &pkg))
return;
a = pool->coinbase_len / HRTO_P_DATA_LEN;
b = pool->coinbase_len % HRTO_P_DATA_LEN;
applog(LOG_DEBUG, "pool->coinbase_len: %d", pool->coinbase_len);
applog(LOG_DEBUG, "hashratio: Pool stratum message COINBASE: %d %d", a, b);
for (i = 0; i < a; i++) {
memcpy(pkg.data, pool->coinbase + i * 32, 32);
hashratio_init_pkg(&pkg, HRTO_P_COINBASE, i + 1, a + (b ? 1 : 0));
if (hashratio_send_pkgs(hashratio, &pkg))
return;
if (i % 25 == 0) {
cgsleep_ms(2);
}
}
if (b) {
memset(pkg.data, 0, HRTO_P_DATA_LEN);
memcpy(pkg.data, pool->coinbase + i * 32, b);
hashratio_init_pkg(&pkg, HRTO_P_COINBASE, i + 1, i + 1);
if (hashratio_send_pkgs(hashratio, &pkg))
return;
}
b = pool->merkles;
applog(LOG_DEBUG, "hashratio: Pool stratum message MERKLES: %d", b);
for (i = 0; i < b; i++) {
memset(pkg.data, 0, HRTO_P_DATA_LEN);
memcpy(pkg.data, pool->swork.merkle_bin[i], 32);
hashratio_init_pkg(&pkg, HRTO_P_MERKLES, i + 1, b);
if (hashratio_send_pkgs(hashratio, &pkg))
return;
}
applog(LOG_DEBUG, "hashratio: Pool stratum message HEADER: 4");
for (i = 0; i < 4; i++) {
memset(pkg.data, 0, HRTO_P_HEADER);
memcpy(pkg.data, pool->header_bin + i * 32, 32);
hashratio_init_pkg(&pkg, HRTO_P_HEADER, i + 1, 4);
if (hashratio_send_pkgs(hashratio, &pkg))
return;
}
}
static bool spondoolies_queue_full_sp30(struct cgpu_info *cgpu)
{
struct spond_adapter* a = cgpu->device_data;
#if 0
static int bla = 0;
if (!((bla++)%500)) {
printf("FAKE TEST FLUSH T:%d!\n",usec_stamp());
a->reset_mg_queue = 3;
}
#endif
// Only once every 1/10 second do work.
bool ret = false, do_sleep = false;
int next_job_id;
struct timeval tv;
struct work *work;
unsigned int usec;
mutex_lock(&a->lock);
assert(a->works_pending_tx <= REQUEST_SIZE);
gettimeofday(&tv, NULL);
usec = (tv.tv_sec-last_force_queue.tv_sec) * 1000000;
usec += (tv.tv_usec-last_force_queue.tv_usec);
if ((usec >= REQUEST_PERIOD) ||
(a->reset_mg_queue == 3) || // push flush
((a->reset_mg_queue == 2)) || // Fast pull
((a->reset_mg_queue == 1) && (a->works_pending_tx == REQUEST_SIZE))) { // Fast push after flush
spondoolies_flush_queue(a, (a->reset_mg_queue == 3));
if (a->reset_mg_queue) {
//printf("FLUSH(%d) %d T:%d\n",a->reset_mg_queue , a->works_pending_tx, usec_stamp());
if (a->works_pending_tx || (a->reset_mg_queue == 3)) {
a->reset_mg_queue--;
}
}
last_force_queue = tv;
}
// see if we have enough jobs
if (a->works_pending_tx == REQUEST_SIZE) {
ret = true;
goto return_unlock;
}
// see if can take 1 more job.
// Must be smaller to prevent overflow.
assert(MAX_JOBS_PENDING_IN_MINERGATE_SP30 < MINERGATE_ADAPTER_QUEUE_SP30);
next_job_id = (a->current_job_id + 1) % MAX_JOBS_PENDING_IN_MINERGATE_SP30;
if (a->my_jobs[next_job_id].cgminer_work) {
ret = true;
goto return_unlock;
}
work = get_queued(cgpu);
if (unlikely(!work)) {
do_sleep = true;
goto return_unlock;
}
work->thr = cgpu->thr[0];
work->thr_id = cgpu->thr[0]->id;
assert(work->thr);
a->current_job_id = next_job_id;
work->subid = a->current_job_id;
// Get pointer for the request
a->my_jobs[a->current_job_id].cgminer_work = work;
a->my_jobs[a->current_job_id].state = SPONDWORK_STATE_IN_BUSY;
//printf("Push: %d\n", a->current_job_id);
int max_ntime_roll = (work->drv_rolllimit < MAX_NROLES) ? work->drv_rolllimit : MAX_NROLES;
minergate_do_job_req_sp30* pkt_job = &a->mp_next_req->req[a->works_pending_tx];
fill_minergate_request(pkt_job, work, max_ntime_roll);
a->works_in_driver++;
a->works_pending_tx++;
a->mp_next_req->req_count++;
a->my_jobs[a->current_job_id].merkle_root = pkt_job->mrkle_root;
return_unlock:
//printf("D:P.TX:%d inD:%d\n", a->works_pending_tx, a->works_in_driver);
mutex_unlock(&a->lock);
if (do_sleep)
cgsleep_ms(10);
return ret;
}
static bool bitforce_send_work(struct thr_info *thr, struct work *work)
{
struct cgpu_info *bitforce = thr->cgpu;
unsigned char ob[70];
char buf[BITFORCE_BUFSIZ+1];
int err, amount;
char *s;
char *cmd;
int len;
re_send:
if (bitforce->nonce_range) {
cmd = BITFORCE_SENDRANGE;
len = BITFORCE_SENDRANGE_LEN;
} else {
cmd = BITFORCE_SENDWORK;
len = BITFORCE_SENDWORK_LEN;
}
mutex_lock(&bitforce->device_mutex);
if ((err = usb_write(bitforce, cmd, len, &amount, C_REQUESTSENDWORK)) < 0 || amount != len) {
mutex_unlock(&bitforce->device_mutex);
applog(LOG_ERR, "%s%i: request send work failed (%d:%d)",
bitforce->drv->name, bitforce->device_id, amount, err);
return false;
}
if ((err = usb_read_nl(bitforce, buf, sizeof(buf)-1, &amount, C_REQUESTSENDWORKSTATUS)) < 0) {
mutex_unlock(&bitforce->device_mutex);
applog(LOG_ERR, "%s%d: read request send work status failed (%d:%d)",
bitforce->drv->name, bitforce->device_id, amount, err);
return false;
}
if (amount == 0 || !buf[0] || !strncasecmp(buf, "B", 1)) {
mutex_unlock(&bitforce->device_mutex);
cgsleep_ms(WORK_CHECK_INTERVAL_MS);
goto re_send;
} else if (unlikely(strncasecmp(buf, "OK", 2))) {
mutex_unlock(&bitforce->device_mutex);
if (bitforce->nonce_range) {
applog(LOG_WARNING, "%s%i: Does not support nonce range, disabling",
bitforce->drv->name, bitforce->device_id);
bitforce->nonce_range = false;
bitforce->sleep_ms *= 5;
bitforce->kname = KNAME_WORK;
goto re_send;
}
applog(LOG_ERR, "%s%i: Error: Send work reports: %s",
bitforce->drv->name, bitforce->device_id, buf);
return false;
}
sprintf((char *)ob, ">>>>>>>>");
memcpy(ob + 8, work->midstate, 32);
memcpy(ob + 8 + 32, work->data + 64, 12);
if (!bitforce->nonce_range) {
sprintf((char *)ob + 8 + 32 + 12, ">>>>>>>>");
work->blk.nonce = bitforce->nonces = 0xffffffff;
len = 60;
} else {
uint32_t *nonce;
nonce = (uint32_t *)(ob + 8 + 32 + 12);
*nonce = htobe32(work->blk.nonce);
nonce = (uint32_t *)(ob + 8 + 32 + 12 + 4);
/* Split work up into 1/5th nonce ranges */
bitforce->nonces = 0x33333332;
*nonce = htobe32(work->blk.nonce + bitforce->nonces);
work->blk.nonce += bitforce->nonces + 1;
sprintf((char *)ob + 8 + 32 + 12 + 8, ">>>>>>>>");
len = 68;
}
if ((err = usb_write(bitforce, (char *)ob, len, &amount, C_SENDWORK)) < 0 || amount != len) {
mutex_unlock(&bitforce->device_mutex);
applog(LOG_ERR, "%s%i: send work failed (%d:%d)",
bitforce->drv->name, bitforce->device_id, amount, err);
return false;
}
if ((err = usb_read_nl(bitforce, buf, sizeof(buf)-1, &amount, C_SENDWORKSTATUS)) < 0) {
mutex_unlock(&bitforce->device_mutex);
applog(LOG_ERR, "%s%d: read send work status failed (%d:%d)",
bitforce->drv->name, bitforce->device_id, amount, err);
return false;
}
mutex_unlock(&bitforce->device_mutex);
if (opt_debug) {
s = bin2hex(ob + 8, 44);
applog(LOG_DEBUG, "%s%i: block data: %s",
bitforce->drv->name, bitforce->device_id, s);
free(s);
}
if (amount == 0 || !buf[0]) {
applog(LOG_ERR, "%s%i: Error: Send block data returned empty string/timed out",
bitforce->drv->name, bitforce->device_id);
return false;
}
if (unlikely(strncasecmp(buf, "OK", 2))) {
applog(LOG_ERR, "%s%i: Error: Send block data reports: %s",
bitforce->drv->name, bitforce->device_id, buf);
return false;
}
cgtime(&bitforce->work_start_tv);
return true;
}
static bool bitforce_detect_one(struct libusb_device *dev, struct usb_find_devices *found)
{
char buf[BITFORCE_BUFSIZ+1];
int err, amount;
char *s;
struct timeval init_start, init_now;
int init_sleep, init_count;
bool ident_first;
struct cgpu_info *bitforce = usb_alloc_cgpu(&bitforce_drv, 1);
if (!usb_init(bitforce, dev, found))
goto shin;
// Allow 2 complete attempts if the 1st time returns an unrecognised reply
ident_first = true;
retry:
init_count = 0;
init_sleep = REINIT_TIME_FIRST_MS;
cgtime(&init_start);
reinit:
bitforce_initialise(bitforce, false);
if ((err = usb_write(bitforce, BITFORCE_IDENTIFY, BITFORCE_IDENTIFY_LEN, &amount, C_REQUESTIDENTIFY)) < 0 || amount != BITFORCE_IDENTIFY_LEN) {
applog(LOG_ERR, "%s detect (%s) send identify request failed (%d:%d)",
bitforce->drv->dname, bitforce->device_path, amount, err);
goto unshin;
}
if ((err = usb_read_nl(bitforce, buf, sizeof(buf)-1, &amount, C_GETIDENTIFY)) < 0 || amount < 1) {
init_count++;
cgtime(&init_now);
if (us_tdiff(&init_now, &init_start) <= REINIT_TIME_MAX) {
if (init_count == 2) {
applog(LOG_WARNING, "%s detect (%s) 2nd init failed (%d:%d) - retrying",
bitforce->drv->dname, bitforce->device_path, amount, err);
}
cgsleep_ms(init_sleep);
if ((init_sleep * 2) <= REINIT_TIME_MAX_MS)
init_sleep *= 2;
goto reinit;
}
if (init_count > 0)
applog(LOG_WARNING, "%s detect (%s) init failed %d times %.2fs",
bitforce->drv->dname, bitforce->device_path, init_count, tdiff(&init_now, &init_start));
if (err < 0) {
applog(LOG_ERR, "%s detect (%s) error identify reply (%d:%d)",
bitforce->drv->dname, bitforce->device_path, amount, err);
} else {
applog(LOG_ERR, "%s detect (%s) empty identify reply (%d)",
bitforce->drv->dname, bitforce->device_path, amount);
}
goto unshin;
}
buf[amount] = '\0';
if (unlikely(!strstr(buf, "SHA256"))) {
if (ident_first) {
applog(LOG_WARNING, "%s detect (%s) didn't recognise '%s' trying again ...",
bitforce->drv->dname, bitforce->device_path, buf);
ident_first = false;
goto retry;
}
applog(LOG_ERR, "%s detect (%s) didn't recognise '%s' on 2nd attempt",
bitforce->drv->dname, bitforce->device_path, buf);
goto unshin;
}
if (strstr(buf, "SHA256 SC")) {
#ifdef USE_BFLSC
applog(LOG_DEBUG, "SC device detected, will defer to BFLSC driver");
#else
applog(LOG_WARNING, "SC device detected but no BFLSC support compiled in!");
#endif
goto unshin;
}
if (likely((!memcmp(buf, ">>>ID: ", 7)) && (s = strstr(buf + 3, ">>>")))) {
s[0] = '\0';
bitforce->name = strdup(buf + 7);
} else {
bitforce->name = (char *)blank;
}
// We have a real BitForce!
applog(LOG_DEBUG, "%s (%s) identified as: '%s'",
bitforce->drv->dname, bitforce->device_path, bitforce->name);
/* Initially enable support for nonce range and disable it later if it
* fails */
if (opt_bfl_noncerange) {
bitforce->nonce_range = true;
bitforce->sleep_ms = BITFORCE_SLEEP_MS;
bitforce->kname = KNAME_RANGE;
} else {
bitforce->sleep_ms = BITFORCE_SLEEP_MS * 5;
bitforce->kname = KNAME_WORK;
}
if (!add_cgpu(bitforce))
goto unshin;
update_usb_stats(bitforce);
mutex_init(&bitforce->device_mutex);
return true;
unshin:
usb_uninit(bitforce);
shin:
if (bitforce->name != blank) {
free(bitforce->name);
bitforce->name = NULL;
}
bitforce = usb_free_cgpu(bitforce);
return false;
}
static int64_t bitforce_get_result(struct thr_info *thr, struct work *work)
{
struct cgpu_info *bitforce = thr->cgpu;
unsigned int delay_time_ms;
struct timeval elapsed;
struct timeval now;
char buf[BITFORCE_BUFSIZ+1];
int amount;
char *pnoncebuf;
uint32_t nonce;
while (1) {
if (unlikely(thr->work_restart))
return 0;
mutex_lock(&bitforce->device_mutex);
usb_write(bitforce, BITFORCE_WORKSTATUS, BITFORCE_WORKSTATUS_LEN, &amount, C_REQUESTWORKSTATUS);
usb_read_nl(bitforce, buf, sizeof(buf)-1, &amount, C_GETWORKSTATUS);
mutex_unlock(&bitforce->device_mutex);
cgtime(&now);
timersub(&now, &bitforce->work_start_tv, &elapsed);
if (elapsed.tv_sec >= BITFORCE_LONG_TIMEOUT_S) {
applog(LOG_ERR, "%s%i: took %ldms - longer than %dms",
bitforce->drv->name, bitforce->device_id,
tv_to_ms(elapsed), BITFORCE_LONG_TIMEOUT_MS);
return 0;
}
if (amount > 0 && buf[0] && strncasecmp(buf, "B", 1)) /* BFL does not respond during throttling */
break;
/* if BFL is throttling, no point checking so quickly */
delay_time_ms = (buf[0] ? BITFORCE_CHECK_INTERVAL_MS : 2 * WORK_CHECK_INTERVAL_MS);
cgsleep_ms(delay_time_ms);
bitforce->wait_ms += delay_time_ms;
}
if (elapsed.tv_sec > BITFORCE_TIMEOUT_S) {
applog(LOG_ERR, "%s%i: took %ldms - longer than %dms",
bitforce->drv->name, bitforce->device_id,
tv_to_ms(elapsed), BITFORCE_TIMEOUT_MS);
dev_error(bitforce, REASON_DEV_OVER_HEAT);
/* Only return if we got nothing after timeout - there still may be results */
if (amount == 0)
return 0;
} else if (!strncasecmp(buf, BITFORCE_EITHER, BITFORCE_EITHER_LEN)) {
/* Simple timing adjustment. Allow a few polls to cope with
* OS timer delays being variably reliable. wait_ms will
* always equal sleep_ms when we've waited greater than or
* equal to the result return time.*/
delay_time_ms = bitforce->sleep_ms;
if (bitforce->wait_ms > bitforce->sleep_ms + (WORK_CHECK_INTERVAL_MS * 2))
bitforce->sleep_ms += (bitforce->wait_ms - bitforce->sleep_ms) / 2;
else if (bitforce->wait_ms == bitforce->sleep_ms) {
if (bitforce->sleep_ms > WORK_CHECK_INTERVAL_MS)
bitforce->sleep_ms -= WORK_CHECK_INTERVAL_MS;
else if (bitforce->sleep_ms > BITFORCE_CHECK_INTERVAL_MS)
bitforce->sleep_ms -= BITFORCE_CHECK_INTERVAL_MS;
}
if (delay_time_ms != bitforce->sleep_ms)
applog(LOG_DEBUG, "%s%i: Wait time changed to: %d, waited %u",
bitforce->drv->name, bitforce->device_id,
bitforce->sleep_ms, bitforce->wait_ms);
/* Work out the average time taken. Float for calculation, uint for display */
bitforce->avg_wait_f += (tv_to_ms(elapsed) - bitforce->avg_wait_f) / TIME_AVG_CONSTANT;
bitforce->avg_wait_d = (unsigned int) (bitforce->avg_wait_f + 0.5);
}
applog(LOG_DEBUG, "%s%i: waited %dms until %s",
bitforce->drv->name, bitforce->device_id,
bitforce->wait_ms, buf);
if (!strncasecmp(buf, BITFORCE_NO_NONCE, BITFORCE_NO_NONCE_MATCH))
return bitforce->nonces; /* No valid nonce found */
else if (!strncasecmp(buf, BITFORCE_IDLE, BITFORCE_IDLE_MATCH))
return 0; /* Device idle */
else if (strncasecmp(buf, BITFORCE_NONCE, BITFORCE_NONCE_LEN)) {
bitforce->hw_errors++;
applog(LOG_WARNING, "%s%i: Error: Get result reports: %s",
bitforce->drv->name, bitforce->device_id, buf);
bitforce_initialise(bitforce, true);
return 0;
}
pnoncebuf = &buf[12];
while (1) {
hex2bin((void*)&nonce, pnoncebuf, 4);
#ifndef __BIG_ENDIAN__
nonce = swab32(nonce);
#endif
if (unlikely(bitforce->nonce_range && (nonce >= work->blk.nonce ||
(work->blk.nonce > 0 && nonce < work->blk.nonce - bitforce->nonces - 1)))) {
applog(LOG_WARNING, "%s%i: Disabling broken nonce range support",
bitforce->drv->name, bitforce->device_id);
bitforce->nonce_range = false;
work->blk.nonce = 0xffffffff;
bitforce->sleep_ms *= 5;
bitforce->kname = KNAME_WORK;
}
submit_nonce(thr, work, nonce);
if (strncmp(&pnoncebuf[8], ",", 1))
break;
pnoncebuf += 9;
}
return bitforce->nonces;
}
static int64_t ztex_scanhash(struct thr_info *thr, struct work *work,
__maybe_unused int64_t max_nonce)
{
struct libztex_device *ztex;
unsigned char sendbuf[44];
int i, j, k;
uint32_t *backlog;
int backlog_p = 0, backlog_max;
uint32_t *lastnonce;
uint32_t nonce, noncecnt = 0;
bool overflow, found;
struct libztex_hash_data hdata[GOLDEN_BACKLOG];
if (thr->cgpu->deven == DEV_DISABLED)
return -1;
ztex = thr->cgpu->device_ztex;
memcpy(sendbuf, work->data + 64, 12);
memcpy(sendbuf + 12, work->midstate, 32);
ztex_selectFpga(ztex);
i = libztex_sendHashData(ztex, sendbuf);
if (i < 0) {
// Something wrong happened in send
applog(LOG_ERR, "%s: Failed to send hash data with err %d, retrying", ztex->repr, i);
cgsleep_ms(500);
i = libztex_sendHashData(ztex, sendbuf);
if (i < 0) {
// And there's nothing we can do about it
ztex_disable(thr);
applog(LOG_ERR, "%s: Failed to send hash data with err %d, giving up", ztex->repr, i);
ztex_releaseFpga(ztex);
return -1;
}
}
ztex_releaseFpga(ztex);
applog(LOG_DEBUG, "%s: sent hashdata", ztex->repr);
lastnonce = calloc(1, sizeof(uint32_t)*ztex->numNonces);
if (lastnonce == NULL) {
applog(LOG_ERR, "%s: failed to allocate lastnonce[%d]", ztex->repr, ztex->numNonces);
return -1;
}
/* Add an extra slot for detecting dupes that lie around */
backlog_max = ztex->numNonces * (2 + ztex->extraSolutions);
backlog = calloc(1, sizeof(uint32_t) * backlog_max);
if (backlog == NULL) {
applog(LOG_ERR, "%s: failed to allocate backlog[%d]", ztex->repr, backlog_max);
return -1;
}
overflow = false;
int count = 0;
int validNonces = 0;
double errorCount = 0;
applog(LOG_DEBUG, "%s: entering poll loop", ztex->repr);
while (!(overflow || thr->work_restart)) {
count++;
int sleepcount = 0;
while (thr->work_restart == 0 && sleepcount < 25) {
cgsleep_ms(10);
sleepcount += 1;
}
if (thr->work_restart) {
applog(LOG_DEBUG, "%s: New work detected", ztex->repr);
break;
}
ztex_selectFpga(ztex);
i = libztex_readHashData(ztex, &hdata[0]);
if (i < 0) {
// Something wrong happened in read
applog(LOG_ERR, "%s: Failed to read hash data with err %d, retrying", ztex->repr, i);
cgsleep_ms(500);
i = libztex_readHashData(ztex, &hdata[0]);
if (i < 0) {
// And there's nothing we can do about it
ztex_disable(thr);
applog(LOG_ERR, "%s: Failed to read hash data with err %d, giving up", ztex->repr, i);
free(lastnonce);
free(backlog);
ztex_releaseFpga(ztex);
return -1;
}
}
ztex_releaseFpga(ztex);
if (thr->work_restart) {
applog(LOG_DEBUG, "%s: New work detected", ztex->repr);
break;
}
ztex->errorCount[ztex->freqM] *= 0.995;
ztex->errorWeight[ztex->freqM] = ztex->errorWeight[ztex->freqM] * 0.995 + 1.0;
for (i = 0; i < ztex->numNonces; i++) {
nonce = hdata[i].nonce;
if (nonce > noncecnt)
noncecnt = nonce;
// KRAMBLE don't overflow if nonce == 0 (eg on lockup)
if ( (((0xffffffff - nonce) < (nonce - lastnonce[i])) || nonce < lastnonce[i]) && nonce ) {
applog(LOG_DEBUG, "%s: overflow nonce=%08x lastnonce=%08x", ztex->repr, nonce, lastnonce[i]);
overflow = true;
} else
lastnonce[i] = nonce;
if (ztex_checkNonce(work, nonce) != (hdata->hash7)) {
applog(LOG_WARNING, "%s: checkNonce failed for %08X", ztex->repr, nonce);
// do not count errors in the first 500ms after sendHashData (2x250 wait time)
if (count > 2) {
thr->cgpu->hw_errors++;
errorCount += (1.0 / ztex->numNonces);
}
}
else
validNonces++;
for (j=0; j<=ztex->extraSolutions; j++) {
nonce = hdata[i].goldenNonce[j];
if (nonce == ztex->offsNonces) {
continue;
}
// precheck the extraSolutions since they often fail
if (j > 0 && ztex_checkNonce(work, nonce) != 0) {
continue;
}
found = false;
for (k = 0; k < backlog_max; k++) {
if (backlog[k] == nonce) {
found = true;
break;
}
}
if (!found) {
applog(LOG_DEBUG, "%s: Share found N%dE%d", ztex->repr, i, j);
backlog[backlog_p++] = nonce;
if (backlog_p >= backlog_max)
backlog_p = 0;
work->blk.nonce = 0xffffffff;
submit_nonce(thr, work, nonce);
applog(LOG_DEBUG, "%s: submitted %08x", ztex->repr, nonce);
}
}
}
}
// only add the errorCount if we had at least some valid nonces or
// had no valid nonces in the last round
if (errorCount > 0.0) {
if (ztex->nonceCheckValid > 0 && validNonces == 0) {
applog(LOG_ERR, "%s: resetting %.1f errors", ztex->repr, errorCount);
}
else {
ztex->errorCount[ztex->freqM] += errorCount;
}
}
// remember the number of valid nonces for the check in the next round
ztex->nonceCheckValid = validNonces;
ztex->errorRate[ztex->freqM] = ztex->errorCount[ztex->freqM] / ztex->errorWeight[ztex->freqM] * (ztex->errorWeight[ztex->freqM] < 100? ztex->errorWeight[ztex->freqM] * 0.01: 1.0);
if (ztex->errorRate[ztex->freqM] > ztex->maxErrorRate[ztex->freqM])
ztex->maxErrorRate[ztex->freqM] = ztex->errorRate[ztex->freqM];
if (!ztex_updateFreq(ztex)) {
// Something really serious happened, so mark this thread as dead!
free(lastnonce);
free(backlog);
return -1;
}
applog(LOG_DEBUG, "%s: exit %1.8X", ztex->repr, noncecnt);
work->blk.nonce = 0xffffffff;
free(lastnonce);
free(backlog);
return noncecnt;
}
static bool gridseed_check_new_task(struct cgpu_info *gridseed, GRIDSEED_INFO *info)
{
cgtimer_t ts_now, ts_res;
bool ret = false;
cgtimer_time(&ts_now);
mutex_lock(&info->qlock);
cgtimer_sub(&ts_now, &info->query_ts, &ts_res);
#ifndef WIN32
if (ts_res.tv_sec > 0 || ts_res.tv_nsec > 350000000) {
#else
if (ts_res.QuadPart > 3500000) {
#endif
info->query_qlen = false;
info->dev_queue_len = 1;
info->needworks = 1;
cgtimer_time(&info->query_ts);
}
mutex_unlock(&info->qlock);
}
/*
* Thread to read response from Miner device
*/
static void *gridseed_get_results(void *userdata)
{
struct cgpu_info *gridseed = (struct cgpu_info *)userdata;
GRIDSEED_INFO *info = gridseed->device_data;
struct thr_info *thr = info->thr;
char threadname[24];
unsigned char readbuf[GRIDSEED_READBUF_SIZE];
int offset = 0, ret;
snprintf(threadname, sizeof(threadname), "GridSeed_Recv/%d", gridseed->device_id);
RenameThread(threadname);
applog(LOG_NOTICE, "GridSeed: recv thread running, %s", threadname);
while(likely(!gridseed->shutdown)) {
unsigned char buf[GRIDSEED_READ_SIZE];
if (offset >= GRIDSEED_READ_SIZE)
gridseed_parse_results(gridseed, info, thr, readbuf, &offset);
if (unlikely(offset + GRIDSEED_READ_SIZE >= GRIDSEED_READBUF_SIZE)) {
applog(LOG_ERR, "Read buffer overflow, resetting %d", gridseed->device_id);
offset = 0;
}
ret = gc3355_get_data(gridseed, buf, sizeof(buf));
if (ret == LIBUSB_ERROR_NO_DEVICE)
gridseed->shutdown = true;
if (unlikely(ret != 0))
continue;
if (opt_debug) {
applog(LOG_DEBUG, "GridSeed: get %d bytes", GRIDSEED_READ_SIZE);
hexdump((uint8_t *)buf, GRIDSEED_READ_SIZE);
}
memcpy(readbuf + offset, buf, GRIDSEED_READ_SIZE);
offset += GRIDSEED_READ_SIZE;
}
return NULL;
}
/*
* Thread to send task and queue length query command to device
*/
static void *gridseed_send_command(void *userdata)
{
struct cgpu_info *gridseed = (struct cgpu_info *)userdata;
GRIDSEED_INFO *info = gridseed->device_data;
char threadname[24];
int i;
snprintf(threadname, sizeof(threadname), "GridSeed_Send/%d", gridseed->device_id);
RenameThread(threadname);
applog(LOG_NOTICE, "GridSeed: send thread running, %s", threadname);
while(likely(!gridseed->shutdown)) {
cgsleep_ms(10);
if (info->usefifo == 0) {
/* mark the first work in queue as complete after several ms */
if (gridseed_check_new_task(gridseed, info))
continue;
} else {
/* send query command to device */
if (gridseed_send_query_cmd(gridseed, info))
continue;
}
/* send task to device */
mutex_lock(&info->qlock);
for(i=0; i<info->soft_queue_len; i++) {
if (info->workqueue[i] && info->workqueue[i]->devflag == false) {
if (gridseed_send_task(gridseed, info, info->workqueue[i])) {
info->workqueue[i]->devflag = true;
break;
}
}
}
mutex_unlock(&info->qlock);
/* recv LTC task and send to device */
gridseed_recv_ltc(gridseed, info);
}
return NULL;
}
/*========== functions for struct device_drv ===========*/
static void gridseed_detect(bool __maybe_unused hotplug)
{
usb_detect(&gridseed_drv, gridseed_detect_one);
}
static int64_t ztex_scanhash(struct thr_info *thr, struct work *work,
__maybe_unused int64_t max_nonce)
{
struct cgpu_info *cgpu = thr->cgpu;
struct libztex_device *ztex;
unsigned char sendbuf[44];
int i, j, k;
uint32_t *backlog;
int backlog_p = 0, backlog_max;
uint32_t *lastnonce;
uint32_t nonce, noncecnt = 0;
bool overflow, found;
struct libztex_hash_data hdata[GOLDEN_BACKLOG];
if (thr->cgpu->deven == DEV_DISABLED)
return -1;
ztex = thr->cgpu->device_ztex;
memcpy(sendbuf, work->data + 64, 12);
memcpy(sendbuf + 12, work->midstate, 32);
ztex_selectFpga(ztex, cgpu->proc_id);
i = libztex_sendHashData(ztex, sendbuf);
if (i < 0) {
// Something wrong happened in send
applog(LOG_ERR, "%"PRIpreprv": Failed to send hash data with err %d, retrying", cgpu->proc_repr, i);
cgsleep_ms(500);
i = libztex_sendHashData(ztex, sendbuf);
if (i < 0) {
// And there's nothing we can do about it
ztex_disable(thr);
applog(LOG_ERR, "%"PRIpreprv": Failed to send hash data with err %d, giving up", cgpu->proc_repr, i);
ztex_releaseFpga(ztex);
return -1;
}
}
ztex_releaseFpga(ztex);
applog(LOG_DEBUG, "%"PRIpreprv": sent hashdata", cgpu->proc_repr);
lastnonce = calloc(1, sizeof(uint32_t)*ztex->numNonces);
if (lastnonce == NULL) {
applog(LOG_ERR, "%"PRIpreprv": failed to allocate lastnonce[%d]", cgpu->proc_repr, ztex->numNonces);
return -1;
}
/* Add an extra slot for detecting dupes that lie around */
backlog_max = ztex->numNonces * (2 + ztex->extraSolutions);
backlog = calloc(1, sizeof(uint32_t) * backlog_max);
if (backlog == NULL) {
applog(LOG_ERR, "%"PRIpreprv": failed to allocate backlog[%d]", cgpu->proc_repr, backlog_max);
free(lastnonce);
return -1;
}
overflow = false;
int count = 0;
applog(LOG_DEBUG, "%"PRIpreprv": entering poll loop", cgpu->proc_repr);
while (!(overflow || thr->work_restart)) {
count++;
if (!restart_wait(thr, 250))
{
applog(LOG_DEBUG, "%"PRIpreprv": New work detected", cgpu->proc_repr);
break;
}
ztex_selectFpga(ztex, cgpu->proc_id);
i = libztex_readHashData(ztex, &hdata[0]);
if (i < 0) {
// Something wrong happened in read
applog(LOG_ERR, "%"PRIpreprv": Failed to read hash data with err %d, retrying", cgpu->proc_repr, i);
cgsleep_ms(500);
i = libztex_readHashData(ztex, &hdata[0]);
if (i < 0) {
// And there's nothing we can do about it
ztex_disable(thr);
applog(LOG_ERR, "%"PRIpreprv": Failed to read hash data with err %d, giving up", cgpu->proc_repr, i);
free(lastnonce);
free(backlog);
ztex_releaseFpga(ztex);
return -1;
}
}
ztex_releaseFpga(ztex);
if (thr->work_restart) {
applog(LOG_DEBUG, "%"PRIpreprv": New work detected", cgpu->proc_repr);
break;
}
dclk_gotNonces(&ztex->dclk);
for (i = 0; i < ztex->numNonces; i++) {
nonce = hdata[i].nonce;
if (nonce > noncecnt)
noncecnt = nonce;
if (((0xffffffff - nonce) < (nonce - lastnonce[i])) || nonce < lastnonce[i]) {
applog(LOG_DEBUG, "%"PRIpreprv": overflow nonce=%08x lastnonce=%08x", cgpu->proc_repr, nonce, lastnonce[i]);
overflow = true;
} else
lastnonce[i] = nonce;
if (!ztex_checkNonce(cgpu, work, &hdata[i])) {
// do not count errors in the first 500ms after sendHashData (2x250 wait time)
if (count > 2)
dclk_errorCount(&ztex->dclk, 1.0 / ztex->numNonces);
inc_hw_errors_only(thr);
}
for (j=0; j<=ztex->extraSolutions; j++) {
nonce = hdata[i].goldenNonce[j];
if (nonce == ztex->offsNonces) {
continue;
}
found = false;
for (k = 0; k < backlog_max; k++) {
if (backlog[k] == nonce) {
found = true;
break;
}
}
if (!found) {
backlog[backlog_p++] = nonce;
if (backlog_p >= backlog_max)
backlog_p = 0;
work->blk.nonce = 0xffffffff;
if (!j || test_nonce(work, nonce, false))
submit_nonce(thr, work, nonce);
applog(LOG_DEBUG, "%"PRIpreprv": submitted %08x (from N%dE%d)", cgpu->proc_repr, nonce, i, j);
}
}
}
}
dclk_preUpdate(&ztex->dclk);
if (!ztex_updateFreq(thr)) {
// Something really serious happened, so mark this thread as dead!
free(lastnonce);
free(backlog);
return -1;
}
applog(LOG_DEBUG, "%"PRIpreprv": exit %1.8X", cgpu->proc_repr, noncecnt);
work->blk.nonce = 0xffffffff;
free(lastnonce);
free(backlog);
return noncecnt;
}
static int hashratio_stratum_pkgs(int fd, struct pool *pool, struct thr_info *thr)
{
const int merkle_offset = 36;
struct hashratio_pkg pkg;
int i, a, b, tmp;
unsigned char target[32];
int job_id_len;
/* Send out the first stratum message STATIC */
applog(LOG_DEBUG, "hashratio: Pool stratum message STATIC: %d, %d, %d, %d, %d, %d",
pool->coinbase_len,
pool->nonce2_offset,
pool->n2size,
merkle_offset,
pool->merkles,
pool->pool_no);
memset(pkg.data, 0, HRTO_P_DATA_LEN);
tmp = be32toh(pool->coinbase_len);
memcpy(pkg.data, &tmp, 4);
tmp = be32toh(pool->nonce2_offset);
memcpy(pkg.data + 4, &tmp, 4);
tmp = be32toh(pool->n2size);
memcpy(pkg.data + 8, &tmp, 4);
tmp = be32toh(merkle_offset);
memcpy(pkg.data + 12, &tmp, 4);
tmp = be32toh(pool->merkles);
memcpy(pkg.data + 16, &tmp, 4);
tmp = be32toh((int)pool->swork.diff);
memcpy(pkg.data + 20, &tmp, 4);
tmp = be32toh((int)pool->pool_no);
memcpy(pkg.data + 24, &tmp, 4);
hashratio_init_pkg(&pkg, HRTO_P_STATIC, 1, 1);
while (hashratio_send_pkg(fd, &pkg, thr) != HRTO_SEND_OK)
;
set_target(target, pool->swork.diff);
memcpy(pkg.data, target, 32);
if (opt_debug) {
char *target_str;
target_str = bin2hex(target, 32);
applog(LOG_DEBUG, "hashratio: Pool stratum target: %s", target_str);
free(target_str);
}
hashratio_init_pkg(&pkg, HRTO_P_TARGET, 1, 1);
while (hashratio_send_pkg(fd, &pkg, thr) != HRTO_SEND_OK)
;
applog(LOG_DEBUG, "hashratio: Pool stratum message JOBS_ID: %s",
pool->swork.job_id);
memset(pkg.data, 0, HRTO_P_DATA_LEN);
job_id_len = strlen(pool->swork.job_id);
job_id_len = job_id_len >= 4 ? 4 : job_id_len;
for (i = 0; i < job_id_len; i++) {
pkg.data[i] = *(pool->swork.job_id + strlen(pool->swork.job_id) - 4 + i);
}
hashratio_init_pkg(&pkg, HRTO_P_JOB_ID, 1, 1);
while (hashratio_send_pkg(fd, &pkg, thr) != HRTO_SEND_OK)
;
a = pool->coinbase_len / HRTO_P_DATA_LEN;
b = pool->coinbase_len % HRTO_P_DATA_LEN;
applog(LOG_DEBUG, "pool->coinbase_len: %d", pool->coinbase_len);
applog(LOG_DEBUG, "hashratio: Pool stratum message COINBASE: %d %d", a, b);
for (i = 0; i < a; i++) {
memcpy(pkg.data, pool->coinbase + i * 32, 32);
hashratio_init_pkg(&pkg, HRTO_P_COINBASE, i + 1, a + (b ? 1 : 0));
while (hashratio_send_pkg(fd, &pkg, thr) != HRTO_SEND_OK)
;
if (i % 25 == 0) {
cgsleep_ms(2);
}
}
if (b) {
memset(pkg.data, 0, HRTO_P_DATA_LEN);
memcpy(pkg.data, pool->coinbase + i * 32, b);
hashratio_init_pkg(&pkg, HRTO_P_COINBASE, i + 1, i + 1);
while (hashratio_send_pkg(fd, &pkg, thr) != HRTO_SEND_OK)
;
}
b = pool->merkles;
applog(LOG_DEBUG, "hashratio: Pool stratum message MERKLES: %d", b);
for (i = 0; i < b; i++) {
memset(pkg.data, 0, HRTO_P_DATA_LEN);
memcpy(pkg.data, pool->swork.merkle_bin[i], 32);
hashratio_init_pkg(&pkg, HRTO_P_MERKLES, i + 1, b);
while (hashratio_send_pkg(fd, &pkg, thr) != HRTO_SEND_OK)
;
}
applog(LOG_DEBUG, "hashratio: Pool stratum message HEADER: 4");
for (i = 0; i < 4; i++) {
memset(pkg.data, 0, HRTO_P_HEADER);
memcpy(pkg.data, pool->header_bin + i * 32, 32);
hashratio_init_pkg(&pkg, HRTO_P_HEADER, i + 1, 4);
while (hashratio_send_pkg(fd, &pkg, thr) != HRTO_SEND_OK)
;
}
return 0;
}
