static int
bcm_regex_report_control(int unit, sal_usecs_t interval)
{
_bcm_ft_report_ctrl_t *rctrl = _bcm_ft_report_ctrl[unit];
char name[32];
rctrl = _bcm_ft_report_ctrl[unit];
sal_snprintf(name, sizeof(name), "bcmFtExportDma.%d", unit);
rctrl->interval = interval;
if (interval) {
if (rctrl->pid == SAL_THREAD_ERROR) {
rctrl->pid = sal_thread_create(name, SAL_THREAD_STKSZ,
soc_property_get(unit, spn_BCM_FT_REPORT_THREAD_PRI, 50),
_bcm_report_fifo_dma_thread,
INT_TO_PTR(unit));
if (rctrl->pid == SAL_THREAD_ERROR) {
LOG_ERROR(BSL_LS_BCM_COMMON,
(BSL_META_U(unit,
"%s: Could not start thread\n"),
FUNCTION_NAME()));
return BCM_E_MEMORY;
}
}
} else {
/* Wake up thread so it will check the changed interval value */
sal_sem_give(SOC_CONTROL(unit)->ftreportIntr);
}
return BCM_E_NONE;
}
/*******************************************************************************
* Name: gen_check_and_gen_showname
* Purpose: check original path and build showing string
* Input:
* szOrig: absolute path
* szShow: showing path
* Output:
* Return:
* success: 0
* failed : -1
* Note:
******************************************************************************/
int
gen_check_and_gen_showname(char *szOrig, char *szShow)
{
int nCnt = 0;
int nIdx = 0;
rootdir_t *rdir = NULL;
if (NULL == szOrig || NULL == szShow)
{
return -1;
}
nCnt = sizeof(actual_root_dir) / sizeof(actual_root_dir[0]);
for (nIdx = 0; nIdx < nCnt; nIdx++)
{
rdir = &actual_root_dir[nIdx];
if (!sal_strncmp(szOrig, rdir->real_name,
sal_strlen(rdir->real_name)))
{
if (!sal_strcmp(szOrig, rdir->real_name))
{
sal_snprintf(szShow, M_FULLPATH_MAX_LEN,
"%s/", rdir->show_name);
}
else if ('/' == szOrig[sal_strlen(rdir->real_name)])
{
sal_snprintf(szShow, M_FULLPATH_MAX_LEN, "%s%s",
rdir->show_name,
szOrig + sal_strlen(rdir->real_name));
}
else
{
sal_snprintf(szShow, M_FULLPATH_MAX_LEN, "%s/%s",
rdir->show_name,
szOrig + sal_strlen(rdir->real_name));
}
return 0;
}
}
return -1;
}
int
soc_dport_map_update(int unit)
{
int idx, port, dport;
soc_info_t *si = &SOC_INFO(unit);
for (idx = 0; idx < COUNTOF(SOC_DPORT_RMAP(unit)); idx++) {
SOC_DPORT_RMAP(unit)[idx] = -1;
}
for (idx = 0; idx < COUNTOF(SOC_DPORT_MAP(unit)); idx++) {
port = SOC_DPORT_MAP(unit)[idx];
if (port >= 0) {
SOC_DPORT_RMAP(unit)[port] = idx;
}
}
idx = 0;
SOC_DPORT_PBMP_ITER(unit, PBMP_FE_ALL(unit), dport, port) {
sal_snprintf(si->port_name[port], sizeof(si->port_name[port]),
"fe%d", soc_dport_from_dport_idx(unit, dport, idx++));
}
SOC_DPORT_PBMP_ITER(unit, PBMP_AXP_ALL(unit), dport, port) {
sal_snprintf(si->port_name[port], sizeof(si->port_name[port]),
"axp%d", soc_dport_from_dport_idx(unit, dport, idx++));
}
/*
* Function:
* soc_robo_dos_monitor_enable_set (internal)
* Purpose:
* Enable/disable DOS event monitor threads
* Parameters:
* unit - unit number.
* interval - time between resynchronization passes
* Returns:
* SOC_E_INTERNAL if can't create threads.
*/
int
soc_robo_dos_monitor_enable_set(int unit, sal_usecs_t interval)
{
drv_robo_dos_monitor_t *dm = drv_dm_control[unit];
sal_usecs_t us = interval;
soc_timeout_t to;
/* return if not init yet */
if (dm == NULL){
if (interval == 0){
/* no error return if set thread disable when dm not init */
return SOC_E_NONE;
} else {
/* init problem when enabling dm thread */
return SOC_E_INIT;
}
}
sal_snprintf(dm->task_name, sizeof(dm->task_name),
"robo_DOS_EVENT.%d", unit);
if (us){
/* --- enabling thread --- */
us = (interval >= MIN_DRV_DOS_MONITOR_INTERVAL) ? us :
MIN_DRV_DOS_MONITOR_INTERVAL;
dm->interval = us;
if (dm->dm_thread != NULL){
/* if thread is running, update the period and return */
sal_sem_give(dm->dm_sema);
return SOC_E_NONE;
} else {
if (sal_thread_create(dm->task_name,
SAL_THREAD_STKSZ,
ROBO_HWDOS_MONITOR_PRI,
(void (*)(void*))soc_robo_dos_monitor_thread,
INT_TO_PTR(unit)) == SAL_THREAD_ERROR){
dm->interval = 0;
dm->err_cnt = 0;
soc_cm_debug(DK_ERR, "Thread is not created\n");
soc_event_generate(unit, SOC_SWITCH_EVENT_THREAD_ERROR,
SOC_SWITCH_EVENT_THREAD_HWDOS_MONITOR,
__LINE__, SOC_E_MEMORY);
return SOC_E_MEMORY;
} else {
soc_timeout_init(&to, 3000000, 0);
while (dm->dm_thread == NULL) {
if (soc_timeout_check(&to)) {
dm->interval = 0;
dm->err_cnt = 0;
soc_cm_debug(DK_ERR, "%s: Thread did not start\n",
dm->task_name);
soc_event_generate(unit, SOC_SWITCH_EVENT_THREAD_ERROR,
SOC_SWITCH_EVENT_THREAD_HWDOS_MONITOR,
__LINE__, SOC_E_INTERNAL);
return SOC_E_INTERNAL;
break;
}
}
}
}
} else {
/* disabling thread */
dm->interval = 0;
sal_sem_give(dm->dm_sema);
soc_timeout_init(&to, 3000000, 0);
while (dm->dm_thread != NULL) {
if (soc_timeout_check(&to)) {
dm->interval = 0;
dm->err_cnt = 0;
soc_cm_debug(DK_ERR, "%s: Thread did not exit\n",
dm->task_name);
soc_event_generate(unit, SOC_SWITCH_EVENT_THREAD_ERROR,
SOC_SWITCH_EVENT_THREAD_HWDOS_MONITOR,
__LINE__, SOC_E_INTERNAL);
return SOC_E_INTERNAL;
break;
}
}
}
/* set interval if changed */
return SOC_E_NONE;
}
NDASUSER_API ndas_error_t
ndas_get_string_error(ndas_error_t code, char* dest, int len)
{
switch (code) {
case NDAS_OK:
sal_strncpy(dest,"NDAS_OK",len); break;
case NDAS_ERROR:
sal_strncpy(dest,"NDAS_ERROR",len); break;
case NDAS_ERROR_DRIVER_NOT_LOADED:
sal_strncpy(dest,"DRIVER_NOT_LOADED",len); break;
case NDAS_ERROR_DRIVER_ALREADY_LOADED:
sal_strncpy(dest,"DRIVER_ALREADY_LOADED",len); break;
case NDAS_ERROR_LIBARARY_NOT_INITIALIZED:
sal_strncpy(dest,"LIBARARY_NOT_INITIALIZED",len); break;
case NDAS_ERROR_INVALID_NDAS_ID:
sal_strncpy(dest,"INVALID_NDAS_ID",len); break;
case NDAS_ERROR_INVALID_NDAS_KEY:
sal_strncpy(dest,"INVALID_NDAS_KEY",len); break;
case NDAS_ERROR_NOT_IMPLEMENTED:
sal_strncpy(dest,"NOT_IMPLEMENTED",len); break;
case NDAS_ERROR_INVALID_PARAMETER:
sal_strncpy(dest,"INVALID_PARAMETER",len); break;
case NDAS_ERROR_INVALID_SLOT_NUMBER:
sal_strncpy(dest,"INVALID_SLOT_NUMBER",len); break;
case NDAS_ERROR_INVALID_NAME:
sal_strncpy(dest,"invalid name",len); break;
case NDAS_ERROR_NO_DEVICE:
sal_strncpy(dest,"NO_DEVICE",len); break;
case NDAS_ERROR_ALREADY_REGISTERED_DEVICE:
sal_strncpy(dest,"ALREADY_REGISTERED_DEVICE",len); break;
case NDAS_ERROR_ALREADY_ENABLED_DEVICE:
sal_strncpy(dest,"ALREADY_ENABLED_DEVICE",len); break;
case NDAS_ERROR_ALREADY_REGISTERED_NAME:
sal_strncpy(dest,"ALREADY_REGISTERED_NAME",len); break;
case NDAS_ERROR_ALREADY_DISABLED_DEVICE:
sal_strncpy(dest,"ALREADY_DISABLED_DEVICE",len); break;
case NDAS_ERROR_ALREADY_STARTED:
sal_strncpy(dest,"ALREADY_STARTED",len); break;
case NDAS_ERROR_ALREADY_STOPPED:
sal_strncpy(dest,"ALREADY_STOPPED",len); break;
case NDAS_ERROR_NOT_ONLINE :
sal_strncpy(dest,"the NDAS device is not online",len); break;
case NDAS_ERROR_NOT_CONNECTED:
sal_strncpy(dest,"the NDAS device is not connected",len); break;
case NDAS_ERROR_INVALID_HANDLE:
sal_strncpy(dest,"INVALID_HANDLE",len); break;
case NDAS_ERROR_NO_WRITE_ACCESS_RIGHT:
sal_strncpy(dest,"no access right to write the data",len); break;
case NDAS_ERROR_WRITE_BUSY:
sal_strncpy(dest,"WRITE_BUSY",len); break;
case NDAS_ERROR_UNSUPPORTED_HARDWARE_VERSION:
sal_strncpy(dest,"UNSUPPORTED_HARDWARE_VERSION",len); break;
case NDAS_ERROR_UNSUPPORTED_SOFTWARE_VERSION:
sal_strncpy(dest,"UNSUPPORTED_SOFTWARE_VERSION",len); break;
case NDAS_ERROR_UNSUPPORTED_DISK_MODE:
sal_strncpy(dest,"UNSUPPORTED_DISK_MODE",len); break;
case NDAS_ERROR_UNSUPPORTED_FEATURE:
sal_strncpy(dest,"UNSUPPORTED_FEATURE",len); break;
case NDAS_ERROR_BUFFER_OVERFLOW:
sal_strncpy(dest,"BUFFER_OVERFLOW",len); break;
case NDAS_ERROR_NO_NETWORK_INTERFACE:
sal_strncpy(dest,"NO_NETWORK_INTERFACE",len); break;
case NDAS_ERROR_INVALID_OPERATION:
sal_strncpy(dest,"INVALID_OPERATION",len); break;
case NDAS_ERROR_NETWORK_DOWN:
sal_strncpy(dest,"NETWORK_DOWN",len); break;
case NDAS_ERROR_MEDIA_CHANGED:
sal_strncpy(dest,"MEDIA_CHANGED",len); break;
case NDAS_ERROR_TIME_OUT:
sal_strncpy(dest,"Timed out",len); break;
case NDAS_ERROR_READONLY:
sal_strncpy(dest,"read-only",len); break;
case NDAS_ERROR_OUT_OF_MEMORY:
sal_strncpy(dest,"out of memory",len); break;
case NDAS_ERROR_EXIST:
sal_strncpy(dest,"EXIST",len); break;
case NDAS_ERROR_SHUTDOWN:
sal_strncpy(dest,"SHUTDOWN",len); break;
case NDAS_ERROR_PROTO_REGISTRATION_FAIL:
sal_strncpy(dest,"PROTO_REGISTRATION_FAIL",len); break;
case NDAS_ERROR_SHUTDOWN_IN_PROGRESS:
sal_strncpy(dest,"Shutdown is in progress", len); break;
case NDAS_ERROR_ADDRESS_NOT_AVAIABLE:
sal_strncpy(dest,"ADDRESS_NOT_AVAIABLE",len); break;
case NDAS_ERROR_NOT_BOUND:
sal_strncpy(dest,"NOT_BOUND",len); break;
case NDAS_ERROR_NETWORK_FAIL:
sal_strncpy(dest,"NETWORK_FAIL",len); break;
case NDAS_ERROR_HDD_DMA2_NOT_SUPPORTED:
sal_strncpy(dest,"Hard Disk Device does not support DMA 2 mode",len); break;
case NDAS_ERROR_IDE_REMOTE_INITIATOR_NOT_EXIST:
sal_strncpy(dest,"Remote Initiator not exists",len); break;
case NDAS_ERROR_IDE_REMOTE_INITIATOR_BAD_COMMAND:
sal_strncpy(dest,"Remote Initiator bad command",len); break;
case NDAS_ERROR_IDE_REMOTE_COMMAND_FAILED:
sal_strncpy(dest,"Remote Initiator command failed",len); break;
case NDAS_ERROR_IDE_REMOTE_AUTH_FAILED:
sal_strncpy(dest,"Remote Authorization failed",len); break;
case NDAS_ERROR_IDE_TARGET_NOT_EXIST:
sal_strncpy(dest,"Target not exists",len); break;
case NDAS_ERROR_HARDWARE_DEFECT:
sal_strncpy(dest,"Hardware defect",len); break;
case NDAS_ERROR_BAD_SECTOR:
sal_strncpy(dest,"Bad sector",len); break;
case NDAS_ERROR_IDE_TARGET_BROKEN_DATA:
sal_strncpy(dest,"Target broken data",len); break;
case NDAS_ERROR_IDE_VENDOR_SPECIFIC:
sal_strncpy(dest,"IDE vendor specific error",len); break;
case NDAS_ERROR_INTERNAL:
sal_strncpy(dest,"The error is caused by the internal framework bug",len); break;
case NDAS_ERROR_MAX_USER_ERR_NUM:
sal_strncpy(dest,"MAX_USER_ERR_NUM",len); break;
case NDAS_ERROR_INVALID_RANGE_REQUEST:
sal_strncpy(dest,"Invalid range of request",len); break;
case NDAS_ERROR_INVALID_METADATA:
sal_strncpy(dest,"Invalid metadata", len); break;
case NDAS_ERROR_CONNECT_FAILED:
sal_strncpy(dest,"Failed to connect", len); break;
default:
sal_snprintf(dest,len,"UNKNOWN CODE(%d)",code); break;
}
return NDAS_OK;
}
/*******************************************************************************
* Name: gen_check_and_get_filename
* Purpose: check and return absolute filename
* Input:
* filename: file name start with drive
* outsize: out buffer size
* Output:
* outfile: output file name
* Return:
* success: 0
* failed : -1
* Note:
******************************************************************************/
int
gen_check_and_get_filename(char *filename, char *outfile, size_t outsize)
{
char szFullName[M_FULLPATH_MAX_LEN];
rootdir_t *rdir = NULL;
int nValLen = 0;
int nLen = 0;
int nCnt = 0;
int nIdx = 0;
if (NULL == filename || NULL == outfile || 0 > outsize)
{
return -1;
}
if (sal_strlen(filename) >= M_FULLPATH_MAX_LEN)
{
ctc_cli_out("%% File or directory name length overflow.\n");
return -1;
}
sal_snprintf(szFullName, M_FULLPATH_MAX_LEN, filename);
if (gen_validate_relative_path(szFullName) != 0)
{
return -1;
}
gen_path_getparents(szFullName);
nLen = sal_strlen(szFullName);
nCnt = sizeof(actual_root_dir) / sizeof(actual_root_dir[0]);
for (nIdx = 0; nIdx < nCnt; nIdx++)
{
rdir = &actual_root_dir[nIdx];
nValLen = sal_strlen(rdir->show_name);
if (!sal_strncmp(szFullName, rdir->show_name,
sal_strlen(rdir->show_name)))
{
if (!sal_strcmp(szFullName, rdir->show_name))
{
sal_snprintf(outfile, outsize, "%s",
rdir->real_name);
}
else if ('/' == szFullName[nValLen])
{
sal_snprintf(outfile, outsize, "%s%s",
rdir->real_name, szFullName + nValLen);
if ((sal_strlen(rdir->real_name) + sal_strlen(szFullName + nValLen))
>= M_FULLPATH_MAX_LEN)
{
ctc_cli_out("%% File or directory name length overflow.\n");
return -1;
}
}
else
{
sal_snprintf(outfile, outsize, "%s/%s",
rdir->real_name, szFullName + nValLen);
if ((sal_strlen(rdir->real_name) + sal_strlen(szFullName + nValLen) + 1)
>= M_FULLPATH_MAX_LEN)
{
ctc_cli_out("%% File or directory name length overflow.\n");
return -1;
}
}
if (gen_validate_path(outfile) != 0)
{
return -1;
}
return 0;
}
}
/* is it .. or . or raw path
* let connect it with current working directory and check it
*/
szFullName[0] = '\0';
szFullName[M_FULLPATH_MAX_LEN - 1] = '\0';
if (getcwd(szFullName, M_FULLPATH_MAX_LEN) == NULL)
{
ctc_cli_out("%% Get current working directory failed: %s\n",
sal_strerror(errno));
return -1;
}
nLen = sal_strlen(szFullName);
if ('/' != filename[0])
{
sal_snprintf(szFullName + nLen, M_FULLPATH_MAX_LEN - nLen, "/%s", filename);
if ((nLen + sal_strlen(filename) + 1) >= M_FULLPATH_MAX_LEN)
{
ctc_cli_out("%% File or directory name length overflow.\n");
return -1;
}
}
else
{
sal_snprintf(szFullName + nLen, M_FULLPATH_MAX_LEN - nLen, "%s", filename);
if ((nLen + sal_strlen(filename)) >= M_FULLPATH_MAX_LEN)
{
ctc_cli_out("%% File or directory name length overflow.\n");
return -1;
}
}
gen_path_getparents(szFullName);
nLen = sal_strlen(szFullName);
nCnt = sizeof(actual_root_dir) / sizeof(actual_root_dir[0]);
for (nIdx = 0; nIdx < nCnt; nIdx++)
{
rdir = &actual_root_dir[nIdx];
nValLen = sal_strlen(rdir->real_name);
if (!sal_strncmp(szFullName, rdir->real_name,
sal_strlen(rdir->real_name)))
{
sal_snprintf(outfile, outsize, szFullName);
if (gen_validate_path(outfile) != 0)
{
return -1;
}
return 0;
}
if (!sal_strncmp(szFullName, rdir->real_name, nLen))
{
/* this directory not showing for user
* setting it to root directory of this part
*/
return -1;
}
}
return -1;
}
/* Append minutes/seconds to prefix */
static int
add_msval(char *buf, int max, int msval)
{
return sal_snprintf(buf, max, ":%02d", msval);
}
/* Append decimal integer to prefix */
static int
add_dval(char *buf, int max, int dval)
{
return sal_snprintf(buf, max, "%d", dval);
}
/* Append string value to prefix */
static int
add_string(char *buf, int max, const char *str)
{
return sal_snprintf(buf, max, "%s", str);
}