static config_err_t
_get_sol_sol_authentication (bmc_config_state_data_t *state_data,
struct sol_authentication *sa)
{
fiid_obj_t obj_cmd_rs = NULL;
uint64_t val;
config_err_t rv = CONFIG_ERR_FATAL_ERROR;
config_err_t ret;
uint8_t channel_number;
assert(state_data);
assert(sa);
_FIID_OBJ_CREATE(obj_cmd_rs, tmpl_cmd_get_sol_configuration_parameters_sol_authentication_rs);
if ((ret = get_sol_channel_number (state_data, &channel_number)) != CONFIG_ERR_SUCCESS)
{
rv = ret;
goto cleanup;
}
if (ipmi_cmd_get_sol_configuration_parameters_sol_authentication (state_data->ipmi_ctx,
channel_number,
IPMI_GET_SOL_PARAMETER,
SET_SELECTOR,
BLOCK_SELECTOR,
obj_cmd_rs) < 0)
{
if (state_data->prog_data->args->config_args.common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"ipmi_cmd_get_sol_configuration_parameters_sol_authentication: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(state_data->ipmi_ctx)));
if (!IPMI_CTX_ERRNUM_IS_FATAL_ERROR(state_data->ipmi_ctx))
rv = CONFIG_ERR_NON_FATAL_ERROR;
goto cleanup;
}
_FIID_OBJ_GET (obj_cmd_rs, "sol_privilege_level", &val);
sa->sol_privilege_level = val;
_FIID_OBJ_GET (obj_cmd_rs, "force_sol_payload_authentication", &val);
sa->force_sol_payload_authentication = val;
_FIID_OBJ_GET (obj_cmd_rs, "force_sol_payload_encryption", &val);
sa->force_sol_payload_encryption = val;
rv = CONFIG_ERR_SUCCESS;
cleanup:
_FIID_OBJ_DESTROY(obj_cmd_rs);
return (rv);
}
static config_err_t
sol_payload_port_checkout (const char *section_name,
struct config_keyvalue *kv,
void *arg)
{
bmc_config_state_data_t *state_data = (bmc_config_state_data_t *)arg;
fiid_obj_t obj_cmd_rs = NULL;
uint64_t val;
config_err_t rv = CONFIG_ERR_FATAL_ERROR;
config_err_t ret;
uint8_t channel_number;
_FIID_OBJ_CREATE(obj_cmd_rs, tmpl_cmd_get_sol_configuration_parameters_sol_payload_port_number_rs);
if ((ret = get_sol_channel_number (state_data, &channel_number)) != CONFIG_ERR_SUCCESS)
{
rv = ret;
goto cleanup;
}
if (ipmi_cmd_get_sol_configuration_parameters_sol_payload_port_number (state_data->ipmi_ctx,
channel_number,
IPMI_GET_SOL_PARAMETER,
SET_SELECTOR,
BLOCK_SELECTOR,
obj_cmd_rs) < 0)
{
if (state_data->prog_data->args->config_args.common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"ipmi_cmd_get_sol_configuration_parameters_sol_payload_port_number: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(state_data->ipmi_ctx)));
if (!IPMI_CTX_ERRNUM_IS_FATAL_ERROR(state_data->ipmi_ctx))
rv = CONFIG_ERR_NON_FATAL_ERROR;
goto cleanup;
}
_FIID_OBJ_GET (obj_cmd_rs, "port_number", &val);
if (config_section_update_keyvalue_output_int(state_data->pstate,
kv,
val) < 0)
return CONFIG_ERR_FATAL_ERROR;
rv = CONFIG_ERR_SUCCESS;
cleanup:
_FIID_OBJ_DESTROY(obj_cmd_rs);
return (rv);
}
static config_err_t
_get_sol_character_accumulate_interval_and_send_threshold (bmc_config_state_data_t *state_data,
struct interval_and_threshold *it)
{
fiid_obj_t obj_cmd_rs = NULL;
uint64_t val;
config_err_t rv = CONFIG_ERR_FATAL_ERROR;
config_err_t ret;
uint8_t channel_number;
assert(state_data);
assert(it);
_FIID_OBJ_CREATE(obj_cmd_rs, tmpl_cmd_get_sol_configuration_parameters_character_accumulate_interval_and_send_threshold_rs);
if ((ret = get_sol_channel_number (state_data, &channel_number)) != CONFIG_ERR_SUCCESS)
{
rv = ret;
goto cleanup;
}
if (ipmi_cmd_get_sol_configuration_parameters_character_accumulate_interval_and_send_threshold (state_data->ipmi_ctx,
channel_number,
IPMI_GET_SOL_PARAMETER,
SET_SELECTOR,
BLOCK_SELECTOR,
obj_cmd_rs) < 0)
{
if (state_data->prog_data->args->config_args.common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"ipmi_cmd_get_sol_configuration_parameters_character_accumulate_interval_and_send_threshold: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(state_data->ipmi_ctx)));
if (!IPMI_CTX_ERRNUM_IS_FATAL_ERROR(state_data->ipmi_ctx))
rv = CONFIG_ERR_NON_FATAL_ERROR;
goto cleanup;
}
_FIID_OBJ_GET (obj_cmd_rs, "character_accumulate_interval", &val);
it->character_accumulate_interval = val;
_FIID_OBJ_GET (obj_cmd_rs, "character_send_threshold", &val);
it->character_send_threshold = val;
rv = CONFIG_ERR_SUCCESS;
cleanup:
_FIID_OBJ_DESTROY(obj_cmd_rs);
return (rv);
}
static config_err_t
_set_key(bmc_config_state_data_t *state_data,
uint8_t key_type,
uint8_t *key,
uint32_t key_len)
{
fiid_obj_t obj_cmd_rs = NULL;
config_err_t rv = CONFIG_ERR_FATAL_ERROR;
config_err_t ret;
uint8_t channel_number;
assert(key_type == IPMI_CHANNEL_SECURITY_KEYS_KEY_ID_K_R
|| key_type == IPMI_CHANNEL_SECURITY_KEYS_KEY_ID_K_G);
_FIID_OBJ_CREATE(obj_cmd_rs, tmpl_cmd_set_channel_security_keys_rs);
if ((ret = get_lan_channel_number (state_data, &channel_number)) != CONFIG_ERR_SUCCESS)
{
rv = ret;
goto cleanup;
}
if (ipmi_cmd_set_channel_security_keys (state_data->ipmi_ctx,
channel_number,
IPMI_CHANNEL_SECURITY_KEYS_OPERATION_SET_KEY,
key_type,
key,
key_len,
obj_cmd_rs) < 0)
{
if (state_data->prog_data->args->config_args.common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"ipmi_cmd_set_channel_security_keys: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(state_data->ipmi_ctx)));
if (!IPMI_CTX_ERRNUM_IS_FATAL_ERROR(state_data->ipmi_ctx))
rv = CONFIG_ERR_NON_FATAL_ERROR;
goto cleanup;
}
rv = CONFIG_ERR_SUCCESS;
cleanup:
_FIID_OBJ_DESTROY(obj_cmd_rs);
return (rv);
}
static config_err_t
sol_payload_port_commit (const char *section_name,
const struct config_keyvalue *kv,
void *arg)
{
bmc_config_state_data_t *state_data = (bmc_config_state_data_t *)arg;
fiid_obj_t obj_cmd_rs = NULL;
config_err_t rv = CONFIG_ERR_FATAL_ERROR;
config_err_t ret;
uint8_t channel_number;
_FIID_OBJ_CREATE(obj_cmd_rs, tmpl_cmd_set_sol_configuration_parameters_rs);
if ((ret = get_sol_channel_number (state_data, &channel_number)) != CONFIG_ERR_SUCCESS)
{
rv = ret;
goto cleanup;
}
if (ipmi_cmd_set_sol_configuration_parameters_sol_payload_port_number (state_data->ipmi_ctx,
channel_number,
atoi (kv->value_input),
obj_cmd_rs) < 0)
{
if (state_data->prog_data->args->config_args.common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"ipmi_cmd_set_sol_configuration_parameters_sol_payload_port_number: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(state_data->ipmi_ctx)));
if (!IPMI_CTX_ERRNUM_IS_FATAL_ERROR(state_data->ipmi_ctx))
rv = CONFIG_ERR_NON_FATAL_ERROR;
goto cleanup;
}
rv = CONFIG_ERR_SUCCESS;
cleanup:
_FIID_OBJ_DESTROY(obj_cmd_rs);
return (rv);
}
static config_err_t
_set_sol_sol_retry(bmc_config_state_data_t *state_data,
struct sol_retry *sr)
{
fiid_obj_t obj_cmd_rs = NULL;
config_err_t rv = CONFIG_ERR_FATAL_ERROR;
config_err_t ret;
uint8_t channel_number;
_FIID_OBJ_CREATE(obj_cmd_rs, tmpl_cmd_set_sol_configuration_parameters_rs);
if ((ret = get_sol_channel_number (state_data, &channel_number)) != CONFIG_ERR_SUCCESS)
{
rv = ret;
goto cleanup;
}
if (ipmi_cmd_set_sol_configuration_parameters_sol_retry (state_data->ipmi_ctx,
channel_number,
sr->retry_count,
sr->retry_interval,
obj_cmd_rs) < 0)
{
if (state_data->prog_data->args->config_args.common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"ipmi_cmd_set_sol_configuration_parameters_sol_retry: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(state_data->ipmi_ctx)));
if (!IPMI_CTX_ERRNUM_IS_FATAL_ERROR(state_data->ipmi_ctx))
rv = CONFIG_ERR_NON_FATAL_ERROR;
goto cleanup;
}
rv = CONFIG_ERR_SUCCESS;
cleanup:
_FIID_OBJ_DESTROY(obj_cmd_rs);
return (rv);
}
static config_err_t
_get_alert_policy_table (struct pef_config_state_data *state_data,
const char *section_name,
struct alert_policy_table *apt)
{
fiid_obj_t obj_cmd_rs = NULL;
uint64_t val;
config_err_t rv = CONFIG_ERR_FATAL_ERROR;
uint8_t alert_policy_entry_number;
assert(state_data);
assert(section_name);
assert(apt);
alert_policy_entry_number = atoi (section_name + strlen ("Alert_Policy_"));
_FIID_OBJ_CREATE(obj_cmd_rs, tmpl_cmd_get_pef_configuration_parameters_alert_policy_table_rs);
if (ipmi_cmd_get_pef_configuration_parameters_alert_policy_table (state_data->ipmi_ctx,
IPMI_GET_PEF_PARAMETER,
alert_policy_entry_number,
BLOCK_SELECTOR,
obj_cmd_rs) < 0)
{
if (state_data->prog_data->args->config_args.common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"ipmi_cmd_get_pef_configuration_parameters_alert_policy_table: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(state_data->ipmi_ctx)));
if (!IPMI_CTX_ERRNUM_IS_FATAL_ERROR(state_data->ipmi_ctx))
rv = CONFIG_ERR_NON_FATAL_ERROR;
goto cleanup;
}
#if 0
_FIID_OBJ_GET (obj_cmd_rs, "alert_policy_entry_number", &val);
#endif
_FIID_OBJ_GET (obj_cmd_rs, "policy_number.policy_type", &val);
apt->policy_type = val;
_FIID_OBJ_GET (obj_cmd_rs, "policy_number.enabled", &val);
apt->policy_enabled = val;
_FIID_OBJ_GET (obj_cmd_rs, "policy_number.policy_number", &val);
apt->policy_number = val;
_FIID_OBJ_GET (obj_cmd_rs, "channel_destination.destination_selector", &val);
apt->destination_selector = val;
_FIID_OBJ_GET (obj_cmd_rs, "channel_destination.channel_number", &val);
apt->channel_number = val;
_FIID_OBJ_GET (obj_cmd_rs, "alert_string_key.alert_string_set_selector", &val);
apt->alert_string_set_selector = val;
_FIID_OBJ_GET (obj_cmd_rs, "alert_string_key.event_specific_alert_string", &val);
apt->event_specific_alert_string = val;
rv = CONFIG_ERR_SUCCESS;
cleanup:
_FIID_OBJ_DESTROY(obj_cmd_rs);
return (rv);
}
static config_err_t
_set_alert_policy_table (struct pef_config_state_data *state_data,
const char *section_name,
struct alert_policy_table *apt)
{
fiid_obj_t obj_cmd_rs = NULL;
config_err_t rv = CONFIG_ERR_FATAL_ERROR;
uint8_t alert_policy_entry_number;
assert(state_data);
assert(section_name);
assert(apt);
alert_policy_entry_number = atoi (section_name + strlen ("Alert_Policy_"));
_FIID_OBJ_CREATE(obj_cmd_rs, tmpl_cmd_set_pef_configuration_parameters_rs);
if (ipmi_cmd_set_pef_configuration_parameters_alert_policy_table (state_data->ipmi_ctx,
alert_policy_entry_number,
apt->policy_type,
apt->policy_enabled,
apt->policy_number,
apt->destination_selector,
apt->channel_number,
apt->alert_string_set_selector,
apt->event_specific_alert_string,
obj_cmd_rs) < 0)
{
if (state_data->prog_data->args->config_args.common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"ipmi_cmd_set_pef_configuration_parameters_alert_policy_table: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(state_data->ipmi_ctx)));
/* IPMI Workaround
*
* Fujitsu RX 100 S5
*
* All fields have to be applied simultaneously, the motherboard
* does not appear to like configuration of one field of a time,
* always leading to invalid input errors.
*/
if (ipmi_ctx_errnum (state_data->ipmi_ctx) == IPMI_ERR_BAD_COMPLETION_CODE_REQUEST_DATA_INVALID
&& (ipmi_check_completion_code (obj_cmd_rs,
IPMI_COMP_CODE_REQUEST_INVALID_DATA_FIELD) == 1))
{
struct config_section *section = NULL;
struct config_keyvalue *kv;
unsigned int i;
for (i = 0; i < state_data->alert_policy_sections_len; i++)
{
if (!strcasecmp (section_name, state_data->alert_policy_sections[i]->section_name))
{
section = state_data->alert_policy_sections[i];
break;
}
}
/* shouldn't be possible */
if (!section)
goto cleanup;
if ((kv = config_find_keyvalue (state_data->pstate,
section,
"Policy_Type")))
apt->policy_type = policy_type_number (kv->value_input);
if ((kv = config_find_keyvalue (state_data->pstate,
section,
"Policy_Enabled")))
apt->policy_enabled = same (kv->value_input, "yes");
if ((kv = config_find_keyvalue (state_data->pstate,
section,
"Policy_Number")))
apt->policy_number = atoi (kv->value_input);
if ((kv = config_find_keyvalue (state_data->pstate,
section,
"Destination_Selector")))
apt->destination_selector = atoi (kv->value_input);
if ((kv = config_find_keyvalue (state_data->pstate,
section,
"Channel_Number")))
apt->channel_number = atoi (kv->value_input);
if ((kv = config_find_keyvalue (state_data->pstate,
section,
"Alert_String_Set_Selector")))
apt->alert_string_set_selector = atoi (kv->value_input);
if ((kv = config_find_keyvalue (state_data->pstate,
section,
"Event_Specific_Alert_String")))
apt->event_specific_alert_string = same (kv->value_input, "yes");
if (state_data->prog_data->args->config_args.common.debug)
pstdout_fprintf (state_data->pstate,
stderr,
"ipmi_cmd_set_pef_configuration_parameters_alert_policy_table: attempting workaround\n");
if (ipmi_cmd_set_pef_configuration_parameters_alert_policy_table (state_data->ipmi_ctx,
alert_policy_entry_number,
apt->policy_type,
apt->policy_enabled,
apt->policy_number,
apt->destination_selector,
apt->channel_number,
apt->alert_string_set_selector,
apt->event_specific_alert_string,
obj_cmd_rs) < 0)
{
if (state_data->prog_data->args->config_args.common.debug)
pstdout_fprintf (state_data->pstate,
stderr,
"ipmi_cmd_set_pef_configuration_parameters_alert_policy_table: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(state_data->ipmi_ctx)));
if (!IPMI_CTX_ERRNUM_IS_FATAL_ERROR(state_data->ipmi_ctx))
rv = CONFIG_ERR_NON_FATAL_ERROR;
goto cleanup;
}
/* success */
goto out;
}
else if (!IPMI_CTX_ERRNUM_IS_FATAL_ERROR(state_data->ipmi_ctx))
rv = CONFIG_ERR_NON_FATAL_ERROR;
goto cleanup;
}
out:
rv = CONFIG_ERR_SUCCESS;
cleanup:
_FIID_OBJ_DESTROY(obj_cmd_rs);
return (rv);
}
static int ipmi_free_open(struct ipmi_intf * intf)
{
if (getuid() != 0) {
fprintf(stderr, "Permission denied, must be root\n");
return -1;
}
#if IPMI_INTF_FREE_0_3_0
if (!(dev = ipmi_open_inband (IPMI_DEVICE_KCS,
0,
0,
0,
NULL,
IPMI_FLAGS_DEFAULT))) {
if (!(dev = ipmi_open_inband (IPMI_DEVICE_SSIF,
0,
0,
0,
NULL,
IPMI_FLAGS_DEFAULT))) {
perror("ipmi_open_inband()");
goto cleanup;
}
}
#elif IPMI_INTF_FREE_0_4_0
if (!(dev = ipmi_device_create())) {
perror("ipmi_device_create");
goto cleanup;
}
if (ipmi_open_inband (dev,
IPMI_DEVICE_KCS,
0,
0,
0,
NULL,
IPMI_FLAGS_DEFAULT) < 0) {
if (ipmi_open_inband (dev,
IPMI_DEVICE_SSIF,
0,
0,
0,
NULL,
IPMI_FLAGS_DEFAULT) < 0) {
fprintf(stderr,
"ipmi_open_inband(): %s\n",
ipmi_device_strerror(ipmi_device_errnum(dev)));
goto cleanup;
}
}
#elif IPMI_INTF_FREE_0_5_0
if (!(dev = ipmi_device_create())) {
perror("ipmi_device_create");
goto cleanup;
}
if (ipmi_open_inband (dev,
IPMI_DEVICE_KCS,
0,
0,
0,
NULL,
0,
IPMI_FLAGS_DEFAULT) < 0) {
if (ipmi_open_inband (dev,
IPMI_DEVICE_SSIF,
0,
0,
0,
NULL,
0,
IPMI_FLAGS_DEFAULT) < 0) {
fprintf(stderr,
"ipmi_open_inband(): %s\n",
ipmi_device_strerror(ipmi_device_errnum(dev)));
goto cleanup;
}
}
#elif IPMI_INTF_FREE_0_6_0
if (!(dev = ipmi_ctx_create())) {
perror("ipmi_ctx_create");
goto cleanup;
}
if (ipmi_ctx_open_inband (dev,
IPMI_DEVICE_KCS,
0,
0,
0,
NULL,
0,
IPMI_FLAGS_DEFAULT) < 0) {
if (ipmi_ctx_open_inband (dev,
IPMI_DEVICE_SSIF,
0,
0,
0,
NULL,
0,
IPMI_FLAGS_DEFAULT) < 0) {
fprintf(stderr,
"ipmi_open_inband(): %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(dev)));
goto cleanup;
}
}
#endif
intf->opened = 1;
return 0;
cleanup:
if (dev) {
#if IPMI_INTF_FREE_0_3_0
ipmi_close_device(dev);
#elif IPMI_INTF_FREE_0_4_0 || IPMI_INTF_FREE_0_5_0
ipmi_close_device(dev);
ipmi_device_destroy(dev);
#elif IPMI_INTF_FREE_0_6_0
ipmi_ctx_close(dev);
ipmi_ctx_destroy(dev);
#endif
}
return -1;
}
static struct ipmi_rs * ipmi_free_send_cmd(struct ipmi_intf * intf, struct ipmi_rq * req)
{
u_int8_t lun = 0;
u_int8_t cmd = req->msg.cmd;
u_int8_t netfn = req->msg.netfn;
u_int8_t rq_buf[IPMI_BUF_SIZE];
u_int8_t rs_buf[IPMI_BUF_SIZE];
u_int32_t rs_buf_len = IPMI_BUF_SIZE;
int32_t rs_len;
static struct ipmi_rs rsp;
/* achu: FreeIPMI requests have the cmd as the first byte of
* the data. Responses have cmd as the first byte and
* completion code as the second byte. This differs from some
* other APIs, so it must be compensated for within the ipmitool
* interface.
*/
if (!intf || !req)
return NULL;
if (!intf->opened && intf->open && intf->open(intf) < 0)
return NULL;
if (req->msg.data_len > IPMI_BUF_SIZE)
return NULL;
memset(rq_buf, '\0', IPMI_BUF_SIZE);
memset(rs_buf, '\0', IPMI_BUF_SIZE);
memcpy(rq_buf, &cmd, 1);
if (req->msg.data)
memcpy(rq_buf + 1, req->msg.data, req->msg.data_len);
if ((rs_len = ipmi_cmd_raw(dev,
lun,
netfn,
rq_buf,
req->msg.data_len + 1,
rs_buf,
rs_buf_len)) < 0) {
#if IPMI_INTF_FREE_0_3_0
perror("ipmi_cmd_raw");
#elif IPMI_INTF_FREE_0_4_0 || IPMI_INTF_FREE_0_5_0
fprintf(stderr,
"ipmi_cmd_raw: %s\n",
ipmi_device_strerror(ipmi_device_errnum(dev)));
#elif IPMI_INTF_FREE_0_6_0
fprintf(stderr,
"ipmi_cmd_raw: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(dev)));
#endif
return NULL;
}
memset(&rsp, 0, sizeof(struct ipmi_rs));
rsp.ccode = (unsigned char)rs_buf[1];
rsp.data_len = (int)rs_len - 2;
if (!rsp.ccode && rsp.data_len)
memcpy(rsp.data, rs_buf + 2, rsp.data_len);
return &rsp;
}
ipmi_ctx_t
ipmi_open (const char *progname,
const char *hostname,
struct common_cmd_args *common_args,
pstdout_state_t pstate)
{
ipmi_ctx_t ipmi_ctx = NULL;
unsigned int workaround_flags = 0;
assert (progname);
assert (common_args);
if (!(ipmi_ctx = ipmi_ctx_create ()))
{
PSTDOUT_FPRINTF (pstate,
stderr,
"ipmi_ctx_create: %s",
strerror (errno));
goto cleanup;
}
if (hostname
&& strcasecmp (hostname, "localhost") != 0
&& strcmp (hostname, "127.0.0.1") != 0)
{
if (common_args->driver_type == IPMI_DEVICE_LAN_2_0)
{
parse_get_freeipmi_outofband_2_0_flags (common_args->workaround_flags_outofband_2_0,
&workaround_flags);
if (ipmi_ctx_open_outofband_2_0 (ipmi_ctx,
hostname,
common_args->username,
common_args->password,
(common_args->k_g_len) ? common_args->k_g : NULL,
(common_args->k_g_len) ? common_args->k_g_len : 0,
common_args->privilege_level,
common_args->cipher_suite_id,
common_args->session_timeout,
common_args->retransmission_timeout,
workaround_flags,
(common_args->debug) ? IPMI_FLAGS_DEBUG_DUMP : IPMI_FLAGS_DEFAULT) < 0)
{
if (ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_USERNAME_INVALID
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_PASSWORD_INVALID
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_K_G_INVALID
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_PRIVILEGE_LEVEL_INSUFFICIENT
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_PRIVILEGE_LEVEL_CANNOT_BE_OBTAINED
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_AUTHENTICATION_TYPE_UNAVAILABLE
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_CIPHER_SUITE_ID_UNAVAILABLE
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_PASSWORD_VERIFICATION_TIMEOUT
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_HOSTNAME_INVALID
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_IPMI_2_0_UNAVAILABLE
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_CONNECTION_TIMEOUT)
PSTDOUT_FPRINTF (pstate,
stderr,
"%s: %s\n",
progname,
ipmi_ctx_errormsg (ipmi_ctx));
else
PSTDOUT_FPRINTF (pstate,
stderr,
"ipmi_ctx_open_outofband_2_0: %s\n",
ipmi_ctx_errormsg (ipmi_ctx));
goto cleanup;
}
}
else
{
parse_get_freeipmi_outofband_flags (common_args->workaround_flags_outofband,
&workaround_flags);
if (ipmi_ctx_open_outofband (ipmi_ctx,
hostname,
common_args->username,
common_args->password,
common_args->authentication_type,
common_args->privilege_level,
common_args->session_timeout,
common_args->retransmission_timeout,
workaround_flags,
(common_args->debug) ? IPMI_FLAGS_DEBUG_DUMP : IPMI_FLAGS_DEFAULT) < 0)
{
if (ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_USERNAME_INVALID
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_PASSWORD_INVALID
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_PRIVILEGE_LEVEL_INSUFFICIENT
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_PRIVILEGE_LEVEL_CANNOT_BE_OBTAINED
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_AUTHENTICATION_TYPE_UNAVAILABLE
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_PASSWORD_VERIFICATION_TIMEOUT
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_HOSTNAME_INVALID
|| ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_CONNECTION_TIMEOUT)
PSTDOUT_FPRINTF (pstate,
stderr,
"%s: %s\n",
progname,
ipmi_ctx_errormsg (ipmi_ctx));
else
PSTDOUT_FPRINTF (pstate,
stderr,
"ipmi_ctx_open_outofband: %s\n",
ipmi_ctx_errormsg (ipmi_ctx));
goto cleanup;
}
}
}
else
{
if (!ipmi_is_root ())
{
PSTDOUT_FPRINTF (pstate,
stderr,
"%s: %s\n",
progname,
ipmi_ctx_strerror (IPMI_ERR_PERMISSION));
goto cleanup;
}
parse_get_freeipmi_inband_flags (common_args->workaround_flags_inband,
&workaround_flags);
if (common_args->driver_type == IPMI_DEVICE_UNKNOWN)
{
int ret;
if ((ret = ipmi_ctx_find_inband (ipmi_ctx,
NULL,
common_args->disable_auto_probe,
common_args->driver_address,
common_args->register_spacing,
common_args->driver_device,
workaround_flags,
(common_args->debug) ? IPMI_FLAGS_DEBUG_DUMP : IPMI_FLAGS_DEFAULT)) < 0)
{
PSTDOUT_FPRINTF (pstate,
stderr,
"ipmi_ctx_find_inband: %s\n",
ipmi_ctx_errormsg (ipmi_ctx));
goto cleanup;
}
if (!ret)
{
PSTDOUT_FPRINTF (pstate,
stderr,
"could not find inband device");
goto cleanup;
}
}
else
{
if (ipmi_ctx_open_inband (ipmi_ctx,
common_args->driver_type,
common_args->disable_auto_probe,
common_args->driver_address,
common_args->register_spacing,
common_args->driver_device,
workaround_flags,
(common_args->debug) ? IPMI_FLAGS_DEBUG_DUMP : IPMI_FLAGS_DEFAULT) < 0)
{
if (ipmi_ctx_errnum (ipmi_ctx) == IPMI_ERR_DEVICE_NOT_FOUND)
PSTDOUT_FPRINTF (pstate,
stderr,
"%s: %s\n",
progname,
ipmi_ctx_errormsg (ipmi_ctx));
else
PSTDOUT_FPRINTF (pstate,
stderr,
"ipmi_ctx_open_inband: %s\n",
ipmi_ctx_errormsg (ipmi_ctx));
goto cleanup;
}
}
}
if (common_args->target_channel_number_is_set
|| common_args->target_slave_address_is_set)
{
if (ipmi_ctx_set_target (ipmi_ctx,
common_args->target_channel_number_is_set ? &common_args->target_channel_number : NULL,
common_args->target_slave_address_is_set ? &common_args->target_slave_address : NULL) < 0)
{
PSTDOUT_FPRINTF (pstate,
stderr,
"ipmi_ctx_set_target: %s\n",
ipmi_ctx_errormsg (ipmi_ctx));
goto cleanup;
}
}
return (ipmi_ctx);
cleanup:
ipmi_ctx_close (ipmi_ctx);
ipmi_ctx_destroy (ipmi_ctx);
return (NULL);
}
int
ipmi_sensors_get_thresholds (ipmi_sensors_state_data_t *state_data,
uint8_t *sdr_record,
unsigned int sdr_record_len,
double **lower_non_critical_threshold,
double **lower_critical_threshold,
double **lower_non_recoverable_threshold,
double **upper_non_critical_threshold,
double **upper_critical_threshold,
double **upper_non_recoverable_threshold)
{
int8_t r_exponent, b_exponent;
int16_t m, b;
uint8_t linearization, analog_data_format;
uint8_t sensor_number;
fiid_obj_t obj_cmd_rs = NULL;
double *tmp_lower_non_critical_threshold = NULL;
double *tmp_lower_critical_threshold = NULL;
double *tmp_lower_non_recoverable_threshold = NULL;
double *tmp_upper_non_critical_threshold = NULL;
double *tmp_upper_critical_threshold = NULL;
double *tmp_upper_non_recoverable_threshold = NULL;
double threshold;
uint8_t threshold_access_support;
uint64_t val;
int rv = -1;
assert(state_data);
assert(sdr_record);
assert(sdr_record_len);
if (lower_non_critical_threshold)
*lower_non_critical_threshold = NULL;
if (lower_critical_threshold)
*lower_critical_threshold = NULL;
if (lower_non_recoverable_threshold)
*lower_non_recoverable_threshold = NULL;
if (upper_non_critical_threshold)
*upper_non_critical_threshold = NULL;
if (upper_critical_threshold)
*upper_critical_threshold = NULL;
if (upper_non_recoverable_threshold)
*upper_non_recoverable_threshold = NULL;
/* achu: first lets check if we have anything to output */
if (sdr_cache_get_sensor_capabilities (state_data->pstate,
sdr_record,
sdr_record_len,
NULL,
&threshold_access_support,
NULL,
NULL,
NULL) < 0)
goto cleanup;
if (threshold_access_support == IPMI_SDR_NO_THRESHOLDS_SUPPORT
|| threshold_access_support == IPMI_SDR_FIXED_UNREADABLE_THRESHOLDS_SUPPORT)
{
rv = 0;
goto cleanup;
}
/* achu:
*
* I will admit I'm not entirely sure what the best way is
* to get thresholds. It seems the information is
* stored/retrievable in the SDR and through an IPMI command.
*
* Since the readable_threshold_mask in the SDR record indicates the
* mask is for the "Get Sensor Thresholds" command, it suggests the
* best/right way is to get the values via that command. Sounds
* good to me. Also, I suppose its possible that changes to the
* thresholds may not be written to the SDR.
*
* Also, because the results from the get_sensor_thresholds include
* readability flags, we can ignore the readability flags in the
* SDR.
*
*/
if (sdr_cache_get_sensor_number (state_data->pstate,
sdr_record,
sdr_record_len,
&sensor_number) < 0)
goto cleanup;
if (sdr_cache_get_sensor_decoding_data(state_data->pstate,
sdr_record,
sdr_record_len,
&r_exponent,
&b_exponent,
&m,
&b,
&linearization,
&analog_data_format) < 0)
goto cleanup;
/* if the sensor is not analog, this is most likely a bug in the
* SDR, since we shouldn't be decoding a non-threshold sensor.
*
* Don't return an error. Allow code to output "NA" or something.
*/
if (!IPMI_SDR_ANALOG_DATA_FORMAT_VALID(analog_data_format))
{
if (state_data->prog_data->args->common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"Attempting to decode non-analog sensor\n");
rv = 0;
goto cleanup;
}
/* if the sensor is non-linear, I just don't know what to do
*
* Don't return an error. Allow code to output "NA" or something.
*/
if (!IPMI_SDR_LINEARIZATION_IS_LINEAR(linearization))
{
if (state_data->prog_data->args->common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"Cannot decode non-linear sensor\n");
rv = 0;
goto cleanup;
}
_FIID_OBJ_CREATE(obj_cmd_rs, tmpl_cmd_get_sensor_thresholds_rs);
if (ipmi_cmd_get_sensor_thresholds (state_data->ipmi_ctx,
sensor_number,
obj_cmd_rs) < 0)
{
if (state_data->prog_data->args->common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"ipmi_cmd_get_sensor_thresholds: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(state_data->ipmi_ctx)));
if ((ipmi_ctx_errnum(state_data->ipmi_ctx) == IPMI_ERR_BAD_COMPLETION_CODE_REQUEST_DATA_INVALID)
&& (ipmi_check_completion_code(obj_cmd_rs,
IPMI_COMP_CODE_COMMAND_ILLEGAL_FOR_SENSOR_OR_RECORD_TYPE) == 1
|| ipmi_check_completion_code(obj_cmd_rs,
IPMI_COMP_CODE_REQUEST_SENSOR_DATA_OR_RECORD_NOT_PRESENT) == 1))
{
/* The thresholds cannot be gathered for one reason or
* another, maybe b/c its a OEM sensor or something. We can
* return 0 gracefully.
*/
rv = 0;
goto cleanup;
}
/*
* IPMI Workaround (achu)
*
* Discovered on HP DL585
*
* Seems that the HP machine doesn't support the "Get Sensor
* Thresholds" command. When this occurs, we assume the
* information in the SDR is legit and up to date. Go get it
* and fill in the object respectively.
*/
if ((ipmi_ctx_errnum(state_data->ipmi_ctx) == IPMI_ERR_BAD_COMPLETION_CODE_INVALID_COMMAND)
&& (ipmi_check_completion_code(obj_cmd_rs, IPMI_COMP_CODE_COMMAND_INVALID) == 1))
{
if (state_data->prog_data->args->common.debug)
pstdout_fprintf(state_data->pstate,
stderr,
"Get Sensor Thresholds failed, using SDR information\n");
if (_get_sdr_sensor_thresholds (state_data,
sdr_record,
sdr_record_len,
obj_cmd_rs) < 0)
goto cleanup;
goto continue_get_sensor_thresholds;
}
goto cleanup;
}
continue_get_sensor_thresholds:
if (lower_non_critical_threshold)
{
_FIID_OBJ_GET (obj_cmd_rs,
"readable_thresholds.lower_non_critical_threshold",
&val);
if (val)
{
_FIID_OBJ_GET(obj_cmd_rs,
"lower_non_critical_threshold",
&val);
if (ipmi_sensor_decode_value (r_exponent,
b_exponent,
m,
b,
linearization,
analog_data_format,
val,
&threshold) < 0)
{
pstdout_fprintf (state_data->pstate,
stderr,
"ipmi_sensor_decode_value: %s\n",
strerror(errno));
goto cleanup;
}
if (!(tmp_lower_non_critical_threshold = (double *)malloc(sizeof(double))))
{
pstdout_perror(state_data->pstate, "malloc");
goto cleanup;
}
*tmp_lower_non_critical_threshold = threshold;
}
}
if (lower_critical_threshold)
{
_FIID_OBJ_GET (obj_cmd_rs,
"readable_thresholds.lower_critical_threshold",
&val);
if (val)
{
_FIID_OBJ_GET(obj_cmd_rs,
"lower_critical_threshold",
&val);
if (ipmi_sensor_decode_value (r_exponent,
b_exponent,
m,
b,
linearization,
analog_data_format,
val,
&threshold) < 0)
{
pstdout_fprintf (state_data->pstate,
stderr,
"ipmi_sensor_decode_value: %s\n",
strerror(errno));
goto cleanup;
}
if (!(tmp_lower_critical_threshold = (double *)malloc(sizeof(double))))
{
pstdout_perror(state_data->pstate, "malloc");
goto cleanup;
}
*tmp_lower_critical_threshold = threshold;
}
}
if (lower_non_recoverable_threshold)
{
_FIID_OBJ_GET (obj_cmd_rs,
"readable_thresholds.lower_non_recoverable_threshold",
&val);
if (val)
{
_FIID_OBJ_GET(obj_cmd_rs,
"lower_non_recoverable_threshold",
&val);
if (ipmi_sensor_decode_value (r_exponent,
b_exponent,
m,
b,
linearization,
analog_data_format,
val,
&threshold) < 0)
{
pstdout_fprintf (state_data->pstate,
stderr,
"ipmi_sensor_decode_value: %s\n",
strerror(errno));
goto cleanup;
}
if (!(tmp_lower_non_recoverable_threshold = (double *)malloc(sizeof(double))))
{
pstdout_perror(state_data->pstate, "malloc");
goto cleanup;
}
*tmp_lower_non_recoverable_threshold = threshold;
}
}
if (upper_non_critical_threshold)
{
_FIID_OBJ_GET (obj_cmd_rs,
"readable_thresholds.upper_non_critical_threshold",
&val);
if (val)
{
_FIID_OBJ_GET(obj_cmd_rs,
"upper_non_critical_threshold",
&val);
if (ipmi_sensor_decode_value (r_exponent,
b_exponent,
m,
b,
linearization,
analog_data_format,
val,
&threshold) < 0)
{
pstdout_fprintf (state_data->pstate,
stderr,
"ipmi_sensor_decode_value: %s\n",
strerror(errno));
goto cleanup;
}
if (!(tmp_upper_non_critical_threshold = (double *)malloc(sizeof(double))))
{
pstdout_perror(state_data->pstate, "malloc");
goto cleanup;
}
*tmp_upper_non_critical_threshold = threshold;
}
}
if (upper_critical_threshold)
{
_FIID_OBJ_GET (obj_cmd_rs,
"readable_thresholds.upper_critical_threshold",
&val);
if (val)
{
_FIID_OBJ_GET(obj_cmd_rs,
"upper_critical_threshold",
&val);
if (ipmi_sensor_decode_value (r_exponent,
b_exponent,
m,
b,
linearization,
analog_data_format,
val,
&threshold) < 0)
{
pstdout_fprintf (state_data->pstate,
stderr,
"ipmi_sensor_decode_value: %s\n",
strerror(errno));
goto cleanup;
}
if (!(tmp_upper_critical_threshold = (double *)malloc(sizeof(double))))
{
pstdout_perror(state_data->pstate, "malloc");
goto cleanup;
}
*tmp_upper_critical_threshold = threshold;
}
}
if (upper_non_recoverable_threshold)
{
_FIID_OBJ_GET (obj_cmd_rs,
"readable_thresholds.upper_non_recoverable_threshold",
&val);
if (val)
{
_FIID_OBJ_GET(obj_cmd_rs,
"upper_non_recoverable_threshold",
&val);
if (ipmi_sensor_decode_value (r_exponent,
b_exponent,
m,
b,
linearization,
analog_data_format,
val,
&threshold) < 0)
{
pstdout_fprintf (state_data->pstate,
stderr,
"ipmi_sensor_decode_value: %s\n",
strerror(errno));
goto cleanup;
}
if (!(tmp_upper_non_recoverable_threshold = (double *)malloc(sizeof(double))))
{
pstdout_perror(state_data->pstate, "malloc");
goto cleanup;
}
*tmp_upper_non_recoverable_threshold = threshold;
}
}
if (lower_non_critical_threshold)
*lower_non_critical_threshold = tmp_lower_non_critical_threshold;
if (lower_critical_threshold)
*lower_critical_threshold = tmp_lower_critical_threshold;
if (lower_non_recoverable_threshold)
*lower_non_recoverable_threshold = tmp_lower_non_recoverable_threshold;
if (upper_non_critical_threshold)
*upper_non_critical_threshold = tmp_upper_non_critical_threshold;
if (upper_critical_threshold)
*upper_critical_threshold = tmp_upper_critical_threshold;
if (upper_non_recoverable_threshold)
*upper_non_recoverable_threshold = tmp_upper_non_recoverable_threshold;
rv = 0;
cleanup:
_FIID_OBJ_DESTROY(obj_cmd_rs);
if (rv < 0)
{
if (tmp_lower_non_critical_threshold)
free(tmp_lower_non_critical_threshold);
if (tmp_lower_critical_threshold)
free(tmp_lower_critical_threshold);
if (tmp_lower_non_recoverable_threshold)
free(tmp_lower_non_recoverable_threshold);
if (tmp_upper_non_critical_threshold)
free(tmp_upper_non_critical_threshold);
if (tmp_upper_critical_threshold)
free(tmp_upper_critical_threshold);
if (tmp_upper_non_recoverable_threshold)
free(tmp_upper_non_recoverable_threshold);
}
return rv;
}
static struct ipmi_rs * ipmi_free_send_cmd(struct ipmi_intf * intf, struct ipmi_rq * req)
{
u_int8_t lun = req->msg.lun;
u_int8_t cmd = req->msg.cmd;
u_int8_t netfn = req->msg.netfn;
u_int8_t rq_buf[IPMI_BUF_SIZE];
u_int8_t rs_buf[IPMI_BUF_SIZE];
u_int32_t rs_buf_len = IPMI_BUF_SIZE;
int32_t rs_len;
static struct ipmi_rs rsp;
/* achu: FreeIPMI requests have the cmd as the first byte of
* the data. Responses have cmd as the first byte and
* completion code as the second byte. This differs from some
* other APIs, so it must be compensated for within the ipmitool
* interface.
*/
if (!intf || !req)
return NULL;
if (!intf->opened && intf->open && intf->open(intf) < 0)
return NULL;
if (req->msg.data_len > IPMI_BUF_SIZE)
return NULL;
memset(rq_buf, '\0', IPMI_BUF_SIZE);
memset(rs_buf, '\0', IPMI_BUF_SIZE);
memcpy(rq_buf, &cmd, 1);
if (req->msg.data)
memcpy(rq_buf + 1, req->msg.data, req->msg.data_len);
if (intf->target_addr != 0
&& intf->target_addr != IPMI_BMC_SLAVE_ADDR) {
#if IPMI_INTF_FREE_BRIDGING
if ((rs_len = ipmi_cmd_raw_ipmb(dev,
intf->target_channel,
intf->target_addr,
lun,
netfn,
rq_buf,
req->msg.data_len + 1,
rs_buf,
rs_buf_len)) < 0) {
if (verbose > 3)
fprintf(stderr,
"ipmi_cmd_raw_ipmb: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(dev)));
/* Compared to FreeIPMI, user is expected to input
* the target channel on the command line, it is not automatically
* discovered. So that is the likely cause of an error.
*
* Instead of returning an error, return a bad response so output
* of ipmitool commands looks like other interfaces
*/
rs_len = 2;
rs_buf[0] = 0;
rs_buf[1] = 0xC1; /* invalid command */
}
#else /* !IPMI_INTF_FREE_BRIDGING */
if (verbose > 3)
fprintf(stderr, "sensor bridging not supported in this driver version");
/* instead of returning an error, return a bad response so output
* of ipmitool commands looks like other interfaces
*/
rs_len = 2;
rs_buf[0] = 0;
rs_buf[1] = 0xC1; /* invalid command */
#endif /* !IPMI_INTF_FREE_BRIDGING */
}
else {
if ((rs_len = ipmi_cmd_raw(dev,
lun,
netfn,
rq_buf,
req->msg.data_len + 1,
rs_buf,
rs_buf_len)) < 0) {
#if IPMI_INTF_FREE_0_3_0
perror("ipmi_cmd_raw");
#elif IPMI_INTF_FREE_0_4_0 || IPMI_INTF_FREE_0_5_0
fprintf(stderr,
"ipmi_cmd_raw: %s\n",
ipmi_device_strerror(ipmi_device_errnum(dev)));
#elif IPMI_INTF_FREE_0_6_0
fprintf(stderr,
"ipmi_cmd_raw: %s\n",
ipmi_ctx_strerror(ipmi_ctx_errnum(dev)));
#endif
return NULL;
}
}
memset(&rsp, 0, sizeof(struct ipmi_rs));
rsp.ccode = (unsigned char)rs_buf[1];
rsp.data_len = (int)rs_len - 2;
if (!rsp.ccode && rsp.data_len)
memcpy(rsp.data, rs_buf + 2, rsp.data_len);
return &rsp;
}