static void mtk_query_modem_rats_cb(struct ril_msg *message, gpointer user_data)
{
struct cb_data *cbd = user_data;
struct ofono_radio_settings *rs = cbd->user;
struct radio_data *rd = ofono_radio_settings_get_data(rs);
ofono_radio_settings_modem_rats_query_cb_t cb = cbd->cb;
ofono_bool_t modem_rats[OFONO_RADIO_ACCESS_MODE_LAST] = { FALSE };
int is_3g;
if (message->error != RIL_E_SUCCESS) {
ofono_error("%s: error %s", __func__,
ril_error_to_string(message->error));
CALLBACK_WITH_FAILURE(cb, NULL, cbd->data);
return;
}
is_3g = g_mtk_reply_parse_get_3g_capability(rd->ril, message);
if (is_3g < 0) {
ofono_error("%s: parse error", __func__);
CALLBACK_WITH_FAILURE(cb, NULL, cbd->data);
return;
}
modem_rats[OFONO_RADIO_ACCESS_MODE_GSM] = TRUE;
if (is_3g) {
modem_rats[OFONO_RADIO_ACCESS_MODE_UMTS] = TRUE;
if (getenv("OFONO_RIL_RAT_LTE"))
modem_rats[OFONO_RADIO_ACCESS_MODE_LTE] = TRUE;
}
CALLBACK_WITH_SUCCESS(cb, modem_rats, cbd->data);
}
static void mtk_query_available_rats_cb(struct ril_msg *message,
gpointer user_data)
{
struct cb_data *cbd = user_data;
struct ofono_radio_settings *rs = cbd->user;
struct radio_data *rd = ofono_radio_settings_get_data(rs);
ofono_radio_settings_available_rats_query_cb_t cb = cbd->cb;
unsigned int available_rats = OFONO_RADIO_ACCESS_MODE_GSM;
int slot_3g, is_3g;
if (message->error != RIL_E_SUCCESS) {
ofono_error("%s: error %s", __func__,
ril_error_to_string(message->error));
CALLBACK_WITH_FAILURE(cb, 0, cbd->data);
return;
}
slot_3g = g_mtk_reply_parse_get_3g_capability(rd->ril, message);
if (slot_3g < 0) {
ofono_error("%s: parse error", __func__);
CALLBACK_WITH_FAILURE(cb, 0, cbd->data);
return;
}
is_3g = (g_ril_get_slot(rd->ril) == slot_3g);
if (is_3g) {
available_rats |= OFONO_RADIO_ACCESS_MODE_UMTS;
if (ofono_modem_get_boolean(rd->modem, MODEM_PROP_LTE_CAPABLE))
available_rats |= OFONO_RADIO_ACCESS_MODE_LTE;
}
CALLBACK_WITH_SUCCESS(cb, available_rats, cbd->data);
}
static void query_3g_caps_cb(struct ril_msg *message, gpointer user_data)
{
struct socket_data *sock = user_data;
struct socket_data *sock_for_md_0, *sock_for_md_1;
int slot_3g;
if (message->error != RIL_E_SUCCESS) {
ofono_error("%s: error %s", __func__,
ril_error_to_string(message->error));
return;
}
slot_3g = g_mtk_reply_parse_get_3g_capability(sock->ril, message);
/*
* The socket at sock_slot_0 always connects to the slot with 3G
* capabilities, while sock_slot_1 connects to the slot that is just 2G.
* However, the physical slot that owns the 3G capabilities can be
* changed dynamically using a RILd request, so the sockets can connect
* to different physical slots depending on the current configuration.
* We want to keep the relationship between the physical slots and
* the modem names in DBus (so /ril_0 and /ril_1 always refer to the
* same physical slots), so here we assign the sockets needed by
* mtk_data_0 and mtk_data_1 structures to make sure that happens.
*/
if (slot_3g == MULTISIM_SLOT_0) {
sock_for_md_0 = sock_0;
sock_for_md_1 = sock_1;
mtk_data_0->has_3g = TRUE;
mtk_data_1->has_3g = FALSE;
} else {
sock_for_md_0 = sock_1;
sock_for_md_1 = sock_0;
mtk_data_0->has_3g = FALSE;
mtk_data_1->has_3g = TRUE;
}
start_slot(mtk_data_0, sock_for_md_0, hex_slot_0);
start_slot(mtk_data_1, sock_for_md_1, hex_slot_1);
g_free(sock_0);
sock_0 = NULL;
g_free(sock_1);
sock_1 = NULL;
}
