static void ril_radio_state_changed(struct ril_msg *message,
gpointer user_data)
{
struct ofono_modem *modem = user_data;
struct ril_data *rd = ofono_modem_get_data(modem);
struct parcel rilp;
int radio_state;
g_ril_init_parcel(message, &rilp);
radio_state = parcel_r_int32(&rilp);
if (rilp.malformed) {
ofono_error("%s: malformed parcel received", __func__);
ofono_modem_set_powered(modem, FALSE);
return;
}
g_ril_append_print_buf(rd->ril, "(state: %s)",
ril_radio_state_to_string(radio_state));
g_ril_print_unsol(rd->ril, message);
switch (radio_state) {
case RADIO_STATE_ON:
break;
case RADIO_STATE_UNAVAILABLE:
ofono_modem_set_powered(modem, FALSE);
break;
case RADIO_STATE_OFF:
break;
}
}
struct unsol_supp_svc_notif *g_ril_unsol_parse_supp_svc_notif(GRil *gril,
struct ril_msg *message)
{
struct parcel rilp;
char *tmp_number;
int type;
struct unsol_supp_svc_notif *unsol =
g_new0(struct unsol_supp_svc_notif, 1);
g_ril_init_parcel(message, &rilp);
unsol->notif_type = parcel_r_int32(&rilp);
unsol->code = parcel_r_int32(&rilp);
unsol->index = parcel_r_int32(&rilp);
type = parcel_r_int32(&rilp);
tmp_number = parcel_r_string(&rilp);
if (tmp_number != NULL) {
strncpy(unsol->number.number, tmp_number,
OFONO_MAX_PHONE_NUMBER_LENGTH);
unsol->number.type = type;
g_free(tmp_number);
}
g_ril_append_print_buf(gril, "{%d,%d,%d,%d,%s}",
unsol->notif_type, unsol->code, unsol->index,
type, tmp_number);
g_ril_print_unsol(gril, message);
return unsol;
}
int g_ril_unsol_parse_connected(GRil *gril, const struct ril_msg *message)
{
struct parcel rilp;
int size;
int version;
DBG("");
g_ril_init_parcel(message, &rilp);
size = parcel_r_int32(&rilp);
version = parcel_r_int32(&rilp);
/*
* For something that looks like a bug we get an extra int in mtk2
* modems. RIL version is the second integer in this case. This
* happens when we get duplicated connected events, which should
* not happen either. In these cases the first event has the right
* size, but not those appearing after.
*/
if (g_ril_vendor(gril) == OFONO_RIL_VENDOR_MTK2 && size > 1)
version = parcel_r_int32(&rilp);
if (rilp.malformed) {
ofono_error("%s: malformed parcel", __func__);
version = RIL_VERSION_UNSPECIFIED;
}
g_ril_append_print_buf(gril, "{size: %d, [%d]}", size, version);
g_ril_print_unsol(gril, message);
return version;
}
static void ril_ussd_notify(struct ril_msg *message, gpointer user_data)
{
struct ofono_ussd *ussd = user_data;
struct ussd_data *ud = ofono_ussd_get_data(ussd);
struct parcel rilp;
int numstr;
char *typestr;
int type;
char *str = NULL;
gsize written;
char *ucs2;
g_ril_init_parcel(message, &rilp);
numstr = parcel_r_int32(&rilp);
if (numstr < 1)
return;
typestr = parcel_r_string(&rilp);
if (typestr == NULL || *typestr == '\0')
return;
type = *typestr - '0';
g_free(typestr);
if (numstr > 1)
str = parcel_r_string(&rilp);
g_ril_append_print_buf(ud->ril, "{%d,%s}", type, str);
g_ril_print_unsol(ud->ril, message);
/* To fix bug in MTK: USSD-Notify arrive with type 2 instead of 0 */
if (g_ril_vendor(ud->ril) == OFONO_RIL_VENDOR_MTK &&
str != NULL && type == 2)
type = 0;
if (str == NULL) {
ofono_ussd_notify(ussd, type, 0, NULL, 0);
return;
}
/*
* With data coding scheme 0x48, we are saying that the ussd string is a
* UCS-2 string, uncompressed, and with unspecified message class. For
* the DCS coding, see 3gpp 23.038, sect. 5.
*/
ucs2 = g_convert(str, -1, "UCS-2BE//TRANSLIT",
"UTF-8", NULL, &written, NULL);
g_free(str);
if (ucs2 == NULL) {
ofono_error("%s: Error transcoding", __func__);
return;
}
ofono_ussd_notify(ussd, type, 0x48, (unsigned char *) ucs2, written);
g_free(ucs2);
}
static void ril_radio_state_changed(struct ril_msg *message, gpointer user_data)
{
struct ofono_modem *modem = user_data;
struct ril_data *rd = ofono_modem_get_data(modem);
struct parcel rilp;
int radio_state;
g_ril_init_parcel(message, &rilp);
radio_state = parcel_r_int32(&rilp);
if (rilp.malformed) {
ofono_error("%s: malformed parcel received", __func__);
ofono_modem_set_powered(modem, FALSE);
return;
}
g_ril_append_print_buf(rd->ril, "(state: %s)",
ril_radio_state_to_string(radio_state));
g_ril_print_unsol(rd->ril, message);
if (radio_state != rd->radio_state) {
ofono_info("%s: state: %s rd->ofono_online: %d",
__func__,
ril_radio_state_to_string(radio_state),
rd->ofono_online);
rd->radio_state = radio_state;
switch (radio_state) {
case RADIO_STATE_ON:
if (rd->radio_settings == NULL)
rd->radio_settings =
ofono_radio_settings_create(modem,
rd->vendor, RILMODEM,
rd->ril);
break;
case RADIO_STATE_UNAVAILABLE:
case RADIO_STATE_OFF:
/*
* Unexpected radio state change, as we are supposed to
* be online. UNAVAILABLE has been seen occassionally
* when powering off the phone. We wait 5 secs to avoid
* too fast re-spawns, then exit with error to make
* upstart re-start ofono.
*/
if (rd->ofono_online)
ofono_error("%s: radio self-powered off!",
__func__);
break;
}
}
}
struct unsol_ussd *g_ril_unsol_parse_ussd(GRil *gril, struct ril_msg *message)
{
struct parcel rilp;
struct unsol_ussd *ussd;
char *typestr = NULL;
int numstr;
ussd = g_try_malloc0(sizeof(*ussd));
if (ussd == NULL) {
ofono_error("%s out of memory", __func__);
goto error;
}
g_ril_init_parcel(message, &rilp);
numstr = parcel_r_int32(&rilp);
if (numstr < 1) {
ofono_error("%s malformed parcel", __func__);
goto error;
}
typestr = parcel_r_string(&rilp);
if (typestr == NULL || *typestr == '\0') {
ofono_error("%s wrong type", __func__);
goto error;
}
ussd->type = *typestr - '0';
g_free(typestr);
if (numstr > 1)
ussd->message = parcel_r_string(&rilp);
g_ril_append_print_buf(gril, "{%d,%s}", ussd->type, ussd->message);
g_ril_print_unsol(gril, message);
return ussd;
error:
g_free(typestr);
g_free(ussd);
return NULL;
}
struct unsol_sms_data *g_ril_unsol_parse_new_sms(GRil *gril,
const struct ril_msg *message)
{
struct parcel rilp;
char *ril_pdu;
size_t ril_pdu_len;
struct unsol_sms_data *sms_data;
sms_data = g_new0(struct unsol_sms_data, 1);
if (sms_data == NULL) {
ofono_error("%s out of memory", __func__);
goto error;
}
g_ril_init_parcel(message, &rilp);
ril_pdu = parcel_r_string(&rilp);
if (ril_pdu == NULL) {
ofono_error("%s Unable to parse notification", __func__);
goto error;
}
ril_pdu_len = strlen(ril_pdu);
sms_data->data = decode_hex(ril_pdu, ril_pdu_len,
&sms_data->length, -1);
if (sms_data->data == NULL) {
ofono_error("%s Unable to decode notification", __func__);
goto error_dec;
}
g_ril_append_print_buf(gril, "{%s}", ril_pdu);
g_ril_print_unsol(gril, message);
g_free(ril_pdu);
return sms_data;
error_dec:
g_free(ril_pdu);
error:
g_ril_unsol_free_sms_data(sms_data);
return NULL;
}
static void ril_nitz_notify(struct ril_msg *message, gpointer user_data)
{
struct ofono_netreg *netreg = user_data;
struct netreg_data *nd = ofono_netreg_get_data(netreg);
struct parcel rilp;
int year, mon, mday, hour, min, sec, dst, tzi;
char tzs, tz[4];
gchar *nitz;
if (message->req != RIL_UNSOL_NITZ_TIME_RECEIVED)
goto error;
ril_util_init_parcel(message, &rilp);
nitz = parcel_r_string(&rilp);
g_ril_append_print_buf(nd->ril, "(%s)", nitz);
g_ril_print_unsol(nd->ril, message);
sscanf(nitz, "%u/%u/%u,%u:%u:%u%c%u,%u", &year, &mon, &mday,
&hour, &min, &sec, &tzs, &tzi, &dst);
sprintf(tz, "%c%d", tzs, tzi);
nd->time.utcoff = atoi(tz) * 15 * 60;
nd->time.dst = dst;
nd->time.sec = sec;
nd->time.min = min;
nd->time.hour = hour;
nd->time.mday = mday;
nd->time.mon = mon;
nd->time.year = 2000 + year;
ofono_netreg_time_notify(netreg, &nd->time);
g_free(nitz);
return;
error:
ofono_error("Unable to notify ofono about nitz");
}
int g_ril_unsol_parse_radio_state_changed(GRil *gril, const struct ril_msg *message)
{
struct parcel rilp;
int radio_state;
g_ril_init_parcel(message, &rilp);
radio_state = parcel_r_int32(&rilp);
if (rilp.malformed) {
ofono_error("%s: malformed parcel received", __func__);
radio_state = -1;
}
g_ril_append_print_buf(gril, "(state: %s)",
ril_radio_state_to_string(radio_state));
g_ril_print_unsol(gril, message);
return radio_state;
}
char *g_ril_unsol_parse_nitz(GRil *gril, const struct ril_msg *message)
{
struct parcel rilp;
gchar *nitz = NULL;
DBG("");
if (message->buf_len < MIN_NITZ_SIZE) {
ofono_error("%s: NITZ too small: %d",
__func__,
(int) message->buf_len);
goto error;
}
g_ril_init_parcel(message, &rilp);
nitz = parcel_r_string(&rilp);
g_ril_append_print_buf(gril, "(%s)", nitz);
g_ril_print_unsol(gril, message);
error:
return nitz;
}
static void ril_sms_notify(struct ril_msg *message, gpointer user_data)
{
struct ofono_sms *sms = user_data;
struct sms_data *sd = ofono_sms_get_data(sms);
struct parcel rilp;
char *ril_pdu;
int ril_pdu_len;
unsigned int smsc_len;
long ril_buf_len;
guchar *ril_data;
DBG("req: %d; data_len: %d", message->req, message->buf_len);
switch (message->req) {
case RIL_UNSOL_RESPONSE_NEW_SMS:
case RIL_UNSOL_RESPONSE_NEW_SMS_STATUS_REPORT:
break;
default:
goto error;
}
ril_util_init_parcel(message, &rilp);
ril_pdu = parcel_r_string(&rilp);
if (ril_pdu == NULL)
goto error;
ril_pdu_len = strlen(ril_pdu);
DBG("ril_pdu_len is %d", ril_pdu_len);
ril_data = decode_hex(ril_pdu, ril_pdu_len, &ril_buf_len, -1);
if (ril_data == NULL)
goto error;
/* The first octect in the pdu contains the SMSC address length
* which is the X following octects it reads. We add 1 octet to
* the read length to take into account this read octet in order
* to calculate the proper tpdu length.
*/
smsc_len = ril_data[0] + 1;
DBG("smsc_len is %d", smsc_len);
g_ril_append_print_buf(sd->ril, "(%s)", ril_pdu);
g_ril_print_unsol(sd->ril, message);
if (message->req == RIL_UNSOL_RESPONSE_NEW_SMS) {
/* Last parameter is 'tpdu_len' ( substract SMSC length ) */
ofono_sms_deliver_notify(sms, ril_data,
ril_buf_len,
ril_buf_len - smsc_len);
} else if (message->req == RIL_UNSOL_RESPONSE_NEW_SMS_STATUS_REPORT) {
ofono_sms_status_notify(sms, ril_data, ril_buf_len,
ril_buf_len - smsc_len);
}
ril_ack_delivery(sms);
return;
error:
ofono_error("Unable to parse NEW_SMS notification");
}
int g_ril_unsol_parse_signal_strength(GRil *gril, const struct ril_msg *message,
int ril_tech)
{
struct parcel rilp;
int gw_sigstr, gw_signal, cdma_dbm, evdo_dbm;
int lte_sigstr = -1, lte_rsrp = -1, lte_rssnr = -1;
int lte_signal;
int signal;
g_ril_init_parcel(message, &rilp);
/* RIL_SignalStrength_v5 */
/* GW_SignalStrength */
gw_sigstr = parcel_r_int32(&rilp);
gw_signal = get_gsm_strength(gw_sigstr);
parcel_r_int32(&rilp); /* bitErrorRate */
/*
* CDMA/EVDO values are not processed as CDMA is not supported
*/
/* CDMA_SignalStrength */
cdma_dbm = parcel_r_int32(&rilp);
parcel_r_int32(&rilp); /* ecio */
/* EVDO_SignalStrength */
evdo_dbm = parcel_r_int32(&rilp);
parcel_r_int32(&rilp); /* ecio */
parcel_r_int32(&rilp); /* signalNoiseRatio */
/* Present only for RIL_SignalStrength_v6 or newer */
if (parcel_data_avail(&rilp) > 0) {
/* LTE_SignalStrength */
lte_sigstr = parcel_r_int32(&rilp);
lte_rsrp = parcel_r_int32(&rilp);
parcel_r_int32(&rilp); /* rsrq */
lte_rssnr = parcel_r_int32(&rilp);
parcel_r_int32(&rilp); /* cqi */
lte_signal = get_lte_strength(lte_sigstr, lte_rsrp, lte_rssnr);
} else {
lte_signal = -1;
}
g_ril_append_print_buf(gril,
"{gw: %d, cdma: %d, evdo: %d, lte: %d %d %d}",
gw_sigstr, cdma_dbm, evdo_dbm, lte_sigstr,
lte_rsrp, lte_rssnr);
if (message->unsolicited)
g_ril_print_unsol(gril, message);
else
g_ril_print_response(gril, message);
/* Return the first valid one */
if (gw_signal != -1 && lte_signal != -1)
if (ril_tech == RADIO_TECH_LTE)
signal = lte_signal;
else
signal = gw_signal;
else if (gw_signal != -1)
signal = gw_signal;
else if (lte_signal != -1)
signal = lte_signal;
else
signal = -1;
return signal;
}
/*
* This function handles RIL_UNSOL_DATA_CALL_LIST_CHANGED messages,
* as well as RIL_REQUEST_DATA_CALL_LIST/SETUP_DATA_CALL replies, as
* all have the same payload.
*/
struct ril_data_call_list *g_ril_unsol_parse_data_call_list(GRil *gril,
const struct ril_msg *message)
{
struct ril_data_call *call;
struct parcel rilp;
struct ril_data_call_list *reply = NULL;
unsigned int active, cid, i, num_calls, retry, status;
char *type = NULL, *ifname = NULL, *raw_addrs = NULL;
char *raw_dns = NULL, *raw_gws = NULL;
DBG("");
/* Can happen for RIL_REQUEST_DATA_CALL_LIST replies */
if (message->buf_len < MIN_DATA_CALL_LIST_SIZE) {
if (message->req == RIL_REQUEST_SETUP_DATA_CALL) {
ofono_error("%s: message too small: %d",
__func__,
(int) message->buf_len);
goto error;
} else {
g_ril_append_print_buf(gril, "{");
goto done;
}
}
reply = g_try_new0(struct ril_data_call_list, 1);
if (reply == NULL) {
ofono_error("%s: out of memory", __func__);
goto error;
}
g_ril_init_parcel(message, &rilp);
/*
* ril.h documents the reply to a RIL_REQUEST_DATA_CALL_LIST
* as being an array of RIL_Data_Call_Response_v6 structs,
* however in reality, the response also includes a version
* to start.
*/
reply->version = parcel_r_int32(&rilp);
num_calls = parcel_r_int32(&rilp);
g_ril_append_print_buf(gril,
"{version=%d,num=%d",
reply->version,
num_calls);
for (i = 0; i < num_calls; i++) {
status = parcel_r_int32(&rilp);
retry = parcel_r_int32(&rilp); /* ignore */
cid = parcel_r_int32(&rilp);
active = parcel_r_int32(&rilp);
type = parcel_r_string(&rilp);
ifname = parcel_r_string(&rilp);
raw_addrs = parcel_r_string(&rilp);
raw_dns = parcel_r_string(&rilp);
raw_gws = parcel_r_string(&rilp);
/* malformed check */
if (rilp.malformed) {
ofono_error("%s: malformed parcel received", __func__);
goto error;
}
g_ril_append_print_buf(gril,
"%s [status=%d,retry=%d,cid=%d,"
"active=%d,type=%s,ifname=%s,"
"address=%s,dns=%s,gateways=%s]",
print_buf,
status,
retry,
cid,
active,
type,
ifname,
raw_addrs,
raw_dns,
raw_gws);
call = g_try_new0(struct ril_data_call, 1);
if (call == NULL) {
ofono_error("%s: out of memory", __func__);
goto error;
}
call->status = status;
call->cid = cid;
call->active = active;
if (message->req == RIL_REQUEST_SETUP_DATA_CALL &&
status == PDP_FAIL_NONE &&
handle_settings(call, type, ifname, raw_addrs,
raw_dns, raw_gws) == FALSE)
goto error;
g_free(type);
g_free(ifname);
g_free(raw_addrs);
g_free(raw_dns);
g_free(raw_gws);
reply->calls =
g_slist_insert_sorted(reply->calls, call,
data_call_compare);
}
done:
g_ril_append_print_buf(gril, "%s}", print_buf);
if (message->unsolicited)
g_ril_print_unsol(gril, message);
else
g_ril_print_response(gril, message);
return reply;
error:
g_free(type);
g_free(ifname);
g_free(raw_addrs);
g_free(raw_dns);
g_free(raw_gws);
g_ril_unsol_free_data_call_list(reply);
return NULL;
}
static void ril_sms_notify(struct ril_msg *message, gpointer user_data)
{
struct ofono_sms *sms = user_data;
struct sms_data *sd = ofono_sms_get_data(sms);
struct parcel rilp;
char *ril_pdu;
int ril_pdu_len;
unsigned int smsc_len;
long ril_buf_len;
guchar *ril_data;
int request = RIL_REQUEST_SMS_ACKNOWLEDGE;
int ret;
DBG("req: %d; data_len: %d", message->req, (int) message->buf_len);
if (message->req != RIL_UNSOL_RESPONSE_NEW_SMS)
goto error;
ril_util_init_parcel(message, &rilp);
ril_pdu = parcel_r_string(&rilp);
if (ril_pdu == NULL)
goto error;
ril_pdu_len = strlen(ril_pdu);
DBG("ril_pdu_len is %d", ril_pdu_len);
ril_data = decode_hex(ril_pdu, ril_pdu_len, &ril_buf_len, -1);
if (ril_data == NULL)
goto error;
/* The first octect in the pdu contains the SMSC address length
* which is the X following octects it reads. We add 1 octet to
* the read length to take into account this read octet in order
* to calculate the proper tpdu length.
*/
smsc_len = ril_data[0] + 1;
DBG("smsc_len is %d", smsc_len);
g_ril_append_print_buf(sd->ril, "(%s)", ril_pdu);
g_ril_print_unsol(sd->ril, message);
/* Last parameter is 'tpdu_len' ( substract SMSC length ) */
ofono_sms_deliver_notify(sms, ril_data,
ril_buf_len,
ril_buf_len - smsc_len);
/* Re-use rilp, so initilize */
parcel_init(&rilp);
parcel_w_int32(&rilp, 2); /* Number of int32 values in array */
parcel_w_int32(&rilp, 1); /* Successful receipt */
parcel_w_int32(&rilp, 0); /* error code */
/* TODO: should ACK be sent for either of the error cases? */
/* ACK the incoming NEW_SMS; ignore response so no cb needed */
ret = g_ril_send(sd->ril, request,
rilp.data,
rilp.size,
NULL, NULL, NULL);
g_ril_append_print_buf(sd->ril, "(1,0)");
g_ril_print_request(sd->ril, ret, request);
parcel_free(&rilp);
return;
error:
ofono_error("Unable to parse NEW_SMS notification");
}
