void wacom_change_dvfs_lock(struct work_struct *work)
{
struct wacom_i2c *wac_i2c =
container_of(work, struct wacom_i2c, dvfs_chg_work.work);
mutex_lock(&wac_i2c->dvfs_lock);
if (wac_i2c->boost_level == WACOM_BOOSTER_LEVEL1 || \
wac_i2c->boost_level == WACOM_BOOSTER_LEVEL3) {
remove_qos(&wac_i2c->cpu_qos);
remove_qos(&wac_i2c->mif_qos);
remove_qos(&wac_i2c->int_qos);
wac_i2c->dvfs_lock_status = false;
printk(KERN_DEBUG"epen:DVFS Off, %d\n", wac_i2c->boost_level);
} else {
set_qos(&wac_i2c->cpu_qos, PM_QOS_CPU_FREQ_MIN, WACOM_BOOSTER_CPU_FREQ2);
set_qos(&wac_i2c->mif_qos, PM_QOS_BUS_THROUGHPUT, WACOM_BOOSTER_MIF_FREQ2);
set_qos(&wac_i2c->int_qos, PM_QOS_DEVICE_THROUGHPUT, WACOM_BOOSTER_INT_FREQ2);
printk(KERN_DEBUG"epen:change_mif_dvfs_lock\n");
}
mutex_unlock(&wac_i2c->dvfs_lock);
}
int tzdev_migration_request(unsigned long arg)
{
int ret = 0;
mutex_lock(&tzdev_core_migration_lock);
switch (arg) {
case CMD_USE_CLUSTER_BIG:
if (nr_big_cluster_requests == 0) {
set_qos(&tz_qos, PM_QOS_CLUSTER1_FREQ_MIN, PM_QOS_CLUSTER1_FREQ_MAX_DEFAULT_VALUE);
pr_notice("Set QoS request: max frequency for big cluster.\n");
}
nr_big_cluster_requests++;
break;
case CMD_USE_CLUSTER_DEFAULT:
if (nr_big_cluster_requests == 0) {
pr_err("Unexpected value of migration requests"
"quantity while processing CORE_LITTLE migration:"
"nr_big_cluster_requests = %d\n", nr_big_cluster_requests);
ret = -EINVAL;
} else {
nr_big_cluster_requests--;
if (nr_big_cluster_requests == 0) {
pr_notice("Set QoS request: min frequency for big cluster.\n");
set_qos(&tz_qos, PM_QOS_CLUSTER1_FREQ_MIN, 0);
}
}
break;
default:
pr_err("Wrong request: %lu\n", arg);
ret = -EINVAL;
}
mutex_unlock(&tzdev_core_migration_lock);
return ret;
}
/* Pen */
DECLARE_DVFS_DELAYED_WORK_FUNC(CHG, PEN)
{
struct input_booster *data =
container_of(work, struct input_booster, dvfses[BOOSTER_DEVICE_PEN].dvfs_chg_work.work);
struct booster_dvfs *dvfs = &data->dvfses[BOOSTER_DEVICE_PEN];
mutex_lock(&dvfs->lock);
switch (dvfs->level) {
case BOOSTER_LEVEL0:
case BOOSTER_LEVEL1:
case BOOSTER_LEVEL3:
remove_qos(&dvfs->cpu_qos);
remove_qos(&dvfs->mif_qos);
remove_qos(&dvfs->int_qos);
dvfs->lock_status = false;
DVFS_DEV_DBG(DBG_DVFS, data->dev, "%s : DVFS OFF\n", __func__);
break;
case BOOSTER_LEVEL2:
set_qos(&dvfs->cpu_qos, PM_QOS_CPU_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL2].cpu_freq);
set_qos(&dvfs->mif_qos, PM_QOS_BUS_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL2].mif_freq);
set_qos(&dvfs->int_qos, PM_QOS_DEVICE_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL2].int_freq);
DVFS_DEV_DBG(DBG_DVFS, data->dev, "%s : DVFS CHANGED [level %d]\n", __func__, dvfs->level);
break;
default:
dev_err(data->dev, "%s : Undefined type passed[%d]\n", __func__, dvfs->level);
break;
}
mutex_unlock(&dvfs->lock);
}
void
Transceiver::update_qos(const transceiverQos& qos)
{
// cout << "Transceiver::update_qos(" << partition_id() << ", " << m_def.transceiver_id << ")" << endl;
assert(m_def.transceiver_id == qos.transceiver_id);
assert(m_writer_active);
assert(m_reader_active);
assert(m_report_active);
set_qos();
if (m_writer) // REVISIT - locking
{
ReturnCode_t retcode = m_writer->set_qos(m_writer_qos);
m_writer.check(retcode,
"latency_messageDataWriter::set_qos");
}
if (m_reader) // REVISIT - locking
{
ReturnCode_t retcode = m_reader->set_qos(m_reader_qos);
m_reader.check(retcode,
"latency_messageDataReader::set_qos");
}
m_config_number++;
}
static void gpio_key_change_dvfs_lock(struct work_struct *work)
{
struct gpio_button_data *bdata =
container_of(work,
struct gpio_button_data, key_work_dvfs_chg.work);
mutex_lock(&bdata->key_dvfs_lock);
set_qos(&bdata->cpu_qos, PM_QOS_CPU_FREQ_MIN, KEY_BOOSTER_CPU_FREQ1);
set_qos(&bdata->mif_qos, PM_QOS_BUS_THROUGHPUT, KEY_BOOSTER_MIF_FREQ1);
set_qos(&bdata->int_qos, PM_QOS_DEVICE_THROUGHPUT, KEY_BOOSTER_INT_FREQ1);
bdata->key_dvfs_lock_status = true;
bdata->dvfs_signal = false;
printk(KERN_DEBUG"keys:DVFS On\n");
mutex_unlock(&bdata->key_dvfs_lock);
}
/* Key */
DECLARE_DVFS_DELAYED_WORK_FUNC(CHG, KEY)
{
struct input_booster *data =
container_of(work, struct input_booster, dvfses[BOOSTER_DEVICE_KEY].dvfs_chg_work.work);
struct booster_dvfs *dvfs = &data->dvfses[BOOSTER_DEVICE_KEY];
mutex_lock(&dvfs->lock);
set_qos(&dvfs->cpu_qos, PM_QOS_CPU_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL1].cpu_freq);
set_qos(&dvfs->mif_qos, PM_QOS_BUS_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL1].mif_freq);
set_qos(&dvfs->int_qos, PM_QOS_DEVICE_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL1].int_freq);
dvfs->lock_status = true;
dvfs->short_press = false;
DVFS_DEV_DBG(DBG_DVFS, data->dev, "%s : DVFS ON [level %d]\n", __func__, dvfs->level);
mutex_unlock(&dvfs->lock);
}
int
QosSettings::set_qos(QosLevel level, const char* name, const char* value)
{
int status = 0;
switch (level) {
case publisher:
status = set_qos(publisher_qos_, name, value);
break;
case subscriber:
status = set_qos(subscriber_qos_, name, value);
break;
case datawriter:
status = set_qos(datawriter_qos_, name, value);
break;
case datareader:
status = set_qos(datareader_qos_, name, value);
break;
}
return status;
}
DECLARE_DVFS_WORK_FUNC(SET, PEN)
{
struct input_booster *data = (struct input_booster *)booster_data;
struct booster_dvfs *dvfs = &data->dvfses[BOOSTER_DEVICE_PEN];
mutex_lock(&dvfs->lock);
if (!dvfs->level) {
dev_err(data->dev, "%s : Skip to set booster due to level 0\n", __func__);
goto out;
}
switch (booster_mode) {
case BOOSTER_MODE_ON:
cancel_delayed_work(&dvfs->dvfs_off_work);
cancel_delayed_work(&dvfs->dvfs_chg_work);
switch (dvfs->level) {
case BOOSTER_LEVEL1:
case BOOSTER_LEVEL2:
set_qos(&dvfs->cpu_qos, PM_QOS_CPU_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL1].cpu_freq);
set_qos(&dvfs->mif_qos, PM_QOS_BUS_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL1].mif_freq);
set_qos(&dvfs->int_qos, PM_QOS_DEVICE_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL1].int_freq);
break;
case BOOSTER_LEVEL3:
set_qos(&dvfs->cpu_qos, PM_QOS_CPU_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL3].cpu_freq);
set_qos(&dvfs->mif_qos, PM_QOS_BUS_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL3].mif_freq);
set_qos(&dvfs->int_qos, PM_QOS_DEVICE_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL3].int_freq);
break;
default:
dev_err(data->dev, "%s : Undefined type passed[%d]\n", __func__, dvfs->level);
break;
}
DVFS_DEV_DBG(DBG_DVFS, data->dev, "%s : DVFS ON [level %d]\n", __func__, dvfs->level);
schedule_delayed_work(&dvfs->dvfs_chg_work,
msecs_to_jiffies(dvfs->msec_chg_time));
dvfs->lock_status = true;
break;
case BOOSTER_MODE_OFF:
if (dvfs->lock_status)
schedule_delayed_work(&dvfs->dvfs_off_work,
msecs_to_jiffies(dvfs->msec_off_time));
break;
case BOOSTER_MODE_FORCE_OFF:
if (dvfs->lock_status) {
cancel_delayed_work(&dvfs->dvfs_chg_work);
cancel_delayed_work(&dvfs->dvfs_off_work);
schedule_work(&dvfs->dvfs_off_work.work);
}
break;
default:
break;
}
out:
mutex_unlock(&dvfs->lock);
return;
}
void
Transmitter::update_def(const transmitterDef& def)
{
// cout << "Transmitter::update_def(" << partition_id() << ", " << m_def.transmitter_id << ")" << endl;
assert(m_def.transmitter_id == def.transmitter_id);
assert(m_active);
// check for changes requiring thread restart
if (m_def.scheduling_class != def.scheduling_class ||
m_def.thread_priority != def.thread_priority ||
m_def.topic_kind != def.topic_kind ||
m_def.topic_id != def.topic_id)
{
// stop writer thread
m_active = false;
m_writer_thread.join();
// check for topic change
if (m_def.topic_kind != def.topic_kind ||
m_def.topic_id != def.topic_id)
{
m_def = def;
set_topic();
set_qos();
}
else
{
m_def = def;
}
// finish updating
m_config_number++;
// restart writer thread
m_active = true;
m_writer_thread.create(&Transmitter::writer_thread);
}
else
{
// update without stopping and restarting thread
m_def = def;
m_config_number++;
}
}
void wacom_set_dvfs_lock(struct wacom_i2c *wac_i2c,
uint32_t on)
{
if (WACOM_BOOSTER_DISABLE == wac_i2c->boost_level)
return;
mutex_lock(&wac_i2c->dvfs_lock);
if (on == 0) {
if (wac_i2c->dvfs_lock_status) {
schedule_delayed_work(&wac_i2c->dvfs_off_work,
msecs_to_jiffies(WACOM_BOOSTER_OFF_TIME));
}
} else if (on == 1) {
cancel_delayed_work(&wac_i2c->dvfs_off_work);
cancel_delayed_work(&wac_i2c->dvfs_chg_work);
if (wac_i2c->boost_level == WACOM_BOOSTER_LEVEL3) {
set_qos(&wac_i2c->cpu_qos, PM_QOS_CPU_FREQ_MIN, WACOM_BOOSTER_CPU_FREQ3);
set_qos(&wac_i2c->mif_qos, PM_QOS_BUS_THROUGHPUT, WACOM_BOOSTER_MIF_FREQ3);
set_qos(&wac_i2c->int_qos, PM_QOS_DEVICE_THROUGHPUT, WACOM_BOOSTER_INT_FREQ3);
} else {
set_qos(&wac_i2c->cpu_qos, PM_QOS_CPU_FREQ_MIN, WACOM_BOOSTER_CPU_FREQ1);
set_qos(&wac_i2c->mif_qos, PM_QOS_BUS_THROUGHPUT, WACOM_BOOSTER_MIF_FREQ1);
set_qos(&wac_i2c->int_qos, PM_QOS_DEVICE_THROUGHPUT, WACOM_BOOSTER_INT_FREQ1);
}
schedule_delayed_work(&wac_i2c->dvfs_chg_work,
msecs_to_jiffies(WACOM_BOOSTER_CHG_TIME));
wac_i2c->dvfs_lock_status = true;
printk(KERN_DEBUG"epen:DVFS On, %d\n", wac_i2c->boost_level);
} else if (on == 2) {
if (wac_i2c->dvfs_lock_status) {
cancel_delayed_work(&wac_i2c->dvfs_off_work);
cancel_delayed_work(&wac_i2c->dvfs_chg_work);
schedule_work(&wac_i2c->dvfs_off_work.work);
}
}
mutex_unlock(&wac_i2c->dvfs_lock);
}
/*! \brief Apply handler for transports */
static int transport_apply(const struct ast_sorcery *sorcery, void *obj)
{
struct ast_sip_transport *transport = obj;
RAII_VAR(struct ast_sip_transport *, existing, ast_sorcery_retrieve_by_id(sorcery, "transport", ast_sorcery_object_get_id(obj)), ao2_cleanup);
pj_status_t res = -1;
if (!existing || !existing->state) {
if (!(transport->state = ao2_alloc(sizeof(*transport->state), transport_state_destroy))) {
ast_log(LOG_ERROR, "Transport state for '%s' could not be allocated\n", ast_sorcery_object_get_id(obj));
return -1;
}
} else {
transport->state = existing->state;
ao2_ref(transport->state, +1);
}
/* Once active a transport can not be reconfigured */
if (transport->state->transport || transport->state->factory) {
return -1;
}
if (transport->host.addr.sa_family != PJ_AF_INET && transport->host.addr.sa_family != PJ_AF_INET6) {
ast_log(LOG_ERROR, "Transport '%s' could not be started as binding not specified\n", ast_sorcery_object_get_id(obj));
return -1;
}
/* Set default port if not present */
if (!pj_sockaddr_get_port(&transport->host)) {
pj_sockaddr_set_port(&transport->host, (transport->type == AST_TRANSPORT_TLS) ? 5061 : 5060);
}
/* Now that we know what address family we can set up a dnsmgr refresh for the external media address if present */
if (!ast_strlen_zero(transport->external_signaling_address)) {
if (transport->host.addr.sa_family == pj_AF_INET()) {
transport->external_address.ss.ss_family = AF_INET;
} else if (transport->host.addr.sa_family == pj_AF_INET6()) {
transport->external_address.ss.ss_family = AF_INET6;
} else {
ast_log(LOG_ERROR, "Unknown address family for transport '%s', could not get external signaling address\n",
ast_sorcery_object_get_id(obj));
return -1;
}
if (ast_dnsmgr_lookup(transport->external_signaling_address, &transport->external_address, &transport->external_address_refresher, NULL) < 0) {
ast_log(LOG_ERROR, "Could not create dnsmgr for external signaling address on '%s'\n", ast_sorcery_object_get_id(obj));
return -1;
}
}
if (transport->type == AST_TRANSPORT_UDP) {
if (transport->host.addr.sa_family == pj_AF_INET()) {
res = pjsip_udp_transport_start(ast_sip_get_pjsip_endpoint(), &transport->host.ipv4, NULL, transport->async_operations, &transport->state->transport);
} else if (transport->host.addr.sa_family == pj_AF_INET6()) {
res = pjsip_udp_transport_start6(ast_sip_get_pjsip_endpoint(), &transport->host.ipv6, NULL, transport->async_operations, &transport->state->transport);
}
if (res == PJ_SUCCESS && (transport->tos || transport->cos)) {
pj_sock_t sock;
pj_qos_params qos_params;
sock = pjsip_udp_transport_get_socket(transport->state->transport);
pj_sock_get_qos_params(sock, &qos_params);
set_qos(transport, &qos_params);
pj_sock_set_qos_params(sock, &qos_params);
}
} else if (transport->type == AST_TRANSPORT_TCP) {
pjsip_tcp_transport_cfg cfg;
pjsip_tcp_transport_cfg_default(&cfg, transport->host.addr.sa_family);
cfg.bind_addr = transport->host;
cfg.async_cnt = transport->async_operations;
set_qos(transport, &cfg.qos_params);
res = pjsip_tcp_transport_start3(ast_sip_get_pjsip_endpoint(), &cfg, &transport->state->factory);
} else if (transport->type == AST_TRANSPORT_TLS) {
transport->tls.ca_list_file = pj_str((char*)transport->ca_list_file);
transport->tls.cert_file = pj_str((char*)transport->cert_file);
transport->tls.privkey_file = pj_str((char*)transport->privkey_file);
transport->tls.password = pj_str((char*)transport->password);
set_qos(transport, &transport->tls.qos_params);
res = pjsip_tls_transport_start2(ast_sip_get_pjsip_endpoint(), &transport->tls, &transport->host, NULL, transport->async_operations, &transport->state->factory);
} else if ((transport->type == AST_TRANSPORT_WS) || (transport->type == AST_TRANSPORT_WSS)) {
if (transport->cos || transport->tos) {
ast_log(LOG_WARNING, "TOS and COS values ignored for websocket transport\n");
}
res = PJ_SUCCESS;
}
if (res != PJ_SUCCESS) {
char msg[PJ_ERR_MSG_SIZE];
pjsip_strerror(res, msg, sizeof(msg));
ast_log(LOG_ERROR, "Transport '%s' could not be started: %s\n", ast_sorcery_object_get_id(obj), msg);
return -1;
}
return 0;
}
void DatalinkPrivate::initializeDatalink()
{
Q_Q(Datalink);
Q_ASSERT(q);
DDS_ReturnCode_t retcode;
Node* parentNode = q->parent();
{ /** create the participant...
*
* \internal
* The code related to setting up the "spies" via the built-in subscriber is
* based upon an example from the RTI knowledge base:
* http://community.rti.com/kb/how-can-i-detect-new-datawriters-and-datareaders-joining-domain
*/
{ /** \internal Factory */
DDS_DomainParticipantFactoryQos factory_qos;
// To conserve memory, builtin Subscribers and DataReaders are created
// only if and when you look them up. Therefore, to avoid missing
// builtin data, you should look up the builtin readers before the
// DomainParticipant is enabled.
// Modify the Factory's QoS so that DomainParticipants are not automatically enabled when created
DDSTheParticipantFactory->get_qos(factory_qos);
factory_qos.entity_factory.autoenable_created_entities = DDS_BOOLEAN_FALSE;
if(false) // DEBUG
{ /** \internal Increasing the verbosity of DDS internal logging.
* copied from http://community.rti.com/comment/1979#comment-1979 */
factory_qos.logging.category = NDDS_CONFIG_LOG_CATEGORY_ENTITIES ;
factory_qos.logging.verbosity = NDDS_CONFIG_LOG_VERBOSITY_STATUS_LOCAL;
}
DDSTheParticipantFactory->set_qos(factory_qos);
}
// Modify participant_qos settings here, if necessary
retcode = DDSTheParticipantFactory->get_default_participant_qos(participant_qos);
if (retcode != DDS_RETCODE_OK) {
qCritical("get default participant qos error %d\n", retcode);
throw datalink_error("Get default participant QOS error.",retcode);
return ;
}
// Increase type code serialized length from 256 (default) to 64K (maximum).
// This ensures we can receive more involved type codes
participant_qos.resource_limits.type_code_max_serialized_length = 0xffff; //FIXME: Magic Numbers
// Increase receiver buffer size. The UDPv4 transport resource settings
// will be increased after participant is created.
participant_qos.receiver_pool.buffer_size = 65535; //FIXME: Magic Numbers
{ /** transfer the name of the node to the DDS participant
*
*\note This is a one time thing, i.e. later updates of the name of the
* parent node will (and actually can) \e not be propagated to the DDS
* participant!
*
*/
DDS_String_replace(&participant_qos.participant_name.name,
parentNode->objectName().toStdString().c_str());
}
{ /// transfer the type of the node to a DDS participant property
QHash<QString,QString> props;
props["type"]=enumToQString(parentNode->type());
qDebug() << q->qualifiedName() << ": Parent Node is of type" << props["type"];
int hFov = 0;
if( parentNode->settings()->camera().present() )
{
hFov = parentNode->settings()->camera().get().hFov();
}
props["hFov"]=QString("%1").arg(hFov);
#ifdef WITH_RTI_MONITORING
{
/** \internal Enabling monitoring functionality for this participant
* (using the RTI Monitor Library)
* NOTE: Compare RTI_Monitoring_Library_GettingStarted.pdf */
props["rti.monitor.library"]="rtimonitoring";
char buffer[17];
sprintf(buffer,"%p",RTIDefaultMonitor_create);
props["rti.monitor.create_function_ptr"] = buffer;
}
#endif // WITH RTI_MONITORING
auto old_props = participant_qos.property.value;
DDS::appendHashToProperty(props, participant_qos.property.value);
auto new_props = participant_qos.property.value;
//NOTE: don't free the memory pointed to by type.name and value, as
// in that case the newly added property has a "\null" name and type. :(
//
// DDS_String_free(type.name); //TODO: who would do the clean up of this?
// DDS_String_free(type.value); //TODO: who would do the clean up of this?
}
{ /// set discovery and liveliness parameters
/** \internal
* Some related articles on the RTI community forum / knowledge base:
* - http://community.rti.com/kb/why-does-my-subscriber-report-multiple-liveliness-change-events-when-i-kill-my-publisher
* - http://community.rti.com/forum-topic/how-can-i-react-participant-going-stale
*/
// The time (in seconds) this node has had to been silent before other participants
// declare it "stale" or "dead"
//FIXME: I never ever got this to work... :/
participant_qos.discovery_config.participant_liveliness_lease_duration.sec = 5; //NOTE: the default is 100
// The time intervall (in seconds) in which the participant will assert
// its liveliness (i.e. it will send out an liveliness asserting message)
participant_qos.discovery_config.participant_liveliness_assert_period.sec = 3; //NOTE: the default is 30
}
participant_listener = new NodePrivate::Participant_Listener(parentNode);
DDS_StatusMask mask = NodePrivate::Participant_Listener::implementedCallbacks;
// Create the DomainParticipant (which will start out disabled)
participant = DDSDomainParticipantFactory::get_instance()->
create_participant(
domainId // Domain ID
,participant_qos // QoS
,participant_listener // Listener
,mask // Listener Mask
);
Q_ASSERT(participant);
if (participant == nullptr) {
qCritical("create_participant error %d\n", retcode);
throw datalink_error("Create participant error.",retcode);
return;
}
}
{ /** change the default UPDv4 socket layer settings.
*
* \internal
* From the knowledge base entry related to the "spies":
* "A a side note not related to builtin topics but related to the example
* attached to this solution, we increase the typecode serialized length
* from 256 (the default) to 64K (the maximum) to make sure we can receive
* more involved typecodes. The typecode data size varies from data type to
* data type (the more complex the structure, the larger the typecode). The
* DomainParticipant's resource_limits.type_code_max_serialized_length
* controls the maximum typecode size that can be sent and received by the
* participant. RTI Connext’s default value is 256, which is adequate for
* only very simple data structures (for instance, a simple struct with no
* more than 8 primitive members)."
*/
NDDS_Transport_UDPv4_Property_t property = NDDS_TRANSPORT_UDPV4_PROPERTY_DEFAULT;
NDDS_Transport_Property_t& propref = reinterpret_cast<NDDS_Transport_Property_t&>(property); //FIXME: reinterpret_cast!
// The default maximum data size is 8K. This is determined by the 9K maximum
// socket buffer size and message_size_max, as defined in the UDPv4 builtin
// transport.
// To change the properties of the UDPv4 builtin transport, refer to the
// online documentation (Programming How-To's ->Transport Use Cases).
// 1. Turn off auto-enable of newly created participants (see above)
// 2. Get the UDPv4 property
// 3. Modify the property
// 4. Set the property
// 5. Enable the participant
retcode = NDDSTransportSupport::get_builtin_transport_property(
participant,
DDS_TRANSPORTBUILTIN_UDPv4,
propref);
if (retcode != DDS_RETCODE_OK)
{
qCritical() << q->qualifiedName()
<< ": DDS error getting builtin transport property:" << retcode;
}
/* Increase the UDPv4 maximum message size to 64K (large messages) */
property.parent.message_size_max = 65535; //FIXME: Magic Numbers
property.recv_socket_buffer_size = 65535; //FIXME: Magic Numbers
property.send_socket_buffer_size = 65535; //FIXME: Magic Numbers
retcode = NDDSTransportSupport::set_builtin_transport_property(
participant
,DDS_TRANSPORTBUILTIN_UDPv4
,propref);
if (retcode != DDS_RETCODE_OK)
{
qCritical() << q->qualifiedName()
<< ": DDS error seting builtin transport property:" << retcode;
}
}
{ /** \internal set the liveliness duration for the builtin reader for the topic
* DDS_PARTICIPANT_TOPIC_NAME */
auto builtin_subscriber = participant->get_builtin_subscriber();
Q_ASSERT( builtin_subscriber );
auto builtin_sub_reader = builtin_subscriber->lookup_datareader(DDS_PARTICIPANT_TOPIC_NAME);
Q_ASSERT( builtin_sub_reader );
DDS_DataReaderQos defReaderQoS;
builtin_sub_reader->get_qos(defReaderQoS);
defReaderQoS.liveliness.kind = DDS_AUTOMATIC_LIVELINESS_QOS; ///NOTE: Default is DDS_AUTOMATIC_LIVELINESS_QOS
defReaderQoS.liveliness.lease_duration = DDS_Duration_t::from_millis(1250); ///FIXME: Magic numbers: BuiltIn Reader Liveliness Duration 1.25s
builtin_sub_reader->set_qos(defReaderQoS);
}
{ /// attach listeners to the built-in topics
builtInTopic_Publications_Listener = new NodePrivate::BuiltInTopic_Publications_Listener(parentNode);
attachToBuiltInTopic(builtInTopic_Publications_Listener, DDS_PUBLICATION_TOPIC_NAME
/*listener mask = DDS_DATA_AVAILABLE_STATUS */
);
builtInTopic_Subscriptions_Listener = new NodePrivate::BuiltInTopic_Subscriptions_Listener(parentNode);
attachToBuiltInTopic(builtInTopic_Subscriptions_Listener, DDS_SUBSCRIPTION_TOPIC_NAME
/*listener mask = DDS_DATA_AVAILABLE_STATUS */
);
DDS_StatusMask participantListenerMask =
NodePrivate::BuiltInTopic_Participant_Listener::implementedCallbacks;
builtInTopic_Participant_Listener = new NodePrivate::BuiltInTopic_Participant_Listener(parentNode);
attachToBuiltInTopic(builtInTopic_Participant_Listener, DDS_PARTICIPANT_TOPIC_NAME,
/*listener mask */ participantListenerMask
// /*listener mask */ DDS_LIVELINESS_CHANGED_STATUS
);
}
{ /// create the publisher ...
//NOTE: To customize publisher QoS, use the configuration file USER_QOS_PROFILES.xml
publisher = participant->create_publisher( DDS_PUBLISHER_QOS_DEFAULT,
nullptr, // listener
DDS_STATUS_MASK_NONE
);
Q_ASSERT(publisher);
}
{ /// create the subscriber ...
subscriberListener = new SubscriberListener;
// DDS_StatusMask mask = DDS_DATA_ON_READERS_STATUS
// | DDS_DATA_AVAILABLE_STATUS ;
DDS_StatusMask mask = subscriberListener->implementedCallbacks;
//NOTE: To customize the subscriber QoS, use the configuration file USER_QOS_PROFILES.xml
subscriber = participant->create_subscriber( DDS_SUBSCRIBER_QOS_DEFAULT
, subscriberListener // Listener
, mask // Listener Mask
);
Q_ASSERT(subscriber);
}
// enable the factory entities in DDS.
// NOTE: The participant is disabled as the auto-enable QoS of the factory has
// ben set to false. However, that setting is still at it's default "true" for
// the participant itself, meaning that the subscriber and publisher should
// auto-enable once the participant is enabled. Hence it should be sufficient
// to just enable the participant...
retcode = participant->enable();
if(retcode != DDS_RETCODE_OK)
{
qCritical("\"%s\" : Initialization failed, couldn't enable the participant. RETCODE = %s.",
q->qualifiedName().toStdString().c_str(),
DDS::enumToQString(retcode).toStdString().c_str() );
throw datalink_error("Participant couldn't be enabled", retcode);
return;
}
{ /** Configure the participant to ignore itself,
* i.e. don't let dataReaders receive matching publications from
* dataWriters of the same participant, i.e. the same Node.
* This effectively means that a Node will only "receive" (well, process,
* I guess) data from other Nodes
* \note From the RTI API manual: "There is no way to reverse this
* operation."
*/
retcode = participant->ignore_participant(participant->get_instance_handle());
if( retcode != DDS_RETCODE_OK )
{
qCritical("ignore_participant error %d\n", retcode);
throw datalink_error("Ignore participant error.", retcode);
return;
}
}
{ // GUID Debug output
qDebug() << q->qualifiedName() << "Ownship Instance Handle:" << participant->get_instance_handle();
participant->get_qos(participant_qos);
qDebug() << "RTPS Host ID :"
<< participant_qos.wire_protocol.rtps_host_id << ","
<< QString::number(participant_qos.wire_protocol.rtps_host_id,16).toUpper().prepend("0x");
qDebug() << "RTPS App ID :"
<< participant_qos.wire_protocol.rtps_app_id << ","
<< QString::number(participant_qos.wire_protocol.rtps_app_id,16).toUpper().prepend("0x");
qDebug() << "RTPS Instance ID :"
<< participant_qos.wire_protocol.rtps_instance_id << ","
<< QString::number(participant_qos.wire_protocol.rtps_instance_id,16).toUpper().prepend("0x");
/** \internal From RTI Api documentation ([local]/RTI/ndds.5.1.0/doc/html/api_cpp/classDDSDomainParticipantFactory.html#af7c7137eccd41ffa9351d577fb088417):
* "If you want to create multiple participants on a given host in the same
* domain, make sure each one has a different participant index (set in the
* DDS_WireProtocolQosPolicy). This in turn will ensure each participant
* uses a different port number (since the unicast port numbers are
* calculated from the participant index and the domain ID)." */
qDebug() << "RTPS Participant ID :"
<< participant_qos.wire_protocol.participant_id << ","
<< QString::number(participant_qos.wire_protocol.participant_id,16).toUpper().prepend("0x");
qDebug() << "DDS Domain ID :"
<< participant->get_domain_id() << ","
<< QString::number(participant->get_domain_id(),16).toUpper().prepend("0x");
}
// get an update version of the participant QoS settings now that it has been
// enabled.
retcode = participant->get_qos(participant_qos);
Q_ASSERT( retcode == DDS_RETCODE_OK );
}
void
Transceiver::create(const transceiverDef& def)
{
m_def = def;
// cout << "Transceiver::create(" << partition_id() << ", " << m_def.transceiver_id << ")" << endl;
// setup QueryCondition for reading this Transceiver's Qos
stringstream id;
id << m_def.transceiver_id;
StringSeq params;
params.length(1);
params[0] = id.str().c_str();
m_qos_query.create(ANY_SAMPLE_STATE,
ANY_VIEW_STATE,
ANY_INSTANCE_STATE,
"transceiver_id = %0",
params);
// setup Transceiver topic
set_topics();
// read initial Qos
transceiverQosSeq qoss;
SampleInfoSeq infos;
// REVISIT - read or take?
ReturnCode_t retcode = qos_reader()->read_w_condition(qoss,
infos,
1,
m_qos_query);
if (retcode == RETCODE_NO_DATA)
{
// no Qos instance to read, so initialize and write
m_qos.group_id = m_def.group_id;
m_qos.transceiver_id = m_def.transceiver_id;
m_qos.partition_id = m_def.partition_id;
m_qos.writer_qos.latency_budget.duration.sec = 0;
m_qos.writer_qos.latency_budget.duration.nanosec = 0;
m_qos.writer_qos.transport_priority.value = 0;
m_qos.reader_qos.history.depth = 1;
m_qos.reader_qos.latency_budget.duration.sec = 0;
m_qos.reader_qos.latency_budget.duration.nanosec = 0;
retcode = qos_writer()->write(m_qos,
0);
qos_writer().check(retcode,
"transceiverQosDataWriter::write");
}
else
{
qos_reader().check(retcode,
"transceiverQosDataReader::read_w_condition");
assert(qoss.length() == 1);
assert(infos.length() == 1);
m_qos = qoss[0];
assert(m_qos.group_id == m_def.group_id);
assert(m_qos.transceiver_id == m_def.transceiver_id);
assert(m_qos.partition_id == m_def.partition_id);
}
qos_reader()->return_loan(qoss,
infos);
set_qos();
// start threads
m_writer_active = true;
m_writer_thread.create(&Transceiver::writer_thread);
m_reader_active = true;
m_reader_thread.create(&Transceiver::reader_thread);
m_report_active = true;
m_report_thread.create(&Transceiver::report_thread);
}
/*! \brief Apply handler for transports */
static int transport_apply(const struct ast_sorcery *sorcery, void *obj)
{
struct ast_sip_transport *transport = obj;
const char *transport_id = ast_sorcery_object_get_id(obj);
RAII_VAR(struct ao2_container *, states, transport_states, states_cleanup);
RAII_VAR(struct internal_state *, temp_state, NULL, ao2_cleanup);
RAII_VAR(struct internal_state *, perm_state, NULL, ao2_cleanup);
RAII_VAR(struct ast_variable *, changes, NULL, ast_variables_destroy);
pj_status_t res = -1;
int i;
#define BIND_TRIES 3
#define BIND_DELAY_US 100000
if (!states) {
return -1;
}
/*
* transport_apply gets called for EVERY retrieval of a transport when using realtime.
* We need to prevent multiple threads from trying to mess with underlying transports
* at the same time. The container is the only thing we have to lock on.
*/
ao2_wrlock(states);
temp_state = internal_state_alloc(transport);
if (!temp_state) {
ast_log(LOG_ERROR, "Transport '%s' failed to allocate memory\n", transport_id);
return -1;
}
perm_state = find_internal_state_by_transport(transport);
if (perm_state) {
ast_sorcery_diff(sorcery, perm_state->transport, transport, &changes);
if (!changes && !has_state_changed(perm_state->state, temp_state->state)) {
/* In case someone is using the deprecated fields, reset them */
transport->state = perm_state->state;
copy_state_to_transport(transport);
ao2_replace(perm_state->transport, transport);
return 0;
}
if (!transport->allow_reload) {
if (!perm_state->change_detected) {
perm_state->change_detected = 1;
ast_log(LOG_WARNING, "Transport '%s' is not reloadable, maintaining previous values\n", transport_id);
}
/* In case someone is using the deprecated fields, reset them */
transport->state = perm_state->state;
copy_state_to_transport(transport);
ao2_replace(perm_state->transport, transport);
return 0;
}
}
if (temp_state->state->host.addr.sa_family != PJ_AF_INET && temp_state->state->host.addr.sa_family != PJ_AF_INET6) {
ast_log(LOG_ERROR, "Transport '%s' could not be started as binding not specified\n", transport_id);
return -1;
}
/* Set default port if not present */
if (!pj_sockaddr_get_port(&temp_state->state->host)) {
pj_sockaddr_set_port(&temp_state->state->host, (transport->type == AST_TRANSPORT_TLS) ? 5061 : 5060);
}
/* Now that we know what address family we can set up a dnsmgr refresh for the external media address if present */
if (!ast_strlen_zero(transport->external_signaling_address)) {
if (temp_state->state->host.addr.sa_family == pj_AF_INET()) {
temp_state->state->external_address.ss.ss_family = AF_INET;
} else if (temp_state->state->host.addr.sa_family == pj_AF_INET6()) {
temp_state->state->external_address.ss.ss_family = AF_INET6;
} else {
ast_log(LOG_ERROR, "Unknown address family for transport '%s', could not get external signaling address\n",
transport_id);
return -1;
}
if (ast_dnsmgr_lookup(transport->external_signaling_address, &temp_state->state->external_address, &temp_state->state->external_address_refresher, NULL) < 0) {
ast_log(LOG_ERROR, "Could not create dnsmgr for external signaling address on '%s'\n", transport_id);
return -1;
}
}
if (transport->type == AST_TRANSPORT_UDP) {
for (i = 0; i < BIND_TRIES && res != PJ_SUCCESS; i++) {
if (perm_state && perm_state->state && perm_state->state->transport) {
pjsip_udp_transport_pause(perm_state->state->transport,
PJSIP_UDP_TRANSPORT_DESTROY_SOCKET);
usleep(BIND_DELAY_US);
}
if (temp_state->state->host.addr.sa_family == pj_AF_INET()) {
res = pjsip_udp_transport_start(ast_sip_get_pjsip_endpoint(),
&temp_state->state->host.ipv4, NULL, transport->async_operations,
&temp_state->state->transport);
} else if (temp_state->state->host.addr.sa_family == pj_AF_INET6()) {
res = pjsip_udp_transport_start6(ast_sip_get_pjsip_endpoint(),
&temp_state->state->host.ipv6, NULL, transport->async_operations,
&temp_state->state->transport);
}
}
if (res == PJ_SUCCESS && (transport->tos || transport->cos)) {
pj_sock_t sock;
pj_qos_params qos_params;
sock = pjsip_udp_transport_get_socket(temp_state->state->transport);
pj_sock_get_qos_params(sock, &qos_params);
set_qos(transport, &qos_params);
pj_sock_set_qos_params(sock, &qos_params);
}
} else if (transport->type == AST_TRANSPORT_TCP) {
pjsip_tcp_transport_cfg cfg;
pjsip_tcp_transport_cfg_default(&cfg, temp_state->state->host.addr.sa_family);
cfg.bind_addr = temp_state->state->host;
cfg.async_cnt = transport->async_operations;
set_qos(transport, &cfg.qos_params);
for (i = 0; i < BIND_TRIES && res != PJ_SUCCESS; i++) {
if (perm_state && perm_state->state && perm_state->state->factory
&& perm_state->state->factory->destroy) {
perm_state->state->factory->destroy(perm_state->state->factory);
usleep(BIND_DELAY_US);
}
res = pjsip_tcp_transport_start3(ast_sip_get_pjsip_endpoint(), &cfg,
&temp_state->state->factory);
}
} else if (transport->type == AST_TRANSPORT_TLS) {
if (transport->async_operations > 1 && ast_compare_versions(pj_get_version(), "2.5.0") < 0) {
ast_log(LOG_ERROR, "Transport: %s: When protocol=tls and pjproject version < 2.5.0, async_operations can't be > 1\n",
ast_sorcery_object_get_id(obj));
return -1;
}
temp_state->state->tls.password = pj_str((char*)transport->password);
set_qos(transport, &temp_state->state->tls.qos_params);
for (i = 0; i < BIND_TRIES && res != PJ_SUCCESS; i++) {
if (perm_state && perm_state->state && perm_state->state->factory
&& perm_state->state->factory->destroy) {
perm_state->state->factory->destroy(perm_state->state->factory);
usleep(BIND_DELAY_US);
}
res = pjsip_tls_transport_start2(ast_sip_get_pjsip_endpoint(), &temp_state->state->tls,
&temp_state->state->host, NULL, transport->async_operations,
&temp_state->state->factory);
}
} else if ((transport->type == AST_TRANSPORT_WS) || (transport->type == AST_TRANSPORT_WSS)) {
if (transport->cos || transport->tos) {
ast_log(LOG_WARNING, "TOS and COS values ignored for websocket transport\n");
}
res = PJ_SUCCESS;
}
if (res != PJ_SUCCESS) {
char msg[PJ_ERR_MSG_SIZE];
pj_strerror(res, msg, sizeof(msg));
ast_log(LOG_ERROR, "Transport '%s' could not be started: %s\n", ast_sorcery_object_get_id(obj), msg);
return -1;
}
copy_state_to_transport(transport);
if (perm_state) {
ao2_unlink_flags(states, perm_state, OBJ_NOLOCK);
}
ao2_link_flags(states, temp_state, OBJ_NOLOCK);
return 0;
}
/* Touch */
DECLARE_DVFS_DELAYED_WORK_FUNC(CHG, TOUCH)
{
struct booster_dvfs *dvfs =
container_of(work, struct booster_dvfs, dvfs_chg_work.work);
struct input_booster *data = dev_get_drvdata(dvfs->parent_dev);
mutex_lock(&dvfs->lock);
if (!dvfs->times[dvfs->level].phase_time)
dvfs->phase_excuted = false;
switch (dvfs->level) {
case BOOSTER_LEVEL0:
case BOOSTER_LEVEL1:
case BOOSTER_LEVEL3:
remove_qos(&dvfs->cpu_qos);
remove_qos(&dvfs->kfc_qos);
remove_qos(&dvfs->mif_qos);
remove_qos(&dvfs->int_qos);
SET_HMP(data, BOOSTER_DEVICE_TOUCH, false);
dvfs->lock_status = false;
DVFS_DEV_DBG(DBG_DVFS, data->dev, "%s : DVFS OFF\n", __func__);
break;
case BOOSTER_LEVEL2:
set_qos(&dvfs->kfc_qos, PM_QOS_KFC_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL2].kfc_freq);
set_qos(&dvfs->int_qos, PM_QOS_DEVICE_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL2].int_freq);
set_qos(&dvfs->mif_qos, PM_QOS_BUS_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL2].mif_freq);
remove_qos(&dvfs->cpu_qos);
SET_HMP(data, BOOSTER_DEVICE_TOUCH, false);
DVFS_DEV_DBG(DBG_DVFS, data->dev, "%s : DVFS CHANGED [level %d]\n", __func__, dvfs->level);
break;
case BOOSTER_LEVEL4:
DVFS_DEV_DBG(DBG_DVFS, data->dev, "%s : DVFS CHANGED [level %d]\n", __func__, dvfs->level);
break;
case BOOSTER_LEVEL5:
if (dvfs->phase_excuted) {
remove_qos(&dvfs->cpu_qos);
remove_qos(&dvfs->kfc_qos);
remove_qos(&dvfs->mif_qos);
remove_qos(&dvfs->int_qos);
SET_HMP(data, BOOSTER_DEVICE_TOUCH, false);
dvfs->lock_status = false;
dvfs->phase_excuted = false;
DVFS_DEV_DBG(DBG_DVFS, data->dev, "%s : DVFS OFF\n", __func__);
} else {
set_qos(&dvfs->cpu_qos, PM_QOS_CPU_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL5].cpu_freq);
schedule_delayed_work(&dvfs->dvfs_chg_work,
msecs_to_jiffies(dvfs->times[BOOSTER_LEVEL5].head_time - dvfs->times[BOOSTER_LEVEL5].phase_time));
dvfs->phase_excuted = true;
DVFS_DEV_DBG(DBG_DVFS, data->dev, "%s : DVFS CHANGED [level %d, start time[%d]]\n",
__func__, dvfs->level, dvfs->times[BOOSTER_LEVEL5].head_time - dvfs->times[BOOSTER_LEVEL5].phase_time);
}
break;
case BOOSTER_LEVEL9:
SET_HMP(data, BOOSTER_DEVICE_TOUCH, dvfs->freqs[BOOSTER_LEVEL9_CHG].hmp_boost);
set_qos(&dvfs->kfc_qos, PM_QOS_KFC_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL9_CHG].kfc_freq);
set_qos(&dvfs->int_qos, PM_QOS_DEVICE_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL9_CHG].int_freq);
set_qos(&dvfs->cpu_qos, PM_QOS_CPU_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL9_CHG].cpu_freq);
set_qos(&dvfs->mif_qos, PM_QOS_BUS_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL9_CHG].mif_freq);
DVFS_DEV_DBG(DBG_DVFS, data->dev, "%s : DVFS CHANGED [level %d]\n", __func__, dvfs->level);
break;
default:
dev_err(data->dev, "%s : Undefined type passed[%d]\n", __func__, dvfs->level);
break;
}
if (!dvfs->lock_status)
dvfs->phase_excuted = false;
mutex_unlock(&dvfs->lock);
}
DECLARE_DVFS_WORK_FUNC(SET, TOUCH)
{
struct input_booster *data = (struct input_booster *)booster_data;
struct booster_dvfs *dvfs = data->dvfses[BOOSTER_DEVICE_TOUCH];
if (!dvfs || !dvfs->initialized) {
dev_err(data->dev, "%s: Dvfs is not initialized\n", __func__);
return;
}
mutex_lock(&dvfs->lock);
if (!dvfs->level) {
dev_err(data->dev, "%s : Skip to set booster due to level 0\n", __func__);
goto out;
}
switch (booster_mode) {
case BOOSTER_MODE_ON:
cancel_delayed_work(&dvfs->dvfs_off_work);
cancel_delayed_work(&dvfs->dvfs_chg_work);
switch (dvfs->level) {
case BOOSTER_LEVEL1:
case BOOSTER_LEVEL2:
SET_HMP(data, BOOSTER_DEVICE_TOUCH, dvfs->freqs[BOOSTER_LEVEL1].hmp_boost);
set_qos(&dvfs->kfc_qos, PM_QOS_KFC_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL1].kfc_freq);
set_qos(&dvfs->int_qos, PM_QOS_DEVICE_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL1].int_freq);
set_qos(&dvfs->cpu_qos, PM_QOS_CPU_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL1].cpu_freq);
set_qos(&dvfs->mif_qos, PM_QOS_BUS_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL1].mif_freq);
break;
case BOOSTER_LEVEL3:
set_qos(&dvfs->kfc_qos, PM_QOS_KFC_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL3].kfc_freq);
set_qos(&dvfs->int_qos, PM_QOS_DEVICE_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL3].int_freq);
set_qos(&dvfs->mif_qos, PM_QOS_BUS_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL3].mif_freq);
remove_qos(&dvfs->cpu_qos);
SET_HMP(data, BOOSTER_DEVICE_TOUCH, dvfs->freqs[BOOSTER_LEVEL3].hmp_boost);
break;
case BOOSTER_LEVEL4:
set_qos(&dvfs->kfc_qos, PM_QOS_KFC_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL4].kfc_freq);
set_qos(&dvfs->int_qos, PM_QOS_DEVICE_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL4].int_freq);
set_qos(&dvfs->mif_qos, PM_QOS_BUS_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL4].mif_freq);
remove_qos(&dvfs->cpu_qos);
SET_HMP(data, BOOSTER_DEVICE_TOUCH, dvfs->freqs[BOOSTER_LEVEL4].hmp_boost);
break;
case BOOSTER_LEVEL5:
SET_HMP(data, BOOSTER_DEVICE_TOUCH, dvfs->freqs[BOOSTER_LEVEL5].hmp_boost);
set_qos(&dvfs->kfc_qos, PM_QOS_KFC_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL5].kfc_freq);
set_qos(&dvfs->int_qos, PM_QOS_DEVICE_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL5].int_freq);
set_qos(&dvfs->mif_qos, PM_QOS_BUS_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL5].mif_freq);
break;
case BOOSTER_LEVEL9:
SET_HMP(data, BOOSTER_DEVICE_TOUCH, dvfs->freqs[BOOSTER_LEVEL9].hmp_boost);
set_qos(&dvfs->kfc_qos, PM_QOS_KFC_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL9].kfc_freq);
set_qos(&dvfs->int_qos, PM_QOS_DEVICE_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL9].int_freq);
set_qos(&dvfs->cpu_qos, PM_QOS_CPU_FREQ_MIN, dvfs->freqs[BOOSTER_LEVEL9].cpu_freq);
set_qos(&dvfs->mif_qos, PM_QOS_BUS_THROUGHPUT, dvfs->freqs[BOOSTER_LEVEL9].mif_freq);
break;
default:
dev_err(data->dev, "%s : Undefined type passed[%d]\n", __func__, dvfs->level);
break;
}
if (dvfs->times[dvfs->level].phase_time) {
schedule_delayed_work(&dvfs->dvfs_chg_work,
msecs_to_jiffies(dvfs->times[dvfs->level].phase_time));
if (dvfs->phase_excuted)
dvfs->phase_excuted = false;
} else {
schedule_delayed_work(&dvfs->dvfs_chg_work,
msecs_to_jiffies(dvfs->times[dvfs->level].head_time));
}
dvfs->lock_status = true;
DVFS_DEV_DBG(DBG_DVFS, data->dev, "%s : DVFS ON [level %d][start time [%d]]\n",
__func__, dvfs->level, dvfs->times[dvfs->level].phase_time ?: dvfs->times[dvfs->level].head_time);
break;
case BOOSTER_MODE_OFF:
if (dvfs->lock_status)
schedule_delayed_work(&dvfs->dvfs_off_work,
msecs_to_jiffies(dvfs->times[dvfs->level].tail_time));
break;
case BOOSTER_MODE_FORCE_OFF:
if (dvfs->lock_status) {
cancel_delayed_work(&dvfs->dvfs_chg_work);
cancel_delayed_work(&dvfs->dvfs_off_work);
schedule_work(&dvfs->dvfs_off_work.work);
}
break;
default:
break;
}
out:
mutex_unlock(&dvfs->lock);
return;
}
