static routing_switch *
create_routing_switch( const char *topology_service, const routing_switch_options *options ) {
assert( topology_service != NULL );
assert( options != NULL );
// Allocate routing_switch object
routing_switch *routing_switch = xmalloc( sizeof( struct routing_switch ) );
routing_switch->idle_timeout = options->idle_timeout;
routing_switch->switches = NULL;
routing_switch->fdb = NULL;
routing_switch->second_stage_down = false;
routing_switch->last_stage_down = false;
info( "idle_timeout is set to %u [sec].", routing_switch->idle_timeout );
// Create path_resolver table
routing_switch->path_resolver = create_path_resolver();
// Create forwarding database
routing_switch->fdb = create_fdb();
// Initialize port database
routing_switch->switches = create_ports( &routing_switch->switches );
// Initialize libraries
init_libtopology( topology_service );
// Ask topology manager to notify any topology change events.
// after_subscribed() will be called
subscribe_topology( after_subscribed, routing_switch );
return routing_switch;
}
static sai_status_t initialize_default_objects()
{
SWSS_LOG_ENTER();
CHECK_STATUS(set_switch_mac_address());
CHECK_STATUS(create_cpu_port());
CHECK_STATUS(create_default_vlan());
CHECK_STATUS(create_default_virtual_router());
CHECK_STATUS(create_default_stp_instance());
CHECK_STATUS(create_default_1q_bridge());
CHECK_STATUS(create_default_trap_group());
CHECK_STATUS(create_ports());
CHECK_STATUS(create_port_list());
CHECK_STATUS(create_bridge_ports());
CHECK_STATUS(create_vlan_members());
CHECK_STATUS(create_acl_entry_min_prio());
CHECK_STATUS(create_ingress_priority_groups());
CHECK_STATUS(create_qos_queues());
CHECK_STATUS(set_maximum_number_of_childs_per_scheduler_group());
CHECK_STATUS(set_number_of_ecmp_groups());
CHECK_STATUS(set_default_notifications());
CHECK_STATUS(create_scheduler_groups());
return SAI_STATUS_SUCCESS;
}
static sliceable_switch *
create_sliceable_switch( const char *topology_service, const switch_options *options ) {
assert( topology_service != NULL );
assert( options != NULL );
// Allocate sliceable_switch object
sliceable_switch *instance = xmalloc( sizeof( sliceable_switch ) );
instance->idle_timeout = options->idle_timeout;
instance->handle_arp_with_packetout = options->handle_arp_with_packetout;
instance->setup_reverse_flow = options->setup_reverse_flow;
instance->switches = NULL;
instance->fdb = NULL;
instance->pathresolver = NULL;
instance->second_stage_down = false;
instance->last_stage_down = false;
info( "idle_timeout is set to %u [sec].", instance->idle_timeout );
if ( instance->handle_arp_with_packetout ) {
info( "Handle ARP with packetout" );
}
// Create pathresolver table
instance->pathresolver = create_pathresolver();
// Create forwarding database
instance->fdb = create_fdb();
// Initialize port database
instance->switches = create_ports( &instance->switches );
// Initialize libraries
init_libtopology( topology_service );
// Ask topology manager to notify any topology change events.
// after_subscribed() will be called
subscribe_topology( after_subscribed, instance );
// Initialize filter
init_filter( options->filter_db_file );
// Initialize multiple slices support
init_slice( options->slice_db_file, options->mode, instance );
// Initialize redirector
init_redirector();
return instance;
}
static broadcast_helper *
create_broadcast_helper( const char *topology_service ) {
assert( topology_service != NULL );
// Allocate broadcast_helper object
broadcast_helper *broadcast_helper = xmalloc( sizeof( broadcast_helper ) );
broadcast_helper->switches = NULL;
// Initialize port database
broadcast_helper->switches = create_ports( &broadcast_helper->switches );
// Initialize libraries
init_libtopology( topology_service );
// Ask topology manager to notify any topology change events.
// after_subscribed() will be called
subscribe_topology( after_subscribed, broadcast_helper );
return broadcast_helper;
}
static int init(struct ao *ao)
{
struct priv *p = ao->priv;
struct mp_chmap_sel sel = {0};
jack_options_t open_options;
ao->format = AF_FORMAT_FLOATP;
switch (p->stdlayout) {
case 0:
mp_chmap_sel_add_waveext(&sel);
break;
case 1:
mp_chmap_sel_add_alsa_def(&sel);
break;
default:
mp_chmap_sel_add_any(&sel);
}
if (!ao_chmap_sel_adjust(ao, &sel, &ao->channels))
goto err_chmap;
open_options = JackNullOption;
if (!p->autostart)
open_options |= JackNoStartServer;
p->client = jack_client_open(p->cfg_client_name, open_options, NULL);
if (!p->client) {
MP_FATAL(ao, "cannot open server\n");
goto err_client_open;
}
if (create_ports(ao, ao->channels.num))
goto err_create_ports;
jack_set_process_callback(p->client, process, ao);
if (jack_activate(p->client)) {
MP_FATAL(ao, "activate failed\n");
goto err_activate;
}
ao->samplerate = jack_get_sample_rate(p->client);
if (p->connect)
if (connect_to_outports(ao))
goto err_connect;
jack_latency_range_t jack_latency_range;
jack_port_get_latency_range(p->ports[0], JackPlaybackLatency,
&jack_latency_range);
p->jack_latency = (float)(jack_latency_range.max + jack_get_buffer_size(p->client))
/ (float)ao->samplerate;
if (!ao_chmap_sel_get_def(ao, &sel, &ao->channels, p->num_ports))
goto err_chmap_sel_get_def;
return 0;
err_chmap_sel_get_def:
err_connect:
jack_deactivate(p->client);
err_activate:
err_create_ports:
jack_client_close(p->client);
err_client_open:
err_chmap:
return -1;
}
