static void *mirroring_loop(void *arg) {
while(1) {
const struct timeval wait_time = { .tv_sec = 1, .tv_usec = 0 };
pkt_digest_t *pkt_digest = (pkt_digest_t *) cb_read_with_wait(rmt_mirroring_cb, &wait_time);
struct timeval now;
gettimeofday(&now, NULL);
if(NULL != pkt_digest) {
coalescing_session_t *coalescing_session = get_coalescing_session(pkt_digest->mirror_id);
assert(NULL != coalescing_session);
// This condition succeeds for the first digest and every digest
// immediately after a coalesced packet is sent.
if(0 == coalescing_session->length) {
RMT_LOG(P4_LOG_LEVEL_VERBOSE,
"Begin new packet for session %d\n", pkt_digest->mirror_id);
begin_coalescing_session(coalescing_session);
}
const uint32_t new_length = coalescing_session->length + pkt_digest->length;
RMT_LOG(P4_LOG_LEVEL_VERBOSE,
"Adding %hu bytes to %u bytes in coalescing session %d\n",
pkt_digest->length, coalescing_session->length, pkt_digest->mirror_id);
if(new_length >= coalescing_session->config.min_pkt_size) {
RMT_LOG(P4_LOG_LEVEL_VERBOSE,
"Sending coalesced packet of length %u from mirror %d\n",
coalescing_session->length + pkt_digest->length, pkt_digest->mirror_id);
uint8_t *pkt_data = malloc(new_length);
memcpy(pkt_data, coalescing_session->buffer, coalescing_session->length);
memcpy(pkt_data + coalescing_session->length, pkt_digest->buffer, pkt_digest->length);
mirroring_send(pkt_digest->mirror_id, pkt_data, new_length, coalescing_session->sequence_number);
clear_coalescing_session(coalescing_session);
} else {
memcpy(coalescing_session->buffer + coalescing_session->length, pkt_digest->buffer, pkt_digest->length);
(coalescing_session->length) += (pkt_digest->length);
}
}
int i;
for(i = 0; i < MAX_COALESCING_SESSIONS; ++i) {
const int mirror_id = i + coalescing_sessions_offset;
coalescing_session_t *coalescing_session = coalescing_sessions + i;
struct timeval abs_timeout = coalescing_sessions->last_digest_time;
abs_timeout.tv_sec += (unsigned long)coalescing_sessions->config.timeout;
if((coalescing_session->length > 0) && !timercmp(&now, &abs_timeout, <)) {
RMT_LOG(P4_LOG_LEVEL_VERBOSE,
"Coalescing session timeout for mirror id %d\n", mirror_id);
uint8_t *pkt_data = malloc(coalescing_session->length);
memcpy(pkt_data, coalescing_session->buffer, coalescing_session->length);
mirroring_send(mirror_id, pkt_data, coalescing_session->length,
coalescing_session->sequence_number);
clear_coalescing_session(coalescing_session);
}
}
free(pkt_digest);
}
}
meter_color_t stateful_execute_meter(meter_t *meter, int index, uint32_t input) {
pthread_mutex_lock(&meter->lock);
meter_instance_t *instance = &meter->instances[index];
struct timeval now;
gettimeofday(&now, NULL);
uint64_t time_since_init = (now.tv_sec - time_init.tv_sec) * 1000000 +
(now.tv_usec - time_init.tv_usec);
uint64_t usec_diff;
uint32_t new_tokens;
meter_queue_t *queue;
meter_color_t color = METER_EXCEED_ACTION_COLOR_GREEN;
int i;
for(i = 1; i < METER_EXCEED_ACTION_COLOR_END_; i++) {
queue = &instance->queues[i];
if(!queue->valid) continue;
usec_diff = time_since_init - queue->last_timestamp;
new_tokens = (uint32_t) (usec_diff * queue->info_rate);
if(new_tokens > 0) {
queue->tokens += new_tokens;
if(queue->tokens > queue->burst_size) {
queue->tokens = queue->burst_size;
}
/* TODO : improve this ? */
queue->last_timestamp += (uint32_t) (new_tokens / queue->info_rate);
}
RMT_LOG(P4_LOG_LEVEL_TRACE,
"adding %u tokens, now have %u\n",
new_tokens,
queue->tokens);
if(queue->tokens < input) {
color = queue->color;
}
else {
queue->tokens -= input;
break;
}
}
instance->counters[color]++;
pthread_mutex_unlock(&meter->lock);
RMT_LOG(P4_LOG_LEVEL_VERBOSE,
"meter %s is marking packet %s\n",
meter->name,
color_to_str(color));
return color;
}
int ${pd_prefix}mirroring_mapping_add(p4_pd_mirror_id_t mirror_id,
uint16_t egress_port
)
{
RMT_LOG(P4_LOG_LEVEL_VERBOSE,
"adding mirroring mapping mirror_id -> egress_port: %d -> %d\n",
mirror_id, egress_port);
mirroring_mapping_t *mapping;
mapping = tommy_hashlin_search(&mirroring_mappings,
compare_mirroring_mappings,
&mirror_id,
tommy_inthash_u32(mirror_id));
if(mapping) {
mapping->egress_port = egress_port;
}
else {
mapping = malloc(sizeof(mirroring_mapping_t));
mapping->mirror_id = mirror_id;
mapping->egress_port = egress_port;
mapping->coalescing_session = NULL;
tommy_hashlin_insert(&mirroring_mappings,
&mapping->node,
mapping,
tommy_inthash_u32(mapping->mirror_id));
}
return 0;
}
static void *pkt_out_loop(void *arg) {
while(1) {
transmit_pkt_t *t_pkt = (transmit_pkt_t *) cb_read(rmt_transmit_cb);
buffered_pkt_t *b_pkt = &t_pkt->pkt;
RMT_LOG(P4_LOG_LEVEL_TRACE, "outgoing thread: packet dequeued\n");
if(rmt_instance->tx_fn) {
RMT_LOG(P4_LOG_LEVEL_VERBOSE,
"outgoing thread: sending pkt out of port %d\n",
t_pkt->egress);
rmt_instance->tx_fn(t_pkt->egress, b_pkt->pkt_data, b_pkt->pkt_len);
}
free(b_pkt->pkt_data);
free(t_pkt);
}
return NULL;
}
int mirroring_receive(phv_data_t *phv, int *metadata_recirc, void *pkt_data,
int len, uint64_t packet_id,
pkt_instance_type_t instance_type) {
int mirror_id = fields_get_clone_spec(phv);
coalescing_session_t *coalescing_session = get_coalescing_session(mirror_id);
if(NULL != coalescing_session) {
RMT_LOG(P4_LOG_LEVEL_VERBOSE,
"Queuing digest for mirror %d %d\n", mirror_id, *metadata_recirc);
pkt_digest_t *pkt_digest = malloc(sizeof(pkt_digest_t));
pkt_digest->mirror_id = mirror_id;
pkt_digest->length = 0;
deparser_extract_digest(phv, metadata_recirc, pkt_digest->buffer, &(pkt_digest->length));
cb_write(rmt_mirroring_cb, pkt_digest);
}
else if(NULL != get_mirroring_mapping(mirror_id)) {
uint8_t *metadata;
deparser_produce_metadata(phv, &metadata);
//:: if enable_intrinsic:
//:: bytes = 0
//:: for header_instance in ordered_header_instances_non_virtual:
//:: h_info = header_info[header_instance]
//:: is_metadata = h_info["is_metadata"]
//:: if is_metadata: bytes += h_info["byte_width_phv"]
//:: #endfor
uint8_t extracted_metadata[${bytes}];
metadata_extract(extracted_metadata, metadata, NULL); /* NULL ? */
// do not set deflection_flag and dod bits for mirrored packet
metadata_set_deflection_flag(extracted_metadata, 0);
metadata_set_deflect_on_drop(extracted_metadata, 0);
metadata_dump(metadata, extracted_metadata);
//:: #endif
return queuing_receive(metadata, metadata_recirc, pkt_data, len, packet_id,
instance_type);
}
else {
RMT_LOG(P4_LOG_LEVEL_WARN,
"Received packet with invalid mirror id %d\n", mirror_id);
}
free(pkt_data);
free(metadata_recirc);
return 0;
}
static void egress_cloning(pipeline_t *pipeline, uint8_t *pkt_data,
int pkt_len, uint64_t pkt_id) {
RMT_LOG(P4_LOG_LEVEL_TRACE, "egress_cloning\n");
mirroring_receive(pipeline->phv,
metadata_recirc_digest(pipeline->phv->metadata_recirc),
pkt_data, pkt_len, pkt_id,
PKT_INSTANCE_TYPE_EGRESS_CLONE);
}
int set_drop_tail_thr(const int thr) {
write_atomic_int(&EGRESS_CB_SIZE, thr);
RMT_LOG(P4_LOG_LEVEL_INFO, "Set drop tail threshold to %d\n", thr);
int i = 0;
for (i = 0; i < NB_THREADS_PER_PIPELINE; i++) {
cb_resize(egress_pipeline_instances[i]->cb_in, read_atomic_int(&EGRESS_CB_SIZE), free_egress_pkt);
}
return 0;
}
int ${pd_prefix}mirroring_add_coalescing_session(int mirror_id, int egress_port,
const int8_t *header,
const int8_t header_length,
const int16_t min_pkt_size,
const int8_t timeout) {
mirroring_mapping_t *mapping;
coalescing_session_t *coalescing_session;
p4_pd_dev_target_t dev_tgt;
dev_tgt.device_id = 0; // XXX get it as input
dev_tgt.dev_pipe_id = PD_DEV_PIPE_ALL; // XXX get it as input
RMT_LOG(P4_LOG_LEVEL_VERBOSE,
"adding coalescing session mirror_id: %d, header_length: %hd, min_pkt_size: %hd\n",
mirror_id, header_length, min_pkt_size);
// Sanity checks to ensure that mirror_id is in the correct range (relative to
// coalescing_sessions_offset).
assert(mirror_id >= coalescing_sessions_offset);
assert(mirror_id < coalescing_sessions_offset + MAX_COALESCING_SESSIONS);
// NEED to fix this api to get the correct info - currently not used..so
// just getting it to compile
${pd_prefix}mirror_session_create(0/*shdl*/,
dev_tgt,
PD_MIRROR_TYPE_COAL/*type*/,
PD_DIR_EGRESS,
mirror_id,
egress_port,
0/*max_pkt_len*/,
0/*cos*/,
false/*c2c*/,
0, /*extract_len*/
0, /*timeout_usec*/
NULL, /*int_hdr*/
0 /*int_hdr_len*/
);
mapping = get_mirroring_mapping(mirror_id);
assert(NULL != mapping);
mapping->coalescing_session = coalescing_sessions + mirror_id - coalescing_sessions_offset;
coalescing_session = mapping->coalescing_session;
coalescing_session->length = 0;
coalescing_session->sequence_number = 0;
assert(header_length <= MAX_HEADER_LENGTH);
memcpy(coalescing_session->config.header, (uint8_t*)header, header_length);
coalescing_session->config.header_length = header_length;
coalescing_session->config.min_pkt_size = min_pkt_size;
// FIXME: We are assuming timeout is in seconds. It should be in 'base time'.
coalescing_session->config.timeout = timeout;
return 0;
}
int ${pd_prefix}mirroring_mapping_add(int mirror_id, int egress_port){
RMT_LOG(P4_LOG_LEVEL_VERBOSE,
"adding mirroring mapping mirror_id -> egress_port: %d -> %d\n",
mirror_id, egress_port);
mirroring_mapping_t *mapping = malloc(sizeof(mirroring_mapping_t));
mapping->mirror_id = mirror_id;
mapping->egress_port = egress_port;
tommy_hashlin_insert(&mirroring_mappings,
&mapping->node,
mapping,
tommy_inthash_u32(mapping->mirror_id));
return 0;
}
p4_pd_status_t
p4_pd_client_cleanup(p4_pd_sess_hdl_t sess_hdl) {
pthread_mutex_lock(&lock);
int Rc_int;
J1U(Rc_int, used_session_handles, (Word_t)sess_hdl);
if (0 == Rc_int) {
RMT_LOG(P4_LOG_LEVEL_ERROR, "Cannot find session handle %u\n", (uint32_t)sess_hdl);
}
pthread_mutex_unlock(&lock);
return (p4_pd_status_t)(1 == Rc_int ? 0 : 1);
}
static void mirroring_send(const int mirror_id, uint8_t *pkt_data, const uint32_t length, const uint64_t packet_id) {
RMT_LOG(P4_LOG_LEVEL_VERBOSE,
"Sending coalesced packet of length %u from coalescing session %d\n", length,
mirror_id);
uint8_t *metadata;
phv_data_t *phv = phv_init(0, 0);
fields_set_clone_spec(phv, mirror_id);
fields_set_packet_length(phv, length);
deparser_produce_metadata(phv, &metadata);
free(phv);
// Send to queuing module.
queuing_receive(metadata, NULL, pkt_data, length, packet_id,
PKT_INSTANCE_TYPE_COALESCED);
}
//:: if enable_pre:
static int pre_replication(queuing_pkt_t *q_pkt, uint8_t *metadata)
{
int replication = 0;
buffered_pkt_t *b_pkt = &q_pkt->pkt;
uint16_t eg_mcast_group = metadata_get_eg_mcast_group(metadata);
if (eg_mcast_group) {
RMT_LOG(P4_LOG_LEVEL_VERBOSE, "replicating packets\n");
mc_process_and_replicate(eg_mcast_group, metadata, q_pkt->metadata_recirc, b_pkt);
// Free the packet once it is replicated
free(b_pkt->pkt_data);
free(q_pkt->metadata);
free(q_pkt->metadata_recirc);
free(q_pkt);
replication = 1;
}
return replication;
}
int mirroring_receive(phv_data_t *phv, int *metadata_recirc, void *pkt_data,
int len, uint64_t packet_id,
pkt_instance_type_t instance_type) {
int mirror_id = fields_get_clone_spec(phv);
if(NULL != get_mirroring_mapping(mirror_id)) {
uint8_t *metadata;
deparser_produce_metadata(phv, &metadata);
return queuing_receive(metadata, metadata_recirc, pkt_data, len, packet_id,
instance_type);
}
else {
RMT_LOG(P4_LOG_LEVEL_WARN,
"Received packet with invalid mirror id %d\n", mirror_id);
}
free(pkt_data);
free(metadata_recirc);
return 0;
}
int rmt_process_pkt(p4_port_t ingress, void *pkt, int len) {
RMT_LOG(P4_LOG_LEVEL_VERBOSE, "new packet, len : %d, ingress : %d\n",
len, ingress);
return pkt_manager_receive(ingress, pkt, len);
}
int egress_pipeline_receive(int egress,
uint8_t *metadata,
int *metadata_recirc,
void *pkt, int len, uint64_t packet_id,
pkt_instance_type_t instance_type) {
pipeline_t *pipeline = egress_pipeline_instances[egress %
NB_THREADS_PER_PIPELINE];
egress_pkt_t *e_pkt = malloc(sizeof(egress_pkt_t));
buffered_pkt_t *b_pkt = &e_pkt->pkt;
e_pkt->egress = egress;
e_pkt->metadata = metadata;
e_pkt->metadata_recirc = metadata_recirc;
b_pkt->instance_type = instance_type;
b_pkt->pkt_data = pkt;
b_pkt->pkt_len = len;
b_pkt->pkt_id = packet_id;
//:: if enable_intrinsic:
//:: bytes = 0
//:: for header_instance in ordered_header_instances_non_virtual:
//:: h_info = header_info[header_instance]
//:: is_metadata = h_info["is_metadata"]
//:: if is_metadata: bytes += h_info["byte_width_phv"]
//:: #endfor
uint8_t extracted_metadata[${bytes}];
metadata_extract(extracted_metadata, metadata, NULL); /* NULL ? */
uint32_t deflect_on_drop = metadata_get_deflect_on_drop(extracted_metadata);
if (!deflect_on_drop) {
int ret = cb_write(pipeline->cb_in, e_pkt);
if (ret == 0) {
free(e_pkt);
RMT_LOG(P4_LOG_LEVEL_TRACE, "egress_pipeline: dropped a packet from tail\n");
}
} else {
// For negative mirroring based on Qfull,
// Set the deflection_flag in metadata to indicate that this packet
// is moving thru' the queuing system only to get delivered to
// negative mirror session.
// Egress pipeline should act on the deflection_flag and perform
// explicit e2e mirroing as appropriate
RMT_LOG(P4_LOG_LEVEL_TRACE, "egress_pipeline: deflect tail-dropped packet %p\n", metadata);
metadata_set_deflection_flag(extracted_metadata, 1);
metadata_set_deflect_on_drop(extracted_metadata, 0);
metadata_set_egress_spec(extracted_metadata, 0);
metadata_set_egress_port(extracted_metadata, 0);
metadata_dump(metadata, extracted_metadata);
int ret = cb_write(pipeline->cb_in, e_pkt);
if (ret ==0) {
free(e_pkt);
RMT_LOG(P4_LOG_LEVEL_TRACE, "egress_pipeline: could not enqueue a deflected packet\n");
}
}
//:: #endif
//:: if not enable_intrinsic:
int ret = cb_write(pipeline->cb_in, e_pkt);
if (ret == 0) {
free(e_pkt);
RMT_LOG(P4_LOG_LEVEL_TRACE, "egress_pipeline: dropped a packet from tail\n");
}
//:: #endif
return 0;
}
int set_packets_per_sec(const int pps) {
write_atomic_int(&USEC_INTERVAL, 1000000.0 / pps);
RMT_LOG(P4_LOG_LEVEL_INFO, "Set USEC_INTERVAL to %lu\n", USEC_INTERVAL);
return 0;
}
static void *processing_loop_egress(void *arg) {
pipeline_t *pipeline = (pipeline_t *) arg;
circular_buffer_t *cb_in = pipeline->cb_in;
//Added by Ming
#ifdef SWITCH_CPU_DEBUG
int i;
#endif
#ifdef RATE_LIMITING
struct timeval tv;
gettimeofday(&tv, NULL);
uint64_t next_deque = tv.tv_sec * 1000000 + tv.tv_usec + read_atomic_int(&USEC_INTERVAL);
#endif
while(1) {
#ifdef RATE_LIMITING
struct timeval tv;
gettimeofday(&tv, NULL);
uint64_t now_us = tv.tv_sec * 1000000 + tv.tv_usec;
//RMT_LOG(P4_LOG_LEVEL_TRACE, "next_deque %lu, now_us %lu\n", next_deque, now_us);
if(next_deque > now_us) {
usleep(next_deque - now_us);
}
next_deque += read_atomic_int(&USEC_INTERVAL);
#endif
egress_pkt_t *e_pkt = (egress_pkt_t *) cb_read(cb_in);
if (e_pkt == NULL) continue;
buffered_pkt_t *b_pkt = &e_pkt->pkt;
RMT_LOG(P4_LOG_LEVEL_TRACE, "egress_pipeline: packet dequeued\n");
phv_clean(pipeline->phv);
pipeline->phv->packet_id = b_pkt->pkt_id;
parser_parse_pkt(pipeline->phv,
b_pkt->pkt_data, b_pkt->pkt_len,
pipeline->parse_state_start);
parser_parse_metadata(pipeline->phv,
e_pkt->metadata, e_pkt->metadata_recirc);
assert(!fields_get_clone_spec(pipeline->phv));
//:: if enable_intrinsic:
/* Set dequeue metadata */
fields_set_deq_qdepth(pipeline->phv, cb_count(cb_in));
uint64_t enq_timestamp = fields_get_enq_timestamp(pipeline->phv);
fields_set_deq_timedelta(pipeline->phv, get_timestamp()-enq_timestamp);
//:: #endif
fields_set_instance_type(pipeline->phv, e_pkt->pkt.instance_type);
free(e_pkt->metadata);
free(e_pkt->metadata_recirc);
if(pipeline->table_entry_fn) /* empty egress pipeline ? */
pipeline->table_entry_fn(pipeline->phv);
uint8_t *pkt_data;
int pkt_len;
/* EGRESS MIRRORING */
if(fields_get_clone_spec(pipeline->phv)) {
RMT_LOG(P4_LOG_LEVEL_VERBOSE, "Egress mirroring\n");
pipeline->deparse_fn(pipeline->phv, &pkt_data, &pkt_len);
egress_cloning(pipeline, pkt_data, pkt_len, e_pkt->pkt.pkt_id);
fields_set_clone_spec(pipeline->phv, 0);
}
update_checksums(pipeline->phv);
pipeline->deparse_fn(pipeline->phv, &pkt_data, &pkt_len);
free(b_pkt->pkt_data);
//:: if "egress_drop_ctl" in extra_metadata_name_map:
// program uses the separate egress_drop_ctl register
// a non-zero value means drop
if(pipeline->phv->deparser_drop_signal ||
metadata_get_egress_drop_ctl(metadata)) {
//:: else:
if(pipeline->phv->deparser_drop_signal){
//:: #endif
RMT_LOG(P4_LOG_LEVEL_VERBOSE, "dropping packet at egress\n");
free(e_pkt);
continue;
}
int egress = fields_get_egress_port(pipeline->phv);
if(pipeline->phv->truncated_length && (pipeline->phv->truncated_length < pkt_len))
pkt_len = pipeline->phv->truncated_length;
#ifdef SWITCH_CPU_DEBUG
RMT_LOG(P4_LOG_LEVEL_TRACE, "Ming Packet Data: %d\n", b_pkt->pkt_len);
for (i = 0; i < 21; i++)
RMT_LOG(P4_LOG_LEVEL_TRACE, "%x ", b_pkt->pkt_data[i]);
RMT_LOG(P4_LOG_LEVEL_TRACE, "\n");
#endif
pkt_manager_transmit(egress, pkt_data, pkt_len, b_pkt->pkt_id);
free(e_pkt);
}
return NULL;
}
/* name has to be ingress or egress */
pipeline_t *pipeline_create(int id) {
pipeline_t *pipeline = malloc(sizeof(pipeline_t));
pipeline->name = "egress";
#ifdef RATE_LIMITING
pipeline->cb_in = cb_init(read_atomic_int(&EGRESS_CB_SIZE), CB_WRITE_DROP, CB_READ_RETURN);
#else
pipeline->cb_in = cb_init(read_atomic_int(&EGRESS_CB_SIZE), CB_WRITE_BLOCK, CB_READ_BLOCK);
#endif
pipeline->parse_state_start = parse_state_start;
//:: if egress_entry_table is not None:
pipeline->table_entry_fn = tables_apply_${egress_entry_table};
//:: else:
pipeline->table_entry_fn = NULL;
//:: #endif
pipeline->deparse_fn = deparser_produce_pkt;
pipeline->phv = phv_init(NB_THREADS_PER_PIPELINE + id, RMT_PIPELINE_EGRESS);
/* packet processing loop */
pthread_create(&pipeline->processing_thread, NULL,
processing_loop_egress, (void *) pipeline);
return pipeline;
}
static void *pkt_processing_loop(void *arg) {
while(1) {
queuing_pkt_t *q_pkt = (queuing_pkt_t *) cb_read(rmt_queuing_cb);
buffered_pkt_t *b_pkt = &q_pkt->pkt;
RMT_LOG(P4_LOG_LEVEL_TRACE, "queuing system: packet dequeued\n");
memset(metadata, 0, ${bytes});
metadata_extract(metadata, q_pkt->metadata, q_pkt->metadata_recirc);
/* after this point, no one should use q_pkt->metadata */
int mirror_id = metadata_get_clone_spec(metadata);
metadata_set_clone_spec(metadata, 0);
int egress_port;
//:: if enable_pre:
if (pre_replication(q_pkt, metadata)) {
continue;
}
//:: #endif
if(mirror_id == 0) {
egress_port = metadata_get_egress_spec(metadata);
/* TODO: formalize somewhere that 511 is the drop port for this target */
//:: if "ingress_drop_ctl" in extra_metadata_name_map:
// program uses the separate ingress_drop_ctl register
// a non-zero value means drop
if(egress_port = 511 || metadata_get_ingress_drop_ctl(metadata)) {
//:: else:
if(egress_port == 511) {
//:: #endif
RMT_LOG(P4_LOG_LEVEL_VERBOSE, "dropping packet at ingress\n");
free(b_pkt->pkt_data);
free(q_pkt->metadata);
free(q_pkt->metadata_recirc);
free(q_pkt);
continue;
}
}
else {
RMT_LOG(P4_LOG_LEVEL_VERBOSE, "mirror id is %d\n", mirror_id);
egress_port = ${pd_prefix}mirroring_mapping_get_egress_port(mirror_id);
if (egress_port < 0) {
RMT_LOG(P4_LOG_LEVEL_WARN,
"no mapping for mirror id %d, dropping packet\n", mirror_id);
free(b_pkt->pkt_data);
free(q_pkt->metadata);
free(q_pkt->metadata_recirc);
free(q_pkt);
continue;
}
RMT_LOG(P4_LOG_LEVEL_TRACE,
"queuing system: cloned packet, mirror_id -> egress_port : %d -> %d\n",
mirror_id, egress_port);
}
metadata_set_egress_port(metadata, egress_port);
RMT_LOG(P4_LOG_LEVEL_TRACE, "egress port set to %d\n", egress_port);
pkt_instance_type_t instance_type = b_pkt->instance_type;
metadata_set_instance_type(metadata, instance_type);
RMT_LOG(P4_LOG_LEVEL_TRACE, "instance type set to %d\n", instance_type);
//:: if enable_intrinsic:
/* Set enqueue metadata */
metadata_set_enq_qdepth(metadata, egress_pipeline_count(egress_port));
metadata_set_enq_timestamp(metadata, get_timestamp());
//:: #endif
metadata_dump(q_pkt->metadata, metadata);
egress_pipeline_receive(egress_port,
q_pkt->metadata, q_pkt->metadata_recirc,
b_pkt->pkt_data, b_pkt->pkt_len, b_pkt->pkt_id,
b_pkt->instance_type);
free(q_pkt);
}
return NULL;
}
