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gerrit.opencord.org / openolt / 5bd7ef3e08077f3b6763f5d24c30f80be1afd030 / . / agent / src / core_api_handler.cc
blob: 15ed1ae7bfec712e3c1d3c2fed29a3c39a95c473 [file] [log] [blame]
/*
* Copyright 2018-present Open Networking Foundation
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
* http://www.apache.org/licenses/LICENSE-2.0
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#include <iostream>
#include <memory>
#include <string>
#include "Queue.h"
#include <sstream>
#include <chrono>
#include <thread>
#include <bitset>
#include <inttypes.h>
#include <unistd.h>
#include <sys/socket.h>
#include <netinet/in.h>
#include <arpa/inet.h>
#include "device.h"
#include "core.h"
#include "core_data.h"
#include "indications.h"
#include "stats_collection.h"
#include "error_format.h"
#include "state.h"
#include "core_utils.h"
extern "C"
{
#include <bcmolt_api.h>
#include <bcmolt_host_api.h>
#include <bcmolt_api_model_supporting_enums.h>
#include <bcmolt_api_conn_mgr.h>
//CLI header files
#include <bcmcli_session.h>
#include <bcmcli.h>
#include <bcm_api_cli.h>
#include <bcmos_common.h>
#include <bcm_config.h>
// FIXME : dependency problem
// #include <bcm_common_gpon.h>
// #include <bcm_dev_log_task.h>
}
static std::string intf_technologies[MAX_SUPPORTED_PON];
static const std::string UNKNOWN_TECH("unknown");
static const std::string MIXED_TECH("mixed");
static std::string board_technology(UNKNOWN_TECH);
static std::string chip_family(UNKNOWN_TECH);
static std::string firmware_version = "Openolt.2019.07.01";
static bcmos_errno CreateSched(std::string direction, uint32_t access_intf_id, uint32_t onu_id, uint32_t uni_id, \
uint32_t port_no, uint32_t alloc_id, ::tech_profile::AdditionalBW additional_bw, uint32_t weight, \
uint32_t priority, ::tech_profile::SchedulingPolicy sched_policy,
::tech_profile::TrafficShapingInfo traffic_shaping_info, uint32_t tech_profile_id);
static bcmos_errno RemoveSched(int intf_id, int onu_id, int uni_id, int alloc_id, std::string direction, int tech_profile_id);
static bcmos_errno CreateQueue(std::string direction, uint32_t access_intf_id, uint32_t onu_id, uint32_t uni_id, \
bcmolt_egress_qos_type qos_type, uint32_t priority, uint32_t gemport_id, uint32_t tech_profile_id);
static bcmos_errno RemoveQueue(std::string direction, uint32_t access_intf_id, uint32_t onu_id, uint32_t uni_id, \
bcmolt_egress_qos_type qos_type, uint32_t priority, uint32_t gemport_id, uint32_t tech_profile_id);
static bcmos_errno CreateDefaultSched(uint32_t intf_id, const std::string direction);
static bcmos_errno CreateDefaultQueue(uint32_t intf_id, const std::string direction);
static const std::chrono::milliseconds ONU_RSSI_COMPLETE_WAIT_TIMEOUT = std::chrono::seconds(10);
inline const char *get_flow_acton_command(uint32_t command) {
char actions[200] = { };
char *s_actions_ptr = actions;
if (command & BCMOLT_ACTION_CMD_ID_ADD_OUTER_TAG) strcat(s_actions_ptr, "ADD_OUTER_TAG|");
if (command & BCMOLT_ACTION_CMD_ID_REMOVE_OUTER_TAG) strcat(s_actions_ptr, "REMOVE_OUTER_TAG|");
if (command & BCMOLT_ACTION_CMD_ID_XLATE_OUTER_TAG) strcat(s_actions_ptr, "TRANSLATE_OUTER_TAG|");
if (command & BCMOLT_ACTION_CMD_ID_ADD_INNER_TAG) strcat(s_actions_ptr, "ADD_INNTER_TAG|");
if (command & BCMOLT_ACTION_CMD_ID_REMOVE_INNER_TAG) strcat(s_actions_ptr, "REMOVE_INNER_TAG|");
if (command & BCMOLT_ACTION_CMD_ID_XLATE_INNER_TAG) strcat(s_actions_ptr, "TRANSLATE_INNER_TAG|");
if (command & BCMOLT_ACTION_CMD_ID_REMARK_OUTER_PBITS) strcat(s_actions_ptr, "REMOVE_OUTER_PBITS|");
if (command & BCMOLT_ACTION_CMD_ID_REMARK_INNER_PBITS) strcat(s_actions_ptr, "REMAKE_INNER_PBITS|");
return s_actions_ptr;
}
bcmolt_stat_alarm_config set_stat_alarm_config(const config::OnuItuPonAlarm* request) {
bcmolt_stat_alarm_config alarm_cfg = {};
bcmolt_stat_alarm_trigger_config trigger_obj = {};
bcmolt_stat_alarm_soak_config soak_obj = {};
switch (request->alarm_reporting_condition()) {
case config::OnuItuPonAlarm::RATE_THRESHOLD:
trigger_obj.type = BCMOLT_STAT_CONDITION_TYPE_RATE_THRESHOLD;
BCMOLT_FIELD_SET(&trigger_obj.u.rate_threshold, stat_alarm_trigger_config_rate_threshold,
rising, request->rate_threshold_config().rate_threshold_rising());
BCMOLT_FIELD_SET(&trigger_obj.u.rate_threshold, stat_alarm_trigger_config_rate_threshold,
falling, request->rate_threshold_config().rate_threshold_falling());
BCMOLT_FIELD_SET(&soak_obj, stat_alarm_soak_config, active_soak_time,
request->rate_threshold_config().soak_time().active_soak_time());
BCMOLT_FIELD_SET(&soak_obj, stat_alarm_soak_config, clear_soak_time,
request->rate_threshold_config().soak_time().clear_soak_time());
break;
case config::OnuItuPonAlarm::RATE_RANGE:
trigger_obj.type = BCMOLT_STAT_CONDITION_TYPE_RATE_RANGE;
BCMOLT_FIELD_SET(&trigger_obj.u.rate_range, stat_alarm_trigger_config_rate_range, upper,
request->rate_range_config().rate_range_upper());
BCMOLT_FIELD_SET(&trigger_obj.u.rate_range, stat_alarm_trigger_config_rate_range, lower,
request->rate_range_config().rate_range_lower());
BCMOLT_FIELD_SET(&soak_obj, stat_alarm_soak_config, active_soak_time,
request->rate_range_config().soak_time().active_soak_time());
BCMOLT_FIELD_SET(&soak_obj, stat_alarm_soak_config, clear_soak_time,
request->rate_range_config().soak_time().clear_soak_time());
break;
case config::OnuItuPonAlarm::VALUE_THRESHOLD:
trigger_obj.type = BCMOLT_STAT_CONDITION_TYPE_VALUE_THRESHOLD;
BCMOLT_FIELD_SET(&trigger_obj.u.value_threshold, stat_alarm_trigger_config_value_threshold,
limit, request->value_threshold_config().threshold_limit());
BCMOLT_FIELD_SET(&soak_obj, stat_alarm_soak_config, active_soak_time,
request->value_threshold_config().soak_time().active_soak_time());
BCMOLT_FIELD_SET(&soak_obj, stat_alarm_soak_config, clear_soak_time,
request->value_threshold_config().soak_time().clear_soak_time());
break;
default:
OPENOLT_LOG(ERROR, openolt_log_id, "unsupported alarm reporting condition = %u\n", request->alarm_reporting_condition());
// For now just log the error and not return error. We can handle this scenario in the future.
break;
}
BCMOLT_FIELD_SET(&alarm_cfg, stat_alarm_config, trigger, trigger_obj);
BCMOLT_FIELD_SET(&alarm_cfg, stat_alarm_config, soak, soak_obj);
return alarm_cfg;
}
Status OnuItuPonAlarmSet_(const config::OnuItuPonAlarm* request) {
bcmos_errno err;
bcmolt_onu_itu_pon_stats_cfg stat_cfg; /* declare main API struct */
bcmolt_onu_key key = {}; /* declare key */
bcmolt_stat_alarm_config errors_cfg = {};
key.pon_ni = request->pon_ni();
key.onu_id = request->onu_id();
/* Initialize the API struct. */
BCMOLT_STAT_CFG_INIT(&stat_cfg, onu, itu_pon_stats, key);
/*
1. BCMOLT_STAT_CONDITION_TYPE_NONE = 0, The alarm is disabled.
2. BCMOLT_STAT_CONDITION_TYPE_RATE_THRESHOLD = 1, The alarm is triggered if the stats delta value between samples
crosses the configured threshold boundary.
rising: The alarm is raised if the stats delta value per second becomes greater than this threshold level.
falling: The alarm is cleared if the stats delta value per second becomes less than this threshold level.
3. BCMOLT_STAT_CONDITION_TYPE_RATE_RANGE = 2, The alarm is triggered if the stats delta value between samples
deviates from the configured range.
upper: The alarm is raised if the stats delta value per second becomes greater than this upper level.
lower: The alarm is raised if the stats delta value per second becomes less than this lower level.
4. BCMOLT_STAT_CONDITION_TYPE_VALUE_THRESHOLD = 3, The alarm is raised if the stats sample value becomes greater
than this level. The alarm is cleared when the host read the stats.
limit: The alarm is raised if the stats sample value becomes greater than this level.
The alarm is cleared when the host clears the stats.
active_soak_time: If the alarm condition is raised and stays in the raised state for at least this amount
of time (unit=seconds), the alarm indication is sent to the host.
The OLT delays the alarm indication no less than this delay period.
It can be delayed more than this period because of the statistics sampling interval.
clear_soak_time: After the alarm is raised, if it is cleared and stays in the cleared state for at least
this amount of time (unit=seconds), the alarm indication is sent to the host.
The OLT delays the alarm indication no less than this delay period. It can be delayed more
than this period because of the statistics sampling interval.
*/
errors_cfg = set_stat_alarm_config(request);
switch (request->alarm_id()) {
case config::OnuItuPonAlarm_AlarmID::OnuItuPonAlarm_AlarmID_RDI_ERRORS:
//set the rdi_errors alarm
BCMOLT_FIELD_SET(&stat_cfg.data, onu_itu_pon_stats_cfg_data, rdi_errors, errors_cfg);
break;
default:
OPENOLT_LOG(ERROR, openolt_log_id, "could not find the alarm id %d\n", request->alarm_id());
return bcm_to_grpc_err(BCM_ERR_PARM, "the alarm id is wrong");
}
err = bcmolt_stat_cfg_set(dev_id, &stat_cfg.hdr);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to set onu itu pon stats, alarm id %d, pon_ni %d, onu_id %d, err = %s\n",
request->alarm_id(), key.pon_ni, key.onu_id, bcmos_strerror(err));
return bcm_to_grpc_err(err, "set Onu ITU PON stats alarm faild");
} else {
OPENOLT_LOG(INFO, openolt_log_id, "set onu itu pon stats alarm %d successfully, pon_ni %d, onu_id %d\n",
request->alarm_id(), key.pon_ni, key.onu_id);
}
return Status::OK;
}
Status GetDeviceInfo_(::openolt::DeviceInfo* device_info) {
device_info->set_vendor(VENDOR_ID);
device_info->set_model(MODEL_ID);
device_info->set_hardware_version("");
device_info->set_firmware_version(firmware_version);
device_info->set_technology(board_technology);
device_info->set_pon_ports(num_of_pon_ports);
char serial_number[OPENOLT_FIELD_LEN];
memset(serial_number, '\0', OPENOLT_FIELD_LEN);
openolt_read_sysinfo("Serial Number", serial_number);
OPENOLT_LOG(INFO, openolt_log_id, "Fetched device serial number %s\n", serial_number);
device_info->set_device_serial_number(serial_number);
device_info->set_previously_connected(state.previously_connected());
char device_id[OPENOLT_FIELD_LEN];
memset(device_id, '\0', OPENOLT_FIELD_LEN);
if (grpc_server_interface_name != NULL) {
if (get_intf_mac(grpc_server_interface_name, device_id, sizeof(device_id)) != NULL)
{
OPENOLT_LOG(INFO, openolt_log_id, "Fetched mac address %s of an interface %s\n", device_id, grpc_server_interface_name);
}
else
{
OPENOLT_LOG(ERROR, openolt_log_id, "Mac address of an interface %s is NULL\n", grpc_server_interface_name);
}
}
else
{
openolt_read_sysinfo("MAC", device_id);
OPENOLT_LOG(INFO, openolt_log_id, "Fetched device mac address %s\n", device_id);
}
device_info->set_device_id(device_id);
// Legacy, device-wide ranges. To be deprecated when adapter
// is upgraded to support per-interface ranges
device_info->set_onu_id_start(ONU_ID_START);
device_info->set_onu_id_end(ONU_ID_END);
device_info->set_alloc_id_start(ALLOC_ID_START);
device_info->set_alloc_id_end(ALLOC_ID_END);
device_info->set_gemport_id_start(GEM_PORT_ID_START);
device_info->set_gemport_id_end(GEM_PORT_ID_END);
device_info->set_flow_id_start(FLOW_ID_START);
device_info->set_flow_id_end(FLOW_ID_END);
std::map<std::string, ::openolt::DeviceInfo::DeviceResourceRanges*> ranges;
for (uint32_t intf_id = 0; intf_id < num_of_pon_ports; ++intf_id) {
std::string intf_technology = intf_technologies[intf_id];
::openolt::DeviceInfo::DeviceResourceRanges *range = ranges[intf_technology];
if(range == nullptr) {
range = device_info->add_ranges();
ranges[intf_technology] = range;
range->set_technology(intf_technology);
::openolt::DeviceInfo::DeviceResourceRanges::Pool* pool;
pool = range->add_pools();
pool->set_type(::openolt::DeviceInfo::DeviceResourceRanges::Pool::ONU_ID);
pool->set_sharing(::openolt::DeviceInfo::DeviceResourceRanges::Pool::DEDICATED_PER_INTF);
pool->set_start(ONU_ID_START);
pool->set_end(ONU_ID_END);
pool = range->add_pools();
pool->set_type(::openolt::DeviceInfo::DeviceResourceRanges::Pool::ALLOC_ID);
pool->set_sharing(::openolt::DeviceInfo::DeviceResourceRanges::Pool::DEDICATED_PER_INTF);
pool->set_start(ALLOC_ID_START);
pool->set_end(ALLOC_ID_END);
pool = range->add_pools();
pool->set_type(::openolt::DeviceInfo::DeviceResourceRanges::Pool::GEMPORT_ID);
pool->set_sharing(::openolt::DeviceInfo::DeviceResourceRanges::Pool::DEDICATED_PER_INTF);
pool->set_start(GEM_PORT_ID_START);
pool->set_end(GEM_PORT_ID_END);
pool = range->add_pools();
pool->set_type(::openolt::DeviceInfo::DeviceResourceRanges::Pool::FLOW_ID);
pool->set_sharing(::openolt::DeviceInfo::DeviceResourceRanges::Pool::SHARED_BY_ALL_INTF_ALL_TECH);
pool->set_start(FLOW_ID_START);
pool->set_end(FLOW_ID_END);
}
range->add_intf_ids(intf_id);
}
// FIXME: Once dependency problem is fixed
// device_info->set_pon_ports(num_of_pon_ports);
// device_info->set_onu_id_end(XGPON_NUM_OF_ONUS - 1);
// device_info->set_alloc_id_start(1024);
// device_info->set_alloc_id_end(XGPON_NUM_OF_ALLOC_IDS * num_of_pon_ports ? - 1);
// device_info->set_gemport_id_start(XGPON_MIN_BASE_SERVICE_PORT_ID);
// device_info->set_gemport_id_end(XGPON_NUM_OF_GEM_PORT_IDS_PER_PON * num_of_pon_ports ? - 1);
// device_info->set_pon_ports(num_of_pon_ports);
return Status::OK;
}
void reset_pon_device(bcmolt_odid dev)
{
bcmos_errno err;
bcmolt_device_reset oper;
bcmolt_device_key key = {.device_id = dev};
OPENOLT_LOG(INFO, openolt_log_id, "Reset PON device: %d\n", dev);
BCMOLT_OPER_INIT(&oper, device, reset, key);
err = bcmolt_oper_submit(dev_id, &oper.hdr);
if (err)
{
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to reset PON device(%d) failed, err = %s\n", dev, bcmos_strerror(err));
}else
{
OPENOLT_LOG(INFO, openolt_log_id, "Reset PON device(%d) success\n", dev);
}
}
Status Enable_(int argc, char *argv[]) {
bcmos_errno err;
bcmolt_host_init_parms init_parms = {};
init_parms.transport.type = BCM_HOST_API_CONN_LOCAL;
unsigned int failed_enable_device_cnt = 0;
if (!state.is_activated()) {
vendor_init();
/* Initialize host subsystem */
err = bcmolt_host_init(&init_parms);
if (BCM_ERR_OK != err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to init OLT, err = %s\n",bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to init OLT");
}
bcmcli_session_parm mon_session_parm;
/* Create CLI session */
memset(&mon_session_parm, 0, sizeof(mon_session_parm));
mon_session_parm.get_prompt = openolt_cli_get_prompt_cb;
mon_session_parm.access_right = BCMCLI_ACCESS_ADMIN;
bcmos_errno rc = bcmcli_session_open(&mon_session_parm, &current_session);
BUG_ON(rc != BCM_ERR_OK);
/* API CLI */
bcm_openolt_api_cli_init(NULL, current_session);
/* Add quit command */
BCMCLI_MAKE_CMD_NOPARM(NULL, "quit", "Quit", bcm_cli_quit);
err = bcmolt_apiend_cli_init();
if (BCM_ERR_OK != err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to add apiend init, err = %s\n",bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to add apiend init");
}
bcmos_fastlock_init(&data_lock, 0);
bcmos_fastlock_init(&acl_id_bitset_lock, 0);
bcmos_fastlock_init(&tm_sched_bitset_lock, 0);
bcmos_fastlock_init(&tm_qmp_bitset_lock, 0);
bcmos_fastlock_init(&flow_id_bitset_lock, 0);
bcmos_fastlock_init(&voltha_flow_to_device_flow_lock, 0);
bcmos_fastlock_init(&alloc_cfg_wait_lock, 0);
bcmos_fastlock_init(&gem_cfg_wait_lock, 0);
bcmos_fastlock_init(&onu_deactivate_wait_lock, 0);
bcmos_fastlock_init(&acl_packet_trap_handler_lock, 0);
bcmos_fastlock_init(&symmetric_datapath_flow_id_lock, 0);
bcmos_fastlock_init(&pon_gem_to_onu_uni_map_lock, 0);
OPENOLT_LOG(INFO, openolt_log_id, "Enable OLT - %s-%s\n", VENDOR_ID, MODEL_ID);
//check BCM daemon is connected or not
Status status = check_connection();
if (!status.ok()) {
return status;
}
else {
Status status = SubscribeIndication();
if (!status.ok()) {
OPENOLT_LOG(ERROR, openolt_log_id, "SubscribeIndication failed - %s : %s\n",
grpc_status_code_to_string(status.error_code()).c_str(),
status.error_message().c_str());
return status;
}
//check BAL state in initial stage
status = check_bal_ready();
if (!status.ok()) {
return status;
}
}
{
bcmos_errno err;
bcmolt_odid dev;
OPENOLT_LOG(INFO, openolt_log_id, "Enabling PON %d Devices ... \n", BCM_MAX_DEVS_PER_LINE_CARD);
for (dev = 0; dev < BCM_MAX_DEVS_PER_LINE_CARD; dev++) {
bcmolt_device_cfg dev_cfg = { };
bcmolt_device_key dev_key = { };
dev_key.device_id = dev;
BCMOLT_CFG_INIT(&dev_cfg, device, dev_key);
BCMOLT_MSG_FIELD_GET(&dev_cfg, system_mode);
/* FIXME: Single Phoenix BAL patch is prepared for all three variants of Radisys OLT
* in which BCM_MAX_DEVS_PER_LINE_CARD macro need to be redefined as 1 incase of
* "rlt-1600g-w" and "rlt-1600x-w", till then this workaround is required.*/
if (dev == 1 && (MODEL_ID == "rlt-1600g-w" || MODEL_ID == "rlt-1600x-w")) {
continue;
}
err = bcmolt_cfg_get(dev_id, &dev_cfg.hdr);
if (err == BCM_ERR_NOT_CONNECTED) {
bcmolt_device_key key = {.device_id = dev};
bcmolt_device_connect oper;
BCMOLT_OPER_INIT(&oper, device, connect, key);
/* BAL saves current state into dram_tune soc file and when dev_mgmt_daemon restarts
* it retains config from soc file. If openolt agent try to connect device without
* device reset device initialization fails hence doing device reset here. */
reset_pon_device(dev);
if (MODEL_ID == "asfvolt16") {
BCMOLT_MSG_FIELD_SET(&oper, inni_config.mode, BCMOLT_INNI_MODE_ALL_10_G_XFI);
BCMOLT_MSG_FIELD_SET (&oper, system_mode, BCMOLT_SYSTEM_MODE_XGS__2_X);
} else if (MODEL_ID == "asgvolt64") {
BCMOLT_MSG_FIELD_SET(&oper, inni_config.mode, BCMOLT_INNI_MODE_ALL_10_G_XFI);
BCMOLT_MSG_FIELD_SET(&oper, inni_config.mux, BCMOLT_INNI_MUX_FOUR_TO_ONE);
BCMOLT_MSG_FIELD_SET (&oper, system_mode, BCMOLT_SYSTEM_MODE_GPON__16_X);
} else if (MODEL_ID == "rlt-3200g-w" || MODEL_ID == "rlt-1600g-w") {
BCMOLT_MSG_FIELD_SET(&oper, inni_config.mux, BCMOLT_INNI_MUX_NONE);
if(dev == 1) {
BCMOLT_MSG_FIELD_SET(&oper, inni_config.mux, BCMOLT_INNI_MUX_FOUR_TO_ONE);
}
BCMOLT_MSG_FIELD_SET (&oper, ras_ddr_mode, BCMOLT_RAS_DDR_USAGE_MODE_TWO_DDRS);
BCMOLT_MSG_FIELD_SET(&oper, inni_config.mode, BCMOLT_INNI_MODE_ALL_10_G_XFI);
BCMOLT_MSG_FIELD_SET (&oper, system_mode, BCMOLT_SYSTEM_MODE_GPON__16_X);
} else if (MODEL_ID == "rlt-1600x-w") {
BCMOLT_MSG_FIELD_SET(&oper, inni_config.mux, BCMOLT_INNI_MUX_NONE);
BCMOLT_MSG_FIELD_SET (&oper, ras_ddr_mode, BCMOLT_RAS_DDR_USAGE_MODE_TWO_DDRS);
BCMOLT_MSG_FIELD_SET(&oper, inni_config.mode, BCMOLT_INNI_MODE_ALL_10_G_XFI);
/* By default setting device mode to GPON for rlt 1600x.
In future device mode can be configured to XGSPON || GPON by reading
device mode configuration from a static configuration file*/
BCMOLT_MSG_FIELD_SET (&oper, system_mode, BCMOLT_SYSTEM_MODE_GPON__16_X);
}
err = bcmolt_oper_submit(dev_id, &oper.hdr);
if (err) {
failed_enable_device_cnt ++;
OPENOLT_LOG(ERROR, openolt_log_id, "Enable PON device %d failed, err = %s\n", dev, bcmos_strerror(err));
if (failed_enable_device_cnt == BCM_MAX_DEVS_PER_LINE_CARD) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to enable all the pon ports, err = %s\n", bcmos_strerror(err));
return Status(grpc::StatusCode::INTERNAL, "Failed to activate all PON ports");
}
}
bcmos_usleep(MAC_DEVICE_ACTIVATION_DELAY);
}
else {
OPENOLT_LOG(WARNING, openolt_log_id, "PON device %d already connected\n", dev);
state.activate();
}
}
init_stats();
}
}
/* Start CLI */
OPENOLT_LOG(INFO, def_log_id, "Starting CLI\n");
//If already enabled, generate an extra indication ????
return Status::OK;
}
Status Disable_() {
//In the earlier implementation Disabling olt is done by disabling the NNI port associated with that.
//In inband scenario instead of using management interface to establish connection with adapter ,NNI interface will be used.
//Disabling NNI port on olt disable causes connection loss between adapter and agent.
//To overcome this disable is implemented by disabling all the PON ports
//associated with the device so as to support both in-band
//and out of band scenarios.
Status status;
int failedCount = 0;
OPENOLT_LOG(INFO, openolt_log_id, "Received disable OLT\n");
for (int i = 0; i < NumPonIf_(); i++) {
status = DisablePonIf_(i);
if (!status.ok()) {
failedCount+=1;
BCM_LOG(ERROR, openolt_log_id, "Failed to disable PON interface: %d\n", i);
}
}
if (failedCount == 0) {
state.deactivate();
::openolt::Indication ind;
::openolt::OltIndication* olt_ind = new ::openolt::OltIndication;
olt_ind->set_oper_state("down");
ind.set_allocated_olt_ind(olt_ind);
BCM_LOG(INFO, openolt_log_id, "Disable OLT, add an extra indication\n");
oltIndQ.push(ind);
return Status::OK;
}
if (failedCount ==NumPonIf_()) {
return grpc::Status(grpc::StatusCode::INTERNAL, "failed to disable olt ,all the PON ports are still in enabled state");
}
return grpc::Status(grpc::StatusCode::UNKNOWN, "failed to disable olt ,few PON ports are still in enabled state");
}
Status Reenable_() {
Status status;
int failedCount = 0;
for (int i = 0; i < NumPonIf_(); i++) {
status = EnablePonIf_(i);
if (!status.ok()) {
failedCount+=1;
BCM_LOG(ERROR, openolt_log_id, "Failed to enable PON interface: %d\n", i);
}
}
if (failedCount == 0) {
state.activate();
::openolt::Indication ind;
::openolt::OltIndication* olt_ind = new ::openolt::OltIndication;
olt_ind->set_oper_state("up");
ind.set_allocated_olt_ind(olt_ind);
BCM_LOG(INFO, openolt_log_id, "Reenable OLT, add an extra indication\n");
oltIndQ.push(ind);
return Status::OK;
}
if (failedCount ==NumPonIf_()) {
return grpc::Status(grpc::StatusCode::INTERNAL, "failed to re-enable olt ,all the PON ports are still in disabled state");
}
return grpc::Status(grpc::StatusCode::UNKNOWN, "failed to re-enable olt ,few PON ports are still in disabled state");
}
inline uint64_t get_flow_status(uint16_t flow_id, uint16_t flow_type, uint16_t data_id) {
bcmos_errno err;
bcmolt_flow_key flow_key;
bcmolt_flow_cfg flow_cfg;
flow_key.flow_id = flow_id;
flow_key.flow_type = (bcmolt_flow_type)flow_type;
BCMOLT_CFG_INIT(&flow_cfg, flow, flow_key);
switch (data_id) {
case ONU_ID: //onu_id
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, onu_id);
#ifdef TEST_MODE
// It is impossible to mock the setting of flow_cfg.data.state because
// the actual bcmolt_cfg_get passes the address of flow_cfg.hdr and we cannot
// set the flow_cfg.data. So a new stub function is created and address
// of flow_cfg is passed. This is one-of case where we need to add test specific
// code in production code.
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get onu_id, err = %s (%d)\n", flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.onu_id;
case FLOW_TYPE:
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get flow_type, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.key.flow_type;
case SVC_PORT_ID: //svc_port_id
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, svc_port_id);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get svc_port_id, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.svc_port_id;
case PRIORITY:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, priority);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get priority, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.priority;
case COOKIE: //cookie
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, cookie);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get cookie, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.cookie;
case INGRESS_INTF_TYPE: //ingress intf_type
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, ingress_intf);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get ingress intf_type, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.ingress_intf.intf_type;
case EGRESS_INTF_TYPE: //egress intf_type
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, egress_intf);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get egress intf_type, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.egress_intf.intf_type;
case INGRESS_INTF_ID: //ingress intf_id
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, ingress_intf);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get ingress intf_id, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.ingress_intf.intf_id;
case EGRESS_INTF_ID: //egress intf_id
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, egress_intf);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get egress intf_id, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.egress_intf.intf_id;
case CLASSIFIER_O_VID:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, classifier);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get classifier o_vid, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.classifier.o_vid;
case CLASSIFIER_O_PBITS:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, classifier);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get classifier o_pbits, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.classifier.o_pbits;
case CLASSIFIER_I_VID:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, classifier);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get classifier i_vid, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.classifier.i_vid;
case CLASSIFIER_I_PBITS:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, classifier);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get classifier i_pbits, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.classifier.i_pbits;
case CLASSIFIER_ETHER_TYPE:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, classifier);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get classifier ether_type, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.classifier.ether_type;
case CLASSIFIER_IP_PROTO:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, classifier);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get classifier ip_proto, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.classifier.ip_proto;
case CLASSIFIER_SRC_PORT:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, classifier);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get classifier src_port, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.classifier.src_port;
case CLASSIFIER_DST_PORT:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, classifier);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get classifier dst_port, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.classifier.dst_port;
case CLASSIFIER_PKT_TAG_TYPE:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, classifier);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get classifier pkt_tag_type, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.classifier.pkt_tag_type;
case EGRESS_QOS_TYPE:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, egress_qos);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get egress_qos type, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.egress_qos.type;
case EGRESS_QOS_QUEUE_ID:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, egress_qos);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get egress_qos queue_id, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
switch (flow_cfg.data.egress_qos.type) {
case BCMOLT_EGRESS_QOS_TYPE_FIXED_QUEUE:
return flow_cfg.data.egress_qos.u.fixed_queue.queue_id;
case BCMOLT_EGRESS_QOS_TYPE_TC_TO_QUEUE:
return flow_cfg.data.egress_qos.u.tc_to_queue.tc_to_queue_id;
case BCMOLT_EGRESS_QOS_TYPE_PBIT_TO_TC:
return flow_cfg.data.egress_qos.u.pbit_to_tc.tc_to_queue_id;
case BCMOLT_EGRESS_QOS_TYPE_PRIORITY_TO_QUEUE:
return flow_cfg.data.egress_qos.u.priority_to_queue.tm_q_set_id;
case BCMOLT_EGRESS_QOS_TYPE_NONE:
default:
return -1;
}
case EGRESS_QOS_TM_SCHED_ID:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, egress_qos);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get egress_qos tm_sched_id, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.egress_qos.tm_sched.id;
case ACTION_CMDS_BITMASK:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, action);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get action cmds_bitmask, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.action.cmds_bitmask;
case ACTION_O_VID:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, action);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get action o_vid, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.action.o_vid;
case ACTION_O_PBITS:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, action);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get action o_pbits, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.action.o_pbits;
case ACTION_I_VID:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, action);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get action i_vid, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.action.i_vid;
case ACTION_I_PBITS:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, action);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get action i_pbits, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.action.i_pbits;
case STATE:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, state);
#ifdef TEST_MODE
err = bcmolt_cfg_get__flow_stub(dev_id, &flow_cfg);
#else
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get state, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.state;
case GROUP_ID:
BCMOLT_FIELD_SET_PRESENT(&flow_cfg.data, flow_cfg_data, group_id);
err = bcmolt_cfg_get(dev_id, &flow_cfg.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to get group_id, err = %s (%d)\n",flow_cfg.hdr.hdr.err_text, err);
return err;
}
return flow_cfg.data.group_id;
default:
return BCM_ERR_INTERNAL;
}
return err;
}
Status EnablePonIf_(uint32_t intf_id) {
bcmos_errno err = BCM_ERR_OK;
bcmolt_pon_interface_cfg interface_obj;
bcmolt_pon_interface_key intf_key = {.pon_ni = (bcmolt_interface)intf_id};
bcmolt_pon_interface_set_pon_interface_state pon_interface_set_state;
bcmolt_interface_state state;
bcmolt_status los_status;
err = get_pon_interface_status((bcmolt_interface)intf_id, &state, &los_status);
if (err == BCM_ERR_OK) {
if (state == BCMOLT_INTERFACE_STATE_ACTIVE_WORKING) {
OPENOLT_LOG(WARNING, openolt_log_id, "PON interface: %d already enabled\n", intf_id);
return Status::OK;
}
}
BCMOLT_CFG_INIT(&interface_obj, pon_interface, intf_key);
BCMOLT_OPER_INIT(&pon_interface_set_state, pon_interface, set_pon_interface_state, intf_key);
BCMOLT_MSG_FIELD_SET(&interface_obj, discovery.control, BCMOLT_CONTROL_STATE_ENABLE);
BCMOLT_MSG_FIELD_SET(&interface_obj, discovery.interval, 5000);
BCMOLT_MSG_FIELD_SET(&interface_obj, discovery.onu_post_discovery_mode,
BCMOLT_ONU_POST_DISCOVERY_MODE_NONE);
BCMOLT_MSG_FIELD_SET(&interface_obj, itu.automatic_onu_deactivation.los, true);
BCMOLT_MSG_FIELD_SET(&interface_obj, itu.automatic_onu_deactivation.onu_alarms, true);
BCMOLT_MSG_FIELD_SET(&interface_obj, itu.automatic_onu_deactivation.tiwi, true);
BCMOLT_MSG_FIELD_SET(&interface_obj, itu.automatic_onu_deactivation.ack_timeout, true);
BCMOLT_MSG_FIELD_SET(&interface_obj, itu.automatic_onu_deactivation.sfi, true);
BCMOLT_MSG_FIELD_SET(&interface_obj, itu.automatic_onu_deactivation.loki, true);
// On GPON, power level mode is not set to its default value (i.e. 0) as documented in Broadcom documentation.
// Instead, it is set to 2 which means -6 dbM attenuation. Therefore, we explicitly set it to the default value below.
if (board_technology == "GPON") {
BCMOLT_MSG_FIELD_SET(&interface_obj, itu.gpon.power_level.pls_maximum_allocation_size, BCMOLT_PON_POWER_LEVEL_PLS_MAXIMUM_ALLOCATION_SIZE_DEFAULT);
BCMOLT_MSG_FIELD_SET(&interface_obj, itu.gpon.power_level.mode, BCMOLT_PON_POWER_LEVEL_MODE_DEFAULT);
}
//Enable AES Encryption
BCMOLT_MSG_FIELD_SET(&interface_obj, itu.onu_activation.key_exchange, BCMOLT_CONTROL_STATE_ENABLE);
BCMOLT_MSG_FIELD_SET(&interface_obj, itu.onu_activation.authentication, BCMOLT_CONTROL_STATE_ENABLE);
BCMOLT_MSG_FIELD_SET(&interface_obj, itu.onu_activation.fail_due_to_authentication_failure, BCMOLT_CONTROL_STATE_ENABLE);
BCMOLT_FIELD_SET(&pon_interface_set_state.data, pon_interface_set_pon_interface_state_data,
operation, BCMOLT_INTERFACE_OPERATION_ACTIVE_WORKING);
err = bcmolt_cfg_set(dev_id, &interface_obj.hdr);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to enable discovery onu, PON interface %d, err = %s\n", intf_id, bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to enable discovery onu");
}
err = bcmolt_oper_submit(dev_id, &pon_interface_set_state.hdr);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to enable PON interface: %d, err = %s\n", intf_id, bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to enable PON interface");
}
else {
OPENOLT_LOG(INFO, openolt_log_id, "Successfully enabled PON interface: %d\n", intf_id);
OPENOLT_LOG(INFO, openolt_log_id, "Initializing tm sched creation for PON interface: %d\n", intf_id);
CreateDefaultSched(intf_id, downstream);
CreateDefaultQueue(intf_id, downstream);
}
return Status::OK;
}
Status ProbeDeviceCapabilities_() {
bcmos_errno err;
bcmolt_device_cfg dev_cfg = { };
bcmolt_device_key dev_key = { };
bcmolt_olt_cfg olt_cfg = { };
bcmolt_olt_key olt_key = { };
bcmolt_topology_map topo_map[BCM_MAX_PONS_PER_OLT] = { };
bcmolt_topology topo = { };
topo.topology_maps.len = BCM_MAX_PONS_PER_OLT;
topo.topology_maps.arr = &topo_map[0];
BCMOLT_CFG_INIT(&olt_cfg, olt, olt_key);
BCMOLT_MSG_FIELD_GET(&olt_cfg, bal_state);
BCMOLT_FIELD_SET_PRESENT(&olt_cfg.data, olt_cfg_data, topology);
BCMOLT_CFG_LIST_BUF_SET(&olt_cfg, olt, topo.topology_maps.arr,
sizeof(bcmolt_topology_map) * topo.topology_maps.len);
#ifdef TEST_MODE
// It is impossible to mock the setting of olt_cfg.data.bal_state because
// the actual bcmolt_cfg_get passes the address of olt_cfg.hdr and we cannot
// set the olt_cfg.data.topology. So a new stub function is created and address
// of olt_cfg is passed. This is one-of case where we need to test add specific
// code in production code.
err = bcmolt_cfg_get__olt_topology_stub(dev_id, &olt_cfg);
#else
err = bcmolt_cfg_get_mult_retry(dev_id, &olt_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "cfg: Failed to query OLT topology, err = %s\n", bcmos_strerror(err));
return bcm_to_grpc_err(err, "cfg: Failed to query OLT topology");
}
num_of_nni_ports = olt_cfg.data.topology.num_switch_ports;
num_of_pon_ports = olt_cfg.data.topology.topology_maps.len;
OPENOLT_LOG(INFO, openolt_log_id, "OLT capabilitites, oper_state: %s\n",
olt_cfg.data.bal_state == BCMOLT_BAL_STATE_BAL_AND_SWITCH_READY
? "up" : "down");
OPENOLT_LOG(INFO, openolt_log_id, "topology nni: %d pon: %d dev: %d\n",
num_of_nni_ports,
num_of_pon_ports,
BCM_MAX_DEVS_PER_LINE_CARD);
uint32_t num_failed_cfg_gets = 0;
static std::string openolt_version = firmware_version;
for (int devid = 0; devid < BCM_MAX_DEVS_PER_LINE_CARD; devid++) {
dev_key.device_id = devid;
BCMOLT_CFG_INIT(&dev_cfg, device, dev_key);
BCMOLT_MSG_FIELD_GET(&dev_cfg, firmware_sw_version);
BCMOLT_MSG_FIELD_GET(&dev_cfg, chip_family);
BCMOLT_MSG_FIELD_GET(&dev_cfg, system_mode);
err = bcmolt_cfg_get_mult_retry(dev_id, &dev_cfg.hdr);
if (err) {
OPENOLT_LOG(WARNING, openolt_log_id,"Failed to query PON MAC Device %d (errno = %s). Skipping the device.\n", devid, bcmos_strerror(err));
num_failed_cfg_gets++;
continue;
}
std::string bal_version;
bal_version += std::to_string(dev_cfg.data.firmware_sw_version.major)
+ "." + std::to_string(dev_cfg.data.firmware_sw_version.minor)
+ "." + std::to_string(dev_cfg.data.firmware_sw_version.revision);
firmware_version = "BAL." + bal_version + "__" + openolt_version;
switch(dev_cfg.data.system_mode) {
case 10: board_technology = "GPON"; FILL_ARRAY(intf_technologies,devid*4,(devid+1)*4,"GPON"); break;
case 11: board_technology = "GPON"; FILL_ARRAY(intf_technologies,devid*8,(devid+1)*8,"GPON"); break;
case 12: board_technology = "GPON"; FILL_ARRAY(intf_technologies,devid*16,(devid+1)*16,"GPON"); break;
case 13: board_technology = "XGPON"; FILL_ARRAY(intf_technologies,devid*2,(devid+1)*2,"XGPON"); break;
case 14: board_technology = "XGPON"; FILL_ARRAY(intf_technologies,devid*4,(devid+1)*4,"XGPON"); break;
case 15: board_technology = "XGPON"; FILL_ARRAY(intf_technologies,devid*8,(devid+1)*8,"XGPON"); break;
case 16: board_technology = "XGPON"; FILL_ARRAY(intf_technologies,devid*16,(devid+1)*16,"XGPON"); break;
case 18: board_technology = "XGS-PON"; FILL_ARRAY(intf_technologies,devid*2,(devid+1)*2,"XGS-PON"); break;
case 19: board_technology = "XGS-PON"; FILL_ARRAY(intf_technologies,devid*16,(devid+1)*16,"XGS-PON"); break;
case 20: board_technology = MIXED_TECH; FILL_ARRAY(intf_technologies,devid*2,(devid+1)*2,MIXED_TECH); break;
}
switch(dev_cfg.data.chip_family) {
case BCMOLT_CHIP_FAMILY_CHIP_FAMILY_6862_X: chip_family = "Maple"; break;
case BCMOLT_CHIP_FAMILY_CHIP_FAMILY_6865_X: chip_family = "Aspen"; break;
}
OPENOLT_LOG(INFO, openolt_log_id, "device %d, pon: %d, version %s, family: %s, board_technology: %s\n",
devid, BCM_MAX_PONS_PER_DEV, bal_version.c_str(), chip_family.c_str(), board_technology.c_str());
bcmos_usleep(500000);
}
/* If all the devices returned errors then we tell the caller that this is an error else we work with
only the devices that retured success*/
if (num_failed_cfg_gets == BCM_MAX_DEVS_PER_LINE_CARD) {
OPENOLT_LOG(ERROR, openolt_log_id, "device: Query of all the devices failed\n");
return bcm_to_grpc_err(err, "device: All devices failed query");
}
return Status::OK;
}
Status SetStateUplinkIf_(uint32_t intf_id, bool set_state) {
bcmos_errno err = BCM_ERR_OK;
bcmolt_nni_interface_key intf_key = {.id = (bcmolt_interface)intf_id};
bcmolt_nni_interface_set_nni_state nni_interface_set_state;
bcmolt_interface_state state;
err = get_nni_interface_status((bcmolt_interface)intf_id, &state);
if (err == BCM_ERR_OK) {
if (set_state && state == BCMOLT_INTERFACE_STATE_ACTIVE_WORKING) {
OPENOLT_LOG(WARNING, openolt_log_id, "NNI interface: %d already enabled\n", intf_id);
OPENOLT_LOG(INFO, openolt_log_id, "Initializing tm sched creation for NNI interface: %d\n", intf_id);
CreateDefaultSched(intf_id, upstream);
CreateDefaultQueue(intf_id, upstream);
return Status::OK;
} else if (!set_state && state == BCMOLT_INTERFACE_STATE_INACTIVE) {
OPENOLT_LOG(INFO, openolt_log_id, "NNI interface: %d already disabled\n", intf_id);
return Status::OK;
}
}
BCMOLT_OPER_INIT(&nni_interface_set_state, nni_interface, set_nni_state, intf_key);
if (set_state) {
BCMOLT_FIELD_SET(&nni_interface_set_state.data, nni_interface_set_nni_state_data,
nni_state, BCMOLT_INTERFACE_OPERATION_ACTIVE_WORKING);
} else {
BCMOLT_FIELD_SET(&nni_interface_set_state.data, nni_interface_set_nni_state_data,
nni_state, BCMOLT_INTERFACE_OPERATION_INACTIVE);
}
err = bcmolt_oper_submit(dev_id, &nni_interface_set_state.hdr);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to %s NNI interface: %d, err = %s\n",
(set_state)?"enable":"disable", intf_id, bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to enable NNI interface");
}
else {
OPENOLT_LOG(INFO, openolt_log_id, "Successfully %s NNI interface: %d\n", (set_state)?"enable":"disable", intf_id);
if (set_state) {
OPENOLT_LOG(INFO, openolt_log_id, "Initializing tm sched creation for NNI interface: %d\n", intf_id);
CreateDefaultSched(intf_id, upstream);
CreateDefaultQueue(intf_id, upstream);
}
}
return Status::OK;
}
uint32_t GetNniSpeed_(uint32_t intf_id) {
bcmos_errno err = BCM_ERR_OK;
uint32_t speed;
err = get_nni_interface_speed((bcmolt_interface)intf_id, &speed);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(WARNING, openolt_log_id, "Failed to read speed of NNI interface: %d\n", intf_id);
return 0; //This will cause the adapter to use the default speed value
}
return speed;
}
Status DisablePonIf_(uint32_t intf_id) {
bcmos_errno err;
bcmolt_pon_interface_cfg interface_obj;
bcmolt_pon_interface_key intf_key = {.pon_ni = (bcmolt_interface)intf_id};
bcmolt_pon_interface_set_pon_interface_state pon_interface_set_state;
BCMOLT_CFG_INIT(&interface_obj, pon_interface, intf_key);
BCMOLT_MSG_FIELD_GET(&interface_obj, state);
err = bcmolt_cfg_get(dev_id, &interface_obj.hdr);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to fetch pon port status, PON interface %d, err %d err_text=%s \n", intf_id, err, interface_obj.hdr.hdr.err_text);
return bcm_to_grpc_err(err, "Failed to fetch pon port state");
}
if (interface_obj.data.state == BCMOLT_INTERFACE_STATE_INACTIVE) {
OPENOLT_LOG(INFO, openolt_log_id, "PON Interface already inactive, PON interface %d\n", intf_id);
return Status::OK;
}
BCMOLT_CFG_INIT(&interface_obj, pon_interface, intf_key);
BCMOLT_OPER_INIT(&pon_interface_set_state, pon_interface, set_pon_interface_state, intf_key);
BCMOLT_MSG_FIELD_SET(&interface_obj, discovery.control, BCMOLT_CONTROL_STATE_DISABLE);
err = bcmolt_cfg_set(dev_id, &interface_obj.hdr);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to disable discovery of onu, PON interface %d, err = %s (%d(\n", intf_id, interface_obj.hdr.hdr.err_text, err);
return bcm_to_grpc_err(err, "Failed to disable discovery of onu");
}
BCMOLT_FIELD_SET(&pon_interface_set_state.data, pon_interface_set_pon_interface_state_data,
operation, BCMOLT_INTERFACE_OPERATION_INACTIVE);
err = bcmolt_oper_submit(dev_id, &pon_interface_set_state.hdr);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to disable PON interface: %d\n , err %d\n", intf_id, err);
return bcm_to_grpc_err(err, "Failed to disable PON interface");
}
OPENOLT_LOG(INFO, openolt_log_id, "Successfully disabled PON interface: %d\n", intf_id);
return Status::OK;
}
Status ActivateOnu_(uint32_t intf_id, uint32_t onu_id,
const char *vendor_id, const char *vendor_specific, uint32_t pir, bool omcc_encryption_mode) {
bcmos_errno err = BCM_ERR_OK;
bcmolt_onu_cfg onu_cfg;
bcmolt_onu_key onu_key;
bcmolt_serial_number serial_number; /**< ONU serial number */
bcmolt_bin_str_36 registration_id; /**< ONU registration ID */
bcmolt_onu_set_onu_state onu_oper; /* declare main API struct */
bcmolt_onu_state onu_state;
onu_key.onu_id = onu_id;
onu_key.pon_ni = intf_id;
BCMOLT_CFG_INIT(&onu_cfg, onu, onu_key);
BCMOLT_FIELD_SET_PRESENT(&onu_cfg.data, onu_cfg_data, onu_state);
#ifdef TEST_MODE
// It is impossible to mock the setting of onu_cfg.data.onu_state because
// the actual bcmolt_cfg_get passes the address of onu_cfg.hdr and we cannot
// set the onu_cfg.data.onu_state. So a new stub function is created and address
// of onu_cfg is passed. This is one-of case where we need to add test specific
// code in production code.
err = bcmolt_cfg_get__onu_state_stub(dev_id, &onu_cfg);
#else
err = bcmolt_cfg_get(dev_id, &onu_cfg.hdr);
#endif
OPENOLT_LOG(INFO, openolt_log_id, "Activate ONU : old state = %d, current state = %d\n",
onu_cfg.data.onu_old_state, onu_cfg.data.onu_state);
if (err == BCM_ERR_OK) {
if (onu_cfg.data.onu_state == BCMOLT_ONU_STATE_ACTIVE) {
OPENOLT_LOG(INFO, openolt_log_id, "ONU is already in ACTIVE state, \
not processing this request for pon_intf=%d onu_id=%d\n", intf_id, onu_id);
return Status::OK;
} else if (onu_cfg.data.onu_state != BCMOLT_ONU_STATE_NOT_CONFIGURED &&
onu_cfg.data.onu_state != BCMOLT_ONU_STATE_INACTIVE) {
// We need the ONU to be in NOT_CONFIGURED or INACTIVE state to further process the request
OPENOLT_LOG(ERROR, openolt_log_id, "ONU in an invalid state to process the request, \
state=%d pon_intf=%d onu_id=%d\n", onu_cfg.data.onu_state, intf_id, onu_id);
return bcm_to_grpc_err(err, "Failed to activate ONU, invalid ONU state");
}
} else {
// This should never happen. BAL GET should succeed for non-existant ONUs too. The state of such ONUs will be NOT_CONFIGURED
OPENOLT_LOG(ERROR, openolt_log_id, "ONU state query failed pon_intf=%d onu_id=%d\n", intf_id, onu_id);
return bcm_to_grpc_err(err, "onu get failed");
}
// If the ONU is not configured at all we need to first configure it
if (onu_cfg.data.onu_state == BCMOLT_ONU_STATE_NOT_CONFIGURED) {
OPENOLT_LOG(INFO, openolt_log_id, "Configuring ONU %d on PON %d : vendor id %s, \
vendor specific %s, pir %d\n", onu_id, intf_id, vendor_id,
vendor_specific_to_str(vendor_specific).c_str(), pir);
memcpy(serial_number.vendor_id.arr, vendor_id, 4);
memcpy(serial_number.vendor_specific.arr, vendor_specific, 4);
BCMOLT_CFG_INIT(&onu_cfg, onu, onu_key);
BCMOLT_MSG_FIELD_SET(&onu_cfg, itu.serial_number, serial_number);
BCMOLT_MSG_FIELD_SET(&onu_cfg, itu.auto_learning, BCMOS_TRUE);
/*set burst and data profiles to fec disabled*/
if (board_technology == "XGS-PON") {
BCMOLT_MSG_FIELD_SET(&onu_cfg, itu.xgpon.ranging_burst_profile, 2);
BCMOLT_MSG_FIELD_SET(&onu_cfg, itu.xgpon.data_burst_profile, 1);
} else if (board_technology == "GPON") {
BCMOLT_MSG_FIELD_SET(&onu_cfg, itu.gpon.ds_ber_reporting_interval, 1000000);
BCMOLT_MSG_FIELD_SET(&onu_cfg, itu.gpon.omci_port_id, onu_id);
}
err = bcmolt_cfg_set(dev_id, &onu_cfg.hdr);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to configure ONU %d on PON %d, err = %s (%d)\n", onu_id, intf_id, onu_cfg.hdr.hdr.err_text, err);
return bcm_to_grpc_err(err, "Failed to configure ONU");
}
}
// TODO: MOVE THIS TO A NEW METHOD
if (omcc_encryption_mode == true) {
// set the encryption mode for omci port id
bcmolt_itupon_gem_cfg gem_cfg;
bcmolt_itupon_gem_key key = {};
bcmolt_gem_port_configuration configuration = {};
key.pon_ni = intf_id;
key.gem_port_id = onu_id;
bcmolt_control_state encryption_mode;
encryption_mode = BCMOLT_CONTROL_STATE_ENABLE;
BCMOLT_CFG_INIT(&gem_cfg, itupon_gem, key);
BCMOLT_FIELD_SET(&gem_cfg.data, itupon_gem_cfg_data, encryption_mode, encryption_mode);
err = bcmolt_cfg_set(dev_id, &gem_cfg.hdr);
if(err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "failed to configure omci gem_port encryption mode = %d, err = %s (%d)\n", onu_id, gem_cfg.hdr.hdr.err_text, err);
return bcm_to_grpc_err(err, "Access_Control set ITU PON OMCI Gem port failed");
}
}
// Now that the ONU is configured, move the ONU to ACTIVE state
memset(&onu_cfg, 0, sizeof(bcmolt_onu_cfg));
BCMOLT_CFG_INIT(&onu_cfg, onu, onu_key);
BCMOLT_FIELD_SET_PRESENT(&onu_cfg.data, onu_cfg_data, onu_state);
BCMOLT_OPER_INIT(&onu_oper, onu, set_onu_state, onu_key);
BCMOLT_FIELD_SET(&onu_oper.data, onu_set_onu_state_data,
onu_state, BCMOLT_ONU_OPERATION_ACTIVE);
err = bcmolt_oper_submit(dev_id, &onu_oper.hdr);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to activate ONU %d on PON %d, err = %s\n", onu_id, intf_id, bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to activate ONU");
}
// ONU will eventually get activated after we have submitted the operation request. The adapter will receive an asynchronous
// ONU_ACTIVATION_COMPLETED_INDICATION
OPENOLT_LOG(INFO, openolt_log_id, "Activated ONU, onu_id %d on PON %d\n", onu_id, intf_id);
return Status::OK;
}
Status DeactivateOnu_(uint32_t intf_id, uint32_t onu_id,
const char *vendor_id, const char *vendor_specific) {
bcmos_errno err = BCM_ERR_OK;
bcmolt_onu_set_onu_state onu_oper; /* declare main API struct */
bcmolt_onu_cfg onu_cfg;
bcmolt_onu_key onu_key; /**< Object key. */
bcmolt_onu_state onu_state;
onu_key.onu_id = onu_id;
onu_key.pon_ni = intf_id;
BCMOLT_CFG_INIT(&onu_cfg, onu, onu_key);
BCMOLT_FIELD_SET_PRESENT(&onu_cfg.data, onu_cfg_data, onu_state);
err = bcmolt_cfg_get(dev_id, &onu_cfg.hdr);
onu_state = onu_cfg.data.onu_state;
if (err == BCM_ERR_OK) {
switch (onu_state) {
case BCMOLT_ONU_STATE_ACTIVE:
BCMOLT_OPER_INIT(&onu_oper, onu, set_onu_state, onu_key);
BCMOLT_FIELD_SET(&onu_oper.data, onu_set_onu_state_data,
onu_state, BCMOLT_ONU_OPERATION_INACTIVE);
err = bcmolt_oper_submit(dev_id, &onu_oper.hdr);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to deactivate ONU %d on PON %d, err = %s\n", onu_id, intf_id, bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to deactivate ONU");
}
OPENOLT_LOG(INFO, openolt_log_id, "Deactivated ONU, onu_id %d on PON %d\n", onu_id, intf_id);
break;
}
} else {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to deactivate ONU %d on PON %d, err = %s\n", onu_id, intf_id, bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to get onu config");
}
return Status::OK;
}
Status DeleteOnu_(uint32_t intf_id, uint32_t onu_id,
const char *vendor_id, const char *vendor_specific) {
bcmos_errno err = BCM_ERR_OK;
bcmolt_onu_state onu_state;
Status st;
OPENOLT_LOG(INFO, openolt_log_id, "DeleteOnu ONU %d on PON %d : vendor id %s, vendor specific %s\n",
onu_id, intf_id, vendor_id, vendor_specific_to_str(vendor_specific).c_str());
// Need to deactivate before removing it (BAL rules)
st = DeactivateOnu_(intf_id, onu_id, vendor_id, vendor_specific);
if (st.error_code() != grpc::StatusCode::OK) {
return st;
}
err = get_onu_state((bcmolt_interface)intf_id, onu_id, &onu_state);
if (err == BCM_ERR_OK) {
if (onu_state != BCMOLT_ONU_STATE_INACTIVE) {
OPENOLT_LOG(INFO, openolt_log_id, "waiting for onu deactivate complete response: intf_id=%d, onu_id=%d\n",
intf_id, onu_id);
err = wait_for_onu_deactivate_complete(intf_id, onu_id);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "failed to delete onu intf_id %d, onu_id %d\n",
intf_id, onu_id);
return bcm_to_grpc_err(err, "Failed to delete ONU");
}
}
else {
OPENOLT_LOG(INFO, openolt_log_id, "Onu is Inactive, onu_id: %d, not waiting for onu deactivate complete response\n",
intf_id);
}
}
else {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to fetch Onu status, onu_id = %d, intf_id = %d, err = %s\n",
onu_id, intf_id, bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to delete ONU");
}
bcmolt_onu_cfg cfg_obj;
bcmolt_onu_key key;
OPENOLT_LOG(INFO, openolt_log_id, "Processing onu cfg clear for onu_id %d and intf_id %d\n",
onu_id, intf_id);
key.onu_id = onu_id;
key.pon_ni = intf_id;
BCMOLT_CFG_INIT(&cfg_obj, onu, key);
err = bcmolt_cfg_clear(dev_id, &cfg_obj.hdr);
if (err != BCM_ERR_OK)
{
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to clear information for BAL onu_id %d, Interface ID %d, err = %s (%d)\n", onu_id, intf_id, cfg_obj.hdr.hdr.err_text, err);
return Status(grpc::StatusCode::INTERNAL, "Failed to delete ONU");
}
OPENOLT_LOG(INFO, openolt_log_id, "Deleted ONU, onu_id %d on PON %d\n", onu_id, intf_id);
return Status::OK;
}
#define MAX_CHAR_LENGTH 20
#define MAX_OMCI_MSG_LENGTH 44
Status OmciMsgOut_(uint32_t intf_id, uint32_t onu_id, const std::string pkt) {
bcmolt_bin_str buf = {};
bcmolt_onu_cpu_packets omci_cpu_packets;
bcmolt_onu_key key;
key.pon_ni = intf_id;
key.onu_id = onu_id;
BCMOLT_OPER_INIT(&omci_cpu_packets, onu, cpu_packets, key);
BCMOLT_MSG_FIELD_SET(&omci_cpu_packets, packet_type, BCMOLT_PACKET_TYPE_OMCI);
BCMOLT_MSG_FIELD_SET(&omci_cpu_packets, calc_crc, BCMOS_TRUE);
// ???
if ((pkt.size()/2) > MAX_OMCI_MSG_LENGTH) {
buf.len = MAX_OMCI_MSG_LENGTH;
} else {
buf.len = pkt.size()/2;
}
/* Send the OMCI packet using the BAL remote proxy API */
uint16_t idx1 = 0;
uint16_t idx2 = 0;
uint8_t arraySend[buf.len];
char str1[MAX_CHAR_LENGTH];
char str2[MAX_CHAR_LENGTH];
memset(&arraySend, 0, buf.len);
for (idx1=0,idx2=0; idx1<((buf.len)*2); idx1++,idx2++) {
sprintf(str1,"%c", pkt[idx1]);
sprintf(str2,"%c", pkt[++idx1]);
strcat(str1,str2);
arraySend[idx2] = strtol(str1, NULL, 16);
}
buf.arr = (uint8_t *)malloc((buf.len)*sizeof(uint8_t));
memcpy(buf.arr, (uint8_t *)arraySend, buf.len);
BCMOLT_MSG_FIELD_SET(&omci_cpu_packets, number_of_packets, 1);
BCMOLT_MSG_FIELD_SET(&omci_cpu_packets, packet_size, buf.len);
BCMOLT_MSG_FIELD_SET(&omci_cpu_packets, buffer, buf);
bcmos_errno err = bcmolt_oper_submit(dev_id, &omci_cpu_packets.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Error sending OMCI message to ONU %d on PON %d, err = %s\n", onu_id, intf_id, bcmos_strerror(err));
return bcm_to_grpc_err(err, "send OMCI failed");
} else {
OPENOLT_LOG(DEBUG, omci_log_id, "OMCI request msg of length %d sent to ONU %d on PON %d : %s\n",
buf.len, onu_id, intf_id, pkt.c_str());
}
free(buf.arr);
return Status::OK;
}
Status OnuPacketOut_(uint32_t intf_id, uint32_t onu_id, uint32_t port_no, uint32_t gemport_id, const std::string pkt) {
bcmolt_pon_interface_cpu_packets pon_interface_cpu_packets; /**< declare main API struct */
bcmolt_pon_interface_key key = {.pon_ni = (bcmolt_interface)intf_id}; /**< declare key */
bcmolt_bin_str buf = {};
bcmolt_gem_port_id gem_port_id_array[1];
bcmolt_gem_port_id_list_u8_max_16 gem_port_list = {};
if (port_no > 0) {
bool found = false;
if (gemport_id == 0) {
bcmos_fastlock_lock(&data_lock);
// Map the port_no to one of the flows that owns it to find a gemport_id for that flow.
// Pick any flow that is mapped with the same port_no.
std::map<uint32_t, std::set<uint32_t> >::const_iterator it = port_to_flows.find(port_no);
if (it != port_to_flows.end() && !it->second.empty()) {
uint32_t flow_id = *(it->second.begin()); // Pick any flow_id out of the bag set
std::map<uint32_t, uint32_t>::const_iterator fit = flowid_to_gemport.find(flow_id);
if (fit != flowid_to_gemport.end()) {
found = true;
gemport_id = fit->second;
}
}
bcmos_fastlock_unlock(&data_lock, 0);
if (!found) {
OPENOLT_LOG(ERROR, openolt_log_id, "Packet out failed to find destination for ONU %d port_no %u on PON %d\n",
onu_id, port_no, intf_id);
return grpc::Status(grpc::StatusCode::NOT_FOUND, "no flow for port_no");
}
OPENOLT_LOG(INFO, openolt_log_id, "Gem port %u found for ONU %d port_no %u on PON %d\n",
gemport_id, onu_id, port_no, intf_id);
}
gem_port_id_array[0] = gemport_id;
gem_port_list.len = 1;
gem_port_list.arr = gem_port_id_array;
buf.len = pkt.size();
buf.arr = (uint8_t *)malloc((buf.len)*sizeof(uint8_t));
memcpy(buf.arr, (uint8_t *)pkt.data(), buf.len);
/* init the API struct */
BCMOLT_OPER_INIT(&pon_interface_cpu_packets, pon_interface, cpu_packets, key);
BCMOLT_MSG_FIELD_SET(&pon_interface_cpu_packets, packet_type, BCMOLT_PACKET_TYPE_ETH);
BCMOLT_MSG_FIELD_SET(&pon_interface_cpu_packets, calc_crc, BCMOS_TRUE);
BCMOLT_MSG_FIELD_SET(&pon_interface_cpu_packets, gem_port_list, gem_port_list);
BCMOLT_MSG_FIELD_SET(&pon_interface_cpu_packets, buffer, buf);
OPENOLT_LOG(INFO, openolt_log_id, "Packet out of length %d sent to gemport %d on pon %d port_no %u\n",
(uint8_t)pkt.size(), gemport_id, intf_id, port_no);
/* call API */
bcmolt_oper_submit(dev_id, &pon_interface_cpu_packets.hdr);
}
else {
//TODO: Port No is 0, it is coming sender requirement.
OPENOLT_LOG(INFO, openolt_log_id, "port_no %d onu %d on pon %d\n",
port_no, onu_id, intf_id);
}
free(buf.arr);
return Status::OK;
}
Status UplinkPacketOut_(uint32_t intf_id, const std::string pkt) {
bcmolt_flow_key key = {}; /* declare key */
bcmolt_bin_str buffer = {};
bcmolt_flow_send_eth_packet oper; /* declare main API struct */
// TODO: flow_id is currently not passed in UplinkPacket message from voltha.
bcmolt_flow_id flow_id = INVALID_FLOW_ID;
//validate flow_id and find flow_id/flow type: upstream/ingress type: PON/egress type: NNI
if (get_flow_status(flow_id, BCMOLT_FLOW_TYPE_UPSTREAM, FLOW_TYPE) == BCMOLT_FLOW_TYPE_UPSTREAM && \
get_flow_status(flow_id, BCMOLT_FLOW_TYPE_UPSTREAM, INGRESS_INTF_TYPE) == BCMOLT_FLOW_INTERFACE_TYPE_PON && \
get_flow_status(flow_id, BCMOLT_FLOW_TYPE_UPSTREAM, EGRESS_INTF_TYPE) == BCMOLT_FLOW_INTERFACE_TYPE_NNI)
key.flow_id = flow_id;
else {
if (flow_id_counters) {
std::map<flow_pair, int>::iterator it;
for(it = flow_map.begin(); it != flow_map.end(); it++) {
int flow_index = it->first.first;
if (get_flow_status(flow_index, BCMOLT_FLOW_TYPE_UPSTREAM, FLOW_TYPE) == BCMOLT_FLOW_TYPE_UPSTREAM && \
get_flow_status(flow_index, BCMOLT_FLOW_TYPE_UPSTREAM, INGRESS_INTF_TYPE) == BCMOLT_FLOW_INTERFACE_TYPE_PON && \
get_flow_status(flow_index, BCMOLT_FLOW_TYPE_UPSTREAM, EGRESS_INTF_TYPE) == BCMOLT_FLOW_INTERFACE_TYPE_NNI) {
key.flow_id = flow_index;
break;
}
}
}
else {
OPENOLT_LOG(ERROR, openolt_log_id, "no flow id found for uplink packetout\n");
return grpc::Status(grpc::StatusCode::NOT_FOUND, "no flow id found");
}
}
key.flow_type = BCMOLT_FLOW_TYPE_UPSTREAM; /* send from uplink direction */
/* Initialize the API struct. */
BCMOLT_OPER_INIT(&oper, flow, send_eth_packet, key);
buffer.len = pkt.size();
buffer.arr = (uint8_t *)malloc((buffer.len)*sizeof(uint8_t));
memcpy(buffer.arr, (uint8_t *)pkt.data(), buffer.len);
if (buffer.arr == NULL) {
OPENOLT_LOG(ERROR, openolt_log_id, "allocate packet buffer failed\n");
return bcm_to_grpc_err(BCM_ERR_PARM, "allocate packet buffer failed");
}
BCMOLT_FIELD_SET(&oper.data, flow_send_eth_packet_data, buffer, buffer);
bcmos_errno err = bcmolt_oper_submit(dev_id, &oper.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Error sending packets via nni port %d, flow_id %d, err = %s\n", intf_id, key.flow_id, bcmos_strerror(err));
return bcm_to_grpc_err(BCM_ERR_SYSCALL_ERR, "Error sending packets via nni port");
} else {
OPENOLT_LOG(INFO, openolt_log_id, "sent packets to port %d in upstream direction, flow_id %d \n", intf_id, key.flow_id);
}
return Status::OK;
}
bool get_aes_flag_for_gem_port(const google::protobuf::Map<unsigned int, bool> &gemport_to_aes, uint32_t gemport_id) {
bool aes_flag = false;
for (google::protobuf::Map<unsigned int, bool>::const_iterator it=gemport_to_aes.begin(); it!=gemport_to_aes.end(); it++) {
if (it->first == gemport_id) {
aes_flag = it->second;
break;
}
}
return aes_flag;
}
Status FlowAddWrapper_(const ::openolt::Flow* request) {
Status st = Status::OK;
int32_t access_intf_id = request->access_intf_id();
int32_t onu_id = request->onu_id();
int32_t uni_id = request->uni_id();
uint32_t port_no = request->port_no();
uint64_t voltha_flow_id = request->flow_id();
uint64_t symmetric_voltha_flow_id = 0;
const std::string flow_type = request->flow_type();
int32_t alloc_id = request->alloc_id();
int32_t network_intf_id = request->network_intf_id();
int32_t gemport_id = request->gemport_id();
const ::openolt::Classifier& classifier = request->classifier();
const ::openolt::Action& action = request->action();
int32_t priority = request->priority();
uint64_t cookie = request->cookie();
int32_t group_id = request->group_id();
uint32_t tech_profile_id = request->tech_profile_id();
bool replicate_flow = request->replicate_flow();
const google::protobuf::Map<unsigned int, unsigned int> &pbit_to_gemport = request->pbit_to_gemport();
const google::protobuf::Map<unsigned int, bool> &gemport_to_aes = request->gemport_to_aes();
uint16_t flow_id;
bool enable_encryption;
// When following conditions are ALL met, it qualifies as datapath flow.
// 1. valid access_intf_id, onu_id, uni_id
// 2. Valid tech_profile_id
// 3. flow_type that is not MULTICAST
// 4. Not a trap-to-host flow.
bool datapathFlow = access_intf_id >= 0 && onu_id >= 0 && uni_id >= 0 && tech_profile_id > 0
&& flow_type != multicast && !action.cmd().trap_to_host();
if (datapathFlow) {
const std::string inverse_flow_type = flow_type == upstream? downstream : upstream;
symmetric_datapath_flow_id_map_key key(access_intf_id, onu_id, uni_id, tech_profile_id, inverse_flow_type);
// Find the onu-uni mapping for the pon-gem key
bcmos_fastlock_lock(&symmetric_datapath_flow_id_lock);
auto it = symmetric_datapath_flow_id_map.find(key);
bcmos_fastlock_unlock(&symmetric_datapath_flow_id_lock, 0);
if (it != symmetric_datapath_flow_id_map.end()) {
symmetric_voltha_flow_id = it->second;
}
}
// The intf_id variable defaults to access(PON) interface ID.
// For trap-from-nni flow where access interface ID is not valid , change it to NNI interface ID
// This intf_id identifies the pool from which we get the flow_id
uint32_t intf_id = access_intf_id;
if (onu_id < 1) {
onu_id = 1;
}
if (access_intf_id < 0) {
intf_id = network_intf_id;
}
OPENOLT_LOG(INFO, openolt_log_id, "received flow add. voltha_flow_id=%lu, symmetric_voltha_flow_id=%lu, replication=%d\n", voltha_flow_id, symmetric_voltha_flow_id, replicate_flow)
// This is the case of voltha_flow_id (not symmetric_voltha_flow_id)
if (is_voltha_flow_installed(voltha_flow_id)) {
OPENOLT_LOG(INFO, openolt_log_id, "voltha_flow_id=%lu, already installed\n", voltha_flow_id);
return ::Status(grpc::StatusCode::ALREADY_EXISTS, "voltha-flow-already-installed");
}
// This is the case of symmetric_voltha_flow_id
// If symmetric_voltha_flow_id is available and valid in the Flow message,
// check if it is installed, and use the corresponding device_flow_id
if (symmetric_voltha_flow_id > 0 && is_voltha_flow_installed(symmetric_voltha_flow_id)) { // symmetric flow found
OPENOLT_LOG(INFO, openolt_log_id, "symmetric flow and the symmetric flow is installed\n");
const device_flow_params *dev_fl_symm_params;
dev_fl_symm_params = get_device_flow_params(symmetric_voltha_flow_id);
if (dev_fl_symm_params == NULL) {
OPENOLT_LOG(ERROR, openolt_log_id, "symmetric flow device params not found symm-voltha-flow=%lu voltha-flow=%lu\n", symmetric_voltha_flow_id, voltha_flow_id)
return ::Status(grpc::StatusCode::INTERNAL, "symmetric-flow-details-not-found");
}
if (!replicate_flow) { // No flow replication
flow_id = dev_fl_symm_params[0].flow_id;
gemport_id = dev_fl_symm_params[0].gemport_id; // overwrite the gemport with symmetric flow gemport
// Should be same as what is coming in this request.
enable_encryption = get_aes_flag_for_gem_port(gemport_to_aes, gemport_id);
::openolt::Classifier cl = ::openolt::Classifier(classifier);
cl.set_o_pbits(dev_fl_symm_params[0].pbit);
st = FlowAdd_(access_intf_id, onu_id, uni_id, port_no, flow_id,
flow_type, alloc_id, network_intf_id, gemport_id, cl,
action, priority, cookie, group_id, tech_profile_id, enable_encryption);
if (st.error_code() != grpc::StatusCode::OK && st.error_code() != grpc::StatusCode::ALREADY_EXISTS) {
OPENOLT_LOG(ERROR, openolt_log_id, "failed to install device flow=%u for voltha flow=%lu", flow_id, voltha_flow_id);
free_flow_id(flow_id);
return st;
}
device_flow dev_fl;
dev_fl.is_flow_replicated = false;
dev_fl.symmetric_voltha_flow_id = symmetric_voltha_flow_id;
dev_fl.voltha_flow_id = voltha_flow_id;
dev_fl.flow_type = flow_type;
memcpy(dev_fl.params, dev_fl_symm_params, sizeof(device_flow_params));
// update voltha flow to cache
update_voltha_flow_to_cache(voltha_flow_id, dev_fl);
} else { // Flow to be replicated
OPENOLT_LOG(INFO, openolt_log_id,"symmetric flow and replication is needed\n");
for (uint8_t i=0; i<NUMBER_OF_REPLICATED_FLOWS; i++) {
::openolt::Classifier cl = ::openolt::Classifier(classifier);
flow_id = dev_fl_symm_params[i].flow_id;
gemport_id = dev_fl_symm_params[i].gemport_id;
enable_encryption = get_aes_flag_for_gem_port(gemport_to_aes, gemport_id);
cl.set_o_pbits(dev_fl_symm_params[i].pbit);
st = FlowAdd_(access_intf_id, onu_id, uni_id, port_no, flow_id,
flow_type, alloc_id, network_intf_id, gemport_id, cl,
action, priority, cookie, group_id, tech_profile_id, enable_encryption);
if (st.error_code() != grpc::StatusCode::OK && st.error_code() != grpc::StatusCode::ALREADY_EXISTS) {
OPENOLT_LOG(ERROR, openolt_log_id, "failed to install device flow=%u for voltha flow=%lu. Undoing any device flows installed.", flow_id, voltha_flow_id);
// On failure remove any successfully replicated flows installed so far for the voltha_flow_id
if (i > 0) {
for (int8_t j = i-1; j >= 0; j--) {
flow_id = dev_fl_symm_params[j].flow_id;
FlowRemove_(flow_id, flow_type);
}
}
// Note: We should not free the flow_ids here because the symmetric flow is already using that flow id.
// A call from voltha adapter should invoke a flow remove and then the flow ids would be freed in the process in this particular case
return st;
}
}
device_flow dev_fl;
dev_fl.is_flow_replicated = true;
dev_fl.symmetric_voltha_flow_id = symmetric_voltha_flow_id;
dev_fl.voltha_flow_id = voltha_flow_id;
dev_fl.flow_type = flow_type;
memcpy(dev_fl.params, dev_fl_symm_params, sizeof(device_flow_params)*NUMBER_OF_REPLICATED_FLOWS);
// update voltha flow to cache
update_voltha_flow_to_cache(voltha_flow_id, dev_fl);
}
} else { // No symmetric flow found
if (!replicate_flow) { // No flow replication
OPENOLT_LOG(INFO, openolt_log_id, "not a symmetric flow and replication is not needed\n");
flow_id = get_flow_id();
if (flow_id == INVALID_FLOW_ID) {
OPENOLT_LOG(ERROR, openolt_log_id, "could not allocated flow id for voltha-flow-id=%lu\n", voltha_flow_id);
return ::Status(grpc::StatusCode::RESOURCE_EXHAUSTED, "flow-ids-exhausted");
}
enable_encryption = get_aes_flag_for_gem_port(gemport_to_aes, gemport_id);
st = FlowAdd_(access_intf_id, onu_id, uni_id, port_no, flow_id,
flow_type, alloc_id, network_intf_id, gemport_id, classifier,
action, priority, cookie, group_id, tech_profile_id, enable_encryption);
if (st.error_code() == grpc::StatusCode::OK) {
device_flow dev_fl;
dev_fl.is_flow_replicated = false;
dev_fl.symmetric_voltha_flow_id = INVALID_FLOW_ID; // Invalid
dev_fl.voltha_flow_id = voltha_flow_id;
dev_fl.flow_type = flow_type;
dev_fl.params[0].flow_id = flow_id;
dev_fl.params[0].gemport_id = gemport_id;
dev_fl.params[0].pbit = classifier.o_pbits();
// update voltha flow to cache
update_voltha_flow_to_cache(voltha_flow_id, dev_fl);
} else {
// Free the flow id on failure
free_flow_id(flow_id);
return st;
}
} else { // Flow to be replicated
OPENOLT_LOG(INFO, openolt_log_id,"not a symmetric flow and replication is needed\n");
if (pbit_to_gemport.size() != NUMBER_OF_PBITS) {
OPENOLT_LOG(ERROR, openolt_log_id, "invalid pbit-to-gemport map size=%lu", pbit_to_gemport.size())
return ::Status(grpc::StatusCode::OUT_OF_RANGE, "pbit-to-gemport-map-len-invalid-for-flow-replication");
}
uint16_t flow_ids[NUMBER_OF_REPLICATED_FLOWS];
device_flow dev_fl;
if (get_flow_ids(NUMBER_OF_REPLICATED_FLOWS, flow_ids)) {
uint8_t cnt = 0;
dev_fl.is_flow_replicated = true;
dev_fl.voltha_flow_id = voltha_flow_id;
dev_fl.symmetric_voltha_flow_id = INVALID_FLOW_ID; // invalid
dev_fl.flow_type = flow_type;
for (google::protobuf::Map<unsigned int, unsigned int>::const_iterator it=pbit_to_gemport.begin(); it!=pbit_to_gemport.end(); it++) {
dev_fl.params[cnt].flow_id = flow_ids[cnt];
dev_fl.params[cnt].pbit = it->first;
dev_fl.params[cnt].gemport_id = it->second;
::openolt::Classifier cl = ::openolt::Classifier(classifier);
flow_id = dev_fl.params[cnt].flow_id;
gemport_id = dev_fl.params[cnt].gemport_id;
enable_encryption = get_aes_flag_for_gem_port(gemport_to_aes, gemport_id);
cl.set_o_pbits(dev_fl.params[cnt].pbit);
st = FlowAdd_(access_intf_id, onu_id, uni_id, port_no, flow_id,
flow_type, alloc_id, network_intf_id, gemport_id, cl,
action, priority, cookie, group_id, tech_profile_id, enable_encryption);
if (st.error_code() != grpc::StatusCode::OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "failed to install device flow=%u for voltha flow=%lu. Undoing any device flows installed.", flow_id, voltha_flow_id);
// Remove any successfully replicated flows installed so far for the voltha_flow_id
if (cnt > 0) {
for (int8_t j = cnt-1; j >= 0; j--) {
flow_id = dev_fl.params[j].flow_id;
FlowRemove_(flow_id, flow_type);
}
}
// Free up all the flow IDs on failure
free_flow_ids(NUMBER_OF_REPLICATED_FLOWS, flow_ids);
return st;
}
cnt++;
}
// On successful flow replication update voltha-flow-id to device-flow map to cache
update_voltha_flow_to_cache(voltha_flow_id, dev_fl);
} else {
OPENOLT_LOG(ERROR, openolt_log_id, "could not allocate flow ids for replication voltha-flow-id=%lu\n", voltha_flow_id);
return ::Status(grpc::StatusCode::RESOURCE_EXHAUSTED, "flow-ids-exhausted");
}
}
}
if (datapathFlow) {
// Create the pon-gem to onu-uni mapping
symmetric_datapath_flow_id_map_key key(access_intf_id, onu_id, uni_id, tech_profile_id, flow_type);
bcmos_fastlock_lock(&symmetric_datapath_flow_id_lock);
symmetric_datapath_flow_id_map[key] = voltha_flow_id;
bcmos_fastlock_unlock(&symmetric_datapath_flow_id_lock, 0);
}
return st;
}
Status FlowAdd_(int32_t access_intf_id, int32_t onu_id, int32_t uni_id, uint32_t port_no,
uint32_t flow_id, const std::string flow_type,
int32_t alloc_id, int32_t network_intf_id,
int32_t gemport_id, const ::openolt::Classifier& classifier,
const ::openolt::Action& action, int32_t priority_value, uint64_t cookie,
int32_t group_id, uint32_t tech_profile_id, bool aes_enabled) {
bcmolt_flow_cfg cfg;
bcmolt_flow_key key = { }; /**< Object key. */
int32_t o_vid = -1;
bool single_tag = false;
uint32_t ether_type = 0;
bcmolt_classifier c_val = { };
bcmolt_action a_val = { };
bcmolt_tm_queue_ref tm_val = { };
int tm_qmp_id, tm_q_set_id;
bcmolt_egress_qos_type qos_type;
OPENOLT_LOG(INFO, openolt_log_id, "flow add received for flow_id=%u, flow_type=%s\n", flow_id, flow_type.c_str());
key.flow_id = flow_id;
if (flow_type == upstream) {
key.flow_type = BCMOLT_FLOW_TYPE_UPSTREAM;
} else if (flow_type == downstream) {
key.flow_type = BCMOLT_FLOW_TYPE_DOWNSTREAM;
} else if (flow_type == multicast) {
key.flow_type = BCMOLT_FLOW_TYPE_MULTICAST;
} else {
OPENOLT_LOG(ERROR, openolt_log_id, "Invalid flow type %s\n", flow_type.c_str());
return bcm_to_grpc_err(BCM_ERR_PARM, "Invalid flow type");
}
BCMOLT_CFG_INIT(&cfg, flow, key);
BCMOLT_MSG_FIELD_SET(&cfg, cookie, cookie);
if (action.cmd().trap_to_host()) {
Status resp = handle_acl_rule_install(onu_id, flow_id, gemport_id, flow_type, access_intf_id,
network_intf_id, classifier);
return resp;
}
if (key.flow_type != BCMOLT_FLOW_TYPE_MULTICAST) {
if (access_intf_id >= 0 && network_intf_id >= 0) {
if (key.flow_type == BCMOLT_FLOW_TYPE_UPSTREAM) { //upstream
BCMOLT_MSG_FIELD_SET(&cfg, ingress_intf.intf_type, BCMOLT_FLOW_INTERFACE_TYPE_PON);
BCMOLT_MSG_FIELD_SET(&cfg, ingress_intf.intf_id, access_intf_id);
BCMOLT_MSG_FIELD_SET(&cfg, egress_intf.intf_type, BCMOLT_FLOW_INTERFACE_TYPE_NNI);
BCMOLT_MSG_FIELD_SET(&cfg, egress_intf.intf_id, network_intf_id);
} else if (key.flow_type == BCMOLT_FLOW_TYPE_DOWNSTREAM) { //downstream
BCMOLT_MSG_FIELD_SET(&cfg, ingress_intf.intf_type, BCMOLT_FLOW_INTERFACE_TYPE_NNI);
BCMOLT_MSG_FIELD_SET(&cfg, ingress_intf.intf_id, network_intf_id);
BCMOLT_MSG_FIELD_SET(&cfg, egress_intf.intf_type, BCMOLT_FLOW_INTERFACE_TYPE_PON);
BCMOLT_MSG_FIELD_SET(&cfg, egress_intf.intf_id, access_intf_id);
}
} else {
OPENOLT_LOG(ERROR, openolt_log_id, "flow network setting invalid\n");
return bcm_to_grpc_err(BCM_ERR_PARM, "flow network setting invalid");
}
if (onu_id >= ONU_ID_START) {
BCMOLT_MSG_FIELD_SET(&cfg, onu_id, onu_id);
}
if (gemport_id >= GEM_PORT_ID_START) {
BCMOLT_MSG_FIELD_SET(&cfg, svc_port_id, gemport_id);
}
if (gemport_id >= GEM_PORT_ID_START && port_no != 0) {
bcmos_fastlock_lock(&data_lock);
if (key.flow_type == BCMOLT_FLOW_TYPE_DOWNSTREAM) {
port_to_flows[port_no].insert(key.flow_id);
flowid_to_gemport[key.flow_id] = gemport_id;
}
else
{
flowid_to_port[key.flow_id] = port_no;
}
bcmos_fastlock_unlock(&data_lock, 0);
}
if (priority_value >= 0) {
BCMOLT_MSG_FIELD_SET(&cfg, priority, priority_value);
}
} else { // MULTICAST FLOW
if (group_id >= 0) {
BCMOLT_MSG_FIELD_SET(&cfg, group_id, group_id);
}
BCMOLT_MSG_FIELD_SET(&cfg, ingress_intf.intf_type, BCMOLT_FLOW_INTERFACE_TYPE_NNI);
BCMOLT_MSG_FIELD_SET(&cfg, ingress_intf.intf_id, network_intf_id);
}
{
if (classifier.eth_type()) {
ether_type = classifier.eth_type();
OPENOLT_LOG(DEBUG, openolt_log_id, "classify ether_type 0x%04x\n", classifier.eth_type());
BCMOLT_FIELD_SET(&c_val, classifier, ether_type, classifier.eth_type());
}
if (classifier.dst_mac().size() > 0) {
bcmos_mac_address d_mac = {};
bcmos_mac_address_init(&d_mac);
memcpy(d_mac.u8, classifier.dst_mac().data(), sizeof(d_mac.u8));
OPENOLT_LOG(DEBUG, openolt_log_id, "classify dst_mac %02x:%02x:%02x:%02x:%02x:%02x\n", d_mac.u8[0],
d_mac.u8[1], d_mac.u8[2], d_mac.u8[3], d_mac.u8[4], d_mac.u8[5]);
BCMOLT_FIELD_SET(&c_val, classifier, dst_mac, d_mac);
}
if (classifier.src_mac().size() > 0) {
bcmos_mac_address s_mac = {};
bcmos_mac_address_init(&s_mac);
memcpy(s_mac.u8, classifier.src_mac().data(), sizeof(s_mac.u8));
OPENOLT_LOG(DEBUG, openolt_log_id, "classify src_mac %02x:%02x:%02x:%02x:%02x:%02x\n", s_mac.u8[0],
s_mac.u8[1], s_mac.u8[2], s_mac.u8[3], s_mac.u8[4], s_mac.u8[5]);
BCMOLT_FIELD_SET(&c_val, classifier, src_mac, s_mac);
}
if (classifier.ip_proto()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "classify ip_proto %d\n", classifier.ip_proto());
BCMOLT_FIELD_SET(&c_val, classifier, ip_proto, classifier.ip_proto());
}
if (classifier.dst_ip()) {
bcmos_ipv4_address d_ip = {};
bcmos_ipv4_address_init(&d_ip);
d_ip.u32 = classifier.dst_ip();
OPENOLT_LOG(DEBUG, openolt_log_id, "classify dst_ip %04x\n", d_ip.u32);
BCMOLT_FIELD_SET(&c_val, classifier, dst_ip, d_ip);
}
/*
if (classifier.src_ip()) {
BCMBAL_ATTRIBUTE_PROP_SET(&val, classifier, src_ip, classifier.src_ip());
}
*/
if (classifier.src_port()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "classify src_port %d\n", classifier.src_port());
BCMOLT_FIELD_SET(&c_val, classifier, src_port, classifier.src_port());
}
if (classifier.dst_port()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "classify dst_port %d\n", classifier.dst_port());
BCMOLT_FIELD_SET(&c_val, classifier, dst_port, classifier.dst_port());
}
if (!classifier.pkt_tag_type().empty()) {
if (classifier.o_vid()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "classify o_vid %d\n", classifier.o_vid());
BCMOLT_FIELD_SET(&c_val, classifier, o_vid, classifier.o_vid());
}
if (classifier.i_vid()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "classify i_vid %d\n", classifier.i_vid());
BCMOLT_FIELD_SET(&c_val, classifier, i_vid, classifier.i_vid());
}
OPENOLT_LOG(DEBUG, openolt_log_id, "classify tag_type %s\n", classifier.pkt_tag_type().c_str());
if (classifier.pkt_tag_type().compare("untagged") == 0) {
BCMOLT_FIELD_SET(&c_val, classifier, pkt_tag_type, BCMOLT_PKT_TAG_TYPE_UNTAGGED);
} else if (classifier.pkt_tag_type().compare("single_tag") == 0) {
BCMOLT_FIELD_SET(&c_val, classifier, pkt_tag_type, BCMOLT_PKT_TAG_TYPE_SINGLE_TAG);
single_tag = true;
OPENOLT_LOG(DEBUG, openolt_log_id, "classify o_pbits 0x%x\n", classifier.o_pbits());
// OpenOlt adapter will send 0xFF in case of no pbit classification
// If it is any other value (0 to 7), it is for outer pbit classification.
// OpenFlow protocol does not provide inner pbit classification (in case of double tagged packets),
// and VOLTHA has not used any workaround to solve this problem (for ex: use metadata field).
// Also there exists no use case for i-pbit classification, so we can safely ignore this for now.
if(0xFF != classifier.o_pbits()){
BCMOLT_FIELD_SET(&c_val, classifier, o_pbits, classifier.o_pbits());
}
} else if (classifier.pkt_tag_type().compare("double_tag") == 0) {
BCMOLT_FIELD_SET(&c_val, classifier, pkt_tag_type, BCMOLT_PKT_TAG_TYPE_DOUBLE_TAG);
OPENOLT_LOG(DEBUG, openolt_log_id, "classify o_pbits 0x%x\n", classifier.o_pbits());
// Same comments as in case of "single_tag" packets.
// 0xFF means no pbit classification, otherwise a valid PCP (0 to 7).
if(0xFF != classifier.o_pbits()){
BCMOLT_FIELD_SET(&c_val, classifier, o_pbits, classifier.o_pbits());
}
}
}
BCMOLT_MSG_FIELD_SET(&cfg, classifier, c_val);
}
const ::openolt::ActionCmd& cmd = action.cmd();
if (cmd.add_outer_tag()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "action add o_tag\n");
BCMOLT_FIELD_SET(&a_val, action, cmds_bitmask, BCMOLT_ACTION_CMD_ID_ADD_OUTER_TAG);
}
if (cmd.remove_outer_tag()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "action pop o_tag\n");
BCMOLT_FIELD_SET(&a_val, action, cmds_bitmask, BCMOLT_ACTION_CMD_ID_REMOVE_OUTER_TAG);
}
if (cmd.translate_outer_tag()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "action translate o_tag\n");
BCMOLT_FIELD_SET(&a_val, action, cmds_bitmask, BCMOLT_ACTION_CMD_ID_XLATE_OUTER_TAG);
}
if (action.o_vid()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "action o_vid=%d\n", action.o_vid());
o_vid = action.o_vid();
BCMOLT_FIELD_SET(&a_val, action, o_vid, action.o_vid());
}
if (action.o_pbits()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "action o_pbits=0x%x\n", action.o_pbits());
BCMOLT_FIELD_SET(&a_val, action, o_pbits, action.o_pbits());
}
if (action.i_vid()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "action i_vid=%d\n", action.i_vid());
BCMOLT_FIELD_SET(&a_val, action, i_vid, action.i_vid());
}
if (action.i_pbits()) {
OPENOLT_LOG(DEBUG, openolt_log_id, "action i_pbits=0x%x\n", action.i_pbits());
BCMOLT_FIELD_SET(&a_val, action, i_pbits, action.i_pbits());
}
BCMOLT_MSG_FIELD_SET(&cfg, action, a_val);
if ((access_intf_id >= 0) && (onu_id >= ONU_ID_START)) {
qos_type = get_qos_type(access_intf_id, onu_id, uni_id);
if (key.flow_type == BCMOLT_FLOW_TYPE_DOWNSTREAM) {
tm_val.sched_id = get_tm_sched_id(access_intf_id, onu_id, uni_id, downstream, tech_profile_id);
if (qos_type == BCMOLT_EGRESS_QOS_TYPE_FIXED_QUEUE) {
// Queue 0 on DS subscriber scheduler
tm_val.queue_id = 0;
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.type, qos_type);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.tm_sched.id, tm_val.sched_id);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.u.fixed_queue.queue_id, tm_val.queue_id);
OPENOLT_LOG(DEBUG, openolt_log_id, "direction = %s, queue_id = %d, sched_id = %d, intf_type %s\n", \
downstream.c_str(), tm_val.queue_id, tm_val.sched_id, \
GET_FLOW_INTERFACE_TYPE(cfg.data.ingress_intf.intf_type));
} else if (qos_type == BCMOLT_EGRESS_QOS_TYPE_PRIORITY_TO_QUEUE) {
/* Fetch TM QMP ID mapped to DS subscriber scheduler */
tm_qmp_id = tm_q_set_id = get_tm_qmp_id(tm_val.sched_id, access_intf_id, onu_id, uni_id);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.type, qos_type);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.tm_sched.id, tm_val.sched_id);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.u.priority_to_queue.tm_qmp_id, tm_qmp_id);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.u.priority_to_queue.tm_q_set_id, tm_q_set_id);
OPENOLT_LOG(DEBUG, openolt_log_id, "direction = %s, q_set_id = %d, sched_id = %d, intf_type %s\n", \
downstream.c_str(), tm_q_set_id, tm_val.sched_id, \
GET_FLOW_INTERFACE_TYPE(cfg.data.ingress_intf.intf_type));
}
} else if (key.flow_type == BCMOLT_FLOW_TYPE_UPSTREAM) {
// NNI Scheduler ID
tm_val.sched_id = get_default_tm_sched_id(network_intf_id, upstream);
if (qos_type == BCMOLT_EGRESS_QOS_TYPE_FIXED_QUEUE) {
// Queue 0 on NNI scheduler
tm_val.queue_id = 0;
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.type, qos_type);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.tm_sched.id, tm_val.sched_id);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.u.fixed_queue.queue_id, tm_val.queue_id);
OPENOLT_LOG(DEBUG, openolt_log_id, "direction = %s, queue_id = %d, sched_id = %d, intf_type %s\n", \
upstream.c_str(), tm_val.queue_id, tm_val.sched_id, \
GET_FLOW_INTERFACE_TYPE(cfg.data.ingress_intf.intf_type));
} else if (qos_type == BCMOLT_EGRESS_QOS_TYPE_PRIORITY_TO_QUEUE) {
/* Fetch TM QMP ID mapped to US NNI scheduler */
tm_qmp_id = tm_q_set_id = get_tm_qmp_id(tm_val.sched_id, access_intf_id, onu_id, uni_id);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.type, qos_type);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.tm_sched.id, tm_val.sched_id);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.u.priority_to_queue.tm_qmp_id, tm_qmp_id);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.u.priority_to_queue.tm_q_set_id, tm_q_set_id);
OPENOLT_LOG(DEBUG, openolt_log_id, "direction = %s, q_set_id = %d, sched_id = %d, intf_type %s\n", \
upstream.c_str(), tm_q_set_id, tm_val.sched_id, \
GET_FLOW_INTERFACE_TYPE(cfg.data.ingress_intf.intf_type));
}
}
} else {
tm_val.sched_id = get_default_tm_sched_id(network_intf_id, upstream);
tm_val.queue_id = 0;
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.type, BCMOLT_EGRESS_QOS_TYPE_FIXED_QUEUE);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.tm_sched.id, tm_val.sched_id);
BCMOLT_MSG_FIELD_SET(&cfg , egress_qos.u.fixed_queue.queue_id, tm_val.queue_id);
OPENOLT_LOG(DEBUG, openolt_log_id, "direction = %s, queue_id = %d, sched_id = %d, intf_type %s\n", \
flow_type.c_str(), tm_val.queue_id, tm_val.sched_id, \
GET_FLOW_INTERFACE_TYPE(cfg.data.ingress_intf.intf_type));
}
BCMOLT_MSG_FIELD_SET(&cfg, state, BCMOLT_FLOW_STATE_ENABLE);
#ifndef SCALE_AND_PERF
// BAL 3.1 supports statistics only for unicast flows.
if (key.flow_type != BCMOLT_FLOW_TYPE_MULTICAST) {
BCMOLT_MSG_FIELD_SET(&cfg, statistics, BCMOLT_CONTROL_STATE_ENABLE);
}
#endif // SCALE_AND_PERF
#ifndef SCALE_AND_PERF
#ifdef FLOW_CHECKER
//Flow Checker, To avoid duplicate flow.
if (flow_id_counters != 0) {
bool b_duplicate_flow = false;
std::map<flow_pair, int>::iterator it;
for(it = flow_map.begin(); it != flow_map.end(); it++) {
b_duplicate_flow = (cfg.data.onu_id == get_flow_status(it->first.first, it->first.second, ONU_ID)) && \
(key.flow_type == it->first.second) && \
(cfg.data.svc_port_id == get_flow_status(it->first.first, it->first.second, SVC_PORT_ID)) && \
(cfg.data.priority == get_flow_status(it->first.first, it->first.second, PRIORITY)) && \
(cfg.data.cookie == get_flow_status(it->first.first, it->first.second, COOKIE)) && \
(cfg.data.ingress_intf.intf_type == get_flow_status(it->first.first, it->first.second, INGRESS_INTF_TYPE)) && \
(cfg.data.ingress_intf.intf_id == get_flow_status(it->first.first, it->first.second, INGRESS_INTF_ID)) && \
(cfg.data.egress_intf.intf_type == get_flow_status(it->first.first, it->first.second, EGRESS_INTF_TYPE)) && \
(cfg.data.egress_intf.intf_id == get_flow_status(it->first.first, it->first.second, EGRESS_INTF_ID)) && \
(c_val.o_vid == get_flow_status(it->first.first, it->first.second, CLASSIFIER_O_VID)) && \
(c_val.o_pbits == get_flow_status(it->first.first, it->first.second, CLASSIFIER_O_PBITS)) && \
(c_val.i_vid == get_flow_status(it->first.first, it->first.second, CLASSIFIER_I_VID)) && \
(c_val.i_pbits == get_flow_status(it->first.first, it->first.second, CLASSIFIER_I_PBITS)) && \
(c_val.ether_type == get_flow_status(it->first.first, it->first.second, CLASSIFIER_ETHER_TYPE)) && \
(c_val.ip_proto == get_flow_status(it->first.first, it->first.second, CLASSIFIER_IP_PROTO)) && \
(c_val.src_port == get_flow_status(it->first.first, it->first.second, CLASSIFIER_SRC_PORT)) && \
(c_val.dst_port == get_flow_status(it->first.first, it->first.second, CLASSIFIER_DST_PORT)) && \
(c_val.pkt_tag_type == get_flow_status(it->first.first, it->first.second, CLASSIFIER_PKT_TAG_TYPE)) && \
(cfg.data.egress_qos.type == get_flow_status(it->first.first, it->first.second, EGRESS_QOS_TYPE)) && \
(cfg.data.egress_qos.u.fixed_queue.queue_id == get_flow_status(it->first.first, it->first.second, EGRESS_QOS_QUEUE_ID)) && \
(cfg.data.egress_qos.tm_sched.id == get_flow_status(it->first.first, it->first.second, EGRESS_QOS_TM_SCHED_ID)) && \
(a_val.cmds_bitmask == get_flow_status(it->first.first, it->first.second, ACTION_CMDS_BITMASK)) && \
(a_val.o_vid == get_flow_status(it->first.first, it->first.second, ACTION_O_VID)) && \
(a_val.i_vid == get_flow_status(it->first.first, it->first.second, ACTION_I_VID)) && \
(a_val.o_pbits == get_flow_status(it->first.first, it->first.second, ACTION_O_PBITS)) && \
(a_val.i_pbits == get_flow_status(it->first.first, it->first.second, ACTION_I_PBITS)) && \
(cfg.data.state == get_flow_status(it->first.first, it->first.second, STATE)) && \
(cfg.data.group_id == get_flow_status(it->first.first, it->first.second, GROUP_ID));
#ifdef SHOW_FLOW_PARAM
// Flow Parameter
FLOW_PARAM_LOG();
#endif
if (b_duplicate_flow) {
FLOW_LOG(WARNING, "Flow duplicate", 0);
return bcm_to_grpc_err(BCM_ERR_ALREADY, "flow exists");
}
}
}
#endif // FLOW_CHECKER
#endif // SCALE_AND_PERF
bcmos_errno err = bcmolt_cfg_set(dev_id, &cfg.hdr);
if (err) {
FLOW_LOG(ERROR, "Flow add failed", err);
return bcm_to_grpc_err(err, "flow add failed");
} else {
FLOW_LOG(INFO, "Flow add ok", err);
bcmos_fastlock_lock(&data_lock);
flow_map[std::pair<int, int>(key.flow_id,key.flow_type)] = flow_map.size();
flow_id_counters = flow_map.size();
bcmos_fastlock_unlock(&data_lock, 0);
}
/*
Enable AES encryption on GEM ports if they are used in downstream unicast flows.
Rationale: We can't do upstream encryption in GPON. This change addresses the common denominator (and also minimum viable)
use case for both technologies which is downstream unicast GEM port encryption. Since the downstream traffic is inherently
broadcast to all the ONUs behind a PON port, encrypting the individual subscriber traffic in this direction is important
and considered good enough in terms of security (See Section 12.1 of G.984.3). For upstream unicast and downstream multicast
GEM encryption, we need to make additional changes specific to XGSPON. This will be done as a future work.
*/
if (aes_enabled && (access_intf_id >= 0) && (gemport_id >= GEM_PORT_ID_START) && (key.flow_type == BCMOLT_FLOW_TYPE_DOWNSTREAM)) {
OPENOLT_LOG(INFO, openolt_log_id, "Setting encryption on pon = %d gem_port = %d through flow_id = %d\n", access_intf_id, gemport_id, flow_id);
enable_encryption_for_gem_port(access_intf_id, gemport_id, board_technology);
} else {
OPENOLT_LOG(WARNING, openolt_log_id, "Flow config for flow_id = %d is not suitable for setting downstream encryption on pon = %d gem_port = %d. No action taken.\n", flow_id, access_intf_id, gemport_id);
}
return Status::OK;
}
Status FlowRemoveWrapper_(const ::openolt::Flow* request) {
int32_t access_intf_id = request->access_intf_id();
int32_t onu_id = request->onu_id();
int32_t uni_id = request->uni_id();
uint32_t tech_profile_id = request->tech_profile_id();
uint64_t voltha_flow_id = request->flow_id();
Status st;
// If Voltha flow is not installed, return fail
if (! is_voltha_flow_installed(voltha_flow_id)) {
OPENOLT_LOG(ERROR, openolt_log_id, "voltha_flow_id=%lu not found\n", voltha_flow_id);
return ::Status(grpc::StatusCode::NOT_FOUND, "voltha-flow-not-found");
}
const device_flow *dev_fl = get_device_flow(voltha_flow_id);
if (dev_fl == NULL) {
OPENOLT_LOG(ERROR, openolt_log_id, "device flow for voltha_flow_id=%lu in the cache is NULL\n", voltha_flow_id);
return ::Status(grpc::StatusCode::INTERNAL, "device-flow-null-in-cache");
}
std::string flow_type = dev_fl->flow_type;
if (dev_fl->is_flow_replicated) {
// Note: Here we are ignoring FlowRemove failures
for (int i=0; i<NUMBER_OF_REPLICATED_FLOWS; i++) {
st = FlowRemove_(dev_fl->params[i].flow_id, flow_type);
if (st.error_code() == grpc::StatusCode::OK) {
free_flow_id(dev_fl->params[i].flow_id);
}
}
} else {
// Note: Here we are ignoring FlowRemove failures
st = FlowRemove_(dev_fl->params[0].flow_id, flow_type);
if (st.error_code() == grpc::StatusCode::OK) {
free_flow_id(dev_fl->params[0].flow_id);
}
}
// remove the flow from cache on voltha flow removal
remove_voltha_flow_from_cache(voltha_flow_id);
symmetric_datapath_flow_id_map_key key(access_intf_id, onu_id, uni_id, tech_profile_id, flow_type);
// Remove onu-uni mapping for the pon-gem key
bcmos_fastlock_lock(&symmetric_datapath_flow_id_lock);
symmetric_datapath_flow_id_map.erase(key);
bcmos_fastlock_unlock(&symmetric_datapath_flow_id_lock, 0);
return Status::OK;
}
Status FlowRemove_(uint32_t flow_id, const std::string flow_type) {
bcmolt_flow_cfg cfg;
bcmolt_flow_key key = { };
key.flow_id = (bcmolt_flow_id) flow_id;
key.flow_id = flow_id;
if (flow_type == upstream) {
key.flow_type = BCMOLT_FLOW_TYPE_UPSTREAM;
} else if (flow_type == downstream) {
key.flow_type = BCMOLT_FLOW_TYPE_DOWNSTREAM;
} else if(flow_type == multicast) {
key.flow_type = BCMOLT_FLOW_TYPE_MULTICAST;
} else {
OPENOLT_LOG(WARNING, openolt_log_id, "Invalid flow type %s\n", flow_type.c_str());
return bcm_to_grpc_err(BCM_ERR_PARM, "Invalid flow type");
}
OPENOLT_LOG(INFO, openolt_log_id, "flow remove received for flow_id=%u, flow_type=%s\n",
flow_id, flow_type.c_str());
bcmos_fastlock_lock(&acl_packet_trap_handler_lock);
flow_id_flow_direction fl_id_fl_dir(flow_id, flow_type);
int32_t gemport_id = -1;
int32_t intf_id = -1;
int16_t acl_id = -1;
if (flow_to_acl_map.count(fl_id_fl_dir) > 0) {
acl_id_intf_id ac_id_if_id = flow_to_acl_map[fl_id_fl_dir];
acl_id = std::get<0>(ac_id_if_id);
intf_id = std::get<1>(ac_id_if_id);
// cleanup acl only if it is a valid acl. If not valid acl, it may be datapath flow.
if (acl_id >= 0) {
Status resp = handle_acl_rule_cleanup(acl_id, intf_id, flow_type);
if (resp.ok()) {
OPENOLT_LOG(INFO, openolt_log_id, "acl removed ok for flow_id = %u with acl_id = %d\n", flow_id, acl_id);
flow_to_acl_map.erase(fl_id_fl_dir);
// When flow is being removed, extract the value corresponding to flow_id from trap_to_host_pkt_info_with_vlan_for_flow_id if it exists
if (trap_to_host_pkt_info_with_vlan_for_flow_id.count(flow_id) > 0) {
trap_to_host_pkt_info_with_vlan pkt_info_with_vlan = trap_to_host_pkt_info_with_vlan_for_flow_id[flow_id];
// Formulate the trap_to_host_pkt_info tuple key
trap_to_host_pkt_info pkt_info(std::get<0>(pkt_info_with_vlan),
std::get<1>(pkt_info_with_vlan),
std::get<2>(pkt_info_with_vlan),
std::get<3>(pkt_info_with_vlan));
// Extract the value corresponding to trap_to_host_pkt_info key from trap_to_host_vlan_ids_for_trap_to_host_pkt_info
// The value is a list of vlan_ids for the given trap_to_host_pkt_info key
// Remove the vlan_id from the list that corresponded to the flow being removed.
if (trap_to_host_vlan_ids_for_trap_to_host_pkt_info.count(pkt_info) > 0) {
trap_to_host_vlan_ids_for_trap_to_host_pkt_info[pkt_info].remove(std::get<4>(pkt_info_with_vlan));
} else {
OPENOLT_LOG(ERROR, openolt_log_id, "trap-to-host with intf_type = %d, intf_id = %d, pkt_type = %d gemport_id = %d not found in trap_to_host_vlan_ids_for_trap_to_host_pkt_info map",
std::get<0>(pkt_info_with_vlan), std::get<1>(pkt_info_with_vlan), std::get<2>(pkt_info_with_vlan), std::get<3>(pkt_info_with_vlan));
}
} else {
OPENOLT_LOG(ERROR, openolt_log_id, "flow id = %u not found in trap_to_host_pkt_info_with_vlan_for_flow_id map", flow_id);
}
} else {
OPENOLT_LOG(ERROR, openolt_log_id, "acl remove error for flow_id = %u with acl_id = %d\n", flow_id, acl_id);
}
bcmos_fastlock_unlock(&acl_packet_trap_handler_lock, 0);
return resp;
}
}
bcmos_fastlock_unlock(&acl_packet_trap_handler_lock, 0);
bcmos_fastlock_lock(&data_lock);
uint32_t port_no = flowid_to_port[key.flow_id];
if (key.flow_type == BCMOLT_FLOW_TYPE_DOWNSTREAM) {
flowid_to_gemport.erase(key.flow_id);
port_to_flows[port_no].erase(key.flow_id);
if (port_to_flows[port_no].empty()) port_to_flows.erase(port_no);
}
else
{
flowid_to_port.erase(key.flow_id);
}
bcmos_fastlock_unlock(&data_lock, 0);
BCMOLT_CFG_INIT(&cfg, flow, key);
bcmos_errno err = bcmolt_cfg_clear(dev_id, &cfg.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Error while removing %s flow, flow_id=%d, err = %s (%d)\n", flow_type.c_str(), flow_id, cfg.hdr.hdr.err_text, err);
return Status(grpc::StatusCode::INTERNAL, "Failed to remove flow");
}
bcmos_fastlock_lock(&data_lock);
if (flow_id_counters != 0) {
std::map<flow_pair, int>::iterator it;
for(it = flow_map.begin(); it != flow_map.end(); it++) {
if (it->first.first == flow_id && it->first.second == key.flow_type) {
flow_id_counters -= 1;
flow_map.erase(it);
}
}
}
OPENOLT_LOG(INFO, openolt_log_id, "Flow %d, %s removed\n", flow_id, flow_type.c_str());
flow_to_acl_map.erase(fl_id_fl_dir);
bcmos_fastlock_unlock(&data_lock, 0);
return Status::OK;
}
bcmos_errno CreateDefaultSched(uint32_t intf_id, const std::string direction) {
bcmos_errno err;
bcmolt_tm_sched_cfg tm_sched_cfg;
bcmolt_tm_sched_key tm_sched_key = {.id = 1};
tm_sched_key.id = get_default_tm_sched_id(intf_id, direction);
//check TM scheduler has configured or not
BCMOLT_CFG_INIT(&tm_sched_cfg, tm_sched, tm_sched_key);
BCMOLT_MSG_FIELD_GET(&tm_sched_cfg, state);
#ifdef TEST_MODE
// It is impossible to mock the setting of tm_sched_cfg.data.state because
// the actual bcmolt_cfg_get passes the address of tm_sched_cfg.hdr and we cannot
// set the tm_sched_cfg.data.state. So a new stub function is created and address
// of tm_sched_cfg is passed. This is one-of case where we need to add test specific
// code in production code.
err = bcmolt_cfg_get__tm_sched_stub(dev_id, &tm_sched_cfg);
#else
err = bcmolt_cfg_get(dev_id, &tm_sched_cfg.hdr);
#endif
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "cfg: Failed to query TM scheduler, err = %s (%d)\n", tm_sched_cfg.hdr.hdr.err_text, err);
return err;
}
else if (tm_sched_cfg.data.state == BCMOLT_CONFIG_STATE_CONFIGURED) {
OPENOLT_LOG(WARNING, openolt_log_id, "tm scheduler default config has already with id %d\n", tm_sched_key.id);
return BCM_ERR_OK;
}
// bcmbal_tm_sched_owner
BCMOLT_CFG_INIT(&tm_sched_cfg, tm_sched, tm_sched_key);
/**< The output of the tm_sched object instance */
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, attachment_point.type, BCMOLT_TM_SCHED_OUTPUT_TYPE_INTERFACE);
if (direction == upstream) {
// In upstream it is NNI scheduler
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, attachment_point.u.interface.interface_ref.intf_type, BCMOLT_INTERFACE_TYPE_NNI);
} else if (direction == downstream) {
// In downstream it is PON scheduler
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, attachment_point.u.interface.interface_ref.intf_type, BCMOLT_INTERFACE_TYPE_PON);
}
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, attachment_point.u.interface.interface_ref.intf_id, intf_id);
// bcmbal_tm_sched_type
// set the deafult policy to strict priority
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, sched_type, BCMOLT_TM_SCHED_TYPE_SP);
// num_priorities: Max number of strict priority scheduling elements
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, num_priorities, NUM_OF_PRIORITIES);
err = bcmolt_cfg_set(dev_id, &tm_sched_cfg.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to create %s scheduler, id %d, intf_id %d, err = %s\n",
direction.c_str(), tm_sched_key.id, intf_id, bcmos_strerror(err));
return err;
}
OPENOLT_LOG(INFO, openolt_log_id, "Create %s scheduler success, id %d, intf_id %d\n", \
direction.c_str(), tm_sched_key.id, intf_id);
return BCM_ERR_OK;
}
bcmos_errno CreateSched(std::string direction, uint32_t intf_id, uint32_t onu_id, uint32_t uni_id, uint32_t port_no,
uint32_t alloc_id, ::tech_profile::AdditionalBW additional_bw, uint32_t weight, uint32_t priority,
::tech_profile::SchedulingPolicy sched_policy, ::tech_profile::TrafficShapingInfo tf_sh_info,
uint32_t tech_profile_id) {
bcmos_errno err;
if (direction == downstream) {
bcmolt_tm_sched_cfg tm_sched_cfg;
bcmolt_tm_sched_key tm_sched_key = {.id = 1};
tm_sched_key.id = get_tm_sched_id(intf_id, onu_id, uni_id, direction, tech_profile_id);
// bcmbal_tm_sched_owner
// In downstream it is sub_term scheduler
BCMOLT_CFG_INIT(&tm_sched_cfg, tm_sched, tm_sched_key);
/**< The output of the tm_sched object instance */
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, attachment_point.type, BCMOLT_TM_SCHED_OUTPUT_TYPE_TM_SCHED);
// bcmbal_tm_sched_parent
// The parent for the sub_term scheduler is the PON scheduler in the downstream
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, attachment_point.u.tm_sched.tm_sched_id, get_default_tm_sched_id(intf_id, direction));
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, attachment_point.u.tm_sched.tm_sched_param.type, BCMOLT_TM_SCHED_PARAM_TYPE_PRIORITY);
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, attachment_point.u.tm_sched.tm_sched_param.u.priority.priority, priority);
/* removed by BAL v3.0, N/A - No direct attachment point of type ONU, same functionality may
be achieved using the' virtual' type of attachment.
tm_sched_owner.u.sub_term.intf_id = intf_id;
tm_sched_owner.u.sub_term.sub_term_id = onu_id;
*/
// bcmbal_tm_sched_type
// set the deafult policy to strict priority
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, sched_type, BCMOLT_TM_SCHED_TYPE_SP);
// num_priorities: Max number of strict priority scheduling elements
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, num_priorities, 8);
// bcmbal_tm_shaping
if (tf_sh_info.cir() >= 0 && tf_sh_info.pir() > 0) {
uint32_t cir = tf_sh_info.cir();
uint32_t pir = tf_sh_info.pir();
uint32_t burst = tf_sh_info.pbs();
OPENOLT_LOG(INFO, openolt_log_id, "applying traffic shaping in DL cir=%u, pir=%u, burst=%u\n",
cir, pir, burst);
BCMOLT_FIELD_SET_PRESENT(&tm_sched_cfg.data.rate, tm_shaping, pir);
BCMOLT_FIELD_SET_PRESENT(&tm_sched_cfg.data.rate, tm_shaping, burst);
// FIXME: Setting CIR, results in BAL throwing error 'tm_sched minimum rate is not supported yet'
//BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, rate.cir, cir);
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, rate.pir, pir);
BCMOLT_MSG_FIELD_SET(&tm_sched_cfg, rate.burst, burst);
}
err = bcmolt_cfg_set(dev_id, &tm_sched_cfg.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to create downstream subscriber scheduler, id %d, \
intf_id %d, onu_id %d, uni_id %d, port_no %u, err = %s (%d)\n", tm_sched_key.id, intf_id, onu_id, uni_id, \
port_no, tm_sched_cfg.hdr.hdr.err_text, err);
return err;
}
OPENOLT_LOG(INFO, openolt_log_id, "Create downstream subscriber sched, id %d, intf_id %d, onu_id %d, \
uni_id %d, port_no %u\n", tm_sched_key.id, intf_id, onu_id, uni_id, port_no);
} else { //upstream
bcmolt_itupon_alloc_cfg cfg;
bcmolt_itupon_alloc_key key = { };
key.pon_ni = intf_id;
key.alloc_id = alloc_id;
int bw_granularity = (board_technology == "XGS-PON")?XGS_BANDWIDTH_GRANULARITY:GPON_BANDWIDTH_GRANULARITY;
/*
PIR: Maximum Bandwidth
CIR: Assured Bandwidth
GIR: Fixed Bandwidth
*/
int pir_bw = tf_sh_info.pir()*125; // conversion from kbps to bytes/sec
int cir_bw = tf_sh_info.cir()*125; // conversion from kbps to bytes/sec
int gir_bw = tf_sh_info.gir()*125; // conversion from kbps to bytes/sec
int guaranteed_bw = cir_bw+gir_bw;
//offset to match bandwidth granularity
int offset_pir_bw = pir_bw%bw_granularity;
int offset_gir_bw = gir_bw%bw_granularity;
int offset_guaranteed_bw = guaranteed_bw%bw_granularity;
pir_bw = pir_bw - offset_pir_bw;
gir_bw = gir_bw - offset_gir_bw;
guaranteed_bw = guaranteed_bw - offset_guaranteed_bw;
BCMOLT_CFG_INIT(&cfg, itupon_alloc, key);
OPENOLT_LOG(INFO, openolt_log_id, "Creating alloc_id %d with pir = %d bytes/sec, cir = %d bytes/sec, gir = %d bytes/sec, additional_bw = %d.\n", alloc_id, pir_bw, cir_bw, gir_bw, additional_bw);
if (pir_bw == 0) {
OPENOLT_LOG(ERROR, openolt_log_id, "Maximum bandwidth must be at least %d bytes/sec\n",
(board_technology == "XGS-PON")?XGS_BANDWIDTH_GRANULARITY:GPON_BANDWIDTH_GRANULARITY);
return BCM_ERR_PARM;
} else if (pir_bw < guaranteed_bw) {
OPENOLT_LOG(ERROR, openolt_log_id, "Maximum bandwidth (%d) can't be less than Guaranteed bandwidth (%d)\n",
pir_bw, guaranteed_bw);
return BCM_ERR_PARM;
}
// Setting additional bw eligibility and validating bw provisionings
switch (additional_bw) {
case tech_profile::AdditionalBW::AdditionalBW_BestEffort: //AdditionalBW_BestEffort - For T-Cont types 4 & 5
if (pir_bw == guaranteed_bw) {
OPENOLT_LOG(ERROR, openolt_log_id, "Maximum bandwidth must be greater than Guaranteed \
bandwidth for additional bandwidth eligibility of type Best Effort\n");
return BCM_ERR_PARM;
}
BCMOLT_MSG_FIELD_SET(&cfg, sla.additional_bw_eligibility, BCMOLT_ADDITIONAL_BW_ELIGIBILITY_BEST_EFFORT);
break;
case tech_profile::AdditionalBW::AdditionalBW_NA: //AdditionalBW_NA - For T-Cont types 3 & 5
if (guaranteed_bw == 0) {
OPENOLT_LOG(ERROR, openolt_log_id, "Guaranteed bandwidth must be greater than zero for \
additional bandwidth eligibility of type Non-Assured (NA)\n");
return BCM_ERR_PARM;
} else if (pir_bw == guaranteed_bw) {
OPENOLT_LOG(ERROR, openolt_log_id, "Maximum bandwidth must be greater than Guaranteed \
bandwidth for additional bandwidth eligibility of type Non-Assured\n");
return BCM_ERR_PARM;
}
BCMOLT_MSG_FIELD_SET(&cfg, sla.additional_bw_eligibility, BCMOLT_ADDITIONAL_BW_ELIGIBILITY_NON_ASSURED);
break;
case tech_profile::AdditionalBW::AdditionalBW_None: //AdditionalBW_None - For T-Cont types 1 & 2
if (guaranteed_bw != pir_bw) {
OPENOLT_LOG(ERROR, openolt_log_id, "Guaranteed bandwidth must be equal to maximum bandwidth \
for additional bandwidth eligibility of type None\n");
return BCM_ERR_PARM;
}
BCMOLT_MSG_FIELD_SET(&cfg, sla.additional_bw_eligibility, BCMOLT_ADDITIONAL_BW_ELIGIBILITY_NONE);
break;
default:
OPENOLT_LOG(ERROR, openolt_log_id, "Invalid additional bandwidth eligibility value (%d) supplied.\n", additional_bw);
return BCM_ERR_PARM;
}
/* CBR Real Time Bandwidth which require shaping of the bandwidth allocations
in a fine granularity. */
BCMOLT_MSG_FIELD_SET(&cfg, sla.cbr_rt_bw, 0);
/* Since we can assign minimum 64000 bytes/sec for cbr_rt_bw, we prefer assigning
gir_bw to cbr_nrt_bw to allow smaller amounts.
TODO: Specify CBR_RT_BW and CBR_NRT_BW separately from VOLTHA */
/* Fixed Bandwidth with no critical requirement of shaping */
BCMOLT_MSG_FIELD_SET(&cfg, sla.cbr_nrt_bw, gir_bw);
/* Dynamic bandwidth which the OLT is committed to allocate upon demand */
BCMOLT_MSG_FIELD_SET(&cfg, sla.guaranteed_bw, guaranteed_bw);
/* Maximum allocated bandwidth allowed for this alloc ID */
BCMOLT_MSG_FIELD_SET(&cfg, sla.maximum_bw, pir_bw);
if (pir_bw == gir_bw) { // T-Cont Type 1 --> set alloc type to NONE
// the condition cir_bw == 0 is implicitly satistied
OPENOLT_LOG(INFO, openolt_log_id, "Setting alloc type to NONE since maximum bandwidth is equal to fixed bandwidth\n");
BCMOLT_MSG_FIELD_SET(&cfg, sla.alloc_type, BCMOLT_ALLOC_TYPE_NONE);
} else { // For other T-Cont types, set alloc type to NSR. TODO: read the default from a config file.
BCMOLT_MSG_FIELD_SET(&cfg, sla.alloc_type, BCMOLT_ALLOC_TYPE_NSR);
}
/* Set to True for AllocID with CBR RT Bandwidth that requires compensation
for skipped allocations during quiet window */
BCMOLT_MSG_FIELD_SET(&cfg, sla.cbr_rt_compensation, BCMOS_FALSE);
/**< Allocation Profile index for CBR non-RT Bandwidth */
BCMOLT_MSG_FIELD_SET(&cfg, sla.cbr_nrt_ap_index, 0);
/**< Allocation Profile index for CBR RT Bandwidth */
BCMOLT_MSG_FIELD_SET(&cfg, sla.cbr_rt_ap_index, 0);
/**< Alloc ID Weight used in case of Extended DBA mode */
BCMOLT_MSG_FIELD_SET(&cfg, sla.weight, 0);
/**< Alloc ID Priority used in case of Extended DBA mode */
BCMOLT_MSG_FIELD_SET(&cfg, sla.priority, 0);
BCMOLT_MSG_FIELD_SET(&cfg, onu_id, onu_id);
bcmolt_onu_state onu_state;
bool wait_for_alloc_cfg_cmplt = false;
err = get_onu_state((bcmolt_interface)intf_id, (bcmolt_onu_id)onu_id, &onu_state);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to fetch onu status, intf_id = %d, onu_id = %d, err = %s\n",
intf_id, onu_id, bcmos_strerror(err));
return err;
} else if (onu_state == BCMOLT_ONU_STATE_ACTIVE) {
wait_for_alloc_cfg_cmplt = true;
}
err = bcmolt_cfg_set(dev_id, &cfg.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to create upstream bandwidth allocation, intf_id %d, onu_id %d, uni_id %d,\
port_no %u, alloc_id %d, err = %s (%d)\n", intf_id, onu_id,uni_id,port_no,alloc_id, cfg.hdr.hdr.err_text, err);
return err;
} else if (wait_for_alloc_cfg_cmplt) {
err = wait_for_alloc_action(intf_id, alloc_id, ALLOC_OBJECT_CREATE);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to create upstream bandwidth allocation, intf_id %d, onu_id %d, uni_id %d,\
port_no %u, alloc_id %d, err = %s\n", intf_id, onu_id,uni_id,port_no,alloc_id, bcmos_strerror(err));
return err;
}
} else {
OPENOLT_LOG(INFO, openolt_log_id, "onu not active, not waiting for alloc cfg complete, onu_state = %d, intf = %d, onu=%d\n",
onu_state, intf_id, onu_id);
}
OPENOLT_LOG(INFO, openolt_log_id, "create upstream bandwidth allocation success, intf_id %d, onu_id %d, uni_id %d,\
port_no %u, alloc_id %d\n", intf_id, onu_id,uni_id,port_no,alloc_id);
}
return BCM_ERR_OK;
}
Status CreateTrafficSchedulers_(const ::tech_profile::TrafficSchedulers *traffic_scheds) {
uint32_t intf_id = traffic_scheds->intf_id();
uint32_t onu_id = traffic_scheds->onu_id();
uint32_t uni_id = traffic_scheds->uni_id();
uint32_t port_no = traffic_scheds->port_no();
std::string direction;
unsigned int alloc_id;
::tech_profile::SchedulerConfig sched_config;
::tech_profile::AdditionalBW additional_bw;
uint32_t priority;
uint32_t weight;
::tech_profile::SchedulingPolicy sched_policy;
::tech_profile::TrafficShapingInfo traffic_shaping_info;
uint32_t tech_profile_id;
bcmos_errno err;
for (int i = 0; i < traffic_scheds->traffic_scheds_size(); i++) {
::tech_profile::TrafficScheduler traffic_sched = traffic_scheds->traffic_scheds(i);
direction = GetDirection(traffic_sched.direction());
if (direction == "direction-not-supported") {
return bcm_to_grpc_err(BCM_ERR_PARM, "direction-not-supported");
}
alloc_id = traffic_sched.alloc_id();
sched_config = traffic_sched.scheduler();
additional_bw = sched_config.additional_bw();
priority = sched_config.priority();
weight = sched_config.weight();
sched_policy = sched_config.sched_policy();
traffic_shaping_info = traffic_sched.traffic_shaping_info();
tech_profile_id = traffic_sched.tech_profile_id();
err = CreateSched(direction, intf_id, onu_id, uni_id, port_no, alloc_id, additional_bw, weight, priority,
sched_policy, traffic_shaping_info, tech_profile_id);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to create scheduler, err = %s\n", bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to create scheduler");
}
}
return Status::OK;
}
bcmos_errno RemoveSched(int intf_id, int onu_id, int uni_id, int alloc_id, std::string direction, int tech_profile_id) {
bcmos_errno err;
bcmolt_onu_state onu_state;
uint16_t sched_id;
if (direction == upstream) {
bcmolt_itupon_alloc_cfg cfg;
bcmolt_itupon_alloc_key key = { };
key.pon_ni = intf_id;
key.alloc_id = alloc_id;
sched_id = alloc_id;
bcmolt_onu_state onu_state;
bool wait_for_alloc_cfg_cmplt = false;
err = get_onu_state((bcmolt_interface)intf_id, (bcmolt_onu_id)onu_id, &onu_state);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to fetch onu status, intf_id = %d, onu_id = %d, err = %s\n",
intf_id, onu_id, bcmos_strerror(err));
return err;
} else if (onu_state == BCMOLT_ONU_STATE_ACTIVE) {
wait_for_alloc_cfg_cmplt = true;
}
BCMOLT_CFG_INIT(&cfg, itupon_alloc, key);
err = bcmolt_cfg_clear(dev_id, &cfg.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to remove scheduler, direction = %s, intf_id %d, alloc_id %d, err = %s (%d)\n",
direction.c_str(), intf_id, alloc_id, cfg.hdr.hdr.err_text, err);
return err;
} else if (wait_for_alloc_cfg_cmplt) {
err = wait_for_alloc_action(intf_id, alloc_id, ALLOC_OBJECT_DELETE);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to remove upstream bandwidth allocation, intf_id %d, onu_id %d, uni_id %d,\
pon_intf %u, alloc_id %d, err = %s\n", intf_id, onu_id,uni_id,intf_id,alloc_id, bcmos_strerror(err));
return err;
}
} else {
OPENOLT_LOG(INFO, openolt_log_id, "onu not active, not waiting for alloc cfg complete, onu_state = %d, intf = %d, onu=%d\n",
onu_state, intf_id, onu_id);
}
} else if (direction == downstream) {
bcmolt_tm_sched_cfg cfg;
bcmolt_tm_sched_key key = { };
if (is_tm_sched_id_present(intf_id, onu_id, uni_id, direction, tech_profile_id)) {
key.id = get_tm_sched_id(intf_id, onu_id, uni_id, direction, tech_profile_id);
sched_id = key.id;
} else {
OPENOLT_LOG(INFO, openolt_log_id, "schduler not present in %s, err %d\n", direction.c_str(), err);
return BCM_ERR_OK;
}
BCMOLT_CFG_INIT(&cfg, tm_sched, key);
err = bcmolt_cfg_clear(dev_id, &(cfg.hdr));
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to remove scheduler, direction = %s, sched_id %d, \
intf_id %d, onu_id %d, tech_profile_id %d, err = %s (%d)\n", direction.c_str(), key.id, intf_id, onu_id, tech_profile_id, cfg.hdr.hdr.err_text, err);
return err;
}
}
OPENOLT_LOG(INFO, openolt_log_id, "Removed sched, direction = %s, id %d, intf_id %d, onu_id %d, tech_profile_id %d\n",
direction.c_str(), sched_id, intf_id, onu_id, tech_profile_id);
free_tm_sched_id(intf_id, onu_id, uni_id, direction, tech_profile_id);
return BCM_ERR_OK;
}
Status RemoveTrafficSchedulers_(const ::tech_profile::TrafficSchedulers *traffic_scheds) {
uint32_t intf_id = traffic_scheds->intf_id();
uint32_t onu_id = traffic_scheds->onu_id();
uint32_t uni_id = traffic_scheds->uni_id();
std::string direction;
uint32_t tech_profile_id;
bcmos_errno err;
for (int i = 0; i < traffic_scheds->traffic_scheds_size(); i++) {
::tech_profile::TrafficScheduler traffic_sched = traffic_scheds->traffic_scheds(i);
direction = GetDirection(traffic_sched.direction());
if (direction == "direction-not-supported") {
return bcm_to_grpc_err(BCM_ERR_PARM, "direction-not-supported");
}
int alloc_id = traffic_sched.alloc_id();
int tech_profile_id = traffic_sched.tech_profile_id();
err = RemoveSched(intf_id, onu_id, uni_id, alloc_id, direction, tech_profile_id);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Error-removing-traffic-scheduler, err = %s\n",bcmos_strerror(err));
return bcm_to_grpc_err(err, "error-removing-traffic-scheduler");
}
}
return Status::OK;
}
bcmos_errno CreateTrafficQueueMappingProfile(uint32_t sched_id, uint32_t intf_id, uint32_t onu_id, uint32_t uni_id, \
std::string direction, std::vector<uint32_t> tmq_map_profile) {
bcmos_errno err;
bcmolt_tm_qmp_cfg tm_qmp_cfg;
bcmolt_tm_qmp_key tm_qmp_key;
bcmolt_arr_u8_8 pbits_to_tmq_id = {0};
int tm_qmp_id = get_tm_qmp_id(sched_id, intf_id, onu_id, uni_id, tmq_map_profile);
if (tm_qmp_id == -1) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to create tm queue mapping profile. Max allowed tm queue mapping profile count is 16.\n");
return BCM_ERR_RANGE;
}
tm_qmp_key.id = tm_qmp_id;
for (uint32_t priority=0; priority<tmq_map_profile.size(); priority++) {
pbits_to_tmq_id.arr[priority] = tmq_map_profile[priority];
}
BCMOLT_CFG_INIT(&tm_qmp_cfg, tm_qmp, tm_qmp_key);
BCMOLT_MSG_FIELD_SET(&tm_qmp_cfg, type, BCMOLT_TM_QMP_TYPE_PBITS);
BCMOLT_MSG_FIELD_SET(&tm_qmp_cfg, pbits_to_tmq_id, pbits_to_tmq_id);
//BCMOLT_MSG_FIELD_SET(&tm_qmp_cfg, ref_count, 0);
//BCMOLT_MSG_FIELD_SET(&tm_qmp_cfg, state, BCMOLT_CONFIG_STATE_CONFIGURED);
err = bcmolt_cfg_set(dev_id, &tm_qmp_cfg.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to create tm queue mapping profile, tm_qmp_id %d, err = %s\n",
tm_qmp_key.id, bcmos_strerror(err));
return err;
}
OPENOLT_LOG(INFO, openolt_log_id, "Create tm queue mapping profile success, id %d\n", \
tm_qmp_key.id);
return BCM_ERR_OK;
}
bcmos_errno RemoveTrafficQueueMappingProfile(uint32_t tm_qmp_id) {
bcmos_errno err;
bcmolt_tm_qmp_cfg tm_qmp_cfg;
bcmolt_tm_qmp_key tm_qmp_key;
tm_qmp_key.id = tm_qmp_id;
BCMOLT_CFG_INIT(&tm_qmp_cfg, tm_qmp, tm_qmp_key);
err = bcmolt_cfg_clear(dev_id, &tm_qmp_cfg.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to remove tm queue mapping profile, tm_qmp_id %d, err = %s\n",
tm_qmp_key.id, bcmos_strerror(err));
return err;
}
OPENOLT_LOG(INFO, openolt_log_id, "Remove tm queue mapping profile success, id %d\n", \
tm_qmp_key.id);
return BCM_ERR_OK;
}
bcmos_errno CreateDefaultQueue(uint32_t intf_id, const std::string direction) {
bcmos_errno err;
/* Create default queues on the given PON/NNI scheduler */
for (int queue_id = 0; queue_id < NUMBER_OF_DEFAULT_INTERFACE_QUEUES; queue_id++) {
bcmolt_tm_queue_cfg tm_queue_cfg;
bcmolt_tm_queue_key tm_queue_key = {};
tm_queue_key.sched_id = get_default_tm_sched_id(intf_id, direction);
tm_queue_key.id = queue_id;
/* DefaultQueues on PON/NNI schedulers are created with egress_qos_type as
BCMOLT_EGRESS_QOS_TYPE_FIXED_QUEUE - with tm_q_set_id 32768 */
tm_queue_key.tm_q_set_id = BCMOLT_TM_QUEUE_SET_ID_QSET_NOT_USE;
BCMOLT_CFG_INIT(&tm_queue_cfg, tm_queue, tm_queue_key);
BCMOLT_MSG_FIELD_SET(&tm_queue_cfg, tm_sched_param.type, BCMOLT_TM_SCHED_PARAM_TYPE_PRIORITY);
BCMOLT_MSG_FIELD_SET(&tm_queue_cfg, tm_sched_param.u.priority.priority, queue_id);
err = bcmolt_cfg_set(dev_id, &tm_queue_cfg.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to create %s tm queue, id %d, sched_id %d, tm_q_set_id %d, err = %s\n", \
direction.c_str(), tm_queue_key.id, tm_queue_key.sched_id, tm_queue_key.tm_q_set_id, bcmos_strerror(err));
return err;
}
OPENOLT_LOG(INFO, openolt_log_id, "Create %s tm_queue success, id %d, sched_id %d, tm_q_set_id %d\n", \
direction.c_str(), tm_queue_key.id, tm_queue_key.sched_id, tm_queue_key.tm_q_set_id);
}
return BCM_ERR_OK;
}
bcmos_errno CreateQueue(std::string direction, uint32_t access_intf_id, uint32_t onu_id, uint32_t uni_id,
bcmolt_egress_qos_type qos_type, uint32_t priority, uint32_t gemport_id, uint32_t tech_profile_id) {
bcmos_errno err;
bcmolt_tm_queue_cfg cfg;
bcmolt_tm_queue_key key = { };
OPENOLT_LOG(INFO, openolt_log_id, "creating %s queue. access_intf_id = %d, onu_id = %d, uni_id = %d \
gemport_id = %d, tech_profile_id = %d\n", direction.c_str(), access_intf_id, onu_id, uni_id, gemport_id, tech_profile_id);
key.sched_id = (direction == upstream) ? get_default_tm_sched_id(nni_intf_id, direction) : \
get_tm_sched_id(access_intf_id, onu_id, uni_id, direction, tech_profile_id);
if (priority > 7) {
return BCM_ERR_RANGE;
}
/* FIXME: The upstream queues have to be created once only.
The upstream queues on the NNI scheduler are shared by all subscribers.
When the first scheduler comes in, the queues get created, and are re-used by all others.
Also, these queues should be present until the last subscriber exits the system.
One solution is to have these queues always, i.e., create it as soon as OLT is enabled.
There is one queue per gem port and Queue ID is fetched based on priority_q configuration
for each GEM in TECH PROFILE */
key.id = queue_id_list[priority];
if (qos_type == BCMOLT_EGRESS_QOS_TYPE_FIXED_QUEUE) {
// Reset the Queue ID to 0, if it is fixed queue, i.e., there is only one queue for subscriber.
key.id = 0;
key.tm_q_set_id = BCMOLT_TM_QUEUE_SET_ID_QSET_NOT_USE;
}
else if (qos_type == BCMOLT_EGRESS_QOS_TYPE_PRIORITY_TO_QUEUE) {
key.tm_q_set_id = get_tm_qmp_id(key.sched_id, access_intf_id, onu_id, uni_id);
}
else {
key.tm_q_set_id = BCMOLT_TM_QUEUE_KEY_TM_Q_SET_ID_DEFAULT;
}
OPENOLT_LOG(INFO, openolt_log_id, "queue assigned queue_id = %d\n", key.id);
BCMOLT_CFG_INIT(&cfg, tm_queue, key);
BCMOLT_MSG_FIELD_SET(&cfg, tm_sched_param.u.priority.priority, priority);
BCMOLT_MSG_FIELD_SET(&cfg, tm_sched_param.type, BCMOLT_TM_SCHED_PARAM_TYPE_PRIORITY);
err = bcmolt_cfg_set(dev_id, &cfg.hdr);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to create subscriber tm queue, direction = %s, queue_id %d, \
sched_id %d, tm_q_set_id %d, intf_id %d, onu_id %d, uni_id %d, tech_profile_id %d, err = %s (%d)\n", \
direction.c_str(), key.id, key.sched_id, key.tm_q_set_id, access_intf_id, onu_id, uni_id, tech_profile_id, cfg.hdr.hdr.err_text, err);
return err;
}
if (direction == upstream || direction == downstream) {
Status st = install_gem_port(access_intf_id, onu_id, uni_id, gemport_id, board_technology);
if (st.error_code() != grpc::StatusCode::ALREADY_EXISTS && st.error_code() != grpc::StatusCode::OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "failed to created gemport=%d, access_intf=%d, onu_id=%d\n", gemport_id, access_intf_id, onu_id);
return BCM_ERR_INTERNAL;
}
if (direction == upstream) {
// Create the pon-gem to onu-uni mapping
pon_gem pg(access_intf_id, gemport_id);
onu_uni ou(onu_id, uni_id);
bcmos_fastlock_lock(&pon_gem_to_onu_uni_map_lock);
pon_gem_to_onu_uni_map[pg] = ou;
bcmos_fastlock_unlock(&pon_gem_to_onu_uni_map_lock, 0);
}
}
OPENOLT_LOG(INFO, openolt_log_id, "Created tm_queue, direction %s, id %d, sched_id %d, tm_q_set_id %d, \
intf_id %d, onu_id %d, uni_id %d, tech_profiled_id %d\n", direction.c_str(), key.id, key.sched_id, key.tm_q_set_id, access_intf_id, onu_id, uni_id, tech_profile_id);
return BCM_ERR_OK;
}
Status CreateTrafficQueues_(const ::tech_profile::TrafficQueues *traffic_queues) {
uint32_t intf_id = traffic_queues->intf_id();
uint32_t onu_id = traffic_queues->onu_id();
uint32_t uni_id = traffic_queues->uni_id();
uint32_t tech_profile_id = traffic_queues->tech_profile_id();
uint32_t sched_id;
std::string direction;
bcmos_errno err;
bcmolt_egress_qos_type qos_type = get_qos_type(intf_id, onu_id, uni_id, traffic_queues->traffic_queues_size());
if (qos_type == BCMOLT_EGRESS_QOS_TYPE_PRIORITY_TO_QUEUE) {
uint32_t queues_priority_q[traffic_queues->traffic_queues_size()] = {0};
std::string queues_pbit_map[traffic_queues->traffic_queues_size()];
for (int i = 0; i < traffic_queues->traffic_queues_size(); i++) {
::tech_profile::TrafficQueue traffic_queue = traffic_queues->traffic_queues(i);
direction = GetDirection(traffic_queue.direction());
if (direction == "direction-not-supported") {
return bcm_to_grpc_err(BCM_ERR_PARM, "direction-not-supported");
}
queues_priority_q[i] = traffic_queue.priority();
queues_pbit_map[i] = traffic_queue.pbit_map();
}
std::vector<uint32_t> tmq_map_profile(8, 0);
tmq_map_profile = get_tmq_map_profile(get_valid_queues_pbit_map(queues_pbit_map, COUNT_OF(queues_pbit_map)), \
queues_priority_q, COUNT_OF(queues_priority_q));
sched_id = (direction == upstream) ? get_default_tm_sched_id(nni_intf_id, direction) : \
get_tm_sched_id(intf_id, onu_id, uni_id, direction, tech_profile_id);
int tm_qmp_id = get_tm_qmp_id(tmq_map_profile);
if (tm_qmp_id == -1) {
err = CreateTrafficQueueMappingProfile(sched_id, intf_id, onu_id, uni_id, direction, tmq_map_profile);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to create tm queue mapping profile, err = %s\n", bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to create tm queue mapping profile");
}
} else if (tm_qmp_id != -1 && get_tm_qmp_id(sched_id, intf_id, onu_id, uni_id) == -1) {
OPENOLT_LOG(INFO, openolt_log_id, "tm queue mapping profile present already with id %d\n", tm_qmp_id);
update_sched_qmp_id_map(sched_id, intf_id, onu_id, uni_id, tm_qmp_id);
}
}
for (int i = 0; i < traffic_queues->traffic_queues_size(); i++) {
::tech_profile::TrafficQueue traffic_queue = traffic_queues->traffic_queues(i);
direction = GetDirection(traffic_queue.direction());
if (direction == "direction-not-supported") {
return bcm_to_grpc_err(BCM_ERR_PARM, "direction-not-supported");
}
err = CreateQueue(direction, intf_id, onu_id, uni_id, qos_type, traffic_queue.priority(), traffic_queue.gemport_id(), tech_profile_id);
// If the queue exists already, lets not return failure and break the loop.
if (err && err != BCM_ERR_ALREADY) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to create queue, err = %s\n",bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to create queue");
}
}
return Status::OK;
}
bcmos_errno RemoveQueue(std::string direction, uint32_t access_intf_id, uint32_t onu_id, uint32_t uni_id,
bcmolt_egress_qos_type qos_type, uint32_t priority, uint32_t gemport_id, uint32_t tech_profile_id) {
bcmolt_tm_queue_cfg cfg;
bcmolt_tm_queue_key key = { };
bcmos_errno err;
// Gemports are bi-directional (except in multicast case). We create the gem port when we create the
// upstream/downstream queue (see CreateQueue function) and it makes sense to delete them when remove the queues.
// For multicast case we do not manage the install/remove of gem port in agent application. It is managed by BAL.
if (direction == upstream || direction == downstream) {
Status st = remove_gem_port(access_intf_id, onu_id, uni_id, gemport_id, board_technology);
if (st.error_code() != grpc::StatusCode::OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "failed to remove gemport=%d, access_intf=%d, onu_id=%d\n", gemport_id, access_intf_id, onu_id);
// We should further cleanup proceed, do not return error yet..
// return BCM_ERR_INTERNAL;
}
if (direction == upstream) {
// Remove the pon-gem to onu-uni mapping
pon_gem pg(access_intf_id, gemport_id);
bcmos_fastlock_lock(&pon_gem_to_onu_uni_map_lock);
pon_gem_to_onu_uni_map.erase(pg);
bcmos_fastlock_unlock(&pon_gem_to_onu_uni_map_lock, 0);
}
}
if (direction == downstream) {
if (is_tm_sched_id_present(access_intf_id, onu_id, uni_id, direction, tech_profile_id)) {
key.sched_id = get_tm_sched_id(access_intf_id, onu_id, uni_id, direction, tech_profile_id);
key.id = queue_id_list[priority];
} else {
OPENOLT_LOG(INFO, openolt_log_id, "queue not present in DS. Not clearing, access_intf_id %d, onu_id %d, uni_id %d, gemport_id %d, direction %s\n", access_intf_id, onu_id, uni_id, gemport_id, direction.c_str());
return BCM_ERR_OK;
}
} else {
/* In the upstream we use pre-created queues on the NNI scheduler that are used by all subscribers.
They should not be removed. So, lets return OK. */
return BCM_ERR_OK;
}
if (qos_type == BCMOLT_EGRESS_QOS_TYPE_FIXED_QUEUE) {
key.tm_q_set_id = BCMOLT_TM_QUEUE_SET_ID_QSET_NOT_USE;
// Reset the queue id to 0 when using fixed queue.
key.id = 0;
}
else if (qos_type == BCMOLT_EGRESS_QOS_TYPE_PRIORITY_TO_QUEUE) {
key.tm_q_set_id = get_tm_qmp_id(key.sched_id, access_intf_id, onu_id, uni_id);
}
else {
key.tm_q_set_id = BCMOLT_TM_QUEUE_KEY_TM_Q_SET_ID_DEFAULT;
}
BCMOLT_CFG_INIT(&cfg, tm_queue, key);
err = bcmolt_cfg_clear(dev_id, &(cfg.hdr));
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to remove queue, direction = %s, queue_id %d, sched_id %d, \
tm_q_set_id %d, intf_id %d, onu_id %d, uni_id %d, err = %s (%d)\n",
direction.c_str(), key.id, key.sched_id, key.tm_q_set_id, access_intf_id, onu_id, uni_id, cfg.hdr.hdr.err_text, err);
return err;
}
OPENOLT_LOG(INFO, openolt_log_id, "Removed tm_queue, direction %s, id %d, sched_id %d, tm_q_set_id %d, \
intf_id %d, onu_id %d, uni_id %d\n", direction.c_str(), key.id, key.sched_id, key.tm_q_set_id, access_intf_id, onu_id, uni_id);
return BCM_ERR_OK;
}
Status RemoveTrafficQueues_(const ::tech_profile::TrafficQueues *traffic_queues) {
uint32_t intf_id = traffic_queues->intf_id();
uint32_t onu_id = traffic_queues->onu_id();
uint32_t uni_id = traffic_queues->uni_id();
uint32_t port_no = traffic_queues->port_no();
uint32_t tech_profile_id = traffic_queues->tech_profile_id();
uint32_t sched_id;
std::string direction;
bcmos_errno err;
bcmolt_egress_qos_type qos_type = get_qos_type(intf_id, onu_id, uni_id, traffic_queues->traffic_queues_size());
Status ret_code = Status::OK;
for (int i = 0; i < traffic_queues->traffic_queues_size(); i++) {
::tech_profile::TrafficQueue traffic_queue = traffic_queues->traffic_queues(i);
direction = GetDirection(traffic_queue.direction());
if (direction == "direction-not-supported") {
return bcm_to_grpc_err(BCM_ERR_PARM, "direction-not-supported");
}
err = RemoveQueue(direction, intf_id, onu_id, uni_id, qos_type, traffic_queue.priority(), traffic_queue.gemport_id(), tech_profile_id);
if (err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to remove queue, err = %s\n",bcmos_strerror(err));
ret_code = bcm_to_grpc_err(err, "Failed to remove one or more queues");
// Do not return here. We should continue to remove the remaining queues and its associated gem ports
}
}
if (qos_type == BCMOLT_EGRESS_QOS_TYPE_PRIORITY_TO_QUEUE && (direction == upstream || \
direction == downstream && is_tm_sched_id_present(intf_id, onu_id, uni_id, direction, tech_profile_id))) {
sched_id = (direction == upstream) ? get_default_tm_sched_id(nni_intf_id, direction) : \
get_tm_sched_id(intf_id, onu_id, uni_id, direction, tech_profile_id);
int tm_qmp_id = get_tm_qmp_id(sched_id, intf_id, onu_id, uni_id);
if (free_tm_qmp_id(sched_id, intf_id, onu_id, uni_id, tm_qmp_id)) {
err = RemoveTrafficQueueMappingProfile(tm_qmp_id);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to remove tm queue mapping profile, err = %s\n", bcmos_strerror(err));
return bcm_to_grpc_err(err, "Failed to remove tm queue mapping profile");
}
}
}
clear_qos_type(intf_id, onu_id, uni_id);
return ret_code;
}
Status PerformGroupOperation_(const ::openolt::Group *group_cfg) {
bcmos_errno err;
bcmolt_group_key key = {};
bcmolt_group_cfg grp_cfg_obj;
bcmolt_group_members_update grp_mem_upd;
bcmolt_members_update_command grp_mem_upd_cmd;
bcmolt_group_member_info member_info = {};
bcmolt_group_member_info_list_u8 members = {};
bcmolt_intf_ref interface_ref = {};
bcmolt_egress_qos egress_qos = {};
bcmolt_tm_sched_ref tm_sched_ref = {};
bcmolt_action a_val = {};
uint32_t group_id = group_cfg->group_id();
OPENOLT_LOG(INFO, openolt_log_id, "PerformGroupOperation request received for Group %d\n", group_id);
if (group_id >= 0) {
key.id = group_id;
}
else {
OPENOLT_LOG(ERROR, openolt_log_id, "Invalid group id %d.\n", group_id);
return grpc::Status(grpc::StatusCode::INVALID_ARGUMENT, "Invalid group id");
}
BCMOLT_CFG_INIT(&grp_cfg_obj, group, key);
BCMOLT_FIELD_SET_PRESENT(&grp_cfg_obj.data, group_cfg_data, state);
OPENOLT_LOG(INFO, openolt_log_id, "Checking if Group %d exists...\n",group_id);
err = bcmolt_cfg_get(dev_id, &(grp_cfg_obj.hdr));
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Error in querying Group %d, err = %s\n", group_id, bcmos_strerror(err));
return bcm_to_grpc_err(err, "Error in querying group");
}
members.len = group_cfg->members_size();
// IMPORTANT: A member cannot be added to a group if the group type is not determined.
// Group type is determined after a flow is assigned to it.
// Therefore, a group must be created first, then a flow (with multicast type) must be assigned to it.
// Only then we can add members to the group.
// if group does not exist, create it and return.
if (grp_cfg_obj.data.state == BCMOLT_GROUP_STATE_NOT_CONFIGURED) {
if (members.len != 0) {
OPENOLT_LOG(ERROR, openolt_log_id, "Member list is not empty for non-existent Group %d. Members can be added only after a flow is assigned to this newly-created group.\n", group_id);
return grpc::Status(grpc::StatusCode::INVALID_ARGUMENT, "Non-empty member list given for non-existent group");
} else {
BCMOLT_CFG_INIT(&grp_cfg_obj, group, key);
BCMOLT_MSG_FIELD_SET(&grp_cfg_obj, cookie, key.id);
/* Setting group actions and action parameters, if any.
Only remove_outer_tag and translate_inner_tag actions and i_vid action parameter
are supported for multicast groups in BAL 3.1.
*/
const ::openolt::Action& action = group_cfg->action();
const ::openolt::ActionCmd &cmd = action.cmd();
bcmolt_action_cmd_id cmd_bmask = BCMOLT_ACTION_CMD_ID_NONE;
if (cmd.remove_outer_tag()) {
OPENOLT_LOG(INFO, openolt_log_id, "Action remove_outer_tag applied to Group %d.\n", group_id);
cmd_bmask = (bcmolt_action_cmd_id) (cmd_bmask | BCMOLT_ACTION_CMD_ID_REMOVE_OUTER_TAG);
}
if (cmd.translate_inner_tag()) {
OPENOLT_LOG(INFO, openolt_log_id, "Action translate_inner_tag applied to Group %d.\n", group_id);
cmd_bmask = (bcmolt_action_cmd_id) (cmd_bmask | BCMOLT_ACTION_CMD_ID_XLATE_INNER_TAG);
}
BCMOLT_FIELD_SET(&a_val, action, cmds_bitmask, cmd_bmask);
if (action.i_vid()) {
OPENOLT_LOG(INFO, openolt_log_id, "Setting action parameter i_vid=%d for Group %d.\n", action.i_vid(), group_id);
BCMOLT_FIELD_SET(&a_val, action, i_vid, action.i_vid());
}
BCMOLT_MSG_FIELD_SET(&grp_cfg_obj, action, a_val);
// Create group
err = bcmolt_cfg_set(dev_id, &(grp_cfg_obj.hdr));
if (BCM_ERR_OK != err) {
BCM_LOG(ERROR, openolt_log_id, "Failed to create Group %d, err = %s (%d)\n", key.id, bcmos_strerror(err), err);
return bcm_to_grpc_err(err, "Error in creating group");
}
BCM_LOG(INFO, openolt_log_id, "Group %d has been created and configured with empty member list.\n", key.id);
return Status::OK;
}
}
// The group already exists. Continue configuring it according to the update member command.
OPENOLT_LOG(INFO, openolt_log_id, "Configuring existing Group %d.\n",group_id);
// MEMBER LIST CONSTRUCTION
// Note that members.len can be 0 here. if the group already exists and the command is SET then sending
// empty list to the group is a legit operation and this actually empties the member list.
members.arr = (bcmolt_group_member_info*)bcmos_calloc((members.len)*sizeof(bcmolt_group_member_info));
if (!members.arr) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to allocate memory for group member list.\n");
return grpc::Status(grpc::StatusCode::RESOURCE_EXHAUSTED, "Memory exhausted during member list creation");
}
/* SET GROUP MEMBERS UPDATE COMMAND */
::openolt::Group::GroupMembersCommand command = group_cfg->command();
switch(command) {
case ::openolt::Group::SET_MEMBERS :
grp_mem_upd_cmd = BCMOLT_MEMBERS_UPDATE_COMMAND_SET;
OPENOLT_LOG(INFO, openolt_log_id, "Setting %d members for Group %d.\n", members.len, group_id);
break;
case ::openolt::Group::ADD_MEMBERS :
grp_mem_upd_cmd = BCMOLT_MEMBERS_UPDATE_COMMAND_ADD;
OPENOLT_LOG(INFO, openolt_log_id, "Adding %d members to Group %d.\n", members.len, group_id);
break;
case ::openolt::Group::REMOVE_MEMBERS :
grp_mem_upd_cmd = BCMOLT_MEMBERS_UPDATE_COMMAND_REMOVE;
OPENOLT_LOG(INFO, openolt_log_id, "Removing %d members from Group %d.\n", members.len, group_id);
break;
default :
OPENOLT_LOG(ERROR, openolt_log_id, "Invalid value %d for group member command.\n", command);
bcmos_free(members.arr);
return grpc::Status(grpc::StatusCode::INVALID_ARGUMENT, "Invalid group member command");
}
// SET MEMBERS LIST
for (int i = 0; i < members.len; i++) {
if (command == ::openolt::Group::REMOVE_MEMBERS) {
OPENOLT_LOG(INFO, openolt_log_id, "Removing group member %d from group %d\n",i,key.id);
} else {
OPENOLT_LOG(INFO, openolt_log_id, "Adding group member %d to group %d\n",i,key.id);
}
::openolt::GroupMember *member = (::openolt::GroupMember *) &group_cfg->members()[i];
// Set member interface type
::openolt::GroupMember::InterfaceType if_type = member->interface_type();
switch(if_type){
case ::openolt::GroupMember::PON :
BCMOLT_FIELD_SET(&interface_ref, intf_ref, intf_type, BCMOLT_INTERFACE_TYPE_PON);
OPENOLT_LOG(INFO, openolt_log_id, "Interface type PON is assigned to GroupMember %d\n",i);
break;
case ::openolt::GroupMember::EPON_1G_PATH :
BCMOLT_FIELD_SET(&interface_ref, intf_ref, intf_type, BCMOLT_INTERFACE_TYPE_EPON_1_G);
OPENOLT_LOG(INFO, openolt_log_id, "Interface type EPON_1G is assigned to GroupMember %d\n",i);
break;
case ::openolt::GroupMember::EPON_10G_PATH :
BCMOLT_FIELD_SET(&interface_ref, intf_ref, intf_type, BCMOLT_INTERFACE_TYPE_EPON_10_G);
OPENOLT_LOG(INFO, openolt_log_id, "Interface type EPON_10G is assigned to GroupMember %d\n",i);
break;
default :
OPENOLT_LOG(ERROR, openolt_log_id, "Invalid interface type value %d for GroupMember %d.\n",if_type,i);
bcmos_free(members.arr);
return grpc::Status(grpc::StatusCode::INVALID_ARGUMENT, "Invalid interface type for a group member");
}
// Set member interface id
if (member->interface_id() >= 0) {
BCMOLT_FIELD_SET(&interface_ref, intf_ref, intf_id, member->interface_id());
OPENOLT_LOG(INFO, openolt_log_id, "Interface %d is assigned to GroupMember %d\n", member->interface_id(), i);
} else {
bcmos_free(members.arr);
return grpc::Status(grpc::StatusCode::INVALID_ARGUMENT, "Invalid interface id for a group member");
}
// Set member interface_ref
BCMOLT_FIELD_SET(&member_info, group_member_info, intf, interface_ref);
// Set member gem_port_id. This must be a multicast gemport.
if (member->gem_port_id() >= 0) {
BCMOLT_FIELD_SET(&member_info, group_member_info, svc_port_id, member->gem_port_id());
OPENOLT_LOG(INFO, openolt_log_id, "GEM Port %d is assigned to GroupMember %d\n", member->gem_port_id(), i);
} else {
bcmos_free(members.arr);
return grpc::Status(grpc::StatusCode::INVALID_ARGUMENT, "Invalid gem port id for a group member");
}
// Set member scheduler id and queue_id
uint32_t tm_sched_id = get_default_tm_sched_id(member->interface_id(), downstream);
OPENOLT_LOG(INFO, openolt_log_id, "Scheduler %d is assigned to GroupMember %d\n", tm_sched_id, i);
BCMOLT_FIELD_SET(&tm_sched_ref, tm_sched_ref, id, tm_sched_id);
BCMOLT_FIELD_SET(&egress_qos, egress_qos, tm_sched, tm_sched_ref);
// We assume that all multicast traffic destined to a PON port is using the same fixed queue.
uint32_t tm_queue_id;
if (member->priority() >= 0 && member->priority() < NUMBER_OF_DEFAULT_INTERFACE_QUEUES) {
tm_queue_id = queue_id_list[member->priority()];
OPENOLT_LOG(INFO, openolt_log_id, "Queue %d is assigned to GroupMember %d\n", tm_queue_id, i);
BCMOLT_FIELD_SET(&egress_qos, egress_qos, type, BCMOLT_EGRESS_QOS_TYPE_FIXED_QUEUE);
BCMOLT_FIELD_SET(&egress_qos.u.fixed_queue, egress_qos_fixed_queue, queue_id, tm_queue_id);
} else {
OPENOLT_LOG(ERROR, openolt_log_id, "Invalid fixed queue priority/ID %d for GroupMember %d\n", member->priority(), i);
bcmos_free(members.arr);
return grpc::Status(grpc::StatusCode::INVALID_ARGUMENT, "Invalid queue priority for a group member");
}
BCMOLT_FIELD_SET(&member_info, group_member_info, egress_qos, egress_qos);
BCMOLT_ARRAY_ELEM_SET(&(members), i, member_info);
}
BCMOLT_OPER_INIT(&grp_mem_upd, group, members_update, key);
BCMOLT_MSG_FIELD_SET(&grp_mem_upd, members_cmd.members, members);
BCMOLT_MSG_FIELD_SET(&grp_mem_upd, members_cmd.command, grp_mem_upd_cmd);
err = bcmolt_oper_submit(dev_id, &(grp_mem_upd.hdr));
bcmos_free(members.arr);
if (BCM_ERR_OK != err) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to submit members update operation for Group %d err = %s (%d)\n", key.id, bcmos_strerror(err), err);
return bcm_to_grpc_err(err, "Failed to submit members update operation for the group");
}
OPENOLT_LOG(INFO, openolt_log_id, "Successfully submitted members update operation for Group %d\n", key.id);
return Status::OK;
}
Status DeleteGroup_(uint32_t group_id) {
bcmos_errno err = BCM_ERR_OK;
bcmolt_group_cfg grp_cfg_obj;
bcmolt_group_key key = {};
OPENOLT_LOG(INFO, openolt_log_id, "Delete request received for group %d\n", group_id);
if (group_id >= 0) {
key.id = group_id;
} else {
OPENOLT_LOG(ERROR, openolt_log_id, "Invalid group id %d.\n", group_id);
return grpc::Status(grpc::StatusCode::INVALID_ARGUMENT, "Invalid group id");
}
/* init the BAL INIT API */
BCMOLT_CFG_INIT(&grp_cfg_obj, group, key);
OPENOLT_LOG(DEBUG, openolt_log_id, "Checking if group %d exists...\n",group_id);
// CONFIGURE GROUP MEMBERS
BCMOLT_FIELD_SET_PRESENT(&grp_cfg_obj.data, group_cfg_data, state);
err = bcmolt_cfg_get(dev_id, &(grp_cfg_obj.hdr));
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Error in querying Group %d, err = %s\n", group_id, bcmos_strerror(err));
return bcm_to_grpc_err(err, "Error in querying group");
}
if (grp_cfg_obj.data.state != BCMOLT_GROUP_STATE_NOT_CONFIGURED) {
OPENOLT_LOG(DEBUG, openolt_log_id, "Group %d exists. Will be deleted.\n",group_id);
err = bcmolt_cfg_clear(dev_id, &(grp_cfg_obj.hdr));
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Group %d cannot be deleted err = %s (%d).\n", group_id, bcmos_strerror(err), err);
return bcm_to_grpc_err(err, "Failed to delete group");;
}
} else {
OPENOLT_LOG(ERROR, openolt_log_id, "Group %d does not exist.\n", group_id);
return Status(grpc::StatusCode::NOT_FOUND, "Group not found");
}
OPENOLT_LOG(INFO, openolt_log_id, "Group %d has been deleted successfully.\n", group_id);
return Status::OK;
}
Status GetLogicalOnuDistanceZero_(uint32_t intf_id, ::openolt::OnuLogicalDistance* response) {
bcmos_errno err = BCM_ERR_OK;
uint32_t mld = 0;
double LD0;
err = getOnuMaxLogicalDistance(intf_id, &mld);
if (err != BCM_ERR_OK) {
return bcm_to_grpc_err(err, "Failed to retrieve ONU maximum logical distance");
}
LD0 = LOGICAL_DISTANCE(mld*1000, MINIMUM_ONU_RESPONSE_RANGING_TIME, ONU_BIT_TRANSMISSION_DELAY);
OPENOLT_LOG(INFO, openolt_log_id, "The ONU logical distance zero is %f, (PON %d)\n", LD0, intf_id);
response->set_intf_id(intf_id);
response->set_logical_onu_distance_zero(LD0);
return Status::OK;
}
Status GetLogicalOnuDistance_(uint32_t intf_id, uint32_t onu_id, ::openolt::OnuLogicalDistance* response) {
bcmos_errno err = BCM_ERR_OK;
bcmolt_itu_onu_params itu = {};
bcmolt_onu_cfg onu_cfg;
bcmolt_onu_key onu_key = {};
uint32_t mld = 0;
double LDi;
onu_key.pon_ni = intf_id;
onu_key.onu_id = onu_id;
err = getOnuMaxLogicalDistance(intf_id, &mld);
if (err != BCM_ERR_OK) {
return bcm_to_grpc_err(err, "Failed to retrieve ONU maximum logical distance");
}
/* Initialize the API struct. */
BCMOLT_CFG_INIT(&onu_cfg, onu, onu_key);
BCMOLT_FIELD_SET_PRESENT(&onu_cfg.data, onu_cfg_data, onu_state);
BCMOLT_FIELD_SET_PRESENT(&itu, itu_onu_params, ranging_time);
BCMOLT_FIELD_SET(&onu_cfg.data, onu_cfg_data, itu, itu);
#ifdef TEST_MODE
// It is impossible to mock the setting of onu_cfg.data.onu_state because
// the actual bcmolt_cfg_get passes the address of onu_cfg.hdr and we cannot
// set the onu_cfg.data.onu_state. So a new stub function is created and address
// of onu_cfg is passed. This is one-of case where we need to add test specific
// code in production code.
err = bcmolt_cfg_get__onu_state_stub(dev_id, &onu_cfg);
#else
/* Call API function. */
err = bcmolt_cfg_get(dev_id, &onu_cfg.hdr);
#endif
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "Failed to retrieve ONU ranging time for PON %d/ONU id %d, err = %s (%d)\n", intf_id, onu_id, bcmos_strerror(err), err);
return bcm_to_grpc_err(err, "Failed to retrieve ONU ranging time");
}
if (onu_cfg.data.onu_state != BCMOLT_ONU_STATE_ACTIVE) {
OPENOLT_LOG(ERROR, openolt_log_id, "ONU is not yet activated (PON %d, ONU id %d)\n", intf_id, onu_id);
return bcm_to_grpc_err(BCM_ERR_PARM, "ONU is not yet activated\n");
}
LDi = LOGICAL_DISTANCE(mld*1000, onu_cfg.data.itu.ranging_time, ONU_BIT_TRANSMISSION_DELAY);
OPENOLT_LOG(INFO, openolt_log_id, "The ONU logical distance is %f, (PON %d, ONU id %d)\n", LDi, intf_id, onu_id);
response->set_intf_id(intf_id);
response->set_onu_id(onu_id);
response->set_logical_onu_distance(LDi);
return Status::OK;
}
Status GetOnuStatistics_(uint32_t intf_id, uint32_t onu_id, openolt::OnuStatistics* onu_stats) {
bcmos_errno err;
err = get_onu_statistics((bcmolt_interface_id)intf_id, (bcmolt_onu_id)onu_id, onu_stats);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "retrieval of ONU statistics failed - PON ID = %u, ONU ID = %u, err = %d - %s", intf_id, onu_id, err, bcmos_strerror(err));
return grpc::Status(grpc::StatusCode::INTERNAL, "retrieval of ONU statistics failed");
}
OPENOLT_LOG(INFO, openolt_log_id, "retrieved ONU statistics for PON ID = %d, ONU ID = %d\n", (int)intf_id, (int)onu_id);
return Status::OK;
}
Status GetGemPortStatistics_(uint32_t intf_id, uint32_t gemport_id, openolt::GemPortStatistics* gemport_stats) {
bcmos_errno err;
err = get_gemport_statistics((bcmolt_interface_id)intf_id, (bcmolt_gem_port_id)gemport_id, gemport_stats);
if (err != BCM_ERR_OK) {
OPENOLT_LOG(ERROR, openolt_log_id, "retrieval of GEMPORT statistics failed - PON ID = %u, ONU ID = %u, err = %d - %s", intf_id, gemport_id, err, bcmos_strerror(err));
return grpc::Status(grpc::StatusCode::INTERNAL, "retrieval of GEMPORT statistics failed");
}
OPENOLT_LOG(INFO, openolt_log_id, "retrieved GEMPORT statistics for PON ID = %d, GEMPORT ID = %d\n", (int)intf_id, (int)gemport_id);
return Status::OK;
}
Status GetPonRxPower_(uint32_t intf_id, uint32_t onu_id, openolt::PonRxPowerData* response) {
bcmos_errno err = BCM_ERR_OK;
// check the PON intf id
if (intf_id >= MAX_SUPPORTED_PON) {
err = BCM_ERR_PARM;
OPENOLT_LOG(ERROR, openolt_log_id, "invalid pon intf_id - intf_id: %d, onu_id: %d\n",
intf_id, onu_id);
return bcm_to_grpc_err(err, "invalid pon intf_id");
}
bcmolt_onu_rssi_measurement onu_oper; /* declare main API struct */
bcmolt_onu_key onu_key; /**< Object key. */
onu_rssi_compltd_key key(intf_id, onu_id);
Queue<onu_rssi_complete_result> queue;
OPENOLT_LOG(INFO, openolt_log_id, "GetPonRxPower - intf_id %d, onu_id %d\n", intf_id, onu_id);
onu_key.onu_id = onu_id;
onu_key.pon_ni = intf_id;
/* Initialize the API struct. */
BCMOLT_OPER_INIT(&onu_oper, onu, rssi_measurement, onu_key);
err = bcmolt_oper_submit(dev_id, &onu_oper.hdr);
if (err == BCM_ERR_OK) {
// initialize map
bcmos_fastlock_lock(&onu_rssi_wait_lock);
onu_rssi_compltd_map.insert({key, &queue});
bcmos_fastlock_unlock(&onu_rssi_wait_lock, 0);
} else {
OPENOLT_LOG(ERROR, openolt_log_id, "failed to measure rssi rx power - intf_id: %d, onu_id: %d, err = %s (%d): %s\n",
intf_id, onu_id, bcmos_strerror(err), err, onu_oper.hdr.hdr.err_text);
return bcm_to_grpc_err(err, "failed to measure rssi rx power");
}
onu_rssi_complete_result completed{};
if (!queue.pop(completed, ONU_RSSI_COMPLETE_WAIT_TIMEOUT)) {
// invalidate the queue pointer
bcmos_fastlock_lock(&onu_rssi_wait_lock);
onu_rssi_compltd_map[key] = NULL;
bcmos_fastlock_unlock(&onu_rssi_wait_lock, 0);
err = BCM_ERR_TIMEOUT;
OPENOLT_LOG(ERROR, openolt_log_id, "timeout waiting for RSSI Measurement Completed indication intf_id %d, onu_id %d\n",
intf_id, onu_id);
} else {
OPENOLT_LOG(INFO, openolt_log_id, "RSSI Rx power - intf_id: %d, onu_id: %d, status: %s, fail_reason: %d, rx_power_mean_dbm: %f\n",
completed.pon_intf_id, completed.onu_id, completed.status.c_str(), completed.reason, completed.rx_power_mean_dbm);
response->set_intf_id(completed.pon_intf_id);
response->set_onu_id(completed.onu_id);
response->set_status(completed.status);
response->set_fail_reason(static_cast<::openolt::PonRxPowerData_RssiMeasurementFailReason>(completed.reason));
response->set_rx_power_mean_dbm(completed.rx_power_mean_dbm);
}
// Remove entry from map
bcmos_fastlock_lock(&onu_rssi_wait_lock);
onu_rssi_compltd_map.erase(key);
bcmos_fastlock_unlock(&onu_rssi_wait_lock, 0);
if (err == BCM_ERR_OK) {
return Status::OK;
} else {
return bcm_to_grpc_err(err, "timeout waiting for pon rssi measurement complete indication");
}
}