583 lines
29 KiB
C
583 lines
29 KiB
C
/*******************************************************************************
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OpenAirInterface
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Copyright(c) 1999 - 2014 Eurecom
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OpenAirInterface is free software: you can redistribute it and/or modify
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it under the terms of the GNU General Public License as published by
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the Free Software Foundation, either version 3 of the License, or
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(at your option) any later version.
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OpenAirInterface is distributed in the hope that it will be useful,
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but WITHOUT ANY WARRANTY; without even the implied warranty of
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MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
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GNU General Public License for more details.
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You should have received a copy of the GNU General Public License
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along with OpenAirInterface.The full GNU General Public License is
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included in this distribution in the file called "COPYING". If not,
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see <http://www.gnu.org/licenses/>.
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Contact Information
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OpenAirInterface Admin: openair_admin@eurecom.fr
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OpenAirInterface Tech : openair_tech@eurecom.fr
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OpenAirInterface Dev : openair4g-devel@lists.eurecom.fr
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Address : Eurecom, Campus SophiaTech, 450 Route des Chappes, CS 50193 - 06904 Biot Sophia Antipolis cedex, FRANCE
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*******************************************************************************/
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/*! \file otg_rx.c
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* \brief function containing the OTG traffic generation functions
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* \author Navid Nikaein and A. Hafsaoui
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* \date 2011
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* \version 0.1
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* \company Eurecom
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* \email: navid.nikaein@eurecom.fr
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* \note
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* \warning
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*/
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#include "otg_rx.h"
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#include "otg_externs.h"
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#include "UTIL/MATH/oml.h"
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#include <math.h>
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#include "otg_form.h"
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#include "otg_kpi.h"
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#ifdef ENABLE_DB_STATS
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#include <mysql.h>
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#include <m_ctype.h>
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#include <sql_common.h>
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#endif
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extern unsigned char NB_eNB_INST;
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extern unsigned char NB_UE_INST;
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//#include "LAYER2/MAC/extern.h"
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#define MAX(x,y) ((x)>(y)?(x):(y))
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#define MIN(x,y) ((x)<(y)?(x):(y))
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// Check if the packet is well received or not and extract data
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int otg_rx_pkt(const int dst_instanceP, const int ctime, const char * const buffer_tx, const unsigned int size)
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{
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int bytes_read = 0;
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otg_hdr_info_t * otg_hdr_info_rx;
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otg_hdr_t * otg_hdr_rx;
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int is_size_ok = 0;
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unsigned int seq_num_rx;
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unsigned int nb_loss_pkts;
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unsigned int lost_packet = 0;
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unsigned int src_instance;
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unsigned int dst_instance;
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if (buffer_tx!=NULL) {
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otg_hdr_info_rx = (otg_hdr_info_t *) (&buffer_tx[bytes_read]);
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bytes_read += sizeof (otg_hdr_info_t);
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LOG_D(OTG,"otg_rx_pkt functions: destination %d, size %d, otg_hdr_info_rx->flag %.4x, otg_hdr_info_rx->size %d \n",
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dst_instanceP,
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size,
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otg_hdr_info_rx->flag,
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otg_hdr_info_rx->size);
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if (((otg_hdr_info_rx->flag == 0xffff) ||
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(otg_hdr_info_rx->flag == 0xbbbb) ||
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(otg_hdr_info_rx->flag == 0x1000)) &&
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(otg_hdr_info_rx->size == size )) { //data traffic
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LOG_I(OTG,"MAX_RX_INFO %d %d \n",NB_eNB_INST, NB_UE_INST);
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/*is_size_ok= 0;
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if (( otg_hdr_info_rx->size ) == size ) {*/
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is_size_ok= 1;
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otg_hdr_rx = (otg_hdr_t *) (&buffer_tx[bytes_read]);
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LOG_I(OTG,"[SRC %d][DST %d] [FLOW_idx %d][APP TYPE %d] RX INFO pkt at time %d: flag 0x %x, seq number %d, tx time %d, size (hdr %d, pdcp %d) \n",
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otg_hdr_rx->src_instance,
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otg_hdr_rx->dst_instance,
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otg_hdr_rx->flow_id,
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otg_hdr_rx->traffic_type,
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ctime,
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otg_hdr_info_rx->flag,
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otg_hdr_rx->seq_num,
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otg_hdr_rx->time,
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otg_hdr_info_rx->size, size);
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bytes_read += sizeof (otg_hdr_t);
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src_instance = otg_hdr_rx->src_instance;
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dst_instance = otg_hdr_rx->dst_instance;
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if (dst_instance != dst_instanceP) {
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//#warning "LG: TODO think about multicast traffic"
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LOG_W(OTG,"[SRC %d][DST %d] [FLOW_idx %d][APP TYPE %d] RX INFO pkt at time %d: flag 0x %x, seq number %d, tx time %d, size (hdr %d, pdcp %d) not for dest instance %u\n",
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dst_instanceP);
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}
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if(otg_hdr_rx->traffic_type > MAX_NUM_APPLICATION) {
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LOG_W(OTG,"RX packet: application type out of range %d for the pair of (src %d, dst %d) \n",
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otg_hdr_rx->traffic_type, src_instance, dst_instance);
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otg_hdr_rx->traffic_type=0;
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}
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/** unicast traffic **/
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if (otg_hdr_info_rx->flag == 0xffff) {
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seq_num_rx=otg_info->seq_num_rx[src_instance][dst_instance][otg_hdr_rx->traffic_type];
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if (src_instance<NB_eNB_INST)
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nb_loss_pkts=otg_info->nb_loss_pkts_dl[src_instance][dst_instance][otg_hdr_rx->traffic_type];
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else
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nb_loss_pkts=otg_info->nb_loss_pkts_ul[src_instance][dst_instance][otg_hdr_rx->traffic_type];
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} /** multicast traffic **/
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else if (otg_hdr_info_rx->flag == 0x1000) {
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seq_num_rx = otg_multicast_info->rx_sn[src_instance][dst_instance][otg_hdr_rx->traffic_type];
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nb_loss_pkts = otg_multicast_info->loss_pkts_dl[src_instance][dst_instance][otg_hdr_rx->traffic_type];
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// otg_multicast_info->ran_owd[src_instance][dst_instance][otg_hdr_rx->traffic_type] = ctime- otg_hdr_rx->time;
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// rx_check_loss(src_instance, dst_instance, otg_hdr_info_rx->flag, otg_hdr_rx->seq_num, &seq_num_rx, &nb_loss_pkts);
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// otg_multicast_info->loss_rate[src_instance][dst_instance][otg_hdr_rx->traffic_type]=nb_loss_pkts;
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//otg_multicast_info->rx_sn[src_instance][dst_instance][otg_hdr_rx->traffic_type]=seq_num_rx;
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LOG_I(OTG,"received a multicast packet with size %d sn %d ran owd %d loss rate %d\n",
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otg_hdr_info_rx->size, seq_num_rx, ctime- otg_hdr_rx->time, nb_loss_pkts);
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//return 0;
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} /** background traffic **/
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else {
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seq_num_rx=otg_info->seq_num_rx_background[src_instance][dst_instance];
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if (src_instance<NB_eNB_INST)
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nb_loss_pkts=otg_info->nb_loss_pkts_background_dl[src_instance][dst_instance];
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else
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nb_loss_pkts=otg_info->nb_loss_pkts_background_ul[src_instance][dst_instance];
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}
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LOG_D(OTG,"[%d][%d] AGGREGATION LEVEL (RX) %d \n", src_instance, dst_instance, otg_hdr_rx->aggregation_level);
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otg_info->aggregation_level[src_instance][dst_instance]=otg_hdr_rx->aggregation_level;
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/* Loss and out of sequence data management */
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lost_packet= rx_check_loss(
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src_instance,
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dst_instance,
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otg_hdr_info_rx->flag,
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otg_hdr_rx->seq_num,
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&seq_num_rx,
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&nb_loss_pkts);
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if (otg_info->owd_const[src_instance][dst_instance][otg_hdr_rx->flow_id]==0)
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owd_const_gen(src_instance,dst_instance,otg_hdr_rx->flow_id, otg_hdr_rx->traffic_type);
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/******/
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/*
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float owd_const_capillary_v=owd_const_capillary()/2;
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float owd_const_mobile_core_v=owd_const_mobile_core()/2;
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float owd_const_IP_backbone_v=owd_const_IP_backbone()/2;
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float owd_const_application_v=owd_const_application()/2;
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FILE *file;
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file = fopen("/tmp/log_latency_m2m.txt", "a");
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fprintf(file," %d %d [%d] [%d] %.2f %.2f %.2f %.2f %.2f %.2f\n", otg_hdr_rx->time, otg_hdr_info_rx->size, src, dst, owd_const_capillary_v,otg_info->radio_access_delay[src][dst],owd_const_mobile_core_v, owd_const_IP_backbone_v, owd_const_application_v, owd_const_capillary_v + otg_info->radio_access_delay[src][dst]+owd_const_mobile_core_v + owd_const_IP_backbone_v+ owd_const_application_v);
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fclose(file);
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*/
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/******/
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// }
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if (otg_hdr_rx->time<=ctime) {
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otg_info->radio_access_delay[src_instance][dst_instance]=(float) (ctime- otg_hdr_rx->time);
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otg_multicast_info->radio_access_delay[src_instance][dst_instance]=(float) (ctime- otg_hdr_rx->time);
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} else {
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LOG_N(OTG,"received packet has tx time %d greater than the current time %d\n",otg_hdr_rx->time,ctime );
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otg_info->radio_access_delay[src_instance][dst_instance] = 0;
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otg_multicast_info->radio_access_delay[src_instance][dst_instance]=0;
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}
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/* actual radio OWD*/
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otg_info->rx_pkt_owd[src_instance][dst_instance]=otg_info->radio_access_delay[src_instance][dst_instance];
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/* estimated E2E OWD based on the emulated delays for the other part of the network */
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otg_info->rx_pkt_owd_e2e[src_instance][dst_instance]=
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otg_info->owd_const[src_instance][dst_instance][otg_hdr_rx->flow_id] + otg_info->radio_access_delay[src_instance][dst_instance];
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otg_multicast_info->rx_pkt_owd[src_instance][dst_instance]=otg_multicast_info->radio_access_delay[src_instance][dst_instance];
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LOG_D(OTG, "[src %d][dst %d] ctime %d tx time %d: OWD %lf E2E OWD %lf \n",
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src_instance,
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dst_instance,
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ctime,
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otg_hdr_rx->time,
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otg_info->rx_pkt_owd[src_instance][dst_instance],
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otg_info->rx_pkt_owd_e2e[src_instance][dst_instance] );
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// compute the jitter by ignoring the packet loss
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if (lost_packet == 0) {
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// radio access
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otg_info->rx_pkt_owd_history[src_instance][dst_instance][1] = otg_info->rx_pkt_owd_history[src_instance][dst_instance][0]; // the previous owd
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otg_info->rx_pkt_owd_history[src_instance][dst_instance][0] = otg_info->rx_pkt_owd[src_instance][dst_instance]; // the current owd
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if (otg_info->rx_pkt_owd_history[src_instance][dst_instance][1] == 0) // first packet
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otg_info->rx_pkt_jitter[src_instance][dst_instance]=0;
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else // for the consecutive packets
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otg_info->rx_pkt_jitter[src_instance][dst_instance]=
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abs(otg_info->rx_pkt_owd_history[src_instance][dst_instance][0] - otg_info->rx_pkt_owd_history[src_instance][dst_instance][1]);
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LOG_D(OTG,"The packet jitter for the pair (src %d, dst %d)) at %d is %lf (current %lf, previous %lf) \n",
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src_instance, dst_instance, ctime, otg_info->rx_pkt_jitter[src_instance][dst_instance],
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otg_info->rx_pkt_owd_history[src_instance][dst_instance][0], otg_info->rx_pkt_owd_history[src_instance][dst_instance][1]);
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// e2e
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otg_info->rx_pkt_owd_history_e2e[src_instance][dst_instance][1] = otg_info->rx_pkt_owd_history_e2e[src_instance][dst_instance][0]; // the previous owd
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otg_info->rx_pkt_owd_history_e2e[src_instance][dst_instance][0] = otg_info->rx_pkt_owd_e2e[src_instance][dst_instance]; // the current owd
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if (otg_info->rx_pkt_owd_history_e2e[src_instance][dst_instance][1] == 0) // first packet
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otg_info->rx_pkt_jitter_e2e[src_instance][dst_instance]=0;
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else // for the consecutive packets
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otg_info->rx_pkt_jitter_e2e[src_instance][dst_instance]=
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abs(otg_info->rx_pkt_owd_history_e2e[src_instance][dst_instance][0] - otg_info->rx_pkt_owd_history_e2e[src_instance][dst_instance][1]);
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LOG_D(OTG,"The packet jitter for the pair (src %d, dst %d)) at %d is %lf (current %lf, previous %lf) \n",
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src_instance,
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dst_instance,
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ctime,
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otg_info->rx_pkt_jitter_e2e[src_instance][dst_instance],
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otg_info->rx_pkt_owd_history_e2e[src_instance][dst_instance][0],
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otg_info->rx_pkt_owd_history_e2e[src_instance][dst_instance][1]);
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}
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if (otg_hdr_info_rx->flag == 0x1000) {
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LOG_I(OTG,"[SRC%d -> DST %d] Received a multicast packet at time %d with size %d, seq num %d, ran owd %d number loss packet %d\n",
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src_instance,
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dst_instance,
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ctime,otg_hdr_info_rx->size,
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otg_hdr_rx->seq_num,
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ctime - otg_hdr_rx->time,
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nb_loss_pkts);
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LOG_I(OTG,"INFO LATENCY :: [SRC %d][DST %d] radio access %.2f (tx time %d, ctime %d), OWD:%.2f (ms):\n",
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src_instance,
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dst_instance,
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otg_multicast_info->radio_access_delay[src_instance][dst_instance],
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otg_hdr_rx->time, ctime ,
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otg_multicast_info->rx_pkt_owd[src_instance][dst_instance]);
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if (otg_multicast_info->rx_owd_max[src_instance][dst_instance][otg_hdr_rx->traffic_type]==0) {
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otg_multicast_info->rx_owd_max[src_instance][dst_instance][otg_hdr_rx->traffic_type]=otg_multicast_info->rx_pkt_owd[src_instance][dst_instance];
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otg_multicast_info->rx_owd_min[src_instance][dst_instance][otg_hdr_rx->traffic_type]=otg_multicast_info->rx_pkt_owd[src_instance][dst_instance];
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} else {
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otg_multicast_info->rx_owd_max[src_instance][dst_instance][otg_hdr_rx->traffic_type]=MAX(
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otg_multicast_info->rx_owd_max[src_instance][dst_instance][otg_hdr_rx->traffic_type],
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otg_multicast_info->rx_pkt_owd[src_instance][dst_instance] );
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otg_multicast_info->rx_owd_min[src_instance][dst_instance][otg_hdr_rx->traffic_type]=MIN(
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otg_multicast_info->rx_owd_min[src_instance][dst_instance][otg_hdr_rx->traffic_type],
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otg_multicast_info->rx_pkt_owd[src_instance][dst_instance] );
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}
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if (g_otg->curve==1) {
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if (g_otg->owd_radio_access==0)
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add_tab_metric(
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src_instance,
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dst_instance,
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otg_multicast_info->rx_pkt_owd[src_instance][dst_instance],
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((otg_hdr_info_rx->size*1000*8)/(otg_multicast_info->rx_pkt_owd[src_instance][dst_instance]*1024 )),
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otg_hdr_rx->time);
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else
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add_tab_metric(src_instance,
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dst_instance,
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otg_multicast_info->radio_access_delay[src_instance][dst_instance],
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((otg_hdr_info_rx->size*1000*8)/(otg_multicast_info->rx_pkt_owd[src_instance][dst_instance]*1024 )),
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otg_hdr_rx->time);
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}
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otg_multicast_info->rx_total_bytes_dl+=otg_hdr_info_rx->size;
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} else {
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LOG_I(OTG,"[SRC %d][DST %d] Stats :: radio access latency %.2f (tx time %d, ctime %d) jitter %.2f, Estimated E2E OWD:%.2f (ms):\n",
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src_instance,
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dst_instance,
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otg_info->radio_access_delay[src_instance][dst_instance],
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otg_hdr_rx->time, ctime ,
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otg_info->rx_pkt_jitter[src_instance][dst_instance],
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otg_info->rx_pkt_owd_e2e[src_instance][dst_instance]);
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if (otg_hdr_info_rx->flag == 0xffff) {
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if (otg_info->rx_owd_max[src_instance][dst_instance][otg_hdr_rx->traffic_type]==0) {
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otg_info->rx_owd_max[src_instance][dst_instance][otg_hdr_rx->traffic_type]=otg_info->rx_pkt_owd[src_instance][dst_instance];
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otg_info->rx_owd_min[src_instance][dst_instance][otg_hdr_rx->traffic_type]=otg_info->rx_pkt_owd[src_instance][dst_instance];
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otg_info->rx_owd_max_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type]=otg_info->rx_pkt_owd_e2e[src_instance][dst_instance];
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otg_info->rx_owd_min_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type]=otg_info->rx_pkt_owd_e2e[src_instance][dst_instance];
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} else {
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otg_info->rx_owd_max[src_instance][dst_instance][otg_hdr_rx->traffic_type]=MAX(otg_info->rx_owd_max[src_instance][dst_instance][otg_hdr_rx->traffic_type],
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otg_info->rx_pkt_owd[src_instance][dst_instance] );
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otg_info->rx_owd_min[src_instance][dst_instance][otg_hdr_rx->traffic_type]=MIN(otg_info->rx_owd_min[src_instance][dst_instance][otg_hdr_rx->traffic_type],
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otg_info->rx_pkt_owd[src_instance][dst_instance] );
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otg_info->rx_owd_max_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type]=MAX(otg_info->rx_owd_max_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type],
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otg_info->rx_pkt_owd_e2e[src_instance][dst_instance] );
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otg_info->rx_owd_min_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type]=MIN(otg_info->rx_owd_min_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type],
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otg_info->rx_pkt_owd_e2e[src_instance][dst_instance] );
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}
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if (otg_info->rx_jitter_max[src_instance][dst_instance][otg_hdr_rx->traffic_type]==0) {
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otg_info->rx_jitter_max[src_instance][dst_instance][otg_hdr_rx->traffic_type]=otg_info->rx_pkt_jitter[src_instance][dst_instance];
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otg_info->rx_jitter_min[src_instance][dst_instance][otg_hdr_rx->traffic_type]=otg_info->rx_pkt_jitter[src_instance][dst_instance];
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otg_info->rx_jitter_max_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type]=otg_info->rx_pkt_jitter_e2e[src_instance][dst_instance];
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otg_info->rx_jitter_min_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type]=otg_info->rx_pkt_jitter_e2e[src_instance][dst_instance];
|
|
} else if (lost_packet==0) {
|
|
otg_info->rx_jitter_max[src_instance][dst_instance][otg_hdr_rx->traffic_type]=MAX(otg_info->rx_jitter_max[src_instance][dst_instance][otg_hdr_rx->traffic_type],
|
|
otg_info->rx_pkt_jitter[src_instance][dst_instance] );
|
|
otg_info->rx_jitter_min[src_instance][dst_instance][otg_hdr_rx->traffic_type]=MIN(otg_info->rx_jitter_min[src_instance][dst_instance][otg_hdr_rx->traffic_type],
|
|
otg_info->rx_pkt_jitter[src_instance][dst_instance] );
|
|
otg_info->rx_jitter_max_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type]=MAX(otg_info->rx_jitter_max_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type],
|
|
otg_info->rx_pkt_jitter_e2e[src_instance][dst_instance] );
|
|
otg_info->rx_jitter_min_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type]=MIN(otg_info->rx_jitter_min_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type],
|
|
otg_info->rx_pkt_jitter_e2e[src_instance][dst_instance] );
|
|
// avg jitter
|
|
otg_info->rx_jitter_avg[src_instance][dst_instance][otg_hdr_rx->traffic_type] += otg_info->rx_pkt_jitter[src_instance][dst_instance];
|
|
otg_info->rx_jitter_avg_e2e[src_instance][dst_instance][otg_hdr_rx->traffic_type] += otg_info->rx_pkt_jitter_e2e[src_instance][dst_instance];
|
|
otg_info->rx_jitter_sample[src_instance][dst_instance][otg_hdr_rx->traffic_type] +=1;
|
|
}
|
|
|
|
}
|
|
|
|
if (g_otg->curve==1) {
|
|
if (g_otg->owd_radio_access==0)
|
|
add_tab_metric(
|
|
src_instance,
|
|
dst_instance,
|
|
otg_info->rx_pkt_owd[src_instance][dst_instance],
|
|
((otg_hdr_info_rx->size*1000*8)/(otg_info->rx_pkt_owd[src_instance][dst_instance]*1024 )),
|
|
otg_hdr_rx->time);
|
|
else
|
|
add_tab_metric(
|
|
src_instance,
|
|
dst_instance, otg_info->radio_access_delay[src_instance][dst_instance],
|
|
((otg_hdr_info_rx->size*1000*8)/(otg_info->rx_pkt_owd[src_instance][dst_instance]*1024 )),
|
|
otg_hdr_rx->time);
|
|
}
|
|
|
|
if (src_instance<NB_eNB_INST)
|
|
otg_info->rx_total_bytes_dl+=otg_hdr_info_rx->size;
|
|
else
|
|
otg_info->rx_total_bytes_ul+=otg_hdr_info_rx->size;
|
|
|
|
}
|
|
|
|
//LOG_I(OTG,"RX INFO :: RTT MIN(one way) ms: %.2f, RTT MAX(one way) ms: %.2f \n", otg_info->rx_owd_min[src][dst], otg_info->rx_owd_max[src][dst]);
|
|
|
|
/* xforms part: add metrics */
|
|
|
|
//printf("payload_size %d, header_size %d \n", otg_hdr_rx->pkts_size, otg_hdr_rx->hdr_type);
|
|
LOG_I(OTG,"[RX] OTG packet, PACKET SIZE [SRC %d][DST %d]: Flag (0x%x), Traffic %d, time(%d), Seq num (%d), Total size (%d)\n",
|
|
src_instance,
|
|
dst_instance,
|
|
otg_hdr_info_rx->flag,
|
|
otg_hdr_rx->traffic_type,
|
|
ctime,
|
|
otg_hdr_rx->seq_num, size);
|
|
/*LOG_I(OTG,"details::RX [SRC %d][DST %d]: Flag (0x%x), time(%d), Seq num (%d), Total size (%d), header(%d), payload (%d) \n", src, dst, otg_hdr_info_rx->flag, ctime, otg_hdr_rx->seq_num, size, strlen(packet_rx->header), strlen(packet_rx->payload));*/
|
|
|
|
|
|
if (otg_hdr_info_rx->flag == 0xffff) {
|
|
otg_info->rx_num_pkt[src_instance][dst_instance][otg_hdr_rx->traffic_type]+=1;
|
|
otg_info->rx_num_bytes[src_instance][dst_instance][otg_hdr_rx->traffic_type]+=otg_hdr_info_rx->size;
|
|
otg_info->seq_num_rx[src_instance][dst_instance][otg_hdr_rx->traffic_type]=seq_num_rx;
|
|
|
|
if (src_instance<NB_eNB_INST)
|
|
otg_info->nb_loss_pkts_dl[src_instance][dst_instance][otg_hdr_rx->traffic_type]=nb_loss_pkts;
|
|
else
|
|
otg_info->nb_loss_pkts_ul[src_instance][dst_instance][otg_hdr_rx->traffic_type]=nb_loss_pkts;
|
|
|
|
/*Plots of latency and goodput are only plotted for the data traffic*/
|
|
/*measurements are done for the data and background traffic */
|
|
|
|
if (g_otg->latency_metric) {
|
|
if (g_otg->owd_radio_access==0) {
|
|
add_log_metric(src_instance, dst_instance, otg_hdr_rx->time, otg_info->rx_pkt_owd[src_instance][dst_instance], OTG_LATENCY);
|
|
add_log_metric(src_instance, dst_instance, otg_hdr_rx->time, otg_info->rx_pkt_jitter_e2e[src_instance][dst_instance], OTG_JITTER);
|
|
} else {
|
|
add_log_metric(src_instance, dst_instance, otg_hdr_rx->time, otg_info->radio_access_delay[src_instance][dst_instance], OTG_LATENCY);
|
|
add_log_metric(src_instance, dst_instance, otg_hdr_rx->time, otg_info->rx_pkt_jitter[src_instance][dst_instance], OTG_JITTER);
|
|
}
|
|
}
|
|
|
|
if (g_otg->throughput_metric)
|
|
add_log_metric(src_instance,
|
|
dst_instance,
|
|
otg_hdr_rx->time,
|
|
((otg_hdr_info_rx->size*1000*8)/(otg_info->rx_pkt_owd[src_instance][dst_instance]*1024 )),
|
|
OTG_GP); /* compute the throughput in Kbit/s */
|
|
|
|
} else if (otg_hdr_info_rx->flag == 0x1000) {
|
|
otg_multicast_info->rx_num_pkt[src_instance][dst_instance][otg_hdr_rx->traffic_type]+=1;
|
|
otg_multicast_info->rx_num_bytes[src_instance][dst_instance][otg_hdr_rx->traffic_type]+=otg_hdr_info_rx->size;
|
|
// LOG_D(OTG,"DUY: otg_multicast_info->rx_num_bytes[%d][%d][%d] is %d \nn",src,dst,otg_hdr_rx->traffic_type,otg_multicast_info->rx_num_bytes[src][dst][otg_hdr_rx->traffic_type]);
|
|
otg_multicast_info->rx_sn[src_instance][dst_instance][otg_hdr_rx->traffic_type]=seq_num_rx;
|
|
otg_multicast_info->loss_pkts_dl[src_instance][dst_instance][otg_hdr_rx->traffic_type]=nb_loss_pkts;
|
|
|
|
/*Plots of latency and goodput are only plotted for the data traffic*/
|
|
/*measurements are done for the data and background traffic */
|
|
|
|
if (g_otg->latency_metric) {
|
|
if (g_otg->owd_radio_access==0)
|
|
add_log_metric(src_instance, dst_instance, otg_hdr_rx->time, otg_multicast_info->rx_pkt_owd[src_instance][dst_instance], OTG_LATENCY);
|
|
else
|
|
add_log_metric(src_instance, dst_instance, otg_hdr_rx->time, otg_multicast_info->radio_access_delay[src_instance][dst_instance], OTG_LATENCY);
|
|
}
|
|
|
|
if (g_otg->throughput_metric)
|
|
add_log_metric(src_instance, dst_instance, otg_hdr_rx->time, ((otg_hdr_info_rx->size*1000*8)/(otg_multicast_info->rx_pkt_owd[src_instance][dst_instance]*1024 )),
|
|
OTG_GP); /* compute the throughput in Kbit/s */
|
|
} else {
|
|
otg_info->rx_num_pkt_background[src_instance][dst_instance]+=1;
|
|
otg_info->rx_num_bytes_background[src_instance][dst_instance]+=otg_hdr_info_rx->size;
|
|
otg_info->seq_num_rx_background[src_instance][dst_instance]=seq_num_rx;
|
|
|
|
if (src_instance<NB_eNB_INST)
|
|
otg_info->nb_loss_pkts_background_dl[src_instance][dst_instance]=nb_loss_pkts;
|
|
else
|
|
otg_info->nb_loss_pkts_background_ul[src_instance][dst_instance]=nb_loss_pkts;
|
|
|
|
if (g_otg->latency_metric) {
|
|
if (g_otg->owd_radio_access==0)
|
|
add_log_metric(src_instance, dst_instance, otg_hdr_rx->time, otg_info->rx_pkt_owd[src_instance][dst_instance], OTG_LATENCY_BG);
|
|
else
|
|
add_log_metric(src_instance, dst_instance, otg_hdr_rx->time, otg_info->radio_access_delay[src_instance][dst_instance], OTG_LATENCY_BG);
|
|
}
|
|
|
|
if (g_otg->throughput_metric)
|
|
add_log_metric(src_instance, dst_instance, otg_hdr_rx->time, ((otg_hdr_info_rx->size*1000*8)/(otg_info->rx_pkt_owd[src_instance][dst_instance]*1024 )), OTG_GP_BG);
|
|
}
|
|
|
|
if (is_size_ok == 0) {
|
|
otg_hdr_rx = (otg_hdr_t *) (&buffer_tx[bytes_read]);
|
|
LOG_W(OTG,"[SRC %d][DST %d] RX pkt: seq number %d size mis-matche (hdr %d, pdcp %d) \n",
|
|
src_instance, dst_instance, otg_hdr_rx->seq_num, otg_hdr_info_rx->size, size);
|
|
otg_info->nb_loss_pkts_otg[src_instance][dst_instance]++;
|
|
}
|
|
|
|
return(0);
|
|
} else {
|
|
LOG_W(OTG,"RX: Not an OTG pkt, forward to upper layer (flag %x, size %d, pdcp_size %d) FIX ME \n",
|
|
otg_hdr_info_rx->flag, otg_hdr_info_rx->size, size);
|
|
return(1); //to be fixed on the real case to one
|
|
}
|
|
|
|
}
|
|
|
|
return(0);
|
|
}
|
|
|
|
|
|
|
|
|
|
int rx_check_loss(
|
|
const int src,
|
|
const int dst,
|
|
const unsigned int flag,
|
|
const int seq_num,
|
|
unsigned int * const seq_num_rx,
|
|
unsigned int * const nb_loss_pkts)
|
|
{
|
|
|
|
/* Loss and out of sequence data management, we have 3 case : */
|
|
/* (1) Receieved packet corresponds to the expected one, in terms of the sequence number*/
|
|
int lost_packet=0;
|
|
|
|
if (seq_num==*seq_num_rx) {
|
|
LOG_D(OTG,"check_packet :: (src=%d,dst=%d, flag=0x%x) packet seq_num TX=%d, seq_num RX=%d \n",src,dst,flag, seq_num, *seq_num_rx);
|
|
*seq_num_rx+=1;
|
|
}
|
|
/* (2) Receieved packet with a sequence number higher than the expected sequence number (there is a gap): packet loss */
|
|
else if (seq_num>*seq_num_rx) { // out of sequence packet: previous packet lost
|
|
LOG_D(OTG,"check_packet :: (src=%d,dst=%d, flag=0x%x) :: out of sequence :: packet seq_num TX=%d > seq_num RX=%d \n",src,dst,flag, seq_num, *seq_num_rx);
|
|
*nb_loss_pkts+=seq_num-(*seq_num_rx);
|
|
*seq_num_rx=seq_num+1;
|
|
lost_packet=1;
|
|
}
|
|
/* (3) Receieved packet with a sequence number less than the expected sequence number: recovery after loss/out of sequence */
|
|
else if (seq_num< *seq_num_rx) { //the received packet arrived late
|
|
*nb_loss_pkts-=1;
|
|
LOG_D(OTG,"check_packet :: (src=%d,dst=%d, flag=0x%x) :: recovery after loss or out of sequence :: packet seq_num TX=%d < seq_num RX=%d \n",src,dst,flag, seq_num, *seq_num_rx);
|
|
} else {
|
|
LOG_D(OTG,"check_packet :: (src=%d,dst=%d, flag=0x%x) :: packet seq_num TX=%d , seq_num RX=%d (ERROR)\n",src,dst,flag, seq_num, *seq_num_rx);
|
|
lost_packet=1;
|
|
}
|
|
|
|
return lost_packet;
|
|
}
|
|
|
|
|
|
|
|
|
|
void owd_const_gen(
|
|
const int src,
|
|
const int dst,
|
|
const int flow_id,
|
|
const unsigned int flag)
|
|
{
|
|
otg_info->owd_const[src][dst][flow_id]=(owd_const_mobile_core()+owd_const_IP_backbone()+owd_const_application())/2;
|
|
|
|
if ((flag==M2M)||(flag==M2M_TRAFFIC)||(flag==AUTO_PILOT_L)||(flag==AUTO_PILOT_M)||(flag==AUTO_PILOT_H)||(flag==VIRTUAL_GAME_L)||(flag==VIRTUAL_GAME_M)|| (flag==VIRTUAL_GAME_H)||(flag==VIRTUAL_GAME_F)
|
|
||(flag==ALARM_HUMIDITY)||(flag==ALARM_SMOKE)||(flag==ALARM_TEMPERATURE)||(flag==OPENARENA)||(flag==IQSIM_MANGO)||(flag==IQSIM_NEWSTEO)) {
|
|
otg_info->owd_const[src][dst][flow_id]+=(owd_const_capillary()/2);
|
|
LOG_D(OTG,"(RX) [src %d] [dst %d] [ID %d] TRAFFIC_TYPE IS M2M [Add Capillary const]\n", src, dst, flow_id);
|
|
} else
|
|
LOG_T(OTG,"(RX) [src %d] [dst %d] [ID %d] TRAFFIC_TYPE WITHOUT M2M [Capillary const]\n", src, dst, flow_id);
|
|
}
|
|
|
|
|
|
|
|
float owd_const_capillary(void)
|
|
{
|
|
/*return (uniform_dist(MIN_APPLICATION_PROCESSING_GATEWAY_DELAY, MAX_APPLICATION_PROCESSING_GATEWAY_DELAY) +
|
|
uniform_dist(MIN_FORMATING_TRANSFERRING_DELAY, MAX_FORMATING_TRANSFERRING_DELAY) +
|
|
uniform_dist(MIN_ACCESS_DELAY, MAX_ACCESS_DELAY) +
|
|
TERMINAL_ACCESS_DELAY);*/
|
|
return ((double)MIN_APPLICATION_PROCESSING_GATEWAY_DELAY+ (double)MAX_APPLICATION_PROCESSING_GATEWAY_DELAY + (double)MIN_FORMATING_TRANSFERRING_DELAY+ (double)MAX_FORMATING_TRANSFERRING_DELAY+
|
|
(double)MIN_ACCESS_DELAY+(double)MAX_ACCESS_DELAY) /2 + (double)TERMINAL_ACCESS_DELAY;
|
|
}
|
|
|
|
|
|
float owd_const_mobile_core(void)
|
|
{
|
|
/*double delay;
|
|
// this is a delay model for a loaded GGSN according to
|
|
//"M. Laner, P. Svoboda and M. Rupp, Latency Analysis of 3G Network Components, EW'12, Poznan, Poland, 2012", table 2, page 6.
|
|
if(uniform_rng ()<0.3){
|
|
delay=uniform_dist (0.4,1.2);
|
|
}else{
|
|
// in this case, according to the fit in the paper,
|
|
// the delay is generalized pareto: GP(k=0.75,s=0.55,t=1.2)
|
|
// using inverse cdf method we have CDF(x)=1-(k(x-t)/s+1)^(-1/k),
|
|
// x=CDF^(-1)(u)=t+s/k*((1-u)^(-k)-1) , hence when u~uniform, than x~GP(k,s,t)
|
|
|
|
double k,s,t,u;
|
|
k=0.75;
|
|
s=0.55;
|
|
t=1.2;
|
|
u=uniform_rng();
|
|
delay= t + s/k*(pow(1-u,-k)-1);
|
|
}
|
|
return delay; */
|
|
/*return ( uniform_dist(MIN_U_PLANE_CORE_IP_ACCESS_DELAY, MAX_U_PLANE_CORE_IP_ACCESS_DELAY) + uniform_dist(MIN_FW_PROXY_DELAY,MAX_FW_PROXY_DELAY)); */
|
|
return ((double)MIN_U_PLANE_CORE_IP_ACCESS_DELAY+ (double)MAX_U_PLANE_CORE_IP_ACCESS_DELAY + (double)MIN_FW_PROXY_DELAY + (double)MAX_FW_PROXY_DELAY)/2;
|
|
}
|
|
|
|
float owd_const_IP_backbone(void)
|
|
{
|
|
/*return uniform_dist(MIN_NETWORK_ACCESS_DELAY,MAX_NETWORK_ACCESS_DELAY);*/
|
|
return ((double)MIN_NETWORK_ACCESS_DELAY+(double)MAX_NETWORK_ACCESS_DELAY)/2;
|
|
|
|
}
|
|
|
|
float owd_const_application(void)
|
|
{
|
|
/*return uniform_dist(MIN_APPLICATION_ACESS_DELAY, MAX_APPLICATION_ACESS_DELAY);*/
|
|
return ((double)MIN_APPLICATION_ACESS_DELAY+(double)MAX_APPLICATION_ACESS_DELAY)/2;
|
|
}
|
|
|
|
|
|
|
|
|