lena-lte-comparison-campaign.cc

// Copyright (c) 2022 Centre Tecnologic de Telecomunicacions de Catalunya (CTTC)
//
// SPDX-License-Identifier: GPL-2.0-only
 
#include "lena-lte-comparison.h"
 
#include "ns3/command-line.h"
#include "ns3/show-progress.h"
 
using namespace ns3;
 
int
main(int argc, char* argv[])
{
    Parameters params;
    /*
     * From here, we instruct the ns3::CommandLine class of all the input parameters
     * that we may accept as input, as well as their description, and the storage
     * variable.
     */
    CommandLine cmd(__FILE__);
 
    cmd.AddValue("scenario", "The urban scenario string (UMa,UMi,RMa)", params.scenario);
    cmd.AddValue("numRings", "The number of rings around the central site", params.numOuterRings);
    cmd.AddValue("ueNumPergNb",
                 "The number of UE per cell or gNB in multiple-ue topology",
                 params.ueNumPergNb);
    cmd.AddValue("siteFile",
                 "Path to file of tower coordinates (instead of hexagonal grid)",
                 params.baseStationFile);
    cmd.AddValue("useSiteFile",
                 "If true, it will be used site file, otherwise it will be used "
                 "numRings parameter to create scenario.",
                 params.useSiteFile);
    cmd.AddValue("appGenerationTime",
                 "Duration applications will generate traffic.",
                 params.appGenerationTime);
    cmd.AddValue("numerologyBwp", "The numerology to be used (NR only)", params.numerologyBwp);
    cmd.AddValue("pattern", "The TDD pattern to use", params.pattern);
    cmd.AddValue("direction", "The flow direction (DL or UL)", params.direction);
    cmd.AddValue("simulator",
                 "The cellular network simulator to use: LENA or 5GLENA",
                 params.simulator);
    cmd.AddValue("technology",
                 "The radio access network technology (LTE or NR)",
                 params.radioNetwork);
    cmd.AddValue("operationMode",
                 "The network operation mode can be TDD or FDD",
                 params.operationMode);
    cmd.AddValue("simTag",
                 "tag to be appended to output filenames to distinguish simulation campaigns",
                 params.simTag);
    cmd.AddValue("outputDir", "directory where to store simulation results", params.outputDir);
    cmd.AddValue("errorModelType",
                 "Error model type: ns3::NrEesmCcT1, ns3::NrEesmCcT2, ns3::NrEesmIrT1, "
                 "ns3::NrEesmIrT2, ns3::NrLteMiErrorModel",
                 params.errorModel);
    cmd.AddValue("calibration",
                 "disable a bunch of things to make LENA and NR_LTE comparable",
                 params.calibration);
    cmd.AddValue("trafficScenario",
                 "0: saturation (80 Mbps/20 MHz), 1: latency (1 pkt of 12 bytes), 2: low-load (1 "
                 "Mbps), 3: medium-load (20Mbps)",
                 params.trafficScenario);
    cmd.AddValue("scheduler", "PF: Proportional Fair, RR: Round-Robin", params.scheduler);
    cmd.AddValue("bandwidth",
                 "BW in MHz for each BWP (integer value): valid values are 20, 10, 5",
                 params.bandwidthMHz);
    cmd.AddValue("freqScenario",
                 "0: NON_OVERLAPPING (each sector in different freq), 1: OVERLAPPING (same freq "
                 "for all sectors)",
                 params.freqScenario);
    cmd.AddValue("downtiltAngle",
                 "Base station antenna downtilt angle (deg)",
                 params.downtiltAngle);
    cmd.AddValue("enableUlPc", "Whether to enable or disable UL power control", params.enableUlPc);
    cmd.AddValue("powerAllocation",
                 "Power allocation can be a)UniformPowerAllocBw or b)UniformPowerAllocUsed.",
                 params.powerAllocation);
 
    // Parse the command line
    cmd.Parse(argc, argv);
    params.Validate();
 
    std::cout << params;
 
    ShowProgress spinner(Seconds(100));
 
    LenaLteComparison(params);
 
    return 0;
}