satellite-frame-allocator-test.cc

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/* -*- Mode:C++; c-file-style:"gnu"; indent-tabs-mode:nil; -*- */
/*
 * Copyright (c) 2014 Magister Solutions Ltd
 * Copyright (c) 2018 CNES
 *
 * This program is free software; you can redistribute it and/or modify
 * it under the terms of the GNU General Public License version 2 as
 * published by the Free Software Foundation;
 *
 * This program is distributed in the hope that it will be useful,
 * but WITHOUT ANY WARRANTY; without even the implied warranty of
 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
 * GNU General Public License for more details.
 *
 * You should have received a copy of the GNU General Public License
 * along with this program; if not, write to the Free Software
 * Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA  02111-1307  USA
 *
 * Author: Sami Rantanen <sami.rantanen@magister.fi>
 * Author: Mathias Ettinger <mettinger@toulouse.viveris.fr>
 */
 
#include "../model/satellite-superframe-allocator.h"
#include "../model/satellite-utils.h"
#include "../utils/satellite-env-variables.h"
 
#include "ns3/boolean.h"
#include "ns3/config.h"
#include "ns3/log.h"
#include "ns3/simulator.h"
#include "ns3/singleton.h"
#include "ns3/test.h"
#include "ns3/uinteger.h"
 
#include <algorithm>
 
using namespace ns3;
 
class SatFrameAllocatorTestCase : public TestCase
{
  public:
    SatFrameAllocatorTestCase();
    virtual ~SatFrameAllocatorTestCase();
 
  private:
    typedef std::map<Address, std::pair<SatFrameAllocator::SatFrameAllocReq, uint32_t>> ReqInfo_t;
 
    static const uint32_t m_ccLevelCount = 4;
    static const uint32_t m_cnoValueCount = 10;
 
    SatFrameAllocator::CcLevel_t m_ccLevels[m_ccLevelCount];
    double m_cnoValues[m_cnoValueCount];
    uint32_t m_cnoIndex;
    Ptr<SatWaveformConf> m_waveFormConf;
    Ptr<SatFrameConf> m_frameConf;
    Ptr<SatFrameAllocator> m_frameAllocator;
 
    virtual void DoRun(void);
 
    void InitFrame(SatSuperframeConf::ConfigType_t configType);
    void RunSingleUtTest(SatSuperframeConf::ConfigType_t configType,
                         bool acmEnabled,
                         bool fcaEnabled);
    void RunMultiUtTest();
 
    SatFrameAllocator::SatFrameAllocReq ContructRequestForUt(uint32_t& totalBytes,
                                                             uint32_t craBytes,
                                                             uint32_t minRbdcBytes,
                                                             uint32_t rbdcBytes,
                                                             uint32_t vbdcBytes,
                                                             uint32_t rcCount,
                                                             bool controlSlot);
 
    void CheckSingleUtTestResults(uint32_t bytesReq,
                                  SatFrameAllocator::SatFrameAllocReq req,
                                  bool allocated,
                                  SatSuperframeConf::ConfigType_t configType,
                                  SatFrameAllocator::TbtpMsgContainer_t& tbtpContainer,
                                  SatFrameAllocator::UtAllocInfoContainer_t& utAllocContainer,
                                  bool rcBasedAllocation,
                                  bool fcaEnabled,
                                  bool acmEnabled);
 
    void CheckMultiUtTestResults(SatFrameAllocator::UtAllocInfoContainer_t& utAllocContainer,
                                 ReqInfo_t& reqInfo);
};
 
SatFrameAllocatorTestCase::SatFrameAllocatorTestCase()
    : TestCase("Test satellite frame allocator, configuration 0.")
{
    m_ccLevels[0] = SatFrameAllocator::CC_LEVEL_CRA;
    m_ccLevels[1] = SatFrameAllocator::CC_LEVEL_CRA_MIN_RBDC;
    m_ccLevels[2] = SatFrameAllocator::CC_LEVEL_CRA_RBDC;
    m_ccLevels[3] = SatFrameAllocator::CC_LEVEL_CRA_RBDC_VBDC;
 
    m_cnoIndex = 0;
 
    m_cnoValues[0] = SatUtils::DbToLinear(125.0);
    m_cnoValues[1] = SatUtils::DbToLinear(35.0);
    m_cnoValues[2] = SatUtils::DbToLinear(120.0);
    m_cnoValues[3] = std::numeric_limits<double>::quiet_NaN();
    m_cnoValues[4] = SatUtils::DbToLinear(77.0);
    m_cnoValues[5] = SatUtils::DbToLinear(10.0);
    m_cnoValues[6] = SatUtils::DbToLinear(66.0);
    m_cnoValues[7] = SatUtils::DbToLinear(135.0);
    m_cnoValues[8] = std::numeric_limits<double>::quiet_NaN();
    m_cnoValues[9] = SatUtils::DbToLinear(60.0);
 
    std::string dataPath = Singleton<SatEnvVariables>::Get()->GetDataPath();
    std::string folderNameWithPath = dataPath + "/scenarios/geo-33E/waveforms";
    m_waveFormConf = CreateObject<SatWaveformConf>(folderNameWithPath);
}
 
SatFrameAllocatorTestCase::~SatFrameAllocatorTestCase()
{
}
 
void
SatFrameAllocatorTestCase::InitFrame(SatSuperframeConf::ConfigType_t configType)
{
    // create first frame with two carriers and each carrier having three slots
    Ptr<SatBtuConf> btu = Create<SatBtuConf>(10e4, 0.4, 0.1, 1);
 
    bool defaultWaveformInUse = false;
    bool checkSlotLimit = true;
 
    if (configType == SatSuperframeConf::CONFIG_TYPE_0)
    {
        defaultWaveformInUse = true;
    }
 
    if (configType == SatSuperframeConf::CONFIG_TYPE_2)
    {
        checkSlotLimit = false;
    }
 
    SatFrameConf::SatFrameConfParams_t frameConfParameters;
    frameConfParameters.m_bandwidthHz = 10e4 * 2;
    frameConfParameters.m_targetDuration = MilliSeconds(125);
    frameConfParameters.m_btuConf = btu;
    frameConfParameters.m_waveformConf = m_waveFormConf;
    frameConfParameters.m_allocationChannel = 0;
    frameConfParameters.m_isRandomAccess = false;
    frameConfParameters.m_defaultWaveformInUse = defaultWaveformInUse;
    frameConfParameters.m_checkSlotLimit = checkSlotLimit;
    frameConfParameters.m_guardTimeSymbols = 0;
    m_frameConf = Create<SatFrameConf>(frameConfParameters);
    m_frameAllocator = Create<SatFrameAllocator>(m_frameConf, 0, configType, nullptr);
}
 
void
SatFrameAllocatorTestCase::RunSingleUtTest(SatSuperframeConf::ConfigType_t configType,
                                           bool acmEnabled,
                                           bool fcaEnabled)
{
    m_waveFormConf->SetAttribute("AcmEnabled", BooleanValue(acmEnabled));
 
    InitFrame(configType);
 
    double cnoThreshold = std::numeric_limits<double>::quiet_NaN();
 
    // Test with one UT and one RC
    for (uint32_t i = 0; i < 11; i += 2) // CRAs
    {
        for (uint32_t j = 0; j < 15; j += 2) // minimum RBDCs
        {
            for (uint32_t k = 0; k < 15; k += 2) // RBDCs
            {
                for (uint32_t l = 0; l < 15; l += 2) // VBDCs
                {
                    uint32_t bytesReq = 0;
 
                    SatFrameAllocator::SatFrameAllocReq req =
                        ContructRequestForUt(bytesReq, i, j, k, l, 1, (bool)std::rand() % 2);
 
                    // repeat with all CC levels
                    for (uint32_t o = 0; o < m_ccLevelCount; o++)
                    {
                        // reset first allocations
                        m_frameAllocator->Reset();
 
                        uint32_t waveformId = m_waveFormConf->GetDefaultWaveformId();
                        m_frameAllocator->GetBestWaveform(req.m_cno, waveformId, cnoThreshold);
 
                        // do allocation and check that result is what expected
                        bool allocationResult =
                            m_frameAllocator->Allocate(m_ccLevels[o], &req, waveformId);
 
                        m_frameAllocator->PreAllocateSymbols(0.9, fcaEnabled);
 
                        // generate time slots and check results against request, RC based
                        // allocation off
 
                        Ptr<SatTbtpMessage> tptp = CreateObject<SatTbtpMessage>();
                        SatFrameAllocator::TbtpMsgContainer_t tbtpContainer;
                        tbtpContainer.push_back(tptp);
                        SatFrameAllocator::UtAllocInfoContainer_t utAllocContainer;
 
                        m_frameAllocator->GenerateTimeSlots(tbtpContainer,
                                                            1000,
                                                            utAllocContainer,
                                                            false,
                                                            TracedCallback<uint32_t>(),
                                                            TracedCallback<uint32_t, uint32_t>(),
                                                            TracedCallback<uint32_t, double>());
 
                        CheckSingleUtTestResults(bytesReq,
                                                 req,
                                                 allocationResult,
                                                 configType,
                                                 tbtpContainer,
                                                 utAllocContainer,
                                                 false,
                                                 fcaEnabled,
                                                 acmEnabled);
 
                        // generate time slots and check results against request, RC based
                        // allocation on
 
                        tbtpContainer.clear();
                        tptp = CreateObject<SatTbtpMessage>();
                        tbtpContainer.push_back(tptp);
                        utAllocContainer.clear();
 
                        m_frameAllocator->GenerateTimeSlots(tbtpContainer,
                                                            1000,
                                                            utAllocContainer,
                                                            true,
                                                            TracedCallback<uint32_t>(),
                                                            TracedCallback<uint32_t, uint32_t>(),
                                                            TracedCallback<uint32_t, double>());
 
                        CheckSingleUtTestResults(bytesReq,
                                                 req,
                                                 allocationResult,
                                                 configType,
                                                 tbtpContainer,
                                                 utAllocContainer,
                                                 true,
                                                 fcaEnabled,
                                                 acmEnabled);
                    }
                }
            }
        }
    }
 
    // test several times with random values using RC indices 2, 3, 4
    for (uint32_t i = 0; i < 1000; i++)
    {
        for (uint32_t m = 2; m < 4; m++) //
        {
            uint32_t bytesReq = 0;
            uint32_t divider = m_frameConf->GetCarrierMinPayloadInBytes() * 2;
 
            SatFrameAllocator::SatFrameAllocReq req = ContructRequestForUt(bytesReq,
                                                                           std::rand() % divider,
                                                                           std::rand() % divider,
                                                                           std::rand() % divider,
                                                                           std::rand() % divider,
                                                                           2,
                                                                           (bool)std::rand() % 2);
 
            // repeat with all CC levels
            for (uint32_t o = 0; o < m_ccLevelCount; o++)
            {
                // reset first allocations
                m_frameAllocator->Reset();
 
                uint32_t waveformId = m_waveFormConf->GetDefaultWaveformId();
                m_frameAllocator->GetBestWaveform(req.m_cno, waveformId, cnoThreshold);
 
                // do allocation and check that result is what expected
                bool allocationResult = m_frameAllocator->Allocate(m_ccLevels[o], &req, waveformId);
 
                m_frameAllocator->PreAllocateSymbols(0.9, false);
 
                // generate time slots and check results against request, RC based allocation off
 
                Ptr<SatTbtpMessage> tptp = CreateObject<SatTbtpMessage>();
                SatFrameAllocator::TbtpMsgContainer_t tbtpContainer;
                tbtpContainer.push_back(tptp);
                SatFrameAllocator::UtAllocInfoContainer_t utAllocContainer;
 
                m_frameAllocator->GenerateTimeSlots(tbtpContainer,
                                                    1000,
                                                    utAllocContainer,
                                                    false,
                                                    TracedCallback<uint32_t>(),
                                                    TracedCallback<uint32_t, uint32_t>(),
                                                    TracedCallback<uint32_t, double>());
 
                CheckSingleUtTestResults(bytesReq,
                                         req,
                                         allocationResult,
                                         configType,
                                         tbtpContainer,
                                         utAllocContainer,
                                         false,
                                         fcaEnabled,
                                         acmEnabled);
 
                // generate time slots and check results against request, RC based allocation on
 
                tbtpContainer.clear();
                tptp = CreateObject<SatTbtpMessage>();
                tbtpContainer.push_back(tptp);
                utAllocContainer.clear();
 
                m_frameAllocator->GenerateTimeSlots(tbtpContainer,
                                                    1000,
                                                    utAllocContainer,
                                                    true,
                                                    TracedCallback<uint32_t>(),
                                                    TracedCallback<uint32_t, uint32_t>(),
                                                    TracedCallback<uint32_t, double>());
 
                CheckSingleUtTestResults(bytesReq,
                                         req,
                                         allocationResult,
                                         configType,
                                         tbtpContainer,
                                         utAllocContainer,
                                         true,
                                         fcaEnabled,
                                         acmEnabled);
            }
        }
    }
 
    Simulator::Destroy();
}
 
void
SatFrameAllocatorTestCase::CheckSingleUtTestResults(
    uint32_t bytesReq,
    SatFrameAllocator::SatFrameAllocReq req,
    bool allocated,
    SatSuperframeConf::ConfigType_t configType,
    SatFrameAllocator::TbtpMsgContainer_t& tbtpContainer,
    SatFrameAllocator::UtAllocInfoContainer_t& utAllocContainer,
    bool rcBasedAllocation,
    bool fcaEnabled,
    bool acmEnabled)
{
    uint16_t slotCount = m_frameConf->GetTimeSlotCount();
    uint16_t carrierCount = m_frameConf->GetCarrierCount();
    uint16_t slotsPerCarrier = slotCount / carrierCount;
    uint32_t minCarrierBytes = m_frameConf->GetCarrierMinPayloadInBytes();
 
    uint32_t tbtpAllocatedBytes = 0;
    uint32_t slotsAllocated = 0;
 
    for (SatFrameAllocator::TbtpMsgContainer_t::const_iterator it = tbtpContainer.begin();
         it != tbtpContainer.end();
         it++)
    {
        SatTbtpMessage::DaTimeSlotInfoItem_t info = (*it)->GetDaTimeslots(req.m_address);
 
        for (SatTbtpMessage::DaTimeSlotConfContainer_t::const_iterator it2 = info.second.begin();
             it2 != info.second.end();
             it2++)
        {
            tbtpAllocatedBytes += m_frameConf->GetWaveformConf()
                                      ->GetWaveform((*it2)->GetWaveFormId())
                                      ->GetPayloadInBytes();
        }
 
        slotsAllocated += info.second.size();
    }
 
    // check that information is identical in TBTP container and UT allocation container
    if (slotsAllocated > 0)
    {
        NS_TEST_ASSERT_MSG_EQ(utAllocContainer.at(req.m_address).second,
                              req.m_generateCtrlSlot,
                              "Control slot generation what expected!");
        NS_ASSERT(utAllocContainer.at(req.m_address).second == req.m_generateCtrlSlot);
 
        uint32_t utAllocContainerBytes = 0;
 
        for (uint32_t i = 0; i < utAllocContainer.at(req.m_address).first.size(); i++)
        {
            utAllocContainerBytes += utAllocContainer.at(req.m_address).first.at(i);
        }
 
        // std::cout << i << " " << j << " " << k << " " << l << " " << m << " " << m_ccLevels[o] <<
        // " " << tbtpAllocatedBytes << " " << utAllocContainerBytes << " " << std::endl;
        NS_TEST_ASSERT_MSG_EQ(tbtpAllocatedBytes,
                              utAllocContainerBytes,
                              " TBTP bytes=" << tbtpAllocatedBytes
                                             << ", UT bytes=" << utAllocContainerBytes);
        NS_ASSERT(tbtpAllocatedBytes == utAllocContainerBytes);
 
        bool minBytesAllocated =
            (utAllocContainerBytes >= std::min<uint32_t>(bytesReq, minCarrierBytes));
 
        NS_TEST_ASSERT_MSG_EQ(minBytesAllocated, true, "Minimum bytes not allocated!");
        NS_ASSERT(minBytesAllocated == true);
    }
    else
    {
        NS_TEST_ASSERT_MSG_EQ(utAllocContainer.empty(), true, "No allocations expected!");
        NS_ASSERT(utAllocContainer.empty() == true);
    }
 
    uint32_t slotsExpected = 0;
 
    if (allocated)
    {
        slotsExpected =
            std::ceil((double)bytesReq / (double)minCarrierBytes * (double)slotsPerCarrier);
 
        if (req.m_generateCtrlSlot)
        {
            slotsExpected++;
        }
 
        slotsExpected = std::min<uint32_t>(slotsExpected, slotsPerCarrier);
 
        if (fcaEnabled)
        {
            bool onlyCraRequested = true;
 
            for (uint32_t i = 0; i < req.m_reqPerRc.size(); i++)
            {
                if ((req.m_reqPerRc.at(i).m_rbdcBytes > 0) ||
                    (req.m_reqPerRc.at(i).m_vbdcBytes > 0))
                {
                    onlyCraRequested = false;
                }
            }
 
            if (((configType == SatSuperframeConf::CONFIG_TYPE_0) || (acmEnabled == false)) &&
                (onlyCraRequested == false))
            {
                slotsExpected = slotsPerCarrier;
            }
        }
    }
    // std::cout << i << " " << j << " " << k << " " << l << " " << m <<  " "<< m_ccLevels[o] << " "
    // << slotsExpected << "=" << slotsAllocated << " " << bytesReq << " " <<
    // m_frameConf->GetCarrierMinPayloadInBytes () << std::endl;
 
    // check that slots are what expected
    // in other configuration than 0 or when RC based allocation is enabled,
    // it can be just checked that some slots are allocated (if request is not zero)
 
    if ((configType == SatSuperframeConf::CONFIG_TYPE_0) && (rcBasedAllocation == false))
    {
        NS_TEST_ASSERT_MSG_EQ(slotsAllocated,
                              slotsExpected,
                              " slots allocated= " << slotsAllocated
                                                   << ", slots expected= " << slotsExpected);
    }
    else
    {
        if (slotsExpected > 0)
        {
            NS_TEST_ASSERT_MSG_GT(slotsAllocated,
                                  0,
                                  " slots allocated= " << slotsAllocated
                                                       << ", at least one expected.");
        }
        else
        {
            NS_TEST_ASSERT_MSG_EQ(slotsAllocated,
                                  slotsExpected,
                                  " slots allocated= " << slotsAllocated
                                                       << ", slots expected= " << slotsExpected);
        }
    }
}
 
void
SatFrameAllocatorTestCase::RunMultiUtTest()
{
    m_waveFormConf->SetAttribute("AcmEnabled", BooleanValue(false));
 
    // test with configuration type 0
    InitFrame(SatSuperframeConf::CONFIG_TYPE_0);
 
    uint32_t utBytesReq[6];
    SatFrameAllocator::SatFrameAllocReq req[6];
 
    req[0] = ContructRequestForUt(utBytesReq[0], 4, 1, 6, 0, 1, false);
    req[1] = ContructRequestForUt(utBytesReq[1], 4, 0, 0, 6, 1, false);
    req[2] = ContructRequestForUt(utBytesReq[2], 4, 1, 3, 3, 1, false);
    req[3] = ContructRequestForUt(utBytesReq[3], 1, 0, 1, 0, 1, false);
    req[4] = ContructRequestForUt(utBytesReq[4], 2, 0, 0, 1, 1, false);
    req[5] = ContructRequestForUt(utBytesReq[5], 1, 1, 1, 1, 1, false);
 
    uint32_t waveformId[6];
    double cnoThreshold = std::numeric_limits<double>::quiet_NaN();
 
    for (uint32_t i = 0; i < 6; i++)
    {
        waveformId[i] = m_waveFormConf->GetDefaultWaveformId();
        m_frameAllocator->GetBestWaveform(req[i].m_cno, waveformId[i], cnoThreshold);
    }
 
    bool allocationResult;
 
    // test with two UTs
    for (uint32_t n = 0; n < 5; n++)
    {
        for (uint32_t m = n + 1; m < 6; m++)
        {
            // repeat case all CC levels
            for (uint32_t o = 0; o < m_ccLevelCount; o++)
            {
                m_frameAllocator->Reset();
 
                allocationResult =
                    m_frameAllocator->Allocate(m_ccLevels[o], &req[n], waveformId[n]);
                NS_TEST_ASSERT_MSG_EQ(true, allocationResult, "Allocation failed!");
 
                allocationResult =
                    m_frameAllocator->Allocate(m_ccLevels[o], &req[m], waveformId[m]);
                NS_TEST_ASSERT_MSG_EQ(true, allocationResult, "Allocation failed!");
 
                m_frameAllocator->PreAllocateSymbols(1.0, false);
 
                Ptr<SatTbtpMessage> tptp = CreateObject<SatTbtpMessage>();
                SatFrameAllocator::TbtpMsgContainer_t tbtpContainer;
                tbtpContainer.push_back(tptp);
                SatFrameAllocator::UtAllocInfoContainer_t utAllocContainer;
 
                m_frameAllocator->GenerateTimeSlots(tbtpContainer,
                                                    1000,
                                                    utAllocContainer,
                                                    false,
                                                    TracedCallback<uint32_t>(),
                                                    TracedCallback<uint32_t, uint32_t>(),
                                                    TracedCallback<uint32_t, double>());
 
                ReqInfo_t reqInfo;
                reqInfo.insert(
                    std::make_pair(req[n].m_address, std::make_pair(req[n], utBytesReq[n])));
                reqInfo.insert(
                    std::make_pair(req[m].m_address, std::make_pair(req[m], utBytesReq[m])));
 
                CheckMultiUtTestResults(utAllocContainer, reqInfo);
            }
        }
    }
 
    // test with three UTs
    for (uint32_t n = 0; n < 4; n++)
    {
        for (uint32_t m = n + 1; m < 5; m++)
        {
            for (uint32_t o = m + 2; o < 6; o++)
            {
                m_frameAllocator->Reset();
 
                allocationResult = m_frameAllocator->Allocate(SatFrameAllocator::CC_LEVEL_CRA,
                                                              &req[n],
                                                              waveformId[n]);
                NS_TEST_ASSERT_MSG_EQ(true, allocationResult, "Allocation failed!");
 
                allocationResult = m_frameAllocator->Allocate(SatFrameAllocator::CC_LEVEL_CRA,
                                                              &req[m],
                                                              waveformId[m]);
                NS_TEST_ASSERT_MSG_EQ(true, allocationResult, "Allocation failed!");
 
                allocationResult = m_frameAllocator->Allocate(SatFrameAllocator::CC_LEVEL_CRA,
                                                              &req[o],
                                                              waveformId[o]);
                NS_TEST_ASSERT_MSG_EQ(true, allocationResult, "Allocation failed!");
 
                m_frameAllocator->PreAllocateSymbols(1.0, false);
 
                Ptr<SatTbtpMessage> tptp = CreateObject<SatTbtpMessage>();
                SatFrameAllocator::TbtpMsgContainer_t tbtpContainer;
                tbtpContainer.push_back(tptp);
                SatFrameAllocator::UtAllocInfoContainer_t utAllocContainer;
 
                m_frameAllocator->GenerateTimeSlots(tbtpContainer,
                                                    1000,
                                                    utAllocContainer,
                                                    false,
                                                    TracedCallback<uint32_t>(),
                                                    TracedCallback<uint32_t, uint32_t>(),
                                                    TracedCallback<uint32_t, double>());
 
                ReqInfo_t reqInfo;
                reqInfo.insert(
                    std::make_pair(req[n].m_address, std::make_pair(req[n], utBytesReq[n])));
                reqInfo.insert(
                    std::make_pair(req[m].m_address, std::make_pair(req[m], utBytesReq[m])));
                reqInfo.insert(
                    std::make_pair(req[m].m_address, std::make_pair(req[o], utBytesReq[o])));
 
                CheckMultiUtTestResults(utAllocContainer, reqInfo);
            }
        }
    }
}
 
void
SatFrameAllocatorTestCase::CheckMultiUtTestResults(
    SatFrameAllocator::UtAllocInfoContainer_t& utAllocContainer,
    ReqInfo_t& reqInfo)
{
    uint16_t carrierCount = m_frameConf->GetCarrierCount();
    uint32_t minCarrierBytes = m_frameConf->GetCarrierMinPayloadInBytes();
 
    for (SatFrameAllocator::UtAllocInfoContainer_t::const_iterator it = utAllocContainer.begin();
         it != utAllocContainer.end();
         it++)
    {
        uint32_t bytesAllocated = 0;
 
        for (std::vector<uint32_t>::const_iterator it2 = it->second.first.begin();
             it2 != it->second.first.end();
             it2++)
        {
            bytesAllocated += *it2;
        }
 
        // check results can be easily checked by general way
        if (utAllocContainer.size() > carrierCount)
        {
            NS_TEST_ASSERT_MSG_GT(bytesAllocated, 0, "Allocation not what expected!");
        }
        else if (reqInfo.at(it->first).second == minCarrierBytes)
        {
            NS_TEST_ASSERT_MSG_EQ(minCarrierBytes, bytesAllocated, "Allocation not what expected!");
        }
        else
        {
            NS_TEST_ASSERT_MSG_NE(minCarrierBytes, bytesAllocated, "Allocation not what expected!");
        }
    }
}
 
SatFrameAllocator::SatFrameAllocReq
SatFrameAllocatorTestCase::ContructRequestForUt(uint32_t& totalBytes,
                                                uint32_t craBytes,
                                                uint32_t minRbdcBytes,
                                                uint32_t rbdcBytes,
                                                uint32_t vbdcBytes,
                                                uint32_t rcCount,
                                                bool controlSlot)
{
    SatFrameAllocator::SatFrameAllocReqItemContainer_t rcReqs =
        SatFrameAllocator::SatFrameAllocReqItemContainer_t(
            rcCount,
            SatFrameAllocator::SatFrameAllocReqItem());
 
    SatFrameAllocator::SatFrameAllocReq req;
    req = SatFrameAllocator::SatFrameAllocReq(rcReqs);
    req.m_address = Mac48Address::Allocate();
    req.m_generateCtrlSlot = controlSlot;
 
    m_cnoIndex++;
 
    if (m_cnoIndex >= m_cnoValueCount)
    {
        m_cnoIndex = 0;
    }
 
    req.m_cno = m_cnoValues[m_cnoIndex];
 
    uint32_t craBytesReq = 0;
    totalBytes = 0;
 
    uint32_t maxCraBytes = m_frameConf->GetCarrierMinPayloadInBytes();
    uint32_t minCarrierBytes = maxCraBytes;
 
    if (req.m_generateCtrlSlot)
    {
        maxCraBytes -= m_frameAllocator->GetMostRobustWaveform()->GetPayloadInBytes();
    }
 
    if (craBytesReq < maxCraBytes)
    {
        uint32_t craBytesLeft = maxCraBytes - craBytesReq;
        req.m_reqPerRc[0].m_craBytes =
            std::min<uint32_t>(minCarrierBytes * craBytes / 10, craBytesLeft);
    }
    else
    {
        req.m_reqPerRc[0].m_craBytes = 0;
    }
 
    req.m_reqPerRc[0].m_minRbdcBytes = minCarrierBytes * minRbdcBytes / 10;
    req.m_reqPerRc[0].m_rbdcBytes = minCarrierBytes * rbdcBytes / 10;
    req.m_reqPerRc[0].m_vbdcBytes = minCarrierBytes * vbdcBytes / 10;
 
    if (req.m_reqPerRc[0].m_minRbdcBytes > req.m_reqPerRc[0].m_rbdcBytes)
    {
        req.m_reqPerRc[0].m_rbdcBytes = req.m_reqPerRc[0].m_minRbdcBytes;
    }
 
    craBytesReq += req.m_reqPerRc[0].m_craBytes;
 
    totalBytes += req.m_reqPerRc[0].m_craBytes;
    totalBytes += req.m_reqPerRc[0].m_rbdcBytes;
    totalBytes += req.m_reqPerRc[0].m_vbdcBytes;
 
    uint32_t divider = minCarrierBytes + 1;
 
    // if more than one RC is given, then random request value is set for the RC 1 to RC n
    for (uint32_t i = 1; i < rcCount; i++)
    {
        if (craBytesReq < maxCraBytes)
        {
            uint32_t craBytesLeft = maxCraBytes - craBytesReq;
            req.m_reqPerRc[i].m_craBytes = std::min<uint32_t>(std::rand() % divider, craBytesLeft);
        }
        else
        {
            req.m_reqPerRc[i].m_craBytes = 0;
        }
 
        req.m_reqPerRc[i].m_minRbdcBytes = std::rand() % divider;
        req.m_reqPerRc[i].m_rbdcBytes = std::rand() % divider;
        req.m_reqPerRc[i].m_vbdcBytes = std::rand() % divider;
 
        if (req.m_reqPerRc[i].m_minRbdcBytes > req.m_reqPerRc[i].m_rbdcBytes)
        {
            req.m_reqPerRc[i].m_rbdcBytes = req.m_reqPerRc[i].m_minRbdcBytes;
        }
 
        craBytesReq += req.m_reqPerRc[i].m_craBytes;
        totalBytes += req.m_reqPerRc[i].m_craBytes;
        totalBytes += req.m_reqPerRc[i].m_rbdcBytes;
        totalBytes += req.m_reqPerRc[i].m_vbdcBytes;
    }
 
    return req;
}
 
void
SatFrameAllocatorTestCase::DoRun(void)
{
    // Set simulation output details
    Singleton<SatEnvVariables>::Get()->DoInitialize();
    Singleton<SatEnvVariables>::Get()->SetOutputVariables("sat-frame-allocator", "", true);
 
    // test single UT with all configuration types, ACM and FCA disabled
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_0, false, false);
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_1, false, false);
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_2, false, false);
 
    // test single UT with all configuration types, ACM disabled and FCA enabled
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_0, false, true);
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_1, false, true);
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_2, false, true);
 
    // test single UT with all configuration types, ACM enabled and FCA disabled
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_0, true, false);
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_1, true, false);
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_2, true, false);
 
    // test single UT with all configuration types, ACM enabled and FCA enabled
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_0, true, true);
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_1, true, true);
    RunSingleUtTest(SatSuperframeConf::CONFIG_TYPE_2, true, true);
 
    // test with two and three UTs
    RunMultiUtTest();
 
    Singleton<SatEnvVariables>::Get()->DoDispose();
}
 
class SatFrameAllocatorTestSuite : public TestSuite
{
  public:
    SatFrameAllocatorTestSuite();
};
 
SatFrameAllocatorTestSuite::SatFrameAllocatorTestSuite()
    : TestSuite("sat-frame-allocator-test", Type::UNIT)
{
    AddTestCase(new SatFrameAllocatorTestCase, TestCase::Duration::QUICK);
}
 
// Do allocate an instance of this TestSuite
static SatFrameAllocatorTestSuite satFrameAllocatorTestSuite;