lte-rrc-header.cc

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/*
 * Copyright (c) 2012 Centre Tecnologic de Telecomunicacions de Catalunya (CTTC)
 *
 * SPDX-License-Identifier: GPL-2.0-only
 *
 * Author: Lluis Parcerisa <lparcerisa@cttc.cat>
 * Modified by:
 *          Danilo Abrignani <danilo.abrignani@unibo.it> (Carrier Aggregation - GSoC 2015)
 *          Biljana Bojovic <biljana.bojovic@cttc.es> (Carrier Aggregation)
 */
 
#include "lte-rrc-header.h"
 
#include "ns3/log.h"
 
#include <sstream>
#include <stdio.h>
 
#define MAX_DRB 11 // According to section 6.4 3GPP TS 36.331
#define MAX_EARFCN 262143
#define MAX_RAT_CAPABILITIES 8
#define MAX_SI_MESSAGE 32
#define MAX_SIB 32
 
#define MAX_REPORT_CONFIG_ID 32
#define MAX_OBJECT_ID 32
#define MAX_MEAS_ID 32
#define MAX_CELL_MEAS 32
#define MAX_CELL_REPORT 8
 
#define MAX_SCELL_REPORT 5
#define MAX_SCELL_CONF 5
 
namespace ns3
{
 
NS_LOG_COMPONENT_DEFINE("RrcHeader");
 
//////////////////// RrcAsn1Header class ///////////////////////////////
RrcAsn1Header::RrcAsn1Header()
{
}
 
TypeId
RrcAsn1Header::GetTypeId()
{
    static TypeId tid = TypeId("ns3::RrcAsn1Header").SetParent<Header>().SetGroupName("Lte");
    return tid;
}
 
TypeId
RrcAsn1Header::GetInstanceTypeId() const
{
    return GetTypeId();
}
 
int
RrcAsn1Header::GetMessageType() const
{
    return m_messageType;
}
 
int
RrcAsn1Header::BandwidthToEnum(uint16_t bandwidth) const
{
    int n;
    switch (bandwidth)
    {
    case 6:
        n = 0;
        break;
    case 15:
        n = 1;
        break;
    case 25:
        n = 2;
        break;
    case 50:
        n = 3;
        break;
    case 75:
        n = 4;
        break;
    case 100:
        n = 5;
        break;
    default:
        NS_FATAL_ERROR("Wrong bandwidth: " << bandwidth);
    }
    return n;
}
 
uint16_t
RrcAsn1Header::EnumToBandwidth(int n) const
{
    uint16_t bw;
    switch (n)
    {
    case 0:
        bw = 6;
        break;
    case 1:
        bw = 15;
        break;
    case 2:
        bw = 25;
        break;
    case 3:
        bw = 50;
        break;
    case 4:
        bw = 75;
        break;
    case 5:
        bw = 100;
        break;
    default:
        NS_FATAL_ERROR("Wrong enum value for bandwidth: " << n);
    }
    return bw;
}
 
void
RrcAsn1Header::SerializeDrbToAddModList(std::list<LteRrcSap::DrbToAddMod> drbToAddModList) const
{
    // Serialize DRB-ToAddModList sequence-of
    SerializeSequenceOf(drbToAddModList.size(), MAX_DRB, 1);
 
    // Serialize the elements in the sequence-of list
    auto it = drbToAddModList.begin();
    for (; it != drbToAddModList.end(); it++)
    {
        // Serialize DRB-ToAddMod sequence
        // 5 optional fields. Extension marker is present.
        std::bitset<5> drbToAddModListOptionalFieldsPresent = std::bitset<5>();
        drbToAddModListOptionalFieldsPresent.set(4, true);  // eps-BearerIdentity present
        drbToAddModListOptionalFieldsPresent.set(3, false); // pdcp-Config not present
        drbToAddModListOptionalFieldsPresent.set(2, true);  // rlc-Config present
        drbToAddModListOptionalFieldsPresent.set(1, true);  // logicalChannelIdentity present
        drbToAddModListOptionalFieldsPresent.set(0, true);  // logicalChannelConfig present
        SerializeSequence(drbToAddModListOptionalFieldsPresent, true);
 
        // Serialize eps-BearerIdentity::=INTEGER (0..15)
        SerializeInteger(it->epsBearerIdentity, 0, 15);
 
        // Serialize drb-Identity ::= INTEGER (1..32)
        SerializeInteger(it->drbIdentity, 1, 32);
 
        switch (it->rlcConfig.choice)
        {
        case LteRrcSap::RlcConfig::UM_BI_DIRECTIONAL:
            // Serialize rlc-Config choice
            SerializeChoice(4, 1, true);
 
            // Serialize UL-UM-RLC
            SerializeSequence(std::bitset<0>(), false);
            SerializeEnum(2, 0); // sn-FieldLength
 
            // Serialize DL-UM-RLC
            SerializeSequence(std::bitset<0>(), false);
            SerializeEnum(2, 0);  // sn-FieldLength
            SerializeEnum(32, 0); // t-Reordering
            break;
 
        case LteRrcSap::RlcConfig::UM_UNI_DIRECTIONAL_UL:
            // Serialize rlc-Config choice
            SerializeChoice(4, 2, true);
 
            // Serialize UL-UM-RLC
            SerializeSequence(std::bitset<0>(), false);
            SerializeEnum(2, 0); // sn-FieldLength
            break;
 
        case LteRrcSap::RlcConfig::UM_UNI_DIRECTIONAL_DL:
            // Serialize rlc-Config choice
            SerializeChoice(4, 3, true);
 
            // Serialize DL-UM-RLC
            SerializeSequence(std::bitset<0>(), false);
            SerializeEnum(2, 0);  // sn-FieldLength
            SerializeEnum(32, 0); // t-Reordering
            break;
 
        case LteRrcSap::RlcConfig::AM:
        default:
            // Serialize rlc-Config choice
            SerializeChoice(4, 0, true);
 
            // Serialize UL-AM-RLC
            SerializeSequence(std::bitset<0>(), false);
            SerializeEnum(64, 0); // t-PollRetransmit
            SerializeEnum(8, 0);  // pollPDU
            SerializeEnum(16, 0); // pollByte
            SerializeEnum(8, 0);  // maxRetxThreshold
 
            // Serialize DL-AM-RLC
            SerializeSequence(std::bitset<0>(), false);
            SerializeEnum(32, 0); // t-Reordering
            SerializeEnum(64, 0); // t-StatusProhibit
            break;
        }
 
        // Serialize logicalChannelIdentity ::=INTEGER (3..10)
        SerializeInteger(it->logicalChannelIdentity, 3, 10);
 
        // Serialize logicalChannelConfig
        SerializeLogicalChannelConfig(it->logicalChannelConfig);
    }
}
 
void
RrcAsn1Header::SerializeSrbToAddModList(std::list<LteRrcSap::SrbToAddMod> srbToAddModList) const
{
    // Serialize SRB-ToAddModList ::= SEQUENCE (SIZE (1..2)) OF SRB-ToAddMod
    SerializeSequenceOf(srbToAddModList.size(), 2, 1);
 
    // Serialize the elements in the sequence-of list
    auto it = srbToAddModList.begin();
    for (; it != srbToAddModList.end(); it++)
    {
        // Serialize SRB-ToAddMod sequence
        // 2 optional fields. Extension marker is present.
        std::bitset<2> srbToAddModListOptionalFieldsPresent = std::bitset<2>();
        srbToAddModListOptionalFieldsPresent.set(1, false); // rlc-Config not present
        srbToAddModListOptionalFieldsPresent.set(0, true);  // logicalChannelConfig present
        SerializeSequence(srbToAddModListOptionalFieldsPresent, true);
 
        // Serialize srb-Identity ::= INTEGER (1..2)
        SerializeInteger(it->srbIdentity, 1, 2);
 
        // Serialize logicalChannelConfig choice
        // 2 options, selected option 0 (var "explicitValue", of type LogicalChannelConfig)
        SerializeChoice(2, 0, false);
 
        // Serialize LogicalChannelConfig
        SerializeLogicalChannelConfig(it->logicalChannelConfig);
    }
}
 
void
RrcAsn1Header::SerializeLogicalChannelConfig(
    LteRrcSap::LogicalChannelConfig logicalChannelConfig) const
{
    // Serialize LogicalChannelConfig sequence
    // 1 optional field (ul-SpecificParameters), which is present. Extension marker present.
    SerializeSequence(std::bitset<1>(1), true);
 
    // Serialize ul-SpecificParameters sequence
    // 1 optional field (logicalChannelGroup), which is present. No extension marker.
    SerializeSequence(std::bitset<1>(1), false);
 
    // Serialize priority ::= INTEGER (1..16)
    SerializeInteger(logicalChannelConfig.priority, 1, 16);
 
    // Serialize prioritisedBitRate
    int prioritizedBitRate;
    switch (logicalChannelConfig.prioritizedBitRateKbps)
    {
    case 0:
        prioritizedBitRate = 0;
        break;
    case 8:
        prioritizedBitRate = 1;
        break;
    case 16:
        prioritizedBitRate = 2;
        break;
    case 32:
        prioritizedBitRate = 3;
        break;
    case 64:
        prioritizedBitRate = 4;
        break;
    case 128:
        prioritizedBitRate = 5;
        break;
    case 256:
        prioritizedBitRate = 6;
        break;
    default:
        prioritizedBitRate = 7; // Infinity
    }
    SerializeEnum(16, prioritizedBitRate);
 
    // Serialize bucketSizeDuration
    int bucketSizeDuration;
    switch (logicalChannelConfig.bucketSizeDurationMs)
    {
    case 50:
        bucketSizeDuration = 0;
        break;
    case 100:
        bucketSizeDuration = 1;
        break;
    case 150:
        bucketSizeDuration = 2;
        break;
    case 300:
        bucketSizeDuration = 3;
        break;
    case 500:
        bucketSizeDuration = 4;
        break;
    case 1000:
        bucketSizeDuration = 5;
        break;
    default:
        bucketSizeDuration = 5;
    }
    SerializeEnum(8, bucketSizeDuration);
 
    // Serialize logicalChannelGroup ::= INTEGER (0..3)
    SerializeInteger(logicalChannelConfig.logicalChannelGroup, 0, 3);
}
 
void
RrcAsn1Header::SerializePhysicalConfigDedicated(
    LteRrcSap::PhysicalConfigDedicated physicalConfigDedicated) const
{
    // Serialize PhysicalConfigDedicated Sequence
    std::bitset<10> optionalFieldsPhysicalConfigDedicated;
    optionalFieldsPhysicalConfigDedicated.set(
        9,
        physicalConfigDedicated.havePdschConfigDedicated); // pdsch-ConfigDedicated
    optionalFieldsPhysicalConfigDedicated.set(8, false);   // pucch-ConfigDedicated not present
    optionalFieldsPhysicalConfigDedicated.set(7, false);   // pusch-ConfigDedicated not present
    optionalFieldsPhysicalConfigDedicated.set(6, false); // uplinkPowerControlDedicated not present
    optionalFieldsPhysicalConfigDedicated.set(5, false); // tpc-PDCCH-ConfigPUCCH not present
    optionalFieldsPhysicalConfigDedicated.set(4, false); // tpc-PDCCH-ConfigPUSCH not present
    optionalFieldsPhysicalConfigDedicated.set(3, false); // cqi-ReportConfig not present
    optionalFieldsPhysicalConfigDedicated.set(
        2,
        physicalConfigDedicated.haveSoundingRsUlConfigDedicated); // soundingRS-UL-ConfigDedicated
    optionalFieldsPhysicalConfigDedicated.set(
        1,
        physicalConfigDedicated.haveAntennaInfoDedicated); // antennaInfo
    optionalFieldsPhysicalConfigDedicated.set(0, false);   // schedulingRequestConfig not present
    SerializeSequence(optionalFieldsPhysicalConfigDedicated, true);
 
    if (physicalConfigDedicated.havePdschConfigDedicated)
    {
        // Serialize Pdsch-ConfigDedicated Sequence:
        // 0 optional / default fields, no extension marker.
        SerializeSequence(std::bitset<0>(), false);
 
        // Serialize  p-a
        // Assuming the value in the struct is the enum index
        SerializeEnum(8, physicalConfigDedicated.pdschConfigDedicated.pa);
 
        // Serialize release
        SerializeNull();
    }
 
    if (physicalConfigDedicated.haveSoundingRsUlConfigDedicated)
    {
        // Serialize SoundingRS-UL-ConfigDedicated choice:
        switch (physicalConfigDedicated.soundingRsUlConfigDedicated.type)
        {
        case LteRrcSap::SoundingRsUlConfigDedicated::RESET:
            SerializeChoice(2, 0, false);
            SerializeNull();
            break;
 
        case LteRrcSap::SoundingRsUlConfigDedicated::SETUP:
        default:
            // 2 options, selected: 1 (setup)
            SerializeChoice(2, 1, false);
 
            // Serialize setup sequence
            // 0 optional / default fields, no extension marker.
            SerializeSequence(std::bitset<0>(), false);
 
            // Serialize srs-Bandwidth
            SerializeEnum(4, physicalConfigDedicated.soundingRsUlConfigDedicated.srsBandwidth);
 
            // Serialize  srs-HoppingBandwidth
            SerializeEnum(4, 0);
 
            // Serialize freqDomainPosition
            SerializeInteger(0, 0, 23);
 
            // Serialize duration
            SerializeBoolean(false);
 
            // Serialize srs-ConfigIndex
            SerializeInteger(physicalConfigDedicated.soundingRsUlConfigDedicated.srsConfigIndex,
                             0,
                             1023);
 
            // Serialize transmissionComb
            SerializeInteger(0, 0, 1);
 
            // Serialize cyclicShift
            SerializeEnum(8, 0);
 
            break;
        }
    }
 
    if (physicalConfigDedicated.haveAntennaInfoDedicated)
    {
        // Serialize antennaInfo choice
        // 2 options. Selected: 0 ("explicitValue" of type "AntennaInfoDedicated")
        SerializeChoice(2, 0, false);
 
        // Serialize AntennaInfoDedicated sequence
        // 1 optional parameter, not present. No extension marker.
        SerializeSequence(std::bitset<1>(0), false);
 
        // Serialize transmissionMode
        // Assuming the value in the struct is the enum index
        SerializeEnum(8, physicalConfigDedicated.antennaInfo.transmissionMode);
 
        // Serialize ue-TransmitAntennaSelection choice
        SerializeChoice(2, 0, false);
 
        // Serialize release
        SerializeNull();
    }
}
 
void
RrcAsn1Header::SerializeRadioResourceConfigDedicated(
    LteRrcSap::RadioResourceConfigDedicated radioResourceConfigDedicated) const
{
    bool isSrbToAddModListPresent = !radioResourceConfigDedicated.srbToAddModList.empty();
    bool isDrbToAddModListPresent = !radioResourceConfigDedicated.drbToAddModList.empty();
    bool isDrbToReleaseListPresent = !radioResourceConfigDedicated.drbToReleaseList.empty();
 
    // 6 optional fields. Extension marker is present.
    std::bitset<6> optionalFieldsPresent = std::bitset<6>();
    optionalFieldsPresent.set(5, isSrbToAddModListPresent);  // srb-ToAddModList present
    optionalFieldsPresent.set(4, isDrbToAddModListPresent);  // drb-ToAddModList present
    optionalFieldsPresent.set(3, isDrbToReleaseListPresent); // drb-ToReleaseList present
    optionalFieldsPresent.set(2, false);                     // mac-MainConfig not present
    optionalFieldsPresent.set(1, false);                     // sps-Config not present
    optionalFieldsPresent.set(0, radioResourceConfigDedicated.havePhysicalConfigDedicated);
    SerializeSequence(optionalFieldsPresent, true);
 
    // Serialize srbToAddModList
    if (isSrbToAddModListPresent)
    {
        SerializeSrbToAddModList(radioResourceConfigDedicated.srbToAddModList);
    }
 
    // Serialize drbToAddModList
    if (isDrbToAddModListPresent)
    {
        SerializeDrbToAddModList(radioResourceConfigDedicated.drbToAddModList);
    }
 
    // Serialize drbToReleaseList
    if (isDrbToReleaseListPresent)
    {
        SerializeSequenceOf(radioResourceConfigDedicated.drbToReleaseList.size(), MAX_DRB, 1);
        auto it = radioResourceConfigDedicated.drbToReleaseList.begin();
        for (; it != radioResourceConfigDedicated.drbToReleaseList.end(); it++)
        {
            // DRB-Identity ::= INTEGER (1..32)
            SerializeInteger(*it, 1, 32);
        }
    }
 
    if (radioResourceConfigDedicated.havePhysicalConfigDedicated)
    {
        SerializePhysicalConfigDedicated(radioResourceConfigDedicated.physicalConfigDedicated);
    }
}
 
void
RrcAsn1Header::SerializeSystemInformationBlockType1(
    LteRrcSap::SystemInformationBlockType1 systemInformationBlockType1) const
{
    // 3 optional fields, no extension marker.
    std::bitset<3> sysInfoBlk1Opts;
    sysInfoBlk1Opts.set(2, false); // p-Max absent
    sysInfoBlk1Opts.set(1, false); // tdd-Config absent
    sysInfoBlk1Opts.set(0, false); // nonCriticalExtension absent
    SerializeSequence(sysInfoBlk1Opts, false);
 
    // Serialize cellAccessRelatedInfo
    // 1 optional field (csgIdentity) which is present, no extension marker.
    SerializeSequence(std::bitset<1>(1), false);
 
    // Serialize plmn-IdentityList
    SerializeSequenceOf(1, 6, 1);
 
    // PLMN-IdentityInfo
    SerializeSequence(std::bitset<0>(), false);
 
    SerializePlmnIdentity(
        systemInformationBlockType1.cellAccessRelatedInfo.plmnIdentityInfo.plmnIdentity);
 
    // Serialize trackingAreaCode
    SerializeBitstring(std::bitset<16>(0));
    // Serialize cellIdentity
    SerializeBitstring(
        std::bitset<28>(systemInformationBlockType1.cellAccessRelatedInfo.cellIdentity));
    // Serialize cellBarred
    SerializeEnum(2, 0);
    // Serialize intraFreqReselection
    SerializeEnum(2, 0);
    // Serialize csg-Indication
    SerializeBoolean(systemInformationBlockType1.cellAccessRelatedInfo.csgIndication);
    // Serialize csg-Identity
    SerializeBitstring(
        std::bitset<27>(systemInformationBlockType1.cellAccessRelatedInfo.csgIdentity));
 
    // Serialize cellSelectionInfo
    SerializeSequence(std::bitset<1>(0), false);
    // Serialize q-RxLevMin
    SerializeInteger(-50, -70, -22);
 
    // Serialize freqBandIndicator
    SerializeInteger(1, 1, 64);
 
    // Serialize schedulingInfoList
    SerializeSequenceOf(1, MAX_SI_MESSAGE, 1);
    // SchedulingInfo
    SerializeSequence(std::bitset<0>(), false);
    // si-Periodicity
    SerializeEnum(7, 0);
    // sib-MappingInfo
    SerializeSequenceOf(0, MAX_SIB - 1, 0);
 
    // Serialize si-WindowLength
    SerializeEnum(7, 0);
 
    // Serialize systemInfoValueTag
    SerializeInteger(0, 0, 31);
}
 
void
RrcAsn1Header::SerializeRadioResourceConfigCommon(
    LteRrcSap::RadioResourceConfigCommon radioResourceConfigCommon) const
{
    // 9 optional fields. Extension marker yes.
    std::bitset<9> rrCfgCmmOpts;
    rrCfgCmmOpts.set(8, true);  // rach-ConfigCommon is present
    rrCfgCmmOpts.set(7, false); // pdsch-ConfigCommon not present
    rrCfgCmmOpts.set(6, false); // phich-Config not present
    rrCfgCmmOpts.set(5, false); // pucch-ConfigCommon  not present
    rrCfgCmmOpts.set(4, false); // soundingRS-UL-ConfigCommon not present
    rrCfgCmmOpts.set(3, false); // uplinkPowerControlCommon not present
    rrCfgCmmOpts.set(2, false); // antennaInfoCommon not present
    rrCfgCmmOpts.set(1, false); // p-Max not present
    rrCfgCmmOpts.set(0, false); // tdd-Config not present
 
    SerializeSequence(rrCfgCmmOpts, true);
 
    if (rrCfgCmmOpts[8])
    {
        // Serialize RACH-ConfigCommon
        SerializeRachConfigCommon(radioResourceConfigCommon.rachConfigCommon);
    }
 
    // Serialize PRACH-Config
    // 1 optional, 0 extension marker.
    SerializeSequence(std::bitset<1>(0), false);
 
    // Serialize PRACH-Config rootSequenceIndex
    SerializeInteger(0, 0, 1023);
 
    // Serialize PUSCH-ConfigCommon
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize pusch-ConfigBasic
    SerializeSequence(std::bitset<0>(), false);
    SerializeInteger(1, 1, 4);
    SerializeEnum(2, 0);
    SerializeInteger(0, 0, 98);
    SerializeBoolean(false);
 
    // Serialize UL-ReferenceSignalsPUSCH
    SerializeSequence(std::bitset<0>(), false);
    SerializeBoolean(false);
    SerializeInteger(0, 0, 29);
    SerializeBoolean(false);
    SerializeInteger(4, 0, 7);
 
    // Serialize UL-CyclicPrefixLength
    SerializeEnum(2, 0);
}
 
void
RrcAsn1Header::SerializeRadioResourceConfigCommonSib(
    LteRrcSap::RadioResourceConfigCommonSib radioResourceConfigCommonSib) const
{
    SerializeSequence(std::bitset<0>(0), true);
 
    // rach-ConfigCommon
    SerializeRachConfigCommon(radioResourceConfigCommonSib.rachConfigCommon);
 
    // bcch-Config
    SerializeSequence(std::bitset<0>(0), false);
    SerializeEnum(4, 0); // modificationPeriodCoeff
    // pcch-Config
    SerializeSequence(std::bitset<0>(0), false);
    SerializeEnum(4, 0); // defaultPagingCycle
    SerializeEnum(8, 0); // nB
    // prach-Config
    SerializeSequence(std::bitset<1>(0), false);
    SerializeInteger(0, 0, 1023); // rootSequenceIndex
    // pdsch-ConfigCommon
    SerializeSequence(std::bitset<0>(0), false);
    SerializeInteger(0, -60, 50); // referenceSignalPower
    SerializeInteger(0, 0, 3);    // p-b
    // pusch-ConfigCommon
    SerializeSequence(std::bitset<0>(0), false);
    SerializeSequence(std::bitset<0>(0), false); // pusch-ConfigBasic
    SerializeInteger(1, 1, 4);                   // n-SB
    SerializeEnum(2, 0);                         // hoppingMode
    SerializeInteger(0, 0, 98);                  // pusch-HoppingOffset
    SerializeBoolean(false);                     // enable64QAM
    SerializeSequence(std::bitset<0>(0), false); // UL-ReferenceSignalsPUSCH
    SerializeBoolean(false);                     // groupHoppingEnabled
    SerializeInteger(0, 0, 29);                  // groupAssignmentPUSCH
    SerializeBoolean(false);                     // sequenceHoppingEnabled
    SerializeInteger(0, 0, 7);                   // cyclicShift
    // pucch-ConfigCommon
    SerializeSequence(std::bitset<0>(0), false);
    SerializeEnum(3, 0);          // deltaPUCCH-Shift
    SerializeInteger(0, 0, 98);   // nRB-CQI
    SerializeInteger(0, 0, 7);    // nCS-AN
    SerializeInteger(0, 0, 2047); // n1PUCCH-AN
    // soundingRS-UL-ConfigCommon
    SerializeChoice(2, 0, false);
    SerializeNull(); // release
    // uplinkPowerControlCommon
    SerializeSequence(std::bitset<0>(0), false);
    SerializeInteger(0, -126, 24);               // p0-NominalPUSCH
    SerializeEnum(8, 0);                         // alpha
    SerializeInteger(-110, -127, -96);           // p0-NominalPUCCH
    SerializeSequence(std::bitset<0>(0), false); // deltaFList-PUCCH
    SerializeEnum(3, 0);                         // deltaF-PUCCH-Format1
    SerializeEnum(3, 0);                         // deltaF-PUCCH-Format1b
    SerializeEnum(4, 0);                         // deltaF-PUCCH-Format2
    SerializeEnum(3, 0);                         // deltaF-PUCCH-Format2a
    SerializeEnum(3, 0);                         // deltaF-PUCCH-Format2b
    SerializeInteger(0, -1, 6);
    // ul-CyclicPrefixLength
    SerializeEnum(2, 0);
}
 
void
RrcAsn1Header::SerializeSystemInformationBlockType2(
    LteRrcSap::SystemInformationBlockType2 systemInformationBlockType2) const
{
    SerializeSequence(std::bitset<2>(0), true);
 
    // RadioResourceConfigCommonSib
    SerializeRadioResourceConfigCommonSib(systemInformationBlockType2.radioResourceConfigCommon);
 
    // ue-TimersAndConstants
    SerializeSequence(std::bitset<0>(0), true);
    SerializeEnum(8, 0); // t300
    SerializeEnum(8, 0); // t301
    SerializeEnum(7, 0); // t310
    SerializeEnum(8, 0); // n310
    SerializeEnum(7, 0); // t311
    SerializeEnum(8, 0); // n311
 
    // freqInfo
    SerializeSequence(std::bitset<2>(3), false);
    SerializeInteger((int)systemInformationBlockType2.freqInfo.ulCarrierFreq, 0, MAX_EARFCN);
    SerializeEnum(6, BandwidthToEnum(systemInformationBlockType2.freqInfo.ulBandwidth));
 
    SerializeInteger(29, 1, 32); // additionalSpectrumEmission
    // timeAlignmentTimerCommon
    SerializeEnum(8, 0);
}
 
void
RrcAsn1Header::SerializeMeasResults(LteRrcSap::MeasResults measResults) const
{
    // Watchdog: if list has 0 elements, set boolean to false
    if (measResults.measResultListEutra.empty())
    {
        measResults.haveMeasResultNeighCells = false;
    }
 
    std::bitset<4> measResultOptional;
    measResultOptional.set(3, measResults.haveMeasResultServFreqList);
    measResultOptional.set(2, false); // LocationInfo-r10
    measResultOptional.set(1, false); // MeasResultForECID-r9
    measResultOptional.set(0, measResults.haveMeasResultNeighCells);
    SerializeSequence(measResultOptional, true);
 
    // Serialize measId
    SerializeInteger(measResults.measId, 1, MAX_MEAS_ID);
 
    // Serialize measResultPCell sequence
    SerializeSequence(std::bitset<0>(0), false);
 
    // Serialize rsrpResult
    SerializeInteger(measResults.measResultPCell.rsrpResult, 0, 97);
 
    // Serialize rsrqResult
    SerializeInteger(measResults.measResultPCell.rsrqResult, 0, 34);
 
    if (measResults.haveMeasResultNeighCells)
    {
        // Serialize Choice = 0 (MeasResultListEUTRA)
        SerializeChoice(4, 0, false);
 
        // Serialize measResultNeighCells
        SerializeSequenceOf(measResults.measResultListEutra.size(), MAX_CELL_REPORT, 1);
 
        // serialize MeasResultEutra elements in the list
        for (auto it = measResults.measResultListEutra.begin();
             it != measResults.measResultListEutra.end();
             it++)
        {
            SerializeSequence(std::bitset<1>(it->haveCgiInfo), false);
 
            // Serialize PhysCellId
            SerializeInteger(it->physCellId, 0, 503);
 
            // Serialize CgiInfo
            if (it->haveCgiInfo)
            {
                SerializeSequence(std::bitset<1>(it->cgiInfo.plmnIdentityList.size()), false);
 
                // Serialize cellGlobalId
                SerializeSequence(std::bitset<0>(0), false);
                SerializePlmnIdentity(it->cgiInfo.plmnIdentity);
                SerializeBitstring(std::bitset<28>(it->cgiInfo.cellIdentity));
 
                // Serialize trackingAreaCode
                SerializeBitstring(std::bitset<16>(it->cgiInfo.trackingAreaCode));
 
                // Serialize plmn-IdentityList
                if (!it->cgiInfo.plmnIdentityList.empty())
                {
                    SerializeSequenceOf(it->cgiInfo.plmnIdentityList.size(), 5, 1);
                    for (auto it2 = it->cgiInfo.plmnIdentityList.begin();
                         it2 != it->cgiInfo.plmnIdentityList.end();
                         it2++)
                    {
                        SerializePlmnIdentity(*it2);
                    }
                }
            }
 
            // Serialize measResult
            std::bitset<2> measResultFieldsPresent;
            measResultFieldsPresent[1] = it->haveRsrpResult;
            measResultFieldsPresent[0] = it->haveRsrqResult;
            SerializeSequence(measResultFieldsPresent, true);
 
            if (it->haveRsrpResult)
            {
                SerializeInteger(it->rsrpResult, 0, 97);
            }
 
            if (it->haveRsrqResult)
            {
                SerializeInteger(it->rsrqResult, 0, 34);
            }
        }
    }
 
    // measResultServFreqList-r10 serialization
    if (measResults.haveMeasResultServFreqList)
    {
        // Serialize measResultServFreqList-r10
        SerializeSequenceOf(measResults.measResultServFreqList.size(), MAX_SCELL_REPORT, 1);
        // serialize MeasResultServFreqList-r10 elements in the list
        for (const auto& it : measResults.measResultServFreqList)
        {
            // Serialize MeasResultServFreq-r10
            std::bitset<2> measResultServFreqPresent;
            measResultServFreqPresent[0] = it.haveMeasResultSCell;
            measResultServFreqPresent[1] = it.haveMeasResultBestNeighCell;
            SerializeSequence(measResultServFreqPresent, true);
 
            // Serialize servFreqId-r10
            SerializeInteger(it.servFreqId, 0, 7);
 
            if (it.haveMeasResultSCell)
            {
                // Serialize rsrpResultSCell-r10
                SerializeInteger(it.measResultSCell.rsrpResult, 0, 97);
 
                // Serialize rsrqResultSCell-r10
                SerializeInteger(it.measResultSCell.rsrqResult, 0, 34);
            }
 
            if (it.haveMeasResultBestNeighCell)
            {
                // Serialize physCellId-r10
                SerializeInteger(it.measResultBestNeighCell.physCellId, 0, 503);
 
                // Serialize rsrpResultNCell-r10
                SerializeInteger(it.measResultBestNeighCell.rsrpResult, 0, 97);
 
                // Serialize rsrqResultNCell-r10
                SerializeInteger(it.measResultBestNeighCell.rsrqResult, 0, 34);
            }
 
            NS_ASSERT(!it.haveMeasResultBestNeighCell); // Not implemented
        }
    }
}
 
void
RrcAsn1Header::SerializePlmnIdentity(uint32_t plmnId) const
{
    // plmn-Identity sequence, mcc is optional, no extension marker
    SerializeSequence(std::bitset<1>(0), false);
 
    // Serialize mnc
    int nDig = (plmnId > 99) ? 3 : 2;
 
    SerializeSequenceOf(nDig, 3, 2);
    for (int i = nDig - 1; i >= 0; i--)
    {
        int n = floor(plmnId / pow(10, i));
        SerializeInteger(n, 0, 9);
        plmnId -= n * pow(10, i);
    }
 
    // cellReservedForOperatorUse
    SerializeEnum(2, 0);
}
 
void
RrcAsn1Header::SerializeRachConfigCommon(LteRrcSap::RachConfigCommon rachConfigCommon) const
{
    // rach-ConfigCommon
    SerializeSequence(std::bitset<0>(0), true);
 
    // preambleInfo
    SerializeSequence(std::bitset<1>(0), false);
 
    // numberOfRA-Preambles
    switch (rachConfigCommon.preambleInfo.numberOfRaPreambles)
    {
    case 4:
        SerializeEnum(16, 0);
        break;
    case 8:
        SerializeEnum(16, 1);
        break;
    case 12:
        SerializeEnum(16, 2);
        break;
    case 16:
        SerializeEnum(16, 3);
        break;
    case 20:
        SerializeEnum(16, 4);
        break;
    case 24:
        SerializeEnum(16, 5);
        break;
    case 28:
        SerializeEnum(16, 6);
        break;
    case 32:
        SerializeEnum(16, 7);
        break;
    case 36:
        SerializeEnum(16, 8);
        break;
    case 40:
        SerializeEnum(16, 9);
        break;
    case 44:
        SerializeEnum(16, 10);
        break;
    case 48:
        SerializeEnum(16, 11);
        break;
    case 52:
        SerializeEnum(16, 12);
        break;
    case 56:
        SerializeEnum(16, 13);
        break;
    case 60:
        SerializeEnum(16, 14);
        break;
    case 64:
        SerializeEnum(16, 15);
        break;
    default:
        NS_FATAL_ERROR("Wrong numberOfRA-Preambles value");
    }
 
    SerializeSequence(std::bitset<0>(0), false); // powerRampingParameters
    SerializeEnum(4, 0);                         // powerRampingStep
    SerializeEnum(16, 0);                        // preambleInitialReceivedTargetPower
    SerializeSequence(std::bitset<0>(0), false); // ra-SupervisionInfo
 
    // preambleTransMax
    switch (rachConfigCommon.raSupervisionInfo.preambleTransMax)
    {
    case 3:
        SerializeEnum(11, 0);
        break;
    case 4:
        SerializeEnum(11, 1);
        break;
    case 5:
        SerializeEnum(11, 2);
        break;
    case 6:
        SerializeEnum(11, 3);
        break;
    case 7:
        SerializeEnum(11, 4);
        break;
    case 8:
        SerializeEnum(11, 5);
        break;
    case 10:
        SerializeEnum(11, 6);
        break;
    case 20:
        SerializeEnum(11, 7);
        break;
    case 50:
        SerializeEnum(11, 8);
        break;
    case 100:
        SerializeEnum(11, 9);
        break;
    case 200:
        SerializeEnum(11, 10);
        break;
    default:
        SerializeEnum(11, 0);
    }
 
    // ra-ResponseWindowSize
    switch (rachConfigCommon.raSupervisionInfo.raResponseWindowSize)
    {
    case 2:
        SerializeEnum(8, 0);
        break;
    case 3:
        SerializeEnum(8, 1);
        break;
    case 4:
        SerializeEnum(8, 2);
        break;
    case 5:
        SerializeEnum(8, 3);
        break;
    case 6:
        SerializeEnum(8, 4);
        break;
    case 7:
        SerializeEnum(8, 5);
        break;
    case 8:
        SerializeEnum(8, 6);
        break;
    case 10:
        SerializeEnum(8, 7);
        break;
    default:
        SerializeEnum(8, 0);
    }
 
    SerializeEnum(8, 0);       // mac-ContentionResolutionTimer
    SerializeInteger(1, 1, 8); // maxHARQ-Msg3Tx
 
    // connEstFailCount
    switch (rachConfigCommon.txFailParam.connEstFailCount)
    {
    case 1:
        SerializeEnum(8, 1);
        break;
    case 2:
        SerializeEnum(8, 2);
        break;
    case 3:
        SerializeEnum(8, 3);
        break;
    case 4:
        SerializeEnum(8, 4);
        break;
    default:
        SerializeEnum(8, 1);
    }
}
 
void
RrcAsn1Header::SerializeQoffsetRange(int8_t qOffsetRange) const
{
    switch (qOffsetRange)
    {
    case -24:
        SerializeEnum(31, 0);
        break;
    case -22:
        SerializeEnum(31, 1);
        break;
    case -20:
        SerializeEnum(31, 2);
        break;
    case -18:
        SerializeEnum(31, 3);
        break;
    case -16:
        SerializeEnum(31, 4);
        break;
    case -14:
        SerializeEnum(31, 5);
        break;
    case -12:
        SerializeEnum(31, 6);
        break;
    case -10:
        SerializeEnum(31, 7);
        break;
    case -8:
        SerializeEnum(31, 8);
        break;
    case -6:
        SerializeEnum(31, 9);
        break;
    case -5:
        SerializeEnum(31, 10);
        break;
    case -4:
        SerializeEnum(31, 11);
        break;
    case -3:
        SerializeEnum(31, 12);
        break;
    case -2:
        SerializeEnum(31, 13);
        break;
    case -1:
        SerializeEnum(31, 14);
        break;
    case 0:
        SerializeEnum(31, 15);
        break;
    case 1:
        SerializeEnum(31, 16);
        break;
    case 2:
        SerializeEnum(31, 17);
        break;
    case 3:
        SerializeEnum(31, 18);
        break;
    case 4:
        SerializeEnum(31, 19);
        break;
    case 5:
        SerializeEnum(31, 20);
        break;
    case 6:
        SerializeEnum(31, 21);
        break;
    case 8:
        SerializeEnum(31, 22);
        break;
    case 10:
        SerializeEnum(31, 23);
        break;
    case 12:
        SerializeEnum(31, 24);
        break;
    case 14:
        SerializeEnum(31, 25);
        break;
    case 16:
        SerializeEnum(31, 26);
        break;
    case 18:
        SerializeEnum(31, 27);
        break;
    case 20:
        SerializeEnum(31, 28);
        break;
    case 22:
        SerializeEnum(31, 29);
        break;
    case 24:
        SerializeEnum(31, 30);
        break;
    default:
        SerializeEnum(31, 15);
    }
}
 
void
RrcAsn1Header::SerializeThresholdEutra(LteRrcSap::ThresholdEutra thresholdEutra) const
{
    switch (thresholdEutra.choice)
    {
    case LteRrcSap::ThresholdEutra::THRESHOLD_RSRP:
        SerializeChoice(2, 0, false);
        SerializeInteger(thresholdEutra.range, 0, 97);
        break;
    case LteRrcSap::ThresholdEutra::THRESHOLD_RSRQ:
    default:
        SerializeChoice(2, 1, false);
        SerializeInteger(thresholdEutra.range, 0, 34);
    }
}
 
void
RrcAsn1Header::SerializeMeasConfig(LteRrcSap::MeasConfig measConfig) const
{
    // Serialize MeasConfig sequence
    // 11 optional fields, extension marker present
    std::bitset<11> measConfigOptional;
    measConfigOptional.set(10, !measConfig.measObjectToRemoveList.empty());
    measConfigOptional.set(9, !measConfig.measObjectToAddModList.empty());
    measConfigOptional.set(8, !measConfig.reportConfigToRemoveList.empty());
    measConfigOptional.set(7, !measConfig.reportConfigToAddModList.empty());
    measConfigOptional.set(6, !measConfig.measIdToRemoveList.empty());
    measConfigOptional.set(5, !measConfig.measIdToAddModList.empty());
    measConfigOptional.set(4, measConfig.haveQuantityConfig);
    measConfigOptional.set(3, measConfig.haveMeasGapConfig);
    measConfigOptional.set(2, measConfig.haveSmeasure);
    measConfigOptional.set(1, false); // preRegistrationInfoHRPD
    measConfigOptional.set(0, measConfig.haveSpeedStatePars);
    SerializeSequence(measConfigOptional, true);
 
    if (!measConfig.measObjectToRemoveList.empty())
    {
        SerializeSequenceOf(measConfig.measObjectToRemoveList.size(), MAX_OBJECT_ID, 1);
        for (auto it = measConfig.measObjectToRemoveList.begin();
             it != measConfig.measObjectToRemoveList.end();
             it++)
        {
            SerializeInteger(*it, 1, MAX_OBJECT_ID);
        }
    }
 
    if (!measConfig.measObjectToAddModList.empty())
    {
        SerializeSequenceOf(measConfig.measObjectToAddModList.size(), MAX_OBJECT_ID, 1);
        for (auto it = measConfig.measObjectToAddModList.begin();
             it != measConfig.measObjectToAddModList.end();
             it++)
        {
            SerializeSequence(std::bitset<0>(), false);
            SerializeInteger(it->measObjectId, 1, MAX_OBJECT_ID);
            SerializeChoice(4, 0, true); // Select MeasObjectEUTRA
 
            // Serialize measObjectEutra
            std::bitset<5> measObjOpts;
            measObjOpts.set(4, !it->measObjectEutra.cellsToRemoveList.empty());
            measObjOpts.set(3, !it->measObjectEutra.cellsToAddModList.empty());
            measObjOpts.set(2, !it->measObjectEutra.blackCellsToRemoveList.empty());
            measObjOpts.set(1, !it->measObjectEutra.blackCellsToAddModList.empty());
            measObjOpts.set(0, it->measObjectEutra.haveCellForWhichToReportCGI);
            SerializeSequence(measObjOpts, true);
 
            // Serialize carrierFreq
            SerializeInteger(it->measObjectEutra.carrierFreq, 0, MAX_EARFCN);
 
            // Serialize  allowedMeasBandwidth
            SerializeEnum(6, BandwidthToEnum(it->measObjectEutra.allowedMeasBandwidth));
 
            SerializeBoolean(it->measObjectEutra.presenceAntennaPort1);
            SerializeBitstring(std::bitset<2>(it->measObjectEutra.neighCellConfig));
            SerializeQoffsetRange(it->measObjectEutra.offsetFreq);
 
            if (!it->measObjectEutra.cellsToRemoveList.empty())
            {
                SerializeSequenceOf(it->measObjectEutra.cellsToRemoveList.size(), MAX_CELL_MEAS, 1);
                for (auto it2 = it->measObjectEutra.cellsToRemoveList.begin();
                     it2 != it->measObjectEutra.cellsToRemoveList.end();
                     it2++)
                {
                    SerializeInteger(*it2, 1, MAX_CELL_MEAS);
                }
            }
 
            if (!it->measObjectEutra.cellsToAddModList.empty())
            {
                SerializeSequenceOf(it->measObjectEutra.cellsToAddModList.size(), MAX_CELL_MEAS, 1);
                for (auto it2 = it->measObjectEutra.cellsToAddModList.begin();
                     it2 != it->measObjectEutra.cellsToAddModList.end();
                     it2++)
                {
                    SerializeSequence(std::bitset<0>(), false);
 
                    // Serialize cellIndex
                    SerializeInteger(it2->cellIndex, 1, MAX_CELL_MEAS);
 
                    // Serialize PhysCellId
                    SerializeInteger(it2->physCellId, 0, 503);
 
                    // Serialize cellIndividualOffset
                    SerializeQoffsetRange(it2->cellIndividualOffset);
                }
            }
 
            if (!it->measObjectEutra.blackCellsToRemoveList.empty())
            {
                SerializeSequenceOf(it->measObjectEutra.blackCellsToRemoveList.size(),
                                    MAX_CELL_MEAS,
                                    1);
                for (auto it2 = it->measObjectEutra.blackCellsToRemoveList.begin();
                     it2 != it->measObjectEutra.blackCellsToRemoveList.end();
                     it2++)
                {
                    SerializeInteger(*it2, 1, MAX_CELL_MEAS);
                }
            }
 
            if (!it->measObjectEutra.blackCellsToAddModList.empty())
            {
                SerializeSequenceOf(it->measObjectEutra.blackCellsToAddModList.size(),
                                    MAX_CELL_MEAS,
                                    1);
                for (auto it2 = it->measObjectEutra.blackCellsToAddModList.begin();
                     it2 != it->measObjectEutra.blackCellsToAddModList.end();
                     it2++)
                {
                    SerializeSequence(std::bitset<0>(), false);
                    SerializeInteger(it2->cellIndex, 1, MAX_CELL_MEAS);
 
                    // Serialize PhysCellIdRange
                    // range optional
                    std::bitset<1> rangePresent(it2->physCellIdRange.haveRange);
                    SerializeSequence(rangePresent, false);
                    SerializeInteger(it2->physCellIdRange.start, 0, 503);
                    if (it2->physCellIdRange.haveRange)
                    {
                        switch (it2->physCellIdRange.range)
                        {
                        case 4:
                            SerializeEnum(16, 0);
                            break;
                        case 8:
                            SerializeEnum(16, 1);
                            break;
                        case 12:
                            SerializeEnum(16, 2);
                            break;
                        case 16:
                            SerializeEnum(16, 3);
                            break;
                        case 24:
                            SerializeEnum(16, 4);
                            break;
                        case 32:
                            SerializeEnum(16, 5);
                            break;
                        case 48:
                            SerializeEnum(16, 6);
                            break;
                        case 64:
                            SerializeEnum(16, 7);
                            break;
                        case 84:
                            SerializeEnum(16, 8);
                            break;
                        case 96:
                            SerializeEnum(16, 9);
                            break;
                        case 128:
                            SerializeEnum(16, 10);
                            break;
                        case 168:
                            SerializeEnum(16, 11);
                            break;
                        case 252:
                            SerializeEnum(16, 12);
                            break;
                        case 504:
                            SerializeEnum(16, 13);
                            break;
                        default:
                            SerializeEnum(16, 0);
                        }
                    }
                }
            }
 
            if (it->measObjectEutra.haveCellForWhichToReportCGI)
            {
                SerializeInteger(it->measObjectEutra.cellForWhichToReportCGI, 0, 503);
            }
        }
    }
 
    if (!measConfig.reportConfigToRemoveList.empty())
    {
        SerializeSequenceOf(measConfig.reportConfigToRemoveList.size(), MAX_REPORT_CONFIG_ID, 1);
        for (auto it = measConfig.reportConfigToRemoveList.begin();
             it != measConfig.reportConfigToRemoveList.end();
             it++)
        {
            SerializeInteger(*it, 1, MAX_REPORT_CONFIG_ID);
        }
    }
 
    if (!measConfig.reportConfigToAddModList.empty())
    {
        SerializeSequenceOf(measConfig.reportConfigToAddModList.size(), MAX_REPORT_CONFIG_ID, 1);
        for (auto it = measConfig.reportConfigToAddModList.begin();
             it != measConfig.reportConfigToAddModList.end();
             it++)
        {
            SerializeSequence(std::bitset<0>(), false);
            SerializeInteger(it->reportConfigId, 1, MAX_REPORT_CONFIG_ID);
            SerializeChoice(2, 0, false); // reportConfigEUTRA
 
            // Serialize ReportConfigEUTRA
            SerializeSequence(std::bitset<0>(), true);
            switch (it->reportConfigEutra.triggerType)
            {
            case LteRrcSap::ReportConfigEutra::PERIODICAL:
                SerializeChoice(2, 1, false);
                SerializeSequence(std::bitset<0>(), false);
                switch (it->reportConfigEutra.purpose)
                {
                case LteRrcSap::ReportConfigEutra::REPORT_CGI:
                    SerializeEnum(2, 1);
                    break;
                case LteRrcSap::ReportConfigEutra::REPORT_STRONGEST_CELLS:
                default:
                    SerializeEnum(2, 0);
                }
                break;
            case LteRrcSap::ReportConfigEutra::EVENT:
            default:
                SerializeChoice(2, 0, false);
                SerializeSequence(std::bitset<0>(), false);
                switch (it->reportConfigEutra.eventId)
                {
                case LteRrcSap::ReportConfigEutra::EVENT_A1:
                    SerializeChoice(5, 0, true);
                    SerializeSequence(std::bitset<0>(), false);
                    SerializeThresholdEutra(it->reportConfigEutra.threshold1);
                    break;
                case LteRrcSap::ReportConfigEutra::EVENT_A2:
                    SerializeChoice(5, 1, true);
                    SerializeSequence(std::bitset<0>(), false);
                    SerializeThresholdEutra(it->reportConfigEutra.threshold1);
                    break;
                case LteRrcSap::ReportConfigEutra::EVENT_A3:
                    SerializeChoice(5, 2, true);
                    SerializeSequence(std::bitset<0>(), false);
                    SerializeInteger(it->reportConfigEutra.a3Offset, -30, 30);
                    SerializeBoolean(it->reportConfigEutra.reportOnLeave);
                    break;
                case LteRrcSap::ReportConfigEutra::EVENT_A4:
                    SerializeChoice(5, 3, true);
                    SerializeSequence(std::bitset<0>(), false);
                    SerializeThresholdEutra(it->reportConfigEutra.threshold1);
                    break;
                case LteRrcSap::ReportConfigEutra::EVENT_A5:
                default:
                    SerializeChoice(5, 4, true);
                    SerializeSequence(std::bitset<0>(), false);
                    SerializeThresholdEutra(it->reportConfigEutra.threshold1);
                    SerializeThresholdEutra(it->reportConfigEutra.threshold2);
                }
 
                SerializeInteger(it->reportConfigEutra.hysteresis, 0, 30);
 
                switch (it->reportConfigEutra.timeToTrigger)
                {
                case 0:
                    SerializeEnum(16, 0);
                    break;
                case 40:
                    SerializeEnum(16, 1);
                    break;
                case 64:
                    SerializeEnum(16, 2);
                    break;
                case 80:
                    SerializeEnum(16, 3);
                    break;
                case 100:
                    SerializeEnum(16, 4);
                    break;
                case 128:
                    SerializeEnum(16, 5);
                    break;
                case 160:
                    SerializeEnum(16, 6);
                    break;
                case 256:
                    SerializeEnum(16, 7);
                    break;
                case 320:
                    SerializeEnum(16, 8);
                    break;
                case 480:
                    SerializeEnum(16, 9);
                    break;
                case 512:
                    SerializeEnum(16, 10);
                    break;
                case 640:
                    SerializeEnum(16, 11);
                    break;
                case 1024:
                    SerializeEnum(16, 12);
                    break;
                case 1280:
                    SerializeEnum(16, 13);
                    break;
                case 2560:
                    SerializeEnum(16, 14);
                    break;
                case 5120:
                default:
                    SerializeEnum(16, 15);
                }
            } // end trigger type
 
            // Serialize triggerQuantity
            if (it->reportConfigEutra.triggerQuantity == LteRrcSap::ReportConfigEutra::RSRP)
            {
                SerializeEnum(2, 0);
            }
            else
            {
                SerializeEnum(2, 1);
            }
 
            // Serialize reportQuantity
            if (it->reportConfigEutra.reportQuantity ==
                LteRrcSap::ReportConfigEutra::SAME_AS_TRIGGER_QUANTITY)
            {
                SerializeEnum(2, 0);
            }
            else
            {
                SerializeEnum(2, 1);
            }
 
            // Serialize maxReportCells
            SerializeInteger(it->reportConfigEutra.maxReportCells, 1, MAX_CELL_REPORT);
 
            // Serialize reportInterval
            switch (it->reportConfigEutra.reportInterval)
            {
            case LteRrcSap::ReportConfigEutra::MS120:
                SerializeEnum(16, 0);
                break;
            case LteRrcSap::ReportConfigEutra::MS240:
                SerializeEnum(16, 1);
                break;
            case LteRrcSap::ReportConfigEutra::MS480:
                SerializeEnum(16, 2);
                break;
            case LteRrcSap::ReportConfigEutra::MS640:
                SerializeEnum(16, 3);
                break;
            case LteRrcSap::ReportConfigEutra::MS1024:
                SerializeEnum(16, 4);
                break;
            case LteRrcSap::ReportConfigEutra::MS2048:
                SerializeEnum(16, 5);
                break;
            case LteRrcSap::ReportConfigEutra::MS5120:
                SerializeEnum(16, 6);
                break;
            case LteRrcSap::ReportConfigEutra::MS10240:
                SerializeEnum(16, 7);
                break;
            case LteRrcSap::ReportConfigEutra::MIN1:
                SerializeEnum(16, 8);
                break;
            case LteRrcSap::ReportConfigEutra::MIN6:
                SerializeEnum(16, 9);
                break;
            case LteRrcSap::ReportConfigEutra::MIN12:
                SerializeEnum(16, 10);
                break;
            case LteRrcSap::ReportConfigEutra::MIN30:
                SerializeEnum(16, 11);
                break;
            case LteRrcSap::ReportConfigEutra::MIN60:
                SerializeEnum(16, 12);
                break;
            case LteRrcSap::ReportConfigEutra::SPARE3:
                SerializeEnum(16, 13);
                break;
            case LteRrcSap::ReportConfigEutra::SPARE2:
                SerializeEnum(16, 14);
                break;
            case LteRrcSap::ReportConfigEutra::SPARE1:
            default:
                SerializeEnum(16, 15);
            }
 
            // Serialize reportAmount
            switch (it->reportConfigEutra.reportAmount)
            {
            case 1:
                SerializeEnum(8, 0);
                break;
            case 2:
                SerializeEnum(8, 1);
                break;
            case 4:
                SerializeEnum(8, 2);
                break;
            case 8:
                SerializeEnum(8, 3);
                break;
            case 16:
                SerializeEnum(8, 4);
                break;
            case 32:
                SerializeEnum(8, 5);
                break;
            case 64:
                SerializeEnum(8, 6);
                break;
            default:
                SerializeEnum(8, 7);
            }
        }
    }
 
    if (!measConfig.measIdToRemoveList.empty())
    {
        SerializeSequenceOf(measConfig.measIdToRemoveList.size(), MAX_MEAS_ID, 1);
        for (auto it = measConfig.measIdToRemoveList.begin();
             it != measConfig.measIdToRemoveList.end();
             it++)
        {
            SerializeInteger(*it, 1, MAX_MEAS_ID);
        }
    }
 
    if (!measConfig.measIdToAddModList.empty())
    {
        SerializeSequenceOf(measConfig.measIdToAddModList.size(), MAX_MEAS_ID, 1);
        for (auto it = measConfig.measIdToAddModList.begin();
             it != measConfig.measIdToAddModList.end();
             it++)
        {
            SerializeInteger(it->measId, 1, MAX_MEAS_ID);
            SerializeInteger(it->measObjectId, 1, MAX_OBJECT_ID);
            SerializeInteger(it->reportConfigId, 1, MAX_REPORT_CONFIG_ID);
        }
    }
 
    if (measConfig.haveQuantityConfig)
    {
        // QuantityConfig sequence
        // 4 optional fields, only first (EUTRA) present. Extension marker yes.
        std::bitset<4> quantityConfigOpts(0);
        quantityConfigOpts.set(3, true);
        SerializeSequence(quantityConfigOpts, true);
        SerializeSequence(std::bitset<0>(), false);
 
        switch (measConfig.quantityConfig.filterCoefficientRSRP)
        {
        case 0:
            SerializeEnum(16, 0);
            break;
        case 1:
            SerializeEnum(16, 1);
            break;
        case 2:
            SerializeEnum(16, 2);
            break;
        case 3:
            SerializeEnum(16, 3);
            break;
        case 4:
            SerializeEnum(16, 4);
            break;
        case 5:
            SerializeEnum(16, 5);
            break;
        case 6:
            SerializeEnum(16, 6);
            break;
        case 7:
            SerializeEnum(16, 7);
            break;
        case 8:
            SerializeEnum(16, 8);
            break;
        case 9:
            SerializeEnum(16, 9);
            break;
        case 11:
            SerializeEnum(16, 10);
            break;
        case 13:
            SerializeEnum(16, 11);
            break;
        case 15:
            SerializeEnum(16, 12);
            break;
        case 17:
            SerializeEnum(16, 13);
            break;
        case 19:
            SerializeEnum(16, 14);
            break;
        default:
            SerializeEnum(16, 4);
        }
 
        switch (measConfig.quantityConfig.filterCoefficientRSRQ)
        {
        case 0:
            SerializeEnum(16, 0);
            break;
        case 1:
            SerializeEnum(16, 1);
            break;
        case 2:
            SerializeEnum(16, 2);
            break;
        case 3:
            SerializeEnum(16, 3);
            break;
        case 4:
            SerializeEnum(16, 4);
            break;
        case 5:
            SerializeEnum(16, 5);
            break;
        case 6:
            SerializeEnum(16, 6);
            break;
        case 7:
            SerializeEnum(16, 7);
            break;
        case 8:
            SerializeEnum(16, 8);
            break;
        case 9:
            SerializeEnum(16, 9);
            break;
        case 11:
            SerializeEnum(16, 10);
            break;
        case 13:
            SerializeEnum(16, 11);
            break;
        case 15:
            SerializeEnum(16, 12);
            break;
        case 17:
            SerializeEnum(16, 13);
            break;
        case 19:
            SerializeEnum(16, 14);
            break;
        default:
            SerializeEnum(16, 4);
        }
    }
 
    if (measConfig.haveMeasGapConfig)
    {
        switch (measConfig.measGapConfig.type)
        {
        case LteRrcSap::MeasGapConfig::RESET:
            SerializeChoice(2, 0, false);
            SerializeNull();
            break;
        case LteRrcSap::MeasGapConfig::SETUP:
        default:
            SerializeChoice(2, 1, false);
            SerializeSequence(std::bitset<0>(), false);
            switch (measConfig.measGapConfig.gapOffsetChoice)
            {
            case LteRrcSap::MeasGapConfig::GP0:
                SerializeChoice(2, 0, true);
                SerializeInteger(measConfig.measGapConfig.gapOffsetValue, 0, 39);
                break;
            case LteRrcSap::MeasGapConfig::GP1:
            default:
                SerializeChoice(2, 1, true);
                SerializeInteger(measConfig.measGapConfig.gapOffsetValue, 0, 79);
            }
        }
    }
 
    if (measConfig.haveSmeasure)
    {
        SerializeInteger(measConfig.sMeasure, 0, 97);
    }
 
    // ...Here preRegistrationInfoHRPD would be serialized
 
    if (measConfig.haveSpeedStatePars)
    {
        switch (measConfig.speedStatePars.type)
        {
        case LteRrcSap::SpeedStatePars::RESET:
            SerializeChoice(2, 0, false);
            SerializeNull();
            break;
        case LteRrcSap::SpeedStatePars::SETUP:
        default:
            SerializeChoice(2, 1, false);
            SerializeSequence(std::bitset<0>(), false);
            switch (measConfig.speedStatePars.mobilityStateParameters.tEvaluation)
            {
            case 30:
                SerializeEnum(8, 0);
                break;
            case 60:
                SerializeEnum(8, 1);
                break;
            case 120:
                SerializeEnum(8, 2);
                break;
            case 180:
                SerializeEnum(8, 3);
                break;
            case 240:
                SerializeEnum(8, 4);
                break;
            default:
                SerializeEnum(8, 5);
                break;
            }
 
            switch (measConfig.speedStatePars.mobilityStateParameters.tHystNormal)
            {
            case 30:
                SerializeEnum(8, 0);
                break;
            case 60:
                SerializeEnum(8, 1);
                break;
            case 120:
                SerializeEnum(8, 2);
                break;
            case 180:
                SerializeEnum(8, 3);
                break;
            case 240:
                SerializeEnum(8, 4);
                break;
            default:
                SerializeEnum(8, 5);
                break;
            }
 
            SerializeInteger(measConfig.speedStatePars.mobilityStateParameters.nCellChangeMedium,
                             1,
                             16);
            SerializeInteger(measConfig.speedStatePars.mobilityStateParameters.nCellChangeHigh,
                             1,
                             16);
 
            SerializeSequence(std::bitset<0>(), false);
            switch (measConfig.speedStatePars.timeToTriggerSf.sfMedium)
            {
            case 25:
                SerializeEnum(4, 0);
                break;
            case 50:
                SerializeEnum(4, 1);
                break;
            case 75:
                SerializeEnum(4, 2);
                break;
            case 100:
            default:
                SerializeEnum(4, 3);
            }
 
            switch (measConfig.speedStatePars.timeToTriggerSf.sfHigh)
            {
            case 25:
                SerializeEnum(4, 0);
                break;
            case 50:
                SerializeEnum(4, 1);
                break;
            case 75:
                SerializeEnum(4, 2);
                break;
            case 100:
            default:
                SerializeEnum(4, 3);
            }
        }
    }
}
 
void
RrcAsn1Header::SerializeNonCriticalExtensionConfiguration(
    LteRrcSap::NonCriticalExtensionConfiguration nonCriticalExtension) const
{
    // 3 optional fields. Extension marker not present.
    std::bitset<3> noncriticalExtension_v1020;
    noncriticalExtension_v1020.set(
        2,
        !nonCriticalExtension.sCellToReleaseList.empty()); // sCellToReleaseList-r10
    noncriticalExtension_v1020.set(
        1,
        !nonCriticalExtension.sCellToAddModList.empty()); // sCellToAddModList-r10
    noncriticalExtension_v1020.set(
        0,
        false); // No nonCriticalExtension RRCConnectionReconfiguration-v1130-IEs
    SerializeSequence(noncriticalExtension_v1020, false);
 
    if (!nonCriticalExtension.sCellToReleaseList.empty())
    {
        SerializeSequenceOf(nonCriticalExtension.sCellToReleaseList.size(), MAX_OBJECT_ID, 1);
        for (uint8_t sCellIndex : nonCriticalExtension.sCellToReleaseList)
        {
            SerializeInteger(sCellIndex, 1, 7); // sCellIndex-r10
        }
    }
 
    if (!nonCriticalExtension.sCellToAddModList.empty())
    {
        SerializeSequenceOf(nonCriticalExtension.sCellToAddModList.size(), MAX_OBJECT_ID, 1);
        for (auto& it : nonCriticalExtension.sCellToAddModList)
        {
            std::bitset<4> sCellToAddMod_r10;
            sCellToAddMod_r10.set(3, true); // sCellIndex
            sCellToAddMod_r10.set(2, true); // CellIdentification
            sCellToAddMod_r10.set(1, true); // RadioResourceConfigCommonSCell
            sCellToAddMod_r10.set(
                0,
                it.haveRadioResourceConfigDedicatedSCell); // No nonCriticalExtension RRC
            SerializeSequence(sCellToAddMod_r10, false);
            SerializeInteger(it.sCellIndex, 1, 7); // sCellIndex-r10
 
            // Serialize CellIdentification
            std::bitset<2> cellIdentification_r10;
            cellIdentification_r10.set(1, true); // phyCellId-r10
            cellIdentification_r10.set(0, true); // dl-CarrierFreq-r10
            SerializeSequence(cellIdentification_r10, false);
 
            SerializeInteger(it.cellIdentification.physCellId, 1, 65536);
            SerializeInteger(it.cellIdentification.dlCarrierFreq, 1, MAX_EARFCN);
 
            // Serialize RadioResourceConfigCommonSCell
            SerializeRadioResourceConfigCommonSCell(it.radioResourceConfigCommonSCell);
 
            if (it.haveRadioResourceConfigDedicatedSCell)
            {
                // Serialize RadioResourceConfigDedicatedSCell
                SerializeRadioResourceDedicatedSCell(it.radioResourceConfigDedicatedSCell);
            }
        }
    }
}
 
void
RrcAsn1Header::SerializeRadioResourceConfigCommonSCell(
    LteRrcSap::RadioResourceConfigCommonSCell rrccsc) const
{
    // 2 optional fields. Extension marker not present.
    std::bitset<2> radioResourceConfigCommonSCell_r10;
    radioResourceConfigCommonSCell_r10.set(1, rrccsc.haveNonUlConfiguration); // NonUlConfiguration
    radioResourceConfigCommonSCell_r10.set(0, rrccsc.haveUlConfiguration);    // UlConfiguration
    SerializeSequence(radioResourceConfigCommonSCell_r10, false);
 
    if (rrccsc.haveNonUlConfiguration)
    {
        // 5 optional fields. Extension marker not present.
        std::bitset<5> nonUlConfiguration_r10;
        nonUlConfiguration_r10.set(4, true);  // Dl- bandwidth --> convert in enum
        nonUlConfiguration_r10.set(3, true);  // AntennaInfoCommon-r10
        nonUlConfiguration_r10.set(2, false); // phich-Config-r10 Not Implemented
        nonUlConfiguration_r10.set(1, true);  // pdschConfigCommon
        nonUlConfiguration_r10.set(0, false); // Tdd-Config-r10 Not Implemented
        SerializeSequence(nonUlConfiguration_r10, false);
 
        SerializeInteger(rrccsc.nonUlConfiguration.dlBandwidth, 6, 100);
 
        std::bitset<1> antennaInfoCommon_r10;
        antennaInfoCommon_r10.set(0, true);
        SerializeSequence(antennaInfoCommon_r10, false);
        SerializeInteger(rrccsc.nonUlConfiguration.antennaInfoCommon.antennaPortsCount, 0, 65536);
 
        std::bitset<2> pdschConfigCommon_r10;
        pdschConfigCommon_r10.set(1, true);
        pdschConfigCommon_r10.set(0, true);
        SerializeSequence(pdschConfigCommon_r10, false);
 
        SerializeInteger(rrccsc.nonUlConfiguration.pdschConfigCommon.referenceSignalPower, -60, 50);
        SerializeInteger(rrccsc.nonUlConfiguration.pdschConfigCommon.pb, 0, 3);
    }
    if (rrccsc.haveUlConfiguration)
    {
        // Serialize Ul Configuration
        //  7 optional fields. Extension marker present.
        std::bitset<7> UlConfiguration_r10;
        UlConfiguration_r10.set(6, true);  // ul-Configuration-r10
        UlConfiguration_r10.set(5, false); // p-Max-r10 Not Implemented
        UlConfiguration_r10.set(4, true);  // uplinkPowerControlCommonSCell-r10
        UlConfiguration_r10.set(3, false); // soundingRS-UL-ConfigCommon-r10
        UlConfiguration_r10.set(2, false); // ul-CyclicPrefixLength-r10
        UlConfiguration_r10.set(1, true);  // prach-ConfigSCell-r10
        UlConfiguration_r10.set(0, false); // pusch-ConfigCommon-r10 Not Implemented
        SerializeSequence(UlConfiguration_r10, true);
 
        // Serialize ulFreqInfo
        std::bitset<3> FreqInfo_r10;
        FreqInfo_r10.set(2, true);  // ulCarrierFreq
        FreqInfo_r10.set(1, true);  // UlBandwidth
        FreqInfo_r10.set(0, false); // additionalSpectrumEmissionSCell-r10 Not Implemented
        SerializeSequence(FreqInfo_r10, false);
 
        SerializeInteger(rrccsc.ulConfiguration.ulFreqInfo.ulCarrierFreq, 0, MAX_EARFCN);
        SerializeInteger(rrccsc.ulConfiguration.ulFreqInfo.ulBandwidth, 6, 100);
 
        // Serialize UlPowerControlCommonSCell
        std::bitset<2> UlPowerControlCommonSCell_r10;
        UlPowerControlCommonSCell_r10.set(1, false); // p0-NominalPUSCH-r10 Not Implemented
        UlPowerControlCommonSCell_r10.set(0, true);  // alpha
        SerializeSequence(UlPowerControlCommonSCell_r10, false);
 
        SerializeInteger(rrccsc.ulConfiguration.ulPowerControlCommonSCell.alpha, 0, 65536);
 
        // Serialize soundingRs-UlConfigCommon
        // Not Implemented
 
        // Serialize PrachConfigSCell
        std::bitset<1> prachConfigSCell_r10;
        prachConfigSCell_r10.set(0, true);
        SerializeSequence(prachConfigSCell_r10, false);
        SerializeInteger(rrccsc.ulConfiguration.prachConfigSCell.index, 0, 256);
    }
}
 
void
RrcAsn1Header::SerializeRadioResourceDedicatedSCell(
    LteRrcSap::RadioResourceConfigDedicatedSCell rrcdsc) const
{
    // Serialize RadioResourceConfigDedicatedSCell
    std::bitset<1> RadioResourceConfigDedicatedSCell_r10;
    RadioResourceConfigDedicatedSCell_r10.set(0, true);
    SerializeSequence(RadioResourceConfigDedicatedSCell_r10, false);
 
    LteRrcSap::PhysicalConfigDedicatedSCell pcdsc = rrcdsc.physicalConfigDedicatedSCell;
    SerializePhysicalConfigDedicatedSCell(pcdsc);
}
 
void
RrcAsn1Header::SerializePhysicalConfigDedicatedSCell(
    LteRrcSap::PhysicalConfigDedicatedSCell pcdsc) const
{
    std::bitset<2> pcdscOpt;
    pcdscOpt.set(1, pcdsc.haveNonUlConfiguration);
    pcdscOpt.set(0, pcdsc.haveUlConfiguration);
    SerializeSequence(pcdscOpt, true);
 
    if (pcdsc.haveNonUlConfiguration)
    {
        // Serialize NonUl configuration
        std::bitset<4> nulOpt;
        nulOpt.set(3, pcdsc.haveAntennaInfoDedicated);
        nulOpt.set(2, false); // crossCarrierSchedulingConfig-r10 Not Implemented
        nulOpt.set(1, false); // csi-RS-Config-r10 Not Implemented
        nulOpt.set(0, pcdsc.havePdschConfigDedicated); // pdsch-ConfigDedicated-r10
        SerializeSequence(nulOpt, false);
 
        if (pcdsc.haveAntennaInfoDedicated)
        {
            // Serialize antennaInfo choice
            // 2 options. Selected: 0 ("explicitValue" of type "AntennaInfoDedicated")
            SerializeChoice(2, 0, false);
 
            // Serialize AntennaInfoDedicated sequence
            // 1 optional parameter, not present. No extension marker.
            SerializeSequence(std::bitset<1>(0), false);
 
            // Serialize transmissionMode
            // Assuming the value in the struct is the enum index
            SerializeEnum(8, pcdsc.antennaInfo.transmissionMode);
 
            // Serialize ue-TransmitAntennaSelection choice
            SerializeChoice(2, 0, false);
 
            // Serialize release
            SerializeNull();
        }
        if (pcdsc.havePdschConfigDedicated)
        {
            // Serialize Pdsch-ConfigDedicated Sequence:
            // 0 optional / default fields, no extension marker.
            SerializeSequence(std::bitset<0>(), false);
 
            // Serialize  p-a
            // Assuming the value in the struct is the enum index
            SerializeEnum(8, pcdsc.pdschConfigDedicated.pa);
 
            // Serialize release
            SerializeNull();
        }
    }
    if (pcdsc.haveUlConfiguration)
    {
        // Serialize Ul Configuration
        std::bitset<7> ulOpt;
        ulOpt.set(6, pcdsc.haveAntennaInfoUlDedicated); // antennaInfoUL-r10
        ulOpt.set(5, false); // pusch-ConfigDedicatedSCell-r10 not present
        ulOpt.set(4, false); // uplinkPowerControlDedicatedSCell-r10 not present
        ulOpt.set(3, false); // cqi-ReportConfigSCell-r10 not present
        ulOpt.set(2, pcdsc.haveSoundingRsUlConfigDedicated); // soundingRS-UL-ConfigDedicated-r10
        ulOpt.set(1, false); // soundingRS-UL-ConfigDedicated-v1020 not present
        ulOpt.set(0, false); // soundingRS-UL-ConfigDedicatedAperiodic-r10 not present
        SerializeSequence(ulOpt, false);
 
        if (pcdsc.haveAntennaInfoUlDedicated)
        {
            // Serialize antennaInfo choice
            // 2 options. Selected: 0 ("explicitValue" of type "AntennaInfoDedicated")
            SerializeChoice(2, 0, false);
 
            // Serialize AntennaInfoDedicated sequence
            // 1 optional parameter, not present. No extension marker.
            SerializeSequence(std::bitset<1>(0), false);
 
            // Serialize transmissionMode
            // Assuming the value in the struct is the enum index
            SerializeEnum(8, pcdsc.antennaInfoUl.transmissionMode);
 
            // Serialize ue-TransmitAntennaSelection choice
            SerializeChoice(2, 0, false);
 
            // Serialize release
            SerializeNull();
        }
        if (pcdsc.haveSoundingRsUlConfigDedicated)
        {
            // Serialize SoundingRS-UL-ConfigDedicated choice:
            switch (pcdsc.soundingRsUlConfigDedicated.type)
            {
            case LteRrcSap::SoundingRsUlConfigDedicated::RESET:
                SerializeChoice(2, 0, false);
                SerializeNull();
                break;
 
            case LteRrcSap::SoundingRsUlConfigDedicated::SETUP:
            default:
                // 2 options, selected: 1 (setup)
                SerializeChoice(2, 1, false);
 
                // Serialize setup sequence
                // 0 optional / default fields, no extension marker.
                SerializeSequence(std::bitset<0>(), false);
 
                // Serialize srs-Bandwidth
                SerializeEnum(4, pcdsc.soundingRsUlConfigDedicated.srsBandwidth);
 
                // Serialize  srs-HoppingBandwidth
                SerializeEnum(4, 0);
 
                // Serialize freqDomainPosition
                SerializeInteger(0, 0, 23);
 
                // Serialize duration
                SerializeBoolean(false);
 
                // Serialize srs-ConfigIndex
                SerializeInteger(pcdsc.soundingRsUlConfigDedicated.srsConfigIndex, 0, 1023);
 
                // Serialize transmissionComb
                SerializeInteger(0, 0, 1);
 
                // Serialize cyclicShift
                SerializeEnum(8, 0);
 
                break;
            }
        }
    }
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeThresholdEutra(LteRrcSap::ThresholdEutra* thresholdEutra,
                                         Buffer::Iterator bIterator)
{
    int thresholdEutraChoice;
    int range;
    bIterator = DeserializeChoice(2, false, &thresholdEutraChoice, bIterator);
 
    switch (thresholdEutraChoice)
    {
    case 0:
        thresholdEutra->choice = LteRrcSap::ThresholdEutra::THRESHOLD_RSRP;
        bIterator = DeserializeInteger(&range, 0, 97, bIterator);
        thresholdEutra->range = range;
        break;
    case 1:
    default:
        thresholdEutra->choice = LteRrcSap::ThresholdEutra::THRESHOLD_RSRQ;
        bIterator = DeserializeInteger(&range, 0, 34, bIterator);
        thresholdEutra->range = range;
    }
 
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeQoffsetRange(int8_t* qOffsetRange, Buffer::Iterator bIterator)
{
    int n;
    bIterator = DeserializeEnum(31, &n, bIterator);
    switch (n)
    {
    case 0:
        *qOffsetRange = -24;
        break;
    case 1:
        *qOffsetRange = -22;
        break;
    case 2:
        *qOffsetRange = -20;
        break;
    case 3:
        *qOffsetRange = -18;
        break;
    case 4:
        *qOffsetRange = -16;
        break;
    case 5:
        *qOffsetRange = -14;
        break;
    case 6:
        *qOffsetRange = -12;
        break;
    case 7:
        *qOffsetRange = -10;
        break;
    case 8:
        *qOffsetRange = -8;
        break;
    case 9:
        *qOffsetRange = -6;
        break;
    case 10:
        *qOffsetRange = -5;
        break;
    case 11:
        *qOffsetRange = -4;
        break;
    case 12:
        *qOffsetRange = -3;
        break;
    case 13:
        *qOffsetRange = -2;
        break;
    case 14:
        *qOffsetRange = -1;
        break;
    case 15:
        *qOffsetRange = 0;
        break;
    case 16:
        *qOffsetRange = 1;
        break;
    case 17:
        *qOffsetRange = 2;
        break;
    case 18:
        *qOffsetRange = 3;
        break;
    case 19:
        *qOffsetRange = 4;
        break;
    case 20:
        *qOffsetRange = 5;
        break;
    case 21:
        *qOffsetRange = 6;
        break;
    case 22:
        *qOffsetRange = 8;
        break;
    case 23:
        *qOffsetRange = 10;
        break;
    case 24:
        *qOffsetRange = 12;
        break;
    case 25:
        *qOffsetRange = 14;
        break;
    case 26:
        *qOffsetRange = 16;
        break;
    case 27:
        *qOffsetRange = 18;
        break;
    case 28:
        *qOffsetRange = 20;
        break;
    case 29:
        *qOffsetRange = 22;
        break;
    case 30:
    default:
        *qOffsetRange = 24;
    }
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeRadioResourceConfigDedicated(
    LteRrcSap::RadioResourceConfigDedicated* radioResourceConfigDedicated,
    Buffer::Iterator bIterator)
{
    // Deserialize RadioResourceConfigDedicated sequence
    std::bitset<6> optionalFieldsPresent = std::bitset<6>();
    bIterator = DeserializeSequence(&optionalFieldsPresent, true, bIterator);
 
    if (optionalFieldsPresent[5])
    {
        // Deserialize srb-ToAddModList
        bIterator =
            DeserializeSrbToAddModList(&(radioResourceConfigDedicated->srbToAddModList), bIterator);
    }
 
    if (optionalFieldsPresent[4])
    {
        // Deserialize drb-ToAddModList
        bIterator =
            DeserializeDrbToAddModList(&(radioResourceConfigDedicated->drbToAddModList), bIterator);
    }
 
    if (optionalFieldsPresent[3])
    {
        // Deserialize drb-ToReleaseList
        int n;
        int val;
        bIterator = DeserializeSequenceOf(&n, MAX_DRB, 1, bIterator);
        for (int i = 0; i < n; i++)
        {
            bIterator = DeserializeInteger(&val, 1, 32, bIterator);
            radioResourceConfigDedicated->drbToReleaseList.push_back(val);
        }
    }
 
    if (optionalFieldsPresent[2])
    {
        // Deserialize mac-MainConfig
        // ...
    }
 
    if (optionalFieldsPresent[1])
    {
        // Deserialize sps-Config
        // ...
    }
 
    radioResourceConfigDedicated->havePhysicalConfigDedicated = optionalFieldsPresent[0];
    if (optionalFieldsPresent[0])
    {
        // Deserialize physicalConfigDedicated
        bIterator = DeserializePhysicalConfigDedicated(
            &radioResourceConfigDedicated->physicalConfigDedicated,
            bIterator);
    }
 
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeSrbToAddModList(std::list<LteRrcSap::SrbToAddMod>* srbToAddModList,
                                          Buffer::Iterator bIterator)
{
    int numElems;
    bIterator = DeserializeSequenceOf(&numElems, 2, 1, bIterator);
 
    srbToAddModList->clear();
 
    // Deserialize SRB-ToAddMod elements
    for (int i = 0; i < numElems; i++)
    {
        LteRrcSap::SrbToAddMod srbToAddMod;
        // Deserialize SRB-ToAddMod sequence
        // 2 optional fields, extension marker present
        std::bitset<2> optionalFields;
        bIterator = DeserializeSequence(&optionalFields, true, bIterator);
 
        // Deserialize srbIdentity
        int n;
        bIterator = DeserializeInteger(&n, 1, 2, bIterator);
        srbToAddMod.srbIdentity = n;
 
        if (optionalFields[1])
        {
            // Deserialize rlcConfig choice
            // ...
        }
 
        if (optionalFields[0])
        {
            // Deserialize logicalChannelConfig choice
            int sel;
            bIterator = DeserializeChoice(2, false, &sel, bIterator);
 
            // Deserialize logicalChannelConfig defaultValue
            if (sel == 1)
            {
                bIterator = DeserializeNull(bIterator);
            }
 
            // Deserialize logicalChannelConfig explicitValue
            else if (sel == 0)
            {
                bIterator =
                    DeserializeLogicalChannelConfig(&srbToAddMod.logicalChannelConfig, bIterator);
            }
        }
        srbToAddModList->insert(srbToAddModList->end(), srbToAddMod);
    }
 
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeDrbToAddModList(std::list<LteRrcSap::DrbToAddMod>* drbToAddModList,
                                          Buffer::Iterator bIterator)
{
    int n;
    int val;
    bIterator = DeserializeSequenceOf(&n, MAX_DRB, 1, bIterator);
 
    drbToAddModList->clear();
 
    for (int i = 0; i < n; i++)
    {
        LteRrcSap::DrbToAddMod drbToAddMod;
 
        std::bitset<5> optionalFields;
        bIterator = DeserializeSequence(&optionalFields, true, bIterator);
 
        if (optionalFields[4])
        {
            // Deserialize epsBearerIdentity
            bIterator = DeserializeInteger(&val, 0, 15, bIterator);
            drbToAddMod.epsBearerIdentity = val;
        }
 
        bIterator = DeserializeInteger(&val, 1, 32, bIterator);
        drbToAddMod.drbIdentity = val;
 
        if (optionalFields[3])
        {
            // Deserialize pdcp-Config
            // ...
        }
 
        if (optionalFields[2])
        {
            // Deserialize RLC-Config
            int chosen;
            bIterator = DeserializeChoice(4, true, &chosen, bIterator);
 
            int sel;
            std::bitset<0> bitset0;
            switch (chosen)
            {
            case 0:
                drbToAddMod.rlcConfig.choice = LteRrcSap::RlcConfig::AM;
 
                // Deserialize UL-AM-RLC
                bIterator = DeserializeSequence(&bitset0, false, bIterator);
                bIterator = DeserializeEnum(64, &sel, bIterator); // t-PollRetransmit
                bIterator = DeserializeEnum(8, &sel, bIterator);  // pollPDU
                bIterator = DeserializeEnum(16, &sel, bIterator); // pollByte
                bIterator = DeserializeEnum(8, &sel, bIterator);  // maxRetxThreshold
 
                // Deserialize DL-AM-RLC
                bIterator = DeserializeSequence(&bitset0, false, bIterator);
                bIterator = DeserializeEnum(32, &sel, bIterator); // t-Reordering
                bIterator = DeserializeEnum(64, &sel, bIterator); // t-StatusProhibit
                break;
 
            case 1:
                drbToAddMod.rlcConfig.choice = LteRrcSap::RlcConfig::UM_BI_DIRECTIONAL;
 
                // Deserialize UL-UM-RLC
                bIterator = DeserializeSequence(&bitset0, false, bIterator);
                bIterator = DeserializeEnum(2, &sel, bIterator); // sn-FieldLength
 
                // Deserialize DL-UM-RLC
                bIterator = DeserializeSequence(&bitset0, false, bIterator);
                bIterator = DeserializeEnum(2, &sel, bIterator);  // sn-FieldLength
                bIterator = DeserializeEnum(32, &sel, bIterator); // t-Reordering
                break;
 
            case 2:
                drbToAddMod.rlcConfig.choice = LteRrcSap::RlcConfig::UM_UNI_DIRECTIONAL_UL;
 
                // Deserialize UL-UM-RLC
                bIterator = DeserializeSequence(&bitset0, false, bIterator);
                bIterator = DeserializeEnum(2, &sel, bIterator); // sn-FieldLength
                break;
 
            case 3:
                drbToAddMod.rlcConfig.choice = LteRrcSap::RlcConfig::UM_UNI_DIRECTIONAL_DL;
 
                // Deserialize DL-UM-RLC
                bIterator = DeserializeSequence(&bitset0, false, bIterator);
                bIterator = DeserializeEnum(2, &sel, bIterator);  // sn-FieldLength
                bIterator = DeserializeEnum(32, &sel, bIterator); // t-Reordering
                break;
            }
        }
 
        if (optionalFields[1])
        {
            bIterator = DeserializeInteger(&val, 3, 10, bIterator);
            drbToAddMod.logicalChannelIdentity = val;
        }
 
        if (optionalFields[0])
        {
            bIterator =
                DeserializeLogicalChannelConfig(&drbToAddMod.logicalChannelConfig, bIterator);
        }
 
        drbToAddModList->insert(drbToAddModList->end(), drbToAddMod);
    }
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeLogicalChannelConfig(
    LteRrcSap::LogicalChannelConfig* logicalChannelConfig,
    Buffer::Iterator bIterator)
{
    int n;
 
    // Deserialize LogicalChannelConfig sequence
    // 1 optional field, extension marker is present.
    std::bitset<1> bitset1;
    bIterator = DeserializeSequence(&bitset1, true, bIterator);
 
    if (bitset1[0])
    {
        // Deserialize ul-SpecificParameters sequence
        bIterator = DeserializeSequence(&bitset1, false, bIterator);
 
        // Deserialize priority
        bIterator = DeserializeInteger(&n, 1, 16, bIterator);
        logicalChannelConfig->priority = n;
 
        // Deserialize prioritisedBitRate
        bIterator = DeserializeEnum(16, &n, bIterator);
        uint16_t prioritizedBitRateKbps;
 
        switch (n)
        {
        case 0:
            prioritizedBitRateKbps = 0;
            break;
        case 1:
            prioritizedBitRateKbps = 8;
            break;
        case 2:
            prioritizedBitRateKbps = 16;
            break;
        case 3:
            prioritizedBitRateKbps = 32;
            break;
        case 4:
            prioritizedBitRateKbps = 64;
            break;
        case 5:
            prioritizedBitRateKbps = 128;
            break;
        case 6:
            prioritizedBitRateKbps = 256;
            break;
        case 7:
            prioritizedBitRateKbps = 10000;
            break;
        default:
            prioritizedBitRateKbps = 10000;
        }
        logicalChannelConfig->prioritizedBitRateKbps = prioritizedBitRateKbps;
 
        // Deserialize bucketSizeDuration
        bIterator = DeserializeEnum(8, &n, bIterator);
        uint16_t bucketSizeDurationMs;
        switch (n)
        {
        case 0:
            bucketSizeDurationMs = 50;
            break;
        case 1:
            bucketSizeDurationMs = 100;
            break;
        case 2:
            bucketSizeDurationMs = 150;
            break;
        case 3:
            bucketSizeDurationMs = 300;
            break;
        case 4:
            bucketSizeDurationMs = 500;
            break;
        case 5:
            bucketSizeDurationMs = 1000;
            break;
        default:
            bucketSizeDurationMs = 1000;
        }
        logicalChannelConfig->bucketSizeDurationMs = bucketSizeDurationMs;
 
        if (bitset1[0])
        {
            // Deserialize logicalChannelGroup
            bIterator = DeserializeInteger(&n, 0, 3, bIterator);
            logicalChannelConfig->logicalChannelGroup = n;
        }
    }
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializePhysicalConfigDedicated(
    LteRrcSap::PhysicalConfigDedicated* physicalConfigDedicated,
    Buffer::Iterator bIterator)
{
    std::bitset<10> optionalFieldPresent;
    bIterator = DeserializeSequence(&optionalFieldPresent, true, bIterator);
 
    physicalConfigDedicated->havePdschConfigDedicated = optionalFieldPresent[9];
    if (optionalFieldPresent[9])
    {
        // Deserialize pdsch-ConfigDedicated
        std::bitset<0> bitset0;
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
        int slct;
 
        // Deserialize p-a
        bIterator = DeserializeEnum(8, &slct, bIterator);
        physicalConfigDedicated->pdschConfigDedicated.pa = slct;
 
        bIterator = DeserializeNull(bIterator);
    }
    if (optionalFieldPresent[8])
    {
        // Deserialize pucch-ConfigDedicated
        // ...
    }
    if (optionalFieldPresent[7])
    {
        // Deserialize pusch-ConfigDedicated
        // ...
    }
    if (optionalFieldPresent[6])
    {
        // Deserialize uplinkPowerControlDedicated
        // ...
    }
    if (optionalFieldPresent[5])
    {
        // Deserialize tpc-PDCCH-ConfigPUCCH
        // ...
    }
    if (optionalFieldPresent[4])
    {
        // Deserialize tpc-PDCCH-ConfigPUSCH
        // ...
    }
    if (optionalFieldPresent[3])
    {
        // Deserialize cqi-ReportConfig
        // ...
    }
    physicalConfigDedicated->haveSoundingRsUlConfigDedicated = optionalFieldPresent[2];
    if (optionalFieldPresent[2])
    {
        // Deserialize soundingRS-UL-ConfigDedicated
        int sel;
        bIterator = DeserializeChoice(2, false, &sel, bIterator);
 
        if (sel == 0)
        {
            physicalConfigDedicated->soundingRsUlConfigDedicated.type =
                LteRrcSap::SoundingRsUlConfigDedicated::RESET;
 
            bIterator = DeserializeNull(bIterator);
        }
 
        else if (sel == 1)
        {
            physicalConfigDedicated->soundingRsUlConfigDedicated.type =
                LteRrcSap::SoundingRsUlConfigDedicated::SETUP;
 
            std::bitset<0> bitset0;
            bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
            int slct;
 
            // Deserialize srs-Bandwidth
            bIterator = DeserializeEnum(4, &slct, bIterator);
            physicalConfigDedicated->soundingRsUlConfigDedicated.srsBandwidth = slct;
 
            // Deserialize srs-HoppingBandwidth
            bIterator = DeserializeEnum(4, &slct, bIterator);
 
            // Deserialize freqDomainPosition
            bIterator = DeserializeInteger(&slct, 0, 23, bIterator);
 
            // Deserialize duration
            bool duration;
            bIterator = DeserializeBoolean(&duration, bIterator);
 
            // Deserialize srs-ConfigIndex
            bIterator = DeserializeInteger(&slct, 0, 1023, bIterator);
            physicalConfigDedicated->soundingRsUlConfigDedicated.srsConfigIndex = slct;
 
            // Deserialize transmissionComb
            bIterator = DeserializeInteger(&slct, 0, 1, bIterator);
 
            // Deserialize cyclicShift
            bIterator = DeserializeEnum(8, &slct, bIterator);
        }
    }
    physicalConfigDedicated->haveAntennaInfoDedicated = optionalFieldPresent[1];
    if (optionalFieldPresent[1])
    {
        // Deserialize antennaInfo
        int sel;
        bIterator = DeserializeChoice(2, false, &sel, bIterator);
        if (sel == 1)
        {
            bIterator = DeserializeNull(bIterator);
        }
        else if (sel == 0)
        {
            std::bitset<1> codebookSubsetRestrictionPresent;
            bIterator = DeserializeSequence(&codebookSubsetRestrictionPresent, false, bIterator);
 
            int txmode;
            bIterator = DeserializeEnum(8, &txmode, bIterator);
            physicalConfigDedicated->antennaInfo.transmissionMode = txmode;
 
            if (codebookSubsetRestrictionPresent[0])
            {
                // Deserialize codebookSubsetRestriction
                // ...
            }
 
            int txantennaselchosen;
            bIterator = DeserializeChoice(2, false, &txantennaselchosen, bIterator);
            if (txantennaselchosen == 0)
            {
                // Deserialize ue-TransmitAntennaSelection release
                bIterator = DeserializeNull(bIterator);
            }
            else if (txantennaselchosen == 1)
            {
                // Deserialize ue-TransmitAntennaSelection setup
                // ...
            }
        }
    }
    if (optionalFieldPresent[0])
    {
        // Deserialize schedulingRequestConfig
        // ...
    }
    return bIterator;
}
 
void
RrcAsn1Header::Print(std::ostream& os) const
{
    NS_LOG_FUNCTION(this << &os);
    NS_FATAL_ERROR("RrcAsn1Header Print() function must also specify "
                   "LteRrcSap::RadioResourceConfigDedicated as a second argument");
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeNonCriticalExtensionConfig(
    LteRrcSap::NonCriticalExtensionConfiguration* nonCriticalExtension,
    Buffer::Iterator bIterator)
{
    NS_LOG_FUNCTION(this);
    std::bitset<2> nonCriticalExtension_v890;
    bIterator = DeserializeSequence(&nonCriticalExtension_v890, false, bIterator);
 
    if (nonCriticalExtension_v890[0])
    {
        // Continue to analyze future Release optional fields
        std::bitset<3> nonCriticalExtension_v920;
        bIterator = DeserializeSequence(&nonCriticalExtension_v920, false, bIterator);
        if (nonCriticalExtension_v920[0])
        {
            // Continue to deserialize future Release optional fields
            std::bitset<3> nonCriticalExtension_v1020;
            bIterator = DeserializeSequence(&nonCriticalExtension_v1020, false, bIterator);
 
            if (nonCriticalExtension_v1020[2])
            {
                // sCellToReleaseList-r10
                int numElems;
 
                bIterator = DeserializeSequenceOf(&numElems, MAX_OBJECT_ID, 1, bIterator);
                nonCriticalExtension->sCellToReleaseList.clear();
 
                for (int i = 0; i < numElems; i++)
                {
                    // Deserialize SCellIndex-r10
                    int sCellIndex;
                    bIterator = DeserializeInteger(&sCellIndex, 1, 7, bIterator);
                    nonCriticalExtension->sCellToReleaseList.push_back(sCellIndex);
                }
            }
 
            if (nonCriticalExtension_v1020[1])
            {
                // sCellToAddModList-r10
 
                int numElems;
                bIterator = DeserializeSequenceOf(&numElems, MAX_OBJECT_ID, 1, bIterator);
                nonCriticalExtension->sCellToAddModList.clear();
                // Deserialize SCellToAddMod
                for (int i = 0; i < numElems; i++)
                {
                    std::bitset<4> sCellToAddMod_r10;
                    bIterator = DeserializeSequence(&sCellToAddMod_r10, false, bIterator);
 
                    LteRrcSap::SCellToAddMod sctam;
                    // Deserialize sCellIndex
                    NS_ASSERT(sCellToAddMod_r10[3]); // sCellIndex
                    int n;
                    bIterator = DeserializeInteger(&n, 1, 7, bIterator);
                    sctam.sCellIndex = n;
                    // Deserialize CellIdentification
                    NS_ASSERT(sCellToAddMod_r10[2]); // CellIdentification
                    bIterator = DeserializeCellIdentification(&sctam.cellIdentification, bIterator);
 
                    // Deserialize RadioResourceConfigCommonSCell
                    NS_ASSERT(sCellToAddMod_r10[1]);
                    bIterator = DeserializeRadioResourceConfigCommonSCell(
                        &sctam.radioResourceConfigCommonSCell,
                        bIterator);
                    if (sCellToAddMod_r10[0])
                    {
                        sctam.haveRadioResourceConfigDedicatedSCell = true;
                        // Deserialize RadioResourceConfigDedicatedSCell
                        bIterator = DeserializeRadioResourceConfigDedicatedSCell(
                            &sctam.radioResourceConfigDedicatedSCell,
                            bIterator);
                    }
                    else
                    {
                        sctam.haveRadioResourceConfigDedicatedSCell = false;
                    }
 
                    nonCriticalExtension->sCellToAddModList.push_back(sctam);
                }
            }
 
            NS_ASSERT(!nonCriticalExtension_v1020[0]); // No nonCriticalExtension
                                                       // RRCConnectionReconfiguration-v1130-IEs
        }
    }
 
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeCellIdentification(LteRrcSap::CellIdentification* ci,
                                             Buffer::Iterator bIterator)
{
    NS_LOG_FUNCTION(this);
    std::bitset<2> cellIdentification_r10;
    bIterator = DeserializeSequence(&cellIdentification_r10, false, bIterator);
    NS_ASSERT(cellIdentification_r10[1]); // phyCellId-r10
    int n1;
    bIterator = DeserializeInteger(&n1, 1, 65536, bIterator);
    ci->physCellId = n1;
    int n2;
    NS_ASSERT(cellIdentification_r10[0]); // dl-CarrierFreq-r10
    bIterator = DeserializeInteger(&n2, 1, MAX_EARFCN, bIterator);
    ci->dlCarrierFreq = n2;
 
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeRadioResourceConfigCommonSCell(
    LteRrcSap::RadioResourceConfigCommonSCell* rrccsc,
    Buffer::Iterator bIterator)
{
    NS_LOG_FUNCTION(this);
    std::bitset<2> radioResourceConfigCommonSCell_r10;
    bIterator = DeserializeSequence(&radioResourceConfigCommonSCell_r10, false, bIterator);
    rrccsc->haveNonUlConfiguration = radioResourceConfigCommonSCell_r10[1];
    rrccsc->haveUlConfiguration = radioResourceConfigCommonSCell_r10[0];
    if (rrccsc->haveNonUlConfiguration)
    {
        std::bitset<5> nonUlConfiguration_r10;
        bIterator = DeserializeSequence(&nonUlConfiguration_r10, false, bIterator);
        int n;
        bIterator = DeserializeInteger(&n, 6, 100, bIterator);
        rrccsc->nonUlConfiguration.dlBandwidth = n;
 
        std::bitset<1> antennaInfoCommon_r10;
        bIterator = DeserializeSequence(&antennaInfoCommon_r10, false, bIterator);
        bIterator = DeserializeInteger(&n, 0, 65536, bIterator);
        rrccsc->nonUlConfiguration.antennaInfoCommon.antennaPortsCount = n;
 
        std::bitset<2> pdschConfigCommon_r10;
        bIterator = DeserializeSequence(&pdschConfigCommon_r10, false, bIterator);
        bIterator = DeserializeInteger(&n, -60, 50, bIterator);
        rrccsc->nonUlConfiguration.pdschConfigCommon.referenceSignalPower = n;
        bIterator = DeserializeInteger(&n, 0, 3, bIterator);
        rrccsc->nonUlConfiguration.pdschConfigCommon.pb = n;
    }
    if (rrccsc->haveUlConfiguration)
    {
        std::bitset<7> UlConfiguration_r10;
        bIterator = DeserializeSequence(&UlConfiguration_r10, true, bIterator);
 
        std::bitset<3> FreqInfo_r10;
        bIterator = DeserializeSequence(&FreqInfo_r10, false, bIterator);
        int n;
        bIterator = DeserializeInteger(&n, 0, MAX_EARFCN, bIterator);
        rrccsc->ulConfiguration.ulFreqInfo.ulCarrierFreq = n;
        bIterator = DeserializeInteger(&n, 6, 100, bIterator);
        rrccsc->ulConfiguration.ulFreqInfo.ulBandwidth = n;
 
        std::bitset<2> UlPowerControlCommonSCell_r10;
        bIterator = DeserializeSequence(&UlPowerControlCommonSCell_r10, false, bIterator);
        bIterator = DeserializeInteger(&n, 0, 65536, bIterator);
        rrccsc->ulConfiguration.ulPowerControlCommonSCell.alpha = n;
 
        std::bitset<1> prachConfigSCell_r10;
        bIterator = DeserializeSequence(&prachConfigSCell_r10, false, bIterator);
        bIterator = DeserializeInteger(&n, 0, 256, bIterator);
        rrccsc->ulConfiguration.prachConfigSCell.index = n;
    }
 
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeRadioResourceConfigDedicatedSCell(
    LteRrcSap::RadioResourceConfigDedicatedSCell* rrcdsc,
    Buffer::Iterator bIterator)
{
    NS_LOG_FUNCTION(this);
    std::bitset<1> RadioResourceConfigDedicatedSCell_r10;
    bIterator = DeserializeSequence(&RadioResourceConfigDedicatedSCell_r10, false, bIterator);
    bIterator =
        DeserializePhysicalConfigDedicatedSCell(&rrcdsc->physicalConfigDedicatedSCell, bIterator);
 
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializePhysicalConfigDedicatedSCell(
    LteRrcSap::PhysicalConfigDedicatedSCell* pcdsc,
    Buffer::Iterator bIterator)
{
    NS_LOG_FUNCTION(this);
    std::bitset<2> pcdscOpt;
    bIterator = DeserializeSequence(&pcdscOpt, true, bIterator);
    pcdsc->haveNonUlConfiguration = pcdscOpt[1];
    pcdsc->haveUlConfiguration = pcdscOpt[0];
    if (pcdsc->haveNonUlConfiguration)
    {
        std::bitset<4> nulOpt;
        bIterator = DeserializeSequence(&nulOpt, false, bIterator);
        pcdsc->haveAntennaInfoDedicated = nulOpt[3];
        NS_ASSERT(!nulOpt[2]); // crossCarrierSchedulingConfig-r10 Not Implemented
        NS_ASSERT(!nulOpt[1]); // csi-RS-Config-r10 Not Implemented
        pcdsc->havePdschConfigDedicated = nulOpt[0];
 
        if (pcdsc->haveAntennaInfoDedicated)
        {
            // Deserialize antennaInfo
            int sel;
            bIterator = DeserializeChoice(2, false, &sel, bIterator);
            if (sel == 1)
            {
                bIterator = DeserializeNull(bIterator);
            }
            else if (sel == 0)
            {
                std::bitset<1> codebookSubsetRestrictionPresent;
                bIterator =
                    DeserializeSequence(&codebookSubsetRestrictionPresent, false, bIterator);
 
                int txmode;
                bIterator = DeserializeEnum(8, &txmode, bIterator);
                pcdsc->antennaInfo.transmissionMode = txmode;
 
                if (codebookSubsetRestrictionPresent[0])
                {
                    // Deserialize codebookSubsetRestriction
                    NS_FATAL_ERROR("Not implemented yet");
                    // ...
                }
 
                int txantennaselchosen;
                bIterator = DeserializeChoice(2, false, &txantennaselchosen, bIterator);
                if (txantennaselchosen == 0)
                {
                    // Deserialize ue-TransmitAntennaSelection release
                    bIterator = DeserializeNull(bIterator);
                }
                else if (txantennaselchosen == 1)
                {
                    // Deserialize ue-TransmitAntennaSelection setup
                    NS_FATAL_ERROR("Not implemented yet");
                    // ...
                }
            }
        }
        if (pcdsc->havePdschConfigDedicated)
        {
            // Deserialize pdsch-ConfigDedicated
            std::bitset<0> bitset0;
            bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
            int slct;
 
            // Deserialize p-a
            bIterator = DeserializeEnum(8, &slct, bIterator);
            pcdsc->pdschConfigDedicated.pa = slct;
 
            bIterator = DeserializeNull(bIterator);
        }
    }
    if (pcdsc->haveUlConfiguration)
    {
        std::bitset<7> ulOpt;
        bIterator = DeserializeSequence(&ulOpt, false, bIterator);
        pcdsc->haveAntennaInfoUlDedicated = ulOpt[6];
        NS_ASSERT(!ulOpt[5]); // pusch-ConfigDedicatedSCell-r10 not present
        NS_ASSERT(!ulOpt[4]); // uplinkPowerControlDedicatedSCell-r10 not present
        NS_ASSERT(!ulOpt[3]); // cqi-ReportConfigSCell-r10 not present
        pcdsc->haveSoundingRsUlConfigDedicated = ulOpt[2];
        NS_ASSERT(!ulOpt[1]); // soundingRS-UL-ConfigDedicated-v1020 not present
        NS_ASSERT(!ulOpt[0]); // soundingRS-UL-ConfigDedicatedAperiodic-r10 not present
 
        if (pcdsc->haveAntennaInfoUlDedicated)
        {
            // Deserialize antennaInfo
            int sel;
            bIterator = DeserializeChoice(2, false, &sel, bIterator);
            if (sel == 1)
            {
                bIterator = DeserializeNull(bIterator);
            }
            else if (sel == 0)
            {
                std::bitset<1> codebookSubsetRestrictionPresent;
                bIterator =
                    DeserializeSequence(&codebookSubsetRestrictionPresent, false, bIterator);
 
                int txmode;
                bIterator = DeserializeEnum(8, &txmode, bIterator);
                pcdsc->antennaInfoUl.transmissionMode = txmode;
 
                if (codebookSubsetRestrictionPresent[0])
                {
                    // Deserialize codebookSubsetRestriction
                    NS_FATAL_ERROR("Not implemented yet");
                    // ...
                }
 
                int txantennaselchosen;
                bIterator = DeserializeChoice(2, false, &txantennaselchosen, bIterator);
                if (txantennaselchosen == 0)
                {
                    // Deserialize ue-TransmitAntennaSelection release
                    bIterator = DeserializeNull(bIterator);
                }
                else if (txantennaselchosen == 1)
                {
                    // Deserialize ue-TransmitAntennaSelection setup
                    NS_FATAL_ERROR("Not implemented yet");
                    // ...
                }
            }
        }
        if (pcdsc->haveSoundingRsUlConfigDedicated)
        {
            // Deserialize soundingRS-UL-ConfigDedicated
            int sel;
            bIterator = DeserializeChoice(2, false, &sel, bIterator);
 
            if (sel == 0)
            {
                pcdsc->soundingRsUlConfigDedicated.type =
                    LteRrcSap::SoundingRsUlConfigDedicated::RESET;
 
                bIterator = DeserializeNull(bIterator);
            }
 
            else if (sel == 1)
            {
                pcdsc->soundingRsUlConfigDedicated.type =
                    LteRrcSap::SoundingRsUlConfigDedicated::SETUP;
 
                std::bitset<0> bitset0;
                bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
                int slct;
 
                // Deserialize srs-Bandwidth
                bIterator = DeserializeEnum(4, &slct, bIterator);
                pcdsc->soundingRsUlConfigDedicated.srsBandwidth = slct;
 
                // Deserialize srs-HoppingBandwidth
                bIterator = DeserializeEnum(4, &slct, bIterator);
 
                // Deserialize freqDomainPosition
                bIterator = DeserializeInteger(&slct, 0, 23, bIterator);
 
                // Deserialize duration
                bool duration;
                bIterator = DeserializeBoolean(&duration, bIterator);
 
                // Deserialize srs-ConfigIndex
                bIterator = DeserializeInteger(&slct, 0, 1023, bIterator);
                pcdsc->soundingRsUlConfigDedicated.srsConfigIndex = slct;
 
                // Deserialize transmissionComb
                bIterator = DeserializeInteger(&slct, 0, 1, bIterator);
 
                // Deserialize cyclicShift
                bIterator = DeserializeEnum(8, &slct, bIterator);
            }
        }
    }
 
    return bIterator;
}
 
void
RrcAsn1Header::Print(std::ostream& os,
                     LteRrcSap::RadioResourceConfigDedicated radioResourceConfigDedicated) const
{
    os << "   srbToAddModList: " << std::endl;
    auto it = radioResourceConfigDedicated.srbToAddModList.begin();
    for (; it != radioResourceConfigDedicated.srbToAddModList.end(); it++)
    {
        os << "      srbIdentity: " << (int)it->srbIdentity << std::endl;
        os << "      logicalChannelConfig: " << std::endl;
        os << "         priority: " << (int)it->logicalChannelConfig.priority << std::endl;
        os << "         prioritizedBitRateKbps: "
           << (int)it->logicalChannelConfig.prioritizedBitRateKbps << std::endl;
        os << "         bucketSizeDurationMs: "
           << (int)it->logicalChannelConfig.bucketSizeDurationMs << std::endl;
        os << "         logicalChannelGroup: " << (int)it->logicalChannelConfig.logicalChannelGroup
           << std::endl;
    }
    os << std::endl;
 
    os << "   drbToAddModList: " << std::endl;
    auto it2 = radioResourceConfigDedicated.drbToAddModList.begin();
    for (; it2 != radioResourceConfigDedicated.drbToAddModList.end(); it2++)
    {
        os << "      epsBearerIdentity: " << (int)it2->epsBearerIdentity << std::endl;
        os << "      drbIdentity: " << (int)it2->drbIdentity << std::endl;
        os << "      rlcConfig: " << it2->rlcConfig.choice << std::endl;
        os << "      logicalChannelIdentity: " << (int)it2->logicalChannelIdentity << std::endl;
        os << "      logicalChannelConfig: " << std::endl;
        os << "         priority: " << (int)it2->logicalChannelConfig.priority << std::endl;
        os << "         prioritizedBitRateKbps: "
           << (int)it2->logicalChannelConfig.prioritizedBitRateKbps << std::endl;
        os << "         bucketSizeDurationMs: "
           << (int)it2->logicalChannelConfig.bucketSizeDurationMs << std::endl;
        os << "         logicalChannelGroup: " << (int)it2->logicalChannelConfig.logicalChannelGroup
           << std::endl;
    }
    os << std::endl;
 
    os << "   drbToReleaseList: ";
    auto it3 = radioResourceConfigDedicated.drbToReleaseList.begin();
    for (; it3 != radioResourceConfigDedicated.drbToReleaseList.end(); it3++)
    {
        os << (int)*it3 << ", ";
    }
    os << std::endl;
 
    os << "   havePhysicalConfigDedicated: "
       << radioResourceConfigDedicated.havePhysicalConfigDedicated << std::endl;
 
    if (radioResourceConfigDedicated.havePhysicalConfigDedicated)
    {
        os << "   physicalConfigDedicated: " << std::endl;
 
        os << "      haveSoundingRsUlConfigDedicated: "
           << radioResourceConfigDedicated.physicalConfigDedicated.haveSoundingRsUlConfigDedicated
           << std::endl;
        if (radioResourceConfigDedicated.physicalConfigDedicated.haveSoundingRsUlConfigDedicated)
        {
            os << "      soundingRsUlConfigDedicated: " << std::endl;
            os << "         type: "
               << radioResourceConfigDedicated.physicalConfigDedicated.soundingRsUlConfigDedicated
                      .type
               << std::endl;
            os << "         srsBandwidth: "
               << (int)radioResourceConfigDedicated.physicalConfigDedicated
                      .soundingRsUlConfigDedicated.srsBandwidth
               << std::endl;
            os << "         srsConfigIndex: "
               << (int)radioResourceConfigDedicated.physicalConfigDedicated
                      .soundingRsUlConfigDedicated.srsConfigIndex
               << std::endl;
        }
 
        os << "      haveAntennaInfoDedicated: "
           << radioResourceConfigDedicated.physicalConfigDedicated.haveAntennaInfoDedicated
           << std::endl;
        if (radioResourceConfigDedicated.physicalConfigDedicated.haveAntennaInfoDedicated)
        {
            os << "      antennaInfo Tx mode: "
               << (int)radioResourceConfigDedicated.physicalConfigDedicated.antennaInfo
                      .transmissionMode
               << std::endl;
        }
    }
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeSystemInformationBlockType1(
    LteRrcSap::SystemInformationBlockType1* systemInformationBlockType1,
    Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    std::bitset<3> sysInfoBlkT1Opts;
    bIterator = DeserializeSequence(&sysInfoBlkT1Opts, false, bIterator);
 
    // Deserialize cellAccessRelatedInfo
    std::bitset<1> cellAccessRelatedInfoOpts;
    bIterator = DeserializeSequence(&cellAccessRelatedInfoOpts, false, bIterator);
 
    // Deserialize plmn-IdentityList
    int numPlmnIdentityInfoElements;
    bIterator = DeserializeSequenceOf(&numPlmnIdentityInfoElements, 6, 1, bIterator);
    for (int i = 0; i < numPlmnIdentityInfoElements; i++)
    {
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
        // plmn-Identity
        bIterator = DeserializePlmnIdentity(
            &systemInformationBlockType1->cellAccessRelatedInfo.plmnIdentityInfo.plmnIdentity,
            bIterator);
    }
 
    // Deserialize trackingAreaCode
    std::bitset<16> trackingAreaCode;
    bIterator = DeserializeBitstring(&trackingAreaCode, bIterator);
 
    // Deserialize cellIdentity
    std::bitset<28> cellIdentity;
    bIterator = DeserializeBitstring(&cellIdentity, bIterator);
    systemInformationBlockType1->cellAccessRelatedInfo.cellIdentity = cellIdentity.to_ulong();
 
    // Deserialize cellBarred
    bIterator = DeserializeEnum(2, &n, bIterator);
 
    // Deserialize intraFreqReselection
    bIterator = DeserializeEnum(2, &n, bIterator);
 
    // Deserialize csg-Indication
    bIterator =
        DeserializeBoolean(&systemInformationBlockType1->cellAccessRelatedInfo.csgIndication,
                           bIterator);
 
    if (cellAccessRelatedInfoOpts[0])
    {
        // Deserialize csg-Identity
        std::bitset<27> csgIdentity;
        bIterator = DeserializeBitstring(&csgIdentity, bIterator);
        systemInformationBlockType1->cellAccessRelatedInfo.csgIdentity = csgIdentity.to_ulong();
    }
 
    // Deserialize cellSelectionInfo
    std::bitset<1> qRxLevMinOffsetPresent;
    bIterator = DeserializeSequence(&qRxLevMinOffsetPresent, false, bIterator);
    bIterator = DeserializeInteger(&n, -70, -22, bIterator); // q-RxLevMin
    if (qRxLevMinOffsetPresent[0])
    {
        // Deserialize qRxLevMinOffset
        // ...
    }
 
    if (sysInfoBlkT1Opts[2])
    {
        // Deserialize p-Max
        // ...
    }
 
    // freqBandIndicator
    bIterator = DeserializeInteger(&n, 1, 64, bIterator);
 
    // schedulingInfoList
    int numSchedulingInfo;
    bIterator = DeserializeSequenceOf(&numSchedulingInfo, MAX_SI_MESSAGE, 1, bIterator);
    for (int i = 0; i < numSchedulingInfo; i++)
    {
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
        bIterator = DeserializeEnum(7, &n, bIterator); // si-Periodicity
        int numSibType;
        bIterator =
            DeserializeSequenceOf(&numSibType, MAX_SIB - 1, 0, bIterator); // sib-MappingInfo
        for (int j = 0; j < numSibType; j++)
        {
            bIterator = DeserializeEnum(16, &n, bIterator); // SIB-Type
        }
    }
 
    if (sysInfoBlkT1Opts[1])
    {
        // tdd-Config
        // ...
    }
 
    // si-WindowLength
    bIterator = DeserializeEnum(7, &n, bIterator);
 
    // systemInfoValueTag
    bIterator = DeserializeInteger(&n, 0, 31, bIterator);
 
    if (sysInfoBlkT1Opts[0])
    {
        // Deserialize nonCriticalExtension
        // ...
    }
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeSystemInformationBlockType2(
    LteRrcSap::SystemInformationBlockType2* systemInformationBlockType2,
    Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    std::bitset<2> sysInfoBlkT2Opts;
    bIterator = DeserializeSequence(&sysInfoBlkT2Opts, true, bIterator);
    if (sysInfoBlkT2Opts[1])
    {
        // Deserialize ac-BarringInfo
        // ...
    }
 
    // Deserialize radioResourceConfigCommon
    bIterator = DeserializeRadioResourceConfigCommonSib(
        &systemInformationBlockType2->radioResourceConfigCommon,
        bIterator);
 
    // Deserialize ue-TimersAndConstants
    bIterator = DeserializeSequence(&bitset0, true, bIterator);
    bIterator = DeserializeEnum(8, &n, bIterator); // t300
    bIterator = DeserializeEnum(8, &n, bIterator); // t301
    bIterator = DeserializeEnum(7, &n, bIterator); // t310
    bIterator = DeserializeEnum(8, &n, bIterator); // n310
    bIterator = DeserializeEnum(7, &n, bIterator); // t311
    bIterator = DeserializeEnum(8, &n, bIterator); // n311
 
    // Deserialize freqInfo
    std::bitset<2> freqInfoOpts;
    bIterator = DeserializeSequence(&freqInfoOpts, false, bIterator);
    if (freqInfoOpts[1])
    {
        // Deserialize ul-CarrierFreq
        bIterator = DeserializeInteger(&n, 0, MAX_EARFCN, bIterator);
        systemInformationBlockType2->freqInfo.ulCarrierFreq = n;
    }
    if (freqInfoOpts[0])
    {
        // Deserialize ul-Bandwidth
        bIterator = DeserializeEnum(6, &n, bIterator);
        systemInformationBlockType2->freqInfo.ulBandwidth = EnumToBandwidth(n);
    }
 
    // additionalSpectrumEmission
    bIterator = DeserializeInteger(&n, 1, 32, bIterator);
 
    if (sysInfoBlkT2Opts[0])
    {
        // Deserialize mbsfn-SubframeConfigList
        // ...
    }
 
    // Deserialize timeAlignmentTimerCommon
    bIterator = DeserializeEnum(8, &n, bIterator);
 
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeRadioResourceConfigCommon(
    LteRrcSap::RadioResourceConfigCommon* radioResourceConfigCommon,
    Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    std::bitset<9> rrCfgCommOptions;
    bIterator = DeserializeSequence(&rrCfgCommOptions, true, bIterator);
 
    // rach-ConfigCommon
    if (rrCfgCommOptions[8])
    {
        bIterator =
            DeserializeRachConfigCommon(&radioResourceConfigCommon->rachConfigCommon, bIterator);
    }
 
    // prach-Config
    std::bitset<1> prachConfigInfoPresent;
    bIterator = DeserializeSequence(&prachConfigInfoPresent, false, bIterator);
 
    // prach-Config -> rootSequenceIndex
    bIterator = DeserializeInteger(&n, 0, 1023, bIterator);
 
    // prach-Config -> prach-ConfigInfo
    if (prachConfigInfoPresent[0])
    {
        // ...
    }
 
    // pdsch-ConfigCommon
    if (rrCfgCommOptions[7])
    {
        // ...
    }
 
    // pusch-ConfigCommon
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // pusch-ConfigCommon -> pusch-ConfigBasic
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // pusch-ConfigCommon -> pusch-ConfigBasic -> n-SB
    bIterator = DeserializeInteger(&n, 1, 4, bIterator);
 
    // pusch-ConfigCommon -> pusch-ConfigBasic -> hoppingMode
    bIterator = DeserializeEnum(2, &n, bIterator);
 
    // pusch-ConfigCommon -> pusch-ConfigBasic -> pusch-HoppingOffset
    bIterator = DeserializeInteger(&n, 0, 98, bIterator);
 
    // pusch-ConfigCommon -> pusch-ConfigBasic -> enable64QAM
    bool enable64QAM;
    bIterator = DeserializeBoolean(&enable64QAM, bIterator);
 
    // ul-ReferenceSignalsPUSCH
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // groupHoppingEnabled
    bool dummyBool;
    bIterator = DeserializeBoolean(&dummyBool, bIterator);
 
    // groupAssignmentPUSCH
    bIterator = DeserializeInteger(&n, 0, 29, bIterator);
 
    // sequenceHoppingEnabled
    bIterator = DeserializeBoolean(&dummyBool, bIterator);
 
    // cyclicShift
    bIterator = DeserializeInteger(&n, 0, 7, bIterator);
 
    // phich-Config
    if (rrCfgCommOptions[6])
    {
        // ...
    }
 
    // pucch-ConfigCommon
    if (rrCfgCommOptions[5])
    {
        // ...
    }
 
    // soundingRS-UL-ConfigCommon
    if (rrCfgCommOptions[4])
    {
        // ...
    }
 
    // uplinkPowerControlCommon
    if (rrCfgCommOptions[3])
    {
        // ...
    }
 
    // antennaInfoCommon
    if (rrCfgCommOptions[2])
    {
        // ...
    }
 
    // p-Max
    if (rrCfgCommOptions[1])
    {
        // ...
    }
 
    // tdd-Config
    if (rrCfgCommOptions[0])
    {
        // ...
    }
 
    // ul-CyclicPrefixLength
    bIterator = DeserializeEnum(2, &n, bIterator);
 
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeRachConfigCommon(LteRrcSap::RachConfigCommon* rachConfigCommon,
                                           Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeSequence(&bitset0, true, bIterator);
 
    // preambleInfo
    std::bitset<1> preamblesGroupAConfigPresent;
    bIterator = DeserializeSequence(&preamblesGroupAConfigPresent, false, bIterator);
 
    // numberOfRA-Preambles
    bIterator = DeserializeEnum(16, &n, bIterator);
    switch (n)
    {
    case 0:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 4;
        break;
    case 1:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 8;
        break;
    case 2:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 12;
        break;
    case 3:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 16;
        break;
    case 4:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 20;
        break;
    case 5:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 24;
        break;
    case 6:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 28;
        break;
    case 7:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 32;
        break;
    case 8:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 36;
        break;
    case 9:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 40;
        break;
    case 10:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 44;
        break;
    case 11:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 48;
        break;
    case 12:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 52;
        break;
    case 13:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 56;
        break;
    case 14:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 60;
        break;
    case 15:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 64;
        break;
    default:
        rachConfigCommon->preambleInfo.numberOfRaPreambles = 4;
    }
 
    if (preamblesGroupAConfigPresent[0])
    {
        // Deserialize preamblesGroupAConfig
        // ...
    }
 
    // powerRampingParameters
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
    bIterator = DeserializeEnum(4, &n, bIterator);  // powerRampingStep
    bIterator = DeserializeEnum(16, &n, bIterator); // preambleInitialReceivedTargetPower
 
    // ra-SupervisionInfo
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
    bIterator = DeserializeEnum(11, &n, bIterator); // preambleTransMax
    switch (n)
    {
    case 0:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 3;
        break;
    case 1:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 4;
        break;
    case 2:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 5;
        break;
    case 3:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 6;
        break;
    case 4:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 7;
        break;
    case 5:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 8;
        break;
    case 6:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 10;
        break;
    case 7:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 20;
        break;
    case 8:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 50;
        break;
    case 9:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 100;
        break;
    case 10:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 200;
        break;
    default:
        rachConfigCommon->raSupervisionInfo.preambleTransMax = 0;
    }
 
    // ra-ResponseWindowSize
    bIterator = DeserializeEnum(8, &n, bIterator);
    switch (n)
    {
    case 0:
        rachConfigCommon->raSupervisionInfo.raResponseWindowSize = 2;
        break;
    case 1:
        rachConfigCommon->raSupervisionInfo.raResponseWindowSize = 3;
        break;
    case 2:
        rachConfigCommon->raSupervisionInfo.raResponseWindowSize = 4;
        break;
    case 3:
        rachConfigCommon->raSupervisionInfo.raResponseWindowSize = 5;
        break;
    case 4:
        rachConfigCommon->raSupervisionInfo.raResponseWindowSize = 6;
        break;
    case 5:
        rachConfigCommon->raSupervisionInfo.raResponseWindowSize = 7;
        break;
    case 6:
        rachConfigCommon->raSupervisionInfo.raResponseWindowSize = 8;
        break;
    case 7:
        rachConfigCommon->raSupervisionInfo.raResponseWindowSize = 10;
        break;
    default:
        rachConfigCommon->raSupervisionInfo.raResponseWindowSize = 0;
    }
 
    bIterator = DeserializeEnum(8, &n, bIterator);       // mac-ContentionResolutionTimer
    bIterator = DeserializeInteger(&n, 1, 8, bIterator); // maxHARQ-Msg3Tx
 
    // connEstFailCount
    bIterator = DeserializeEnum(8, &n, bIterator);
    switch (n)
    {
    case 1:
        rachConfigCommon->txFailParam.connEstFailCount = 1;
        break;
    case 2:
        rachConfigCommon->txFailParam.connEstFailCount = 2;
        break;
    case 3:
        rachConfigCommon->txFailParam.connEstFailCount = 3;
        break;
    case 4:
        rachConfigCommon->txFailParam.connEstFailCount = 4;
        break;
    default:
        rachConfigCommon->txFailParam.connEstFailCount = 1;
    }
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeRadioResourceConfigCommonSib(
    LteRrcSap::RadioResourceConfigCommonSib* radioResourceConfigCommonSib,
    Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeSequence(&bitset0, true, bIterator);
 
    // rach-ConfigCommon
    bIterator =
        DeserializeRachConfigCommon(&radioResourceConfigCommonSib->rachConfigCommon, bIterator);
 
    // bcch-Config
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
    bIterator = DeserializeEnum(4, &n, bIterator); // modificationPeriodCoeff
 
    // pcch-Config
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
    bIterator = DeserializeEnum(4, &n, bIterator); // defaultPagingCycle
    bIterator = DeserializeEnum(8, &n, bIterator); // nB
 
    // prach-Config
    std::bitset<1> prachConfigInfoPresent;
    bIterator = DeserializeSequence(&prachConfigInfoPresent, false, bIterator);
    // prach-Config -> rootSequenceIndex
    bIterator = DeserializeInteger(&n, 0, 1023, bIterator);
    // prach-Config -> prach-ConfigInfo
    if (prachConfigInfoPresent[0])
    {
        // ...
    }
 
    // pdsch-ConfigCommon
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
    bIterator = DeserializeInteger(&n, -60, 50, bIterator); // referenceSignalPower
    bIterator = DeserializeInteger(&n, 0, 3, bIterator);    // p-b
 
    // pusch-ConfigCommon
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // pusch-ConfigCommon -> pusch-ConfigBasic
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // pusch-ConfigCommon -> pusch-ConfigBasic -> n-SB
    bIterator = DeserializeInteger(&n, 1, 4, bIterator);
 
    // pusch-ConfigCommon -> pusch-ConfigBasic -> hoppingMode
    bIterator = DeserializeEnum(2, &n, bIterator);
 
    // pusch-ConfigCommon -> pusch-ConfigBasic -> pusch-HoppingOffset
    bIterator = DeserializeInteger(&n, 0, 98, bIterator);
 
    // pusch-ConfigCommon -> pusch-ConfigBasic -> enable64QAM
    bool dummyBoolean;
    bIterator = DeserializeBoolean(&dummyBoolean, bIterator);
 
    // ul-ReferenceSignalsPUSCH
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // groupHoppingEnabled
    bIterator = DeserializeBoolean(&dummyBoolean, bIterator);
 
    // groupAssignmentPUSCH
    bIterator = DeserializeInteger(&n, 0, 29, bIterator);
 
    // sequenceHoppingEnabled
    bIterator = DeserializeBoolean(&dummyBoolean, bIterator);
 
    // cyclicShift
    bIterator = DeserializeInteger(&n, 0, 7, bIterator);
 
    // pucch-ConfigCommon
    bIterator = DeserializeEnum(3, &n, bIterator);          // deltaPUCCH-Shift
    bIterator = DeserializeInteger(&n, 0, 98, bIterator);   // nRB-CQI
    bIterator = DeserializeInteger(&n, 0, 7, bIterator);    // nCS-AN
    bIterator = DeserializeInteger(&n, 0, 2047, bIterator); // n1PUCCH-AN
 
    // soundingRS-UL-ConfigCommon
    int choice;
    bIterator = DeserializeChoice(2, false, &choice, bIterator);
    if (choice == 0)
    {
        bIterator = DeserializeNull(bIterator); // release
    }
    if (choice == 1)
    {
        // setup
        // ...
    }
 
    // uplinkPowerControlCommon
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
    bIterator = DeserializeInteger(&n, -126, 24, bIterator);  // p0-NominalPUSCH
    bIterator = DeserializeEnum(8, &n, bIterator);            // alpha
    bIterator = DeserializeInteger(&n, -127, -96, bIterator); // p0-NominalPUCCH
    // deltaFList-PUCCH
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
    bIterator = DeserializeEnum(3, &n, bIterator);        // deltaF-PUCCH-Format1
    bIterator = DeserializeEnum(3, &n, bIterator);        // deltaF-PUCCH-Format1b
    bIterator = DeserializeEnum(4, &n, bIterator);        // deltaF-PUCCH-Format2
    bIterator = DeserializeEnum(3, &n, bIterator);        // deltaF-PUCCH-Format2a
    bIterator = DeserializeEnum(3, &n, bIterator);        // deltaF-PUCCH-Format2b
    bIterator = DeserializeInteger(&n, -1, 6, bIterator); // deltaPreambleMsg3
 
    // ul-CyclicPrefixLength
    bIterator = DeserializeEnum(2, &n, bIterator);
 
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeMeasResults(LteRrcSap::MeasResults* measResults,
                                      Buffer::Iterator bIterator)
{
    int n;
    std::bitset<0> b0;
    std::bitset<4> measResultOptionalPresent;
    //    bIterator = DeserializeSequence (&measResultNeighCellsPresent,true,bIterator);
    bIterator = DeserializeSequence(&measResultOptionalPresent, true, bIterator);
 
    // Deserialize measId
    bIterator = DeserializeInteger(&n, 1, MAX_MEAS_ID, bIterator);
    measResults->measId = n;
 
    // Deserialize measResultServCell
    bIterator = DeserializeSequence(&b0, false, bIterator);
 
    // Deserialize rsrpResult
    bIterator = DeserializeInteger(&n, 0, 97, bIterator);
    measResults->measResultPCell.rsrpResult = n;
 
    // Deserialize rsrqResult
    bIterator = DeserializeInteger(&n, 0, 34, bIterator);
    measResults->measResultPCell.rsrqResult = n;
 
    measResults->haveMeasResultNeighCells = measResultOptionalPresent[0];
    measResults->haveMeasResultServFreqList = measResultOptionalPresent[3];
    if (measResults->haveMeasResultNeighCells)
    {
        int measResultNeighCellsChoice;
 
        // Deserialize measResultNeighCells
        bIterator = DeserializeChoice(4, false, &measResultNeighCellsChoice, bIterator);
 
        if (measResultNeighCellsChoice == 0)
        {
            // Deserialize measResultListEUTRA
            int numElems;
            bIterator = DeserializeSequenceOf(&numElems, MAX_CELL_REPORT, 1, bIterator);
 
            for (int i = 0; i < numElems; i++)
            {
                LteRrcSap::MeasResultEutra measResultEutra;
 
                std::bitset<1> isCgiInfoPresent;
                bIterator = DeserializeSequence(&isCgiInfoPresent, false, bIterator);
 
                // PhysCellId
                bIterator = DeserializeInteger(&n, 0, 503, bIterator);
                measResultEutra.physCellId = n;
 
                measResultEutra.haveCgiInfo = isCgiInfoPresent[0];
                if (isCgiInfoPresent[0])
                {
                    std::bitset<1> havePlmnIdentityList;
                    bIterator = DeserializeSequence(&havePlmnIdentityList, false, bIterator);
 
                    // Deserialize cellGlobalId
                    bIterator = DeserializeSequence(&b0, false, bIterator);
 
                    // Deserialize plmn-Identity
                    bIterator =
                        DeserializePlmnIdentity(&measResultEutra.cgiInfo.plmnIdentity, bIterator);
 
                    // Deserialize CellIdentity
                    std::bitset<28> cellId;
                    bIterator = DeserializeBitstring(&cellId, bIterator);
                    measResultEutra.cgiInfo.cellIdentity = cellId.to_ulong();
 
                    // Deserialize trackingAreaCode
                    std::bitset<16> trArCo;
                    bIterator = DeserializeBitstring(&trArCo, bIterator);
                    measResultEutra.cgiInfo.trackingAreaCode = trArCo.to_ulong();
 
                    // Deserialize plmn-IdentityList
                    if (havePlmnIdentityList[0])
                    {
                        int numPlmnElems;
                        bIterator = DeserializeSequenceOf(&numPlmnElems, 5, 1, bIterator);
 
                        for (int j = 0; j < numPlmnElems; j++)
                        {
                            uint32_t plmnId;
                            bIterator = DeserializePlmnIdentity(&plmnId, bIterator);
                            measResultEutra.cgiInfo.plmnIdentityList.push_back(plmnId);
                        }
                    }
                }
 
                // Deserialize measResult
                std::bitset<2> measResultOpts;
                bIterator = DeserializeSequence(&measResultOpts, true, bIterator);
 
                measResultEutra.haveRsrpResult = measResultOpts[1];
                if (measResultOpts[1])
                {
                    // Deserialize rsrpResult
                    bIterator = DeserializeInteger(&n, 0, 97, bIterator);
                    measResultEutra.rsrpResult = n;
                }
 
                measResultEutra.haveRsrqResult = measResultOpts[0];
                if (measResultOpts[0])
                {
                    // Deserialize rsrqResult
                    bIterator = DeserializeInteger(&n, 0, 34, bIterator);
                    measResultEutra.rsrqResult = n;
                }
 
                measResults->measResultListEutra.push_back(measResultEutra);
            }
        }
 
        if (measResultNeighCellsChoice == 1)
        {
            // Deserialize measResultListUTRA
            // ...
        }
 
        if (measResultNeighCellsChoice == 2)
        {
            // Deserialize measResultListGERAN
            // ...
        }
        if (measResultNeighCellsChoice == 3)
        {
            // Deserialize measResultsCDMA2000
            // ...
        }
    }
    if (measResults->haveMeasResultServFreqList)
    {
        int numElems;
        bIterator = DeserializeSequenceOf(&numElems, MAX_SCELL_REPORT, 1, bIterator);
        for (int i = 0; i < numElems; i++)
        {
            LteRrcSap::MeasResultServFreq measResultServFreq;
 
            // Deserialize MeasResultServFreq-r10
            std::bitset<2> measResultScellPresent;
            bIterator = DeserializeSequence(&measResultScellPresent, true, bIterator);
            measResultServFreq.haveMeasResultSCell = measResultScellPresent[0];
            measResultServFreq.haveMeasResultBestNeighCell = measResultScellPresent[1];
 
            // Deserialize servFreqId-r10
            int servFreqId;
            bIterator = DeserializeInteger(&servFreqId, 0, 7, bIterator);
            measResultServFreq.servFreqId = servFreqId;
 
            if (measResultServFreq.haveMeasResultSCell)
            {
                // Deserialize rsrpResult
                bIterator = DeserializeInteger(&n, 0, 97, bIterator);
                measResultServFreq.measResultSCell.rsrpResult = n;
 
                // Deserialize rsrqResult
                bIterator = DeserializeInteger(&n, 0, 34, bIterator);
                measResultServFreq.measResultSCell.rsrqResult = n;
            }
 
            if (measResultServFreq.haveMeasResultBestNeighCell)
            {
                // Deserialize physCellId-r10
                bIterator = DeserializeInteger(&n, 0, 503, bIterator);
                measResultServFreq.measResultBestNeighCell.physCellId = n;
 
                // Deserialize rsrpResultNCell-r10
                bIterator = DeserializeInteger(&n, 0, 97, bIterator);
                measResultServFreq.measResultBestNeighCell.rsrpResult = n;
 
                // Deserialize rsrqResultNCell-r10
                bIterator = DeserializeInteger(&n, 0, 34, bIterator);
                measResultServFreq.measResultBestNeighCell.rsrqResult = n;
            }
            measResults->measResultServFreqList.push_back(measResultServFreq);
        }
    }
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializePlmnIdentity(uint32_t* plmnId, Buffer::Iterator bIterator)
{
    int n;
    std::bitset<1> isMccPresent;
    bIterator = DeserializeSequence(&isMccPresent, false, bIterator);
 
    if (isMccPresent[0])
    {
        // Deserialize mcc
        // ...
    }
 
    // Deserialize mnc
    int mncDigits;
    int mnc = 0;
    bIterator = DeserializeSequenceOf(&mncDigits, 3, 2, bIterator);
 
    for (int j = mncDigits - 1; j >= 0; j--)
    {
        bIterator = DeserializeInteger(&n, 0, 9, bIterator);
        mnc += n * pow(10, j);
    }
 
    *plmnId = mnc;
 
    // cellReservedForOperatorUse
    bIterator = DeserializeEnum(2, &n, bIterator);
    return bIterator;
}
 
Buffer::Iterator
RrcAsn1Header::DeserializeMeasConfig(LteRrcSap::MeasConfig* measConfig, Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    std::bitset<2> bitset2;
    std::bitset<11> bitset11;
    int n;
 
    // measConfig
    bIterator = DeserializeSequence(&bitset11, true, bIterator);
 
    if (bitset11[10])
    {
        // measObjectToRemoveList
        int measObjectToRemoveListElems;
        bIterator =
            DeserializeSequenceOf(&measObjectToRemoveListElems, MAX_OBJECT_ID, 1, bIterator);
 
        for (int i = 0; i < measObjectToRemoveListElems; i++)
        {
            bIterator = DeserializeInteger(&n, 1, MAX_OBJECT_ID, bIterator);
            measConfig->measObjectToRemoveList.push_back(n);
        }
    }
 
    if (bitset11[9])
    {
        // measObjectToAddModList
        int measObjectToAddModListElems;
        bIterator =
            DeserializeSequenceOf(&measObjectToAddModListElems, MAX_OBJECT_ID, 1, bIterator);
 
        for (int i = 0; i < measObjectToAddModListElems; i++)
        {
            LteRrcSap::MeasObjectToAddMod elem;
 
            bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
            bIterator = DeserializeInteger(&n, 1, MAX_OBJECT_ID, bIterator);
            elem.measObjectId = n;
 
            int measObjectChoice;
            bIterator = DeserializeChoice(4, true, &measObjectChoice, bIterator);
 
            switch (measObjectChoice)
            {
            case 1:
                // Deserialize measObjectUTRA
                // ...
 
            case 2:
                // Deserialize measObjectGERAN
                // ...
 
            case 3:
                // Deserialize measObjectCDMA2000
                // ...
                break;
 
            case 0:
            default:
                // Deserialize measObjectEUTRA
                std::bitset<5> measObjectEutraOpts;
                bIterator = DeserializeSequence(&measObjectEutraOpts, true, bIterator);
 
                // carrierFreq
                bIterator = DeserializeInteger(&n, 0, MAX_EARFCN, bIterator);
                elem.measObjectEutra.carrierFreq = n;
 
                // allowedMeasBandwidth
                bIterator = DeserializeEnum(6, &n, bIterator);
                elem.measObjectEutra.allowedMeasBandwidth = EnumToBandwidth(n);
 
                // presenceAntennaPort1
                bIterator =
                    DeserializeBoolean(&elem.measObjectEutra.presenceAntennaPort1, bIterator);
 
                // neighCellConfig
                bIterator = DeserializeBitstring(&bitset2, bIterator);
                elem.measObjectEutra.neighCellConfig = bitset2.to_ulong();
 
                // offsetFreq
                bIterator = DeserializeQoffsetRange(&elem.measObjectEutra.offsetFreq, bIterator);
 
                if (measObjectEutraOpts[4])
                {
                    // cellsToRemoveList
                    int numElems;
                    bIterator = DeserializeSequenceOf(&numElems, MAX_CELL_MEAS, 1, bIterator);
 
                    for (int i = 0; i < numElems; i++)
                    {
                        bIterator = DeserializeInteger(&n, 1, MAX_CELL_MEAS, bIterator);
                        elem.measObjectEutra.cellsToRemoveList.push_back(n);
                    }
                }
 
                if (measObjectEutraOpts[3])
                {
                    // cellsToAddModList
                    int numElems;
                    bIterator = DeserializeSequenceOf(&numElems, MAX_CELL_MEAS, 1, bIterator);
 
                    for (int i = 0; i < numElems; i++)
                    {
                        LteRrcSap::CellsToAddMod cellsToAddMod;
 
                        bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
                        // cellIndex
                        bIterator = DeserializeInteger(&n, 1, MAX_CELL_MEAS, bIterator);
                        cellsToAddMod.cellIndex = n;
 
                        // PhysCellId
                        bIterator = DeserializeInteger(&n, 0, 503, bIterator);
                        cellsToAddMod.physCellId = n;
 
                        // cellIndividualOffset
                        bIterator =
                            DeserializeQoffsetRange(&cellsToAddMod.cellIndividualOffset, bIterator);
 
                        elem.measObjectEutra.cellsToAddModList.push_back(cellsToAddMod);
                    }
                }
 
                if (measObjectEutraOpts[2])
                {
                    // blackCellsToRemoveList
                    int numElems;
                    bIterator = DeserializeSequenceOf(&numElems, MAX_CELL_MEAS, 1, bIterator);
 
                    for (int i = 0; i < numElems; i++)
                    {
                        bIterator = DeserializeInteger(&n, 1, MAX_CELL_MEAS, bIterator);
                        elem.measObjectEutra.blackCellsToRemoveList.push_back(n);
                    }
                }
 
                if (measObjectEutraOpts[1])
                {
                    // blackCellsToAddModList
                    int numElems;
                    bIterator = DeserializeSequenceOf(&numElems, MAX_CELL_MEAS, 1, bIterator);
 
                    for (int i = 0; i < numElems; i++)
                    {
                        LteRrcSap::BlackCellsToAddMod blackCellsToAddMod;
                        bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
                        bIterator = DeserializeInteger(&n, 1, MAX_CELL_MEAS, bIterator);
                        blackCellsToAddMod.cellIndex = n;
 
                        // PhysCellIdRange
                        std::bitset<1> isRangePresent;
                        bIterator = DeserializeSequence(&isRangePresent, false, bIterator);
 
                        // start
                        bIterator = DeserializeInteger(&n, 0, 503, bIterator);
                        blackCellsToAddMod.physCellIdRange.start = n;
 
                        blackCellsToAddMod.physCellIdRange.haveRange = isRangePresent[0];
                        // initialize range to silence compiler warning
                        blackCellsToAddMod.physCellIdRange.range = 0;
                        if (blackCellsToAddMod.physCellIdRange.haveRange)
                        {
                            // range
                            bIterator = DeserializeEnum(16, &n, bIterator);
                            switch (n)
                            {
                            case 0:
                                blackCellsToAddMod.physCellIdRange.range = 4;
                                break;
                            case 1:
                                blackCellsToAddMod.physCellIdRange.range = 8;
                                break;
                            case 2:
                                blackCellsToAddMod.physCellIdRange.range = 12;
                                break;
                            case 3:
                                blackCellsToAddMod.physCellIdRange.range = 16;
                                break;
                            case 4:
                                blackCellsToAddMod.physCellIdRange.range = 24;
                                break;
                            case 5:
                                blackCellsToAddMod.physCellIdRange.range = 32;
                                break;
                            case 6:
                                blackCellsToAddMod.physCellIdRange.range = 48;
                                break;
                            case 7:
                                blackCellsToAddMod.physCellIdRange.range = 64;
                                break;
                            case 8:
                                blackCellsToAddMod.physCellIdRange.range = 84;
                                break;
                            case 9:
                                blackCellsToAddMod.physCellIdRange.range = 96;
                                break;
                            case 10:
                                blackCellsToAddMod.physCellIdRange.range = 128;
                                break;
                            case 11:
                                blackCellsToAddMod.physCellIdRange.range = 168;
                                break;
                            case 12:
                                blackCellsToAddMod.physCellIdRange.range = 252;
                                break;
                            case 13:
                                blackCellsToAddMod.physCellIdRange.range = 504;
                                break;
                            default:
                                blackCellsToAddMod.physCellIdRange.range = 0;
                            }
                        }
 
                        elem.measObjectEutra.blackCellsToAddModList.push_back(blackCellsToAddMod);
                    }
                }
 
                elem.measObjectEutra.haveCellForWhichToReportCGI = measObjectEutraOpts[0];
                if (measObjectEutraOpts[0])
                {
                    // cellForWhichToReportCGI
                    bIterator = DeserializeInteger(&n, 0, 503, bIterator);
                    elem.measObjectEutra.cellForWhichToReportCGI = n;
                }
            }
            measConfig->measObjectToAddModList.push_back(elem);
        }
    }
 
    if (bitset11[8])
    {
        // reportConfigToRemoveList
        int reportConfigToRemoveListElems;
        bIterator = DeserializeSequenceOf(&reportConfigToRemoveListElems,
                                          MAX_REPORT_CONFIG_ID,
                                          1,
                                          bIterator);
 
        for (int i = 0; i < reportConfigToRemoveListElems; i++)
        {
            bIterator = DeserializeInteger(&n, 1, MAX_REPORT_CONFIG_ID, bIterator);
            measConfig->reportConfigToRemoveList.push_back(n);
        }
    }
 
    if (bitset11[7])
    {
        // reportConfigToAddModList
        int reportConfigToAddModListElems;
        bIterator = DeserializeSequenceOf(&reportConfigToAddModListElems,
                                          MAX_REPORT_CONFIG_ID,
                                          1,
                                          bIterator);
 
        for (int i = 0; i < reportConfigToAddModListElems; i++)
        {
            LteRrcSap::ReportConfigToAddMod elem;
 
            bIterator = DeserializeSequence(&bitset0, false, bIterator);
            bIterator = DeserializeInteger(&n, 1, MAX_REPORT_CONFIG_ID, bIterator);
            elem.reportConfigId = n;
 
            // Deserialize reportConfig
            int reportConfigChoice;
            bIterator = DeserializeChoice(2, false, &reportConfigChoice, bIterator);
 
            if (reportConfigChoice == 0)
            {
                // reportConfigEUTRA
                bIterator = DeserializeSequence(&bitset0, true, bIterator);
 
                // triggerType
                int triggerTypeChoice;
                bIterator = DeserializeChoice(2, false, &triggerTypeChoice, bIterator);
 
                if (triggerTypeChoice == 0)
                {
                    // event
                    elem.reportConfigEutra.triggerType = LteRrcSap::ReportConfigEutra::EVENT;
                    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
                    // eventId
                    int eventIdChoice;
                    bIterator = DeserializeChoice(5, true, &eventIdChoice, bIterator);
 
                    switch (eventIdChoice)
                    {
                    case 0:
                        elem.reportConfigEutra.eventId = LteRrcSap::ReportConfigEutra::EVENT_A1;
                        bIterator = DeserializeSequence(&bitset0, false, bIterator);
                        bIterator = DeserializeThresholdEutra(&elem.reportConfigEutra.threshold1,
                                                              bIterator);
                        break;
 
                    case 1:
                        elem.reportConfigEutra.eventId = LteRrcSap::ReportConfigEutra::EVENT_A2;
                        bIterator = DeserializeSequence(&bitset0, false, bIterator);
                        bIterator = DeserializeThresholdEutra(&elem.reportConfigEutra.threshold1,
                                                              bIterator);
                        break;
 
                    case 2:
                        elem.reportConfigEutra.eventId = LteRrcSap::ReportConfigEutra::EVENT_A3;
                        bIterator = DeserializeSequence(&bitset0, false, bIterator);
                        bIterator = DeserializeInteger(&n, -30, 30, bIterator);
                        elem.reportConfigEutra.a3Offset = n;
                        bIterator =
                            DeserializeBoolean(&elem.reportConfigEutra.reportOnLeave, bIterator);
                        break;
 
                    case 3:
                        elem.reportConfigEutra.eventId = LteRrcSap::ReportConfigEutra::EVENT_A4;
                        bIterator = DeserializeSequence(&bitset0, false, bIterator);
                        bIterator = DeserializeThresholdEutra(&elem.reportConfigEutra.threshold1,
                                                              bIterator);
                        break;
 
                    case 4:
                    default:
                        elem.reportConfigEutra.eventId = LteRrcSap::ReportConfigEutra::EVENT_A5;
                        bIterator = DeserializeSequence(&bitset0, false, bIterator);
                        bIterator = DeserializeThresholdEutra(&elem.reportConfigEutra.threshold1,
                                                              bIterator);
                        bIterator = DeserializeThresholdEutra(&elem.reportConfigEutra.threshold2,
                                                              bIterator);
                    }
 
                    bIterator = DeserializeInteger(&n, 0, 30, bIterator);
                    elem.reportConfigEutra.hysteresis = n;
 
                    bIterator = DeserializeEnum(16, &n, bIterator);
                    switch (n)
                    {
                    case 0:
                        elem.reportConfigEutra.timeToTrigger = 0;
                        break;
                    case 1:
                        elem.reportConfigEutra.timeToTrigger = 40;
                        break;
                    case 2:
                        elem.reportConfigEutra.timeToTrigger = 64;
                        break;
                    case 3:
                        elem.reportConfigEutra.timeToTrigger = 80;
                        break;
                    case 4:
                        elem.reportConfigEutra.timeToTrigger = 100;
                        break;
                    case 5:
                        elem.reportConfigEutra.timeToTrigger = 128;
                        break;
                    case 6:
                        elem.reportConfigEutra.timeToTrigger = 160;
                        break;
                    case 7:
                        elem.reportConfigEutra.timeToTrigger = 256;
                        break;
                    case 8:
                        elem.reportConfigEutra.timeToTrigger = 320;
                        break;
                    case 9:
                        elem.reportConfigEutra.timeToTrigger = 480;
                        break;
                    case 10:
                        elem.reportConfigEutra.timeToTrigger = 512;
                        break;
                    case 11:
                        elem.reportConfigEutra.timeToTrigger = 640;
                        break;
                    case 12:
                        elem.reportConfigEutra.timeToTrigger = 1024;
                        break;
                    case 13:
                        elem.reportConfigEutra.timeToTrigger = 1280;
                        break;
                    case 14:
                        elem.reportConfigEutra.timeToTrigger = 2560;
                        break;
                    case 15:
                    default:
                        elem.reportConfigEutra.timeToTrigger = 5120;
                        break;
                    }
                }
 
                if (triggerTypeChoice == 1)
                {
                    // periodical
                    elem.reportConfigEutra.triggerType = LteRrcSap::ReportConfigEutra::PERIODICAL;
 
                    bIterator = DeserializeSequence(&bitset0, false, bIterator);
                    bIterator = DeserializeEnum(2, &n, bIterator);
                    if (n == 0)
                    {
                        elem.reportConfigEutra.purpose =
                            LteRrcSap::ReportConfigEutra::REPORT_STRONGEST_CELLS;
                    }
                    else
                    {
                        elem.reportConfigEutra.purpose = LteRrcSap::ReportConfigEutra::REPORT_CGI;
                    }
                }
 
                // triggerQuantity
                bIterator = DeserializeEnum(2, &n, bIterator);
                if (n == 0)
                {
                    elem.reportConfigEutra.triggerQuantity = LteRrcSap::ReportConfigEutra::RSRP;
                }
                else
                {
                    elem.reportConfigEutra.triggerQuantity = LteRrcSap::ReportConfigEutra::RSRQ;
                }
 
                // reportQuantity
                bIterator = DeserializeEnum(2, &n, bIterator);
                if (n == 0)
                {
                    elem.reportConfigEutra.reportQuantity =
                        LteRrcSap::ReportConfigEutra::SAME_AS_TRIGGER_QUANTITY;
                }
                else
                {
                    elem.reportConfigEutra.reportQuantity = LteRrcSap::ReportConfigEutra::BOTH;
                }
 
                // maxReportCells
                bIterator = DeserializeInteger(&n, 1, MAX_CELL_REPORT, bIterator);
                elem.reportConfigEutra.maxReportCells = n;
 
                // reportInterval
                bIterator = DeserializeEnum(16, &n, bIterator);
                switch (n)
                {
                case 0:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MS120;
                    break;
                case 1:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MS240;
                    break;
                case 2:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MS480;
                    break;
                case 3:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MS640;
                    break;
                case 4:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MS1024;
                    break;
                case 5:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MS2048;
                    break;
                case 6:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MS5120;
                    break;
                case 7:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MS10240;
                    break;
                case 8:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MIN1;
                    break;
                case 9:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MIN6;
                    break;
                case 10:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MIN12;
                    break;
                case 11:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MIN30;
                    break;
                case 12:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::MIN60;
                    break;
                case 13:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::SPARE3;
                    break;
                case 14:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::SPARE2;
                    break;
                case 15:
                default:
                    elem.reportConfigEutra.reportInterval = LteRrcSap::ReportConfigEutra::SPARE1;
                }
 
                // reportAmount
                bIterator = DeserializeEnum(8, &n, bIterator);
                switch (n)
                {
                case 0:
                    elem.reportConfigEutra.reportAmount = 1;
                    break;
                case 1:
                    elem.reportConfigEutra.reportAmount = 2;
                    break;
                case 2:
                    elem.reportConfigEutra.reportAmount = 4;
                    break;
                case 3:
                    elem.reportConfigEutra.reportAmount = 8;
                    break;
                case 4:
                    elem.reportConfigEutra.reportAmount = 16;
                    break;
                case 5:
                    elem.reportConfigEutra.reportAmount = 32;
                    break;
                case 6:
                    elem.reportConfigEutra.reportAmount = 64;
                    break;
                default:
                    elem.reportConfigEutra.reportAmount = 0;
                }
            }
 
            if (reportConfigChoice == 1)
            {
                // ReportConfigInterRAT
                // ...
            }
 
            measConfig->reportConfigToAddModList.push_back(elem);
        }
    }
 
    if (bitset11[6])
    {
        // measIdToRemoveList
        int measIdToRemoveListElems;
        bIterator = DeserializeSequenceOf(&measIdToRemoveListElems, MAX_MEAS_ID, 1, bIterator);
 
        for (int i = 0; i < measIdToRemoveListElems; i++)
        {
            bIterator = DeserializeInteger(&n, 1, MAX_MEAS_ID, bIterator);
            measConfig->measIdToRemoveList.push_back(n);
        }
    }
 
    if (bitset11[5])
    {
        // measIdToAddModList
        int measIdToAddModListElems;
        bIterator = DeserializeSequenceOf(&measIdToAddModListElems, MAX_MEAS_ID, 1, bIterator);
 
        for (int i = 0; i < measIdToAddModListElems; i++)
        {
            LteRrcSap::MeasIdToAddMod elem;
 
            bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
            bIterator = DeserializeInteger(&n, 1, MAX_MEAS_ID, bIterator);
            elem.measId = n;
 
            bIterator = DeserializeInteger(&n, 1, MAX_OBJECT_ID, bIterator);
            elem.measObjectId = n;
 
            bIterator = DeserializeInteger(&n, 1, MAX_REPORT_CONFIG_ID, bIterator);
            elem.reportConfigId = n;
 
            measConfig->measIdToAddModList.push_back(elem);
        }
    }
 
    measConfig->haveQuantityConfig = bitset11[4];
    if (measConfig->haveQuantityConfig)
    {
        // quantityConfig
        std::bitset<4> quantityConfigOpts;
        bIterator = DeserializeSequence(&quantityConfigOpts, true, bIterator);
 
        if (quantityConfigOpts[3])
        {
            // quantityConfigEUTRA
            bIterator = DeserializeSequence(&bitset0, false, bIterator);
            bIterator = DeserializeEnum(16, &n, bIterator);
            switch (n)
            {
            case 0:
                measConfig->quantityConfig.filterCoefficientRSRP = 0;
                break;
            case 1:
                measConfig->quantityConfig.filterCoefficientRSRP = 1;
                break;
            case 2:
                measConfig->quantityConfig.filterCoefficientRSRP = 2;
                break;
            case 3:
                measConfig->quantityConfig.filterCoefficientRSRP = 3;
                break;
            case 4:
                measConfig->quantityConfig.filterCoefficientRSRP = 4;
                break;
            case 5:
                measConfig->quantityConfig.filterCoefficientRSRP = 5;
                break;
            case 6:
                measConfig->quantityConfig.filterCoefficientRSRP = 6;
                break;
            case 7:
                measConfig->quantityConfig.filterCoefficientRSRP = 7;
                break;
            case 8:
                measConfig->quantityConfig.filterCoefficientRSRP = 8;
                break;
            case 9:
                measConfig->quantityConfig.filterCoefficientRSRP = 9;
                break;
            case 10:
                measConfig->quantityConfig.filterCoefficientRSRP = 11;
                break;
            case 11:
                measConfig->quantityConfig.filterCoefficientRSRP = 13;
                break;
            case 12:
                measConfig->quantityConfig.filterCoefficientRSRP = 15;
                break;
            case 13:
                measConfig->quantityConfig.filterCoefficientRSRP = 17;
                break;
            case 14:
                measConfig->quantityConfig.filterCoefficientRSRP = 19;
                break;
            case 15:
                measConfig->quantityConfig.filterCoefficientRSRP = 0;
                break;
            default:
                measConfig->quantityConfig.filterCoefficientRSRP = 4;
            }
            bIterator = DeserializeEnum(16, &n, bIterator);
            switch (n)
            {
            case 0:
                measConfig->quantityConfig.filterCoefficientRSRQ = 0;
                break;
            case 1:
                measConfig->quantityConfig.filterCoefficientRSRQ = 1;
                break;
            case 2:
                measConfig->quantityConfig.filterCoefficientRSRQ = 2;
                break;
            case 3:
                measConfig->quantityConfig.filterCoefficientRSRQ = 3;
                break;
            case 4:
                measConfig->quantityConfig.filterCoefficientRSRQ = 4;
                break;
            case 5:
                measConfig->quantityConfig.filterCoefficientRSRQ = 5;
                break;
            case 6:
                measConfig->quantityConfig.filterCoefficientRSRQ = 6;
                break;
            case 7:
                measConfig->quantityConfig.filterCoefficientRSRQ = 7;
                break;
            case 8:
                measConfig->quantityConfig.filterCoefficientRSRQ = 8;
                break;
            case 9:
                measConfig->quantityConfig.filterCoefficientRSRQ = 9;
                break;
            case 10:
                measConfig->quantityConfig.filterCoefficientRSRQ = 11;
                break;
            case 11:
                measConfig->quantityConfig.filterCoefficientRSRQ = 13;
                break;
            case 12:
                measConfig->quantityConfig.filterCoefficientRSRQ = 15;
                break;
            case 13:
                measConfig->quantityConfig.filterCoefficientRSRQ = 17;
                break;
            case 14:
                measConfig->quantityConfig.filterCoefficientRSRQ = 19;
                break;
            case 15:
                measConfig->quantityConfig.filterCoefficientRSRQ = 0;
                break;
            default:
                measConfig->quantityConfig.filterCoefficientRSRQ = 4;
            }
        }
        if (quantityConfigOpts[2])
        {
            // quantityConfigUTRA
            // ...
        }
        if (quantityConfigOpts[1])
        {
            // quantityConfigGERAN
            // ...
        }
        if (quantityConfigOpts[0])
        {
            // quantityConfigCDMA2000
            // ...
        }
    }
 
    measConfig->haveMeasGapConfig = bitset11[3];
    if (measConfig->haveMeasGapConfig)
    {
        // measGapConfig
        int measGapConfigChoice;
        bIterator = DeserializeChoice(2, false, &measGapConfigChoice, bIterator);
        switch (measGapConfigChoice)
        {
        case 0:
            measConfig->measGapConfig.type = LteRrcSap::MeasGapConfig::RESET;
            bIterator = DeserializeNull(bIterator);
            break;
        case 1:
        default:
            measConfig->measGapConfig.type = LteRrcSap::MeasGapConfig::SETUP;
            bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
            int gapOffsetChoice;
            bIterator = DeserializeChoice(2, true, &gapOffsetChoice, bIterator);
            switch (gapOffsetChoice)
            {
            case 0:
                measConfig->measGapConfig.gapOffsetChoice = LteRrcSap::MeasGapConfig::GP0;
                bIterator = DeserializeInteger(&n, 0, 39, bIterator);
                measConfig->measGapConfig.gapOffsetValue = n;
                break;
            case 1:
            default:
                measConfig->measGapConfig.gapOffsetChoice = LteRrcSap::MeasGapConfig::GP1;
                bIterator = DeserializeInteger(&n, 0, 79, bIterator);
                measConfig->measGapConfig.gapOffsetValue = n;
            }
        }
    }
 
    measConfig->haveSmeasure = bitset11[2];
    if (measConfig->haveSmeasure)
    {
        // s-Measure
        bIterator = DeserializeInteger(&n, 0, 97, bIterator);
        measConfig->sMeasure = n;
    }
 
    if (bitset11[1])
    {
        // preRegistrationInfoHRPD
        // ...
    }
 
    measConfig->haveSpeedStatePars = bitset11[0];
    if (measConfig->haveSpeedStatePars)
    {
        // speedStatePars
        int speedStateParsChoice;
        bIterator = DeserializeChoice(2, false, &speedStateParsChoice, bIterator);
        switch (speedStateParsChoice)
        {
        case 0:
            measConfig->speedStatePars.type = LteRrcSap::SpeedStatePars::RESET;
            bIterator = DeserializeNull(bIterator);
            break;
        case 1:
        default:
            measConfig->speedStatePars.type = LteRrcSap::SpeedStatePars::SETUP;
            bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
            // Deserialize mobilityStateParameters
            // Deserialize t-Evaluation
            bIterator = DeserializeEnum(8, &n, bIterator);
            switch (n)
            {
            case 0:
                measConfig->speedStatePars.mobilityStateParameters.tEvaluation = 30;
                break;
            case 1:
                measConfig->speedStatePars.mobilityStateParameters.tEvaluation = 60;
                break;
            case 2:
                measConfig->speedStatePars.mobilityStateParameters.tEvaluation = 120;
                break;
            case 3:
                measConfig->speedStatePars.mobilityStateParameters.tEvaluation = 180;
                break;
            case 4:
                measConfig->speedStatePars.mobilityStateParameters.tEvaluation = 240;
                break;
            default:
                measConfig->speedStatePars.mobilityStateParameters.tEvaluation = 0;
            }
            // Deserialize t-HystNormal
            bIterator = DeserializeEnum(8, &n, bIterator);
            switch (n)
            {
            case 0:
                measConfig->speedStatePars.mobilityStateParameters.tHystNormal = 30;
                break;
            case 1:
                measConfig->speedStatePars.mobilityStateParameters.tHystNormal = 60;
                break;
            case 2:
                measConfig->speedStatePars.mobilityStateParameters.tHystNormal = 120;
                break;
            case 3:
                measConfig->speedStatePars.mobilityStateParameters.tHystNormal = 180;
                break;
            case 4:
                measConfig->speedStatePars.mobilityStateParameters.tHystNormal = 240;
                break;
            default:
                measConfig->speedStatePars.mobilityStateParameters.tHystNormal = 0;
            }
 
            bIterator = DeserializeInteger(&n, 1, 16, bIterator);
            measConfig->speedStatePars.mobilityStateParameters.nCellChangeMedium = n;
 
            bIterator = DeserializeInteger(&n, 1, 16, bIterator);
            measConfig->speedStatePars.mobilityStateParameters.nCellChangeHigh = n;
 
            // Deserialize timeToTriggerSf
            bIterator = DeserializeEnum(4, &n, bIterator);
            measConfig->speedStatePars.timeToTriggerSf.sfMedium = (n + 1) * 25;
            bIterator = DeserializeEnum(4, &n, bIterator);
            measConfig->speedStatePars.timeToTriggerSf.sfHigh = (n + 1) * 25;
        }
    }
    return bIterator;
}
 
//////////////////// RrcConnectionRequest class ////////////////////////
 
// Constructor
RrcConnectionRequestHeader::RrcConnectionRequestHeader()
    : RrcUlCcchMessage()
{
    m_mmec = std::bitset<8>(0UL);
    m_mTmsi = std::bitset<32>(0UL);
    m_establishmentCause = MO_SIGNALLING;
    m_spare = std::bitset<1>(0UL);
}
 
// Destructor
RrcConnectionRequestHeader::~RrcConnectionRequestHeader()
{
}
 
TypeId
RrcConnectionRequestHeader::GetTypeId()
{
    static TypeId tid =
        TypeId("ns3::RrcConnectionRequestHeader").SetParent<Header>().SetGroupName("Lte");
    return tid;
}
 
void
RrcConnectionRequestHeader::Print(std::ostream& os) const
{
    os << "MMEC:" << m_mmec << std::endl;
    os << "MTMSI:" << m_mTmsi << std::endl;
    os << "EstablishmentCause:" << m_establishmentCause << std::endl;
    os << "Spare: " << m_spare << std::endl;
}
 
void
RrcConnectionRequestHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    SerializeUlCcchMessage(1);
 
    // Serialize RRCConnectionRequest sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize criticalExtensions choice:
    // 2 options, selected: 0 (option: rrcConnectionRequest-r8)
    SerializeChoice(2, 0, false);
 
    // Serialize RRCConnectionRequest-r8-IEs sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize InitialUE-Identity choice:
    // 2 options, selected: 0 (option: s-TMSI)
    SerializeChoice(2, 0, false);
 
    // Serialize S-TMSI sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize mmec : MMEC ::= BIT STRING (SIZE (8))
    SerializeBitstring(m_mmec);
 
    // Serialize m-TMSI ::= BIT STRING (SIZE (32))
    SerializeBitstring(m_mTmsi);
 
    // Serialize establishmentCause : EstablishmentCause ::= ENUMERATED
    SerializeEnum(8, m_establishmentCause);
 
    // Serialize spare : BIT STRING (SIZE (1))
    SerializeBitstring(std::bitset<1>());
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
RrcConnectionRequestHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<1> dummy;
    std::bitset<0> optionalOrDefaultMask;
    int selectedOption;
 
    bIterator = DeserializeUlCcchMessage(bIterator);
 
    // Deserialize RCConnectionRequest sequence
    bIterator = DeserializeSequence(&optionalOrDefaultMask, false, bIterator);
 
    // Deserialize criticalExtensions choice:
    bIterator = DeserializeChoice(2, false, &selectedOption, bIterator);
 
    // Deserialize RRCConnectionRequest-r8-IEs sequence
    bIterator = DeserializeSequence(&optionalOrDefaultMask, false, bIterator);
 
    // Deserialize InitialUE-Identity choice
    bIterator = DeserializeChoice(2, false, &selectedOption, bIterator);
 
    // Deserialize S-TMSI sequence
    bIterator = DeserializeSequence(&optionalOrDefaultMask, false, bIterator);
 
    // Deserialize mmec
    bIterator = DeserializeBitstring(&m_mmec, bIterator);
 
    // Deserialize m-TMSI
    bIterator = DeserializeBitstring(&m_mTmsi, bIterator);
 
    // Deserialize establishmentCause
    bIterator = DeserializeEnum(8, &selectedOption, bIterator);
 
    // Deserialize spare
    bIterator = DeserializeBitstring(&dummy, bIterator);
 
    return GetSerializedSize();
}
 
void
RrcConnectionRequestHeader::SetMessage(LteRrcSap::RrcConnectionRequest msg)
{
    m_mTmsi = std::bitset<32>((uint32_t)msg.ueIdentity);
    m_mmec = std::bitset<8>((uint32_t)(msg.ueIdentity >> 32));
    m_isDataSerialized = false;
}
 
LteRrcSap::RrcConnectionRequest
RrcConnectionRequestHeader::GetMessage() const
{
    LteRrcSap::RrcConnectionRequest msg;
    msg.ueIdentity = (((uint64_t)m_mmec.to_ulong()) << 32) | (m_mTmsi.to_ulong());
 
    return msg;
}
 
std::bitset<8>
RrcConnectionRequestHeader::GetMmec() const
{
    return m_mmec;
}
 
std::bitset<32>
RrcConnectionRequestHeader::GetMtmsi() const
{
    return m_mTmsi;
}
 
//////////////////// RrcConnectionSetup class ////////////////////////
RrcConnectionSetupHeader::RrcConnectionSetupHeader()
{
}
 
RrcConnectionSetupHeader::~RrcConnectionSetupHeader()
{
}
 
void
RrcConnectionSetupHeader::Print(std::ostream& os) const
{
    os << "rrcTransactionIdentifier: " << (int)m_rrcTransactionIdentifier << std::endl;
    os << "radioResourceConfigDedicated:" << std::endl;
    RrcAsn1Header::Print(os, m_radioResourceConfigDedicated);
}
 
void
RrcConnectionSetupHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    SerializeDlCcchMessage(3);
 
    SerializeInteger(15, 0, 15);
 
    // Serialize RRCConnectionSetup sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize rrc-TransactionIdentifier ::=INTEGER (0..3)
    SerializeInteger(m_rrcTransactionIdentifier, 0, 3);
 
    // Serialize criticalExtensions choice:
    // 2 options, selected: 0 (option: c1)
    SerializeChoice(2, 0, false);
 
    // Serialize c1 choice:
    // 8 options, selected: 0 (option: rrcConnectionSetup-r8)
    SerializeChoice(8, 0, false);
 
    // Serialize rrcConnectionSetup-r8 sequence
    // 1 optional fields (not present). Extension marker not present.
    SerializeSequence(std::bitset<1>(0), false);
 
    // Serialize RadioResourceConfigDedicated sequence
    SerializeRadioResourceConfigDedicated(m_radioResourceConfigDedicated);
 
    // Serialize nonCriticalExtension sequence
    // 2 optional fields, none present. No extension marker.
    SerializeSequence(std::bitset<2>(0), false);
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
RrcConnectionSetupHeader::Deserialize(Buffer::Iterator bIterator)
{
    int n;
 
    std::bitset<0> bitset0;
    std::bitset<1> bitset1;
    std::bitset<2> bitset2;
 
    bIterator = DeserializeDlCcchMessage(bIterator);
 
    bIterator = DeserializeInteger(&n, 0, 15, bIterator);
 
    // Deserialize RRCConnectionSetup sequence
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // Deserialize rrc-TransactionIdentifier ::=INTEGER (0..3)
    bIterator = DeserializeInteger(&n, 0, 3, bIterator);
    m_rrcTransactionIdentifier = n;
 
    // Deserialize criticalExtensions choice
    int criticalExtensionChoice;
    bIterator = DeserializeChoice(2, false, &criticalExtensionChoice, bIterator);
    if (criticalExtensionChoice == 1)
    {
        // Deserialize criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (criticalExtensionChoice == 0)
    {
        // Deserialize c1
        int c1;
        bIterator = DeserializeChoice(8, false, &c1, bIterator);
 
        if (c1 > 0)
        {
            // Deserialize spareX , X:=7..1
            bIterator = DeserializeNull(bIterator);
        }
        else if (c1 == 0)
        {
            // Deserialize rrcConnectionSetup-r8
            // 1 optional fields, no extension marker.
            bIterator = DeserializeSequence(&bitset1, false, bIterator);
 
            // Deserialize radioResourceConfigDedicated
            bIterator =
                DeserializeRadioResourceConfigDedicated(&m_radioResourceConfigDedicated, bIterator);
 
            if (bitset1[0])
            {
                // Deserialize nonCriticalExtension
                // 2 optional fields, no extension marker.
                bIterator = DeserializeSequence(&bitset2, false, bIterator);
 
                // Deserialization of lateR8NonCriticalExtension and nonCriticalExtension
                // ...
            }
        }
    }
    return GetSerializedSize();
}
 
void
RrcConnectionSetupHeader::SetMessage(LteRrcSap::RrcConnectionSetup msg)
{
    m_rrcTransactionIdentifier = msg.rrcTransactionIdentifier;
    m_radioResourceConfigDedicated = msg.radioResourceConfigDedicated;
    m_isDataSerialized = false;
}
 
LteRrcSap::RrcConnectionSetup
RrcConnectionSetupHeader::GetMessage() const
{
    LteRrcSap::RrcConnectionSetup msg;
    msg.rrcTransactionIdentifier = m_rrcTransactionIdentifier;
    msg.radioResourceConfigDedicated = m_radioResourceConfigDedicated;
    return msg;
}
 
uint8_t
RrcConnectionSetupHeader::GetRrcTransactionIdentifier() const
{
    return m_rrcTransactionIdentifier;
}
 
bool
RrcConnectionSetupHeader::HavePhysicalConfigDedicated() const
{
    return m_radioResourceConfigDedicated.havePhysicalConfigDedicated;
}
 
std::list<LteRrcSap::SrbToAddMod>
RrcConnectionSetupHeader::GetSrbToAddModList() const
{
    return m_radioResourceConfigDedicated.srbToAddModList;
}
 
std::list<LteRrcSap::DrbToAddMod>
RrcConnectionSetupHeader::GetDrbToAddModList() const
{
    return m_radioResourceConfigDedicated.drbToAddModList;
}
 
std::list<uint8_t>
RrcConnectionSetupHeader::GetDrbToReleaseList() const
{
    return m_radioResourceConfigDedicated.drbToReleaseList;
}
 
LteRrcSap::PhysicalConfigDedicated
RrcConnectionSetupHeader::GetPhysicalConfigDedicated() const
{
    return m_radioResourceConfigDedicated.physicalConfigDedicated;
}
 
LteRrcSap::RadioResourceConfigDedicated
RrcConnectionSetupHeader::GetRadioResourceConfigDedicated() const
{
    return m_radioResourceConfigDedicated;
}
 
//////////////////// RrcConnectionSetupCompleteHeader class ////////////////////////
 
RrcConnectionSetupCompleteHeader::RrcConnectionSetupCompleteHeader()
{
}
 
RrcConnectionSetupCompleteHeader::~RrcConnectionSetupCompleteHeader()
{
}
 
void
RrcConnectionSetupCompleteHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    // Serialize DCCH message
    SerializeUlDcchMessage(4);
 
    // Serialize RRCConnectionSetupComplete sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize rrc-TransactionIdentifier
    SerializeInteger(m_rrcTransactionIdentifier, 0, 3);
 
    // Serialize criticalExtensions choice
    // 2 options, selected 0 (c1)
    SerializeChoice(2, 0, false);
 
    // Choose spare3 NULL
    SerializeChoice(4, 1, false);
 
    // Serialize spare3 NULL
    SerializeNull();
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
RrcConnectionSetupCompleteHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
 
    bIterator = DeserializeUlDcchMessage(bIterator);
 
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    int n;
    bIterator = DeserializeInteger(&n, 0, 3, bIterator);
    m_rrcTransactionIdentifier = n;
 
    bIterator = DeserializeChoice(2, false, &n, bIterator);
 
    if (n == 1)
    {
        // Deserialize criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (n == 0)
    {
        // Deserialize c1
        int c1Chosen;
        bIterator = DeserializeChoice(4, false, &c1Chosen, bIterator);
 
        if (c1Chosen == 0)
        {
            // Deserialize rrcConnectionSetupComplete-r8
            // ...
        }
        else
        {
            bIterator = DeserializeNull(bIterator);
        }
    }
 
    return GetSerializedSize();
}
 
void
RrcConnectionSetupCompleteHeader::Print(std::ostream& os) const
{
    os << "rrcTransactionIdentifier: " << (int)m_rrcTransactionIdentifier << std::endl;
}
 
void
RrcConnectionSetupCompleteHeader::SetMessage(LteRrcSap::RrcConnectionSetupCompleted msg)
{
    m_rrcTransactionIdentifier = msg.rrcTransactionIdentifier;
    m_isDataSerialized = false;
}
 
uint8_t
RrcConnectionSetupCompleteHeader::GetRrcTransactionIdentifier() const
{
    return m_rrcTransactionIdentifier;
}
 
LteRrcSap::RrcConnectionSetupCompleted
RrcConnectionSetupCompleteHeader::GetMessage() const
{
    LteRrcSap::RrcConnectionSetupCompleted msg;
    msg.rrcTransactionIdentifier = m_rrcTransactionIdentifier;
    return msg;
}
 
//////////////////// RrcConnectionReconfigurationCompleteHeader class ////////////////////////
 
RrcConnectionReconfigurationCompleteHeader::RrcConnectionReconfigurationCompleteHeader()
{
}
 
RrcConnectionReconfigurationCompleteHeader::~RrcConnectionReconfigurationCompleteHeader()
{
}
 
void
RrcConnectionReconfigurationCompleteHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    // Serialize DCCH message
    SerializeUlDcchMessage(2);
 
    // Serialize RRCConnectionSetupComplete sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize rrc-TransactionIdentifier
    SerializeInteger(m_rrcTransactionIdentifier, 0, 3);
 
    // Serialize criticalExtensions choice
    // 2 options, selected 1 (criticalExtensionsFuture)
    SerializeChoice(2, 1, false);
 
    // Choose criticalExtensionsFuture
    SerializeSequence(std::bitset<0>(), false);
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
RrcConnectionReconfigurationCompleteHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeUlDcchMessage(bIterator);
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    bIterator = DeserializeInteger(&n, 0, 3, bIterator);
    m_rrcTransactionIdentifier = n;
 
    bIterator = DeserializeChoice(2, false, &n, bIterator);
 
    if (n == 1)
    {
        // Deserialize criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (n == 0)
    {
        // Deserialize rrcConnectionReconfigurationComplete-r8
        // ...
    }
 
    return GetSerializedSize();
}
 
void
RrcConnectionReconfigurationCompleteHeader::Print(std::ostream& os) const
{
    os << "rrcTransactionIdentifier: " << (int)m_rrcTransactionIdentifier << std::endl;
}
 
void
RrcConnectionReconfigurationCompleteHeader::SetMessage(
    LteRrcSap::RrcConnectionReconfigurationCompleted msg)
{
    m_rrcTransactionIdentifier = msg.rrcTransactionIdentifier;
    m_isDataSerialized = false;
}
 
LteRrcSap::RrcConnectionReconfigurationCompleted
RrcConnectionReconfigurationCompleteHeader::GetMessage() const
{
    LteRrcSap::RrcConnectionReconfigurationCompleted msg;
    msg.rrcTransactionIdentifier = m_rrcTransactionIdentifier;
    return msg;
}
 
uint8_t
RrcConnectionReconfigurationCompleteHeader::GetRrcTransactionIdentifier() const
{
    return m_rrcTransactionIdentifier;
}
 
//////////////////// RrcConnectionReconfigurationHeader class ////////////////////////
 
RrcConnectionReconfigurationHeader::RrcConnectionReconfigurationHeader()
{
}
 
RrcConnectionReconfigurationHeader::~RrcConnectionReconfigurationHeader()
{
}
 
void
RrcConnectionReconfigurationHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    SerializeDlDcchMessage(4);
 
    // Serialize RRCConnectionSetupComplete sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize rrc-TransactionIdentifier
    SerializeInteger(m_rrcTransactionIdentifier, 0, 3);
 
    // Serialize criticalExtensions choice
    // 2 options, selected 0 (c1)
    SerializeChoice(2, 0, false);
 
    // Serialize c1 choice
    // 8 options, selected 0 (rrcConnectionReconfiguration-r8)
    SerializeChoice(8, 0, false);
 
    // Serialize RRCConnectionReconfiguration-r8-IEs sequence:
    // 6 optional fields. Extension marker not present.
    std::bitset<6> options;
    options.set(5, m_haveMeasConfig);
    options.set(4, m_haveMobilityControlInfo);
    options.set(3, false); // No dedicatedInfoNASList
    options.set(2, m_haveRadioResourceConfigDedicated);
    options.set(1, false);                      // No securityConfigHO
    options.set(0, m_haveNonCriticalExtension); // Implemented nonCriticalExtension because
                                                // compatibility with R10 - CA
    SerializeSequence(options, false);
 
    if (m_haveMeasConfig)
    {
        SerializeMeasConfig(m_measConfig);
    }
 
    if (m_haveMobilityControlInfo)
    {
        // Serialize MobilityControlInfo
 
        // 4 optional fields, extension marker present.
        std::bitset<4> mobCtrlIntoOptional;
        mobCtrlIntoOptional.set(3, m_mobilityControlInfo.haveCarrierFreq);
        mobCtrlIntoOptional.set(2, m_mobilityControlInfo.haveCarrierBandwidth);
        mobCtrlIntoOptional.set(1, false); // No additionalSpectrumEmission
        mobCtrlIntoOptional.set(0, m_mobilityControlInfo.haveRachConfigDedicated);
        SerializeSequence(mobCtrlIntoOptional, true);
 
        // Serialize targetPhysCellId
        SerializeInteger(m_mobilityControlInfo.targetPhysCellId, 0, 503);
 
        if (m_mobilityControlInfo.haveCarrierFreq)
        {
            SerializeSequence(std::bitset<1>(1), false);
            SerializeInteger(m_mobilityControlInfo.carrierFreq.dlCarrierFreq, 0, MAX_EARFCN);
            SerializeInteger(m_mobilityControlInfo.carrierFreq.ulCarrierFreq, 0, MAX_EARFCN);
        }
 
        if (m_mobilityControlInfo.haveCarrierBandwidth)
        {
            SerializeSequence(std::bitset<1>(1), false);
 
            // Serialize dl-Bandwidth
            SerializeEnum(16, BandwidthToEnum(m_mobilityControlInfo.carrierBandwidth.dlBandwidth));
 
            // Serialize ul-Bandwidth
            SerializeEnum(16, BandwidthToEnum(m_mobilityControlInfo.carrierBandwidth.ulBandwidth));
        }
 
        // Serialize t304
        SerializeEnum(8, 0);
 
        // Serialize newUE-Identity
        SerializeBitstring(std::bitset<16>(m_mobilityControlInfo.newUeIdentity));
 
        // Serialize radioResourceConfigCommon
        SerializeRadioResourceConfigCommon(m_mobilityControlInfo.radioResourceConfigCommon);
 
        if (m_mobilityControlInfo.haveRachConfigDedicated)
        {
            SerializeSequence(std::bitset<0>(), false);
            SerializeInteger(m_mobilityControlInfo.rachConfigDedicated.raPreambleIndex, 0, 63);
            SerializeInteger(m_mobilityControlInfo.rachConfigDedicated.raPrachMaskIndex, 0, 15);
        }
    }
 
    if (m_haveRadioResourceConfigDedicated)
    {
        // Serialize RadioResourceConfigDedicated
        SerializeRadioResourceConfigDedicated(m_radioResourceConfigDedicated);
    }
 
    if (m_haveNonCriticalExtension)
    {
        // Serialize NonCriticalExtension RRCConnectionReconfiguration-v890-IEs sequence:
        // 2 optional fields. Extension marker not present.
        std::bitset<2> noncriticalExtension_v890;
        noncriticalExtension_v890.set(1, false); // No lateNonCriticalExtension
        noncriticalExtension_v890.set(
            0,
            m_haveNonCriticalExtension); // Implemented nonCriticalExtension because compatibility
                                         // with R10 - CA
        // Enable RRCCoonectionReconfiguration-v920-IEs
        SerializeSequence(noncriticalExtension_v890, false);
 
        // Serialize NonCriticalExtension RRCConnectionReconfiguration-v920-IEs sequence:
        // 3 optional fields. Extension marker not present.
        std::bitset<3> noncriticalExtension_v920;
        noncriticalExtension_v920.set(1, false); // No otherConfig-r9
        noncriticalExtension_v920.set(1, false); // No fullConfig-r9
        // Enable RRCCoonectionReconfiguration-v1020-IEs
        noncriticalExtension_v920.set(
            0,
            m_haveNonCriticalExtension); // Implemented nonCriticalExtension because compatibility
                                         // with R10 - CA
        SerializeSequence(noncriticalExtension_v920, false);
 
        SerializeNonCriticalExtensionConfiguration(
            m_nonCriticalExtension); // Serializing RRCConnectionReconfiguration-r8-IEs
    }
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
RrcConnectionReconfigurationHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
 
    bIterator = DeserializeDlDcchMessage(bIterator);
 
    // RRCConnectionReconfiguration sequence
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // rrc-TransactionIdentifier
    int n;
    bIterator = DeserializeInteger(&n, 0, 3, bIterator);
    m_rrcTransactionIdentifier = n;
 
    // criticalExtensions
    int sel;
    bIterator = DeserializeChoice(2, false, &sel, bIterator);
    if (sel == 1)
    {
        // criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (sel == 0)
    {
        // c1
        int c1Chosen;
        bIterator = DeserializeChoice(8, false, &c1Chosen, bIterator);
        if (c1Chosen > 0)
        {
            bIterator = DeserializeNull(bIterator);
        }
        else if (c1Chosen == 0)
        {
            // rrcConnectionReconfiguration-r8
            std::bitset<6> rrcConnRecOpts;
            bIterator = DeserializeSequence(&rrcConnRecOpts, false, bIterator);
 
            m_haveMeasConfig = rrcConnRecOpts[5];
            if (m_haveMeasConfig)
            {
                bIterator = DeserializeMeasConfig(&m_measConfig, bIterator);
            }
 
            m_haveMobilityControlInfo = rrcConnRecOpts[4];
            if (m_haveMobilityControlInfo)
            {
                // mobilityControlInfo
                std::bitset<4> mobCtrlOpts;
                bIterator = DeserializeSequence(&mobCtrlOpts, true, bIterator);
 
                // PhysCellId
                bIterator = DeserializeInteger(&n, 0, 503, bIterator);
                m_mobilityControlInfo.targetPhysCellId = n;
 
                // carrierFreq
                m_mobilityControlInfo.haveCarrierFreq = mobCtrlOpts[3];
                if (m_mobilityControlInfo.haveCarrierFreq)
                {
                    std::bitset<1> ulCarrierFreqPresent;
                    bIterator = DeserializeSequence(&ulCarrierFreqPresent, false, bIterator);
 
                    bIterator = DeserializeInteger(&n, 0, MAX_EARFCN, bIterator);
                    m_mobilityControlInfo.carrierFreq.dlCarrierFreq = n;
 
                    if (ulCarrierFreqPresent[0])
                    {
                        bIterator = DeserializeInteger(&n, 0, MAX_EARFCN, bIterator);
                        m_mobilityControlInfo.carrierFreq.ulCarrierFreq = n;
                    }
                }
 
                // carrierBandwidth
                m_mobilityControlInfo.haveCarrierBandwidth = mobCtrlOpts[2];
                if (m_mobilityControlInfo.haveCarrierBandwidth)
                {
                    std::bitset<1> ulBandwidthPresent;
                    bIterator = DeserializeSequence(&ulBandwidthPresent, false, bIterator);
 
                    bIterator = DeserializeEnum(16, &n, bIterator);
                    m_mobilityControlInfo.carrierBandwidth.dlBandwidth = EnumToBandwidth(n);
 
                    if (ulBandwidthPresent[0])
                    {
                        bIterator = DeserializeEnum(16, &n, bIterator);
                        m_mobilityControlInfo.carrierBandwidth.ulBandwidth = EnumToBandwidth(n);
                    }
                }
 
                // additionalSpectrumEmission
                if (mobCtrlOpts[1])
                {
                    // ...
                }
 
                // t304
                bIterator = DeserializeEnum(8, &n, bIterator);
 
                // newUE-Identity
                std::bitset<16> cRnti;
                bIterator = DeserializeBitstring(&cRnti, bIterator);
                m_mobilityControlInfo.newUeIdentity = cRnti.to_ulong();
 
                // radioResourceConfigCommon
                bIterator = DeserializeRadioResourceConfigCommon(
                    &m_mobilityControlInfo.radioResourceConfigCommon,
                    bIterator);
 
                m_mobilityControlInfo.haveRachConfigDedicated = mobCtrlOpts[0];
                if (m_mobilityControlInfo.haveRachConfigDedicated)
                {
                    bIterator = DeserializeSequence(&bitset0, false, bIterator);
                    bIterator = DeserializeInteger(&n, 0, 63, bIterator);
                    m_mobilityControlInfo.rachConfigDedicated.raPreambleIndex = n;
                    bIterator = DeserializeInteger(&n, 0, 15, bIterator);
                    m_mobilityControlInfo.rachConfigDedicated.raPrachMaskIndex = n;
                }
            }
 
            // dedicatedInfoNASList
            if (rrcConnRecOpts[3])
            {
                // ...
            }
 
            // radioResourceConfigDedicated
            m_haveRadioResourceConfigDedicated = rrcConnRecOpts[2];
            if (m_haveRadioResourceConfigDedicated)
            {
                bIterator = DeserializeRadioResourceConfigDedicated(&m_radioResourceConfigDedicated,
                                                                    bIterator);
            }
 
            // securityConfigHO
            if (rrcConnRecOpts[1])
            {
                // ...
            }
 
            // nonCriticalExtension
            m_haveNonCriticalExtension = rrcConnRecOpts[0];
            if (m_haveNonCriticalExtension)
            {
                bIterator =
                    DeserializeNonCriticalExtensionConfig(&m_nonCriticalExtension, bIterator);
                // ...
            }
        }
    }
 
    return GetSerializedSize();
}
 
void
RrcConnectionReconfigurationHeader::Print(std::ostream& os) const
{
    os << "rrcTransactionIdentifier: " << (int)m_rrcTransactionIdentifier << std::endl;
    os << "haveMeasConfig: " << m_haveMeasConfig << std::endl;
    if (m_haveMeasConfig)
    {
        if (!m_measConfig.measObjectToRemoveList.empty())
        {
            os << "  measObjectToRemoveList: ";
            std::list<uint8_t> auxList = m_measConfig.measObjectToRemoveList;
            auto it = auxList.begin();
            for (; it != auxList.end(); it++)
            {
                os << (int)*it << ", ";
            }
            os << std::endl;
        }
        if (!m_measConfig.reportConfigToRemoveList.empty())
        {
            os << "  reportConfigToRemoveList: ";
            std::list<uint8_t> auxList = m_measConfig.reportConfigToRemoveList;
            auto it = auxList.begin();
            for (; it != auxList.end(); it++)
            {
                os << (int)*it << ", ";
            }
            os << std::endl;
        }
        if (!m_measConfig.measIdToRemoveList.empty())
        {
            os << "  measIdToRemoveList: ";
            std::list<uint8_t> auxList = m_measConfig.measIdToRemoveList;
            auto it = auxList.begin();
            for (; it != auxList.end(); it++)
            {
                os << (int)*it << ", ";
            }
            os << std::endl;
        }
 
        if (!m_measConfig.measObjectToAddModList.empty())
        {
            os << "  measObjectToAddMod: " << std::endl;
            std::list<LteRrcSap::MeasObjectToAddMod> auxList = m_measConfig.measObjectToAddModList;
            auto it = auxList.begin();
            for (; it != auxList.end(); it++)
            {
                os << "    measObjectId: " << (int)it->measObjectId << std::endl;
                os << "    carrierFreq: " << (int)it->measObjectEutra.carrierFreq << std::endl;
                os << "    allowedMeasBandwidth: " << (int)it->measObjectEutra.allowedMeasBandwidth
                   << std::endl;
                os << "    presenceAntennaPort1: " << it->measObjectEutra.presenceAntennaPort1
                   << std::endl;
                os << "    neighCellConfig: " << (int)it->measObjectEutra.neighCellConfig
                   << std::endl;
                os << "    offsetFreq: " << (int)it->measObjectEutra.offsetFreq << std::endl;
 
                if (!it->measObjectEutra.cellsToRemoveList.empty())
                {
                    os << "    cellsToRemoveList: ";
                    std::list<uint8_t> auxList = it->measObjectEutra.cellsToRemoveList;
                    auto it = auxList.begin();
                    for (; it != auxList.end(); it++)
                    {
                        os << (int)*it << ", ";
                    }
                    os << std::endl;
                }
 
                if (!it->measObjectEutra.blackCellsToRemoveList.empty())
                {
                    os << "    blackCellsToRemoveList: ";
                    std::list<uint8_t> auxList = it->measObjectEutra.blackCellsToRemoveList;
                    auto it = auxList.begin();
                    for (; it != auxList.end(); it++)
                    {
                        os << (int)*it << ", ";
                    }
                    os << std::endl;
                }
 
                if (!it->measObjectEutra.cellsToAddModList.empty())
                {
                    os << "    cellsToAddModList: " << std::endl;
                    std::list<LteRrcSap::CellsToAddMod> auxList =
                        it->measObjectEutra.cellsToAddModList;
                    auto it = auxList.begin();
                    for (; it != auxList.end(); it++)
                    {
                        os << "      cellIndex: " << (int)it->cellIndex << std::endl;
                        os << "      physCellId: " << (int)it->physCellId << std::endl;
                        os << "      cellIndividualOffset: " << (int)it->cellIndividualOffset
                           << std::endl;
                        os << "      ------ " << std::endl;
                    }
                }
 
                if (!it->measObjectEutra.blackCellsToAddModList.empty())
                {
                    os << "    blackCellsToAddModList: " << std::endl;
                    std::list<LteRrcSap::BlackCellsToAddMod> auxList =
                        it->measObjectEutra.blackCellsToAddModList;
                    auto it = auxList.begin();
                    for (; it != auxList.end(); it++)
                    {
                        os << "      cellIndex: " << (int)it->cellIndex << std::endl;
                        os << "      physCellIdRange.start: " << (int)it->physCellIdRange.start
                           << std::endl;
                        os << "      physCellIdRange.haveRange: " << it->physCellIdRange.haveRange
                           << std::endl;
                        os << "      physCellIdRange.range: " << (int)it->physCellIdRange.range
                           << std::endl;
                        os << "      ------ " << std::endl;
                    }
                }
 
                os << "    haveCellForWhichToReportCGI: "
                   << it->measObjectEutra.haveCellForWhichToReportCGI << std::endl;
                os << "    cellForWhichToReportCGI: "
                   << (int)it->measObjectEutra.cellForWhichToReportCGI << std::endl;
                os << "    ------------- " << std::endl;
            }
        }
 
        if (!m_measConfig.reportConfigToAddModList.empty())
        {
            os << "  reportConfigToAddModList: " << std::endl;
            std::list<LteRrcSap::ReportConfigToAddMod> auxList =
                m_measConfig.reportConfigToAddModList;
            auto it = auxList.begin();
            for (; it != auxList.end(); it++)
            {
                os << "    reportConfigId: " << (int)it->reportConfigId << std::endl;
                os << "    reportConfigEutra.triggerType  "
                   << (int)it->reportConfigEutra.triggerType << std::endl;
                if (it->reportConfigEutra.triggerType == LteRrcSap::ReportConfigEutra::EVENT)
                {
                    os << "    reportConfigEutra.eventId  " << (int)it->reportConfigEutra.eventId
                       << std::endl;
                    if (it->reportConfigEutra.eventId == LteRrcSap::ReportConfigEutra::EVENT_A3)
                    {
                        os << "    reportConfigEutra.reportOnLeave  "
                           << (int)it->reportConfigEutra.reportOnLeave << std::endl;
                        os << "    reportConfigEutra.a3Offset  "
                           << (int)it->reportConfigEutra.a3Offset << std::endl;
                    }
                    else
                    {
                        os << "    reportConfigEutra.threshold1.choice  "
                           << (int)it->reportConfigEutra.threshold1.choice << std::endl;
                        os << "    reportConfigEutra.threshold1.range  "
                           << (int)it->reportConfigEutra.threshold1.range << std::endl;
                        if (it->reportConfigEutra.eventId == LteRrcSap::ReportConfigEutra::EVENT_A5)
                        {
                            os << "    reportConfigEutra.threshold2.choice  "
                               << (int)it->reportConfigEutra.threshold2.choice << std::endl;
                            os << "    reportConfigEutra.threshold2.range  "
                               << (int)it->reportConfigEutra.threshold2.range << std::endl;
                        }
                    }
                    os << "    reportConfigEutra.hysteresis  "
                       << (int)it->reportConfigEutra.hysteresis << std::endl;
                    os << "    reportConfigEutra.timeToTrigger  "
                       << (int)it->reportConfigEutra.timeToTrigger << std::endl;
                }
                else
                {
                    os << "    reportConfigEutra.purpose  " << (int)it->reportConfigEutra.purpose
                       << std::endl;
                }
                os << "    reportConfigEutra.triggerQuantity  "
                   << (int)it->reportConfigEutra.triggerQuantity << std::endl;
                os << "    reportConfigEutra.reportQuantity  "
                   << (int)it->reportConfigEutra.reportQuantity << std::endl;
                os << "    reportConfigEutra.maxReportCells  "
                   << (int)it->reportConfigEutra.maxReportCells << std::endl;
                os << "    reportConfigEutra.reportInterval  "
                   << (int)it->reportConfigEutra.reportInterval << std::endl;
                os << "    reportConfigEutra.reportAmount  "
                   << (int)it->reportConfigEutra.reportAmount << std::endl;
            }
        }
 
        if (!m_measConfig.measIdToAddModList.empty())
        {
            os << "  measIdToAddModList: " << std::endl;
            std::list<LteRrcSap::MeasIdToAddMod> auxList = m_measConfig.measIdToAddModList;
            auto it = auxList.begin();
            for (; it != auxList.end(); it++)
            {
                os << "    measId: " << (int)it->measId << std::endl;
                os << "    measObjectId: " << (int)it->measObjectId << std::endl;
                os << "    reportConfigId: " << (int)it->reportConfigId << std::endl;
                os << "    ------ " << std::endl;
            }
        }
 
        os << "  haveQuantityConfig: " << m_measConfig.haveQuantityConfig << std::endl;
        if (m_measConfig.haveQuantityConfig)
        {
            os << "    filterCoefficientRSRP: "
               << (int)m_measConfig.quantityConfig.filterCoefficientRSRP << std::endl;
            os << "    filterCoefficientRSRQ:"
               << (int)m_measConfig.quantityConfig.filterCoefficientRSRQ << std::endl;
        }
 
        os << "  haveMeasGapConfig: " << m_measConfig.haveMeasGapConfig << std::endl;
        if (m_measConfig.haveMeasGapConfig)
        {
            os << "    measGapConfig.type: " << m_measConfig.measGapConfig.type << std::endl;
            os << "    measGapConfig.gap (gap0/1,value): ("
               << m_measConfig.measGapConfig.gapOffsetChoice << ","
               << (int)m_measConfig.measGapConfig.gapOffsetValue << ")" << std::endl;
        }
 
        os << "  haveSmeasure: " << m_measConfig.haveSmeasure << std::endl;
        if (m_measConfig.haveSmeasure)
        {
            os << "    sMeasure: " << (int)m_measConfig.sMeasure << std::endl;
        }
 
        os << "  haveSpeedStatePars: " << m_measConfig.haveSpeedStatePars << std::endl;
        if (m_measConfig.haveSpeedStatePars)
        {
            os << "    speedStatePars.type: " << m_measConfig.speedStatePars.type << std::endl;
            os << "    speedStatePars.mobilityStateParameters.tEvaluation: "
               << (int)m_measConfig.speedStatePars.mobilityStateParameters.tEvaluation << std::endl;
            os << "    speedStatePars.mobilityStateParameters.tHystNormal: "
               << (int)m_measConfig.speedStatePars.mobilityStateParameters.tHystNormal << std::endl;
            os << "    speedStatePars.mobilityStateParameters.nCellChangeMedium: "
               << (int)m_measConfig.speedStatePars.mobilityStateParameters.nCellChangeMedium
               << std::endl;
            os << "    speedStatePars.mobilityStateParameters.nCellChangeHigh: "
               << (int)m_measConfig.speedStatePars.mobilityStateParameters.nCellChangeHigh
               << std::endl;
            os << "    speedStatePars.timeToTriggerSf.sfMedium: "
               << (int)m_measConfig.speedStatePars.timeToTriggerSf.sfMedium << std::endl;
            os << "    speedStatePars.timeToTriggerSf.sfHigh: "
               << (int)m_measConfig.speedStatePars.timeToTriggerSf.sfHigh << std::endl;
        }
    }
 
    os << "haveMobilityControlInfo: " << m_haveMobilityControlInfo << std::endl;
    if (m_haveMobilityControlInfo)
    {
        os << "targetPhysCellId: " << (int)m_mobilityControlInfo.targetPhysCellId << std::endl;
        os << "haveCarrierFreq: " << m_mobilityControlInfo.haveCarrierFreq << std::endl;
        if (m_mobilityControlInfo.haveCarrierFreq)
        {
            os << "  carrierFreq.dlCarrierFreq: "
               << (int)m_mobilityControlInfo.carrierFreq.dlCarrierFreq << std::endl;
            os << "  carrierFreq.dlCarrierFreq: "
               << (int)m_mobilityControlInfo.carrierFreq.ulCarrierFreq << std::endl;
        }
        os << "haveCarrierBandwidth: " << m_mobilityControlInfo.haveCarrierBandwidth << std::endl;
        if (m_mobilityControlInfo.haveCarrierBandwidth)
        {
            os << "  carrierBandwidth.dlBandwidth: "
               << (int)m_mobilityControlInfo.carrierBandwidth.dlBandwidth << std::endl;
            os << "  carrierBandwidth.ulBandwidth: "
               << (int)m_mobilityControlInfo.carrierBandwidth.ulBandwidth << std::endl;
        }
        os << "newUeIdentity: " << (int)m_mobilityControlInfo.newUeIdentity << std::endl;
        os << "haveRachConfigDedicated: " << m_mobilityControlInfo.haveRachConfigDedicated
           << std::endl;
        if (m_mobilityControlInfo.haveRachConfigDedicated)
        {
            os << "raPreambleIndex: "
               << (int)m_mobilityControlInfo.rachConfigDedicated.raPreambleIndex << std::endl;
            os << "raPrachMaskIndex: "
               << (int)m_mobilityControlInfo.rachConfigDedicated.raPrachMaskIndex << std::endl;
        }
    }
    os << "haveRadioResourceConfigDedicated: " << m_haveRadioResourceConfigDedicated << std::endl;
    if (m_haveRadioResourceConfigDedicated)
    {
        RrcAsn1Header::Print(os, m_radioResourceConfigDedicated);
    }
}
 
void
RrcConnectionReconfigurationHeader::SetMessage(LteRrcSap::RrcConnectionReconfiguration msg)
{
    m_rrcTransactionIdentifier = msg.rrcTransactionIdentifier;
    m_haveMeasConfig = msg.haveMeasConfig;
    m_measConfig = msg.measConfig;
    m_haveMobilityControlInfo = msg.haveMobilityControlInfo;
    m_mobilityControlInfo = msg.mobilityControlInfo;
    m_haveRadioResourceConfigDedicated = msg.haveRadioResourceConfigDedicated;
    m_radioResourceConfigDedicated = msg.radioResourceConfigDedicated;
    m_haveNonCriticalExtension = msg.haveNonCriticalExtension;
    m_nonCriticalExtension = msg.nonCriticalExtension;
 
    m_isDataSerialized = false;
}
 
LteRrcSap::RrcConnectionReconfiguration
RrcConnectionReconfigurationHeader::GetMessage() const
{
    LteRrcSap::RrcConnectionReconfiguration msg{};
 
    msg.rrcTransactionIdentifier = m_rrcTransactionIdentifier;
    msg.haveMeasConfig = m_haveMeasConfig;
    msg.measConfig = m_measConfig;
    msg.haveMobilityControlInfo = m_haveMobilityControlInfo;
    msg.mobilityControlInfo = m_mobilityControlInfo;
    msg.haveRadioResourceConfigDedicated = m_haveRadioResourceConfigDedicated;
    msg.radioResourceConfigDedicated = m_radioResourceConfigDedicated;
    msg.haveNonCriticalExtension = m_haveNonCriticalExtension;
    msg.nonCriticalExtension = m_nonCriticalExtension;
 
    return msg;
}
 
uint8_t
RrcConnectionReconfigurationHeader::GetRrcTransactionIdentifier() const
{
    return m_rrcTransactionIdentifier;
}
 
bool
RrcConnectionReconfigurationHeader::GetHaveMeasConfig() const
{
    return m_haveMeasConfig;
}
 
LteRrcSap::MeasConfig
RrcConnectionReconfigurationHeader::GetMeasConfig()
{
    return m_measConfig;
}
 
bool
RrcConnectionReconfigurationHeader::GetHaveMobilityControlInfo() const
{
    return m_haveMobilityControlInfo;
}
 
LteRrcSap::MobilityControlInfo
RrcConnectionReconfigurationHeader::GetMobilityControlInfo()
{
    return m_mobilityControlInfo;
}
 
bool
RrcConnectionReconfigurationHeader::GetHaveRadioResourceConfigDedicated() const
{
    return m_haveRadioResourceConfigDedicated;
}
 
LteRrcSap::RadioResourceConfigDedicated
RrcConnectionReconfigurationHeader::GetRadioResourceConfigDedicated()
{
    return m_radioResourceConfigDedicated;
}
 
bool
RrcConnectionReconfigurationHeader::GetHaveNonCriticalExtensionConfig() const
{
    return m_haveNonCriticalExtension;
}
 
LteRrcSap::NonCriticalExtensionConfiguration
RrcConnectionReconfigurationHeader::GetNonCriticalExtensionConfig()
{
    return m_nonCriticalExtension;
}
 
bool
RrcConnectionReconfigurationHeader::HavePhysicalConfigDedicated() const
{
    return m_radioResourceConfigDedicated.havePhysicalConfigDedicated;
}
 
std::list<LteRrcSap::SrbToAddMod>
RrcConnectionReconfigurationHeader::GetSrbToAddModList() const
{
    return m_radioResourceConfigDedicated.srbToAddModList;
}
 
std::list<LteRrcSap::DrbToAddMod>
RrcConnectionReconfigurationHeader::GetDrbToAddModList() const
{
    return m_radioResourceConfigDedicated.drbToAddModList;
}
 
std::list<uint8_t>
RrcConnectionReconfigurationHeader::GetDrbToReleaseList() const
{
    return m_radioResourceConfigDedicated.drbToReleaseList;
}
 
LteRrcSap::PhysicalConfigDedicated
RrcConnectionReconfigurationHeader::GetPhysicalConfigDedicated() const
{
    return m_radioResourceConfigDedicated.physicalConfigDedicated;
}
 
//////////////////// HandoverPreparationInfoHeader class ////////////////////////
 
HandoverPreparationInfoHeader::HandoverPreparationInfoHeader()
{
}
 
void
HandoverPreparationInfoHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    // Serialize HandoverPreparationInformation sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize criticalExtensions choice
    // 2 options, selected 0 (c1)
    SerializeChoice(2, 0, false);
 
    // Serialize c1 choice
    // 8 options, selected 0 (handoverPreparationInformation-r8)
    SerializeChoice(8, 0, false);
 
    // Serialize HandoverPreparationInformation-r8-IEs sequence
    // 4 optional fields, no extension marker.
    std::bitset<4> handoverPrepInfoOpts;
    handoverPrepInfoOpts.set(3, true);  // as-Config present
    handoverPrepInfoOpts.set(2, false); // rrm-Config not present
    handoverPrepInfoOpts.set(1, false); // as-Context not present
    handoverPrepInfoOpts.set(0, false); // nonCriticalExtension not present
    SerializeSequence(handoverPrepInfoOpts, false);
 
    // Serialize ue-RadioAccessCapabilityInfo
    SerializeSequenceOf(0, MAX_RAT_CAPABILITIES, 0);
 
    // Serialize as-Config
    SerializeSequence(std::bitset<0>(), true);
 
    // Serialize sourceMeasConfig
    SerializeMeasConfig(m_asConfig.sourceMeasConfig);
 
    // Serialize sourceRadioResourceConfig
    SerializeRadioResourceConfigDedicated(m_asConfig.sourceRadioResourceConfig);
 
    // Serialize sourceSecurityAlgorithmConfig
    SerializeSequence(std::bitset<0>(), false);
    // cipheringAlgorithm
    SerializeEnum(8, 0);
    // integrityProtAlgorithm
    SerializeEnum(8, 0);
 
    // Serialize sourceUE-Identity
    SerializeBitstring(std::bitset<16>(m_asConfig.sourceUeIdentity));
 
    // Serialize sourceMasterInformationBlock
    SerializeSequence(std::bitset<0>(), false);
    SerializeEnum(
        6,
        BandwidthToEnum(m_asConfig.sourceMasterInformationBlock.dlBandwidth)); // dl-Bandwidth
    SerializeSequence(std::bitset<0>(), false); // phich-Config sequence
    SerializeEnum(2, 0);                        // phich-Duration
    SerializeEnum(4, 0);                        // phich-Resource
    SerializeBitstring(std::bitset<8>(
        m_asConfig.sourceMasterInformationBlock.systemFrameNumber)); // systemFrameNumber
    SerializeBitstring(std::bitset<10>(321));                        // spare
 
    // Serialize sourceSystemInformationBlockType1 sequence
    SerializeSystemInformationBlockType1(m_asConfig.sourceSystemInformationBlockType1);
 
    // Serialize sourceSystemInformationBlockType2
    SerializeSystemInformationBlockType2(m_asConfig.sourceSystemInformationBlockType2);
 
    // Serialize AntennaInfoCommon
    SerializeSequence(std::bitset<0>(0), false);
    SerializeEnum(4, 0); // antennaPortsCount
 
    // Serialize sourceDlCarrierFreq
    SerializeInteger(m_asConfig.sourceDlCarrierFreq, 0, MAX_EARFCN);
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
HandoverPreparationInfoHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    // Deserialize HandoverPreparationInformation sequence
    // 0 optional fields, no extension marker
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // Deserialize criticalExtensions choice
    int criticalExtensionsChosen;
    bIterator = DeserializeChoice(2, false, &criticalExtensionsChosen, bIterator);
 
    if (criticalExtensionsChosen == 1)
    {
        // Deserialize criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (criticalExtensionsChosen == 0)
    {
        // Deserialize c1 choice
        int c1Chosen;
        bIterator = DeserializeChoice(8, false, &c1Chosen, bIterator);
        if (c1Chosen > 0)
        {
            bIterator = DeserializeNull(bIterator);
        }
        else if (c1Chosen == 0)
        {
            // Deserialize handoverPreparationInformation-r8
            std::bitset<4> handoverPrepInfoOpts;
            bIterator = DeserializeSequence(&handoverPrepInfoOpts, false, bIterator);
 
            // Deserialize ue-RadioAccessCapabilityInfo
            bIterator = DeserializeSequenceOf(&n, MAX_RAT_CAPABILITIES, 0, bIterator);
            for (int i = 0; i < n; i++)
            {
                // Deserialize UE-CapabilityRAT-Container
                // ...
            }
 
            if (handoverPrepInfoOpts[3])
            {
                // Deserialize as-Config sequence
                bIterator = DeserializeSequence(&bitset0, true, bIterator);
 
                // Deserialize sourceMeasConfig
                bIterator = DeserializeMeasConfig(&m_asConfig.sourceMeasConfig, bIterator);
 
                // Deserialize sourceRadioResourceConfig
                bIterator =
                    DeserializeRadioResourceConfigDedicated(&m_asConfig.sourceRadioResourceConfig,
                                                            bIterator);
 
                // Deserialize sourceSecurityAlgorithmConfig
                bIterator = DeserializeSequence(&bitset0, false, bIterator);
                bIterator = DeserializeEnum(8, &n, bIterator); // cipheringAlgorithm
                bIterator = DeserializeEnum(8, &n, bIterator); // integrityProtAlgorithm
 
                // Deserialize sourceUE-Identity
                std::bitset<16> cRnti;
                bIterator = DeserializeBitstring(&cRnti, bIterator);
                m_asConfig.sourceUeIdentity = cRnti.to_ulong();
 
                // Deserialize sourceMasterInformationBlock
                bIterator = DeserializeSequence(&bitset0, false, bIterator);
                bIterator = DeserializeEnum(6, &n, bIterator); // dl-Bandwidth
                m_asConfig.sourceMasterInformationBlock.dlBandwidth = EnumToBandwidth(n);
 
                // phich-Config
                bIterator = DeserializeSequence(&bitset0, false, bIterator);
                bIterator = DeserializeEnum(2, &n, bIterator); // phich-Duration
                bIterator = DeserializeEnum(4, &n, bIterator); // phich-Resource
 
                // systemFrameNumber
                std::bitset<8> systemFrameNumber;
                bIterator = DeserializeBitstring(&systemFrameNumber, bIterator);
                m_asConfig.sourceMasterInformationBlock.systemFrameNumber =
                    systemFrameNumber.to_ulong();
                // spare
                std::bitset<10> spare;
                bIterator = DeserializeBitstring(&spare, bIterator);
 
                // Deserialize sourceSystemInformationBlockType1
                bIterator = DeserializeSystemInformationBlockType1(
                    &m_asConfig.sourceSystemInformationBlockType1,
                    bIterator);
 
                // Deserialize sourceSystemInformationBlockType2
                bIterator = DeserializeSystemInformationBlockType2(
                    &m_asConfig.sourceSystemInformationBlockType2,
                    bIterator);
 
                // Deserialize antennaInfoCommon
                bIterator = DeserializeSequence(&bitset0, false, bIterator);
                bIterator = DeserializeEnum(4, &n, bIterator); // antennaPortsCount
 
                // Deserialize sourceDl-CarrierFreq
                bIterator = DeserializeInteger(&n, 0, MAX_EARFCN, bIterator);
                m_asConfig.sourceDlCarrierFreq = n;
            }
            if (handoverPrepInfoOpts[2])
            {
                // Deserialize rrm-Config
                // ...
            }
            if (handoverPrepInfoOpts[1])
            {
                // Deserialize as-Context
                // ...
            }
            if (handoverPrepInfoOpts[0])
            {
                // Deserialize nonCriticalExtension
                // ...
            }
        }
    }
 
    return GetSerializedSize();
}
 
void
HandoverPreparationInfoHeader::Print(std::ostream& os) const
{
    RrcAsn1Header::Print(os, m_asConfig.sourceRadioResourceConfig);
    os << "sourceUeIdentity: " << m_asConfig.sourceUeIdentity << std::endl;
    os << "dlBandwidth: " << (int)m_asConfig.sourceMasterInformationBlock.dlBandwidth << std::endl;
    os << "systemFrameNumber: " << (int)m_asConfig.sourceMasterInformationBlock.systemFrameNumber
       << std::endl;
    os << "plmnIdentityInfo.plmnIdentity: "
       << (int)m_asConfig.sourceSystemInformationBlockType1.cellAccessRelatedInfo.plmnIdentityInfo
              .plmnIdentity
       << std::endl;
    os << "cellAccessRelatedInfo.cellIdentity "
       << (int)m_asConfig.sourceSystemInformationBlockType1.cellAccessRelatedInfo.cellIdentity
       << std::endl;
    os << "cellAccessRelatedInfo.csgIndication: "
       << m_asConfig.sourceSystemInformationBlockType1.cellAccessRelatedInfo.csgIndication
       << std::endl;
    os << "cellAccessRelatedInfo.csgIdentity: "
       << (int)m_asConfig.sourceSystemInformationBlockType1.cellAccessRelatedInfo.csgIdentity
       << std::endl;
    os << "sourceDlCarrierFreq: " << m_asConfig.sourceDlCarrierFreq << std::endl;
}
 
void
HandoverPreparationInfoHeader::SetMessage(LteRrcSap::HandoverPreparationInfo msg)
{
    m_asConfig = msg.asConfig;
    m_isDataSerialized = false;
}
 
LteRrcSap::HandoverPreparationInfo
HandoverPreparationInfoHeader::GetMessage() const
{
    LteRrcSap::HandoverPreparationInfo msg;
    msg.asConfig = m_asConfig;
 
    return msg;
}
 
LteRrcSap::AsConfig
HandoverPreparationInfoHeader::GetAsConfig() const
{
    return m_asConfig;
}
 
//////////////////// RrcConnectionReestablishmentRequestHeader class ////////////////////////
 
RrcConnectionReestablishmentRequestHeader::RrcConnectionReestablishmentRequestHeader()
{
}
 
RrcConnectionReestablishmentRequestHeader::~RrcConnectionReestablishmentRequestHeader()
{
}
 
void
RrcConnectionReestablishmentRequestHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    SerializeUlCcchMessage(0);
 
    // Serialize RrcConnectionReestablishmentRequest sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize criticalExtensions choice
    // chosen: rrcConnectionReestablishmentRequest-r8
    SerializeChoice(2, 0, false);
 
    // Serialize RRCConnectionReestablishmentRequest-r8-IEs sequence
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize ue-Identity
    SerializeSequence(std::bitset<0>(), false);
    // Serialize c-RNTI
    SerializeBitstring(std::bitset<16>(m_ueIdentity.cRnti));
    // Serialize physCellId
    SerializeInteger(m_ueIdentity.physCellId, 0, 503);
    // Serialize shortMAC-I
    SerializeBitstring(std::bitset<16>(0));
 
    // Serialize ReestablishmentCause
    switch (m_reestablishmentCause)
    {
    case LteRrcSap::RECONFIGURATION_FAILURE:
        SerializeEnum(4, 0);
        break;
    case LteRrcSap::HANDOVER_FAILURE:
        SerializeEnum(4, 1);
        break;
    case LteRrcSap::OTHER_FAILURE:
        SerializeEnum(4, 2);
        break;
    default:
        SerializeEnum(4, 3);
    }
 
    // Serialize spare
    SerializeBitstring(std::bitset<2>(0));
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
RrcConnectionReestablishmentRequestHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeUlCcchMessage(bIterator);
 
    // Deserialize RrcConnectionReestablishmentRequest sequence
    // 0 optional fields, no extension marker
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // Deserialize criticalExtensions choice
    bIterator = DeserializeChoice(2, false, &n, bIterator);
    if (n == 1)
    {
        // Deserialize criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (n == 0)
    {
        // Deserialize RRCConnectionReestablishmentRequest-r8-IEs
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
        // Deserialize ReestabUE-Identity sequence
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
        // Deserialize c-RNTI
        std::bitset<16> cRnti;
        bIterator = DeserializeBitstring(&cRnti, bIterator);
        m_ueIdentity.cRnti = cRnti.to_ulong();
 
        // Deserialize physCellId
        int physCellId;
        bIterator = DeserializeInteger(&physCellId, 0, 503, bIterator);
        m_ueIdentity.physCellId = physCellId;
 
        // Deserialize shortMAC-I
        std::bitset<16> shortMacI;
        bIterator = DeserializeBitstring(&shortMacI, bIterator);
 
        // Deserialize ReestablishmentCause
        int reestCs;
        bIterator = DeserializeEnum(4, &reestCs, bIterator);
        switch (reestCs)
        {
        case 0:
            m_reestablishmentCause = LteRrcSap::RECONFIGURATION_FAILURE;
            break;
        case 1:
            m_reestablishmentCause = LteRrcSap::HANDOVER_FAILURE;
            break;
        case 2:
            m_reestablishmentCause = LteRrcSap::OTHER_FAILURE;
            break;
        case 3:
            break;
        }
 
        // Deserialize spare
        std::bitset<2> spare;
        bIterator = DeserializeBitstring(&spare, bIterator);
    }
 
    return GetSerializedSize();
}
 
void
RrcConnectionReestablishmentRequestHeader::Print(std::ostream& os) const
{
    os << "ueIdentity.cRnti: " << (int)m_ueIdentity.cRnti << std::endl;
    os << "ueIdentity.physCellId: " << (int)m_ueIdentity.physCellId << std::endl;
    os << "m_reestablishmentCause: " << m_reestablishmentCause << std::endl;
}
 
void
RrcConnectionReestablishmentRequestHeader::SetMessage(
    LteRrcSap::RrcConnectionReestablishmentRequest msg)
{
    m_ueIdentity = msg.ueIdentity;
    m_reestablishmentCause = msg.reestablishmentCause;
    m_isDataSerialized = false;
}
 
LteRrcSap::RrcConnectionReestablishmentRequest
RrcConnectionReestablishmentRequestHeader::GetMessage() const
{
    LteRrcSap::RrcConnectionReestablishmentRequest msg;
    msg.ueIdentity = m_ueIdentity;
    msg.reestablishmentCause = m_reestablishmentCause;
 
    return msg;
}
 
LteRrcSap::ReestabUeIdentity
RrcConnectionReestablishmentRequestHeader::GetUeIdentity() const
{
    return m_ueIdentity;
}
 
LteRrcSap::ReestablishmentCause
RrcConnectionReestablishmentRequestHeader::GetReestablishmentCause() const
{
    return m_reestablishmentCause;
}
 
//////////////////// RrcConnectionReestablishmentHeader class ////////////////////////
 
RrcConnectionReestablishmentHeader::RrcConnectionReestablishmentHeader()
{
}
 
RrcConnectionReestablishmentHeader::~RrcConnectionReestablishmentHeader()
{
}
 
void
RrcConnectionReestablishmentHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    SerializeDlCcchMessage(0);
 
    // Serialize RrcConnectionReestablishment sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize rrc-TransactionIdentifier
    SerializeInteger(m_rrcTransactionIdentifier, 0, 3);
 
    // Serialize criticalExtensions choice
    SerializeChoice(2, 0, false);
 
    // Serialize c1 choice
    SerializeChoice(8, 0, false);
 
    // Serialize RRCConnectionReestablishment-r8-IEs sequence
    // 1 optional field, no extension marker
    SerializeSequence(std::bitset<1>(0), false);
 
    // Serialize radioResourceConfigDedicated
    SerializeRadioResourceConfigDedicated(m_radioResourceConfigDedicated);
 
    // Serialize nextHopChainingCount
    SerializeInteger(0, 0, 7);
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
RrcConnectionReestablishmentHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeDlCcchMessage(bIterator);
 
    // Deserialize RrcConnectionReestablishment sequence
    // 0 optional fields, no extension marker
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // Deserialize rrc-TransactionIdentifier
    bIterator = DeserializeInteger(&n, 0, 3, bIterator);
    m_rrcTransactionIdentifier = n;
 
    // Deserialize criticalExtensions choice
    int criticalExtensionsChoice;
    bIterator = DeserializeChoice(2, false, &criticalExtensionsChoice, bIterator);
    if (criticalExtensionsChoice == 1)
    {
        // Deserialize criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (criticalExtensionsChoice == 0)
    {
        // Deserialize c1
        int c1;
        bIterator = DeserializeChoice(8, false, &c1, bIterator);
        if (c1 > 0)
        {
            bIterator = DeserializeNull(bIterator);
        }
        else if (c1 == 0)
        {
            // Deserialize rrcConnectionReestablishment-r8
            // 1 optional field
            std::bitset<1> nonCriticalExtensionPresent;
            bIterator = DeserializeSequence(&nonCriticalExtensionPresent, false, bIterator);
 
            // Deserialize RadioResourceConfigDedicated
            bIterator =
                DeserializeRadioResourceConfigDedicated(&m_radioResourceConfigDedicated, bIterator);
 
            // Deserialize nextHopChainingCount
            bIterator = DeserializeInteger(&n, 0, 7, bIterator);
        }
    }
 
    return GetSerializedSize();
}
 
void
RrcConnectionReestablishmentHeader::Print(std::ostream& os) const
{
    os << "rrcTransactionIdentifier: " << (int)m_rrcTransactionIdentifier << std::endl;
    os << "RadioResourceConfigDedicated: " << std::endl;
    RrcAsn1Header::Print(os, m_radioResourceConfigDedicated);
}
 
void
RrcConnectionReestablishmentHeader::SetMessage(LteRrcSap::RrcConnectionReestablishment msg)
{
    m_rrcTransactionIdentifier = msg.rrcTransactionIdentifier;
    m_radioResourceConfigDedicated = msg.radioResourceConfigDedicated;
    m_isDataSerialized = false;
}
 
LteRrcSap::RrcConnectionReestablishment
RrcConnectionReestablishmentHeader::GetMessage() const
{
    LteRrcSap::RrcConnectionReestablishment msg;
    msg.rrcTransactionIdentifier = m_rrcTransactionIdentifier;
    msg.radioResourceConfigDedicated = m_radioResourceConfigDedicated;
    return msg;
}
 
uint8_t
RrcConnectionReestablishmentHeader::GetRrcTransactionIdentifier() const
{
    return m_rrcTransactionIdentifier;
}
 
LteRrcSap::RadioResourceConfigDedicated
RrcConnectionReestablishmentHeader::GetRadioResourceConfigDedicated() const
{
    return m_radioResourceConfigDedicated;
}
 
//////////////////// RrcConnectionReestablishmentCompleteHeader class ////////////////////////
 
RrcConnectionReestablishmentCompleteHeader::RrcConnectionReestablishmentCompleteHeader()
{
}
 
void
RrcConnectionReestablishmentCompleteHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    // Serialize DCCH message
    SerializeUlDcchMessage(3);
 
    // Serialize RrcConnectionReestablishmentComplete sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize rrc-TransactionIdentifier
    SerializeInteger(m_rrcTransactionIdentifier, 0, 3);
 
    // Serialize criticalExtensions choice
    SerializeChoice(2, 0, false);
 
    // Serialize rrcConnectionReestablishmentComplete-r8 sequence
    // 1 optional field (not present), no extension marker.
    SerializeSequence(std::bitset<1>(0), false);
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
RrcConnectionReestablishmentCompleteHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeUlDcchMessage(bIterator);
 
    // Deserialize RrcConnectionReestablishmentComplete sequence
    // 0 optional fields, no extension marker
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // Deserialize rrc-TransactionIdentifier
    bIterator = DeserializeInteger(&n, 0, 3, bIterator);
    m_rrcTransactionIdentifier = n;
 
    // Deserialize criticalExtensions choice
    int criticalExtensionsChoice;
    bIterator = DeserializeChoice(2, false, &criticalExtensionsChoice, bIterator);
    if (criticalExtensionsChoice == 1)
    {
        // Deserialize criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (criticalExtensionsChoice == 0)
    {
        // Deserialize rrcConnectionReestablishmentComplete-r8
        std::bitset<1> opts;
        bIterator = DeserializeSequence(&opts, false, bIterator);
        if (opts[0])
        {
            // Deserialize RRCConnectionReestablishmentComplete-v920-IEs
            // ...
        }
    }
 
    return GetSerializedSize();
}
 
void
RrcConnectionReestablishmentCompleteHeader::Print(std::ostream& os) const
{
    os << "rrcTransactionIdentifier: " << (int)m_rrcTransactionIdentifier << std::endl;
}
 
void
RrcConnectionReestablishmentCompleteHeader::SetMessage(
    LteRrcSap::RrcConnectionReestablishmentComplete msg)
{
    m_rrcTransactionIdentifier = msg.rrcTransactionIdentifier;
    m_isDataSerialized = false;
}
 
LteRrcSap::RrcConnectionReestablishmentComplete
RrcConnectionReestablishmentCompleteHeader::GetMessage() const
{
    LteRrcSap::RrcConnectionReestablishmentComplete msg;
    msg.rrcTransactionIdentifier = m_rrcTransactionIdentifier;
    return msg;
}
 
uint8_t
RrcConnectionReestablishmentCompleteHeader::GetRrcTransactionIdentifier() const
{
    return m_rrcTransactionIdentifier;
}
 
//////////////////// RrcConnectionReestablishmentRejectHeader class ////////////////////////
 
RrcConnectionReestablishmentRejectHeader::RrcConnectionReestablishmentRejectHeader()
{
}
 
RrcConnectionReestablishmentRejectHeader::~RrcConnectionReestablishmentRejectHeader()
{
}
 
void
RrcConnectionReestablishmentRejectHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    // Serialize CCCH message
    SerializeDlCcchMessage(1);
 
    // Serialize RrcConnectionReestablishmentReject sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize criticalExtensions choice
    SerializeChoice(2, 0, false);
 
    // Serialize RRCConnectionReestablishmentReject-r8-IEs sequence
    // 1 optional field (not present), no extension marker.
    SerializeSequence(std::bitset<1>(0), false);
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
RrcConnectionReestablishmentRejectHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
 
    bIterator = DeserializeDlCcchMessage(bIterator);
 
    // Deserialize RrcConnectionReestablishmentReject sequence
    // 0 optional fields, no extension marker
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // Deserialize criticalExtensions choice
    int criticalExtensionsChoice;
    bIterator = DeserializeChoice(2, false, &criticalExtensionsChoice, bIterator);
    if (criticalExtensionsChoice == 1)
    {
        // Deserialize criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (criticalExtensionsChoice == 0)
    {
        // Deserialize rrcConnectionReestablishmentReject-r8
        std::bitset<1> opts;
        bIterator = DeserializeSequence(&opts, false, bIterator);
        if (opts[0])
        {
            // Deserialize RRCConnectionReestablishmentReject-v8a0-IEs
            // ...
        }
    }
 
    return GetSerializedSize();
}
 
void
RrcConnectionReestablishmentRejectHeader::Print(std::ostream& os) const
{
}
 
void
RrcConnectionReestablishmentRejectHeader::SetMessage(
    LteRrcSap::RrcConnectionReestablishmentReject msg)
{
    m_rrcConnectionReestablishmentReject = msg;
    m_isDataSerialized = false;
}
 
LteRrcSap::RrcConnectionReestablishmentReject
RrcConnectionReestablishmentRejectHeader::GetMessage() const
{
    return m_rrcConnectionReestablishmentReject;
}
 
//////////////////// RrcConnectionReleaseHeader class ////////////////////////
 
RrcConnectionReleaseHeader::RrcConnectionReleaseHeader()
{
}
 
RrcConnectionReleaseHeader::~RrcConnectionReleaseHeader()
{
}
 
void
RrcConnectionReleaseHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    // Serialize DCCH message
    SerializeDlDcchMessage(5);
 
    // Serialize RrcConnectionRelease sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize rrc-TransactionIdentifier
    SerializeInteger(m_rrcConnectionRelease.rrcTransactionIdentifier, 0, 3);
 
    // Serialize criticalExtensions choice
    SerializeChoice(2, 0, false);
 
    // Serialize c1 choice
    SerializeChoice(4, 0, false);
 
    // Serialize RRCConnectionRelease-r8-IEs sequence
    // 3 optional field (not present), no extension marker.
    SerializeSequence(std::bitset<3>(0), false);
 
    // Serialize ReleaseCause
    SerializeEnum(4, 1);
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
RrcConnectionReleaseHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeDlDcchMessage(bIterator);
 
    // Deserialize RrcConnectionRelease sequence
    // 0 optional fields, no extension marker
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // Deserialize rrc-TransactionIdentifier
    bIterator = DeserializeInteger(&n, 0, 3, bIterator);
    m_rrcConnectionRelease.rrcTransactionIdentifier = n;
 
    // Deserialize criticalExtensions choice
    int criticalExtensionsChoice;
    bIterator = DeserializeChoice(2, false, &criticalExtensionsChoice, bIterator);
    if (criticalExtensionsChoice == 1)
    {
        // Deserialize criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (criticalExtensionsChoice == 0)
    {
        // Deserialize c1
        int c1Choice;
        bIterator = DeserializeChoice(4, false, &c1Choice, bIterator);
 
        if (c1Choice == 0)
        {
            // Deserialize RRCConnectionRelease-r8-IEs
            std::bitset<3> opts;
            bIterator = DeserializeSequence(&opts, false, bIterator);
 
            // Deserialize releaseCause
            bIterator = DeserializeEnum(4, &n, bIterator);
 
            if (opts[2])
            {
                // Deserialize redirectedCarrierInfo
                // ...
            }
            if (opts[1])
            {
                // Deserialize idleModeMobilityControlInfo
                // ...
            }
            if (opts[0])
            {
                // Deserialize nonCriticalExtension
                // ...
            }
        }
 
        else
        {
            bIterator = DeserializeNull(bIterator);
        }
    }
 
    return GetSerializedSize();
}
 
void
RrcConnectionReleaseHeader::Print(std::ostream& os) const
{
}
 
void
RrcConnectionReleaseHeader::SetMessage(LteRrcSap::RrcConnectionRelease msg)
{
    m_rrcConnectionRelease = msg;
    m_isDataSerialized = false;
}
 
LteRrcSap::RrcConnectionRelease
RrcConnectionReleaseHeader::GetMessage() const
{
    return m_rrcConnectionRelease;
}
 
//////////////////// RrcConnectionRejectHeader class ////////////////////////
 
RrcConnectionRejectHeader::RrcConnectionRejectHeader()
{
}
 
RrcConnectionRejectHeader::~RrcConnectionRejectHeader()
{
}
 
void
RrcConnectionRejectHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    // Serialize CCCH message
    SerializeDlCcchMessage(2);
 
    // Serialize RrcConnectionReject sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize criticalExtensions choice
    SerializeChoice(2, 0, false);
 
    // Serialize c1 choice
    SerializeChoice(4, 0, false);
 
    // Serialize rrcConnectionReject-r8 sequence
    // 1 optional field (not present), no extension marker.
    SerializeSequence(std::bitset<1>(0), false);
 
    // Serialize waitTime
    SerializeInteger(m_rrcConnectionReject.waitTime, 1, 16);
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
RrcConnectionRejectHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeDlCcchMessage(bIterator);
 
    // Deserialize RrcConnectionReject sequence
    // 0 optional fields, no extension marker
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    // Deserialize criticalExtensions choice
    int criticalExtensionsChoice;
    bIterator = DeserializeChoice(2, false, &criticalExtensionsChoice, bIterator);
    if (criticalExtensionsChoice == 1)
    {
        // Deserialize criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (criticalExtensionsChoice == 0)
    {
        // Deserialize c1 choice
        int c1Choice;
        bIterator = DeserializeChoice(4, false, &c1Choice, bIterator);
 
        if (c1Choice > 0)
        {
            bIterator = DeserializeNull(bIterator);
        }
        else if (c1Choice == 0)
        {
            // Deserialize rrcConnectionReject-r8
            std::bitset<1> opts;
            bIterator = DeserializeSequence(&opts, false, bIterator);
 
            bIterator = DeserializeInteger(&n, 1, 16, bIterator);
            m_rrcConnectionReject.waitTime = n;
 
            if (opts[0])
            {
                // Deserialize RRCConnectionReject-v8a0-IEs
                // ...
            }
        }
    }
 
    return GetSerializedSize();
}
 
void
RrcConnectionRejectHeader::Print(std::ostream& os) const
{
    os << "wait time: " << (int)m_rrcConnectionReject.waitTime << std::endl;
}
 
void
RrcConnectionRejectHeader::SetMessage(LteRrcSap::RrcConnectionReject msg)
{
    m_rrcConnectionReject = msg;
    m_isDataSerialized = false;
}
 
LteRrcSap::RrcConnectionReject
RrcConnectionRejectHeader::GetMessage() const
{
    return m_rrcConnectionReject;
}
 
//////////////////// MeasurementReportHeader class ////////////////////////
 
MeasurementReportHeader::MeasurementReportHeader()
{
}
 
MeasurementReportHeader::~MeasurementReportHeader()
{
}
 
void
MeasurementReportHeader::PreSerialize() const
{
    m_serializationResult = Buffer();
 
    // Serialize DCCH message
    SerializeUlDcchMessage(1);
 
    // Serialize MeasurementReport sequence:
    // no default or optional fields. Extension marker not present.
    SerializeSequence(std::bitset<0>(), false);
 
    // Serialize criticalExtensions choice:
    // c1 chosen
    SerializeChoice(2, 0, false);
 
    // Serialize c1 choice
    // measurementReport-r8 chosen
    SerializeChoice(8, 0, false);
 
    // Serialize MeasurementReport-r8-IEs sequence:
    // 1 optional fields, not present. Extension marker not present.
    SerializeSequence(std::bitset<1>(0), false);
 
    // Serialize measResults
    SerializeMeasResults(m_measurementReport.measResults);
 
    // Finish serialization
    FinalizeSerialization();
}
 
uint32_t
MeasurementReportHeader::Deserialize(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
 
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
 
    bIterator = DeserializeUlDcchMessage(bIterator);
 
    int criticalExtensionsChoice;
    bIterator = DeserializeChoice(2, false, &criticalExtensionsChoice, bIterator);
 
    if (criticalExtensionsChoice == 1)
    {
        // Deserialize criticalExtensionsFuture
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
    }
    else if (criticalExtensionsChoice == 0)
    {
        // Deserialize c1
        int c1Choice;
        bIterator = DeserializeChoice(8, false, &c1Choice, bIterator);
 
        if (c1Choice > 0)
        {
            bIterator = DeserializeNull(bIterator);
        }
        else
        {
            // Deserialize measurementReport-r8
            std::bitset<1> isNonCriticalExtensionPresent;
            bIterator = DeserializeSequence(&isNonCriticalExtensionPresent, false, bIterator);
 
            // Deserialize measResults
            bIterator = DeserializeMeasResults(&m_measurementReport.measResults, bIterator);
 
            if (isNonCriticalExtensionPresent[0])
            {
                // Deserialize nonCriticalExtension MeasurementReport-v8a0-IEs
                // ...
            }
        }
    }
 
    return GetSerializedSize();
}
 
void
MeasurementReportHeader::Print(std::ostream& os) const
{
    os << "measId = " << (int)m_measurementReport.measResults.measId << std::endl;
    os << "rsrpResult = " << (int)m_measurementReport.measResults.measResultPCell.rsrpResult
       << std::endl;
    os << "rsrqResult = " << (int)m_measurementReport.measResults.measResultPCell.rsrqResult
       << std::endl;
    os << "haveMeasResultNeighCells = "
       << (int)m_measurementReport.measResults.haveMeasResultNeighCells << std::endl;
 
    if (m_measurementReport.measResults.haveMeasResultNeighCells)
    {
        std::list<LteRrcSap::MeasResultEutra> measResultListEutra =
            m_measurementReport.measResults.measResultListEutra;
        auto it = measResultListEutra.begin();
        for (; it != measResultListEutra.end(); it++)
        {
            os << "   physCellId =" << (int)it->physCellId << std::endl;
            os << "   haveCgiInfo =" << it->haveCgiInfo << std::endl;
            if (it->haveCgiInfo)
            {
                os << "      plmnIdentity = " << (int)it->cgiInfo.plmnIdentity << std::endl;
                os << "      cellIdentity = " << (int)it->cgiInfo.cellIdentity << std::endl;
                os << "      trackingAreaCode = " << (int)it->cgiInfo.trackingAreaCode << std::endl;
                os << "      havePlmnIdentityList = " << !it->cgiInfo.plmnIdentityList.empty()
                   << std::endl;
                if (!it->cgiInfo.plmnIdentityList.empty())
                {
                    for (auto it2 = it->cgiInfo.plmnIdentityList.begin();
                         it2 != it->cgiInfo.plmnIdentityList.end();
                         it2++)
                    {
                        os << "         plmnId : " << *it2 << std::endl;
                    }
                }
            }
 
            os << "   haveRsrpResult =" << it->haveRsrpResult << std::endl;
            if (it->haveRsrpResult)
            {
                os << "   rsrpResult =" << (int)it->rsrpResult << std::endl;
            }
 
            os << "   haveRsrqResult =" << it->haveRsrqResult << std::endl;
            if (it->haveRsrqResult)
            {
                os << "   rsrqResult =" << (int)it->rsrqResult << std::endl;
            }
        }
    }
}
 
void
MeasurementReportHeader::SetMessage(LteRrcSap::MeasurementReport msg)
{
    m_measurementReport = msg;
    m_isDataSerialized = false;
}
 
LteRrcSap::MeasurementReport
MeasurementReportHeader::GetMessage() const
{
    LteRrcSap::MeasurementReport msg;
    msg = m_measurementReport;
    return msg;
}
 
///////////////////  RrcUlDcchMessage //////////////////////////////////
RrcUlDcchMessage::RrcUlDcchMessage()
    : RrcAsn1Header()
{
}
 
RrcUlDcchMessage::~RrcUlDcchMessage()
{
}
 
uint32_t
RrcUlDcchMessage::Deserialize(Buffer::Iterator bIterator)
{
    DeserializeUlDcchMessage(bIterator);
    return 1;
}
 
void
RrcUlDcchMessage::Print(std::ostream& os) const
{
    std::cout << "UL DCCH MSG TYPE: " << m_messageType << std::endl;
}
 
void
RrcUlDcchMessage::PreSerialize() const
{
    SerializeUlDcchMessage(m_messageType);
}
 
Buffer::Iterator
RrcUlDcchMessage::DeserializeUlDcchMessage(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
    bIterator = DeserializeChoice(2, false, &n, bIterator);
    if (n == 1)
    {
        // Deserialize messageClassExtension
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
        m_messageType = -1;
    }
    else if (n == 0)
    {
        // Deserialize c1
        bIterator = DeserializeChoice(16, false, &m_messageType, bIterator);
    }
 
    return bIterator;
}
 
void
RrcUlDcchMessage::SerializeUlDcchMessage(int messageType) const
{
    SerializeSequence(std::bitset<0>(), false);
    // Choose c1
    SerializeChoice(2, 0, false);
    // Choose message type
    SerializeChoice(16, messageType, false);
}
 
///////////////////  RrcDlDcchMessage //////////////////////////////////
RrcDlDcchMessage::RrcDlDcchMessage()
    : RrcAsn1Header()
{
}
 
RrcDlDcchMessage::~RrcDlDcchMessage()
{
}
 
uint32_t
RrcDlDcchMessage::Deserialize(Buffer::Iterator bIterator)
{
    DeserializeDlDcchMessage(bIterator);
    return 1;
}
 
void
RrcDlDcchMessage::Print(std::ostream& os) const
{
    std::cout << "DL DCCH MSG TYPE: " << m_messageType << std::endl;
}
 
void
RrcDlDcchMessage::PreSerialize() const
{
    SerializeDlDcchMessage(m_messageType);
}
 
Buffer::Iterator
RrcDlDcchMessage::DeserializeDlDcchMessage(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
    bIterator = DeserializeChoice(2, false, &n, bIterator);
    if (n == 1)
    {
        // Deserialize messageClassExtension
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
        m_messageType = -1;
    }
    else if (n == 0)
    {
        // Deserialize c1
        bIterator = DeserializeChoice(16, false, &m_messageType, bIterator);
    }
 
    return bIterator;
}
 
void
RrcDlDcchMessage::SerializeDlDcchMessage(int messageType) const
{
    SerializeSequence(std::bitset<0>(), false);
    // Choose c1
    SerializeChoice(2, 0, false);
    // Choose message type
    SerializeChoice(16, messageType, false);
}
 
///////////////////  RrcUlCcchMessage //////////////////////////////////
RrcUlCcchMessage::RrcUlCcchMessage()
    : RrcAsn1Header()
{
}
 
RrcUlCcchMessage::~RrcUlCcchMessage()
{
}
 
uint32_t
RrcUlCcchMessage::Deserialize(Buffer::Iterator bIterator)
{
    DeserializeUlCcchMessage(bIterator);
    return 1;
}
 
void
RrcUlCcchMessage::Print(std::ostream& os) const
{
    std::cout << "UL CCCH MSG TYPE: " << m_messageType << std::endl;
}
 
void
RrcUlCcchMessage::PreSerialize() const
{
    SerializeUlCcchMessage(m_messageType);
}
 
Buffer::Iterator
RrcUlCcchMessage::DeserializeUlCcchMessage(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
    bIterator = DeserializeChoice(2, false, &n, bIterator);
    if (n == 1)
    {
        // Deserialize messageClassExtension
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
        m_messageType = -1;
    }
    else if (n == 0)
    {
        // Deserialize c1
        bIterator = DeserializeChoice(2, false, &m_messageType, bIterator);
    }
 
    return bIterator;
}
 
void
RrcUlCcchMessage::SerializeUlCcchMessage(int messageType) const
{
    SerializeSequence(std::bitset<0>(), false);
    // Choose c1
    SerializeChoice(2, 0, false);
    // Choose message type
    SerializeChoice(2, messageType, false);
}
 
///////////////////  RrcDlCcchMessage //////////////////////////////////
RrcDlCcchMessage::RrcDlCcchMessage()
    : RrcAsn1Header()
{
}
 
RrcDlCcchMessage::~RrcDlCcchMessage()
{
}
 
uint32_t
RrcDlCcchMessage::Deserialize(Buffer::Iterator bIterator)
{
    DeserializeDlCcchMessage(bIterator);
    return 1;
}
 
void
RrcDlCcchMessage::Print(std::ostream& os) const
{
    std::cout << "DL CCCH MSG TYPE: " << m_messageType << std::endl;
}
 
void
RrcDlCcchMessage::PreSerialize() const
{
    SerializeDlCcchMessage(m_messageType);
}
 
Buffer::Iterator
RrcDlCcchMessage::DeserializeDlCcchMessage(Buffer::Iterator bIterator)
{
    std::bitset<0> bitset0;
    int n;
 
    bIterator = DeserializeSequence(&bitset0, false, bIterator);
    bIterator = DeserializeChoice(2, false, &n, bIterator);
    if (n == 1)
    {
        // Deserialize messageClassExtension
        bIterator = DeserializeSequence(&bitset0, false, bIterator);
        m_messageType = -1;
    }
    else if (n == 0)
    {
        // Deserialize c1
        bIterator = DeserializeChoice(4, false, &m_messageType, bIterator);
    }
 
    return bIterator;
}
 
void
RrcDlCcchMessage::SerializeDlCcchMessage(int messageType) const
{
    SerializeSequence(std::bitset<0>(), false);
    // Choose c1
    SerializeChoice(2, 0, false);
    // Choose message type
    SerializeChoice(4, messageType, false);
}
 
} // namespace ns3