frameworkphy.cc

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/*
 * Copyright (c) 2013-2014,2016-2017 - Adjacent Link LLC, Bridgewater,
 * New Jersey
 * All rights reserved.
 *
 * Redistribution and use in source and binary forms, with or without
 * modification, are permitted provided that the following conditions
 * are met:
 *
 * * Redistributions of source code must retain the above copyright
 *   notice, this list of conditions and the following disclaimer.
 * * Redistributions in binary form must reproduce the above copyright
 *   notice, this list of conditions and the following disclaimer in
 *   the documentation and/or other materials provided with the
 *   distribution.
 * * Neither the name of Adjacent Link LLC nor the names of its
 *   contributors may be used to endorse or promote products derived
 *   from this software without specific prior written permission.
 *
 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS
 * FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE
 * COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT,
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 * BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES;
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 * CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
 * LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN
 * ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE
 * POSSIBILITY OF SUCH DAMAGE.
 */

#include "frameworkphy.h"

#include "emane/commonphyheader.h"
#include "emane/configureexception.h"
#include "emane/spectrumserviceexception.h"

#include "emane/utils/conversionutils.h"

#include "emane/events/antennaprofileevent.h"
#include "emane/events/antennaprofileeventformatter.h"
#include "emane/events/locationevent.h"
#include "emane/events/locationeventformatter.h"
#include "emane/events/pathlossevent.h"
#include "emane/events/pathlosseventformatter.h"
#include "emane/events/fadingselectionevent.h"
#include "emane/events/fadingselectioneventformatter.h"

#include "emane/controls/frequencycontrolmessage.h"
#include "emane/controls/frequencyofinterestcontrolmessage.h"
#include "emane/controls/otatransmittercontrolmessage.h"
#include "emane/controls/transmittercontrolmessage.h"
#include "emane/controls/receivepropertiescontrolmessage.h"
#include "emane/controls/antennaprofilecontrolmessage.h"
#include "emane/controls/timestampcontrolmessage.h"

#include "emane/controls/frequencycontrolmessageformatter.h"
#include "emane/controls/transmittercontrolmessageformatter.h"
#include "emane/controls/frequencyofinterestcontrolmessageformatter.h"

#include "freespacepropagationmodelalgorithm.h"
#include "tworaypropagationmodelalgorithm.h"
#include "precomputedpropagationmodelalgorithm.h"

namespace
{
  const std::uint16_t DROP_CODE_OUT_OF_BAND                 = 1;
  const std::uint16_t DROP_CODE_RX_SENSITIVITY              = 2;
  const std::uint16_t DROP_CODE_PROPAGATIONMODEL            = 3;
  const std::uint16_t DROP_CODE_GAINMANAGER_LOCATION        = 4;
  const std::uint16_t DROP_CODE_GAINMANAGER_HORIZON         = 5;
  const std::uint16_t DROP_CODE_GAINMANAGER_ANTENNAPROFILE  = 6;
  const std::uint16_t DROP_CODE_NOT_FOI                     = 7;
  const std::uint16_t DROP_CODE_SPECTRUM_CLAMP              = 8;
  const std::uint16_t DROP_CODE_FADINGMANAGER_LOCATION      = 9;
  const std::uint16_t DROP_CODE_FADINGMANAGER_ALGORITHM     = 10;
  const std::uint16_t DROP_CODE_FADINGMANAGER_SELECTION     = 11;

  EMANE::StatisticTableLabels STATISTIC_TABLE_LABELS{"Out-of-Band",
      "Rx Sensitivity",
      "Propagation Model",
      "Gain Location",
      "Gain Horizon",
      "Gain Profile",
      "Not FOI",
      "Spectrum Clamp",
      "Fade Location",
      "Fade Algorithm",
      "Fade Select"};

  const std::string FADINGMANAGER_PREFIX{"fading."};
}

EMANE::FrameworkPHY::FrameworkPHY(NEMId id,
                                  PlatformServiceProvider * pPlatformService,
                                  SpectrumMonitor * pSpectrumMonitor):
  PHYLayerImplementor{id, pPlatformService},
  pSpectrumMonitor_{pSpectrumMonitor},
  gainManager_{id},
  locationManager_{id},
  u64BandwidthHz_{},
  dTxPowerdBm_{},
  u64TxFrequencyHz_{},
  dReceiverSensitivitydBm_{},
  noiseMode_{},
  u16SubId_{},
  u16TxSequenceNumber_{},
  commonLayerStatistics_{STATISTIC_TABLE_LABELS,{},"0"},
  eventTablePublisher_{id},
  noiseBinSize_{},
  maxSegmentOffset_{},
  maxMessagePropagation_{},
  maxSegmentDuration_{},
  timeSyncThreshold_{},
  bNoiseMaxClamp_{},
  dSystemNoiseFiguredB_{},
  fadingManager_{id, pPlatformService,FADINGMANAGER_PREFIX}{}

EMANE::FrameworkPHY::~FrameworkPHY(){}

void EMANE::FrameworkPHY::initialize(Registrar & registrar)
{
  auto & configRegistrar = registrar.configurationRegistrar();

  configRegistrar.registerNumeric<double>("fixedantennagain",
                                          EMANE::ConfigurationProperties::DEFAULT |
                                          EMANE::ConfigurationProperties::MODIFIABLE,
                                          {0},
                                          "Defines the antenna gain in dBi and is valid only when"
                                          " fixedantennagainenable is enabled.");

  configRegistrar.registerNumeric<bool>("fixedantennagainenable",
                                        EMANE::ConfigurationProperties::DEFAULT,
                                        {true},
                                        "Defines whether fixed antenna gain is used or whether"
                                        " antenna profiles are in use.");

  configRegistrar.registerNumeric<std::uint64_t>("bandwidth",
                                                 EMANE::ConfigurationProperties::DEFAULT,
                                                 {1000000},
                                                 "Defines receiver bandwidth in Hz and also serves as the"
                                                 " default bandwidth for OTA transmissions when not provided"
                                                 " by the MAC.",
                                                 1);

  configRegistrar.registerNumeric<std::uint64_t>("frequency",
                                                 EMANE::ConfigurationProperties::DEFAULT,
                                                 {2347000000},
                                                 "Defines the default transmit center frequency in Hz when not"
                                                 " provided by the MAC. This value is included in the Common PHY"
                                                 " Header of all transmitted OTA packets.",
                                                 1);

  configRegistrar.registerNumeric<std::uint64_t>("frequencyofinterest",
                                                 EMANE::ConfigurationProperties::DEFAULT,
                                                 {2347000000},
                                                 "Defines a set of center frequencies in Hz that are monitored"
                                                 " for reception as either in-band or out-of-band.",
                                                 std::numeric_limits<std::uint64_t>::min(),
                                                 std::numeric_limits<std::uint64_t>::max(),
                                                 1,
                                                 std::numeric_limits<std::size_t>::max());

  configRegistrar.registerNonNumeric<std::string>("noisemode",
                                                  EMANE::ConfigurationProperties::DEFAULT,
                                                  {"all"},
                                                  "Defines the noise processing mode of operation:"
                                                  " none, all or outofband.",
                                                  1,
                                                  1,
                                                  "^(none|all|outofband)$");


  configRegistrar.registerNumeric<std::uint64_t>("noisebinsize",
                                                 EMANE::ConfigurationProperties::DEFAULT,
                                                 {20},
                                                 "Defines the noise bin size in microseconds and translates"
                                                 " into timing accuracy associated with aligning the start and"
                                                 " end of reception times of multiple packets for modeling of"
                                                 " interference effects.",
                                                 1);

  configRegistrar.registerNumeric<bool>("noisemaxclampenable",
                                        EMANE::ConfigurationProperties::DEFAULT,
                                        {false},
                                        "Defines whether segment offset, segment duration and message"
                                        " propagation associated with a received packet will be clamped"
                                        " to their respective maximums defined by noisemaxsegmentoffset,"
                                        " noisemaxsegmentduration and noisemaxmessagepropagation. When"
                                        " disabled, any packet with an above max value will be dropped.");


  configRegistrar.registerNumeric<std::uint64_t>("noisemaxsegmentoffset",
                                                 EMANE::ConfigurationProperties::DEFAULT,
                                                 {300000},
                                                 "Noise maximum segment offset in microseconds.",
                                                 1);

  configRegistrar.registerNumeric<std::uint64_t>("noisemaxmessagepropagation",
                                                 EMANE::ConfigurationProperties::DEFAULT,
                                                 {200000},
                                                 "Noise maximum message propagation in microseconds.",
                                                 1);

  configRegistrar.registerNumeric<std::uint64_t>("noisemaxsegmentduration",
                                                 EMANE::ConfigurationProperties::DEFAULT,
                                                 {1000000},
                                                 "Noise maximum segment duration in microseconds.",
                                                 1);

  configRegistrar.registerNumeric<std::uint64_t>("timesyncthreshold",
                                                 EMANE::ConfigurationProperties::DEFAULT,
                                                 {10000},
                                                 "Defines the time sync detection threshold in microseconds."
                                                 " If a received OTA message is more than this threshold, the"
                                                 " message reception time will be used as the source transmission"
                                                 " time instead of the time contained in the Common PHY Header."
                                                 " This allows the emulator to be used across distributed nodes"
                                                 " without time sync.",
                                                 1);

  configRegistrar.registerNonNumeric<std::string>("propagationmodel",
                                                  EMANE::ConfigurationProperties::DEFAULT,
                                                  {"precomputed"},
                                                  "Defines the pathloss mode of operation:"
                                                  " precomputed, 2ray or freespace.",
                                                  1,
                                                  1,
                                                  "^(precomputed|2ray|freespace)$");

  configRegistrar.registerNumeric<double>("systemnoisefigure",
                                          EMANE::ConfigurationProperties::DEFAULT,
                                          {4.0},
                                          "Defines the system noise figure in dB and is used to determine the"
                                          " receiver sensitivity.");

  configRegistrar.registerNumeric<std::uint16_t>("subid",
                                                 EMANE::ConfigurationProperties::REQUIRED,
                                                 {},
                                                 "Defines the emulator PHY subid used by multiple NEM"
                                                 " definitions. Once instantiated, these NEMs may be using the"
                                                 " same frequency. In order to differentiate between emulator"
                                                 " PHY instances for different waveforms, the subid is used as"
                                                 " part of the unique waveform identifying tuple: PHY Layer"
                                                 " Registration Id, emulator PHY subid and packet center"
                                                 " frequency.",
                                                 1);

  configRegistrar.registerNumeric<double>("txpower",
                                          EMANE::ConfigurationProperties::DEFAULT |
                                          EMANE::ConfigurationProperties::MODIFIABLE,
                                          {0.0},
                                          "Defines the transmit power in dBm.");
  auto & eventRegistrar = registrar.eventRegistrar();

  eventRegistrar.registerEvent(Events::PathlossEvent::IDENTIFIER);

  eventRegistrar.registerEvent(Events::LocationEvent::IDENTIFIER);

  eventRegistrar.registerEvent(Events::AntennaProfileEvent::IDENTIFIER);

  eventRegistrar.registerEvent(Events::FadingSelectionEvent::IDENTIFIER);

  auto & statisticRegistrar = registrar.statisticRegistrar();

  commonLayerStatistics_.registerStatistics(statisticRegistrar);

  eventTablePublisher_.registerStatistics(statisticRegistrar);

  receivePowerTablePublisher_.registerStatistics(statisticRegistrar);

  pTimeSyncThresholdRewrite_ =
    statisticRegistrar.registerNumeric<std::uint64_t>("numTimeSyncThresholdRewrite",
                                                      StatisticProperties::CLEARABLE);

  fadingManager_.initialize(registrar);
}

void EMANE::FrameworkPHY::configure(const ConfigurationUpdate & update)
{
  FrequencySet foi{};
  ConfigurationUpdate fadingManagerConfiguration{};

  for(const auto & item : update)
    {
      if(item.first == "bandwidth")
        {
          u64BandwidthHz_ = item.second[0].asUINT64();

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %ju Hz",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  u64BandwidthHz_);
        }
      else if(item.first == "fixedantennagain")
        {
          optionalFixedAntennaGaindBi_.first = item.second[0].asDouble();

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %3.2f dBi",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  optionalFixedAntennaGaindBi_.first);

        }
      else if(item.first == "fixedantennagainenable")
        {
          optionalFixedAntennaGaindBi_.second = item.second[0].asBool();

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %s",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  optionalFixedAntennaGaindBi_.second ? "on" : "off");
        }
      else if(item.first == "propagationmodel")
        {
          std::string sPropagationModel{item.second[0].asString()};

          // regex has already validated values
          if(sPropagationModel == "precomputed")
            {
              pPropagationModelAlgorithm_.reset(new PrecomputedPropagationModelAlgorithm{id_});
            }
          else if(sPropagationModel == "2ray")
            {
              pPropagationModelAlgorithm_.reset(new TwoRayPropagationModelAlgorithm{id_});
            }
          else
            {
              pPropagationModelAlgorithm_.reset(new FreeSpacePropagationModelAlgorithm{id_});
            }

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %s",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  sPropagationModel.c_str());
        }
      else if(item.first == "noisemode")
        {
          std::string sNoiseMode{item.second[0].asString()};

          // regex has already validated values
          if(sNoiseMode == "all")
            {
              noiseMode_ = SpectrumMonitor::NoiseMode::ALL;
            }
          else if(sNoiseMode == "none")
            {
              noiseMode_ = SpectrumMonitor::NoiseMode::NONE;
            }
          else
            {
              noiseMode_ = SpectrumMonitor::NoiseMode::OUTOFBAND;
            }

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %s",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  sNoiseMode.c_str());
        }
      else if(item.first == "noisebinsize")
        {
          noiseBinSize_ = Microseconds{item.second[0].asUINT64()};

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %ju usec",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  noiseBinSize_.count());
        }
      else if(item.first == "noisemaxclampenable")
        {
          bNoiseMaxClamp_ = item.second[0].asBool();

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %s",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  bNoiseMaxClamp_ ? "on" : "off");
        }
      else if(item.first == "noisemaxsegmentoffset")
        {
          maxSegmentOffset_ = Microseconds{item.second[0].asUINT64()};

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %ju usec",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  maxSegmentOffset_.count());
        }
      else if(item.first == "noisemaxmessagepropagation")
        {
          maxMessagePropagation_ = Microseconds{item.second[0].asUINT64()};

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %ju usec",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  maxMessagePropagation_.count());
        }
      else if(item.first == "noisemaxsegmentduration")
        {
          maxSegmentDuration_ = Microseconds{item.second[0].asUINT64()};

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %ju usec",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  maxSegmentDuration_.count());
        }
      else if(item.first == "timesyncthreshold")
        {
          timeSyncThreshold_ = Microseconds{item.second[0].asUINT64()};

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %ju usec",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  timeSyncThreshold_.count());
        }
      else if(item.first == "systemnoisefigure")
        {
          dSystemNoiseFiguredB_ = item.second[0].asDouble();

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %3.2f dB",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  dSystemNoiseFiguredB_);
        }
      else if(item.first == "frequencyofinterest")
        {
          for(const auto & any : item.second)
            {
              std::uint64_t u64Value{any.asUINT64()};

              // try to add value to foi set
              if(foi.insert(u64Value).second)
                {
                  LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                          INFO_LEVEL,
                                          "PHYI %03hu FrameworkPHY::%s: %s = %ju Hz",
                                          id_,
                                          __func__,
                                          item.first.c_str(),
                                          u64Value);
                }
              else
                {
                  throw makeException<ConfigureException>("FrameworkPHY duplicate frequency of interest found: %ju",
                                                          u64Value);

                }
            }
        }
      else if(item.first == "txpower")
        {
          dTxPowerdBm_ = item.second[0].asDouble();

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %3.2f dBm",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  dTxPowerdBm_);
        }
      else if(item.first == "frequency")
        {
          u64TxFrequencyHz_ = item.second[0].asUINT64();

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %ju Hz",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  u64TxFrequencyHz_);
        }
      else if(item.first == "subid")
        {
          u16SubId_ = item.second[0].asUINT16();

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %hu",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  u16SubId_);
        }
      else
        {
          if(!item.first.compare(0,FADINGMANAGER_PREFIX.size(),FADINGMANAGER_PREFIX))
            {
              fadingManagerConfiguration.push_back(item);
            }
          else
            {
              throw makeException<ConfigureException>("FrameworkPHY: Unexpected configuration item %s",
                                                      item.first.c_str());
            }
        }
    }

  fadingManager_.configure(fadingManagerConfiguration);

  dReceiverSensitivitydBm_ = THERMAL_NOISE_DB + dSystemNoiseFiguredB_ + 10.0 * log10(u64BandwidthHz_);

  if((maxSegmentOffset_ + maxMessagePropagation_ + 2 * maxSegmentDuration_) % noiseBinSize_ !=
     Microseconds::zero())
    {
      throw makeException<ConfigureException>("noisemaxsegmentoffset + noisemaxmessagepropagation"
                                              " + 2 * noisemaxsegmentduration not evenly divisible by the"
                                              " noisebinsize");
    }

  pSpectrumMonitor_->initialize(foi,
                                u64BandwidthHz_,
                                Utils::DB_TO_MILLIWATT(dReceiverSensitivitydBm_),
                                noiseMode_,
                                noiseBinSize_,
                                maxSegmentOffset_,
                                maxMessagePropagation_,
                                maxSegmentDuration_,
                                timeSyncThreshold_,
                                bNoiseMaxClamp_);
}

void EMANE::FrameworkPHY::start()
{
  LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                          DEBUG_LEVEL,
                          "PHYI %03hu FrameworkPHY::%s",
                          id_,
                          __func__);
}

void EMANE::FrameworkPHY::stop()
{
  LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                          DEBUG_LEVEL,
                          "PHYI %03hu FrameworkPHY::%s",
                          id_,
                          __func__);
}

void EMANE::FrameworkPHY::destroy() throw()
{
  LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                          DEBUG_LEVEL,
                          "PHYI %03hu FrameworkPHY::%s",
                          id_,
                          __func__);

}

void EMANE::FrameworkPHY::processConfiguration(const ConfigurationUpdate & update)
{
  ConfigurationUpdate fadingManagerConfiguration{};

  for(const auto & item : update)
    {
      if(item.first == "fixedantennagain")
        {
          optionalFixedAntennaGaindBi_.first = item.second[0].asDouble();

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %3.2f dBi",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  optionalFixedAntennaGaindBi_.first);

        }
      else if(item.first == "txpower")
        {
          dTxPowerdBm_ = item.second[0].asDouble();

          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                  INFO_LEVEL,
                                  "PHYI %03hu FrameworkPHY::%s: %s = %3.2f dBm",
                                  id_,
                                  __func__,
                                  item.first.c_str(),
                                  dTxPowerdBm_);
        }
      else
        {
          if(!item.first.compare(0,FADINGMANAGER_PREFIX.size(),FADINGMANAGER_PREFIX))
            {
              fadingManagerConfiguration.push_back(item);
            }
        }
    }

  fadingManager_.modify(fadingManagerConfiguration);
}

void EMANE::FrameworkPHY::processDownstreamControl(const ControlMessages & msgs)
{
  LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                          DEBUG_LEVEL,
                          "PHYI %03hu FrameworkPHY::%s",
                          id_,
                          __func__);

  for(const auto & pMessage : msgs)
    {
      switch(pMessage->getId())
        {
        case Controls::AntennaProfileControlMessage::IDENTIFIER:
          {
            const auto pAntennaProfileControlMessage =
              reinterpret_cast<const Controls::AntennaProfileControlMessage *>(pMessage);

            Events::AntennaProfiles profiles{{id_,
                  pAntennaProfileControlMessage->getAntennaProfileId(),
                  pAntennaProfileControlMessage->getAntennaAzimuthDegrees(),
                  pAntennaProfileControlMessage->getAntennaElevationDegrees()}};

            gainManager_.update(profiles);

            pPlatformService_->eventService().sendEvent(0,Events::AntennaProfileEvent{profiles});
          }
          break;

        case Controls::FrequencyOfInterestControlMessage::IDENTIFIER:
          {
            const auto pFrequencyOfInterestControlMessage =
              reinterpret_cast<const Controls::FrequencyOfInterestControlMessage *>(pMessage);

            LOGGER_VERBOSE_LOGGING_FN_VARGS(pPlatformService_->logService(),
                                            DEBUG_LEVEL,
                                            Controls::FrequencyOfInterestControlMessageFormatter(pFrequencyOfInterestControlMessage),
                                            "PHYI %03hu FrameworkPHY::%s Frequency of Interest Control Message",
                                            id_,
                                            __func__);

            u64BandwidthHz_ = pFrequencyOfInterestControlMessage->getBandwidthHz();

            dReceiverSensitivitydBm_ =
              THERMAL_NOISE_DB + dSystemNoiseFiguredB_ + 10.0 * log10(u64BandwidthHz_);

            pSpectrumMonitor_->initialize(pFrequencyOfInterestControlMessage->getFrequencySet(),
                                          u64BandwidthHz_,
                                          Utils::DB_TO_MILLIWATT(dReceiverSensitivitydBm_),
                                          noiseMode_,
                                          noiseBinSize_,
                                          maxSegmentOffset_,
                                          maxMessagePropagation_,
                                          maxSegmentDuration_,
                                          timeSyncThreshold_,
                                          bNoiseMaxClamp_);

          }

          break;

        default:
          LOGGER_VERBOSE_LOGGING(pPlatformService_->logService(),
                                 DEBUG_LEVEL,
                                 "PHYI %03hu FrameworkPHY::%s, unexpected contoll message, ignore",
                                 id_,
                                 __func__);
        }
    }
}

void EMANE::FrameworkPHY::processDownstreamPacket(DownstreamPacket & pkt,
                                                  const ControlMessages & msgs)
{
  auto now = Clock::now();

  const PacketInfo & pktInfo{pkt.getPacketInfo()};

  LOGGER_VERBOSE_LOGGING(pPlatformService_->logService(),
                         DEBUG_LEVEL,
                         "PHYI %03hu FrameworkPHY::%s src %hu, dst %hu",
                         id_,
                         __func__,
                         pktInfo.getSource(),
                         pktInfo.getDestination());

  commonLayerStatistics_.processInbound(pkt);

  // use the default unless provided below
  std::uint64_t u64BandwidthHz{u64BandwidthHz_};

  // use the default unless provided below
  Transmitters transmitters{{id_, dTxPowerdBm_}};

  // use the default unless provided below
  FrequencySegments frequencySegments{{u64TxFrequencyHz_,Microseconds::zero()}};

  Controls::OTATransmitters otaTransmitters;

  TimePoint txTimeStamp{now};

  for(const auto & pMessage : msgs)
    {
      switch(pMessage->getId())
        {
        case Controls::TransmitterControlMessage::IDENTIFIER:
          {
            const auto pTransmitterControlMessage =
              static_cast<const Controls::TransmitterControlMessage *>(pMessage);


            LOGGER_VERBOSE_LOGGING_FN_VARGS(pPlatformService_->logService(),
                                            DEBUG_LEVEL,
                                            Controls::TransmitterControlMessageFormatter(pTransmitterControlMessage),
                                            "PHYI %03hu FrameworkPHY::%s Transmitter Control Message",
                                            id_,
                                            __func__);

            transmitters = pTransmitterControlMessage->getTransmitters();

            // build the list of OTA transmitters
            std::for_each(transmitters.begin(),
                          transmitters.end(),
                          [&otaTransmitters](const Transmitter & transmitter)
                          {
                            otaTransmitters.insert(transmitter.getNEMId());
                          });
          }

          break;

        case Controls::FrequencyControlMessage::IDENTIFIER:
          {
            const auto pFrequencyControlMessage =
              static_cast<const Controls::FrequencyControlMessage *>(pMessage);

            // the mac will be supplying frequency segment info so lets clear the defaults
            frequencySegments.clear();

            for(const auto & segment : pFrequencyControlMessage->getFrequencySegments())
              {
                // for convience a mac can set duration and offset without specifying frequency
                // by using 0 Hz.
                if(segment.getFrequencyHz() == 0)
                  {
                    if(segment.getPowerdBm().second)
                      {
                        frequencySegments.push_back({u64TxFrequencyHz_,       // use our frequency
                              segment.getPowerdBm().first,
                              segment.getDuration(), // duration
                              segment.getOffset()}); // offset
                      }
                    else
                      {
                        frequencySegments.push_back({u64TxFrequencyHz_,       // use our frequency
                              segment.getDuration(), // duration
                              segment.getOffset()}); // offset
                      }
                  }
                else
                  {
                    frequencySegments.push_back(segment);
                  }
              }

            // if bandwidth provided is not 0, use the provided value,
            // otherwise keep our default value from above
            if(pFrequencyControlMessage->getBandwidthHz() != 0)
              {
                u64BandwidthHz = pFrequencyControlMessage->getBandwidthHz();
              }

            LOGGER_VERBOSE_LOGGING_FN_VARGS(pPlatformService_->logService(),
                                            DEBUG_LEVEL,
                                            Controls::FrequencyControlMessageFormatter(pFrequencyControlMessage),
                                            "PHYI %03hu FrameworkPHY::%s Frequency Control Message",
                                            id_,
                                            __func__);
          }

          break;

        case Controls::AntennaProfileControlMessage::IDENTIFIER:
          {
            const auto pAntennaProfileControlMessage =
              static_cast<const Controls::AntennaProfileControlMessage *>(pMessage);

            LOGGER_VERBOSE_LOGGING(pPlatformService_->logService(),
                                   DEBUG_LEVEL,
                                   "PHYI %03hu FrameworkPHY::%s Antenna Profile Control Message "
                                   "profile %hu azimuth %lf elevation %lf",
                                   id_,
                                   __func__,
                                   pAntennaProfileControlMessage->getAntennaProfileId(),
                                   pAntennaProfileControlMessage->getAntennaAzimuthDegrees(),
                                   pAntennaProfileControlMessage->getAntennaElevationDegrees());

            Events::AntennaProfiles profiles{{id_,
                  pAntennaProfileControlMessage->getAntennaProfileId(),
                  pAntennaProfileControlMessage->getAntennaAzimuthDegrees(),
                  pAntennaProfileControlMessage->getAntennaElevationDegrees()}};

            gainManager_.update(profiles);

            pkt.attachEvent(0,Events::AntennaProfileEvent{profiles});
          }

          break;

        case Controls::TimeStampControlMessage::IDENTIFIER:
          {
            const auto pTimestampControlMessage =
              static_cast<const Controls::TimeStampControlMessage *>(pMessage);


            txTimeStamp = pTimestampControlMessage->getTimeStamp();

            LOGGER_VERBOSE_LOGGING(pPlatformService_->logService(),
                                   DEBUG_LEVEL,
                                   "PHYI %03hu FrameworkPHY::%s Time Stamp Control Message "
                                   "timestamp %.6f",
                                   id_,
                                   __func__,
                                   std::chrono::duration_cast<DoubleSeconds>(txTimeStamp.time_since_epoch()).count());
          }

          break;

        case Controls::FrequencyOfInterestControlMessage::IDENTIFIER:
          {
            const auto pFrequencyOfInterestControlMessage =
              reinterpret_cast<const Controls::FrequencyOfInterestControlMessage *>(pMessage);

            LOGGER_VERBOSE_LOGGING_FN_VARGS(pPlatformService_->logService(),
                                            DEBUG_LEVEL,
                                            Controls::FrequencyOfInterestControlMessageFormatter(pFrequencyOfInterestControlMessage),
                                            "PHYI %03hu FrameworkPHY::%s Frequency of Interest Control Message",
                                            id_,
                                            __func__);

            u64BandwidthHz_ = pFrequencyOfInterestControlMessage->getBandwidthHz();

            dReceiverSensitivitydBm_ =
              THERMAL_NOISE_DB + dSystemNoiseFiguredB_ + 10.0 * log10(u64BandwidthHz_);

            pSpectrumMonitor_->initialize(pFrequencyOfInterestControlMessage->getFrequencySet(),
                                          u64BandwidthHz_,
                                          Utils::DB_TO_MILLIWATT(dReceiverSensitivitydBm_),
                                          noiseMode_,
                                          noiseBinSize_,
                                          maxSegmentOffset_,
                                          maxMessagePropagation_,
                                          maxSegmentDuration_,
                                          timeSyncThreshold_,
                                          bNoiseMaxClamp_);


          }

          break;
        }
    }


  // verify the transmitters list include this nem
  if(std::find_if(transmitters.begin(),
                  transmitters.end(),
                  [this](const Transmitter & transmitter)
                  {
                    return transmitter.getNEMId() == this->id_;
                  }) == transmitters.end())
    {
      transmitters.push_back({id_,dTxPowerdBm_});
    }


  CommonPHYHeader phyHeader{REGISTERED_EMANE_PHY_FRAMEWORK, // phy registration id
      u16SubId_,
      u16TxSequenceNumber_++,
      u64BandwidthHz,
      txTimeStamp,
      frequencySegments,
      transmitters,
      optionalFixedAntennaGaindBi_};

  LOGGER_VERBOSE_LOGGING_FN_VARGS(pPlatformService_->logService(),
                                  DEBUG_LEVEL,
                                  std::bind(&CommonPHYHeader::format, std::ref(phyHeader)),
                                  "PHYI %03hu FrameworkPHY::%s Common PHY Header",
                                  id_,
                                  __func__);

  ControlMessages downstreamControlMessages{};

  if(!otaTransmitters.empty())
    {
      downstreamControlMessages.
        push_back(Controls::OTATransmitterControlMessage::create(otaTransmitters));
    }

  commonLayerStatistics_.processOutbound(pkt,
                                         std::chrono::duration_cast<Microseconds>(Clock::now() - now));


  sendDownstreamPacket(std::move(phyHeader),pkt,std::move(downstreamControlMessages));
}


void EMANE::FrameworkPHY::processUpstreamPacket(const CommonPHYHeader & commonPHYHeader,
                                                UpstreamPacket & pkt,
                                                const ControlMessages &)
{
  processUpstreamPacket_i(Clock::now(),commonPHYHeader,pkt,{});
}

void EMANE::FrameworkPHY::processUpstreamPacket_i(const TimePoint & now,
                                                  const CommonPHYHeader & commonPHYHeader,
                                                  UpstreamPacket & pkt,
                                                  const ControlMessages &)
{
  LOGGER_VERBOSE_LOGGING_FN_VARGS(pPlatformService_->logService(),
                                  DEBUG_LEVEL,
                                  std::bind(&CommonPHYHeader::format, std::ref(commonPHYHeader)),
                                  "PHYI %03hu FrameworkPHY::%s Common PHY Header",
                                  id_,
                                  __func__);

  commonLayerStatistics_.processInbound(pkt);

  const  auto & pktInfo = pkt.getPacketInfo();

  bool bInBand{commonPHYHeader.getRegistrationId() == REGISTERED_EMANE_PHY_FRAMEWORK &&
      u16SubId_ == commonPHYHeader.getSubId()};

  // unless this is an in-band packet, it will only be processed if
  // noise processing is on
  if(bInBand || noiseMode_ != SpectrumMonitor::NoiseMode::NONE)
    {
      bool bDrop{};

      const auto & frequencySegments = commonPHYHeader.getFrequencySegments();

      std::vector<double> rxPowerSegments(frequencySegments.size(),0);

      Microseconds propagation{};

      bool bHavePropagationDelay{};

      std::vector<NEMId> transmitters{};

      for(const auto & transmitter :  commonPHYHeader.getTransmitters())
        {
          transmitters.push_back(transmitter.getNEMId());

          // get the location info for a pair of nodes
          auto locationPairInfoRet = locationManager_.getLocationInfo(transmitter.getNEMId());

          // get the propagation model pathloss between a pair of nodes for *each* segment
          auto pathlossInfo = (*pPropagationModelAlgorithm_)(transmitter.getNEMId(),
                                                             locationPairInfoRet.first,
                                                             frequencySegments);

          // if pathloss is available
          if(pathlossInfo.second)
            {
              // calculate the combined gain (Tx + Rx antenna gain) dBi
              // note: gain manager accesses antenna profiles, knows self node profile info
              //       if available, and is updated with all nodes profile info
              auto gainInfodBi = gainManager_.determineGain(transmitter.getNEMId(),
                                                            locationPairInfoRet.first,
                                                            optionalFixedAntennaGaindBi_,
                                                            commonPHYHeader.getOptionalFixedAntennaGaindBi());

              // if gain is available
              if(gainInfodBi.second == EMANE::GainManager::GainStatus::SUCCESS)
                {
                  using ReceivePowerPubisherUpdate = std::tuple<NEMId,std::uint64_t,double>;

                  // set to prevent multiple ReceivePowerTablePublisher updates
                  // for the same NEM frequency pair in a frequency segment list
                  std::set<ReceivePowerPubisherUpdate> receivePowerTableUpdate{};

                  // frequency segment iterator to map pathloss per segment to
                  // the associated segment
                  FrequencySegments::const_iterator freqIter{frequencySegments.begin()};

                  std::size_t i{};

                  // sum up the rx power for each segment
                  for(const auto & dPathlossdB : pathlossInfo.first)
                    {
                      auto optionalSegmentPowerdBm = freqIter->getPowerdBm();

                      double powerdBm{(optionalSegmentPowerdBm.second ?
                                       optionalSegmentPowerdBm.first :
                                       transmitter.getPowerdBm()) +
                          gainInfodBi.first -
                          dPathlossdB};

                      auto powerdBmInfo = fadingManager_.calculate(transmitter.getNEMId(),
                                                                   powerdBm,
                                                                   locationPairInfoRet);

                      if(powerdBmInfo.second == FadingManager::FadingStatus::SUCCESS)
                        {
                          receivePowerTableUpdate.insert(ReceivePowerPubisherUpdate{transmitter.getNEMId(),
                                freqIter->getFrequencyHz(),
                                powerdBmInfo.first});

                          ++freqIter;

                          rxPowerSegments[i++] += Utils::DB_TO_MILLIWATT(powerdBmInfo.first);
                        }
                      else
                        {
                          // drop due to FadingManager not enough info
                          bDrop = true;

                          std::uint16_t u16Code{};

                          const char * pzReason{};

                          switch(powerdBmInfo.second)
                            {
                            case FadingManager::FadingStatus::ERROR_LOCATIONINFO:
                              pzReason = "fading missing location info";
                              u16Code = DROP_CODE_FADINGMANAGER_LOCATION;
                              break;
                            case FadingManager::FadingStatus::ERROR_ALGORITHM:
                              pzReason = "fading algorithm error/missing info";
                              u16Code = DROP_CODE_FADINGMANAGER_ALGORITHM;
                              break;
                            case FadingManager::FadingStatus::ERROR_SELECTION:
                              pzReason = "fading algorithm selection unkown";
                              u16Code = DROP_CODE_FADINGMANAGER_SELECTION;
                              break;
                            default:
                              pzReason = "unknown";
                              break;
                            }

                          commonLayerStatistics_.processOutbound(pkt,
                                                                 std::chrono::duration_cast<Microseconds>(Clock::now() - now),
                                                                 u16Code);

                          LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                                  DEBUG_LEVEL,
                                                  "PHYI %03hu FrameworkPHY::%s transmitter %hu,"
                                                  " src %hu, dst %hu, drop %s",
                                                  id_,
                                                  __func__,
                                                  transmitter.getNEMId(),
                                                  pktInfo.getSource(),
                                                  pktInfo.getDestination(),
                                                  pzReason);

                          break;
                        }
                    }

                  for(const auto & entry : receivePowerTableUpdate)
                    {
                      receivePowerTablePublisher_.update(std::get<0>(entry),
                                                         std::get<1>(entry),
                                                         std::get<2>(entry),
                                                         commonPHYHeader.getTxTime());
                    }


                  // calculate propagation delay from 1 of the transmitters
                  //  note: these are collaborative (constructive) transmissions, all
                  //        the messages are arriving at or near the same time. Destructive
                  //        transmission should be sent as multiple messages
                  if(locationPairInfoRet.second && !bHavePropagationDelay)
                    {
                      if(locationPairInfoRet.first.getDistanceMeters() > 0.0)
                        {
                          propagation =
                            Microseconds{static_cast<std::uint64_t>(std::round(locationPairInfoRet.first.getDistanceMeters() / SOL_MPS * 1000000))};
                        }

                      bHavePropagationDelay = true;
                    }
                }
              else
                {
                  // drop due to GainManager not enough info
                  bDrop = true;

                  std::uint16_t u16Code{};

                  const char * pzReason{};

                  switch(gainInfodBi.second)
                    {
                    case GainManager::GainStatus::ERROR_LOCATIONINFO:
                      pzReason = "missing location info";
                      u16Code = DROP_CODE_GAINMANAGER_LOCATION;
                      break;
                    case GainManager::GainStatus::ERROR_PROFILEINFO:
                      pzReason = "missing profile info";
                      u16Code = DROP_CODE_GAINMANAGER_ANTENNAPROFILE;
                      break;
                    case GainManager::GainStatus::ERROR_HORIZON:
                      pzReason = "below the horizon";
                      u16Code = DROP_CODE_GAINMANAGER_HORIZON;
                      break;
                    default:
                      pzReason = "unknown";
                      break;
                    }

                  commonLayerStatistics_.processOutbound(pkt,
                                                         std::chrono::duration_cast<Microseconds>(Clock::now() - now),
                                                         u16Code);

                  LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                          DEBUG_LEVEL,
                                          "PHYI %03hu FrameworkPHY::%s transmitter %hu, src %hu, dst %hu, drop %s",
                                          id_,
                                          __func__,
                                          transmitter.getNEMId(),
                                          pktInfo.getSource(),
                                          pktInfo.getDestination(),
                                          pzReason);


                  break;
                }
            }
          else
            {
              // drop due to PropagationModelAlgorithm not enough info
              bDrop = true;

              commonLayerStatistics_.processOutbound(pkt,
                                                     std::chrono::duration_cast<Microseconds>(Clock::now() - now),
                                                     DROP_CODE_PROPAGATIONMODEL);

              LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                      DEBUG_LEVEL,
                                      "PHYI %03hu FrameworkPHY::%s transmitter %hu, src %hu, dst %hu,"
                                      " drop propagation model missing info",
                                      id_,
                                      __func__,
                                      transmitter.getNEMId(),
                                      pktInfo.getSource(),
                                      pktInfo.getDestination());
              break;
            }
        }

      if(!bDrop)
        {

          // update the spectrum monitor with the signal information
          // note: spectrum monitor will remove any frequency segments that are
          //       below the receiver sensitivity. Any frequency segment not in
          //       the foi will cause the entire message to be treated as out-of-band
          //       regardless of the subid. Spectrum monitor will adjust SoT, propagation
          //       delay, offset and duration if out of acceptable value range.
          try
            {
              auto spectrumInfo = pSpectrumMonitor_->update(now,
                                                            commonPHYHeader.getTxTime(),
                                                            propagation,
                                                            frequencySegments,
                                                            commonPHYHeader.getBandwidthHz(),
                                                            rxPowerSegments,
                                                            bInBand,
                                                            transmitters);

              TimePoint sot{};
              Microseconds propagationDelay{};
              Microseconds span{};
              FrequencySegments resultingFrequencySegments{};
              bool bTreatAsInBand{};

              std::tie(sot,
                       propagationDelay,
                       span,
                       resultingFrequencySegments,
                       bTreatAsInBand) = spectrumInfo;

              if(bTreatAsInBand)
                {
                  if(!resultingFrequencySegments.empty())
                    {
                      commonLayerStatistics_.processOutbound(pkt,
                                                             std::chrono::duration_cast<Microseconds>(Clock::now() - now));


                      LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                              DEBUG_LEVEL,
                                              "PHYI %03hu FrameworkPHY::%s src %hu, dst %hu,"
                                              " pass",
                                              id_,
                                              __func__,
                                              pktInfo.getSource(),
                                              pktInfo.getDestination());

                      if(sot != commonPHYHeader.getTxTime())
                        {
                          ++*pTimeSyncThresholdRewrite_;
                        }

                      // send to mac with associated control messages
                      sendUpstreamPacket(pkt,
                                         {Controls::FrequencyControlMessage::create(commonPHYHeader.getBandwidthHz(),
                                                                                    resultingFrequencySegments),
                                             Controls::ReceivePropertiesControlMessage::create(sot,
                                                                                               propagationDelay,
                                                                                               span,
                                                                                               dReceiverSensitivitydBm_)});
                    }
                  else
                    {
                      commonLayerStatistics_.processOutbound(pkt,
                                                             std::chrono::duration_cast<Microseconds>(Clock::now() - now),
                                                             DROP_CODE_RX_SENSITIVITY);

                      LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                              DEBUG_LEVEL,
                                              "PHYI %03hu FrameworkPHY::%s src %hu, dst %hu,"
                                              " drop below receiver sensitivity",
                                              id_,
                                              __func__,
                                              pktInfo.getSource(),
                                              pktInfo.getDestination());

                    }
                }
              else
                {
                  // was this packet actually in-band, if so at least 1 freq was not in the foi
                  if(bInBand)
                    {
                      commonLayerStatistics_.processOutbound(pkt,
                                                             std::chrono::duration_cast<Microseconds>(Clock::now() - now),
                                                             DROP_CODE_NOT_FOI);

                      LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                              DEBUG_LEVEL,
                                              "PHYI %03hu FrameworkPHY::%s src %hu, dst %hu,"
                                              " drop one or more frequencies not in frequency of interest list",
                                              id_,
                                              __func__,
                                              pktInfo.getSource(),
                                              pktInfo.getDestination());
                    }
                  else
                    {
                      // must be subid
                      commonLayerStatistics_.processOutbound(pkt,
                                                             std::chrono::duration_cast<Microseconds>(Clock::now() - now),
                                                             DROP_CODE_OUT_OF_BAND);

                      LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                              DEBUG_LEVEL,
                                              "PHYI %03hu FrameworkPHY::%s src %hu, dst %hu,"
                                              " drop out of band",
                                              id_,
                                              __func__,
                                              pktInfo.getSource(),
                                              pktInfo.getDestination());
                    }

                }
            }
          catch(SpectrumServiceException & exp)
            {
              commonLayerStatistics_.processOutbound(pkt,
                                                     std::chrono::duration_cast<Microseconds>(Clock::now() - now),
                                                     DROP_CODE_SPECTRUM_CLAMP);

              LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                                      DEBUG_LEVEL,
                                      "PHYI %03hu FrameworkPHY::%s src %hu, dst %hu,"
                                      " drop spectrum out of bound %s",
                                      id_,
                                      __func__,
                                      pktInfo.getSource(),
                                      pktInfo.getDestination(),
                                      exp.what());
            }
        }
    }
  else
    {
      commonLayerStatistics_.processOutbound(pkt,
                                             std::chrono::duration_cast<Microseconds>(Clock::now() - now),
                                             DROP_CODE_OUT_OF_BAND);

      LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                              DEBUG_LEVEL,
                              "PHYI %03hu FrameworkPHY::%s src %hu, dst %hu,"
                              " drop out of band",
                              id_,
                              __func__,
                              pktInfo.getSource(),
                              pktInfo.getDestination());
    }
}

void EMANE::FrameworkPHY::processEvent(const EventId & eventId,
                                       const Serialization & serialization)
{
  LOGGER_STANDARD_LOGGING(pPlatformService_->logService(),
                          DEBUG_LEVEL,
                          "PHYI %03hu FrameworkPHY::%s event id: %hu",
                          id_,
                          __func__,
                          eventId);

  switch(eventId)
    {
    case Events::AntennaProfileEvent::IDENTIFIER:
      {
        Events::AntennaProfileEvent antennaProfile{serialization};
        gainManager_.update(antennaProfile.getAntennaProfiles());
        eventTablePublisher_.update(antennaProfile.getAntennaProfiles());

        LOGGER_STANDARD_LOGGING_FN_VARGS(pPlatformService_->logService(),
                                         DEBUG_LEVEL,
                                         Events::AntennaProfileEventFormatter(antennaProfile),
                                         "PHYI %03hu FrameworkPHY::%s antenna profile event: ",
                                         id_,
                                         __func__);

      }
      break;

    case Events::FadingSelectionEvent::IDENTIFIER:
      {
        Events::FadingSelectionEvent fadingSelection{serialization};
        fadingManager_.update(fadingSelection.getFadingSelections());
        eventTablePublisher_.update(fadingSelection.getFadingSelections());

        LOGGER_STANDARD_LOGGING_FN_VARGS(pPlatformService_->logService(),
                                         DEBUG_LEVEL,
                                         Events::FadingSelectionEventFormatter(fadingSelection),
                                         "PHYI %03hu FrameworkPHY::%s fading selection event: ",
                                         id_,
                                         __func__);
      }
      break;

    case Events::LocationEvent::IDENTIFIER:
      {
        Events::LocationEvent locationEvent{serialization};
        locationManager_.update(locationEvent.getLocations());
        eventTablePublisher_.update(locationEvent.getLocations());

        LOGGER_STANDARD_LOGGING_FN_VARGS(pPlatformService_->logService(),
                                         DEBUG_LEVEL,
                                         Events::LocationEventFormatter(locationEvent),
                                         "PHYI %03hu FrameworkPHY::%s location event: ",
                                         id_,
                                         __func__);
      }
      break;

    case Events::PathlossEvent::IDENTIFIER:
      {
        Events::PathlossEvent pathlossEvent{serialization};
        pPropagationModelAlgorithm_->update(pathlossEvent.getPathlosses());
        eventTablePublisher_.update(pathlossEvent.getPathlosses());

        LOGGER_STANDARD_LOGGING_FN_VARGS(pPlatformService_->logService(),
                                         DEBUG_LEVEL,
                                         Events::PathlossEventFormatter(pathlossEvent),
                                         "PHYI %03hu FrameworkPHY::%s pathloss event: ",
                                         id_,
                                         __func__);
      }
      break;
    }
}