// SPDX-License-Identifier: GPL-2.0-only /* * Digital Voice Modem - Test Suite * GPLv2 Open Source. Use is subject to license terms. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * * Copyright (C) 2026 Bryan Biedenkapp, N2PLL * */ #include "host/HostTestHooks.h" #include "common/dmr/SlotType.h" #include "common/dmr/Sync.h" #include "common/dmr/lc/FullLC.h" #include "common/nxdn/NXDNDefines.h" #include "common/nxdn/NXDNUtils.h" #include "common/nxdn/Sync.h" #include "common/nxdn/channel/FACCH1.h" #include "common/nxdn/channel/LICH.h" #include "common/nxdn/channel/SACCH.h" #include "common/nxdn/lc/RTCH.h" #include "common/edac/Trellis.h" #include "common/p25/lc/tsbk/TSBKFactory.h" #include "common/p25/P25Utils.h" #include "host/p25/packet/ControlSignaling.h" #include #if defined(CATCH2_TEST_COMPILATION) // --------------------------------------------------------------------------- // Constants // --------------------------------------------------------------------------- static const uint8_t DMR_CAL_VH_1K_PAYLOAD[dmr::defines::DMR_FRAME_LENGTH_BYTES] = { 0x00U, 0x20U, 0x08U, 0x08U, 0x02U, 0x38U, 0x15U, 0x00U, 0x2CU, 0xA0U, 0x14U, 0x60U, 0x84U, 0x6DU, 0xFFU, 0x57U, 0xD7U, 0x5DU, 0xF5U, 0xDEU, 0x30U, 0x30U, 0x01U, 0x10U, 0x01U, 0x40U, 0x03U, 0xC0U, 0x13U, 0xC1U, 0x1EU, 0x80U, 0x6FU }; static const uint8_t NXDN_CAL_1K_PAYLOAD[nxdn::defines::NXDN_FRAME_LENGTH_BYTES] = { 0xCDU, 0xF5U, 0x9DU, 0x5DU, 0x7CU, 0xFAU, 0x0AU, 0x6EU, 0x8AU, 0x23U, 0x56U, 0xE8U, 0x4CU, 0xAAU, 0xDEU, 0x8BU, 0x26U, 0xE4U, 0xF2U, 0x82U, 0x88U, 0xC6U, 0x8AU, 0x74U, 0x29U, 0xA4U, 0xECU, 0xD0U, 0x08U, 0x22U, 0xCEU, 0xA2U, 0xFCU, 0x01U, 0x8CU, 0xECU, 0xDAU, 0x0AU, 0xA0U, 0xEEU, 0x8AU, 0x7EU, 0x2BU, 0x26U, 0xCCU, 0xF8U, 0x8AU, 0x08U }; // --------------------------------------------------------------------------- // Static Class Members // --------------------------------------------------------------------------- /* Gets DMR slot 1 instance. */ dmr::Slot* HostTestHooks::dmrSlot1(const dmr::Control& control) { return control.m_slot1; } /* Gets DMR slot 2 instance. */ dmr::Slot* HostTestHooks::dmrSlot2(const dmr::Control& control) { return control.m_slot2; } /* Gets DMR network state. */ RPT_NET_STATE HostTestHooks::dmrNetState(const dmr::Slot& slot) { return slot.m_netState; } /* Gets DMR RF state. */ RPT_RF_STATE HostTestHooks::dmrRFState(const dmr::Slot& slot) { return slot.m_rfState; } /* Gets DMR permitted destination ID. */ uint32_t HostTestHooks::dmrPermittedDstId(const dmr::Slot& slot) { return slot.m_permittedDstId; } /* Gets DMR network watchdog timer. */ Timer& HostTestHooks::dmrNetworkWatchdog(dmr::Slot& slot) { return slot.m_networkWatchdog; } /* Gets DMR network talkgroup hang timer. */ Timer& HostTestHooks::dmrNetTGHang(dmr::Slot& slot) { return slot.m_netTGHang; } /* Gets DMR RF talkgroup hang timer. */ Timer& HostTestHooks::dmrRFTGHang(dmr::Slot& slot) { return slot.m_rfTGHang; } /* Gets DMR RF loss watchdog timer. */ Timer& HostTestHooks::dmrRFLossWatchdog(dmr::Slot& slot) { return slot.m_rfLossWatchdog; } /* Forces DMR slot into active RF call state. */ void HostTestHooks::dmrSetRFCall(dmr::Slot& slot, uint32_t srcId, uint32_t dstId) { slot.m_rfState = RS_RF_AUDIO; slot.m_rfLastSrcId = srcId; slot.m_rfLastDstId = dstId; slot.m_rfTGHang.start(); } /* Forces DMR slot into residual RF talkgroup hang state. */ void HostTestHooks::dmrSetRFHang(dmr::Slot& slot, uint32_t srcId, uint32_t dstId) { slot.m_rfState = RS_RF_LISTENING; slot.m_rfLastSrcId = srcId; slot.m_rfLastDstId = dstId; slot.m_rfTGHang.start(); } /* Returns DMR slot to RF listening state. */ void HostTestHooks::dmrClearRFCall(dmr::Slot& slot) { slot.m_rfState = RS_RF_LISTENING; slot.m_rfLastSrcId = 0U; slot.m_rfLastDstId = 0U; slot.m_rfTGHang.stop(); } /* Forces DMR slot into RF rejected state. */ void HostTestHooks::dmrSetRFRejected(dmr::Slot& slot) { slot.m_rfState = RS_RF_REJECTED; } /* Injects synthetic DMR network voice call. */ void HostTestHooks::dmrStartNetVoiceCall(dmr::Slot& slot, uint32_t srcId, uint32_t dstId, bool group) { dmr::data::NetData dmrData; dmrData.setSlotNo(slot.m_slotNo); dmrData.setSrcId(srcId); dmrData.setDstId(dstId); dmrData.setFLCO(group ? dmr::defines::FLCO::GROUP : dmr::defines::FLCO::PRIVATE); dmrData.setDataType(dmr::defines::DataType::VOICE_LC_HEADER); uint8_t data[dmr::defines::DMR_FRAME_LENGTH_BYTES]; ::memset(data, 0x00U, sizeof(data)); dmr::lc::LC lc(dmrData.getFLCO(), srcId, dstId); dmr::lc::FullLC fullLC; fullLC.encode(lc, data, dmr::defines::DataType::VOICE_LC_HEADER); dmr::SlotType slotType; slotType.setColorCode(dmr::Slot::s_colorCode); slotType.setDataType(dmr::defines::DataType::VOICE_LC_HEADER); slotType.encode(data); dmr::Sync::addDMRDataSync(data, dmr::Slot::s_duplex); dmrData.setData(data); slot.processNetwork(dmrData); } /* Injects synthetic DMR RF voice call frame. */ bool HostTestHooks::dmrStartRFVoiceCall(dmr::Slot& slot, uint32_t srcId, uint32_t dstId, bool group) { uint8_t frame[dmr::defines::DMR_FRAME_LENGTH_BYTES + 2U]; ::memset(frame, 0x00U, sizeof(frame)); ::memcpy(frame + 2U, DMR_CAL_VH_1K_PAYLOAD, dmr::defines::DMR_FRAME_LENGTH_BYTES); frame[0U] = modem::TAG_DATA; frame[1U] = dmr::defines::SYNC_DATA | dmr::defines::DataType::VOICE_LC_HEADER; dmr::lc::LC lc(group ? dmr::defines::FLCO::GROUP : dmr::defines::FLCO::PRIVATE, srcId, dstId); dmr::lc::FullLC fullLC; fullLC.encode(lc, frame + 2U, dmr::defines::DataType::VOICE_LC_HEADER); dmr::SlotType slotType; slotType.setColorCode(dmr::Slot::s_colorCode); slotType.setDataType(dmr::defines::DataType::VOICE_LC_HEADER); slotType.encode(frame + 2U); dmr::Sync::addDMRDataSync(frame + 2U, dmr::Slot::s_duplex); return slot.processFrame(frame, sizeof(frame)); } /* Configures a co-located DMR Tier III control channel. */ void HostTestHooks::dmrEnableTier3(dmr::Control& control, uint32_t channelNo, uint8_t tsccSlot) { control.m_enableTSCC = true; control.m_tsccSlotNo = tsccSlot; dmr::Slot::s_channelNo = channelNo; dmr::Slot* slot = tsccSlot == 1U ? control.m_slot1 : control.m_slot2; slot->setTSCC(true, false); } /* Gets the active DMR Tier III payload destination. */ uint32_t HostTestHooks::dmrPayloadDstId(const dmr::Slot& slot) { return slot.m_tsccPayloadDstId; } /* Tests whether a DMR Tier III grant exists. */ bool HostTestHooks::dmrIsGranted(const dmr::Slot& slot, uint32_t dstId) { return slot.s_affiliations->isGranted(dstId); } /* Tests whether a DMR grant is classified as group traffic. */ bool HostTestHooks::dmrIsGroupGrant(const dmr::Slot& slot, uint32_t dstId) { return slot.s_affiliations->isGroup(dstId); } /* Registers a DMR subscriber on the local Tier III site. */ void HostTestHooks::dmrRegisterUnit(dmr::Slot& slot, uint32_t unitId) { slot.s_affiliations->unitReg(unitId); } /* Starts a synthetic DMR Tier III OACSU transaction. */ bool HostTestHooks::dmrBeginU2UOACSU(dmr::Slot& slot, uint32_t callerId, uint32_t calledId, uint8_t serviceOptions) { return slot.beginU2UOACSU(callerId, calledId, serviceOptions); } /* Returns the number of pending DMR OACSU transactions. */ size_t HostTestHooks::dmrPendingU2UOACSU(const dmr::Slot& slot) { return slot.m_u2uOACSUTransactions.size(); } /* Delivers a synthetic called-unit OACSU response. */ bool HostTestHooks::dmrRespondU2UOACSU(dmr::Slot& slot, uint32_t calledId, uint32_t callerId, bool accepted) { return slot.processU2UOACSUResponse(calledId, callerId, accepted); } /* Cancels a synthetic pending DMR OACSU transaction. */ bool HostTestHooks::dmrCancelU2UOACSU(dmr::Slot& slot, uint32_t callerId) { return slot.cancelU2UOACSU(callerId); } /* Gets a P25 Phase 2 slot for tests. */ p25::phase2::Slot& HostTestHooks::p25P2Slot(p25::phase2::Control& control, uint32_t slotNo) { assert(slotNo < p25::phase2::Control::SLOT_COUNT); return slotNo == 0U ? *control.m_slot1 : *control.m_slot2; } /* Gets P25 Phase 2 RF state. */ RPT_RF_STATE HostTestHooks::p25P2RFState(const p25::phase2::Slot& slot) { return slot.m_rfState; } void HostTestHooks::p25P2SetRFState(p25::phase2::Slot& slot, RPT_RF_STATE state) { slot.m_rfState = state; } /* Gets P25 Phase 2 last source ID. */ uint32_t HostTestHooks::p25P2LastSrcId(const p25::phase2::Slot& slot) { return slot.m_rfLastSrcId != 0U ? slot.m_rfLastSrcId : slot.m_netLastSrcId; } /* Gets P25 Phase 2 last destination ID. */ uint32_t HostTestHooks::p25P2LastDstId(const p25::phase2::Slot& slot) { return slot.m_rfLastDstId != 0U ? slot.m_rfLastDstId : slot.m_netLastDstId; } /* Gets P25 Phase 2 RF scramble offset. */ uint16_t HostTestHooks::p25P2RFScrambleOffset(const p25::phase2::Slot& slot) { return slot.m_rfScrambleOffset; } /* Gets P25 Phase 2 network scramble offset. */ uint16_t HostTestHooks::p25P2NetScrambleOffset(const p25::phase2::Slot& slot) { return slot.m_netScrambleOffset; } /* Gets whether P25 Phase 2 ESS is complete. */ bool HostTestHooks::p25P2ESSComplete(const p25::phase2::Slot& slot) { return slot.m_voice.m_rfESSComplete || slot.m_voice.m_netESSComplete; } /* Gets P25 Phase 2 ESS algorithm ID. */ uint8_t HostTestHooks::p25P2ESSAlgId(const p25::phase2::Slot& slot) { const uint8_t* ess = slot.m_voice.m_netESSComplete ? slot.m_voice.m_netESS : slot.m_voice.m_rfESS; return ess[0U]; } /* Gets P25 Phase 2 ESS key ID. */ uint16_t HostTestHooks::p25P2ESSKeyId(const p25::phase2::Slot& slot) { const uint8_t* ess = slot.m_voice.m_netESSComplete ? slot.m_voice.m_netESS : slot.m_voice.m_rfESS; return static_cast((ess[1U] << 8U) | ess[2U]); } /* Copies P25 Phase 2 ESS MI. */ void HostTestHooks::p25P2ESSMI(const p25::phase2::Slot& slot, uint8_t* mi) { if (mi != nullptr) ::memcpy(mi, slot.m_voice.m_netESSComplete ? slot.m_voice.m_netESS + 3U : slot.m_voice.m_rfESS + 3U, 9U); } /* Gets P25 Phase 2 RF VCH state. */ p25::phase2::Slot::VCH_STATE HostTestHooks::p25P2RFVCHState(const p25::phase2::Slot& slot) { return slot.m_rfVCHState; } /* Gets P25 Phase 2 network VCH state. */ p25::phase2::Slot::VCH_STATE HostTestHooks::p25P2NetVCHState(const p25::phase2::Slot& slot) { return slot.m_netVCHState; } /* Gets P25 Phase 2 DUID. */ p25::defines::P2_DUID::E HostTestHooks::p25P2DUID(const p25::phase2::Slot& slot) { return slot.m_duid; } /* Gets P25 Phase 2 RF PTT count. */ uint8_t HostTestHooks::p25P2RFPTTCount(const p25::phase2::Slot& slot) { return slot.m_rfPTTCount; } /* Gets P25 Phase 2 RF frames count. */ uint32_t HostTestHooks::p25P2RFFrames(const p25::phase2::Slot& slot) { return slot.m_rfFrames; } /* Gets P25 Phase 2 network frames count. */ uint32_t HostTestHooks::p25P2NetFrames(const p25::phase2::Slot& slot) { return slot.m_netFrames; } /* Gets P25 Phase 2 network lost frames count. */ uint32_t HostTestHooks::p25P2NetLost(const p25::phase2::Slot& slot) { return slot.m_netLost; } /* Gets P25 Phase 2 network missed frames count. */ uint32_t HostTestHooks::p25P2NetMissed(const p25::phase2::Slot& slot) { return slot.m_netMissed; } /* Gets P25 Phase 2 RF bits, network bits, RF errors, and network errors. */ uint32_t HostTestHooks::p25P2RFBits(const p25::phase2::Slot& slot) { return slot.m_rfBits; } /* Gets P25 Phase 2 network bits. */ uint32_t HostTestHooks::p25P2NetBits(const p25::phase2::Slot& slot) { return slot.m_netBits; } /* Gets P25 Phase 2 RF errors. */ uint32_t HostTestHooks::p25P2RFErrs(const p25::phase2::Slot& slot) { return slot.m_rfErrs; } /* Gets P25 Phase 2 network errors. */ uint32_t HostTestHooks::p25P2NetErrs(const p25::phase2::Slot& slot) { return slot.m_netErrs; } /* Gets P25 network state. */ RPT_NET_STATE HostTestHooks::p25NetState(const p25::Control& control) { return control.m_netState; } /* Gets P25 RF state. */ RPT_RF_STATE HostTestHooks::p25RFState(const p25::Control& control) { return control.m_rfState; } /* Gets P25 last network destination ID. */ uint32_t HostTestHooks::p25NetLastDstId(const p25::Control& control) { return control.m_netLastDstId; } /* Gets P25 last network source ID. */ uint32_t HostTestHooks::p25NetLastSrcId(const p25::Control& control) { return control.m_netLastSrcId; } /* Gets P25 network encryption parameters. */ uint8_t HostTestHooks::p25NetAlgId(const p25::Control& control) { return control.m_voice->m_netLC.getAlgId(); } uint32_t HostTestHooks::p25NetKId(const p25::Control& control) { return control.m_voice->m_netLC.getKId(); } void HostTestHooks::p25NetMI(const p25::Control& control, uint8_t* mi) { control.m_voice->m_netLC.getMI(mi); } /* Gets P25 permitted destination ID. */ uint32_t HostTestHooks::p25PermittedDstId(const p25::Control& control) { return control.m_permittedDstId; } /* Gets P25 tail-on-idle flag. */ bool HostTestHooks::p25TailOnIdle(const p25::Control& control) { return control.m_tailOnIdle; } /* Gets P25 network watchdog timer. */ Timer& HostTestHooks::p25NetworkWatchdog(p25::Control& control) { return control.m_networkWatchdog; } /* Gets P25 network talkgroup hang timer. */ Timer& HostTestHooks::p25NetTGHang(p25::Control& control) { return control.m_netTGHang; } /* Gets P25 RF talkgroup hang timer. */ Timer& HostTestHooks::p25RFTGHang(p25::Control& control) { return control.m_rfTGHang; } /* Gets P25 RF loss watchdog timer. */ Timer& HostTestHooks::p25RFLossWatchdog(p25::Control& control) { return control.m_rfLossWatchdog; } /* Configures P25 RF grant talkgroup steering for a test. */ void HostTestHooks::p25ConfigureRFGrantSteering(p25::Control& control, bool enabled, bool dedicated) { control.m_enableControl = true; control.m_dedicatedControl = dedicated; control.m_allowRFGrantTGSteering = enabled; } /* Tests whether the P25 affiliation table contains a grant. */ bool HostTestHooks::p25IsGranted(const p25::Control& control, uint32_t dstId) { return control.m_affiliations->isGranted(dstId); } /* Seeds a P25 grant for a steering-policy test. */ bool HostTestHooks::p25SeedGrant(p25::Control& control, uint32_t srcId, uint32_t dstId, bool netGranted) { return control.m_affiliations->grantCh(dstId, srcId, 15U, true, netGranted); } /* Seeds a P25 unit-to-unit grant for a call-procedure test. */ bool HostTestHooks::p25SeedU2UGrant(p25::Control& control, uint32_t srcId, uint32_t dstId) { return control.m_affiliations->grantCh(dstId, srcId, 15U, false, false); } /* Configures P25 unit-to-unit call-procedure policy for a test. */ void HostTestHooks::p25ConfigureU2U(p25::Control& control, bool availabilityCheck) { control.m_enableControl = true; control.m_ignoreAffiliationCheck = false; control.m_control->m_unitToUnitAvailCheck = availabilityCheck; } /* Registers a P25 unit for a call-procedure test. */ void HostTestHooks::p25RegisterUnit(p25::Control& control, uint32_t srcId) { control.m_affiliations->unitReg(srcId); } /* Injects an independently encoded raw TSBK into P25 control signaling. */ bool HostTestHooks::p25ProcessRawTSBK(p25::Control& control, const uint8_t* raw) { std::unique_ptr tsbk = p25::lc::tsbk::TSBKFactory::createTSBK(raw, true); if (tsbk == nullptr) { return false; } uint8_t frame[2U] = { 0U }; return control.m_control->process(frame, sizeof(frame), std::move(tsbk)); } /* Injects an independently encoded raw TSBK through P25 network processing. */ bool HostTestHooks::p25ProcessNetworkRawTSBK(p25::Control& control, const uint8_t* raw) { uint8_t fec[p25::defines::P25_TSBK_FEC_LENGTH_BYTES] = { 0U }; uint8_t encoded[p25::defines::P25_TSDU_FRAME_LENGTH_BYTES] = { 0U }; edac::Trellis trellis; trellis.encode12(raw, fec); p25::P25Utils::encode(fec, encoded, 114U, 318U); p25::lc::LC lc; p25::data::LowSpeedData lsd; p25::defines::DUID::E duid = p25::defines::DUID::TSDU; return control.m_control->processNetwork(encoded, sizeof(encoded), lc, lsd, duid); } /* Tests whether one P25 private grant owns the specified RID pair. */ bool HostTestHooks::p25IsU2UGranted(const p25::Control& control, uint32_t srcId, uint32_t dstId) { return control.m_affiliations->isU2UGranted(srcId, dstId); } /* Gets the current source RID advertised for a P25 private grant. */ uint32_t HostTestHooks::p25U2UGrantSource(const p25::Control& control, uint32_t srcId, uint32_t dstId) { const uint32_t owner = control.m_affiliations->getU2UGrantOwner(srcId, dstId); return control.m_affiliations->getU2UGrantSource(owner); } /* Gets the current target RID advertised for a P25 private grant. */ uint32_t HostTestHooks::p25U2UGrantTarget(const p25::Control& control, uint32_t srcId, uint32_t dstId) { const uint32_t owner = control.m_affiliations->getU2UGrantOwner(srcId, dstId); return control.m_affiliations->getU2UGrantTarget(owner); } /* Gets the number of pending P25 U2U availability transactions. */ size_t HostTestHooks::p25PendingU2UCount(const p25::Control& control) { return control.m_control->m_u2uAvailabilityTransactions.size(); } /* Advances P25 U2U availability transaction timers. */ void HostTestHooks::p25ClockU2U(p25::Control& control, uint32_t ms) { control.m_control->clock(ms); } /* Releases a P25 grant for a steering-policy test. */ bool HostTestHooks::p25ReleaseGrant(p25::Control& control, uint32_t dstId) { return control.m_affiliations->releaseGrant(dstId, false); } /* Releases the active P25 private grant involving a radio ID. */ bool HostTestHooks::p25ReleaseU2UGrant(p25::Control& control, uint32_t unitId) { return control.m_affiliations->releaseU2UGrant(unitId); } /* Applies the P25 voice-channel grant-release policy. */ void HostTestHooks::p25VoiceChannelReleaseGrant(p25::Control& control, uint32_t dstId) { control.releaseGrantFromVoiceChannel(dstId); } /* Gets the last P25 RF destination ID. */ uint32_t HostTestHooks::p25RFLastDstId(const p25::Control& control) { return control.m_rfLastDstId; } /* Forces P25 control network state and last IDs. */ void HostTestHooks::p25SetNetState(p25::Control& control, RPT_NET_STATE netState, uint32_t srcId, uint32_t dstId) { control.m_netState = netState; control.m_netLastSrcId = srcId; control.m_netLastDstId = dstId; } /* Forces P25 control into active RF call state. */ void HostTestHooks::p25SetRFCall(p25::Control& control, uint32_t srcId, uint32_t dstId) { control.m_rfState = RS_RF_AUDIO; control.m_rfLastSrcId = srcId; control.m_rfLastDstId = dstId; control.m_rfTGHang.start(); } /* Returns P25 control to RF listening state. */ void HostTestHooks::p25ClearRFCall(p25::Control& control) { control.m_rfState = RS_RF_LISTENING; control.m_rfLastSrcId = 0U; control.m_rfLastDstId = 0U; control.m_rfTGHang.stop(); } /* Forces P25 control into RF rejected state. */ void HostTestHooks::p25SetRFRejected(p25::Control& control) { control.m_rfState = RS_RF_REJECTED; } /* Encodes and stamps a valid NID for a DUID into a P25 RF frame. */ void HostTestHooks::p25StampRFFrameNID(p25::Control& control, uint8_t* frame, p25::defines::DUID::E duid) { control.m_nid.encode(frame + 2U, duid); } /* Injects synthetic P25 network call start. */ void HostTestHooks::p25StartNetCall(p25::Control& control, const p25::lc::LC& lc, const p25::data::LowSpeedData& lsd) { p25::packet::Voice* voice = control.m_voice; voice->m_dfsiLC = p25::dfsi::LC(lc, lsd); voice->m_netLastLDU1 = lc; voice->writeNet_LDU1(); } /* Injects synthetic P25 network encryption-sync data. */ void HostTestHooks::p25UpdateNetEncryption(p25::Control& control, const p25::lc::LC& lc, const p25::data::LowSpeedData& lsd) { p25::packet::Voice* voice = control.m_voice; voice->m_dfsiLC = p25::dfsi::LC(lc, lsd); voice->writeNet_LDU2(); } /* Injects synthetic P25 network call termination. */ bool HostTestHooks::p25TerminateNetCall(p25::Control& control, const p25::lc::LC& lc, p25::defines::DUID::E duid) { p25::packet::Voice* voice = control.m_voice; uint8_t buffer[1U] = { 0x00U }; p25::data::LowSpeedData lsd; p25::defines::FrameType::E frameType = p25::defines::FrameType::DATA_UNIT; p25::lc::LC localControl = lc; p25::defines::DUID::E localDuid = duid; return voice->processNetwork(buffer, 1U, localControl, lsd, localDuid, frameType); } /* Selects the next secondary active talkgroup for a P25 voice channel. */ bool HostTestHooks::p25NextActiveTalkgroups(p25::Control& control, const std::vector& activeTG, uint8_t& groupUpdtIndex, const uint32_t& dstId, uint32_t& dstIdB, bool& hasDstIdB) { return control.m_voice->nextActiveTalkgroups(activeTG, groupUpdtIndex, dstId, dstIdB, hasDstIdB); } /* Gets NXDN network state. */ RPT_NET_STATE HostTestHooks::nxdnNetState(const nxdn::Control& control) { return control.m_netState; } /* Gets NXDN RF state. */ RPT_RF_STATE HostTestHooks::nxdnRFState(const nxdn::Control& control) { return control.m_rfState; } /* Gets NXDN last network destination ID. */ uint32_t HostTestHooks::nxdnNetLastDstId(const nxdn::Control& control) { return control.m_netLastDstId; } /* Gets NXDN last network source ID. */ uint32_t HostTestHooks::nxdnNetLastSrcId(const nxdn::Control& control) { return control.m_netLastSrcId; } /* Gets NXDN network encryption parameters. */ uint8_t HostTestHooks::nxdnNetAlgId(const nxdn::Control& control) { return control.m_netLC.getAlgId(); } uint8_t HostTestHooks::nxdnNetKId(const nxdn::Control& control) { return control.m_netLC.getKId(); } void HostTestHooks::nxdnNetMI(const nxdn::Control& control, uint8_t* mi) { control.m_netLC.getMI(mi); } /* Gets NXDN permitted destination ID. */ uint32_t HostTestHooks::nxdnPermittedDstId(const nxdn::Control& control) { return control.m_permittedDstId; } /* Gets NXDN network watchdog timer. */ Timer& HostTestHooks::nxdnNetworkWatchdog(nxdn::Control& control) { return control.m_networkWatchdog; } /* Gets NXDN network talkgroup hang timer. */ Timer& HostTestHooks::nxdnNetTGHang(nxdn::Control& control) { return control.m_netTGHang; } /* Gets NXDN RF talkgroup hang timer. */ Timer& HostTestHooks::nxdnRFTGHang(nxdn::Control& control) { return control.m_rfTGHang; } /* Gets NXDN RF loss watchdog timer. */ Timer& HostTestHooks::nxdnRFLossWatchdog(nxdn::Control& control) { return control.m_rfLossWatchdog; } /* Forces NXDN control into active RF call state. */ void HostTestHooks::nxdnSetRFCall(nxdn::Control& control, uint32_t srcId, uint32_t dstId) { control.m_rfState = RS_RF_AUDIO; control.m_rfLastSrcId = srcId; control.m_rfLastDstId = dstId; control.m_rfTGHang.start(); } /* Forces NXDN control into residual RF talkgroup hang state. */ void HostTestHooks::nxdnSetRFHang(nxdn::Control& control, uint32_t srcId, uint32_t dstId) { control.m_rfState = RS_RF_LISTENING; control.m_rfLastSrcId = srcId; control.m_rfLastDstId = dstId; control.m_rfTGHang.start(); } /* Returns NXDN control to RF listening state. */ void HostTestHooks::nxdnClearRFCall(nxdn::Control& control) { control.m_rfState = RS_RF_LISTENING; control.m_rfLastSrcId = 0U; control.m_rfLastDstId = 0U; control.m_rfTGHang.stop(); } /* Forces NXDN control into RF rejected state. */ void HostTestHooks::nxdnSetRFRejected(nxdn::Control& control) { control.m_rfState = RS_RF_REJECTED; } /* Injects synthetic NXDN RF call start frame. */ bool HostTestHooks::nxdnStartRFCall(nxdn::Control& control, uint32_t srcId, uint32_t dstId) { uint8_t start[nxdn::defines::NXDN_FRAME_LENGTH_BYTES + 2U]; ::memset(start, 0x00U, sizeof(start)); ::memcpy(start + 2U, NXDN_CAL_1K_PAYLOAD, nxdn::defines::NXDN_FRAME_LENGTH_BYTES); start[0U] = modem::TAG_DATA; start[1U] = 0x01U; nxdn::Sync::addNXDNSync(start + 2U); nxdn::channel::LICH lich; lich.setRFCT(nxdn::defines::RFChannelType::RTCH); lich.setFCT(nxdn::defines::FuncChannelType::USC_SACCH_NS); lich.setOption(nxdn::defines::ChOption::STEAL_FACCH); lich.setOutbound(false); lich.encode(start + 2U); nxdn::channel::SACCH sacch; sacch.setData(nxdn::defines::SACCH_IDLE); sacch.setRAN(control.m_ran); sacch.setStructure(nxdn::defines::ChStructure::SR_SINGLE); sacch.encode(start + 2U); uint8_t buffer[nxdn::defines::NXDN_RTCH_LC_LENGTH_BYTES]; nxdn::lc::RTCH lc; lc.setMessageType(nxdn::defines::MessageType::RTCH_VCALL); lc.setSrcId(srcId); lc.setDstId(dstId); lc.setGroup(true); lc.setTransmissionMode(nxdn::defines::TransmissionMode::MODE_4800); lc.encode(buffer, nxdn::defines::NXDN_RTCH_LC_LENGTH_BITS); nxdn::channel::FACCH1 facch; facch.setData(buffer); facch.encode(start + 2U, nxdn::defines::NXDN_FSW_LENGTH_BITS + nxdn::defines::NXDN_LICH_LENGTH_BITS + nxdn::defines::NXDN_SACCH_FEC_LENGTH_BITS); facch.encode(start + 2U, nxdn::defines::NXDN_FSW_LENGTH_BITS + nxdn::defines::NXDN_LICH_LENGTH_BITS + nxdn::defines::NXDN_SACCH_FEC_LENGTH_BITS + nxdn::defines::NXDN_FACCH1_FEC_LENGTH_BITS); nxdn::NXDNUtils::scrambler(start + 2U); return control.processFrame(start, sizeof(start)); } /* Injects synthetic NXDN network call start frame. */ bool HostTestHooks::nxdnStartNetCall(nxdn::Control& control, const nxdn::lc::RTCH& lc) { uint8_t start[nxdn::defines::NXDN_FRAME_LENGTH_BYTES + 2U]; ::memset(start, 0x00U, sizeof(start)); nxdn::Sync::addNXDNSync(start + 2U); nxdn::channel::LICH lich; lich.setRFCT(nxdn::defines::RFChannelType::RCCH); lich.setFCT(nxdn::defines::FuncChannelType::USC_SACCH_NS); lich.setOption(nxdn::defines::ChOption::STEAL_FACCH); lich.setOutbound(true); lich.encode(start + 2U); nxdn::channel::SACCH sacch; sacch.setData(nxdn::defines::SACCH_IDLE); sacch.setRAN(control.m_ran); sacch.setStructure(nxdn::defines::ChStructure::SR_SINGLE); sacch.encode(start + 2U); uint8_t buffer[nxdn::defines::NXDN_RTCH_LC_LENGTH_BYTES]; nxdn::lc::RTCH localControl = lc; localControl.encode(buffer, nxdn::defines::NXDN_RTCH_LC_LENGTH_BITS); nxdn::channel::FACCH1 facch; facch.setData(buffer); facch.encode(start + 2U, nxdn::defines::NXDN_FSW_LENGTH_BITS + nxdn::defines::NXDN_LICH_LENGTH_BITS + nxdn::defines::NXDN_SACCH_FEC_LENGTH_BITS); if (localControl.getAlgId() == nxdn::defines::CIPHER_TYPE_DES || localControl.getAlgId() == nxdn::defines::CIPHER_TYPE_AES) { nxdn::lc::RTCH ivLC; ivLC.setMessageType(nxdn::defines::MessageType::RTCH_VCALL_IV); uint8_t mi[nxdn::defines::MI_LENGTH_BYTES]; localControl.getMI(mi); ivLC.setMI(mi); ::memset(buffer, 0x00U, sizeof(buffer)); ivLC.encode(buffer, nxdn::defines::NXDN_RTCH_LC_LENGTH_BITS); facch.setData(buffer); } facch.encode(start + 2U, nxdn::defines::NXDN_FSW_LENGTH_BITS + nxdn::defines::NXDN_LICH_LENGTH_BITS + nxdn::defines::NXDN_SACCH_FEC_LENGTH_BITS + nxdn::defines::NXDN_FACCH1_FEC_LENGTH_BITS); return control.m_voice->processNetwork(nxdn::defines::FuncChannelType::USC_SACCH_NS, nxdn::defines::ChOption::STEAL_FACCH, localControl, start, sizeof(start)); } #endif