/*
 *
 *    Copyright (c) 2022 Project CHIP Authors
 *
 *    Licensed under the Apache License, Version 2.0 (the "License");
 *    you may not use this file except in compliance with the License.
 *    You may obtain a copy of the License at
 *
 *        http://www.apache.org/licenses/LICENSE-2.0
 *
 *    Unless required by applicable law or agreed to in writing, software
 *    distributed under the License is distributed on an "AS IS" BASIS,
 *    WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
 *    See the License for the specific language governing permissions and
 *    limitations under the License.
 */

// THIS FILE IS GENERATED BY ZAP

#pragma once

#include "TestCommand.h"

#include <lib/support/CHIPListUtils.h>

class Test_TC_BINFO_2_3_SimulatedSuite : public TestCommand
{
public:
    Test_TC_BINFO_2_3_SimulatedSuite() : TestCommand("Test_TC_BINFO_2_3_Simulated", 21)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_BINFO_2_3_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        case 0:
            VerifyOrReturn(CheckValue("status", chip::to_underlying(status.mStatus), 0));
            shouldContinue = true;
            break;
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "Log OnOff Test Startup");
            ListFreer listFreer;
            chip::app::Clusters::LogCommands::Commands::Log::Type value;
            value.message = chip::Span<const char>("*** Basic Cluster Tests Readygarbage: not in length on purpose", 29);
            return Log(kIdentityAlpha, value);
        }
        case 1: {
            LogStep(1, "DUT reads DataModelRevision from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::DataModelRevision::Id);
        }
        case 2: {
            LogStep(2, "DUT reads VendorName from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0001"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::VendorName::Id);
        }
        case 3: {
            LogStep(3, "DUT reads VendorID from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0002"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::VendorID::Id);
        }
        case 4: {
            LogStep(4, "DUT reads ProductName from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0003"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::ProductName::Id);
        }
        case 5: {
            LogStep(5, "DUT reads ProductID from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0004"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::ProductID::Id);
        }
        case 6: {
            LogStep(6, "DUT reads NodeLabel from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0005"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::NodeLabel::Id);
        }
        case 7: {
            LogStep(7, "DUT reads Location from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0006"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::Location::Id);
        }
        case 8: {
            LogStep(8, "DUT reads HardwareVersion from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0007"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::HardwareVersion::Id);
        }
        case 9: {
            LogStep(9, "DUT reads HardwareVersionString from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0008"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::HardwareVersionString::Id);
        }
        case 10: {
            LogStep(10, "DUT reads SoftwareVersion from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0009"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::SoftwareVersion::Id);
        }
        case 11: {
            LogStep(11, "DUT reads SoftwareVersionString from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A000a"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::SoftwareVersionString::Id);
        }
        case 12: {
            LogStep(12, "DUT reads ManufacturingDate from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A000b"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::ManufacturingDate::Id);
        }
        case 13: {
            LogStep(13, "DUT reads PartNumber from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A000c"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::PartNumber::Id);
        }
        case 14: {
            LogStep(14, "DUT reads ProductURL from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A000d"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::ProductURL::Id);
        }
        case 15: {
            LogStep(15, "DUT reads ProductLabel from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A000e"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::ProductLabel::Id);
        }
        case 16: {
            LogStep(16, "DUT reads SerialNumber from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A000f"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::SerialNumber::Id);
        }
        case 17: {
            LogStep(17, "DUT reads LocalConfigDisabled from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0010"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::LocalConfigDisabled::Id);
        }
        case 18: {
            LogStep(18, "DUT reads Reachable from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0011"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::Reachable::Id);
        }
        case 19: {
            LogStep(19, "DUT reads UniqueID from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0012"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::UniqueID::Id);
        }
        case 20: {
            LogStep(20, "DUT reads CapabilityMinima from the TH");
            VerifyOrDo(!ShouldSkip("BINFO.C.A0013"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), BasicInformation::Id, BasicInformation::Attributes::CapabilityMinima::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_DESC_2_2_SimulatedSuite : public TestCommand
{
public:
    Test_TC_DESC_2_2_SimulatedSuite() : TestCommand("Test_TC_DESC_2_2_Simulated", 4)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_DESC_2_2_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "DUT reads DeviceTypeList from TH.");
            VerifyOrDo(!ShouldSkip("DESC.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), Descriptor::Id, Descriptor::Attributes::DeviceTypeList::Id);
        }
        case 1: {
            LogStep(1, "DUT reads ServerList from the TH");
            VerifyOrDo(!ShouldSkip("DESC.C.A0001"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), Descriptor::Id, Descriptor::Attributes::ServerList::Id);
        }
        case 2: {
            LogStep(2, "DUT reads ClientList attribute from the TH");
            VerifyOrDo(!ShouldSkip("DESC.C.A0002"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), Descriptor::Id, Descriptor::Attributes::ClientList::Id);
        }
        case 3: {
            LogStep(3, "DUT reads PartsList attribute from the TH");
            VerifyOrDo(!ShouldSkip("DESC.C.A0003"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), Descriptor::Id, Descriptor::Attributes::PartsList::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_DGETH_3_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_DGETH_3_1_SimulatedSuite() : TestCommand("Test_TC_DGETH_3_1_Simulated", 9)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_DGETH_3_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "Read attribute: PHYRate");
            VerifyOrDo(!ShouldSkip("DGETH.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), EthernetNetworkDiagnostics::Id,
                                 EthernetNetworkDiagnostics::Attributes::PHYRate::Id);
        }
        case 1: {
            LogStep(1, "Read attribute: FullDuplex");
            VerifyOrDo(!ShouldSkip("DGETH.C.A0001"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), EthernetNetworkDiagnostics::Id,
                                 EthernetNetworkDiagnostics::Attributes::FullDuplex::Id);
        }
        case 2: {
            LogStep(2, "Read attribute: PacketRxCount");
            VerifyOrDo(!ShouldSkip("DGETH.C.A0002"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), EthernetNetworkDiagnostics::Id,
                                 EthernetNetworkDiagnostics::Attributes::PacketRxCount::Id);
        }
        case 3: {
            LogStep(3, "Read attribute: PacketTxCount");
            VerifyOrDo(!ShouldSkip("DGETH.C.A0003"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), EthernetNetworkDiagnostics::Id,
                                 EthernetNetworkDiagnostics::Attributes::PacketTxCount::Id);
        }
        case 4: {
            LogStep(4, "Read attribute: TxErrCount");
            VerifyOrDo(!ShouldSkip("DGETH.C.A0004"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), EthernetNetworkDiagnostics::Id,
                                 EthernetNetworkDiagnostics::Attributes::TxErrCount::Id);
        }
        case 5: {
            LogStep(5, "Read attribute: CollisionCount");
            VerifyOrDo(!ShouldSkip("DGETH.C.A0005"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), EthernetNetworkDiagnostics::Id,
                                 EthernetNetworkDiagnostics::Attributes::CollisionCount::Id);
        }
        case 6: {
            LogStep(6, "Read attribute: OverrunCount");
            VerifyOrDo(!ShouldSkip("DGETH.C.A0006"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), EthernetNetworkDiagnostics::Id,
                                 EthernetNetworkDiagnostics::Attributes::OverrunCount::Id);
        }
        case 7: {
            LogStep(7, "Read attribute: CarrierDetect");
            VerifyOrDo(!ShouldSkip("DGETH.C.A0007"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), EthernetNetworkDiagnostics::Id,
                                 EthernetNetworkDiagnostics::Attributes::CarrierDetect::Id);
        }
        case 8: {
            LogStep(8, "Read attribute: TimeSinceReset");
            VerifyOrDo(!ShouldSkip("DGETH.C.A0008"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), EthernetNetworkDiagnostics::Id,
                                 EthernetNetworkDiagnostics::Attributes::TimeSinceReset::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_DGSW_3_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_DGSW_3_1_SimulatedSuite() : TestCommand("Test_TC_DGSW_3_1_Simulated", 4)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_DGSW_3_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "Read attribute: ThreadMetrics");
            VerifyOrDo(!ShouldSkip("DGSW.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), SoftwareDiagnostics::Id, SoftwareDiagnostics::Attributes::ThreadMetrics::Id);
        }
        case 1: {
            LogStep(1, "Read attribute: CurrentHeapFree");
            VerifyOrDo(!ShouldSkip("DGSW.C.A0001"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), SoftwareDiagnostics::Id, SoftwareDiagnostics::Attributes::CurrentHeapFree::Id);
        }
        case 2: {
            LogStep(2, "Read attribute: CurrentHeapUsed");
            VerifyOrDo(!ShouldSkip("DGSW.C.A0002"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), SoftwareDiagnostics::Id, SoftwareDiagnostics::Attributes::CurrentHeapUsed::Id);
        }
        case 3: {
            LogStep(3, "Read attribute: CurrentHeapHighWatermark");
            VerifyOrDo(!ShouldSkip("DGSW.C.A0003"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), SoftwareDiagnostics::Id,
                                 SoftwareDiagnostics::Attributes::CurrentHeapHighWatermark::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_DGWIFI_3_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_DGWIFI_3_1_SimulatedSuite() : TestCommand("Test_TC_DGWIFI_3_1_Simulated", 13)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_DGWIFI_3_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "Read attribute: BSSID");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id, WiFiNetworkDiagnostics::Attributes::Bssid::Id);
        }
        case 1: {
            LogStep(1, "Read attribute: SecurityType");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A0001"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id, WiFiNetworkDiagnostics::Attributes::SecurityType::Id);
        }
        case 2: {
            LogStep(2, "Read attribute: WiFiVersion");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A0002"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id, WiFiNetworkDiagnostics::Attributes::WiFiVersion::Id);
        }
        case 3: {
            LogStep(3, "Read attribute: ChannelNumber");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A0003"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id, WiFiNetworkDiagnostics::Attributes::ChannelNumber::Id);
        }
        case 4: {
            LogStep(4, "Read attribute: RSSI");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A0004"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id, WiFiNetworkDiagnostics::Attributes::Rssi::Id);
        }
        case 5: {
            LogStep(5, "Read attribute: BeaconLostCount");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A0005"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id,
                                 WiFiNetworkDiagnostics::Attributes::BeaconLostCount::Id);
        }
        case 6: {
            LogStep(6, "Read attribute: BeaconRxCount");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A0006"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id, WiFiNetworkDiagnostics::Attributes::BeaconRxCount::Id);
        }
        case 7: {
            LogStep(7, "Read attribute: PacketMulticastRxCount");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A0007"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id,
                                 WiFiNetworkDiagnostics::Attributes::PacketMulticastRxCount::Id);
        }
        case 8: {
            LogStep(8, "Read attribute: PacketMulticastTxCount");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A0008"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id,
                                 WiFiNetworkDiagnostics::Attributes::PacketMulticastTxCount::Id);
        }
        case 9: {
            LogStep(9, "Read attribute: PacketUnicastRxCount");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A0009"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id,
                                 WiFiNetworkDiagnostics::Attributes::PacketUnicastRxCount::Id);
        }
        case 10: {
            LogStep(10, "Read attribute: PacketUnicastTxCount");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A000a"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id,
                                 WiFiNetworkDiagnostics::Attributes::PacketUnicastTxCount::Id);
        }
        case 11: {
            LogStep(11, "Read attribute: CurrentMaxRate");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A000b"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id,
                                 WiFiNetworkDiagnostics::Attributes::CurrentMaxRate::Id);
        }
        case 12: {
            LogStep(12, "Read attribute: OverrunCount");
            VerifyOrDo(!ShouldSkip("DGWIFI.C.A000c"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WiFiNetworkDiagnostics::Id, WiFiNetworkDiagnostics::Attributes::OverrunCount::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_G_3_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_G_3_1_SimulatedSuite() : TestCommand("Test_TC_G_3_1_Simulated", 1)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_G_3_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "DUT reads NameSupport attribute value from TH");
            VerifyOrDo(!ShouldSkip("G.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), Groups::Id, Groups::Attributes::NameSupport::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_RH_3_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_RH_3_1_SimulatedSuite() : TestCommand("Test_TC_RH_3_1_Simulated", 7)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_RH_3_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        case 4:
            VerifyOrReturn(CheckValue("status", chip::to_underlying(status.mStatus), 0));
            shouldContinue = true;
            break;
        case 5:
            VerifyOrReturn(CheckValue("status", chip::to_underlying(status.mStatus), 0));
            shouldContinue = true;
            break;
        case 6:
            VerifyOrReturn(CheckValue("status", chip::to_underlying(status.mStatus), 0));
            shouldContinue = true;
            break;
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "Read attribute MeasuredValue");
            return WaitAttribute(GetEndpoint(0), RelativeHumidityMeasurement::Id,
                                 RelativeHumidityMeasurement::Attributes::MeasuredValue::Id);
        }
        case 1: {
            LogStep(1, "Read attribute MinMeasuredValue");
            return WaitAttribute(GetEndpoint(0), RelativeHumidityMeasurement::Id,
                                 RelativeHumidityMeasurement::Attributes::MinMeasuredValue::Id);
        }
        case 2: {
            LogStep(2, "Read attribute MaxMeasuredValue");
            return WaitAttribute(GetEndpoint(0), RelativeHumidityMeasurement::Id,
                                 RelativeHumidityMeasurement::Attributes::MaxMeasuredValue::Id);
        }
        case 3: {
            LogStep(3, "Read attribute Tolerance");
            return WaitAttribute(GetEndpoint(0), RelativeHumidityMeasurement::Id,
                                 RelativeHumidityMeasurement::Attributes::Tolerance::Id);
        }
        case 4: {
            LogStep(4,
                    "Configure TH such that it implements mandatory and none of the optional attributes of the server-side of the "
                    "cluster, and that it also reflects this in global attributes such as FeatureMap and AttributeList.Commission "
                    "DUT to TH again");
            VerifyOrDo(!ShouldSkip("PICS_SKIP_SAMPLE_APP"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            ListFreer listFreer;
            chip::app::Clusters::LogCommands::Commands::UserPrompt::Type value;
            value.message = chip::Span<const char>("Enter 'y' after successgarbage: not in length on purpose", 23);
            value.expectedValue.Emplace();
            value.expectedValue.Value() = chip::Span<const char>("ygarbage: not in length on purpose", 1);
            return UserPrompt(kIdentityAlpha, value);
        }
        case 5: {
            LogStep(5, "DUT reads all supported optional attributes from TH one at a time in a manufacturer specific order");
            VerifyOrDo(!ShouldSkip("PICS_SKIP_SAMPLE_APP"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            ListFreer listFreer;
            chip::app::Clusters::LogCommands::Commands::UserPrompt::Type value;
            value.message = chip::Span<const char>("Enter 'y' after successgarbage: not in length on purpose", 23);
            value.expectedValue.Emplace();
            value.expectedValue.Value() = chip::Span<const char>("ygarbage: not in length on purpose", 1);
            return UserPrompt(kIdentityAlpha, value);
        }
        case 6: {
            LogStep(6,
                    "DUT writes a suitable value to all supported optional attributes on the TH one at a time in a manufacturer "
                    "specific order");
            VerifyOrDo(!ShouldSkip("PICS_SKIP_SAMPLE_APP"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            ListFreer listFreer;
            chip::app::Clusters::LogCommands::Commands::UserPrompt::Type value;
            value.message = chip::Span<const char>("Enter 'y' after successgarbage: not in length on purpose", 23);
            value.expectedValue.Emplace();
            value.expectedValue.Value() = chip::Span<const char>("ygarbage: not in length on purpose", 1);
            return UserPrompt(kIdentityAlpha, value);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_WNCV_5_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_WNCV_5_1_SimulatedSuite() : TestCommand("Test_TC_WNCV_5_1_Simulated", 5)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_WNCV_5_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "DUT reads the FeatureMap attribute from TH");
            VerifyOrDo(!ShouldSkip("WNCV.C.Afffc"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WindowCovering::Id, WindowCovering::Attributes::FeatureMap::Id);
        }
        case 1: {
            LogStep(1, "DUT reads the Type attribute from TH");
            VerifyOrDo(!ShouldSkip("WNCV.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WindowCovering::Id, WindowCovering::Attributes::Type::Id);
        }
        case 2: {
            LogStep(2, "DUT reads the EndProductType attribute from TH");
            VerifyOrDo(!ShouldSkip("WNCV.C.A000d"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WindowCovering::Id, WindowCovering::Attributes::EndProductType::Id);
        }
        case 3: {
            LogStep(3, "DUT reads the Mode attribute from TH");
            VerifyOrDo(!ShouldSkip("WNCV.C.A0017"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WindowCovering::Id, WindowCovering::Attributes::Mode::Id);
        }
        case 4: {
            LogStep(4, "DUT reads the ConfigStatus attribute from TH");
            VerifyOrDo(!ShouldSkip("WNCV.C.A0007"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), WindowCovering::Id, WindowCovering::Attributes::ConfigStatus::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_LCFG_3_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_LCFG_3_1_SimulatedSuite() : TestCommand("Test_TC_LCFG_3_1_Simulated", 2)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_LCFG_3_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "DUT reads SupportedLocales attribute from TH");
            VerifyOrDo(!ShouldSkip("LCFG.C.A0001"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), LocalizationConfiguration::Id,
                                 LocalizationConfiguration::Attributes::SupportedLocales::Id);
        }
        case 1: {
            LogStep(1, "DUT reads ActiveLocale attribute from TH");
            VerifyOrDo(!ShouldSkip("LCFG.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), LocalizationConfiguration::Id,
                                 LocalizationConfiguration::Attributes::ActiveLocale::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_LUNIT_1_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_LUNIT_1_1_SimulatedSuite() : TestCommand("Test_TC_LUNIT_1_1_Simulated", 5)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_LUNIT_1_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "DUT read (0xFFFD) ClusterRevision attribute");
            VerifyOrDo(!ShouldSkip("LUNIT.C.Afffd"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), UnitLocalization::Id, UnitLocalization::Attributes::ClusterRevision::Id);
        }
        case 1: {
            LogStep(1, "DUT read (0xFFFC) FeatureMap attribute");
            VerifyOrDo(!ShouldSkip("LUNIT.C.Afffc"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), UnitLocalization::Id, UnitLocalization::Attributes::FeatureMap::Id);
        }
        case 2: {
            LogStep(2, "DUT read (0xFFFB) AttributeList attribute");
            VerifyOrDo(!ShouldSkip("LUNIT.C.Afffb"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), UnitLocalization::Id, UnitLocalization::Attributes::AttributeList::Id);
        }
        case 3: {
            LogStep(3, "DUT read (0xFFF9) AcceptedCommandList attribute");
            VerifyOrDo(!ShouldSkip("LUNIT.C.Afff9"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), UnitLocalization::Id, UnitLocalization::Attributes::AcceptedCommandList::Id);
        }
        case 4: {
            LogStep(4, "DUT read (0xFFF8) GeneratedCommandList attribute");
            VerifyOrDo(!ShouldSkip("LUNIT.C.Afff8"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), UnitLocalization::Id, UnitLocalization::Attributes::GeneratedCommandList::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_LUNIT_2_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_LUNIT_2_1_SimulatedSuite() : TestCommand("Test_TC_LUNIT_2_1_Simulated", 3)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_LUNIT_2_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "DUT reads TemperatureUnit attribute from TH");
            VerifyOrDo(!ShouldSkip("LUNIT.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), UnitLocalization::Id, UnitLocalization::Attributes::TemperatureUnit::Id);
        }
        case 1: {
            LogStep(1, "DUT writes 2 to TemperatureUnit attribute on TH");
            VerifyOrDo(!ShouldSkip("LUNIT.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), UnitLocalization::Id, UnitLocalization::Attributes::TemperatureUnit::Id);
        }
        case 2: {
            LogStep(2, "DUT reads TemperatureUnit attribute from TH");
            VerifyOrDo(!ShouldSkip("LUNIT.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), UnitLocalization::Id, UnitLocalization::Attributes::TemperatureUnit::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_OCC_2_2_SimulatedSuite : public TestCommand
{
public:
    Test_TC_OCC_2_2_SimulatedSuite() : TestCommand("Test_TC_OCC_2_2_Simulated", 12)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_OCC_2_2_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "DUT reads from the TH the (0x0000) Occupancy attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id, OccupancySensing::Attributes::Occupancy::Id);
        }
        case 1: {
            LogStep(1, "DUT reads from the TH the (0x0001) OccupancySensorType attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0001"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id, OccupancySensing::Attributes::OccupancySensorType::Id);
        }
        case 2: {
            LogStep(2, "DUT reads from the TH the (0x0002) OccupancySensorTypeBitmap attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0002"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id, OccupancySensing::Attributes::OccupancySensorTypeBitmap::Id);
        }
        case 3: {
            LogStep(3, "DUT reads from the TH the (0x0010) PIROccupiedToUnoccupiedDelay optional attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0010"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id,
                                 OccupancySensing::Attributes::PIROccupiedToUnoccupiedDelay::Id);
        }
        case 4: {
            LogStep(4, "DUT reads from the TH the (0x0011) PIRUnoccupiedToOccupiedDelay optional attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0011"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id,
                                 OccupancySensing::Attributes::PIRUnoccupiedToOccupiedDelay::Id);
        }
        case 5: {
            LogStep(5, "DUT reads from the TH the (0x0012) PIRUnoccupiedToOccupiedThreshold optional attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0012"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id,
                                 OccupancySensing::Attributes::PIRUnoccupiedToOccupiedThreshold::Id);
        }
        case 6: {
            LogStep(6, "DUT reads from the TH the (0x0020) UltrasonicOccupiedToUnoccupiedDelay optional attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0020"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id,
                                 OccupancySensing::Attributes::UltrasonicOccupiedToUnoccupiedDelay::Id);
        }
        case 7: {
            LogStep(7, "DUT reads from the TH the (0x0021) UltrasonicUnoccupiedToOccupiedDelay optional attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0021"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id,
                                 OccupancySensing::Attributes::UltrasonicUnoccupiedToOccupiedDelay::Id);
        }
        case 8: {
            LogStep(8, "DUT reads from the TH the (0x0022) UltrasonicUnoccupiedToOccupiedThreshold optional attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0022"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id,
                                 OccupancySensing::Attributes::UltrasonicUnoccupiedToOccupiedThreshold::Id);
        }
        case 9: {
            LogStep(9, "DUT reads from the TH the (0x0030) PhysicalContactOccupiedToUnoccupiedDelay optional attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0030"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id,
                                 OccupancySensing::Attributes::PhysicalContactOccupiedToUnoccupiedDelay::Id);
        }
        case 10: {
            LogStep(10, "DUT reads from the TH the (0x0031) PhysicalContactUnoccupiedToOccupiedDelay optional attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0031"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id,
                                 OccupancySensing::Attributes::PhysicalContactUnoccupiedToOccupiedDelay::Id);
        }
        case 11: {
            LogStep(11, "DUT reads from the TH the (0x0032) PhysicalContactUnoccupiedToOccupiedThreshold optional attribute");
            VerifyOrDo(!ShouldSkip("OCC.C.A0032"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id,
                                 OccupancySensing::Attributes::PhysicalContactUnoccupiedToOccupiedThreshold::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_OCC_2_4_SimulatedSuite : public TestCommand
{
public:
    Test_TC_OCC_2_4_SimulatedSuite() : TestCommand("Test_TC_OCC_2_4_Simulated", 2)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_OCC_2_4_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "TH reads OccupancySensorType attribute from DUT");
            VerifyOrDo(!ShouldSkip("OCC.C.A0001"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id, OccupancySensing::Attributes::OccupancySensorType::Id);
        }
        case 1: {
            LogStep(1, "TH reads OccupancySensorTypeBitmap attribute from DUT");
            VerifyOrDo(!ShouldSkip("OCC.C.A0002"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), OccupancySensing::Id, OccupancySensing::Attributes::OccupancySensorTypeBitmap::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_ULABEL_3_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_ULABEL_3_1_SimulatedSuite() : TestCommand("Test_TC_ULABEL_3_1_Simulated", 2)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_ULABEL_3_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "Read attribute: LabelList");
            VerifyOrDo(!ShouldSkip("ULABEL.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), UserLabel::Id, UserLabel::Attributes::LabelList::Id);
        }
        case 1: {
            LogStep(1, "write attribute: LabelList");
            VerifyOrDo(!ShouldSkip("ULABEL.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), UserLabel::Id, UserLabel::Attributes::LabelList::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_FLABEL_3_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_FLABEL_3_1_SimulatedSuite() : TestCommand("Test_TC_FLABEL_3_1_Simulated", 1)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_FLABEL_3_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "DUT reads LabelList from the TH");
            VerifyOrDo(!ShouldSkip("FLABEL.C.A0000"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(1), FixedLabel::Id, FixedLabel::Attributes::LabelList::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

class Test_TC_LTIME_1_1_SimulatedSuite : public TestCommand
{
public:
    Test_TC_LTIME_1_1_SimulatedSuite() : TestCommand("Test_TC_LTIME_1_1_Simulated", 5)
    {
        AddArgument("nodeId", 0, UINT64_MAX, &mNodeId);
        AddArgument("cluster", &mCluster);
        AddArgument("endpoint", 0, UINT16_MAX, &mEndpoint);
        AddArgument("timeout", 0, UINT16_MAX, &mTimeout);
    }

    ~Test_TC_LTIME_1_1_SimulatedSuite() {}

private:
    chip::Optional<chip::NodeId> mNodeId;
    chip::Optional<chip::CharSpan> mCluster;
    chip::Optional<chip::EndpointId> mEndpoint;
    chip::Optional<uint16_t> mTimeout;

    chip::EndpointId GetEndpoint(chip::EndpointId endpoint) { return mEndpoint.HasValue() ? mEndpoint.Value() : endpoint; }

    //
    // Tests methods
    //

    void OnResponse(const chip::app::StatusIB & status, chip::TLV::TLVReader * data) override
    {
        bool shouldContinue = false;

        switch (mTestIndex - 1)
        {
        default:
            LogErrorOnFailure(ContinueOnChipMainThread(CHIP_ERROR_INVALID_ARGUMENT));
        }

        if (shouldContinue)
        {
            ContinueOnChipMainThread(CHIP_NO_ERROR);
        }
    }

    CHIP_ERROR DoTestStep(uint16_t testIndex) override
    {
        using namespace chip::app::Clusters;
        switch (testIndex)
        {
        case 0: {
            LogStep(0, "DUT read (0xFFFD) ClusterRevision attribute");
            VerifyOrDo(!ShouldSkip("LTIME.C.Afffd"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), TimeFormatLocalization::Id,
                                 TimeFormatLocalization::Attributes::ClusterRevision::Id);
        }
        case 1: {
            LogStep(1, "DUT read (0xFFFC) FeatureMap attribute");
            VerifyOrDo(!ShouldSkip("LTIME.C.Afffc"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), TimeFormatLocalization::Id, TimeFormatLocalization::Attributes::FeatureMap::Id);
        }
        case 2: {
            LogStep(2, "DUT read (0xFFFB) AttributeList attribute");
            VerifyOrDo(!ShouldSkip("LTIME.C.Afffb"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), TimeFormatLocalization::Id, TimeFormatLocalization::Attributes::AttributeList::Id);
        }
        case 3: {
            LogStep(3, "DUT read (0xFFF9) AcceptedCommandList attribute");
            VerifyOrDo(!ShouldSkip("LTIME.C.Afff9"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), TimeFormatLocalization::Id,
                                 TimeFormatLocalization::Attributes::AcceptedCommandList::Id);
        }
        case 4: {
            LogStep(4, "DUT read (0xFFF8) GeneratedCommandList attribute");
            VerifyOrDo(!ShouldSkip("LTIME.C.Afff8"), return ContinueOnChipMainThread(CHIP_NO_ERROR));
            return WaitAttribute(GetEndpoint(0), TimeFormatLocalization::Id,
                                 TimeFormatLocalization::Attributes::GeneratedCommandList::Id);
        }
        }
        return CHIP_NO_ERROR;
    }
};

std::unique_ptr<TestCommand> GetTestCommand(std::string testName)
{
    if (testName == "Test_TC_BINFO_2_3_Simulated")
    {
        return std::unique_ptr<Test_TC_BINFO_2_3_SimulatedSuite>(new Test_TC_BINFO_2_3_SimulatedSuite());
    }
    if (testName == "Test_TC_DESC_2_2_Simulated")
    {
        return std::unique_ptr<Test_TC_DESC_2_2_SimulatedSuite>(new Test_TC_DESC_2_2_SimulatedSuite());
    }
    if (testName == "Test_TC_DGETH_3_1_Simulated")
    {
        return std::unique_ptr<Test_TC_DGETH_3_1_SimulatedSuite>(new Test_TC_DGETH_3_1_SimulatedSuite());
    }
    if (testName == "Test_TC_DGSW_3_1_Simulated")
    {
        return std::unique_ptr<Test_TC_DGSW_3_1_SimulatedSuite>(new Test_TC_DGSW_3_1_SimulatedSuite());
    }
    if (testName == "Test_TC_DGWIFI_3_1_Simulated")
    {
        return std::unique_ptr<Test_TC_DGWIFI_3_1_SimulatedSuite>(new Test_TC_DGWIFI_3_1_SimulatedSuite());
    }
    if (testName == "Test_TC_G_3_1_Simulated")
    {
        return std::unique_ptr<Test_TC_G_3_1_SimulatedSuite>(new Test_TC_G_3_1_SimulatedSuite());
    }
    if (testName == "Test_TC_RH_3_1_Simulated")
    {
        return std::unique_ptr<Test_TC_RH_3_1_SimulatedSuite>(new Test_TC_RH_3_1_SimulatedSuite());
    }
    if (testName == "Test_TC_WNCV_5_1_Simulated")
    {
        return std::unique_ptr<Test_TC_WNCV_5_1_SimulatedSuite>(new Test_TC_WNCV_5_1_SimulatedSuite());
    }
    if (testName == "Test_TC_LCFG_3_1_Simulated")
    {
        return std::unique_ptr<Test_TC_LCFG_3_1_SimulatedSuite>(new Test_TC_LCFG_3_1_SimulatedSuite());
    }
    if (testName == "Test_TC_LUNIT_1_1_Simulated")
    {
        return std::unique_ptr<Test_TC_LUNIT_1_1_SimulatedSuite>(new Test_TC_LUNIT_1_1_SimulatedSuite());
    }
    if (testName == "Test_TC_LUNIT_2_1_Simulated")
    {
        return std::unique_ptr<Test_TC_LUNIT_2_1_SimulatedSuite>(new Test_TC_LUNIT_2_1_SimulatedSuite());
    }
    if (testName == "Test_TC_OCC_2_2_Simulated")
    {
        return std::unique_ptr<Test_TC_OCC_2_2_SimulatedSuite>(new Test_TC_OCC_2_2_SimulatedSuite());
    }
    if (testName == "Test_TC_OCC_2_4_Simulated")
    {
        return std::unique_ptr<Test_TC_OCC_2_4_SimulatedSuite>(new Test_TC_OCC_2_4_SimulatedSuite());
    }
    if (testName == "Test_TC_ULABEL_3_1_Simulated")
    {
        return std::unique_ptr<Test_TC_ULABEL_3_1_SimulatedSuite>(new Test_TC_ULABEL_3_1_SimulatedSuite());
    }
    if (testName == "Test_TC_FLABEL_3_1_Simulated")
    {
        return std::unique_ptr<Test_TC_FLABEL_3_1_SimulatedSuite>(new Test_TC_FLABEL_3_1_SimulatedSuite());
    }
    if (testName == "Test_TC_LTIME_1_1_Simulated")
    {
        return std::unique_ptr<Test_TC_LTIME_1_1_SimulatedSuite>(new Test_TC_LTIME_1_1_SimulatedSuite());
    }

    return nullptr;
}

void PrintTestCommands()
{
    ChipLogError(chipTool, "Supported commands:");
    ChipLogError(chipTool, "\t* Test_TC_BINFO_2_3_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_DESC_2_2_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_DGETH_3_1_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_DGSW_3_1_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_DGWIFI_3_1_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_G_3_1_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_RH_3_1_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_WNCV_5_1_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_LCFG_3_1_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_LUNIT_1_1_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_LUNIT_2_1_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_OCC_2_2_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_OCC_2_4_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_ULABEL_3_1_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_FLABEL_3_1_Simulated");
    ChipLogError(chipTool, "\t* Test_TC_LTIME_1_1_Simulated");
}