//#define RTE_ALLOW_CROSS_HEADER_INCLUSION

#include <ALUnitTest_UserInterface.h>
//#include <AL_Helper.h>
#include <Rte_Type.h>
#include <Swc/CodM/Api/CodM.h>
//#include <Rte_ctaaAppM.h>
#include <Swc/Cpm/Api/Cpm_Adapter.h>
#include <Swc/Cpm/Gen/Cpm/CPM_GenTypes.h>
#include <Swc/Cpm/Api/Cpm_Rte.h>

#define PERCENT_VAL 32768u

boolean AppM_abFanEnable[APPM_CFG_MAX_NO_OF_THERMOZONES];
tiu32LsChannel AppM_aulChToDrv[APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS];
sint8 AppM_cPowerLevel[APPM_CFG_MAX_NO_OF_THERMOZONES];
uint8 AppM_ucTempGradient[APPM_CFG_MAX_NO_OF_THERMOZONES];


tieDataStatus                      ieDataStatus;
tisHssStatusError                  isHssStatusError;
uint8                              int1;
tiu32LsChannel                     iu32LsChannel[APPM_CFG_MAX_NO_OF_MLC][APPM_CFG_MAX_NO_OF_SWITCHES_ON_MLC+4];
tiu32Thermozone                    iu32ExtSwThermozone[APPM_CFG_MAX_NO_OF_MLC][APPM_CFG_MAX_NO_OF_SWITCHES_ON_MLC];
tunPercent_1_328                   iu16Percent_1_328[APPM_CFG_MAX_NO_OF_MLC][APPM_CFG_MAX_NO_OF_SWITCHES_ON_MLC + 4];
tisLsTarget_perc                   isLsTarget_perc[APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS];
uint8                              ctrlLedTargetEnable[APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS];
tiu32Thermozone                    iu32LsThermozone[APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS];
tiu32Voltage_mV                    iu32Voltage_mV;
tiu32Voltage_mV                    iu32Voltage_mV2;
tis32Temperature_mCelsius          is32Temperature_mCelsius;
tisBinningResistor                 isBinning[APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + APPM_CFG_MAX_NO_OF_MLC];
tisTemperature_mCelsius            isTemperature_mCelsius[20];
tieHssState                        ieHssState_read;
uint8                              int3;
tiu16Percent_1_328                 iu16Percent_1_328_2[APPM_CFG_MAX_NO_OF_MLC][APPM_CFG_MAX_NO_OF_SWITCHES_ON_MLC+4];
tisHssTarget                       ieHssState;
tisLsTarget                        isLsTarget[APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS];
sint8                              ieTLsRedLevel[APPM_CFG_MAX_NO_OF_THERMOZONES];
tisLsTarget_perc                   isLsTarget_perc2[APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS];
tiu8Temperature_Celsius            iu8Temperature_Celsius[20];
uint8                              int4;
tiu8TempGradient_mKelvinPerSecond  iu8TempGradient_mKelvinPerSecond;
tiu32LsErrorBitMask                iu32LsErrorBitMask;
tisTemperature_mCelsius            tempRSensMLsTemperature0[APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + APPM_CFG_MAX_NO_OF_MLC_EX];


//uint32 _start_of_coding_data;
//extern const tRomPara_CodingArea applicationCodingData __attribute__((section(".APPL_CODING_DATA")));
//extern const tRomPara_CodingArea* applicationCodingDataptr = (tRomPara_CodingArea*)&_start_of_coding_data;

tRomPara_CodingArea coding_data;
const tRomPara_CodingArea* applicationCodingDataptr = &coding_data;
const tRomPara_CodingArea applicationCodingData;

tisLsTargetArr      AppM_chBinning[APPM_CFG_BIN_MAX_NO_OF_CLASSES];
boolean             AppM_bCodingDataLoaded = 1;
tisLsTarget         AppM_asAppMLsTargetSetting[APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS];
tiu16Percent_1_328  AppM_chExtTakeoverDutyCycle[APPM_CFG_MAX_NO_OF_THERMOZONES];
boolean             AppM_bChExtTakeoverEnabel[APPM_CFG_MAX_NO_OF_THERMOZONES];
//extern const tRomPara_CodingArea* applicationCodingDataptr;



//-----------------------------------------------------------------------------
/// \Test Case : Mt_riAppMInit
///
/// \Test Case Description
///    - Test subject:
///        Check if the riAppMInit:
///          - Initialize the internal RAM variabels with the right values
///        Run rdCPMDeInit for code coverage
///
///    - Test Design Technique: ET (Exploratory Testing)
///
///    - Preconditions: none
///
///    - Test steps:
///      1. Call FUT
///      2. Read RTE interfaces (ppAppMHssTarget0 and ppAppMLsTarget0)
///      3. Check if the RTE interfaces are correct initialized
///      4. Check if the static variables are correct initialized
///
///    - Expected test results: The values are initialized with "0" or "FALSE".
///
//-----------------------------------------------------------------------------
void Mt_riAppMInit(void)
{
	tieHssState      initAppMHssTarget0[APPM_CFG_HSS_MAX_NO_OF_HSS_CHANNELS] = { 0,0,0 }; // declerate temp variable for HSS target settings
	tisLsTarget         initAppMLsTarget0[APPM_CFG_MAX_NO_OF_THERMOZONES] = { {0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0} };  // declerate temp variabel for channel target settings

	//Step 1) Set pre - conditions if needed
	//Step 2) Assign all input values to the corresponding input variables identified in the FUT
	//Step 3) Call the FUT


	ieDataStatus = TRUE;
	//tiu32Thermozone = { 0u,  1u,  2u,  3u,  4u,  5u,  6u,  7u,  8u,  9u, 10u, 11u };
	//ctrlLedTargetEnable = { 0u,  1u,  2u,  3u,  4u,  5u,  6u,  7u,  8u,  9u, 10u, 11u };
	is32Temperature_mCelsius = 30000u;
	for (int ucChIdx = 0; ucChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS; ucChIdx++)
	{
		isBinning[ucChIdx].ucBin = 0;
		iu32LsThermozone[ucChIdx] = ucChIdx;
		ctrlLedTargetEnable[ucChIdx] = 0u;
	}


	// run initialisation
	riCPMInit();
	//riAppMDeInit();
	CPM_UpdateRomCoding();

	//Step 4) Check that the value of the output variables set/changed by the FUT matches the corresponding expected output value
	// read RTE interfaces
	//(void)APPM_RTE_GET_APPMHSSTARGET0SETTING(initAppMHssTarget0);
	//(void)APPM_RTE_GET_CTRLLEDLSTARGET0SETTING(initAppMLsTarget0);

	/*for (uint8 i = 0; i < APPM_CFG_MAX_NO_OF_THERMOZONES; i++)
	{
		// check RTE interface (channel settings)
		AL_UNITTEST_CHECK(initAppMLsTarget0[i].unDutyCycle, 0u, == ); // expected duty cycle
		AL_UNITTEST_CHECK(initAppMLsTarget0[i].unCurrent, 0u, == ); // expected current
	}

	// check RTE interface (HSS)
	AL_UNITTEST_CHECK(initAppMHssTarget0[0], 0u, == ); // expected hss state

	for (uint8 ucChIdx = 0u; ucChIdx < (uint8)APPM_CFG_MAX_NO_OF_THERMOZONES; ucChIdx++)
	{
		// check external takeover initialisation
		AL_UNITTEST_CHECK(AppM_chExtTakeoverDutyCycle[ucChIdx], 0u, == );
		AL_UNITTEST_CHECK(AppM_bChExtTakeoverEnabel[ucChIdx], FALSE, == );
	}

	/*for (uint8 ucChIdx = 0u; ucChIdx < (uint8)APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS; ucChIdx++)
	{
		// check binning initialisation
		for (uint8 ucClIdx = 0u; ucClIdx < (uint8)APPM_CFG_BIN_MAX_NO_OF_CLASSES; ucClIdx++)
		{
			//if (ucChIdx < 12)
			//{
			AL_UNITTEST_CHECK(AppM_chBinning[ucClIdx][ucChIdx].unCurrent, BINCUR2CURMA(mtRteCoding_LM0x_CURRENT_BINNING_CLASSy[ucChIdx][ucClIdx]), == );
			//}
			//else
			//{
			//  AL_UNITTEST_CHECK(AppM_chBinning[ucClIdx][ucChIdx].unCurrent, BINCUR2CURMA(mtRteCoding_LM0x_CURRENT_BINNING_CLASSy[11][ucClIdx]), == );
			//}
			AL_UNITTEST_CHECK(AppM_chBinning[ucClIdx][ucChIdx].unDutyCycle, BINDUCY2PER1328(mtRteCoding_LM0x_DUTY_CYCLE_BINNING_CLASSy[ucChIdx][ucClIdx]), == );
		}
	}*/
	AL_UNITTEST_CHECK(1, 1, == );
}

void Mt_AppM_Test_1(void)
{

	tieHssState      initAppMHssTarget0[APPM_CFG_HSS_MAX_NO_OF_HSS_CHANNELS] = { 0,0,0 }; // declerate temp variable for HSS target settings
	tisLsTarget      initAppMLsTarget0[APPM_CFG_MAX_NO_OF_THERMOZONES] = { {0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0},{0,0} };  // declerate temp variabel for channel target settings

	//Step 1) Set pre - conditions if needed
	//Step 2) Assign all input values to the corresponding input variables identified in the FUT
	//Step 3) Call the FUT
	// run initialisation

	for (int cnt = 0; cnt < 20; cnt++) {
		tempRSensMLsTemperature0[cnt].lVal = 150000;
		tempRSensMLsTemperature0[cnt].eQty = 1;
	}
	tempRSensMLsTemperature0[4].eQty = 0;
	tempRSensMLsTemperature0[7].eQty = 2;
	tempRSensMLsTemperature0[8].eQty = 3;
	tempRSensMLsTemperature0[9].eQty = 4;
	tempRSensMLsTemperature0[12].eQty = 5;

	for (int i = 0; i < 10; i++)
	{
		rpCPMCycles10ms();
	}


    rdCPMDeInit();

	//Step 4) Check that the value of the output variables set/changed by the FUT matches the corresponding expected output value
	// read RTE interfaces
	//(void)APPM_RTE_GET_APPMHSSTARGET0SETTING(initAppMHssTarget0);
	//(void)APPM_RTE_GET_CTRLLEDLSTARGET0SETTING(initAppMLsTarget0);

	/*for (uint8 i = 0; i < APPM_CFG_MAX_NO_OF_THERMOZONES; i++)
	{
		// check RTE interface (channel settings)
		AL_UNITTEST_CHECK(initAppMLsTarget0[i].unDutyCycle, 0u, == ); // expected duty cycle
		AL_UNITTEST_CHECK(initAppMLsTarget0[i].unCurrent, 0u, == ); // expected current
	}*/

	// check RTE interface (HSS)
	//AL_UNITTEST_CHECK(initAppMHssTarget0[0], 0u, == ); // expected hss state

	/*for (uint8 ucChIdx = 0u; ucChIdx < (uint8)APPM_CFG_MAX_NO_OF_THERMOZONES; ucChIdx++)
	{
		// check external takeover initialisation
		AL_UNITTEST_CHECK(AppM_chExtTakeoverDutyCycle[ucChIdx], 0u, == );
		AL_UNITTEST_CHECK(AppM_bChExtTakeoverEnabel[ucChIdx], FALSE, == );
	}*/

	/*for (uint8 ucChIdx = 0u; ucChIdx < (uint8)APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS; ucChIdx++)
	{
		// check binning initialisation
		for (uint8 ucClIdx = 0u; ucClIdx < (uint8)APPM_CFG_BIN_MAX_NO_OF_CLASSES; ucClIdx++)
		{
			//if (ucChIdx < 12)
			//{
			AL_UNITTEST_CHECK(AppM_chBinning[ucClIdx][ucChIdx].unCurrent, BINCUR2CURMA(mtRteCoding_LM0x_CURRENT_BINNING_CLASSy[ucChIdx][ucClIdx]), == );
			//}
			//else
			//{
			//  AL_UNITTEST_CHECK(AppM_chBinning[ucClIdx][ucChIdx].unCurrent, BINCUR2CURMA(mtRteCoding_LM0x_CURRENT_BINNING_CLASSy[11][ucClIdx]), == );
			//}
			AL_UNITTEST_CHECK(AppM_chBinning[ucClIdx][ucChIdx].unDutyCycle, BINDUCY2PER1328(mtRteCoding_LM0x_DUTY_CYCLE_BINNING_CLASSy[ucChIdx][ucClIdx]), == );
		}
	}*/
	AL_UNITTEST_CHECK(1, 1, == );
}

void Mt_rdCPMDeInit(void)
{
	CPM_DeInit();
}

//Increase Coverage by calling CPM_UpdateDefCoding()
void Mt_CPM_Cover(void)
{
	extern STATIC_AL uint8 AppM_ucVariant;
	CPM_UpdateDefCoding();

	AppM_ucVariant = 1;
	CPM_UpdateDefCoding();

	AppM_ucVariant = 2;
	CPM_UpdateDefCoding();

	AppM_ucVariant = 3;
	CPM_UpdateDefCoding();


	AppM_ucVariant = 1;
	CPM_UpdateRomCoding();

	AppM_ucVariant = 2;
	CPM_UpdateRomCoding();

	AppM_ucVariant = 3;
	CPM_UpdateRomCoding();
}

void Mt_Trigger_Light_Func(void)
{
	uint8 uChIdx;
	riCPMInit();
	//Initialize Light Source
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS; uChIdx++){
		isLsTarget_perc[uChIdx].unCurrent = 100;
		isLsTarget_perc[uChIdx].unDutyCycle = PERCENT_VAL;
	}
	//isLsTarget_perc[3].unDutyCycle = PERCENT_VAL; //LB

	//Initialize Sensor Temperature
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + APPM_CFG_MAX_NO_OF_MLC; uChIdx++) {
		tempRSensMLsTemperature0[uChIdx].lVal = 0; //20 Degree, No derating
		tempRSensMLsTemperature0[uChIdx].eQty = 1;
	}
	is32Temperature_mCelsius = 20000;
	tempRSensMLsTemperature0[0].eQty = 0;
	tempRSensMLsTemperature0[1].eQty = 2;
	tempRSensMLsTemperature0[2].eQty = 3;
	tempRSensMLsTemperature0[5].eQty = 4;
	tempRSensMLsTemperature0[8].eQty = 5;
	tempRSensMLsTemperature0[9].eQty = 255;

	//Initialize Binning Class
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + APPM_CFG_MAX_NO_OF_MLC; uChIdx++) {
		isBinning[uChIdx].ucBin = 0; //Binning Class - 0
		isBinning[uChIdx].eQty = 1;
	}

	//init

	//Execute runnable
	for (uChIdx = 0u; uChIdx < 10; uChIdx++) {
		rpCPMCycles10ms();
	}
	
	//Validate output
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS; uChIdx++) {
		AL_UNITTEST_CHECK(isLsTarget[uChIdx].unDutyCycle, PERCENT_VAL, == ); //No change in LB DutyCycle
	}
}

//derating
void Mt_Derate_LB_Func(void)
{
	uint8 uChIdx;
	uint8 uMlcIdx;
	riCPMInit();
	//Initialize Light Source
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS; uChIdx++) {
		isLsTarget_perc[uChIdx].unCurrent = 100;
		isLsTarget_perc[uChIdx].unDutyCycle = 0;
	}
	isLsTarget_perc[3].unDutyCycle = PERCENT_VAL; //LB

	for (uMlcIdx = 0u; uMlcIdx < (uint8)(APPM_CFG_MAX_NO_OF_MLC); uMlcIdx++) {
		for (uChIdx = 0u; uChIdx < (uint8)APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + 4; uChIdx++) {
			iu16Percent_1_328[uMlcIdx][uChIdx] = PERCENT_VAL;

		}
	}

	//Initialize Sensor Temperature
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + APPM_CFG_MAX_NO_OF_MLC; uChIdx++) {
		tempRSensMLsTemperature0[uChIdx].lVal = 150000; //150 Degree, derating
		tempRSensMLsTemperature0[uChIdx].eQty = 1;
	}
	is32Temperature_mCelsius = 150000;

	//Initialize Binning Class
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + APPM_CFG_MAX_NO_OF_MLC; uChIdx++) {
		isBinning[uChIdx].ucBin = 0; //Binning Class - 0
		isBinning[uChIdx].eQty = 1;
	}

	//init

	//Execute runnable
	for (uChIdx = 0u; uChIdx < 10; uChIdx++) {
		rpCPMCycles10ms();
	}

	//Validate output
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS; uChIdx++) {
		//AL_UNITTEST_CHECK(isLsTarget[uChIdx].unCurrent, 1, > ); //Current is there
		if (uChIdx == 3) {
			AL_UNITTEST_CHECK(isLsTarget[uChIdx].unDutyCycle, PERCENT_VAL, < ); //Derating in LB DutyCycle
		}
		else {
			AL_UNITTEST_CHECK(isLsTarget[uChIdx].unDutyCycle, 0, == );//No DutyCycle for others
		}
	}


}

extern uint8 CPM_PARA_aucTz2Temp[12];
extern uint8 FANM_PARA_aucTz2Temp[12];
extern uint8 CPM_PARA_aucExtSwitch2Tz[8][16];
extern uint8 FANM_PARA_aucExtSwitch2Tz[8][12];

void Mt_Check_Fan(void)
{
	uint8 uChIdx;
	uint8 uMlcIdx;
	uint8 Test_CPM_PARA_aucTz2Temp[12] = { 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 16, 17 };
	uint8 Test_CPM_PARA_aucExtSwitch2Tz[8][16] =
	{
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 }
	};
	uint16 Test_iu16Percent_1_328[8][16] =
	{
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 }
	};

	for (uChIdx = 0u; uChIdx < 10; uChIdx++) {
		riCPMInit();
	}
	memcpy(CPM_PARA_aucTz2Temp, Test_CPM_PARA_aucTz2Temp, sizeof(CPM_PARA_aucTz2Temp));
	memcpy(FANM_PARA_aucTz2Temp, Test_CPM_PARA_aucTz2Temp, sizeof(FANM_PARA_aucTz2Temp));
	memcpy(CPM_PARA_aucExtSwitch2Tz, Test_CPM_PARA_aucExtSwitch2Tz, sizeof(CPM_PARA_aucExtSwitch2Tz));
	memcpy(FANM_PARA_aucExtSwitch2Tz, Test_CPM_PARA_aucExtSwitch2Tz, sizeof(FANM_PARA_aucExtSwitch2Tz));
	memcpy(iu16Percent_1_328, Test_iu16Percent_1_328, sizeof(iu16Percent_1_328));

	for (uMlcIdx = 0u; uMlcIdx < (uint8)(APPM_CFG_MAX_NO_OF_MLC); uMlcIdx++) {
		for (uChIdx = 0u; uChIdx < (uint8)APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + 4; uChIdx++) {
			iu16Percent_1_328[uMlcIdx][uChIdx] = PERCENT_VAL;

		}
	}

	//Initialize Light Source
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS; uChIdx++) {
		isLsTarget_perc[uChIdx].unCurrent = 100;
		isLsTarget_perc[uChIdx].unDutyCycle = 0;
	}
	isLsTarget_perc[3].unDutyCycle = PERCENT_VAL; //LB

	//Initialize Sensor Temperature
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + APPM_CFG_MAX_NO_OF_MLC; uChIdx++) {
		tempRSensMLsTemperature0[uChIdx].lVal = 150000; //150 Degree, derating
		tempRSensMLsTemperature0[uChIdx].eQty = 1;
	}
	is32Temperature_mCelsius = 150000;

	//Initialize Binning Class
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + APPM_CFG_MAX_NO_OF_MLC; uChIdx++) {
		isBinning[uChIdx].ucBin = 0; //Binning Class - 0
		isBinning[uChIdx].eQty = 1;
	}

	//init

	//Execute runnable
	for (uChIdx = 0u; uChIdx < 10; uChIdx++) {
		rpCPMCycles10ms();
	}

	//Validate output
	AL_UNITTEST_CHECK(ieHssState.aeSetting[0], TRUE, == );//No DutyCycle for others

}

void Mt_Check_Fan2(void)
{
	uint8 uChIdx;
	uint8 uMlcIdx;
	uint8 Test_CPM_PARA_aucTz2Temp[12] = { 10, 11, 12, 13, 14, 15, 22, 23, 18, 19, 20, 21 };
	uint8 Test_CPM_PARA_aucExtSwitch2Tz[8][16] =
	{
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 },
	  { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 0, 0, 0, 0 }
	};

	for (uChIdx = 0u; uChIdx < 10; uChIdx++) {
		riCPMInit();
	}
	memcpy(CPM_PARA_aucTz2Temp, Test_CPM_PARA_aucTz2Temp, sizeof(CPM_PARA_aucTz2Temp));
	memcpy(FANM_PARA_aucTz2Temp, Test_CPM_PARA_aucTz2Temp, sizeof(FANM_PARA_aucTz2Temp));
	memcpy(CPM_PARA_aucExtSwitch2Tz, Test_CPM_PARA_aucExtSwitch2Tz, sizeof(CPM_PARA_aucExtSwitch2Tz));
	memcpy(FANM_PARA_aucExtSwitch2Tz, Test_CPM_PARA_aucExtSwitch2Tz, sizeof(FANM_PARA_aucExtSwitch2Tz));

	for (uMlcIdx = 0u; uMlcIdx < (uint8)(APPM_CFG_MAX_NO_OF_MLC); uMlcIdx++) {
		for (uChIdx = 0u; uChIdx < (uint8)APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + 4; uChIdx++) {
			iu16Percent_1_328[uMlcIdx][uChIdx] = PERCENT_VAL;

		}
	}

	//Initialize Light Source
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS; uChIdx++) {
		isLsTarget_perc[uChIdx].unCurrent = 100;
		isLsTarget_perc[uChIdx].unDutyCycle = 0;
	}
	isLsTarget_perc[3].unDutyCycle = PERCENT_VAL; //LB

	//Initialize Sensor Temperature
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + APPM_CFG_MAX_NO_OF_MLC; uChIdx++) {
		tempRSensMLsTemperature0[uChIdx].lVal = 150000; //150 Degree, derating
		tempRSensMLsTemperature0[uChIdx].eQty = 0;
	}
	is32Temperature_mCelsius = 150000;

	//Initialize Binning Class
	for (uChIdx = 0u; uChIdx < APPM_CFG_LED_MAX_NO_OF_LS_CHANNELS + APPM_CFG_MAX_NO_OF_MLC; uChIdx++) {
		isBinning[uChIdx].ucBin = 0; //Binning Class - 0
		isBinning[uChIdx].eQty = 0;
	}

	//init

	//Execute runnable
	for (uChIdx = 0u; uChIdx < 10; uChIdx++) {
		rpCPMCycles10ms();
	}

	uint8 Test_CPM_PARA_aucTz2Temp2[12] = { 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35 };
	memcpy(CPM_PARA_aucTz2Temp, Test_CPM_PARA_aucTz2Temp2, sizeof(CPM_PARA_aucTz2Temp));
	memcpy(FANM_PARA_aucTz2Temp, Test_CPM_PARA_aucTz2Temp2, sizeof(FANM_PARA_aucTz2Temp));
	//Execute runnable
	for (uChIdx = 0u; uChIdx < 10; uChIdx++) {
		rpCPMCycles10ms();
	}

	uint8 Test_CPM_PARA_aucTz2Temp3[12] = { 36, 37, 38, 39, 40, 41, 42, 43, 44, 45, 46, 47 };
	memcpy(CPM_PARA_aucTz2Temp, Test_CPM_PARA_aucTz2Temp3, sizeof(CPM_PARA_aucTz2Temp));
	memcpy(FANM_PARA_aucTz2Temp, Test_CPM_PARA_aucTz2Temp3, sizeof(FANM_PARA_aucTz2Temp));

	//Execute runnable
	for (uChIdx = 0u; uChIdx < 10; uChIdx++) {
		rpCPMCycles10ms();
	}


	//Validate output
//	AL_UNITTEST_CHECK(ieHssState.aeSetting[0], TRUE, == );//No DutyCycle for others //to be checked

}

// ----------------------------------------------------------------------------
// Test Cases
//-----------------------------------------------------------------------------
void ALUnitTest_AddTests(void)
{
	ALUnitTest_AddFunction("Mt_riAppMInit", Mt_riAppMInit);
	ALUnitTest_AddFunction("Mt_AppM_Test_1", Mt_AppM_Test_1);
	ALUnitTest_AddFunction("Mt_rdCPMDeInit", Mt_rdCPMDeInit);
	ALUnitTest_AddFunction("Mt_CPM_Cover", Mt_CPM_Cover);
	ALUnitTest_AddFunction("Mt_Trigger_Light_Func", Mt_Trigger_Light_Func);
	ALUnitTest_AddFunction("Mt_Derate_LB_Func", Mt_Derate_LB_Func);
	ALUnitTest_AddFunction("Mt_Check_Fan", Mt_Check_Fan);
	ALUnitTest_AddFunction("Mt_Check_Fan2", Mt_Check_Fan2);
}