UTS6710/drivers/adc/6710/adc_333.c

//=================================================================================================
// Header files area.
//=================================================================================================
#include "adc_global.h"
#include "adc_inittbl.h"
#include "adc_333.h"

//=================================================================================================
// Internal variables area.
//=================================================================================================
#if LINUX_VERSION_CODE >= KERNEL_VERSION(3,0,8)
struct semaphore adc_ioctl_semaphore;
#endif

struct cdev *cdev_adc;
struct timer_list	ADCtimer;

ADC_CONTEXT		ADCContext;
AdcInfo    			sAdcInfo;
VIP_InterfaceKIC    	sSendInfo,*psSendInfo;
VesaTiming 			ADC_InputVesaTiming, ADC_DetectTiming;
ADCCalibrate_OSDGainOffset_t ADCCalibrate_OSDGainOffset;
#ifdef DRV_ENABLE_CVD2
UINT8				ucCVD2PowerEnable=FALSE;
#endif
adc_ap_data gAdcAp;

BOOL bDisablePCAutoAdjust = FALSE;
UINT8 uc_reset_ADI_Lock[1] = {0};
wait_queue_head_t reset_ADI_wait[1];
INT32 iEnlargeWidthRate=1;
UINT8 ucBestLocation=0, ucCompareTimes, ucComparethd;
LONG lPhase2[32];

UINT8  static ucBestPhase[32];
UINT8  static ucBestPhaseIndex=0;

BOOL bAutoAdjust = FALSE, bCheckVIPHttl = FALSE, bAutoColorCalibrationDone =FALSE;
UINT8 ucLastInputMode=0xf;
static stADCTimingTable g_stADCTimingTbl;
InputVideoConf_st adc_InputSrcPin;
UINT16 usVIPHttlMax = 0, usVIPHttlMin = 0;
FirstTimeSearchGain Source[5];
BOOL bAutoWB = FALSE;
BOOL FactoryModeAWB = FALSE;
UINT8 SMT_mergin = 0;

//workqueue
static void ADC_SyncDetection(void *);
static struct workqueue_struct *pADC_WQSyncDetection;
static DECLARE_DELAYED_WORK(ADCSyncDetectionThread, (void*)&ADC_SyncDetection);

static void ADC_InterruptProcess(void *);
static struct workqueue_struct *pADC_WQInterruptProcess;
static DECLARE_DELAYED_WORK(ADCInterruptProcessThread, (void*)&ADC_InterruptProcess);

static void ADC_TunerStrength(void *);
static struct workqueue_struct *pADC_WQTunerStrength;
static DECLARE_DELAYED_WORK(ADCTunerStrengthThread, (void*)&ADC_TunerStrength);

extern void VIP_ADIReset(void);
extern void VIP_ResetADIEnable(void);
extern INT32 GetCustomerData(INT8 *pcTableName, INT8 **tablestart, UINT32 *tablesize);

#ifndef INIT_BY_KMF
INT32 __init 		DRV_ADC_Linuxinit(void);
void __exit 	DRV_ADC_Linuxexit(void);
#endif

UINT32 ADCTimerInfo[][2]=
{
    {TimerVsyncloss, 0},
    {TimerSignaloff, 0},
    {TimerModeChange, 0},
    {TimerTunerStrength, 0},
};

//=================================================================================================
// Internal function definition area
//=================================================================================================
static inline void ADC_StartTimerFun(PADC_CONTEXT pADCContext, void *func)
{
	init_timer(&ADCtimer);
	ADCtimer.expires = jiffies + HZ/512;
	ADCtimer.data = (ULONG)pADCContext;
	ADCtimer.function = (void (*)(ULONG))func;
	add_timer(&ADCtimer);
	sAdcInfo.bTimerHandlerBusy = FALSE;
}

static inline void ADC_RestartTimerFun(PADC_CONTEXT pADCContext)
{
	mod_timer(&ADCtimer, jiffies + HZ/512);
}

static __inline__ void ADC_StopTimerFun(PADC_CONTEXT pADCContext)
{
	del_timer_sync(&ADCtimer);
}

void ADC_DelayMS(UINT32 ulDelayMS )
{
	if( in_interrupt() || in_irq() )
		mdelay(ulDelayMS);
	else
		msleep(ulDelayMS);
}

static void ADC_TunerStrength(void *unuse)
{
#ifdef DRV_ENABLE_TUNER
	UINT8 ucStrength = 0;

	ADC_DelayMS(1000);

	DRV_FrontendCtrl(FRONTEND_CMD_GET_SIGNAL_STRENGTH,&ucStrength);

	if( ucStrength == 0)
	{
		DRV_CVD2_Enable_CVBSO_Gain( FALSE );
	}
	else
	{
		DRV_CVD2_Enable_CVBSO_Gain( TRUE );
	}
#endif
}

static void ADC_TimerFun(PADC_CONTEXT pADCContext)
{
	static UINT8  ucPollingHcntVcnt = 0;
	static BOOL bScreenMode = FALSE;
	volatile UINT16 usVIPHttl=0, usVIPVcnt=0;

    if( ADC_Read(ADC_REG_dbg_temp)& BIT0 )
    {
//        ADC_DebugMsg("Skip TimerFun\n");
        ADC_RestartTimerFun(pADCContext);
        return;
    }   
    
	if(ADCTimerInfo[TimerVsyncloss][1] == 1)
	{
		if(ADC_Read(ADC_STA_vs_active) == 0)
		{
			if( !(sAdcInfo.bInterruptHappen || sAdcInfo.bInterruptHappenAgain || sAdcInfo.bModeDetection || sAdcInfo.bModeChange ))
			{
				ADC_SyncDetectCreate();
				ADCTimerInfo[TimerVsyncloss][1] = 0;
			}
		}
	}

	if(ADCTimerInfo[TimerSignaloff][1] == 1)
	{
		ADC_Write(ADC_REG_cs2_sog_rst, 0x3);
		ADC_Write(ADC_REG_cs2_sog_rst, 0x0);
		ADCTimerInfo[TimerSignaloff][1] = 0;
	}

	if( sAdcInfo.bAutoGain && 
		( (abs(sAdcInfo.ucRegLowWidth - ADC_Read(ADC_STA_low_wdth) ) < 10) &&  
		  (abs(sAdcInfo.ucRegLineWidth - ADC_Read(ADC_STA_line_wdth) ) < 20) )  )
	{
//		ADC_DebugMsg("[pass] Mode change <low/line width OK>\n");
//		ADC_DebugMsg(" Low = 0x%x, mLow = 0x%x, Line = 0x%x, mLine = 0x%x \n\n", 
//			ADC_Read(ADC_STA_low_wdth), ADC_Read(ADC_STA_mlow_wdth), 
//			ADC_Read(ADC_STA_line_wdth), ADC_Read(ADC_STA_mline_wdth) );
	}	
	else if(ADCTimerInfo[TimerModeChange][1] == 1)
	{
		usVIPHttl = *((volatile UINT16*)(0xbe1cf010));
		usVIPVcnt = *((volatile UINT16*)(0xbe1cf014));

		if( sAdcInfo.ucSource != Adc_kSourceVGA )
		{
			if(abs(sAdcInfo.usHcount - usVIPHttl) > (sAdcInfo.usHcountModeChange+10)||
				abs(sAdcInfo.usVcount - usVIPVcnt) > sAdcInfo.usVcountModeChange)
			{
				if( (SMT_mergin == 0) && 
					( (sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_480I60)||(sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_576I50) || 
					  (sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_480P60)||(sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_576P50) ) )
				{
					sAdcInfo.ucInputMode = UNSTABLE_MODE;
					sAdcInfo.bModeChange = TRUE;
					ADC_SyncDetectCreate();
					ADCTimerInfo[TimerModeChange][1] = 0;
					ucPollingHcntVcnt = 0;
					bScreenMode = FALSE;
					SMT_mergin = sAdcInfo.ucTimingModeIndex & 0xff;
					printk(KERN_EMERG " #### <0x%x> Ignore [0] Mode change <H_count> & Set SMT = 0x%x\n", SMT_mergin, ADC_Read(ADC_REG_sog_smthr12v));
				}
				else
				{
					if(abs(sAdcInfo.usHcount - usVIPHttl) > (sAdcInfo.usHcountModeChange+20))
					{
						printk(KERN_EMERG "[0] Mode change <H_count>\n");
						printk(KERN_EMERG "AdcInfo: Hcount=%d, Vcount=%d\n", sAdcInfo.usHcount, sAdcInfo.usVcount);
						printk(KERN_EMERG "VIPHttl=%d, VIPVcnt=%d\n", usVIPHttl, usVIPVcnt);

						sAdcInfo.ucInputMode = UNSTABLE_MODE;
						sAdcInfo.bModeChange = TRUE;
						ADC_SyncDetectCreate();
						ADCTimerInfo[TimerModeChange][1] = 0;
						ucPollingHcntVcnt = 0;
						bScreenMode = FALSE;				
					}
					else if((sAdcInfo.ucScreenMode == NormalScreen) && (bScreenMode == FALSE))
					{
						printk(KERN_EMERG "AdcInfo: Hcount=%d, Vcount=%d\n", sAdcInfo.usHcount, sAdcInfo.usVcount);
						printk(KERN_EMERG "VIPHttl=%d, VIPVcnt=%d\n", usVIPHttl, usVIPVcnt);
						
						ADC_ScreenMode(BlackScreen);
						bScreenMode = TRUE;
					}
					SMT_mergin = 0;
				}

				ucPollingHcntVcnt++;

				if(ucPollingHcntVcnt == 3)
				{
					printk(KERN_EMERG "[1] Mode change <Polling_count>\n");
					printk(KERN_EMERG "AdcInfo: Hcount=%d, Vcount=%d\n", sAdcInfo.usHcount, sAdcInfo.usVcount);
					printk(KERN_EMERG "VIPHttl=%d, VIPVcnt=%d\n", usVIPHttl, usVIPVcnt);
					sAdcInfo.ucInputMode = UNSTABLE_MODE;
					sAdcInfo.bModeChange = TRUE;
					ADC_SyncDetectCreate();
					ADCTimerInfo[TimerModeChange][1] = 0;
					ucPollingHcntVcnt = 0;
					bScreenMode = FALSE;
				}
			}
			else
			{
				if(ucPollingHcntVcnt > 0)
				{
					if((sAdcInfo.ucScreenMode == BlackScreen) && (bScreenMode == TRUE)&&(bAutoColorCalibrationDone== TRUE))
					{
						ADC_ScreenMode(NormalScreen);
						bScreenMode = FALSE;
					}

					ucPollingHcntVcnt--;
				}
			}
		}
	}

	if(ADCTimerInfo[TimerTunerStrength][1] == 1)
		queue_delayed_work(pADC_WQTunerStrength, &ADCTunerStrengthThread, 0);

	if (bCheckVIPHttl == TRUE)
	{
		usVIPHttl = *((volatile UINT16*)(0xbe1cf008));

		if (usVIPHttl > usVIPHttlMax)
			usVIPHttlMax = usVIPHttl;
		else if (usVIPHttl < usVIPHttlMin)
			usVIPHttlMin = usVIPHttl;

		if ((usVIPHttlMax - usVIPHttlMin) > 0)
		{
			if(ucBestPhaseIndex<5)
			{	// Find the phase with high ranking from the list, and the neighboring of current phase would be excluded.
				for(ucBestPhaseIndex = 0; ucBestPhaseIndex < 5; ucBestPhaseIndex++)
				{
					if( abs(sAdcInfo.ucUserPhase - ucBestPhase[ucBestPhaseIndex]) > 1  &&
						abs(sAdcInfo.ucUserPhase - ucBestPhase[ucBestPhaseIndex]) < 31 )
					{
						sAdcInfo.ucUserPhase = ucBestPhase[ucBestPhaseIndex];
						break;
					}
				}
			}
			else
			{
				sAdcInfo.ucUserPhase = ucBestPhase[0];
			}
			ADC_SetPhaseDirdect(sAdcInfo.ucUserPhase);
			ADC_ResetADI_Unlock();
			printk(KERN_EMERG" ===== VIPHttl issue, No. %d  phase value would be adopted ===== \n", ucBestPhaseIndex + 1 );
			printk(KERN_EMERG" ===== VIPHttlMin = %d, VIPHttlMax = %d, Best phase = %d ===== \n", usVIPHttlMin, usVIPHttlMax, sAdcInfo.ucUserPhase);
			bCheckVIPHttl = FALSE;
		}
	}

	ADC_RestartTimerFun(pADCContext);
}

UINT32 ADC_Read(UINT32 uiAdr)
{
	UINT32 uiStartBit=31,uiEndBit=0,uiLeftSpaceBits,uiMask=0xffffffff;
	UINT32 uiADCAdr, uiADCDat=0;
	UINT8 ucByteMask=0xff;

	if( (*(UINT8*)(0xbe000180)&BIT2) )
	{
		printk(KERN_EMERG "MMIO_R_Err\n");
		return 0;
	}

	uiADCAdr = uiAdr & 0xffff;
	switch( uiAdr >> 28 )
	{
		case 0:
			uiADCAdr |= MMIOAddrADC;
			break;
		case 1:
			uiADCAdr |= 0xbe000000;
			break;
		default:
			printk(KERN_EMERG "MMIO_W_Err\n");
			return 0;
	}

	if( (uiAdr&0x03ff0000)==0x03e00000 )  // one dword write
	{
		uiADCDat=readl((UINT32*)uiADCAdr);
	}
	else // bits write
	{
		uiStartBit = (uiAdr&0x001f0000)>>16;
		uiEndBit = (uiAdr&0x03e00000)>>21;
		if( (uiEndBit-uiStartBit)<8 )
		{
			uiLeftSpaceBits = 7-uiEndBit;

			ucByteMask <<= uiLeftSpaceBits;
			ucByteMask >>= (uiLeftSpaceBits+uiStartBit);
			ucByteMask <<= uiStartBit;

			uiADCDat=readb((UINT8*)uiADCAdr) & ucByteMask;
			uiADCDat >>= uiStartBit;
		}
		else
		{
			uiADCAdr &= 0xfffffffc;
			uiStartBit += 8*(uiAdr&0x3);
			uiEndBit += 8*(uiAdr&0x3);
			uiLeftSpaceBits = 31-uiEndBit;

			uiMask <<= uiLeftSpaceBits;
			uiMask >>= (uiLeftSpaceBits+uiStartBit);
			uiMask <<= uiStartBit;

			uiADCDat=readl((UINT32*)uiADCAdr) & uiMask;
			uiADCDat >>= uiStartBit;
		}
	}
	return uiADCDat;
}

void ADC_Write(UINT32 uiAdr, UINT32 uiDat)
{
	UINT32 uiStartBit=31,uiEndBit=0,uiLeftSpaceBits,uiMask=0xffffffff;
	UINT32 uiADCAdr, uiADCDat=0;
	UINT8 ucByteMask=0xff;

	if( (*(UINT8*)(0xbe000180)&BIT2) )
	{
		printk(KERN_EMERG "MMIO_W_Err\n");
		return;
	}


	uiADCAdr = uiAdr & 0xffff;
	switch( uiAdr >> 28 )
	{
		case 0:
			uiADCAdr |= MMIOAddrADC;
			break;
		case 1:
			uiADCAdr |= 0xbe000000;
			break;
		default:
			printk(KERN_EMERG "MMIO_W_Err\n");
			return;
	}

	if( (uiAdr&0x03ff0000)==0x03e00000 )  // one dword write
	{
		uiADCDat=uiDat;
		writel(uiADCDat, (UINT32*)uiADCAdr);
	}
	else // bits write
	{
		uiStartBit = (uiAdr & 0x001f0000)>>16;
		uiEndBit   = (uiAdr & 0x03e00000)>>21;
		if( (uiEndBit-uiStartBit)<8 )
		{
			uiLeftSpaceBits = 7-uiEndBit;

			ucByteMask <<= uiLeftSpaceBits;
			ucByteMask >>= (uiLeftSpaceBits+uiStartBit);
			ucByteMask <<= uiStartBit;
			uiDat <<= uiStartBit;

			uiADCDat=readb((UINT8*)uiADCAdr);
			uiADCDat &= (~ucByteMask);
			uiADCDat |= (uiDat&ucByteMask);
			writeb((uiADCDat&0xff), (UINT8*)uiADCAdr);
		}
		else
		{
			uiADCAdr &= 0xfffffffc;
			uiStartBit += 8*(uiAdr&0x3);
			uiEndBit += 8*(uiAdr&0x3);
			uiLeftSpaceBits = 31-uiEndBit;

			uiMask <<= uiLeftSpaceBits;
			uiMask >>= (uiLeftSpaceBits+uiStartBit);
			uiMask <<= uiStartBit;
			uiDat <<= uiStartBit;

			uiADCDat=readl((UINT32*)uiADCAdr);
			uiADCDat &= (~uiMask);
			uiADCDat |= (uiDat&uiMask);
			writel(uiADCDat, (UINT32*)uiADCAdr);
		}
	}
}

void print_meminfo(INT8 *msg)
{
#ifdef MemTest
        struct sysinfo i;

#define K(x) ((x) << (PAGE_SHIFT - 10))
        si_meminfo(&i);

        printk( KERN_INFO
                "MemTotal:	%8lu kB\n"
                "MemFree:	%8lu kB at point %s\n\n",
                K(i.totalram),
                K(i.freeram),msg
        );
#endif
}

UINT32 ADC_MClk(void)
{
	UINT32 ulADC_MClk = 0;  // ADC device clock
    ulADC_MClk= drv_get_device_clock(YPP200MCLK);
    ulADC_MClk = ulADC_MClk/1000 ;

	printk(KERN_EMERG" Clock YPP200M(%d) \n ", ulADC_MClk);
	return ulADC_MClk;
}

void ADC_NoticeKmf(INT32 msgType, BOOL bActive, BOOL bNotSupport)
{
	InputPathStatus_t sInputPathStatus_t1={0};

	switch(msgType)
	{
		case ADCMSG_INPUTPATHSTATUS:
			sInputPathStatus_t1.bActive=bActive;
			sInputPathStatus_t1.bNotSupport=bNotSupport;
			sInputPathStatus_t1.bSub=NULLOP;
			sInputPathStatus_t1.msgfromVIP = FALSE;
			sInputPathStatus_t1.path = (sAdcInfo.ucSource == Adc_kSourceVGA) ? INPUTPATH_PC : INPUTPATH_COMPONENT;
			noticekmf(KMF2UMF_EVID_DRV, KMF2UMF_EVTYPE_DRV_INFORM_SIGNALSTATUS, (UINT8*)&sInputPathStatus_t1, sizeof(InputPathStatus_t));
			break;

        case NOTICEMSG_ADC_TURNOFFSOUND:
			noticekmf(KMF2UMF_EVID_ADC, KMF2UMF_EVTYPE_ADC_TURNOFFSOUND, &bActive, sizeof(BOOL));
			break;

	}
}

void ADC_ResetAdcInfoSetting(void)
{
	ADCTimerInfo[TimerVsyncloss][1] = 0;
	ADCTimerInfo[TimerSignaloff][1] = 0;
	ADCTimerInfo[TimerModeChange][1] = 0;
	ADCTimerInfo[TimerTunerStrength][1] = 0;
	sAdcInfo.bAutoGain = FALSE;
	sAdcInfo.bAutoOffset= FALSE;
	sAdcInfo.bReSearchGain= FALSE;
	sAdcInfo.bReSearchOffset= FALSE;
	sAdcInfo.usHcount = 0;
	sAdcInfo.usVcount = 0;
	sAdcInfo.ucSogThdHigh = 60;
	sAdcInfo.ucSogThdLow = 40;
}

void ADC_ResetApSetting(void)
{
	gAdcAp.bAutoFlow = TRUE;
	gAdcAp.bApUse = FALSE;
	gAdcAp.bDisableInterrupt = FALSE;
	gAdcAp.ucMatchTable = 0;
	gAdcAp.ucColor = 0;
	gAdcAp.ulApPosition = 0;
}

void ADC_ScreenMode(UINT8 ucScreenMode)
{
	if ( (ucLastInputMode == sAdcInfo.ucInputMode) && (ucScreenMode == sAdcInfo.ucScreenMode) )
		return;

	switch(ucScreenMode)
	{
		case NormalScreen:
			if (sAdcInfo.ucInputMode == NOSIGNAL_MODE || sAdcInfo.ucInputMode == UNSUPPORT_MODE)
				return;
			ADC_DebugMsg("N_Screen\n");
			VIP_UnmuteScreen();
			break;
		case BlackScreen:
			ADC_DebugMsg("B_Screen\n");
			VIP_MuteScreenDirectly(); //VIP_MuteScreen_ISR();
			ADC_NoticeKmf(NOTICEMSG_ADC_TURNOFFSOUND, FALSE, FALSE);
			ADC_DebugMsg("TURN OFF SOUND...\n");
			break;
		default:
			ucScreenMode = BlueScreen;
			ADC_NoticeKmf(ADCMSG_INPUTPATHSTATUS, FALSE, TRUE);
			ADC_DebugMsg("U_Screen\n");
			break;
	}

	ucLastInputMode = sAdcInfo.ucInputMode;
	sAdcInfo.ucScreenMode = ucScreenMode;
}

INT32 DRV_ADC_power(INT32 bPowerOn)
{
	static BOOL bADCPowerEnable = FALSE;

	if (bPowerOn == TRUE && bADCPowerEnable == FALSE)
	{
		drv_gated_clk_ctrl(GATED_F24MCLK_YPPADC, GATED_PASS_CLK);
		drv_gated_clk_ctrl(GATED_MMIOCLK_YPP, GATED_PASS_CLK);
		drv_gated_clk_ctrl(GATED_DVCLK_YPPADC, GATED_PASS_CLK);
		drv_gated_clk_ctrl(GATED_F24MCLK_ATV, GATED_PASS_CLK);

		DRV_ADC_YppShareBandGap_Power(TRUE);		// 3d[0]=0
		ADC_Write(ADC_REG_sch_pwdn_r,0);	//59[2:0]=0x0
		ADC_Write(ADC_REG_sch_pwdn_g,0);	//
		ADC_Write(ADC_REG_sch_pwdn_b,0);	//
		ADC_Write(ADC_REG_pll_rstn,1);		//32[0]=1
		ADC_Write(ADC_REG_pll_pwdn,1);		//32[1]=1
		ADC_Write(ADC_REG_lcg_pwdn,0);		//50[0]=0
		ADC_Write(ADC_REG_sog_pwdn,0);		//6e[4]=0
		//-----------------------------------------

		bADCPowerEnable = TRUE;
	}
	else if  (bPowerOn == FALSE && bADCPowerEnable == TRUE)
	{
		//bandgap powerdown can't generate for LVDS&PLL current
		DRV_ADC_YppShareBandGap_Power(FALSE);		// 3d[0]=1
		ADC_Write(ADC_REG_sch_pwdn_r,1);	//59[2:0]=0x7
		ADC_Write(ADC_REG_sch_pwdn_g,1);	//
		ADC_Write(ADC_REG_sch_pwdn_b,1);	//
		ADC_Write(ADC_REG_pll_rstn,0);		//32[0]=0
		ADC_Write(ADC_REG_pll_pwdn,0);		//32[1]=0
		ADC_Write(ADC_REG_lcg_pwdn,1);		//50[0]=1
		ADC_Write(ADC_REG_sog_pwdn,1);		//6e[4]=1
		//-----------------------------------------
		//2011-04-19 add when CVD2 power off.
		ADC_Write(ADC_REG_CVBSO_PWD12	, 1);
		ADC_Write(ADC_REG_pwdny, 1);
        DRV_ADC_Pll_Divider_Power(FALSE);   // 147[5] = 0 Power down dual loop divider

		drv_gated_clk_ctrl(GATED_F24MCLK_ATV, GATED_STOP_CLK);
		drv_gated_clk_ctrl(GATED_DVCLK_YPPADC, GATED_STOP_CLK);
		drv_gated_clk_ctrl(GATED_MMIOCLK_YPP, GATED_STOP_CLK);
		drv_gated_clk_ctrl(GATED_F24MCLK_YPPADC, GATED_STOP_CLK);


		bADCPowerEnable = FALSE;
	}
	else
	{
		ADC_DebugMsg("Recall  ADC_Pwr\n");
	}

	return TRUE;
}
EXPORT_SYMBOL(DRV_ADC_power);

void ADC_SyncDetectCreate(void)
{
	if(sAdcInfo.ucScreenMode == NormalScreen)
		ADC_ScreenMode(BlackScreen);

	if( sAdcInfo.bSyncDetection == FALSE)
	{
		sAdcInfo.bSyncDetection=TRUE;
		sAdcInfo.bModeDetection=TRUE;
		queue_delayed_work(pADC_WQSyncDetection, &ADCSyncDetectionThread, 0);
	}
	else if( sAdcInfo.bModeDetection==FALSE )
		sAdcInfo.bModeChange = TRUE;
}

void ADC_StatusUpdate(void)
{
	if(ADC_DetectTiming.usHFrequency != 0)
		sAdcInfo.usHcount= ( (CRYSTAL_CLK*1000/10)/ADC_DetectTiming.usHFrequency ) * SYS_CRYS_CLK_RATIO_PRECISE_3 /1000;
	else
		sAdcInfo.usHcount=0;
	sAdcInfo.usVcount=ADC_DetectTiming.usVcount;
	ADC_DebugMsg("AdcInfo: Hcount = %d, Vcount = %d\n",sAdcInfo.usHcount, sAdcInfo.usVcount);
}

void ADC_UpdateFlag(UINT8 ucFlag)
{
	sAdcInfo.bVpol = (ucFlag & BIT1)? 1:0;
	sAdcInfo.bHpol = (ucFlag & BIT2)? 1:0;
	sAdcInfo.bInterlace = (ucFlag & BIT0)? 1:0;

	if( sAdcInfo.ucSource==Adc_kSourceVGA )
		ADC_DetectTiming.ucFlag |= (0x10 << (ucFlag >> 1));

	ADC_DebugMsg("AdcInfo: Hpol=%d Vpol=%d Interlace=%d\n",sAdcInfo.bHpol, sAdcInfo.bVpol, sAdcInfo.bInterlace);
	ADC_DebugMsg("DetTiming_Flag=0x%x\n", ADC_DetectTiming.ucFlag);
}

BOOL ADC_Frequency_Filter(void)
{
	BOOL fRetValue = TRUE;

	if (sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		if ((ADC_DetectTiming.ucVFrequency < 45) ||  (ADC_DetectTiming.ucVFrequency > 88))
		{
			sAdcInfo.ucInputMode = UNSUPPORT_MODE;
			fRetValue = FALSE;
		}
	}
	else
	{
		if ((ADC_DetectTiming.ucVFrequency < 20) ||  (ADC_DetectTiming.ucVFrequency > 88))
		{
			sAdcInfo.ucInputMode = UNSUPPORT_MODE;
			fRetValue = FALSE;
		}
	}
	if (fRetValue == FALSE)
	{
		ADC_DebugMsg("VsFreq unsupport\n");	// torlance 3
	}
	return fRetValue;
}

BOOL ADC_NeedToCheckPolarity(void)
{
	BOOL bMustCheckPolarity=FALSE;
	VesaTiming* VgaModeTable =	g_stADCTimingTbl.pVgaVideoTimingTable;

	//640x350@70 conflict with 720x400@70
	if ((VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVcount == 449) &&
	 	((VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency+5)/10 == 315 ) &&
		(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency == 70))
	 	bMustCheckPolarity=TRUE;

	//640x350@85 conflict with 720x400@85 or 640x400@85
	if ((abs(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVcount-445)<2) &&
	 	((VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency+5)/10 == 379 ) &&
		(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency == 85))
	 	bMustCheckPolarity=TRUE;

	//1024x768_80M conflict with 1280x768_102M or 1360x768_109M
	if ((abs(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVcount-805) < 2) &&
		(abs((VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency+5)/10-603) < 2) &&
		(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency == 75))
		bMustCheckPolarity=TRUE;

	//1920X1080@60 in chroma 22293 timing 261 conflict with timing 2001
	if ( 	( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVcount == 1125 ) &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive==1920 ) &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVactive==1080 ))
	 	bMustCheckPolarity=TRUE;

	//640x480@75 conflict
	if ( ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive==640 )  &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVactive==480 ) &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency==75) )
	 	bMustCheckPolarity=TRUE;

	return bMustCheckPolarity;
}

BOOL ADC_NeedCheckVsyncWidth(void)
{
	BOOL bMustCheckVsyncWidth=FALSE;
	VesaTiming* VgaModeTable =	g_stADCTimingTbl.pVgaVideoTimingTable;

	//720x400@85 conflict with 640x400@85
	if (( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVactive==400 ) &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency==85 ))
	 	bMustCheckVsyncWidth=TRUE;

	//1280x768 conflict with 1360x768 or 1366x768
	if (( ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive==1280 ) ||
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive==1360 ) ||
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive==1366 ) ) &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVactive==768 ))
		bMustCheckVsyncWidth=TRUE;


	//1400X1050 conflict with 1680X1050
	if (( ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive==1400 ) ||
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive==1680 ) ) &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVactive==1050 ))
		bMustCheckVsyncWidth=TRUE;

	//1024x768@60 conflict with 1280x768@60 or 1360x768@60
	if ((abs(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVcount-790) < 2) &&
		(abs((VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency+5)/10-473) < 2) &&
		(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency == 60))
		bMustCheckVsyncWidth=TRUE;

	//1024x768@85 conflict with 1280x768@85 or 1360x768@85
	if ((abs(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVcount-808) < 2) &&
		(abs((VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency+5)/10-686) < 2) &&
		(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency == 85))
		bMustCheckVsyncWidth=TRUE;

	//1440X900@60 conflict with 1600X900@60
	if (( ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive==1600 )  &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVactive==900 ) &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency==60) )||
		( ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive==1440 )  &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVactive==900 ) &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency==60) ))
		bMustCheckVsyncWidth=TRUE;

	//1280x768@75 conflict with 1024X768@75
	if (( ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive==1024 )  &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVactive==768 ) &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency==75) )||
		( ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive==1280 )  &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVactive==768 ) &&
		( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency==75) ))
		bMustCheckVsyncWidth=TRUE;

	return bMustCheckVsyncWidth;
}

BOOL ADC_NeedCheckHsyncWidth(void)
{
	BOOL bCheckHsyncWidth=TRUE;
	VesaTiming* VgaModeTable =	g_stADCTimingTbl.pVgaVideoTimingTable;

	if ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucADCTableIndex == PLF_VIDEO_TIMING_ID_1280x960x60)
	{
		//1280X960@60 conflict with 1600X900@60, check HsyncWidth
		if (sAdcInfo.usHsyncWidth < 165)
			bCheckHsyncWidth=FALSE;
	}
	else if ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucADCTableIndex == PLF_VIDEO_TIMING_ID_1600x900x60)
	{
		//1600X900@60 conflict with 1280X960@60, check HsyncWidth
		if (sAdcInfo.usHsyncWidth >166)
			bCheckHsyncWidth=FALSE;
	}
	else if ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucADCTableIndex == PLF_VIDEO_TIMING_ID_1280x1024x60)
	{
		//1280x1024@60 has different Htotal, check HsyncWidth
		if (sAdcInfo.usHsyncWidth >222)
			bCheckHsyncWidth=FALSE;
	}
	else if ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucADCTableIndex == PLF_VIDEO_TIMING_ID_1280x1024x60B)
	{
		//1280x1024@60 has different Htotal, check HsyncWidth
		if (sAdcInfo.usHsyncWidth < 223)
			bCheckHsyncWidth=FALSE;
	}
	else if ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucADCTableIndex == PLF_VIDEO_TIMING_ID_1680x1050x60)
	{
		//1680x1050@60 has different Htotal, check HsyncWidth
		if ((sAdcInfo.usHsyncWidth >243) &&  (sAdcInfo.ulVsyncWidth > 17500) )
			bCheckHsyncWidth=FALSE;
	}
	else if ( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucADCTableIndex == PLF_VIDEO_TIMING_ID_1680x1050x60B)
	{
		//1680x1050@60 has different Htotal, check HsyncWidth
		if ((sAdcInfo.usHsyncWidth < 244) && (sAdcInfo.ulVsyncWidth > 17501) )
			bCheckHsyncWidth=FALSE;
	}

	if (bCheckHsyncWidth == FALSE)
	{
		ADC_DebugMsg("Different HsyncWidth, check the other timing \n");
	}

	return bCheckHsyncWidth;
}

BOOL ADC_NeedCheckSwitchRef24M(void)
{
	BOOL bSwitchToOSC = FALSE;
	
	VesaTiming* VgaModeTable =	g_stADCTimingTbl.pVgaVideoTimingTable;

	switch( VgaModeTable[sAdcInfo.ucMatchTablePtr].ucADCTableIndex)
	{
		case PLF_VIDEO_TIMING_ID_640x350x70:
		case PLF_VIDEO_TIMING_ID_640x480x60:
		case PLF_VIDEO_TIMING_ID_800x600x75:
		case PLF_VIDEO_TIMING_ID_800x600x85:
		case PLF_VIDEO_TIMING_ID_848x480x60:
		case PLF_VIDEO_TIMING_ID_1680x1050x60_RB:
			// Switch CLK source to OSC directly for preventing water ripple interference
				bSwitchToOSC = TRUE;
			break;
		default:
			// Keep CLK source from CCPLL
				bSwitchToOSC = FALSE;
			break;
	}
		
	return bSwitchToOSC;
}

void ADC_CheckVGATable(void)
{
	UINT16 usDeltaVcount, usDeltaHFreq;
	UINT8   ucDeltaVFreq,ucDeltaPol;
	UINT32 ulDeltaValue;
	INT32      iCheckVsyncWidthDelta;
	VesaTiming* VgaModeTable =	g_stADCTimingTbl.pVgaVideoTimingTable;

	usDeltaHFreq=abs(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency -ADC_DetectTiming.usHFrequency);
	ucDeltaVFreq=abs(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency -ADC_DetectTiming.ucVFrequency);
	usDeltaVcount=abs(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVcount - ADC_DetectTiming.usVcount);
	ucDeltaPol=abs((VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucFlag>>4) & (ADC_DetectTiming.ucFlag>>4));
	ulDeltaValue = usDeltaHFreq + ucDeltaVFreq + usDeltaVcount;

	// Boundary for Delta Vf smaller than 2
	// Delta Hf < 1.5% of Hf on table for boundary
	if ( ucDeltaVFreq < 2 && usDeltaHFreq <= (VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency+66)/67 && usDeltaVcount<3 )
	{
		ADC_DebugMsg("--- TblEntry = %d --- %d x %d @ %d \n", sAdcInfo.ucVesaModeTableEntry,
											VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHactive,
											VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVactive,
											VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency);

		if( ADC_NeedCheckHsyncWidth()== FALSE)
			return;

		if (ADC_NeedToCheckPolarity() == TRUE)
		{
			ADC_DebugMsg("ChkPol = %d, Table_Flag = 0x%x, DetTiming_Flag = 0x%x\n", ucDeltaPol,
								VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucFlag,	
								ADC_DetectTiming.ucFlag);
		    if (ucDeltaPol  ==  0)
				return;
		}

		if( ADC_NeedCheckVsyncWidth()==TRUE)
		{
			iCheckVsyncWidthDelta = abs(VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency*10/VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVs_Width
			- sAdcInfo.ulMClk*SYS_CRYS_CLK_RATIO_PRECISE_3/(sAdcInfo.ulVsyncWidth));

			ADC_DebugMsg("ChkVsWidth diff = %d\n", iCheckVsyncWidthDelta);

			//1680x1050x60C conflict with 1400x1050x60B
			if ((( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucADCTableIndex == PLF_VIDEO_TIMING_ID_1680x1050x60C ) && (sAdcInfo.ulVsyncWidth < 9033)) ||
				(( VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucADCTableIndex == PLF_VIDEO_TIMING_ID_1400x1050x60B ) && (sAdcInfo.ulVsyncWidth > 9033)))
				return;

			if( sAdcInfo.iCheckVsyncWidthDelta > iCheckVsyncWidthDelta )
			{
				sAdcInfo.ulDeltaValue = ulDeltaValue;
				sAdcInfo.iCheckVsyncWidthDelta = iCheckVsyncWidthDelta;
				sAdcInfo.ucMatchTablePtr = sAdcInfo.ucVesaModeTableEntry;
			}
			else
				return;
		}
		else
		{
			ADC_DebugMsg("ChkTblDeltaVal = %d\n", ulDeltaValue);

			if(sAdcInfo.ulDeltaValue > ulDeltaValue)
			{
				sAdcInfo.ulDeltaValue = ulDeltaValue;
				sAdcInfo.ucMatchTablePtr = sAdcInfo.ucVesaModeTableEntry;
			}
			else
				return;
		}

		ADC_DebugMsg("HFdiff = %d, VFdiff = %d, VCdiff = %d, TotalDelta = %d\n", 
							usDeltaHFreq, ucDeltaVFreq, usDeltaVcount, ulDeltaValue);
		ADC_DebugMsg("HFreq = %d, VFreq = %d, VCount = %d, HS_Width = %d\n", 
							VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency,
							VgaModeTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency,
							VgaModeTable[sAdcInfo.ucVesaModeTableEntry].usVcount,
							sAdcInfo.usHsyncWidth);

		if(sAdcInfo.ulDeltaValue == 0 && ADC_NeedCheckVsyncWidth()==FALSE)
			sAdcInfo.ucVesaModeTableEntry =  g_stADCTimingTbl.VgaVideoTimingTblSize;
	}
}

void ADC_CheckYPPTable(void)
{
	UINT16 usDeltaHFreq;
	UINT8   ucDeltaVFreq;

	usDeltaHFreq=abs(g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency -ADC_DetectTiming.usHFrequency/10);
	ucDeltaVFreq=abs(g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency -ADC_DetectTiming.ucVFrequency);

	// Boundary for Delta Vf smaller than 2
	// Delta Hf < 1.5% of Hf on table for boundary
	if (sAdcInfo.ulDeltaValue > usDeltaHFreq && ucDeltaVFreq < 2 &&
		usDeltaHFreq <= (g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency+66)/67 &&
		sAdcInfo.bInterlace == (g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucVesaModeTableEntry].ucFlag&0x1))
	{
		ADC_DebugMsg("--- TblEntry = %d --- %d x %d @ %d\n", sAdcInfo.ucVesaModeTableEntry,
							g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucVesaModeTableEntry].usHactive,
							g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucVesaModeTableEntry].usVactive,
							g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency);
							
		if ( (abs(ADC_DetectTiming.usVcount - 625) < 5) && (sAdcInfo.ucRegLowWidth < 250 ) )
		{
			ADC_DebugMsg( "Unsupported 1080i@50Hz 295 RegLowWidth = %d \n", sAdcInfo.ucRegLowWidth);
				return;
		}
							
		ADC_DebugMsg("HFdiff = %d, VFdiff = %d\n", usDeltaHFreq, ucDeltaVFreq);
		ADC_DebugMsg("HFreq = %d, VFreq = %d, VCount = %d\n",
							g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucVesaModeTableEntry].usHFrequency,
							g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucVesaModeTableEntry].ucVFrequency,
							g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucVesaModeTableEntry].usVcount);
									 
		sAdcInfo.ulDeltaValue=usDeltaHFreq;
		sAdcInfo.ucMatchTablePtr=sAdcInfo.ucVesaModeTableEntry;

		if(sAdcInfo.ulDeltaValue == 0)
			sAdcInfo.ucVesaModeTableEntry =  g_stADCTimingTbl.YppVideoTimingTblSize;
	}
}

void ADC_CheckInputMatch(UINT8 ucTable)
{
	switch (ucTable)
	{
		case VESA_MODE:
			ADC_CheckVGATable();
			break;
		case YPP_MODE:
			ADC_CheckYPPTable();
			break;
	}
}

UINT8 ADC_FindTimingModeTable(void)
{
	BOOL bFound=FALSE;
	UINT32 ulMaxPixelClock;

	ulMaxPixelClock=175;

	sAdcInfo.ucVesaModeTableEntry = 0;
	sAdcInfo.ulDeltaValue = 100;
	sAdcInfo.iCheckVsyncWidthDelta = 100000;

	if( sAdcInfo.ucSource==Adc_kSourceVGA )
	{
		// The following are for PC mode
		ADC_DebugMsg("Find PC_Tbl\n");
		while (sAdcInfo.ucVesaModeTableEntry <  g_stADCTimingTbl.VgaVideoTimingTblSize )
		{
    		ADC_CheckInputMatch(VESA_MODE);
			sAdcInfo.ucVesaModeTableEntry++;
		}

		if (g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucPixelClock > ulMaxPixelClock)
		{
			printk(KERN_EMERG"Table PixClk %d M(> %d)\n", 
							g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucPixelClock, ulMaxPixelClock);
			return UNSUPPORT_MODE;
		}

		bFound = (sAdcInfo.ulDeltaValue != 100) ? TRUE:FALSE;
		if (bFound == TRUE && g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].bSupport == 1)
		{
			if(ADC_NeedCheckSwitchRef24M())
			{
				ADC_Write(GLB_REG_VADC_REF_SEL_24M, 1);	// 0xbe000149[6] 24 MHz reference selector. 0: CPLL,  1: Crystal 24M
				ADC_DebugMsg(" Switch 24 MHz reference selector (0xbe000149[6]) as Crystal\n");
			}
			ADC_DebugMsg("--- PC_MODE Match in %d --- %d x %d @ %d \n", sAdcInfo.ucMatchTablePtr,
								g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].usHactive,
								g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].usVactive,
								g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucVFrequency);
			return VESA_MODE;
		}
		else
			return UNSUPPORT_MODE;
	}
	else
	{
		ADC_DebugMsg("Find YPP_Tbl\n");
		while (sAdcInfo.ucVesaModeTableEntry <  g_stADCTimingTbl.YppVideoTimingTblSize)
		{
			ADC_CheckInputMatch(YPP_MODE);
			sAdcInfo.ucVesaModeTableEntry++;
		}

		bFound = (sAdcInfo.ulDeltaValue != 100) ? TRUE:FALSE;
		if(bFound == TRUE)
		{
#ifdef DRV_ENABLE_CVD2
			if(ucCVD2PowerEnable==FALSE)
			{
				DRV_CVD2_Power_Setting(TRUE);
				DRV_CVD2_Enable_Ypp_CC();
				ucCVD2PowerEnable=TRUE;
			}
#endif
			ADC_DebugMsg("--- YPP_MODE Match in %d --- %d x %d @ %d\n", sAdcInfo.ucMatchTablePtr,
								g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr].usHactive,
								g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr].usVactive,
								g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucVFrequency);

			return YPP_MODE;
		}
		else
			return UNSUPPORT_MODE;
	}
	return UNSUPPORT_MODE;
}

BOOL ADC_Detect_Mode(void)
{
	if(ADC_Frequency_Filter()==FALSE)
	{
		ADC_StatusUpdate();
		return FALSE;
	}
	sAdcInfo.ucInputMode = ADC_FindTimingModeTable();
	if(sAdcInfo.ucInputMode == UNSUPPORT_MODE)
	{
		ADC_StatusUpdate();
		return FALSE;
	}
	else
		return TRUE;
}

void ADC_LoadVesaTable(UINT8 ucTablePtr)
{
	VesaTiming* VgaModeTable =	g_stADCTimingTbl.pVgaVideoTimingTable;

	ADC_InputVesaTiming.usHtotal = VgaModeTable[ucTablePtr].usHtotal*iEnlargeWidthRate;
	ADC_InputVesaTiming.usVcount = VgaModeTable[ucTablePtr].usVcount;
	ADC_InputVesaTiming.usHFrequency = VgaModeTable[ucTablePtr].usHFrequency;
	ADC_InputVesaTiming.ucVFrequency = VgaModeTable[ucTablePtr].ucVFrequency;
	ADC_InputVesaTiming.ucPixelClock = VgaModeTable[ucTablePtr].ucPixelClock*iEnlargeWidthRate;
	ADC_InputVesaTiming.usHactive = VgaModeTable[ucTablePtr].usHactive*iEnlargeWidthRate;
	ADC_InputVesaTiming.usVactive = VgaModeTable[ucTablePtr].usVactive;
	ADC_InputVesaTiming.usHstart= VgaModeTable[ucTablePtr].usHstart*iEnlargeWidthRate;
	ADC_InputVesaTiming.usVstart= VgaModeTable[ucTablePtr].usVstart;
	ADC_InputVesaTiming.usHs_Width = VgaModeTable[ucTablePtr].usHs_Width*iEnlargeWidthRate;
	ADC_InputVesaTiming.ucFlag=ADC_DetectTiming.ucFlag;

	if( sAdcInfo.bHpol==0 )
		ADC_InputVesaTiming.usHstart -= ADC_InputVesaTiming.usHs_Width;

	ADC_DetectTiming.usHstart=ADC_InputVesaTiming.usHstart + ADI_CENTERING_HOR_DELAY;
	ADC_DetectTiming.usVstart=ADC_InputVesaTiming.usVstart;
	ADC_DetectTiming.usHactive=ADC_InputVesaTiming.usHactive;
	ADC_DetectTiming.usVactive=ADC_InputVesaTiming.usVactive;
}

void ADC_LoadYPPTable(UINT8 ucTablePtr)
{
	ADC_InputVesaTiming.ucPixelClock=g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].ucPixelClock*iEnlargeWidthRate;
	ADC_InputVesaTiming.usVcount=g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].usVcount;
	ADC_InputVesaTiming.usHFrequency=g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].usHFrequency*10;
	ADC_InputVesaTiming.ucVFrequency=g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].ucVFrequency;
	ADC_InputVesaTiming.usHtotal=g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].usHtotal*iEnlargeWidthRate;
	ADC_InputVesaTiming.usHstart=(g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].usHstart*iEnlargeWidthRate);
	ADC_InputVesaTiming.usVstart=g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].usVstart;
	ADC_InputVesaTiming.usHactive=g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].usHactive*iEnlargeWidthRate;
	ADC_InputVesaTiming.usVactive=g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].usVactive;
	ADC_InputVesaTiming.usHs_Width = g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].usHs_Width*iEnlargeWidthRate;
	ADC_InputVesaTiming.ucFlag=ADC_DetectTiming.ucFlag;

	if (sAdcInfo.bInterlace)
		ADC_InputVesaTiming.usVactive/=2;

	ADC_DetectTiming.usHstart=ADC_InputVesaTiming.usHstart;
	ADC_DetectTiming.usVstart=ADC_InputVesaTiming.usVstart;
	ADC_DetectTiming.usHactive=ADC_InputVesaTiming.usHactive;
	ADC_DetectTiming.usVactive=ADC_InputVesaTiming.usVactive;

	if( (g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].ucADCTableIndex == PLF_VIDEO_TIMING_ID_DTV_480I60) || (g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].ucADCTableIndex == PLF_VIDEO_TIMING_ID_DTV_480P60) || (g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].ucADCTableIndex == PLF_VIDEO_TIMING_ID_DTV_576I50) || (g_stADCTimingTbl.pYppVideoTimingTable[ucTablePtr].ucADCTableIndex  == PLF_VIDEO_TIMING_ID_DTV_576P50))
		ADC_DetectTiming.usHs_Width = sAdcInfo.ucRegLowWidth*1000000/sAdcInfo.ulMClk*ADC_InputVesaTiming.ucPixelClock/1000;
	else
		ADC_DetectTiming.usHs_Width = sAdcInfo.ucRegLowWidth*1000000/sAdcInfo.ulMClk*ADC_InputVesaTiming.ucPixelClock/1000*2;
}

BOOL ADC_CheckLoadTableValueRange(void)
{
	BOOL bLoadDataOK=FALSE;

	ADC_DebugMsg("=========  [%s MatchIdx = %3d]  ==========", ( sAdcInfo.ucSource==Adc_kSourceVGA )?" VGA ":" YPP ",
																 sAdcInfo.ucMatchTablePtr);
	ADC_DebugMsg("|   Htotal      = %4d     Vcount      =  %3d  |", ADC_InputVesaTiming.usHtotal, ADC_InputVesaTiming.usVcount);	
	ADC_DebugMsg("|   Hactive     = %4d     Vactive     = %4d  |", ADC_DetectTiming.usHactive, ADC_DetectTiming.usVactive);
	ADC_DebugMsg("|   Hstart      =  %3d     Vstart      =  %3d  |", ADC_DetectTiming.usHstart, ADC_DetectTiming.usVstart);
	ADC_DebugMsg("|   HFrequency  = %4d     VFrequency  =  %3d  |", ADC_InputVesaTiming.usHFrequency, ADC_InputVesaTiming.ucVFrequency);
	ADC_DebugMsg("|   PixelClock  =  %3d     ucFlag      = 0x%02x  |", ADC_InputVesaTiming.ucPixelClock, ADC_InputVesaTiming.ucFlag);
	ADC_DebugMsg("|   Hs_Width    =  %3d     EnlargeRate =    %d  |\n", ADC_DetectTiming.usHs_Width, iEnlargeWidthRate);
	ADC_DebugMsg("=============================================");

	return bLoadDataOK;
}

BOOL ADC_CheckSyncStable(UINT8 ucTimeOut)
{
	UINT8 ucLoop=0;
	BOOL bStable=FALSE;
	UINT8 ucTimeOut2=4;

	while( ucLoop++ <= ucTimeOut )
	{
		if( VIP_InputActiveDetect(EXTS)==0x0f )
		{
			bStable = TRUE;
			break;
		}
		ADC_DelayMS(20); // 25ms
	}

	while( ucTimeOut2 > 0 && bStable == TRUE)
	{
		if( VIP_InputActiveDetect(EXTS)!=0x0f )
		{
			ADC_DebugMsg("Round 2: VIP_Sync Unstable! Time is %d\n", (4 - ucTimeOut2));
			bStable = FALSE;
			break;
		}
		udelay(1000);  // 1ms
		ucTimeOut2--;
	}

	if (bStable == FALSE)
		ADC_DebugMsg("VIP_Sync Unstable! Status=0x%x\n", VIP_InputActiveDetect(EXTS));
	else
	{
		ADC_DebugMsg("VIP_Sync Stable\n");
	}


	return bStable;
}

BOOL  ADC_GetExtsInfo(UINT8 ucStableCnt, UINT8 ucTimeOut, UINT8 ucMdelay)
{
	VesaTiming InputBaseTiming;
	UINT8 ChkCnt,OkCnt,ucFlag;
	volatile UINT16 ucMLineWidth;
	BOOL RetVal,bPolarityInverse, bSignalStable=FALSE;
	SYNC_DETECT	sSyncInfo={0};

	InputBaseTiming.ucFlag=InputBaseTiming.usVcount=0;
	InputBaseTiming.ucVFrequency=InputBaseTiming.usHFrequency=0;
	ADC_DetectTiming.usVcount=ADC_DetectTiming.ucFlag=0;
	ADC_DetectTiming.ucVFrequency=ADC_DetectTiming.usHFrequency=0;
	sAdcInfo.ulVsyncWidth=0;

	RetVal = ADC_CheckSyncStable(8);

	if(!sAdcInfo.bADCEnable)
   		return FALSE;

	if(RetVal == TRUE)
	{
		ChkCnt=OkCnt=0;
		bPolarityInverse = ADC_Read(ADC_REG_e_hsync_pol);
		while (OkCnt < ucStableCnt && ChkCnt++ < ucTimeOut)
		{
			//ADC_DelayMS(ucMdelay);
			if(VIP_InputSyncDetect(NULLOP, SOURCE_EXTS, &sSyncInfo)  == SYNC_OK)
			{
				RetVal=TRUE;

				// 2010/12/30 modify by patrick
				if(sAdcInfo.ucSource == Adc_kSourceVGA)
					ucFlag = ((ADC_Read(ADC_STA_hs_plrty)^bPolarityInverse)<<2) | (ADC_Read(ADC_STA_vs_plrty)<<1);
				else
					ucFlag = sSyncInfo.ucADCInterlaceMode;

				if((abs(InputBaseTiming.usVcount-(sSyncInfo.usVSyncCnt&0x07ff)) < 5) &&
					(abs(InputBaseTiming.ucVFrequency-(sSyncInfo.usVFreq+5)/10) < 3) &&
					(abs(InputBaseTiming.usHFrequency-sSyncInfo.usHFreq) < (sSyncInfo.usHFreq+66)/67) &&
					(abs(InputBaseTiming.ucFlag-ucFlag) == 0) )
				{
					ADC_DetectTiming.usVcount=(ADC_DetectTiming.usVcount+(sSyncInfo.usVSyncCnt&0x07ff))/2;
					ADC_DetectTiming.ucVFrequency=(ADC_DetectTiming.ucVFrequency+(sSyncInfo.usVFreq+5)/10)/2;
					ADC_DetectTiming.usHFrequency=(ADC_DetectTiming.usHFrequency+sSyncInfo.usHFreq)/2;
				}
				else
				{
					ADC_DetectTiming.usVcount=InputBaseTiming.usVcount=sSyncInfo.usVSyncCnt&0x07ff;
					ADC_DetectTiming.ucFlag=InputBaseTiming.ucFlag=ucFlag;
					ADC_DetectTiming.ucVFrequency=InputBaseTiming.ucVFrequency=(sSyncInfo.usVFreq+5)/10;
					ADC_DetectTiming.usHFrequency=InputBaseTiming.usHFrequency=sSyncInfo.usHFreq;
					OkCnt = 0;
				}
				OkCnt++;
			}
			else
			{
				OkCnt=0;
				RetVal=FALSE;
			}
		}

		if( sAdcInfo.ucSource==Adc_kSourceVGA )
		{
			sAdcInfo.usHsyncWidth= ADC_Read(ADC_STA_shp_width)* SYS_CRYS_CLK_RATIO_PRECISE_3 /1000;
			sAdcInfo.ulVsyncWidth = ADC_Read(ADC_STA_svp_width)* SYS_CRYS_CLK_RATIO_PRECISE_3 /1000;
            sAdcInfo.usHsyncWidth = sAdcInfo.usHsyncWidth;
            sAdcInfo.ulVsyncWidth = sAdcInfo.ulVsyncWidth;
			bSignalStable = ADC_Read(ADC_STA_cstable_i2);
		}
		else
		{
			sAdcInfo.ucRegLineWidth = ADC_Read(ADC_STA_line_wdth);
			sAdcInfo.ucRegLowWidth = ADC_Read(ADC_STA_low_wdth);

			ucMLineWidth =  ADC_Read(ADC_STA_mline_wdth);

			 if (abs(sAdcInfo.ucRegLineWidth -ucMLineWidth) > 4 )
			{
				ADC_DebugMsg("Fail: mLine_width < threshold\n");
				ADC_DebugMsg("RegLineWidth=%d ucMLineWidth=%d\n", sAdcInfo.ucRegLineWidth, ucMLineWidth);
				//bSignalStable = FALSE;
			}
			else
			{
			//<--Workaround for COMP1080p pattern BURST of quantumdata.
				bSignalStable = (ADC_Read(ADC_STA_cur_state)==0xd0)? TRUE:FALSE;

				if(bSignalStable == FALSE)
				{
					ADC_DebugMsg("Fail: Sog Unstable\n");
				}
			}

			if ( (sAdcInfo.ucSource == Adc_kSourceCOMP1 || 
				  sAdcInfo.ucSource == Adc_kSourceCOMP2 || 
				  sAdcInfo.ucSource == Adc_kSourceCOMP3) && 
				  (bSignalStable == TRUE) )
				bSignalStable = ADC_CheckInterlaceMode();
		}


		if (bSignalStable == TRUE)
		{
			if (abs(ADC_DetectTiming.usVcount - 562) < 5 )
				ADC_Write(ADC_REG_cs_vslp, 0);
		}

		ADC_Clear_Interrupt(0xdfff);

		if(ChkCnt > ucTimeOut || bSignalStable==FALSE)
		{
			ADC_DetectTiming.usVcount=ADC_DetectTiming.ucFlag=0;
			ADC_DetectTiming.ucVFrequency=ADC_DetectTiming.usHFrequency=0;
			sAdcInfo.ulVsyncWidth=0;
			RetVal = FALSE;
		}
	}

	ADC_DebugMsg("ADC_DetectTiming from VIP_InputSyncDetect:\n    HF = %d, VF = %d, Vcount = %d, Flag = 0x%x\n",
									ADC_DetectTiming.usHFrequency,
									ADC_DetectTiming.ucVFrequency,
									ADC_DetectTiming.usVcount,
									ADC_DetectTiming.ucFlag);
	
	if( sAdcInfo.ucSource == Adc_kSourceVGA )
	{
		ADC_DebugMsg("AdcInfo: HS_Width<shp_width> = %d, VS_Width<svp_width> = %d\n",sAdcInfo.usHsyncWidth, sAdcInfo.ulVsyncWidth);		
	}
	else
	{
		ADC_DebugMsg("AdcInfo: Line_Width = %d, Low_Width = %d\n",sAdcInfo.ucRegLineWidth, sAdcInfo.ucRegLowWidth);
	}
	
	if(sAdcInfo.ucSource == Adc_kSourceCOMP1 || sAdcInfo.ucSource == Adc_kSourceCOMP2 || sAdcInfo.ucSource == Adc_kSourceCOMP3)
	{
		if(sAdcInfo.ucRegLineWidth< 2500)
		{
			ADC_DebugMsg("Fail: AdcInfo:RegLineWidth < 2500 !!!!!!!!!\n");
			//ADC_DelayMS(4500);
			ADC_Write(ADC_REG_cs2_pll_sw_rst, 0x1);
			ADC_Write(ADC_REG_cs2_pll_sw_rst, 0x0);
			udelay(1000); // 1ms
			RetVal = FALSE;
		}
	}
	ADC_UpdateFlag(ADC_DetectTiming.ucFlag);

	return RetVal;
}

BOOL ADC_ModeStable(void)
{
	UINT8 ucLoop=0;

	ADC_DebugMsg("%s %d\n", __FUNCTION__,__LINE__);

	while (ucLoop++ < 10)
	{
	 	if (ADC_CheckSyncStable(6) == TRUE)
	 	{
			ADC_DebugMsg("%dth VIP Sync chk\n", ucLoop);
			ucLoop=100;
	 	}
	}

	if (ucLoop <= 11)
	{
		ADC_DebugMsg("Sync UnStable TimeOut\n");
		return FALSE;
	}

	return TRUE;
}

void ADC_ModeSetting(void)
{
	UINT16 usPtr;
	UINT32 ADCReg=0, ADCValue=0, ulHStart=0, ucIndex;

	ADC_DebugMsg("%s %d\n", __FUNCTION__,__LINE__);

	ADC_OverSample();

	if (sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		ucIndex = g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucADCTableIndex;
		ADC_LoadVesaTable(sAdcInfo.ucMatchTablePtr);
	}
	else
	{
		ucIndex = g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucADCTableIndex;
		ADC_LoadYPPTable(sAdcInfo.ucMatchTablePtr);
	}

	if( ADC_CheckLoadTableValueRange()==FALSE )
		sAdcInfo.bDoAuto = TRUE;

	sAdcInfo.ucTimingModeIndex = ucIndex;

	for (usPtr=0;usPtr<ADCModeSettingTableSize;usPtr++)
	{
		if (ADCModeTable[usPtr][0] == ucIndex && ADCModeTable[usPtr][1] == 0xff00)
		{
			usPtr++;
    			while (ADCModeTable[usPtr][0] != 0xffff && ADCModeTable[usPtr][1] != 0xffff)
    			{
    				ADCReg = ADCModeTable[usPtr][0];
				ADCValue=(UINT8)(ADCModeTable[usPtr][1] & 0xff);

    				ADC_Write(ADCReg, ADCValue);
				usPtr++;
    			}
			usPtr=ADCModeSettingTableSize;
    		}
    	}

	ulHStart = ADC_DetectTiming.usHs_Width + (ADC_InputVesaTiming.usHstart-ADC_DetectTiming.usHs_Width)/2;;
	ADC_DebugMsg("Auto offset:HStart=%d\n", ulHStart);

	// because component line is bad, adjustment sog_smthr 0x98 to 0xdb when SDTV
	if(sAdcInfo.ucSource == Adc_kSourceCOMP1 || sAdcInfo.ucSource == Adc_kSourceCOMP2 || sAdcInfo.ucSource == Adc_kSourceCOMP3)
	{
		if( (sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_480I60) || (sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_480P60) || (sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_576I50) || (sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_576P50))
		{
			ADC_Write(ADC_REG_sog_smtl_dbsen, 0x1);
			ADC_Write(ADC_REG_aof_pstart, (ulHStart<255?ulHStart:254));

			ADC_Write(ADC_REG_vsync_mask_start, 0x1);
			ADC_Write(ADC_REG_vsync_mask_end, 0x1);
			ADC_Write(ADC_REG_iir_fbppn1_i_7to0, 0xc0);
			ADC_Write(ADC_REG_iir_fbppn1_i_8, 0x0);
			ADC_Write(ADC_REG_sc_vblankt2, 3);
			ADC_Write(ADC_REG_vs_synct_th, 0xc);
			ADC_Write(ADC_REG_stb_vs_sc_update, 0);
			ADC_Write(ADC_REG_st_top_enter_th, 0x8);
			ADC_Write(ADC_REG_coast_out_sel, 0x2);
			ADC_Write(ADC_REG_coast200_start_opt, 0x2);
			if( SMT_mergin == (sAdcInfo.ucTimingModeIndex&0xff) )
			{
				ADC_Write(ADC_REG_sog_smthr12v, 0x54);
				printk(KERN_EMERG " #### <0x%x> Revise SMT = 0x%x\n", SMT_mergin, ADC_Read(ADC_REG_sog_smthr12v));
			}
		}
		else
			ADC_Write(ADC_REG_aof_pstart, (ulHStart<255?ulHStart:254));
		SMT_mergin = 0;
	}
	else if (sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		if ( 	( g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].usHactive==1920 ) &&
			( g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].usVactive==1080 ))
		{
			ADC_Write(ADC_REG_cs2_r_clamp_width, 0x5);
			ADC_Write(ADC_REG_cs2_g_clamp_width, 0x5);
			ADC_Write(ADC_REG_cs2_b_clamp_width, 0x5);
		}
		else if( ( g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].usHactive==1920 ) &&
				 ( g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].usVactive==1200 ) )
		{
			ADC_Write(ADC_REG_cs2_r_clamp_width, 0x3);
			ADC_Write(ADC_REG_cs2_g_clamp_width, 0x3);
			ADC_Write(ADC_REG_cs2_b_clamp_width, 0x3);
		}
		else
		{
			ADC_Write(ADC_REG_cs2_r_clamp_width, 0x7);
			ADC_Write(ADC_REG_cs2_g_clamp_width, 0x7);
			ADC_Write(ADC_REG_cs2_b_clamp_width, 0x7);
		}

		//clamppdn edge different by Hpol
		if (sAdcInfo.bHpol == 1)
			ADC_Write(ADC_REG_clamppdn_edge, 0x1);
		else
			ADC_Write(ADC_REG_clamppdn_edge, 0);
            
        // Interference for 1600 x 1200 @60Hz (Switch to Audio)
        if( ( g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].usHactive==1600 ) &&
            ( g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].usVactive==1200 ) &&
            ( g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucVFrequency==60 ))
        {
            ADC_Write(ADC_REG_cal_sw_ctrl_th, 0x1d);
        }
	}

}

BOOL ADC_Signal_Status(void)
{
	INT32 iTimeOut1 = 0, iTimeOut2 = 0, iTimeOut3 = 0;
	BOOL bStable1 = FALSE, bStable2=FALSE;
	UINT8 ucDetectTimeOut=8, ucSogStableTimes=0, ucCurState=0, ucMid=0, ucMin=0, ucTipHeightcount =0;
	UINT32 ulTipHeight=0;
	UINT8 cur_source = sAdcInfo.ucSource;

	VIP_ADCIntClear();

	do{
		iTimeOut1 = 0;
		iTimeOut2 = 0;

	 	if(!sAdcInfo.bADCEnable)
    			return FALSE;

		ADC_ClearWatchDog;

		if(sAdcInfo.ucSource != Adc_kSourceVGA)
		{
			ADC_SOG_Slicer_Backup();
			ADC_DelayMS(30);		// waiting 2 vsync for sog stable

			while( iTimeOut1++ < 4)
			{
				ucCurState = (UINT8)ADC_Read(ADC_STA_cur_state);

				if( ucCurState == 0x60)
				{
					iTimeOut3++;
					break;
				}
				else if( ucCurState == 0xd0 )
				{
					bStable1 = TRUE;
					ADC_DebugMsg("DetTimeRound %d: Sog stable\n", (9 - ucDetectTimeOut));

					break;
				}
				else if( ucCurState == 0xfd )
					break;
				else
					udelay(1000); //25ms
			}

			if( iTimeOut3 == 5)
			{
				ADC_Write(ADC_REG_vs_acc_enter_th, 0x2);
				ADC_Write(ADC_REG_vs_skip_mline_wdth, 0x1);
			}

			if((iTimeOut1 == 5 && bStable1 == FALSE) || ucCurState == 0xfd)
			{
				ADC_DebugMsg("DetTimeRound %d: Sog unstable, CurState: 0x%x\n", (9 - ucDetectTimeOut), ucCurState);
				continue;
			}
			else if ((ucCurState == 0xd0) && ( ADC_Read(ADC_STA_mline_wdth) == 0x20))
			{
				ADC_DebugMsg("DetTimeRound %d: mline_width < threshold\n", (9 - ucDetectTimeOut));
				continue;
			}

			//tip Height
			ucMid = ADC_Read(ADC_STA_mid_find);
			ucMin = ADC_Read(ADC_STA_min_find);
			ulTipHeight = (((UINT32)(ucMid-ucMin)*1000)/8/20);  //unit: mV
			ADC_DebugMsg("TimeRound %d: Tip Height=%d \n", ucTipHeightcount, ulTipHeight);

			if(ulTipHeight < 200 )
			{
				if(ucTipHeightcount < 3 )
				{
					ucTipHeightcount++;
					continue;
				}

				ADC_DebugMsg("TipHeight<200, new smthr\n");

				if (sAdcInfo.ucSource == Adc_kSourceCOMP1 || sAdcInfo.ucSource == Adc_kSourceCOMP2 || sAdcInfo.ucSource == Adc_kSourceCOMP3)
				{
					ADC_Write(ADC_REG_st_iir1_strength, 0x3);
					ADC_Write(ADC_REG_vs_synct_base_opt, 0x1);
					ADC_Write(ADC_REG_vs_synct_th, 0x9);
					ADC_Write(ADC_REG_vblank_ini_length, 0);
					ADC_Write(ADC_REG_st_top_cgplus, 0x1);
				}
			}
			else if (ulTipHeight > 400 )
			{
				if (sAdcInfo.ucSource == Adc_kSourceCOMP1 || sAdcInfo.ucSource == Adc_kSourceCOMP2 || sAdcInfo.ucSource == Adc_kSourceCOMP3)
				{
					ADC_DebugMsg("TipHeight>400\n");
/*					ADC_DebugMsg("Reset ucDetectTimeOut count to 8\n");
					if (ulTipHeight > 500 )
					{
						ADC_DebugMsg("TipHeight>500\n");
						ADC_DebugMsg("Add Delay 500ms\n");
						ADC_DelayMS(500);		
					}
					ucDetectTimeOut=8;
					continue;*/
				}
			}
		}

		if(cur_source != sAdcInfo.ucSource)
		{
			ADC_DebugMsg("###  source change %d => %d , break signal status checking ###\n", cur_source, sAdcInfo.ucSource);
			break;
		}	
		
		ADC_DelayMS(40);		// waiting 2 vsync for coast stable, 30ms
		while( iTimeOut2++ < 8)
		{
			if( ADC_Read(ADC_STA_cstable_i2) == 0x1 )
			{
				ADC_DebugMsg("DetTimeRound %d: Coast stable\n", (9 - ucDetectTimeOut));
				bStable2 = TRUE;
				if (sAdcInfo.ucSource != Adc_kSourceVGA)
				{
					ADC_Write(ADC_REG_stb1_sc_wdth_opt, 3);
				}
				break;
			}
			else
			{
				if (sAdcInfo.ucSource != Adc_kSourceVGA)
				{
					//because only one vsync, set to "original signal" replace "regeneration signal"
					if(ulTipHeight > 200 )
						ADC_Write(ADC_REG_source_sel, 0x1);
					ADC_DelayMS(25);
				}
				else
					ADC_DelayMS(10);
			}
		}

		if(iTimeOut2 == 9 && bStable2== FALSE)
		{
			ADC_DebugMsg("DetTimeRound %d: Coast unstable\n", (9 - ucDetectTimeOut));
			if( ( ADC_Read(ADC_STA_cur_state) & 0x30) != 0)
			{
				ADC_DebugMsg("## cur_state!= {0x10, 0x20, 0x30} ~ Reset ucDetectTimeOut count to 8\n");
				ucDetectTimeOut=8;
			}
			continue;
		}

		if( ADC_GetExtsInfo(4, 10, 32)==TRUE )
		{
			ADC_DebugMsg("DetTimeRound %d: GetExtsInfo success\n", (9 - ucDetectTimeOut));
			return TRUE;
		}
		else
		{
			ADC_DebugMsg("DetTimeRound %d: GetExtsInfo fail\n", (9 - ucDetectTimeOut));
		}


		//??reset digital block
		if( sAdcInfo.ucSource!=Adc_kSourceVGA )
		{
			//It's for Macro vision or worse csync.
			if( ADC_Read(ADC_STA_cur_state)==0xd0 )
			{
				ucSogStableTimes++;
				if( ucSogStableTimes==4 )
				{
					ADC_Write(ADC_REG_dg_l2h_thold, 0x1a);
					ADC_Write(ADC_REG_dg_h2l_thold, 0x1a);
				}

			}
		}

		VIP_ResetADI();
	}while ( --ucDetectTimeOut>0 );

	ADC_DebugMsg("No stable signal=%x\n", VIP_InputActiveDetect(EXTS));
	sAdcInfo.ucInputMode = NOSIGNAL_MODE;

	return FALSE;
}

UINT8 ADC_Mode_Setup( void )
{
    UINT8 ucPixelClock = 0;
    UINT16 usHTotal = 0;

	ADC_DebugMsg("%s %d\n", __FUNCTION__,__LINE__);

	if(ADC_Signal_Status()==FALSE)
		return VIP_No_Signal;

	if(ADC_Detect_Mode()==FALSE)
		return Unsupported_Timing;

	//Set PLL, Clamp and mode setting
	ADC_ModeSetting();

    if(sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		ucPixelClock = g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucPixelClock*iEnlargeWidthRate;
		usHTotal = g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].usHtotal*iEnlargeWidthRate;
	}
	else
	{
		ucPixelClock = g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucPixelClock*iEnlargeWidthRate;
		usHTotal = g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr].usHtotal*iEnlargeWidthRate;
	}
    
	//ADC_PllSetting(ucPixelClock, usHTotal);
	ADC_CheckPllResetSequence(ucPixelClock, usHTotal);

	//Hsync output by PLL
	ADC_Write(ADC_REG_o_hsync_sel,0);
	udelay(1000); //10ms

	if(ADC_CheckSyncStable(6) ==FALSE)
	{
		sAdcInfo.ucInputMode = NOSIGNAL_MODE;
		return Mode_Change_Again;
	}

	ADC_StatusUpdate();

	FactoryModeAWB = FALSE;
	
	return Mode_Change_Stable;
}

void ADC_SourceInit(void)
{
	UINT16 usPtr;
	UINT32 ADCReg=0, ADCValue=0;
	UINT8  ucCheckInputPIN;

	ADC_ScreenMode(BlackScreen);
	ADC_Write(GLB_REG_VADC_REF_SEL_24M, 0);	// 0xbe000149[6] 24 MHz reference selector. 0: CPLL,  1: Crystal 24M

	//ADC Clock 200MHz on.
	ADC_Write(GLB_REG_YPP200MCLK_DIV, 3);
	ADC_Write(GLB_REG_YPP200MCLK_DIV_RSTN, 1);

    ADC_Write(GLB_REG_DEMOD_PWDN_BG, 1 );       // power down DMADC's BGP
    ADC_Write(GLB_REG_VCLK_DIV_RSTN, 1 );     // Set ADC_PLL reference divider reset as normal mode

	//VIP bypass input = Hsync(0:sog)
	ADC_Write(GLB_REG_ALWAYS_HSI, 1);

	//internal coast select
	ADC_Write(GLB_REG_ECO_FIELD_SEL, 1);

	ADC_Write(ADC_REG_ss_mode, 1);

	//Bandgap setting
	sAdcInfo.ucBandgap = 0x5;
	ADC_Write(ADC_REG_vbg_v_ctrl, sAdcInfo.ucBandgap);
	*((volatile UINT8*)0xbe1cf082) = 0x1f;

	sAdcInfo.ulMClk=0;
	sAdcInfo.ulMClk = ADC_MClk();

	ADC_DebugMsg("MClk=%d\n",sAdcInfo.ulMClk);

	if (sAdcInfo.ucSource == Adc_kSourceVGA)
		ucCheckInputPIN = adc_InputSrcPin.rgb.g_pin;
	else
		ucCheckInputPIN = adc_InputSrcPin.ypbpr.y_pin;

	if (ucCheckInputPIN == INPUT_PIN_COMP_G1)
	{
		ADC_Write(ADC_REG_lcg_rch_sel, 0x1);
		ADC_Write(ADC_REG_lcg_gch_sel, 0x1);
		ADC_Write(ADC_REG_lcg_bch_sel, 0x1);
		ADC_Write(ADC_REG_sog_ch_sel, 0x2);
		ADC_Write(ADC_REG_sog_clamp_sel, 0x2);
		// Differential mode setting
		ADC_Write(ADC_REG_r_refch12v, 1);
		ADC_Write(ADC_REG_g_refch12v, 1);
		ADC_Write(ADC_REG_b_refch12v, 1);
		ADC_Write(ADC_REG_y_refch12v, 1);
	}
	else if (ucCheckInputPIN== INPUT_PIN_COMP_G2)
	{
		ADC_Write(ADC_REG_lcg_rch_sel, 0x2);
		ADC_Write(ADC_REG_lcg_gch_sel, 0x2);
		ADC_Write(ADC_REG_lcg_bch_sel, 0x2);
		ADC_Write(ADC_REG_sog_ch_sel, 0x2);
		ADC_Write(ADC_REG_sog_clamp_sel, 0x2);
		// Differential mode setting
		ADC_Write(ADC_REG_r_refch12v, 2);
		ADC_Write(ADC_REG_g_refch12v, 2);
		ADC_Write(ADC_REG_b_refch12v, 2);
		ADC_Write(ADC_REG_y_refch12v, 2);
	}
	else if (ucCheckInputPIN == INPUT_PIN_COMP_G3)
	{
		ADC_Write(ADC_REG_lcg_rch_sel, 0x3);
		ADC_Write(ADC_REG_lcg_gch_sel, 0x3);
		ADC_Write(ADC_REG_lcg_bch_sel, 0x3);
		ADC_Write(ADC_REG_sog_ch_sel, 0x4);
		ADC_Write(ADC_REG_sog_clamp_sel, 0x3);
		// Differential mode setting
		ADC_Write(ADC_REG_r_refch12v, 3);
		ADC_Write(ADC_REG_g_refch12v, 3);
		ADC_Write(ADC_REG_b_refch12v, 3);
		ADC_Write(ADC_REG_y_refch12v, 3);
	}
	else 
	{   // For default VGA setting <R0, G0, B0> (ucCheckInputPIN == INPUT_PIN_NO_USE)
		ADC_Write(ADC_REG_lcg_rch_sel, 0x0);
		ADC_Write(ADC_REG_lcg_gch_sel, 0x0);
		ADC_Write(ADC_REG_lcg_bch_sel, 0x0);
		ADC_Write(ADC_REG_sog_ch_sel, 0x0);
		ADC_Write(ADC_REG_sog_clamp_sel, 0x0);
		// Differential mode setting
		ADC_Write(ADC_REG_r_refch12v, 0);
		ADC_Write(ADC_REG_g_refch12v, 0);
		ADC_Write(ADC_REG_b_refch12v, 0);
		ADC_Write(ADC_REG_y_refch12v, 0);
	}

	// Pull down unused RGB
	ADC_Write(ADC_REG_r_pden12v, 1);
	ADC_Write(ADC_REG_g_pden12v, 1);
	ADC_Write(ADC_REG_b_pden12v, 1);
	ADC_Write(ADC_REG_r_tswmiden12v, 1);
	ADC_Write(ADC_REG_g_tswmiden12v, 1);
	ADC_Write(ADC_REG_b_tswmiden12v, 1);

	//ADCSouceInitBaseTable
	for (usPtr=0;usPtr<ADCSouceInitBaseTableSize;usPtr++)
	{
		if (ADCSouceInitBaseTable[usPtr][0] == sAdcInfo.ucSource && ADCSouceInitBaseTable[usPtr][1] == 0xff00)
		{
			usPtr++;
    			while (ADCSouceInitBaseTable[usPtr][0] != 0xffff && ADCSouceInitBaseTable[usPtr][1] != 0xffff)
    			{
    				ADCReg = ADCSouceInitBaseTable[usPtr][0];
                    ADCValue=(UINT8)(ADCSouceInitBaseTable[usPtr][1] & 0xff);

    				ADC_Write(ADCReg, ADCValue);
                    usPtr++;
    			}
			usPtr=ADCSouceInitBaseTableSize;
        }
    }
		
	// AFE mode selection on channel RGB  
	ADC_Write(ADC_REG_R_SYPP120, 1);
	ADC_Write(ADC_REG_R_SYPP121, 0);
	ADC_Write(ADC_REG_R_SCVBS12, 0);
	ADC_Write(ADC_REG_G_SYPP120, 1);
	ADC_Write(ADC_REG_G_SYPP121, 0);
	ADC_Write(ADC_REG_G_SCVBS12, 0);
	ADC_Write(ADC_REG_B_SYPP120, 1);
	ADC_Write(ADC_REG_B_SYPP121, 0);
    ADC_Write(ADC_REG_b_scvbs12, 0);
			
	//Differential mode setting
	if (sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		ADC_Write(ADC_REG_av_r_pg12v2, 4);
		ADC_Write(ADC_REG_av_g_pg12v2, 4);
		ADC_Write(ADC_REG_av_b_pg12v2, 4);
	}
	else
	{
		ADC_Write(ADC_REG_av_r_pg12v2, 3);
		ADC_Write(ADC_REG_av_g_pg12v2, 3);
		ADC_Write(ADC_REG_av_b_pg12v2, 3);
	}
	ADC_Write(ADC_REG_r_intrefen12v, 1);
	ADC_Write(ADC_REG_g_intrefen12v, 1);
	ADC_Write(ADC_REG_b_intrefen12v, 1);
	ADC_Write(ADC_REG_r_lpfmod12v, 0);
	ADC_Write(ADC_REG_g_lpfmod12v, 0);
	ADC_Write(ADC_REG_b_lpfmod12v, 0);
	ADC_Write(ADC_REG_r_refclampsel12v, 1);
	ADC_Write(ADC_REG_g_refclampsel12v, 1);
	ADC_Write(ADC_REG_b_refclampsel12v, 1);
	ADC_Write(ADC_REG_epdy_12v, 0);
	ADC_Write(ADC_REG_y_tswmiden12v, 1);
	ADC_Write(ADC_REG_y_refclampsel12v, 1);
	ADC_Write(ADC_REG_y_intrefen12v, 1);

	//set correct the clock phase on re-sync buffer
	ADC_Write(ADC_REG_hs_samples_clk_sel, 1);

	//enable VBG from Audio
	ADC_Write(ADC_REG_cal_manual_en, 0);
    ADC_Write(ADC_REG_cal_manual_th, 0x00);
	ADC_Write(ADC_REG_cal_sw_ctrl_en, 1);
	ADC_Write(ADC_REG_cal_sw_ctrl_th, 0x0b);

	//Enalbe YPP F switch function
	ADC_Write(ADC_REG_r_epd12v, 0x0);
	
	// Switch reference mode for AWB 
	ADC_Write(ADC_REG_lcg_refdbg_sel_temp, 0x3);
	
	ADC_Write(ADC_REG_lcg_awbsel12v, 0x1);

	//LN_div msb
	ADC_Write(ADC_REG_r_pll_opi, 0);

	// ADC MDAC OP current (0: Large current / 1: Small current)
	ADC_Write(ADC_REG_av_g_pg12v1, 0);
	
	//Source input
	switch(sAdcInfo.ucSource)
	{
		case Adc_kSourceCOMP1 :
			ADC_DebugMsg("Source: COMP1\n");
			break;
		case Adc_kSourceCOMP2:
			ADC_DebugMsg("Source: COMP2\n");
			break;
		case Adc_kSourceCOMP3:
			ADC_DebugMsg("Source: COMP3\n");
			break;
		case Adc_kSourceVGA:
			ADC_DebugMsg("Source: PC\n");
			break;
	}

	//ADC reset
	ADC_Write(ADC_REG_adi_reset, 1);
	ADC_Write(ADC_REG_adi_reset, 0);
}

void  ADC_SendInfo( void )
{
	UINT32 ulInputVsize;

	sSendInfo.ucInputSource = EXTS;
	sSendInfo.ucSubInputSource = sAdcInfo.ucSource;
	sSendInfo.uiHactive = ADC_DetectTiming.usHactive;
	sSendInfo.uiVactive = ADC_DetectTiming.usVactive;
	sSendInfo.uiHstart = ADC_DetectTiming.usHstart;
	sSendInfo.uiVstart = ADC_DetectTiming.usVstart;
	sSendInfo.uiHend = sSendInfo.uiHstart+sSendInfo.uiHactive;
	sSendInfo.uiVend = sSendInfo.uiVstart+sSendInfo.uiVactive;
	sSendInfo.uiHfreq = ADC_InputVesaTiming.usHFrequency;
	sSendInfo.uiVfreq = ADC_InputVesaTiming.ucVFrequency;
	sSendInfo.uiHtotal= ADC_InputVesaTiming.usHtotal;
	sSendInfo.uiVtotal= ADC_InputVesaTiming.usVcount;
	sSendInfo.ucVpol = sAdcInfo.bVpol;
	sSendInfo.ucHpol = sAdcInfo.bHpol;
	sSendInfo.bInterlace = sAdcInfo.bInterlace;
	sSendInfo.uiTableHstart = ADC_InputVesaTiming.usHstart;
	sSendInfo.uiTableVstart = ADC_InputVesaTiming.usVstart;
	sSendInfo.uiHsync_width = ADC_InputVesaTiming.usHs_Width;
	sSendInfo.ucEnlargeWidthRate = iEnlargeWidthRate;
	sSendInfo.uiTimingIndex = sAdcInfo.ucTimingModeIndex;

	if (sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		ADC_DebugMsg("Input: PC\n");
		if(g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucVFrequency == 67)	//Add by Jason. The timing name is 640x480@66, but the real V frequancy is 66.7(round up to 67).
			sSendInfo.uiVfreq = 66;
		sSendInfo.ucColorimetry =  RGB;
		sSendInfo.ucDataFormat = RGB;
		sSendInfo.ucAspectRatio = ASPECT_NON;
	}
	else
	{
		ADC_DebugMsg("Input: YPP\n");

		ulInputVsize = (sAdcInfo.bInterlace == INTERLACE) ?
			ADC_DetectTiming.usVactive*2 : ADC_DetectTiming.usVactive;
		sSendInfo.ucColorimetry = (ulInputVsize >= 720) ? YPP : YCC;
		sSendInfo.ucDataFormat = YUV_444;
		sSendInfo.ucAspectRatio = ASPECT_NON;
	}
	ADC_DebugMsg("ColorStandard=%d \n", sSendInfo.ucColorimetry);

	VIP_SendInformation(&sSendInfo);
	if( sAdcInfo.ucSource==Adc_kSourceVGA )
	{
		if(ADC_InputVesaTiming.usHactive == 834 && ADC_InputVesaTiming.usVactive == 624)	//Add by Jason. H active is defined 832, but the the actuality is 834.
			VIP_EXTS_SetOriActive(832, ADC_InputVesaTiming.usVactive);
		else
			VIP_EXTS_SetOriActive(ADC_InputVesaTiming.usHactive, ADC_InputVesaTiming.usVactive);
	}
	else
	{
		if( sAdcInfo.bInterlace )
			VIP_EXTS_SetOriActive(ADC_InputVesaTiming.usHactive, ADC_InputVesaTiming.usVactive*2);
		else
			VIP_EXTS_SetOriActive(ADC_InputVesaTiming.usHactive, ADC_InputVesaTiming.usVactive);
	}
	
	ADC_DebugMsg("========= InputSource = %s ======== SubSource = %s  =========", 
					(sSendInfo.ucInputSource==EXTS)?" EXTS  ":"UNKNOWN", (sSendInfo.ucSubInputSource == Adc_kSourceVGA)?" VGA ":" YPP ");
	ADC_DebugMsg("| Hactive = %4d, Hstart = %3d, Hend = %4d, HFreq = %4d, Hpol = %d  |", 
					sSendInfo.uiHactive, sSendInfo.uiHstart, sSendInfo.uiHend, sSendInfo.uiHfreq, sSendInfo.ucHpol );
	ADC_DebugMsg("| Vactive = %4d, Vstart = %3d, Vend = %4d, VFreq =  %2d , Vpol = %d  |", 
					sSendInfo.uiVactive, sSendInfo.uiVstart, sSendInfo.uiVend, sSendInfo.uiVfreq, sSendInfo.ucVpol);
	ADC_DebugMsg("| Colorimetry = %s, DataFormat = %s  AspectRatio = %s, Interlace = %s |", 
					(sSendInfo.ucColorimetry==RGB)?"RGB":(sSendInfo.ucColorimetry==YPP)?"YPP":"YCC", 
					(sSendInfo.ucDataFormat==RGB)?"  RGB  ":"YUV_444", 
					(sSendInfo.ucAspectRatio==ASPECT_NON)?"NON":"N/A",	
					sSendInfo.bInterlace?"T":"F");
	ADC_DebugMsg("| TableIdx = %6d, Htotal = %4d, Hstart = %3d, HsWidth = %3d, Vstart = %d  |", 
					sSendInfo.uiTimingIndex, sSendInfo.uiHtotal, sSendInfo.uiTableHstart, sSendInfo.uiHsync_width, sSendInfo.uiTableVstart);	

}

void ADC_Centering(BOOL bDoCentering)
{
	VIP_RECT rcCenter;
	UINT8 RetValue;

	ADC_DebugMsg("Do Auto Centering: %d\n", bDoCentering);

	if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
	{
		ADC_DebugMsg(" Skip %s when mode change... \n", __FUNCTION__);
		return;
	}
	
	RetValue = VIP_Centering(&rcCenter, bDoCentering);
	if(RetValue == CENTERING_FAIL)
	{
		ADC_DebugMsg("Do Auto Centering ERROR\n");
	}
	else
	{
		ADC_DebugMsg("Centering Result is  %s  Mode.\n", 
					(RetValue==CENTERING_H)?"[H]":(RetValue==CENTERING_V)?"[V]":"[HV]");
	}

	if(bDoCentering && RetValue)
	{
		ADC_DetectTiming.usHstart = rcCenter.ulHStart;
		ADC_DetectTiming.usVstart = rcCenter.ulVStart;
		ADC_DetectTiming.usHactive = rcCenter.ulHEnd - rcCenter.ulHStart;
		ADC_DetectTiming.usVactive = rcCenter.ulVEnd - rcCenter.ulVStart;
	}
	else if(!bDoCentering && RetValue)
	{
		ADC_DetectTiming.usHstart= rcCenter.ulHStart;
		ADC_DetectTiming.usVstart= rcCenter.ulVStart;
		ADC_DetectTiming.usHactive= ADC_InputVesaTiming.usHactive;
		ADC_DetectTiming.usVactive= ADC_InputVesaTiming.usVactive;
	}

	ADC_DebugMsg("ADC_DetectTiming: Hstart=%d Vstart=%d Hactive=%d Vactive=%d\n",  ADC_DetectTiming.usHstart, ADC_DetectTiming.usVstart, ADC_DetectTiming.usHactive, ADC_DetectTiming.usVactive);
	ADC_DebugMsg("ADC_InputVesaTiming: Hstart=%d Vstart=%d Hactive=%d Vactive=%d\n",  ADC_InputVesaTiming.usHstart, ADC_InputVesaTiming.usVstart, ADC_InputVesaTiming.usHactive, ADC_InputVesaTiming.usVactive);

	return;
}

UINT8 ADC_FullPhaseDetected(void)
{
	UINT16 VIPttl_backup = 0, VIPttl_current = 0;
	UINT8 i = 0;
	UINT16 array[200] = {0};
	BOOL check[32] = {FALSE};
	UINT32 ulTestPhase, ulPreSummation=0, ulNowSummation=0, lPhase1[32];
	UINT8 ucPhaseRef=32, ucCompareTimes, ucZeroCnt, ucZeroMaxCnt, ucBest=0, ucDelay;

	ADC_DebugMsg("%s\n", __FUNCTION__);

	if (sAdcInfo.bInterlace)
		ucCompareTimes = 2;
	else
		ucCompareTimes = 1;

	ucComparethd = 0;
	ucDelay = 0;

	if(gAdcAp.bApUse == TRUE)
	{
		if(gAdcAp.ulTimes != 0xffffffff)
			ucCompareTimes = gAdcAp.ulTimes;
		if(gAdcAp.ulData != 0xffffffff)
			ucComparethd = gAdcAp.ulData;
	}

	ADC_DebugMsg("ucCompareTimes = %d(0x%x), ucComparethd = %d(0x%x)\n", ucCompareTimes, ucCompareTimes, ucComparethd, ucComparethd);
	if(gAdcAp.bApUse == TRUE && gAdcAp.ucPhase != 0xff)
	{
			ADC_SetPhaseDirdect(gAdcAp.ucPhase);
			ADC_DelayMS(ucDelay);
			ADC_ResetADI_Unlock();
			
			ADC_DebugMsg("Sum_Cmp22Value[%2d]=%d\n", gAdcAp.ucPhase, VIP_FrameCompare(ucCompareTimes, ucComparethd));
			
			VIPttl_backup = *((volatile UINT16*)(0xbe1cf008));
			for(i = 0; i< 200 ; i++)			
			{
				VIPttl_current = *((volatile UINT16*)(0xbe1cf008));
				array[i] = (VIPttl_current > VIPttl_backup)?(VIPttl_current - VIPttl_backup):(VIPttl_backup - VIPttl_current);
				//printk(KERN_EMERG" %d ", (VIPttl_current > VIPttl_backup)?(VIPttl_current - VIPttl_backup):(VIPttl_backup - VIPttl_current));
				if(array[i] >= 1)
					check[gAdcAp.ucPhase] = TRUE;
				VIPttl_backup = VIPttl_current;
			}
			for(i = 0; i < 20; i++)
			{
				ADC_DebugMsg("  %6d  %6d  %6d  %6d  %6d  %6d  %6d  %6d  %6d  %6d ",
					array[i*10], array[i*10+1], array[i*10+2], array[i*10+3], array[i*10+4], 
					array[i*10+5], array[i*10+6], array[i*10+7], array[i*10+8], array[i*10+9]);
			}

			return gAdcAp.ucPhase;
	}
	else
	{
		//Frame compare result collection
		for(ulTestPhase=0; ulTestPhase<ucPhaseRef; ulTestPhase++)
		{
			if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable)
				return 0;

			ADC_SetPhaseDirdect((ulTestPhase<<5)/ucPhaseRef);
			ADC_DelayMS(ucDelay);
			ADC_ResetADI_Unlock();
			lPhase1[ulTestPhase]= VIP_FrameCompare(ucCompareTimes, ucComparethd);	//argument1:compare times, argument2:compare thd
			
			ADC_DebugMsg("Sum_Cmp22Value[%2d]=%d\n", ulTestPhase, VIP_FrameCompare(ucCompareTimes, ucComparethd));
			
			VIPttl_backup = *((volatile UINT16*)(0xbe1cf008));
			for(i = 0; i< 200 ; i++)			
			{
				VIPttl_current = *((volatile UINT16*)(0xbe1cf008));
				array[i] = (VIPttl_current > VIPttl_backup)?(VIPttl_current - VIPttl_backup):(VIPttl_backup - VIPttl_current);
				//printk(KERN_EMERG" %d ", (VIPttl_current > VIPttl_backup)?(VIPttl_current - VIPttl_backup):(VIPttl_backup - VIPttl_current));
				if(array[i] >= 1)
					check[ulTestPhase] = TRUE;
				VIPttl_backup = VIPttl_current;
			}
			for(i = 0; i < 20; i++)
			{
				ADC_DebugMsg("  %6d  %6d  %6d  %6d  %6d  %6d  %6d  %6d  %6d  %6d ",
					array[i*10], array[i*10+1], array[i*10+2], array[i*10+3], array[i*10+4], 
					array[i*10+5], array[i*10+6], array[i*10+7], array[i*10+8], array[i*10+9]);
			}
			ADC_DebugMsg("\n");
		}
	}

	ADC_DebugMsg("-----------------Frame compare phase detecrt result ---------------- \n");
	for(ulTestPhase=0;ulTestPhase<ucPhaseRef;ulTestPhase++)
		printk(KERN_EMERG"Sum of Cmp32Value[%2d] =%2d   %s\n", (ulTestPhase<<5)/ucPhaseRef, lPhase1[ulTestPhase], check[ulTestPhase]?"NG":" ");

	//Best phase selection
	ucZeroCnt=0;
	ucZeroMaxCnt=0;

	for(ulTestPhase=0; ulTestPhase<ucPhaseRef; ulTestPhase++){
		if( lPhase1[ulTestPhase]==0 )
			ucZeroCnt++;
	}
	ucZeroMaxCnt=ucZeroCnt;

	if(ucZeroMaxCnt == 0)
	{
		for(ulTestPhase=0; ulTestPhase<ucPhaseRef; ulTestPhase++){
			ulNowSummation=	lPhase1[ulTestPhase] ;
			if(ulTestPhase==0)	//First time only
			{
				ulPreSummation = ulNowSummation;
				ucBest = ulTestPhase;
			}
			else	//After first time
			{
				if( ulPreSummation>ulNowSummation )
				{
					ulPreSummation = ulNowSummation;
					ucBest = ulTestPhase;
				}
			}
		}
	}
	else
	{
		ucZeroCnt = 0;

		for(ulTestPhase=0;ulTestPhase<ucPhaseRef;ulTestPhase++){
			if(lPhase1[ulTestPhase] == 0)
				ucZeroCnt++;
			if(ucZeroCnt == (ucZeroMaxCnt/2+1))
			{
				ucBest=ulTestPhase;
				break;
			}
		}
	}

	//Still input phase setting
	ADC_SetPhaseDirdect(ucBest);

	ADC_DebugMsg("Best Phase is %d\n", ucBest);

	return ucBest;

}

UINT8 ADC_PhaseDetected(void)
{
	UINT16 VIPttl_backup = 0, VIPttl_current = 0;
	UINT16 array[1000] = {0};
	UINT16 idx = 0, check_cnt = 0;
	BOOL check[32] = {FALSE}, final_check[32] = {FALSE};
	UINT32	ucPhaseRef,ulTestPhase, ulPreSummation=0, ulNowSummation=0, sum=0;
	UINT8  ucBest=0, ucDelay;
	UINT32	lPhase1[32];
	UINT16 usInterruptStatus;
	UINT8 i, j ,t,  tmp;
	UINT32 Temp;
	UINT8 sample_cnt = 2;
	ADC_DebugMsg("%s\n", __FUNCTION__);

	if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
		return 0;

	usInterruptStatus = ADC_Read(ADC_REG_int_mask_byte);
    if( (sAdcInfo.ucSource != Adc_kSourceVGA) && ((usInterruptStatus & 0x80) == 0x80) )
    {
        printk(KERN_EMERG"#### Interrupt Disabled!! Skip @ [%s] ####\n", __FUNCTION__);
        return 0;
    }
	ADC_Write(ADC_REG_int_mask_byte, usInterruptStatus|0x80);

	//Frame compare threshold
	ucPhaseRef = 8;

	if (sAdcInfo.bInterlace)
		ucCompareTimes = 2;
	else
	{
		if ((ADC_InputVesaTiming.ucPixelClock > 140) && (sAdcInfo.ucSource == Adc_kSourceVGA))
			ucCompareTimes = 2;
		else
			ucCompareTimes = 1;
	}

	ucComparethd = 0;
	ucDelay = 0;	// 500*3/ADC_DetectTiming.ucVFrequency;

	if(gAdcAp.bApUse == TRUE)
	{
		if(gAdcAp.ulTimes != 0xffffffff)
			ucCompareTimes = gAdcAp.ulTimes;
		if(gAdcAp.ulData != 0xffffffff)
			ucComparethd = gAdcAp.ulData;
	}

	ADC_DebugMsg("Frame compare (Time/TH) in round 1: (%d/0x%x)\n", ucCompareTimes, ucComparethd);
	
	if(gAdcAp.bApUse == TRUE && gAdcAp.ucPhase != 0xff)
	{
			ADC_SetPhaseDirdect(gAdcAp.ucPhase);
			//ADC_DelayMS(ucDelay);

			//argument1:compare times, argument2:compare thd
			ADC_ResetADI_Unlock();
			ADC_DebugMsg("Sum_Cmp22Value[%2d]=%d\n", gAdcAp.ucPhase, VIP_FrameCompare(ucCompareTimes, ucComparethd));
			return gAdcAp.ucPhase;
	}
	else
	{
		//Frame compare result collection
		if(bAutoAdjust == FALSE)
		{
			for(ulTestPhase=0; ulTestPhase<ucPhaseRef; ulTestPhase+=2)
			{
				if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
					return 0;

				ADC_SetPhaseDirdect((ulTestPhase<<5)/ucPhaseRef);

				ADC_DelayMS(ucDelay);
				ADC_ResetADI_Unlock();
				lPhase1[ulTestPhase]= VIP_FrameCompare(ucCompareTimes, ucComparethd);
			}
		}
		else
		{
			for(ulTestPhase=0; ulTestPhase<ucPhaseRef; ulTestPhase++)
			{
				if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
					return 0;

				ADC_SetPhaseDirdect((ulTestPhase<<5)/ucPhaseRef);
				ADC_DelayMS(ucDelay);
				ADC_ResetADI_Unlock();
				lPhase1[ulTestPhase]= VIP_FrameCompare(ucCompareTimes, ucComparethd);

				// Check whether horizontal total is defect.
				VIPttl_backup = *((volatile UINT16*)(0xbe1cf008));
				for(idx = 0; idx< 1000 ; idx++)			
				{
					VIPttl_current = *((volatile UINT16*)(0xbe1cf008));
					array[idx] = (VIPttl_current > VIPttl_backup)?(VIPttl_current - VIPttl_backup):(VIPttl_backup - VIPttl_current);
					//printk(KERN_EMERG" %d ", (VIPttl_current > VIPttl_backup)?(VIPttl_current - VIPttl_backup):(VIPttl_backup - VIPttl_current));
					if(array[idx] >= 1)
						check[(ulTestPhase<<5)/ucPhaseRef] = TRUE;
					VIPttl_backup = VIPttl_current;
				}
				if(check[(ulTestPhase<<5)/ucPhaseRef])
					check_cnt++;
			}
		}
	}

	if(bAutoAdjust == FALSE)
	{
		for(ulTestPhase=0;ulTestPhase<ucPhaseRef;ulTestPhase+=2){
			ADC_DebugMsg("Phase1[%2d]=%2d\n", (ulTestPhase<<5)/ucPhaseRef, lPhase1[ulTestPhase]);
		}
	}
	else
	{
		ADC_DebugMsg("P1[%2d] = %8d, P1[%2d] = %8d, P1[%2d] = %8d, P1[%2d] = %8d\n",
						(0<<5)/ucPhaseRef, lPhase1[0], 
						(1<<5)/ucPhaseRef, lPhase1[1], 
						(2<<5)/ucPhaseRef, lPhase1[2],
						(3<<5)/ucPhaseRef, lPhase1[3]);
		ADC_DebugMsg("P1[%2d] = %8d, P1[%2d] = %8d, P1[%2d] = %8d, P1[%2d] = %8d\n",
						(4<<5)/ucPhaseRef, lPhase1[4], 
						(5<<5)/ucPhaseRef, lPhase1[5], 
						(6<<5)/ucPhaseRef, lPhase1[6],
						(7<<5)/ucPhaseRef, lPhase1[7]);
	}

	if( bAutoAdjust == FALSE)
	{
		ucBestLocation = 0;
		ulNowSummation = 0xffffffff;

		for(ulTestPhase=0; ulTestPhase<8; ulTestPhase+=2)
		{
			if( ulNowSummation > (lPhase1[ulTestPhase] + lPhase1[(ulTestPhase+2)&0x7]))
			{
				ucBestLocation = ulTestPhase;
				ulNowSummation = (lPhase1[ulTestPhase] + lPhase1[(ulTestPhase+2)&0x7]);

				if ((lPhase1[ulTestPhase]) > (lPhase1[(ulTestPhase+2)&0x7]))
					ucBest = (((ucBestLocation+2)&0x7)<<2);
				else
					ucBest = ((ucBestLocation&0x7)<<2);
			}
		}

		lPhase2[(ucBestLocation<<2)] =lPhase1[ucBestLocation];
		lPhase2[((ucBestLocation+2)&0x7)<<2] =lPhase1[(ucBestLocation+2)&0x7];


	}
	else
	{

		//Find the best location with the least P[n-1]+P[n]+P[n+1]
		ulPreSummation=0xffffffff;
		for(ulTestPhase=0; ulTestPhase<ucPhaseRef; ulTestPhase++)
		{
			ulNowSummation = lPhase1[(ulTestPhase-1)&(ucPhaseRef-1)] + 
							 lPhase1[ulTestPhase] + 
							 lPhase1[(ulTestPhase+1)&(ucPhaseRef-1)];
			if( ulNowSummation<ulPreSummation )
			{
				ulPreSummation = ulNowSummation;
				ucBestLocation = ulTestPhase;
			}
		}

		// Fetch P1[n-2] ~ P1[n+2] for the second round
		ADC_DebugMsg("Best phase may located at P[n] with the least Sum(P[n-4]+P[n]+P[n+4])\n\
        =>  P[%d] is selected and expanded 8 to the 2nd round.\n", (ucBestLocation<<5)/ucPhaseRef);
		// P2[Q0] = P1[n-2]
		lPhase2[0] = lPhase1[(ucBestLocation-sample_cnt) & (ucPhaseRef-1)];
		// P2[Q1] = P1[n-1]
		lPhase2[ sample_cnt * (32/ucPhaseRef) - (32/ucPhaseRef)] = lPhase1[(ucBestLocation-1) & (ucPhaseRef-1)];
		// P2[Q2] = P1[n]
		lPhase2[ sample_cnt * (32/ucPhaseRef)] = lPhase1[ucBestLocation];
		// P2[Q3] = P1[n+1]
		lPhase2[ sample_cnt * (32/ucPhaseRef) + (32/ucPhaseRef)] = lPhase1[(ucBestLocation+1) & (ucPhaseRef-1)];
		// P2[Q4] = P1[n+2]
		lPhase2[ sample_cnt * (32/ucPhaseRef<<1)] = lPhase1[(ucBestLocation+sample_cnt) & (ucPhaseRef-1)];


		ADC_DebugMsg("Frame compare TH in round 2: 0x%x\n", ucComparethd);

		for(ulTestPhase=0; ulTestPhase<= sample_cnt * (32/ucPhaseRef*2); ulTestPhase++)
		{
			if( (ulTestPhase % (32/ucPhaseRef)) == 0 )
				continue;

			if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
				return 0;

			ADC_SetPhaseDirdect((ulTestPhase + ((ucBestLocation-sample_cnt)<<5)/ucPhaseRef) & 0x1f);
			ADC_DelayMS(ucDelay);
			ADC_ResetADI_Unlock();

			lPhase2[ulTestPhase]= VIP_FrameCompare(ucCompareTimes, ucComparethd);	//argument1:compare times, argument2:compare thd

			// Check whether horizontal total is defect.
			VIPttl_backup = *((volatile UINT16*)(0xbe1cf008));
			for(idx = 0; idx< 1000 ; idx++)			
			{
				VIPttl_current = *((volatile UINT16*)(0xbe1cf008));
				array[idx] = (VIPttl_current > VIPttl_backup)?(VIPttl_current - VIPttl_backup):(VIPttl_backup - VIPttl_current);
				//printk(KERN_EMERG" %d ", (VIPttl_current > VIPttl_backup)?(VIPttl_current - VIPttl_backup):(VIPttl_backup - VIPttl_current));
				if(array[idx] >= 1)
					check[(ulTestPhase + ((ucBestLocation-sample_cnt)<<5)/ucPhaseRef) & 0x1f] = TRUE;
				VIPttl_backup = VIPttl_current;
			}
			if(check[(ulTestPhase + ((ucBestLocation-sample_cnt)<<5)/ucPhaseRef) & 0x1f])
				check_cnt++;

		}
		for(ulTestPhase=0; ulTestPhase<= sample_cnt * (32/ucPhaseRef*2); ulTestPhase++)
		{
			ADC_DebugMsg("P2[%2d] = %8ld  %s\n",  (ulTestPhase + ((ucBestLocation-sample_cnt)<<5)/ucPhaseRef) & 0x1f, 
												lPhase2[ulTestPhase],
												(check[(ulTestPhase + ((ucBestLocation-sample_cnt)<<5)/ucPhaseRef) & 0x1f])?"NG":" " );
			sum = sum + lPhase2[ulTestPhase];
			ucBestPhase[ulTestPhase]=(ulTestPhase + ((ucBestLocation-sample_cnt)<<5)/ucPhaseRef) & 0x1f;
		}

		if(sum != 0)
		{
			ADC_DebugMsg("Best Phase average Sum=%d\n",  sum / ((sample_cnt * (32/ucPhaseRef*2)+1)) );
		}

		// Extending the skipping range according to the checked number of defect phase.
		// 		For only one defect phase, mark itself and neighboring two, i.e. [n-2]~[n+2];
		//		Otherwise, mark itself and neighboring one, i.e. [n-1]~[n+1].
		for(idx=0; idx<32; idx++)
		{			
			if(check[idx])
			{				
				// Defect phase itself
				final_check[idx] = TRUE;
				
				// Defect phase neighbor with distance 1 
				final_check[(idx+1)%32] = TRUE;				
				if(idx < 1)
					final_check[31+idx] = TRUE;
				else	
					final_check[(idx-1)%32] = TRUE;
				ADC_DebugMsg(KERN_EMERG"Extending P[%d] with distance = 1 to P[%d] and P[%d]\n", idx
														, (idx+1)%32 ,(idx < 1)?(31+idx):((idx-1)%32) );
				// Defect phase neighbor with distance 2
				if(check_cnt == 1)
				{
					final_check[(idx+2)%32] = TRUE;
					if(idx < 2)
						final_check[30+idx] = TRUE;
					else
						final_check[(idx-2)%32] = TRUE;
					ADC_DebugMsg(KERN_EMERG"Extending P[%d] with distance = 2 to P[%d] and P[%d]\n", idx
														, (idx+2)%32 ,(idx < 1)?(30+idx):((idx-2)%32) );
				}
			}
		}
		
		//Best phase selection => Sorting ucBestPhase 
		 for(i = 0;i < sample_cnt * (32/ucPhaseRef*2); i++) 
		 { 
			 for(j = i+1;j <= sample_cnt * (32/ucPhaseRef*2); j++) 
			 { 
				if(final_check[ucBestPhase[j]])
					continue;
				t=i;
			 	if( (lPhase2[t] > lPhase2[j]) || final_check[ucBestPhase[i]] ) 
			 	{
					t=j;
			 	}	
			 	if(t !=i) 
			 	{
					Temp=lPhase2[t];
					 lPhase2[t] = lPhase2[i]; 
					lPhase2[i] = Temp; 
					 tmp = ucBestPhase[t]; 
					 ucBestPhase[t] = ucBestPhase[i]; 
					ucBestPhase[i] = tmp; 
			 	}
			 } 
		 } 
	 	/*
		for(i = 0;i <= sample_cnt * (32/ucPhaseRef*2); i++) 
	 	{
			ADC_DebugMsg("Best Phase Ranking No.%d = P[%d]   %s\n", i+1, ucBestPhase[i], final_check[ucBestPhase[i]]?"NG":" ");
	 	}
		*/	
		
		ADC_DebugMsg("Best Phase Ranking \n      No.1 = P[%d],  No.2 = P[%d],  No.3 = P[%d], No.4 = P[%d]", 
						ucBestPhase[0], ucBestPhase[1], ucBestPhase[2], ucBestPhase[3]);
		
		ucBest=ucBestPhase[0] ;
		ucBestPhaseIndex=0;
	}

	//Still input phase setting
	ADC_SetPhaseDirdect(ucBest);
	ADC_DelayMS(ucDelay);  //Set phase would be unstable. Wait pll stable.

	ADC_ResetADI_Unlock();

	ADC_DebugMsg("Best Phase=%d\n", ucBest);

	if( bAutoAdjust == FALSE)
	{
		if (sAdcInfo.ucSource == Adc_kSourceVGA)
		{
			if( g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr ].ucPixelClock > 130 )
				ADC_PhaseDetectedSecond();
		}
		else if(sAdcInfo.ucSource == Adc_kSourceCOMP1 || sAdcInfo.ucSource == Adc_kSourceCOMP2 || sAdcInfo.ucSource == Adc_kSourceCOMP3)
		{
			if( g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr ].ucPixelClock > 60 )
				ADC_PhaseDetectedSecond();
		}
	}

	ADC_Clear_Interrupt(0x80);
	ADC_Write(ADC_REG_int_mask_byte, usInterruptStatus);

	usVIPHttlMin = usVIPHttlMax = *((volatile UINT16*)(0xbe1cf008));

	return ucBest;

}

void ADC_PhaseDetectedSecond(void)
{
	UINT8   ucBest, i,j,t, tmp;//ulTestPhase,
	INT32 Temp;

	if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
		return;

	ADC_SetPhaseDirdect(((ucBestLocation<<2)+2));
	ADC_ResetADI_Unlock();
	lPhase2[(ucBestLocation<<2)+2] =VIP_FrameCompare(ucCompareTimes, ucComparethd);

	ucBestPhase[1]=(ucBestLocation<<2)+2;

	ADC_SetPhaseDirdect(((ucBestLocation<<2)+4));
	ADC_ResetADI_Unlock();
	lPhase2[(ucBestLocation<<2)+4] =VIP_FrameCompare(ucCompareTimes, ucComparethd);

	ucBestPhase[2]=(ucBestLocation<<2)+4;

	ADC_SetPhaseDirdect(((ucBestLocation<<2)+6));
	ADC_ResetADI_Unlock();
	lPhase2[(ucBestLocation<<2)+6] =VIP_FrameCompare(ucCompareTimes, ucComparethd);

	ucBestPhase[3]=(ucBestLocation<<2)+6;

	ADC_DebugMsg("Between phase[%d] & phase[%d]\n", (ucBestLocation<<2), ((ucBestLocation+2)&0x7)<<2);
	ADC_DebugMsg("Sum_Cmp32Value[%d] =%ld\n", (ucBestLocation<<2), lPhase2[ (ucBestLocation<<2)]);
	ADC_DebugMsg("Sum_Cmp32Value[%d] =%ld\n", (ucBestLocation<<2)+2, lPhase2[ (ucBestLocation<<2)+2]);
	ADC_DebugMsg("Sum_Cmp32Value[%d] =%ld\n", (ucBestLocation<<2)+4, lPhase2[ (ucBestLocation<<2)+4]);
	ADC_DebugMsg("Sum_Cmp32Value[%d] =%ld\n", (ucBestLocation<<2)+6, lPhase2[ (ucBestLocation<<2)+6]);
	ADC_DebugMsg("Sum_Cmp32Value[%d] =%ld\n", ((ucBestLocation+2)&0x7)<<2, lPhase2[ (((ucBestLocation+2)&0x7)<<2)]);

	ucBestPhase[4]= (((ucBestLocation+2)&0x7)<<2);

	ucBest = (ucBestLocation<<2);

	tmp = lPhase2[(ucBestLocation<<2)];

	ucBestPhase[0]=ucBest ;
	 for(i = 0;i < 5; i++) 
	 { 
		 for(j = i+1;j < 5; j++) 
		 { 
			t=i;
		 	if(lPhase2[ucBestPhase[t]] > lPhase2[ucBestPhase[j]]) 
		 	{
				t=j;
		 	}	
			if(t!=i)
		 	{
				Temp=lPhase2[t];
				 lPhase2[t] = lPhase2[i]; 
				lPhase2[i] = Temp;
				 tmp = ucBestPhase[i]; 
				 ucBestPhase[i] = ucBestPhase[j]; 
				ucBestPhase[j] = tmp; 
		 	}
		 } 
	 } 

	ucBest=ucBestPhase[0] ;
	ucBestPhaseIndex=0;
 	for(i = 0;i < 5; i++) 
 	{
		ADC_DebugMsg("Best Phase[%d]=%d\n", i, ucBestPhase[i]);
 	}

	//Still input phase setting
	ADC_SetPhaseDirdect(ucBest);

	ADC_ResetADI_Unlock();

	ADC_DebugMsg("Best Phase=%d\n", ucBest);
}

BOOL ADC_DoAuto(UINT8 ucPath, BOOL bEnable, UINT8 ucMode)
{
	BOOL RetValue=TRUE;
	UINT8 value = 0;

	//fix system handup if no signal or unsupported mode
	if((sAdcInfo.ucInputMode == UNSUPPORT_MODE) || (sAdcInfo.ucInputMode == NOSIGNAL_MODE))
		return FALSE;

	if (bEnable)
	{
//		if ((ADC_InputVesaTiming.ucPixelClock > 140) && (sAdcInfo.ucSource == Adc_kSourceVGA))
			bAutoAdjust = TRUE;

		sAdcInfo.ucUserPhase = ADC_PhaseDetected();

//		if ((ADC_InputVesaTiming.ucPixelClock > 140) && (sAdcInfo.ucSource == Adc_kSourceVGA))
			bAutoAdjust = FALSE;
	}
	else
		ADC_SetPhaseDirdect(sAdcInfo.ucUserPhase);


	if ((sAdcInfo.ucSource == Adc_kSourceVGA) || (ucMode == 2)) //"ucMode=2" is a special case, it means PC & YPP sources can all do centering in factory mode
	{
		if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
			return 0;

		if (ucMode == 2)
		{
			ucMode = 1; //"ucMode=0" means tune only Hstart & Vstart values; "ucMode=1" means tune all Hstart & Vstart & Hactive & Vactive values
		}
		ADC_Centering(FALSE);
		noticekmf(KMF2UMF_EVID_ADC, KMF2UMF_EVTYPE_ADC_PCSETUPDATE, &value, 1);
	}

	return RetValue;
}

void ADC_TimerWork(void *unuse)
{
	if(ADCTimerInfo[TimerSignaloff][1] == 1)
	{
		ADC_Write(ADC_REG_cs2_sog_rst, 0x3);
		ADC_Write(ADC_REG_cs2_sog_rst, 0x0);
	}
	sAdcInfo.bTimerHandlerBusy=FALSE;
}

void ADC_InterruptProcess(void *unuse)
{
	volatile UINT16 ucLowWidth, ucLineWidth;

    if( ADC_Read(ADC_REG_dbg_temp)& BIT4 )
    {
//        ADC_DebugMsg("Skip InterruptProcess\n");
        return;
    }  
    
	sAdcInfo.bInterruptHappen = TRUE;
	sAdcInfo.bInterruptHappenAgain = FALSE;
	switch( sAdcInfo.ucInterruptEvent )
	{
		case CheckSogWidth:
			ADC_DelayMS(1000/(ADC_DetectTiming.ucVFrequency+1));
			if( sAdcInfo.bInterruptHappenAgain || sAdcInfo.bModeDetection || sAdcInfo.bModeChange )
				return;
			ADC_SOG_Slicer_Backup();
			ADC_DelayMS(1000/(ADC_DetectTiming.ucVFrequency+1));

			if( sAdcInfo.bInterruptHappenAgain || sAdcInfo.bModeDetection || sAdcInfo.bModeChange )
				return;

	 		ucLineWidth = ADC_Read(ADC_STA_line_wdth);
			ucLowWidth = ADC_Read(ADC_STA_low_wdth);

			if( abs(sAdcInfo.ucRegLowWidth-ucLowWidth)>15 ||
				abs(sAdcInfo.ucRegLineWidth-ucLineWidth)!=0 )
			{
				printk(KERN_EMERG "[2] Mode change \n");
				printk(KERN_EMERG "RegLowWidth=%d, ADC_STA_low_width=%d\n", sAdcInfo.ucRegLowWidth, ucLowWidth);
				printk(KERN_EMERG "RegLineWidth=%d, ADC_STA_line_width=%d\n", sAdcInfo.ucRegLineWidth, ucLineWidth);
				ADC_SyncDetectCreate();
				return;
			}

			ADC_DelayMS(1000/(ADC_DetectTiming.ucVFrequency+1)*2);

			if( sAdcInfo.bInterruptHappenAgain || sAdcInfo.bModeDetection || sAdcInfo.bModeChange)
				return;

			break;

		case HandlerHSOut:
			break;

		case ResetCoast:
			ADC_Coast_Gen_Backup();
			break;

		case CheckSyncStable:
			do{
					if(sAdcInfo.bInterruptHappenAgain || sAdcInfo.bModeDetection || sAdcInfo.bModeChange)
						return;

					if (VIP_InputActiveDetect(EXTS)!=0x0f)
						ADC_DelayMS(16);
					else
						break;
			}while(sAdcInfo.bInterruptHappen);

			break;
	}

	if( sAdcInfo.bInterruptHappenAgain==FALSE && sAdcInfo.bModeDetection==FALSE && sAdcInfo.bModeChange==FALSE )
	{
		if( sAdcInfo.bSyncDetection==FALSE )
		{
			if ( sAdcInfo.ucInputMode == UNSUPPORT_MODE)
				VIP_NoticeModeNotSupport(EXTS, ENABLE);
			else if (sAdcInfo.ucInputMode == NOSIGNAL_MODE)
				VIP_NoticeModeNotSupport(EXTS, DISABLE);
			else
			{
				ADC_ScreenMode(NormalScreen);
				VIP_SetAutoTuneStatus(TRUE);
			}
		}

		if(sAdcInfo.ucSource == Adc_kSourceVGA)
		{
			ADCTimerInfo[TimerVsyncloss][1] = 1;
			ADC_Interrupt(ENABLE, 0x7030);
		}
		else
		{
			ADC_Interrupt(ENABLE, 0x478f);
			ADCTimerInfo[TimerModeChange][1] = 1;
		}
	}
	sAdcInfo.bInterruptHappen = FALSE;
}

void ADC_SearchDigitalOffset(void)
{
	VIP_RECT rcRect;
	UINT8 ucColor, ucStep;
	UINT32 ulCurrentOffset[MaxColor], ulBestOffset[MaxColor];
	UINT32 ulTargetValue[MaxColor], ulOutputValue[MaxColor], ulCurrentDelta;
#ifdef CONFIG_SUPPORT_DEBUG_MESSAGE
	UINT8 ulMaxTime = 9, ucTotalCnt;
	WBDbgMsg OffsetDebug[MaxColor][ulMaxTime];
#endif
	BOOL bFound[MaxColor];
	UINT32 AvgOffset[MaxColor] = {0};
	UINT32 loop_time = 0, MaxAvgTime = 3;

	ADC_DebugMsg("%s %d\n", __FUNCTION__,__LINE__);

	if((sAdcInfo.ucInputMode == UNSUPPORT_MODE) || (sAdcInfo.ucInputMode == NOSIGNAL_MODE) || (sAdcInfo.ucInputMode == UNSTABLE_MODE))
	{
		return ;
	}
	/// Setup target values and an rectangle AWB region for calculating compenstaion.
	if(sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		ulTargetValue[RED] = OffsetRGBTarget;
		ulTargetValue[GREEN] = OffsetRGBTarget;
		ulTargetValue[BLUE] = OffsetRGBTarget;

		if( sAdcInfo.bHpol==1 )
			rcRect.ulHStart = ADC_InputVesaTiming.usHs_Width + ((ADC_DetectTiming.usHstart-ADC_InputVesaTiming.usHs_Width)*3)/4;
		else
			rcRect.ulHStart =  ((ADC_DetectTiming.usHstart)*3)/4;
		rcRect.ulHEnd = rcRect.ulHStart + 10*iEnlargeWidthRate;
		rcRect.ulVStart = ADC_InputVesaTiming.usVstart;
		rcRect.ulVEnd = ADC_InputVesaTiming.usVstart + ADC_InputVesaTiming.usVactive;
	}
	else
	{
		ulTargetValue[GREEN] = OffsetYTarget;
		ulTargetValue[RED] = OffsetCbCrTarget;
		ulTargetValue[BLUE] = OffsetCbCrTarget;

		rcRect.ulHStart = ADC_InputVesaTiming.usHs_Width + ((ADC_InputVesaTiming.usHstart-ADC_InputVesaTiming.usHs_Width)*3)/4;
		rcRect.ulHEnd = rcRect.ulHStart + 10*iEnlargeWidthRate;
		rcRect.ulVStart = ADC_InputVesaTiming.usVstart + ADC_InputVesaTiming.usVactive/4;
		rcRect.ulVEnd = ADC_InputVesaTiming.usVstart + ADC_InputVesaTiming.usVactive*3/4;
	}
	if( gAdcAp.bApUse && gAdcAp.ulApPosition!=0xffffffff )
	{
		rcRect.ulHStart = gAdcAp.ulApPosition;
		rcRect.ulHEnd = rcRect.ulHStart+21;
	}

	if(gAdcAp.bApUse)
	{
		for(ucColor = RED; ucColor<MaxColor; ucColor++)
			if(gAdcAp.ulTargetValue[ucColor] != 0xffffffff)
				ulTargetValue[ucColor] = gAdcAp.ulTargetValue[ucColor]*4*10;
	}

	ADC_DebugMsg("HStart=%d HEnd=%d VStart=%d VEnd=%d\n", rcRect.ulHStart, rcRect.ulHEnd, rcRect.ulVStart, rcRect.ulVEnd);
	ADC_DebugMsg("TargetValue[R,G,B]=(%d,%d,%d)\n", ulTargetValue[RED], ulTargetValue[GREEN], ulTargetValue[BLUE]);

	ADC_Write(ADC_REG_beofst_en0, 1);

	for(ucColor = RED; ucColor<MaxColor; ucColor++)
	{
		ulCurrentOffset[ucColor] = 0x0;
		ulBestOffset[ucColor] = 0x0;
		bFound[ucColor] = FALSE;
	}

	sAdcInfo.bAutoOffset = TRUE;
	ucStep = 0;
	while(bFound[RED]==FALSE || bFound[GREEN]==FALSE || bFound[BLUE]==FALSE)
	{
		if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
			break;

		for(ucColor=RED; ucColor<MaxColor; ucColor++)
		{
			if(bFound[ucColor] == FALSE)
				ADC_SetOffsetDirdect(ucColor, ulCurrentOffset[ucColor]);
		}

		/// Calcultate average offset value of the next three sample points.
		for(loop_time = 0; loop_time < MaxAvgTime ; loop_time++ )
		{
			VIP_simulate_Compensation_function(rcRect, &ulOutputValue[RED], &ulOutputValue[GREEN], &ulOutputValue[BLUE]);

			for(ucColor = RED; ucColor<MaxColor; ucColor++)
				AvgOffset[ucColor] += ulOutputValue[ucColor];
		}
		for(ucColor = RED; ucColor<MaxColor; ucColor++)
			AvgOffset[ucColor] = AvgOffset[ucColor] / MaxAvgTime;
		ADC_DebugMsg(" AvgOffset[R] = %d, AvgOffset[G] = %d, AvgOffset[B] = %d \n", 
						AvgOffset[RED],AvgOffset[GREEN],AvgOffset[BLUE]);
		
		/// Calculate the best gain by formula in 0.1 precision.
		ADC_DebugMsg("Calculate in 0.1 precision\n => Best Offset = (Delta * 512) / (512 + Gain) / 10 \n ");
		
		for(ucColor=RED; ucColor<MaxColor; ucColor++)
		{
			if(bFound[ucColor] == FALSE)
			{
				ulCurrentDelta = abs(AvgOffset[ucColor] - ulTargetValue[ucColor]);
#ifdef CONFIG_SUPPORT_DEBUG_MESSAGE
				OffsetDebug[ucColor][ucStep].ulCurrentSearch = ulCurrentOffset[ucColor];
				OffsetDebug[ucColor][ucStep].ulCurrentSearchValue = AvgOffset[ucColor];
				OffsetDebug[ucColor][ucStep].ulDelta= ulCurrentDelta;
#endif
				if (ulTargetValue[ucColor] > AvgOffset[ucColor])
				{
					if (ucColor==RED)
						ADC_Write(ADC_REG_dofst_r, 0x1);
					else if(ucColor==GREEN)
						ADC_Write(ADC_REG_dofst_g, 0x1);
					else if(ucColor==BLUE)
						ADC_Write(ADC_REG_dofst_b, 0x1);
				}
				else
				{
					if (ucColor==RED)
						ADC_Write(ADC_REG_dofst_r, 0x0);
					else if(ucColor==GREEN)
						ADC_Write(ADC_REG_dofst_g, 0x0);
					else if(ucColor==BLUE)
						ADC_Write(ADC_REG_dofst_b, 0x0);
				}

				ulBestOffset[ucColor] = ulCurrentDelta * 512 / ( ADC_GetGain(ucColor) + 512 ) / 10;
				bFound[ucColor] = TRUE;
			}
			else
			{
#ifdef CONFIG_SUPPORT_DEBUG_MESSAGE
				OffsetDebug[ucColor][ucStep].ulCurrentSearch = 0;
				OffsetDebug[ucColor][ucStep].ulCurrentSearchValue = 0;
				OffsetDebug[ucColor][ucStep].ulDelta= 0;
#endif
			}
		}
		ucStep++;
	}
	sAdcInfo.bAutoOffset = FALSE;
	
	for(ucColor=RED; ucColor<MaxColor; ucColor++)
		ADC_SetOffsetDirdect(ucColor, ulBestOffset[ucColor]);

#ifdef CONFIG_SUPPORT_DEBUG_MESSAGE
	ucTotalCnt = ucStep;
	ADC_DebugMsg("--- Search Offset ---\n");
	ADC_DebugMsg(" Color    Offset    Target    Gain    Delta    AvgOffset    Best\n");
	for(ucColor = RED; ucColor<MaxColor; ucColor++)
	{		
		for(ucStep=0; ucStep<ucTotalCnt; ucStep++)
			COLOR_PRINT(ucColor,"  [%s]     %3d        %4d     %3d      %4d      %4d       %3d",
				(ucColor==RED)?"R":(ucColor==GREEN)?"G":"B",
				OffsetDebug[ucColor][ucStep].ulCurrentSearch, 
				ulTargetValue[ucColor],
				ADC_GetGain(ucColor),
				OffsetDebug[ucColor][ucStep].ulDelta, 
				OffsetDebug[ucColor][ucStep].ulCurrentSearchValue, 
				ulBestOffset[ucColor] );
		//COLOR_PRINT(ucColor,"Best Offset[%s]=%d\n",(ucColor==RED)?"RED":(ucColor==GREEN)?"GREEN":"BLUE", ulBestOffset[ucColor]);
	}
#endif
}

void ADC_UpdateWBOSDvalue(void)
{
	ADC_DebugMsg("%s %d\n", __FUNCTION__,__LINE__);

	//Gain
	ADCCalibrate_OSDGainOffset.scOSDRGainValue=ADC_GetGain(RED);
	ADCCalibrate_OSDGainOffset.scOSDGGainValue=ADC_GetGain(GREEN);
	ADCCalibrate_OSDGainOffset.scOSDBGainValue=ADC_GetGain(BLUE);

	//Offset
	if(ADC_Read(ADC_REG_dofst_r) == 1)
		ADCCalibrate_OSDGainOffset.scOSDROffsetValue=(INT16)(ADC_GetOffset(RED) + 255);
	else
		ADCCalibrate_OSDGainOffset.scOSDROffsetValue=(INT16)(abs(ADC_GetOffset(RED) - 255));

	if(ADC_Read(ADC_REG_dofst_g) == 1)
		ADCCalibrate_OSDGainOffset.scOSDGOffsetValue=(INT16)(ADC_GetOffset(GREEN) + 255);
	else
		ADCCalibrate_OSDGainOffset.scOSDGOffsetValue=(INT16)(abs(ADC_GetOffset(GREEN) - 255));

	if(ADC_Read(ADC_REG_dofst_b) == 1)
		ADCCalibrate_OSDGainOffset.scOSDBOffsetValue=(INT16)(ADC_GetOffset(BLUE) + 255);
	else
		ADCCalibrate_OSDGainOffset.scOSDBOffsetValue=(INT16)(abs(ADC_GetOffset(BLUE) - 255));
#ifdef CONFIG_SUPPORT_DEBUG_MESSAGE
	COLOR_PRINT(RED,"OSD  R-gain = %d, R-offset = %d (255 %s BestOffset[R])", 
							ADCCalibrate_OSDGainOffset.scOSDRGainValue,
							ADCCalibrate_OSDGainOffset.scOSDROffsetValue,
							ADC_Read(ADC_REG_dofst_r)?"+":"-");
	COLOR_PRINT(GREEN,"OSD  G-gain = %d, G-offset = %d (255 %s BestOffset[G])", 
							ADCCalibrate_OSDGainOffset.scOSDGGainValue,
							ADCCalibrate_OSDGainOffset.scOSDGOffsetValue,
							ADC_Read(ADC_REG_dofst_g)?"+":"-");
	COLOR_PRINT(BLUE,"OSD  B-gain = %d, B-offset = %d (255 %s BestOffset[B])", 
							ADCCalibrate_OSDGainOffset.scOSDBGainValue,
							ADCCalibrate_OSDGainOffset.scOSDBOffsetValue,
							ADC_Read(ADC_REG_dofst_b)?"+":"-");
#endif
}

void ADC_AutoColorCalibration(void)
{
	BOOL bSource_sel = FALSE;
	UINT8 value =0;

	ADC_DebugMsg("%s %d\n", __FUNCTION__,__LINE__);

	//if no signal or unsupported mode
	if((sAdcInfo.ucInputMode == 0xf) ||(sAdcInfo.ucInputMode == UNSUPPORT_MODE) || (sAdcInfo.ucInputMode == NOSIGNAL_MODE) || (sAdcInfo.ucInputMode == UNSTABLE_MODE))
	{
		ADC_DebugMsg("sAdcInfo.ucInputMode = %d\n", sAdcInfo.ucInputMode);
		return ;
	}
	//because only one vsync, set to "original signal" replace "regeneration signal"
	if( ADC_Read(ADC_REG_source_sel)== 0x1 )
	{
		bSource_sel = TRUE;
		ADC_Write(ADC_REG_source_sel, 0x2);
	}

	if((sAdcInfo.ucInputMode == 0xf) ||(sAdcInfo.ucInputMode == UNSUPPORT_MODE) || (sAdcInfo.ucInputMode == NOSIGNAL_MODE) || (sAdcInfo.ucInputMode == UNSTABLE_MODE))
	{
		ADC_DebugMsg("sAdcInfo.ucInputMode = %d\n", sAdcInfo.ucInputMode);
		return ;
	}

	if (bAutoWB == TRUE)
		ADC_SearchGain(FALSE);
	else
		ADC_FirstTimeSearchGain();

	ADC_DelayMS(1);

	ADC_DebugMsg("sAdcInfo.ucInputMode = %d\n", sAdcInfo.ucInputMode);
	if((sAdcInfo.ucInputMode == 0xf) ||(sAdcInfo.ucInputMode == UNSUPPORT_MODE) || (sAdcInfo.ucInputMode == NOSIGNAL_MODE) || (sAdcInfo.ucInputMode == UNSTABLE_MODE))
	{
		return ;
	}
	ADC_SearchDigitalOffset();

	if( bSource_sel == TRUE)
		ADC_Write(ADC_REG_source_sel, 0x1);

	if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
		return;

	ADC_UpdateWBOSDvalue();

	ADCCalibrate_OSDGainOffset.bResult=TRUE;		//??
	bAutoColorCalibrationDone =TRUE;
	if(!sAdcInfo.bWBUpdate)
		noticekmf(KMF2UMF_EVID_ADC, KMF2UMF_EVTYPE_ADC_WHITEBALANCE, &value,1); //NULL

}

void ADC_FirstTimeSearchGain(void)
{
	ADC_DebugMsg("%s %d\n", __FUNCTION__,__LINE__);

	if ( Source[sAdcInfo.ucSource].bFirstTime )
	{
		ADC_DebugMsg("[%d] First time search gain value... \n", sAdcInfo.ucSource);

		ADC_SearchGain(FALSE);

		if (ADC_CheckGainValue( ADC_GetGain(RED) ) || ADC_CheckGainValue( ADC_GetGain(GREEN) ) || ADC_CheckGainValue( ADC_GetGain(BLUE) ))
		{
			ADC_DebugMsg("[%d]  Retry search gain value  ... \n", sAdcInfo.ucSource);
			ADC_DebugMsg("OSD R-gain=%d\n", Source[sAdcInfo.ucSource].scFirstTimeSearchRGainValue);
			ADC_DebugMsg("OSD G-gain=%d\n", Source[sAdcInfo.ucSource].scFirstTimeSearchGGainValue);
			ADC_DebugMsg("OSD B-gain=%d\n", Source[sAdcInfo.ucSource].scFirstTimeSearchBGainValue);

			Source[sAdcInfo.ucSource].bFirstTime = TRUE;
		}
		else
		{
			Source[sAdcInfo.ucSource].scFirstTimeSearchRGainValue=ADC_GetGain(RED);
			Source[sAdcInfo.ucSource].scFirstTimeSearchGGainValue=ADC_GetGain(GREEN);
			Source[sAdcInfo.ucSource].scFirstTimeSearchBGainValue=ADC_GetGain(BLUE);

			Source[sAdcInfo.ucSource].bFirstTime = FALSE;
		}

	}
	else
	{
		ADC_DebugMsg("[%d]  Don't not search gain, set gain value... \n", sAdcInfo.ucSource);

		ADC_DebugMsg("OSD R-gain=%d\n", Source[sAdcInfo.ucSource].scFirstTimeSearchRGainValue);
		ADC_DebugMsg("OSD G-gain=%d\n", Source[sAdcInfo.ucSource].scFirstTimeSearchGGainValue);
		ADC_DebugMsg("OSD B-gain=%d\n", Source[sAdcInfo.ucSource].scFirstTimeSearchBGainValue);

		ADC_SetGainDirdect(RED, Source[sAdcInfo.ucSource].scFirstTimeSearchRGainValue);
		ADC_SetGainDirdect(GREEN, Source[sAdcInfo.ucSource].scFirstTimeSearchGGainValue);
		ADC_SetGainDirdect(BLUE, Source[sAdcInfo.ucSource].scFirstTimeSearchBGainValue);
	}

}

BOOL ADC_CheckGainValue(UINT16 scValue)
{
	ADC_DebugMsg("[%s] Check value = %d \n", __FUNCTION__, scValue);

	if ((scValue <= 0) || (scValue == 252) || (scValue >= 511))
		return TRUE;
	else
		return FALSE;
}

void ADC_SyncDetection(void *unuse)
{
	UINT8 retval;
	UINT8 value = 0;
    UINT8 ucPixelClock = 0;
    UINT16 usHTotal = 0;
	BOOL AutoAdjustStatus = FALSE;

	ADC_Clear_Interrupt(0xffff);

do{
    if(!sAdcInfo.bADCEnable)
        break;

	sAdcInfo.bSyncDetection=TRUE;
	sAdcInfo.bModeDetection=TRUE;
	bCheckVIPHttl = FALSE;
	bAutoColorCalibrationDone =FALSE;	
	ADC_Interrupt(DISABLE, 0);

#ifdef DRV_ENABLE_CVD2
	if (sAdcInfo.ucSource == Adc_kSourceCOMP1 || sAdcInfo.ucSource == Adc_kSourceCOMP2 || sAdcInfo.ucSource == Adc_kSourceCOMP3)
	{
		if(ucCVD2PowerEnable==TRUE)
		{
			DRV_CVD2_Power_Setting(FALSE);  //component cc will open cvd2
			ucCVD2PowerEnable=FALSE;
		}
	}
#endif

	ADC_ResetAdcInfoSetting();

	if(!sAdcInfo.bADCEnable)
		break;

	ADC_SourceInit();
		udelay(1000);	//ADC initialize. Wait 2 V-sync 30ms

	if(!sAdcInfo.bADCEnable)
		break;

	if(gAdcAp.bAutoFlow == FALSE)//For test
	{
		sAdcInfo.ucMatchTablePtr = sAdcInfo.ucVesaModeTableEntry = gAdcAp.ucMatchTable;

		ADC_ModeSetting();
		if(sAdcInfo.ucSource == Adc_kSourceVGA)
        {
            ucPixelClock = g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucPixelClock*iEnlargeWidthRate;
            usHTotal = g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].usHtotal*iEnlargeWidthRate;
        }
        else
        {
            ucPixelClock = g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucPixelClock*iEnlargeWidthRate;
            usHTotal = g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr].usHtotal*iEnlargeWidthRate;
        }
        
        //ADC_PllSetting(ucPixelClock, usHTotal);

		if(sAdcInfo.ucSource == Adc_kSourceVGA)
		{
			ADC_DetectTiming.usVcount=ADC_InputVesaTiming.usVcount;
			ADC_DetectTiming.ucVFrequency=ADC_InputVesaTiming.ucVFrequency;
			ADC_DetectTiming.usHFrequency=ADC_InputVesaTiming.usHFrequency;
			ADC_DetectTiming.ucFlag=ADC_InputVesaTiming.ucFlag=g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucFlag;
		}
		else
		{
			ADC_DetectTiming.usVcount=ADC_InputVesaTiming.usVcount;
			ADC_DetectTiming.ucVFrequency=ADC_InputVesaTiming.ucVFrequency;
			ADC_DetectTiming.usHFrequency=ADC_InputVesaTiming.usHFrequency;
			ADC_DetectTiming.ucFlag=ADC_InputVesaTiming.ucFlag=g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr].ucFlag;
		}
		ADC_UpdateFlag(ADC_DetectTiming.ucFlag);

		ADC_CheckPllResetSequence(ucPixelClock, usHTotal);

		if(sAdcInfo.ucSource == Adc_kSourceVGA)
		{
			ADC_Write(ADC_REG_o_hsync_sel,0);
			ADC_Write(ADC_REG_o_vsync_sel,0x01);
		}
		else
		{
			ADC_Write(ADC_REG_o_hsync_sel,0);
			ADC_Write(ADC_REG_o_vsync_sel,0);
		}

		retval = Mode_Change_Stable;
	}
	else
	{
		retval = ADC_Mode_Setup();
	}
	sAdcInfo.bModeDetection=FALSE;
	sAdcInfo.bModeChange = FALSE;
	sAdcInfo.bInterruptHappen = FALSE;
	ADC_Clear_Interrupt(0x80);

	if(!sAdcInfo.bADCEnable)
		break;

	//??interrupt by KMF
	switch (retval)
	{
		case Current_state_Failed:
		case Csync_stable_i2_failed:
		case VIP_No_Signal:
		case Unstable_Timing_Setting:
			//Added by Jason to clear H and V count for pollingHandler().
			sAdcInfo.usHcount = 0;
			sAdcInfo.usVcount = 0;
			ADC_DebugMsg("Input Sync unstable\n");

			VIP_NoticeModeNotSupport(EXTS, DISABLE);
			ADC_NoticeKmf(ADCMSG_INPUTPATHSTATUS, FALSE, FALSE);

			ucLastInputMode = sAdcInfo.ucInputMode;

			if(sAdcInfo.ucSource == Adc_kSourceVGA)
			{
				ADCTimerInfo[TimerVsyncloss][1] = 0;
				ADC_Interrupt(ENABLE, 0x2000);
			}
			else
			{
				sAdcInfo.bSyncDetection=FALSE;
				ADC_Interrupt(ENABLE, 0x02);
				ADCTimerInfo[TimerSignaloff][1] = 1;
			}

			ADCTimerInfo[TimerTunerStrength][1] = 0;

			break;

		case Unsupported_Timing:
			if(ucLastInputMode != UNSUPPORT_MODE)
            {
                ADC_DebugMsg("Not support\n");
                VIP_NoticeModeNotSupport(EXTS, ENABLE);
                ADC_NoticeKmf(ADCMSG_INPUTPATHSTATUS, FALSE, TRUE);
                ADC_DelayMS(100);
            }
            ucLastInputMode = sAdcInfo.ucInputMode;

			if(sAdcInfo.bModeChange)
				break;

			if(sAdcInfo.ucSource == Adc_kSourceVGA)
			{
				ADCTimerInfo[TimerVsyncloss][1] = 1;
				ADC_Interrupt(ENABLE, 0x7030);
			}
			else
			{
				ADCTimerInfo[TimerModeChange][1] = 1;
				ADC_Interrupt(ENABLE, 0x478f);
			}

			ADCTimerInfo[TimerTunerStrength][1] = 0;

			break;

		case Mode_Change_Again:
			sAdcInfo.bModeChange = TRUE;
			break;

		case Mode_Change_Stable:

			if(gAdcAp.bAutoFlow != FALSE)
			{
				if(sAdcInfo.ucSource == Adc_kSourceVGA)
				{
					ADCTimerInfo[TimerVsyncloss][1] = 1;
					ADC_Interrupt(ENABLE, 0x7030);
				}
				else
				{
					ADCTimerInfo[TimerModeChange][1] = 1;
					ADC_Interrupt(ENABLE, 0x478f);
				}
				ADC_DelayMS(60);
			}

			//ADCTimerInfo[TimerTunerStrength][1] = 1;

			ADC_NoticeKmf(ADCMSG_INPUTPATHSTATUS, TRUE, FALSE);
			ADC_SendInfo();

			if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
				break;

			if (sAdcInfo.ucSource != Adc_kSourceVGA)
			{
				ADC_Write(ADC_REG_cs2_r_clamp_ref_edge, 0);
				ADC_Write(ADC_REG_cs2_g_clamp_ref_edge, 0);
				ADC_Write(ADC_REG_cs2_b_clamp_ref_edge, 0);
			}
			else
			{
				ADC_Write(ADC_REG_cs2_r_clamp_ref_edge, 1);
				ADC_Write(ADC_REG_cs2_g_clamp_ref_edge, 1);
				ADC_Write(ADC_REG_cs2_b_clamp_ref_edge, 1);
				
			}

			if(sAdcInfo.ucSource == Adc_kSourceCOMP1 || sAdcInfo.ucSource == Adc_kSourceCOMP2 || sAdcInfo.ucSource == Adc_kSourceCOMP3)
			{
				if( (sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_480I60 ) || (sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_576I50))
				{
					//avoid touch sync or data, clamp width = 280ns
					ADC_Write(ADC_REG_cs2_r_clamp_start, 0x10);
					ADC_Write(ADC_REG_cs2_r_clamp_width, 0x10);
					ADC_Write(ADC_REG_cs2_g_clamp_start, 0x10);
					ADC_Write(ADC_REG_cs2_g_clamp_width, 0x10);
					ADC_Write(ADC_REG_cs2_b_clamp_start, 0x10);
					ADC_Write(ADC_REG_cs2_b_clamp_width, 0x10);
				}
				else if ((sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_480P60) || (sAdcInfo.ucTimingModeIndex ==  PLF_VIDEO_TIMING_ID_DTV_576P50))
				{
					ADC_Write(ADC_REG_cs2_r_clamp_start, 0xd);
					ADC_Write(ADC_REG_cs2_r_clamp_width, 0xd);
					ADC_Write(ADC_REG_cs2_g_clamp_start, 0xd);
					ADC_Write(ADC_REG_cs2_g_clamp_width, 0xd);
					ADC_Write(ADC_REG_cs2_b_clamp_start, 0xd);
					ADC_Write(ADC_REG_cs2_b_clamp_width, 0xd);
				}
				else
				{
					if (sAdcInfo.bInterlace)
					{
						ADC_Write(ADC_REG_cs2_r_clamp_start, 0xa);
						ADC_Write(ADC_REG_cs2_r_clamp_width, 0x6);
						ADC_Write(ADC_REG_cs2_g_clamp_start, 0xa);
						ADC_Write(ADC_REG_cs2_g_clamp_width, 0x6);
						ADC_Write(ADC_REG_cs2_b_clamp_start, 0xa);
						ADC_Write(ADC_REG_cs2_b_clamp_width, 0x6);
					}
					else
					{
						if ((sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_1080P50) ||(sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_1080P60))
						{
							ADC_Write(ADC_REG_cs2_r_clamp_start, 0x6);
							ADC_Write(ADC_REG_cs2_g_clamp_start, 0x6);
							ADC_Write(ADC_REG_cs2_b_clamp_start, 0x6);
						}
						else
						{
							ADC_Write(ADC_REG_cs2_r_clamp_start, 0xa);
							ADC_Write(ADC_REG_cs2_g_clamp_start, 0xa);
							ADC_Write(ADC_REG_cs2_b_clamp_start, 0xa);
						}

						ADC_Write(ADC_REG_cs2_r_clamp_width, 0x4);
						ADC_Write(ADC_REG_cs2_g_clamp_width, 0x4);
						ADC_Write(ADC_REG_cs2_b_clamp_width, 0x4);
					}
				}
			}
			else
			{
				ADC_Write(ADC_REG_r_sb1, 0x13);
				ADC_Write(ADC_REG_g_sb1, 0x13);
				ADC_Write(ADC_REG_b_sb1, 0x13);
			}

			ADC_Write(ADC_REG_csgen_start, 0x26);
			ADC_Write(ADC_REG_cvbs_clamp_mode_g, 0);

			sAdcInfo.bWBUpdate=TRUE;
			if(sAdcInfo.ucSource == Adc_kSourceCOMP1 || sAdcInfo.ucSource == Adc_kSourceCOMP2)
			{
				DRV_ADC_SetGain(RED,435);
				DRV_ADC_SetGain(GREEN,420);
				DRV_ADC_SetGain(BLUE,427);
				DRV_ADC_SetOffset(RED,407);
				DRV_ADC_SetOffset(GREEN,107);
				DRV_ADC_SetOffset(BLUE,422);
			}
			else
			{
				DRV_ADC_SetGain(RED,310);
				DRV_ADC_SetGain(GREEN,299);
				DRV_ADC_SetGain(BLUE,306);
				DRV_ADC_SetOffset(RED,181);
				DRV_ADC_SetOffset(GREEN,191);
				DRV_ADC_SetOffset(BLUE,196);
			}	
            ADC_Write(ADC_REG_lcg_refdbg_sel_temp, 0);

			sAdcInfo.bWBUpdate=FALSE;

			if( sAdcInfo.bInterlace )
				VIP_TopDetect(SOURCE_EXTS);

			if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
				break;

			bAutoWB = TRUE;
			ADC_AutoColorCalibration();

			//move normal screen before doing phase and centering to make display time shorter
			if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
				break;
			else
			{
				ADC_ScreenMode(NormalScreen);
				VIP_SetAutoTuneStatus(TRUE);
			}

			if(!FactoryModeAWB || sAdcInfo.ucSource == Adc_kSourceVGA)
			{
				AutoAdjustStatus = TRUE;
				noticekmf(KMF2UMF_EVID_ADC, KMF2UMF_EVTYPE_ADC_AUTOADJUST, &AutoAdjustStatus, 1);
			}

#ifndef CONFIG_QSD
            if(!FactoryModeAWB)	// Skip phase detection when AWB in factory mode.
            {
                bAutoAdjust = TRUE;
                sAdcInfo.ucUserPhase = ADC_PhaseDetected();
                bAutoAdjust = FALSE;
            
                ADC_DelayMS(50);
                ADC_SearchDigitalOffset();
                bCheckVIPHttl = TRUE;
            }
#endif

			if ( sAdcInfo.ucSource == Adc_kSourceVGA ) 
			{
				if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
					break;
				ADC_Centering(FALSE);	// Set FALSE for ignoring mute mechanism when size is revised during centering procedure.
				noticekmf(KMF2UMF_EVID_ADC, KMF2UMF_EVTYPE_ADC_PCSETUPDATE, &value, 1);
			}

			if(!FactoryModeAWB || sAdcInfo.ucSource == Adc_kSourceVGA)
			{
				AutoAdjustStatus = FALSE;
				noticekmf(KMF2UMF_EVID_ADC, KMF2UMF_EVTYPE_ADC_AUTOADJUST, &AutoAdjustStatus, 1);
			}

			//ADC_DelayMS(300);	// signal is unstable when switching timing on Chroma_22293.

			if(sAdcInfo.ucSource == Adc_kSourceCOMP1 || sAdcInfo.ucSource == Adc_kSourceCOMP2 || sAdcInfo.ucSource == Adc_kSourceCOMP3)
			{
				if (sAdcInfo.ucTimingModeIndex == PLF_VIDEO_TIMING_ID_DTV_576I50)
				{
					ADC_Write(ADC_REG_iir_fbpn1_i_8, 0);
					ADC_Write(ADC_REG_iir_fbppn1_i_8, 1);
				}
			}

		break;
	}

	sAdcInfo.bSyncDetection=FALSE;

	if(gAdcAp.bDisableInterrupt)
	{
		sAdcInfo.bModeChange = FALSE;
		ADC_Interrupt(DISABLE, 0);
		ADCTimerInfo[TimerSignaloff][1] = 0;
	}
}while(sAdcInfo.bModeChange && sAdcInfo.bADCEnable);	//interrupt flag that needs to handle

}

void ADC_SourceSelect(UINT8 ucSubInputSource, BOOL bEnable)
{
	BOOL cancel_result = FALSE;

	ADC_DebugMsg("%s\n", __FUNCTION__);

	if(sAdcInfo.bADCEnable == bEnable)
		return;

	sAdcInfo.bFactoryMode = FALSE;
	// Set default VGA-WAKEUP Bottom Range Number
	*((volatile UINT8*)0xbe0f0700) = 0x2e;
	
	sAdcInfo.bADCEnable = bEnable;
	sAdcInfo.ucSource = ucSubInputSource;
	sAdcInfo.bInterruptHappen = FALSE;
	sAdcInfo.bInterruptHappenAgain = FALSE;
	sAdcInfo.ucScreenMode = 0xf;
	ucLastInputMode = 0xf;
	sAdcInfo.ucInputMode = 0xf;
	ADC_Clear_Interrupt(0xffff);
	ADC_Interrupt(DISABLE, 0);

	ADC_ResetApSetting();

	if(sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		sAdcInfo.usHcountModeChange = 8;
		sAdcInfo.usVcountModeChange = 5;
	}
	else
	{
		sAdcInfo.usHcountModeChange = 30;
		sAdcInfo.usVcountModeChange = 15;
	}

	if(sAdcInfo.bADCEnable == ENABLE)
	{
		ADC_DebugMsg("ADC on\n");
		DRV_ADC_power(ENABLE);

		ADC_Write(GLB_REG_global_reset, 0);
		udelay(1000);  //Wait MMIO write data in register. 1ms
		ADC_Write(GLB_REG_global_reset, 1);

		ADC_StartTimerFun(&ADCContext, ADC_TimerFun);
		sAdcInfo.bSyncDetection=TRUE;
		queue_delayed_work(pADC_WQSyncDetection, &ADCSyncDetectionThread, 0);
	}
	else
	{
		cancel_result = cancel_delayed_work(&ADCTunerStrengthThread);

		if(cancel_result)
			flush_workqueue(pADC_WQTunerStrength);

		ADC_StopTimerFun(&ADCContext);

		cancel_result = cancel_delayed_work(&ADCSyncDetectionThread);

		if(cancel_result)
            flush_workqueue(pADC_WQSyncDetection);

		DRV_ADC_power(DISABLE);
		ADC_DebugMsg("ADC off\n");
	}

}

void ADC_Open(void)
{
	printk(KERN_EMERG"%s:\n",__FUNCTION__);

	Source[Adc_kSourceVGA].bFirstTime = TRUE;
	Source[Adc_kSourceCOMP1].bFirstTime = Source[Adc_kSourceCOMP2].bFirstTime = Source[Adc_kSourceCOMP3].bFirstTime = TRUE;

}

void ADC_Close(void)
{
	printk(KERN_EMERG"%s:\n",__FUNCTION__);
	if(sAdcInfo.bADCEnable == TRUE)
	{
		sAdcInfo.bADCEnable = FALSE;

		ADC_Interrupt(DISABLE, 0);
		ADC_StopTimerFun(&ADCContext);

#ifdef DRV_ENABLE_CVD2
		if (sAdcInfo.ucSource == Adc_kSourceCOMP1 || sAdcInfo.ucSource == Adc_kSourceCOMP2 || sAdcInfo.ucSource == Adc_kSourceCOMP3)
		{
			if(ucCVD2PowerEnable==TRUE)
			{
				DRV_CVD2_Disable_Ypp_CC();
				DRV_CVD2_Power_Setting(FALSE);  //component cc will open cvd2
				ucCVD2PowerEnable=FALSE;
			}
		}
#endif

		flush_workqueue(pADC_WQSyncDetection);
		flush_workqueue(pADC_WQTunerStrength);

		DRV_ADC_power(DISABLE);
	}
}

void ADC_InfoSet(UINT8 ucFunID, INT32 iValue)
{

}

INT32 ADC_InfoGet(UINT8 ucFunID)
{
	INT32 iValue= -1;

	return iValue;
}

void DRV_ADC_GetAutoColorValue(ADCCalibrate_OSDGainOffset_t* pstConfig)
{
	ADC_UpdateWBOSDvalue();

	pstConfig->scOSDRGainValue=ADCCalibrate_OSDGainOffset.scOSDRGainValue;
	pstConfig->scOSDGGainValue=ADCCalibrate_OSDGainOffset.scOSDGGainValue;
	pstConfig->scOSDBGainValue=ADCCalibrate_OSDGainOffset.scOSDBGainValue;

	pstConfig->scOSDROffsetValue=ADCCalibrate_OSDGainOffset.scOSDROffsetValue;
	pstConfig->scOSDGOffsetValue=ADCCalibrate_OSDGainOffset.scOSDGOffsetValue;
	pstConfig->scOSDBOffsetValue=ADCCalibrate_OSDGainOffset.scOSDBOffsetValue;

	pstConfig->bResult=ADCCalibrate_OSDGainOffset.bResult;
}
EXPORT_SYMBOL(DRV_ADC_GetAutoColorValue);

void ADC_SearchGain(BOOL bAutoGainMode)
{
	VIP_RECT rcRect;
	UINT8 ucColor,  ucStep, ucTotalCnt;
	UINT8 ucRegChannelSel[MaxColor]={0}, ucClampWidth[MaxColor]={0}, ucRegClampExt=0, ucClampPwdMode;
	UINT32 ulCurrentGain[MaxColor], ulBestGain[MaxColor], ulTargetValue[MaxColor];
	UINT32 ulHighValue[MaxColor] = {0}, ulLowValue[MaxColor] = {0}, ulCodeDiff;
#ifdef CONFIG_SUPPORT_DEBUG_MESSAGE
	UINT8 ulMaxTime = 8;
	WBDbgMsg GainDebug[MaxColor][ulMaxTime];
#endif	
	BOOL bFound[MaxColor];
	UINT32 Buf[MaxColor] = {0}, BufDelta[MaxColor] = {0}, AvgHigh[MaxColor] = {0},AvgLow[MaxColor] = {0};
	BOOL AWB_Stable;
	UINT8 AWB_TH = 30, Avg_cnt = 3, Avg_loop = 0;

	ADC_DebugMsg("%s %d\n", __FUNCTION__,__LINE__);

	// Disable enhance pull down before switching RGB input select
	ADC_Write(ADC_REG_r_epd12v, 0);
	
	ADC_DelayMS(10);		
	
	if(sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		// In order to get correct region for AWB, setup offset before centering.
		DRV_ADC_SetOffset(RED,0);
		DRV_ADC_SetOffset(GREEN,0);
		DRV_ADC_SetOffset(BLUE,0);
		ADC_Write(ADC_REG_lcg_r33vcm_sel,7);
		ADC_Write(ADC_REG_lcg_g33vcm_sel,7);
		ADC_Write(ADC_REG_lcg_b33vcm_sel,7);
		
		//Get VIP ADC_DetectTiming Info
		//ADC_Centering(0);
		
		ADC_Write(ADC_REG_lcg_r33vcm_sel,1);
		ADC_Write(ADC_REG_lcg_g33vcm_sel,1);
		ADC_Write(ADC_REG_lcg_b33vcm_sel,1);
	}
	else
	{
		// Enable SoG clamp
		ADC_Write(ADC_REG_sc_stb_vs_sth, 7);		
		// Disable data clamp
		ADC_Write(ADC_REG_g_clamppdn_mod, 3);
		// Adjsut clamp level to 500 mV
		ADC_Write(ADC_REG_g_sb1, 0x19);
	}
	
	/// Setup target values and an rectangle AWB region for calculating compenstaion.
	if(sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		ulTargetValue[RED] = GainRGBCodeDiff;
		ulTargetValue[GREEN] = GainRGBCodeDiff;
		ulTargetValue[BLUE] = GainRGBCodeDiff;
	
		if( sAdcInfo.bHpol==1 )
			rcRect.ulHStart = ADC_InputVesaTiming.usHs_Width + ((ADC_DetectTiming.usHstart-ADC_InputVesaTiming.usHs_Width)*3)/4;
		else
			rcRect.ulHStart =  ((ADC_DetectTiming.usHstart)*3)/4;
		rcRect.ulHEnd = rcRect.ulHStart + 10*iEnlargeWidthRate;
		rcRect.ulVStart = ADC_InputVesaTiming.usVstart;
		rcRect.ulVEnd = ADC_InputVesaTiming.usVstart + ADC_InputVesaTiming.usVactive;
	}
	else
	{
		ulTargetValue[RED] = GainCbCrCodeDiff;
		ulTargetValue[GREEN] = GainYCodeDiff;
		ulTargetValue[BLUE] = GainCbCrCodeDiff;

		rcRect.ulHStart = ADC_InputVesaTiming.usHs_Width + ((ADC_InputVesaTiming.usHstart-ADC_InputVesaTiming.usHs_Width)*3)/4;
		rcRect.ulHEnd = rcRect.ulHStart + 10*iEnlargeWidthRate;
		rcRect.ulVStart = ADC_InputVesaTiming.usVstart + ADC_InputVesaTiming.usVactive/4;
		rcRect.ulVEnd = ADC_InputVesaTiming.usVstart + ADC_InputVesaTiming.usVactive*3/4;
	}

	if( gAdcAp.bApUse && gAdcAp.ulApPosition!=0xffffffff )
	{
		rcRect.ulHStart = gAdcAp.ulApPosition;
		rcRect.ulHEnd = rcRect.ulHStart+21;
	}

	if(gAdcAp.bApUse)
	{
		for(ucColor = RED; ucColor<MaxColor; ucColor++)
			if(gAdcAp.ulTargetValue[ucColor] != 0xffffffff)
				ulTargetValue[ucColor] = gAdcAp.ulTargetValue[ucColor];
	}

	ADC_DebugMsg("Detect_Hw=%d Detect_Hs=%d Vesa_Hw=%d Vesa_Hs=%d\n", ADC_DetectTiming.usHs_Width, ADC_InputVesaTiming.usHstart, ADC_InputVesaTiming.usHs_Width, ADC_InputVesaTiming.usHstart);
	ADC_DebugMsg("HStart=%d HEnd=%d VStart=%d VEnd=%d\n", rcRect.ulHStart, rcRect.ulHEnd, rcRect.ulVStart, rcRect.ulVEnd);
	ADC_DebugMsg("TargetValue[R,G,B]=(%d,%d,%d)\n", ulTargetValue[RED], ulTargetValue[GREEN], ulTargetValue[BLUE]);

	ADC_Write(ADC_REG_beofst_en0, 0);

	// Switch RGB input select channel to internal voltage zone before doing AWB
	ucRegChannelSel[RED] = ADC_Read(ADC_REG_lcg_rch_sel);
	ucRegChannelSel[GREEN] = ADC_Read(ADC_REG_lcg_gch_sel);
	ucRegChannelSel[BLUE] = ADC_Read(ADC_REG_lcg_bch_sel);
	ADC_Write(ADC_REG_lcg_rch_sel, 6);
	ADC_Write(ADC_REG_lcg_gch_sel, 6);
	ADC_Write(ADC_REG_lcg_bch_sel, 6);

	ucRegClampExt = ADC_Read(ADC_REG_o_rgbclamp_sel_extension);
	ADC_Write(ADC_REG_o_rgbclamp_sel_extension, 1);
	
	// Switch Mux to AWB path
	ADC_Write(ADC_REG_lcg_refdbg_sel_temp, 0x3);
	
	// Enable G channel clamp for entering internal data clamp flow
	ucClampPwdMode = ADC_Read(ADC_REG_g_clamppdn_mod);
	ADC_Write(ADC_REG_g_clamppdn_mod, 2);
	
	// Enlarge clamp region for increasing stability of High/Low value in AWB mechanism
	ucClampWidth[RED] = ADC_Read(ADC_REG_cs2_r_clamp_width);
	ucClampWidth[GREEN] = ADC_Read(ADC_REG_cs2_g_clamp_width);
	ucClampWidth[BLUE] = ADC_Read(ADC_REG_cs2_b_clamp_width);		
	ADC_Write(ADC_REG_cs2_r_clamp_width, 0xff);
	ADC_Write(ADC_REG_cs2_g_clamp_width, 0xff);
	ADC_Write(ADC_REG_cs2_b_clamp_width, 0xff);
		
	
sAdcInfo.usPollingCounter = 0;
do{
	sAdcInfo.bReSearchGain = FALSE;

	for(ucColor = RED; ucColor<MaxColor; ucColor++)
	{
		ulCurrentGain[ucColor] = 0xFF;
		ulBestGain[ucColor] = 0xFF;
		bFound[ucColor] = FALSE;
	}

	sAdcInfo.bAutoGain = TRUE;
	ucStep = 0;
	while(bFound[RED]==FALSE || bFound[GREEN]==FALSE || bFound[BLUE]==FALSE)
	{
		if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
			break;
		/// Switch auto gain voltage selector to High.
		ADC_Write(ADC_REG_lcg_awbsel12v, (sAdcInfo.ucSource == Adc_kSourceVGA)?1:0);
		for(ucColor=RED; ucColor<MaxColor; ucColor++)
		{
			if(bFound[ucColor] == FALSE)
				ADC_SetGainDirdect(ucColor, ulCurrentGain[ucColor]);
		}

		ADC_DelayMS(20);
		
		/// Find stable sampling point for High.
		AWB_Stable = FALSE;
		ucTotalCnt = 0;
		while(!AWB_Stable)
		{		
			ucTotalCnt++;
			if(ucTotalCnt > 5)
			{
				ADC_DebugMsg("### Cannot get stable compensation results. ###\n\n");
				break;
			}
			ADC_DelayMS(10);
			if((sAdcInfo.ucInputMode == 0xf) ||(sAdcInfo.ucInputMode == UNSUPPORT_MODE) || (sAdcInfo.ucInputMode == NOSIGNAL_MODE) || (sAdcInfo.ucInputMode == UNSTABLE_MODE))
				break;
			if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
				break;
			// Backup previous sampling point compensation result, value would be 0 in the first round.
			for(ucColor=RED; ucColor<MaxColor; ucColor++)
				Buf[ucColor] = ulHighValue[ucColor];

			VIP_simulate_Compensation_function(rcRect, &ulHighValue[RED], &ulHighValue[GREEN], &ulHighValue[BLUE]);
            
			// Force to get the second sampling point if it is the first round.
			if( (Buf[RED]==0) && (Buf[GREEN]==0) && (Buf[BLUE]==0) )
				continue;
			
            // Check whether code diff between the latest two sample results is in the range of AWB_TH.
			for(ucColor=RED; ucColor<MaxColor; ucColor++)
				BufDelta[ucColor] = abs(Buf[ucColor] - ulHighValue[ucColor]);
			
			if( (BufDelta[RED] <= AWB_TH) && (BufDelta[GREEN] <= AWB_TH) && (BufDelta[BLUE] <= AWB_TH) )
			{
				//ADC_DebugMsg("### Stable enough ###\n\n");
				AWB_Stable = TRUE;
			}
		}
		
		/// Calcultate average High value of the next three sample points.
		for(Avg_loop = 0; Avg_loop < Avg_cnt; Avg_loop++)
		{	
			VIP_simulate_Compensation_function(rcRect, &ulHighValue[RED], &ulHighValue[GREEN], &ulHighValue[BLUE]);//ADC_InputVesaTiming.usHs_Width

			for(ucColor=RED; ucColor<MaxColor; ucColor++)
				AvgHigh[ucColor] = AvgHigh[ucColor] + ulHighValue[ucColor];
		}
		for(ucColor=RED; ucColor<MaxColor; ucColor++)
			AvgHigh[ucColor] = AvgHigh[ucColor]/Avg_cnt;
		ADC_DebugMsg(" AvgHigh[R] = %d, AvgHigh[G] = %d, AvgHigh[B] = %d\n", 
						AvgHigh[RED],AvgHigh[GREEN],AvgHigh[BLUE]);
		/// Switch auto gain voltage selector to Low.
		ADC_Write(ADC_REG_lcg_awbsel12v, 2);

		ADC_DelayMS(20);

		/// Find stable sampling point for Low.
		AWB_Stable = FALSE;
		ucTotalCnt = 0;
		while(!AWB_Stable)	
		{		
			ucTotalCnt++;
			if(ucTotalCnt > 5)
			{
				ADC_DebugMsg("### Cannot get stable compensation results. ###\n\n");
				break;
			}
			ADC_DelayMS(10);
			if((sAdcInfo.ucInputMode == 0xf) ||(sAdcInfo.ucInputMode == UNSUPPORT_MODE) || (sAdcInfo.ucInputMode == NOSIGNAL_MODE) || (sAdcInfo.ucInputMode == UNSTABLE_MODE))
				break;
			if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
				break;
			// Backup previous sampling point compensation result, value would be 0 in the first round.
			for(ucColor=RED; ucColor<MaxColor; ucColor++)
				Buf[ucColor] = ulLowValue[ucColor];

			VIP_simulate_Compensation_function(rcRect, &ulLowValue[RED], &ulLowValue[1], &ulLowValue[BLUE]);
            
			// Force to get the second sampling point if it is the first round.
			if( (Buf[RED]==0) && (Buf[GREEN]==0) && (Buf[BLUE]==0) )
				continue;
			
			// Check whether code diff is in specific range in the latest two sample points
			for(ucColor=RED; ucColor<MaxColor; ucColor++)
				BufDelta[ucColor] = abs(Buf[ucColor] - ulLowValue[ucColor]);
			
			if( (BufDelta[RED] <= AWB_TH) && (BufDelta[GREEN] <= AWB_TH) && (BufDelta[BLUE] <= AWB_TH) )
			{
				//ADC_DebugMsg("### Stable enough ###\n\n");
				AWB_Stable = TRUE;
			}
		}
		
		/// Calcultate average Low value of the next three sample points.
		for(Avg_loop = 0; Avg_loop < Avg_cnt; Avg_loop++)
		{	
			VIP_simulate_Compensation_function(rcRect, &ulLowValue[RED], &ulLowValue[GREEN], &ulLowValue[BLUE]);
            
			for(ucColor=RED; ucColor<MaxColor; ucColor++)
				AvgLow[ucColor] = AvgLow[ucColor] + ulLowValue[ucColor];
		}
		for(ucColor=RED; ucColor<MaxColor; ucColor++)
			AvgLow[ucColor] = AvgLow[ucColor]/Avg_cnt;
		ADC_DebugMsg(" AvgLow[R] = %d, AvgLow[G] = %d, AvgLow[B] = %d\n", 
						AvgLow[RED],AvgLow[GREEN],AvgLow[BLUE]);
			
		/// Calculate the best gain by formula in 0.0001 precision
		ADC_DebugMsg("Calculate in 0.001 precision\n => ( ( ( (Target * 1.5)/CodeDiff - 1) * 512) ) - 1 \n ");
		
		for(ucColor=RED; ucColor<MaxColor; ucColor++)
		{
			if(bFound[ucColor] == FALSE)
			{
				ulCodeDiff = abs(AvgHigh[ucColor] - AvgLow[ucColor]);
#ifdef CONFIG_SUPPORT_DEBUG_MESSAGE
				GainDebug[ucColor][ucStep].ulCurrentSearch = ulCurrentGain[ucColor];
				GainDebug[ucColor][ucStep].ulHighValue = AvgHigh[ucColor];
				GainDebug[ucColor][ucStep].ulLowValue = AvgLow[ucColor];
				GainDebug[ucColor][ucStep].ulCurrentSearchValue = ulCodeDiff;
				GainDebug[ucColor][ucStep].ulDelta= abs(ulTargetValue[ucColor] - ulCodeDiff);
#endif
				//digital gain is linearity
				ulBestGain[ucColor] = ( ( ( (ulTargetValue[ucColor] * 1500)/ulCodeDiff - 1000) * 512) / 1000 ) - 1;
				bFound[ucColor] = TRUE;
			}
			else
			{
#ifdef CONFIG_SUPPORT_DEBUG_MESSAGE
				GainDebug[ucColor][ucStep].ulCurrentSearch = 0;
				GainDebug[ucColor][ucStep].ulHighValue = 0;
				GainDebug[ucColor][ucStep].ulLowValue = 0;
				GainDebug[ucColor][ucStep].ulCurrentSearchValue = 0;
				GainDebug[ucColor][ucStep].ulDelta= 0;
#endif
			}
		}
		ucStep++;
	}

	sAdcInfo.bAutoGain = FALSE;

	if(sAdcInfo.bModeChange || !sAdcInfo.bADCEnable || sAdcInfo.bModeDetection)
		break;
	if((sAdcInfo.ucInputMode == 0xf) ||(sAdcInfo.ucInputMode == UNSUPPORT_MODE) || (sAdcInfo.ucInputMode == NOSIGNAL_MODE) || (sAdcInfo.ucInputMode == UNSTABLE_MODE))
		break;

}while(sAdcInfo.bReSearchGain);

	// Recovery orignial clamp width  before leaving AWB
	ADC_Write(ADC_REG_cs2_r_clamp_width, ucClampWidth[RED]);
	ADC_Write(ADC_REG_cs2_g_clamp_width, ucClampWidth[GREEN]);
	ADC_Write(ADC_REG_cs2_b_clamp_width, ucClampWidth[BLUE]);
	
	// Recovery G channel clamp for entering SoG clamp flow.
	ADC_Write(ADC_REG_g_clamppdn_mod, ucClampPwdMode);
	ADC_Write(ADC_REG_lcg_refdbg_sel_temp, 0);

	// Recovery RGB channel select for original input source
	ADC_Write(ADC_REG_lcg_rch_sel, ucRegChannelSel[RED]);
	ADC_Write(ADC_REG_lcg_gch_sel, ucRegChannelSel[GREEN]);
	ADC_Write(ADC_REG_lcg_bch_sel, ucRegChannelSel[BLUE]);
	
	ADC_Write(ADC_REG_o_rgbclamp_sel_extension, ucRegClampExt);

#ifdef CONFIG_BOE_HV430FHB_N40
	// Cannot pull down due to Tcon_7 and VGA_R are bonded on N40 panel
	ADC_Write(ADC_REG_r_epd12v, 0x0);
#else	
	// Enable enhance pull down when channel select is recoveried.
	ADC_Write(ADC_REG_r_epd12v, 1);
#endif
	if(sAdcInfo.ucSource != Adc_kSourceVGA)
	{
		// Adjsut data clamp level to 800 mV
		ADC_Write(ADC_REG_g_sb1, 0);
		// Enable data clamp
		ADC_Write(ADC_REG_g_clamppdn_mod, 2);
		// Disable SoG clamp
		ADC_Write(ADC_REG_sc_stb_vs_sth, 0);		
	}
	
	/// Setup the best gain value
	for(ucColor=RED; ucColor<MaxColor; ucColor++)
		ADC_SetGainDirdect(ucColor, ulBestGain[ucColor]);

#ifdef CONFIG_SUPPORT_DEBUG_MESSAGE
	ucTotalCnt = ucStep;
	ADC_DebugMsg("--- Search Gain ---\n");
	ADC_DebugMsg(" Color    Gain   Target    Delta   CodeDiff   High      Low      Best\n");
	for(ucColor=RED; ucColor<MaxColor; ucColor++)
	{			
		for(ucStep=0; ucStep<ucTotalCnt; ucStep++)
			COLOR_PRINT(ucColor,"  [%s]     %3d     %3d      %3d     %5d      %3d       %3d      %3d",
				(ucColor==RED)?"R":(ucColor==GREEN)?"G":"B",
				GainDebug[ucColor][ucStep].ulCurrentSearch, 
				ulTargetValue[ucColor]/10,
				(GainDebug[ucColor][ucStep].ulDelta+5)/10, 
				(GainDebug[ucColor][ucStep].ulCurrentSearchValue+5)/10, 
				(GainDebug[ucColor][ucStep].ulHighValue+5)/10, 
				(GainDebug[ucColor][ucStep].ulLowValue+5)/10,
				ulBestGain[ucColor]	);
		//COLOR_PRINT(ucColor,"Best Gain[%s]=%d\n",(ucColor==RED)?"RED":(ucColor==GREEN)?"GREEN":"BLUE", ulBestGain[ucColor]);
	}	
#endif

	// Recover to High gain setting 
	ADC_Write(ADC_REG_lcg_awbsel12v, 1);
}

void ADC_InterruptHandler (void)
{
	UINT8 ucCurState, ucAction=0xff;
	UINT16 usStatus;
	volatile UINT16 usVIPHttl=0, usVIPVcnt=0;
	static UINT8 ucLossSyncCount=0;

	ADC_DebugMsg("%s %d\n", __FUNCTION__,__LINE__);

	ucCurState = ADC_Read(ADC_STA_cur_state);
	usStatus = ADC_Read(ADC_STA_interrupt);

	ADC_Clear_Interrupt(usStatus);

while(sAdcInfo.bADCEnable)
{
	if(sAdcInfo.bSyncDetection==FALSE && sAdcInfo.ucInputMode == NOSIGNAL_MODE)
	{
		ucAction = 0;
	 	break;
	}

	if(ADC_Read(ADC_STA_cstable_i2) == 0x1 && (usStatus&0x2000) == 0x2000)
	{
		printk(KERN_EMERG "Chk Mode\n");
		ADC_DelayMS(1);
		if(sAdcInfo.ucSource == Adc_kSourceVGA)
		{
			UINT8  ucHPol, ucVPol;
			UINT16 usAdcHttl=0, usAdcVcnt=0;
			UINT32 ulVsyncWidth;

			usAdcHttl = ADC_Read(ADC_STA_latched_stable_htotal);
			usAdcVcnt = ADC_Read(ADC_STA_latched_stable_vtotal);
			ucHPol = ADC_Read(ADC_STA_hs_plrty);
			ucVPol = ADC_Read(ADC_STA_vs_plrty);
			ulVsyncWidth = ADC_Read(ADC_STA_svp_width)* SYS_CRYS_CLK_RATIO_PRECISE_3 /1000;
            ulVsyncWidth = ulVsyncWidth;
            if( usAdcVcnt < 200 )
            {
                ADC_Interrupt(DISABLE, 0);
                ucAction = 0;
            }
            else if(abs(sAdcInfo.usHcount-usAdcHttl) > sAdcInfo.usHcountModeChange ||
				abs(sAdcInfo.usVcount-usAdcVcnt) > sAdcInfo.usVcountModeChange||
				sAdcInfo.bHpol != ucHPol || sAdcInfo.bVpol != ucVPol ||
				abs(sAdcInfo.ulVsyncWidth-ulVsyncWidth)>10)
			{
				printk(KERN_EMERG "[3] Mode change\n");
				printk(KERN_EMERG "AdcInfo: Hcount=%d Vcount=%d Hpol=%d Vpol=%d VsyncWidth=%d\n",
					sAdcInfo.usHcount, sAdcInfo.usVcount, sAdcInfo.bHpol, sAdcInfo.bVpol, sAdcInfo.ulVsyncWidth);
				printk(KERN_EMERG "AdcHttl=%d AdcVcnt=%d HPol=%d VPol=%d VsyncWidth=%d\n",
					usAdcHttl, usAdcVcnt, ucHPol, ucVPol, ulVsyncWidth);
				ucAction = 1;
			}
		}
		else
		{
			UINT16 usAdcHttl=0, usAdcVcnt=0;
			
            usAdcHttl = ADC_Read(ADC_STA_latched_stable_htotal);
			usAdcVcnt = ADC_Read(ADC_STA_latched_stable_vtotal);
            
			if(abs(sAdcInfo.usHcount-usAdcHttl) > sAdcInfo.usHcountModeChange ||
				abs(sAdcInfo.usVcount-usAdcVcnt) > sAdcInfo.usVcountModeChange)
			{
				printk(KERN_EMERG "[4] Mode change\n");
				printk(KERN_EMERG "AdcInfo: usHcount=%d Vcount=%d\n", sAdcInfo.usHcount, sAdcInfo.usVcount);
				printk(KERN_EMERG "AdcHttl=%d AdcVcnt=%d\n", usAdcHttl, usAdcVcnt);
				ucAction = 1;
			}
			else if( abs(sAdcInfo.ucRegLowWidth - ADC_Read(ADC_STA_low_wdth) ) > 10 ||
					abs(sAdcInfo.ucRegLineWidth - ADC_Read(ADC_STA_line_wdth) ) > 1 )
			{
				printk(KERN_EMERG "[5] Mode change\n");
				printk(KERN_EMERG "sAdcInfo: RegLowWidth=%d ADC_STA_low_wdth=%d\n", sAdcInfo.ucRegLowWidth, ADC_Read(ADC_STA_low_wdth));
				printk(KERN_EMERG "sAdcInfo: RegLineWidth=%d ADC_STA_line_wdth=%d\n", sAdcInfo.ucRegLineWidth, ADC_Read(ADC_STA_line_wdth));
				ucAction = 1;
			}
		}
		if( ucAction!=1 && sAdcInfo.bSyncDetection==FALSE )
		{
			//PC source change mode has serious flicker and garbage issue
			VIP_ADIReset();

			//1080p23 change to 1080p24, 1080p29 change to 1080p30, OSD show no signal
			if (VIP_InputActiveDetect(EXTS)!=0x0f)
			{
				printk(KERN_EMERG "Sync Unstable\n");
				ucAction = 5;
			}
			else
			{
				if (sAdcInfo.ucInputMode == UNSUPPORT_MODE)
					break;
				else
				{
					ADC_ScreenMode(NormalScreen);
					VIP_SetAutoTuneStatus(TRUE);
				}
			}
		}
		break;
	}

	if(sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		if((usStatus&0x10) == 0x10)
		{
			printk(KERN_EMERG "HSYNC NON-ACTIVE\n");
			ucAction = 1;
			break;
		}
	}
	else
	{
		if((usStatus&0x0100) == 0x0100)
		{
			printk(KERN_EMERG "CSync NON-ACTIVE\n");
			sAdcInfo.ucInputMode = UNSTABLE_MODE;
			sAdcInfo.bModeChange = TRUE;
			ucAction = 1;
			break;
		}
		else if((usStatus&0x0400) == 0x0400)
		{
			//Qisheng DVD-8170_ 576I Change mode to 576P fail
			printk(KERN_EMERG "I->P detected\n");
			ucAction = 1;
			break;
		}
	}

	if((usStatus&0x1) == 0x1)
	{
		if(ADC_Read(ADC_STA_cs_active) == 0)
		{
			printk(KERN_EMERG "SOG no signal\n");
			ucAction = 1;
		}
		else
		{
			printk(KERN_EMERG "Wait CS non-active interrupt\n");
			ucAction = 2;
		}
	}
	else if( (usStatus&0xc)>0 )
	{
		if((usStatus&0xc) == 0x8)
		{
			if(ucLossSyncCount == 4)
			{
				printk(KERN_EMERG "Hsync loss\n");
				ADC_Write(ADC_REG_loss_sync_update, 0);
				ADC_Write(ADC_REG_synct_too_low_update, 0);
				ucLossSyncCount=0;
			}
			else
				ucLossSyncCount++;
		}

		printk(KERN_EMERG "Loss sync\n");
		if (sAdcInfo.ucInputMode == UNSUPPORT_MODE)
			ucAction = 1;
		else
			ucAction = 2;
	}
	else if(ADC_Read(ADC_STA_cstable_i2) == 0 && (usStatus&0x1000) == 0x1000)
	{
		//1080i50 & 1080i59 timing switch, 1080i50 HS out fail
		if( sAdcInfo.ucSource !=Adc_kSourceVGA )
			ucAction = 2;

		if( sAdcInfo.bSyncDetection==FALSE && sAdcInfo.ucInputMode != UNSUPPORT_MODE)
			ADC_ScreenMode(BlackScreen);

		printk(KERN_EMERG "Coast fail! Dig_rst\n");
	}
	else if( (usStatus&0x80)==0x80 )
	{
		printk(KERN_EMERG "HS out fail\n");

		//1080i50 & 1080i59 timing switch, 1080i50 HS out fail
		if( sAdcInfo.bSyncDetection== false && abs( sAdcInfo.ucRegLowWidth - ADC_Read(ADC_STA_low_wdth) ) > 10)
		{
			if( sAdcInfo.bSyncDetection== false && abs( sAdcInfo.ucRegLowWidth - ADC_Read(ADC_STA_low_wdth) ) > 10)
			{
				if( sAdcInfo.bSyncDetection== false && abs( sAdcInfo.ucRegLowWidth - ADC_Read(ADC_STA_low_wdth) ) > 10)
				{
					printk(KERN_EMERG "[6] Mode change\n");
					printk(KERN_EMERG "sAdcInfo: RegLowWidth=%d ADC_STA_low_wdth=%d\n", sAdcInfo.ucRegLowWidth, ADC_Read(ADC_STA_low_wdth));
					printk(KERN_EMERG "sAdcInfo: RegLineWidth=%d ADC_STA_line_wdth=%d\n", sAdcInfo.ucRegLineWidth, ADC_Read(ADC_STA_line_wdth));

					ucAction = 1;
					break;
				}
			}
		}

		usVIPHttl = *((volatile UINT16*)(0xbe1cf010));
		usVIPVcnt = *((volatile UINT16*)(0xbe1cf014));

		if( sAdcInfo.ucSource != Adc_kSourceVGA )
		{
			if(abs(sAdcInfo.usHcount - usVIPHttl) > sAdcInfo.usHcountModeChange ||
				abs(sAdcInfo.usVcount - usVIPVcnt) > sAdcInfo.usVcountModeChange)
			{
				printk(KERN_EMERG "[7] Mode change\n");
				printk(KERN_EMERG "sAdcInfo: Hcount=%d Vcount=%d\n", sAdcInfo.usHcount, sAdcInfo.usVcount);
				printk(KERN_EMERG "VIPHttl=%d VIPVcnt=%d\n", usVIPHttl, usVIPVcnt);
				ucAction = 1;
			}
		}
	}
	else if( (usStatus & 0x4000) == 0x4000)
	{
		if( sAdcInfo.ucSource !=Adc_kSourceVGA )
			ucAction = 2;

		if( sAdcInfo.bSyncDetection==FALSE && sAdcInfo.ucInputMode != UNSUPPORT_MODE)
			ADC_ScreenMode(BlackScreen);

		printk(KERN_EMERG "Hsync Miss\n");
	}

	break;
}

	printk(KERN_EMERG "CurSta=%x\n", ucCurState);
	printk(KERN_EMERG "STAInt=%x\n", usStatus);
    printk(KERN_EMERG "Action = <0x%x>\n", ucAction);

 	switch(ucAction)
	{
		case 0:
			sAdcInfo.bSyncDetection=TRUE;
			queue_delayed_work(pADC_WQSyncDetection, &ADCSyncDetectionThread, 0);
			break;

		case 1:
			ADC_SyncDetectCreate();
			break;

		case 2:
			queue_delayed_work(pADC_WQInterruptProcess, &ADCInterruptProcessThread, 0);
			ADC_Interrupt(ENABLE, 0x000d);
			sAdcInfo.ucInterruptEvent = CheckSogWidth;
			if( sAdcInfo.bSyncDetection==FALSE )
				ADC_ScreenMode(BlackScreen);
			if( sAdcInfo.bInterruptHappen==TRUE )
				sAdcInfo.bInterruptHappenAgain = TRUE;
			sAdcInfo.bInterruptHappen = TRUE;
			return;

		case 5:
			queue_delayed_work(pADC_WQInterruptProcess, &ADCInterruptProcessThread, 0);
			ADC_Interrupt(ENABLE, 0x000d);
			sAdcInfo.ucInterruptEvent = CheckSyncStable;
			sAdcInfo.bInterruptHappen = TRUE;
		 	return;

		case 0xff:
			break;
	}
}

static irqreturn_t ADC_Isr(INT32 irq, void* dev_id, struct pt_regs *regs)
{
	ADC_InterruptHandler();
	return IRQ_HANDLED;
}

static struct irqaction adc_irqaction = {
	.handler = (void*)&ADC_Isr,
	.flags = 0,//SA_INTERRUPT,
	.name = "adc",
};

static void ADC_Dispatch(struct pt_regs *regs)
{
	do_IRQ(ADC_SYNC_IRQ);//,regs);
}

static irqreturn_t ADC_VGA_WakeupIsr(INT32 irq, void* dev_id, struct pt_regs *regs)
{
	static UINT8 debounce = 0;
	static BOOL VGAPlugStatus = FALSE;
	
	//printk("\n >>>>  VGA Wake up !!! (%d) ===> 0x703 = 0x%x , 0x70f = 0x%x  ####\n", VGAPlugStatus, *((volatile UINT8*)0xbe0f0703), *((volatile UINT8*)0xbe0f070f) );
	if( !VGAPlugStatus )
	{
		if( (sAdcInfo.bFactoryMode||(debounce > 1) ) && 
			((*((volatile UINT8*)0xbe0f070f)) & 1) )
		{
			VGAPlugStatus = TRUE;
			printk("\n   << VGA >> Notice Plug in\n\n");
			noticekmf(KMF2UMF_EVID_ADC, KMF2UMF_EVTYPE_ADC_VGAPLUGIN, &VGAPlugStatus, sizeof(BOOL));
			// Clear interrupt status => byte 0xbe0f0703 0xe0
			*((volatile UINT8*)0xbe0f0703) = 0xe0;
			// Disable connect event interrupt
			*((volatile UINT8*)0xbe0f0703) = 0x00;
			// Enable disconnect event interrupt
			*((volatile UINT8*)0xbe0f070f) = 0xd0;
			debounce = 0;
		}
		else
		{	// Clear interrupt status and enable connect event for debounce confirm
			debounce++;
			*((volatile UINT8*)0xbe0f0703) = 0xe0;
			*((volatile UINT8*)0xbe0f070f) = 0x30;
		}
	}
	else
	{
		if( (sAdcInfo.bFactoryMode||(debounce > 1) ) && 
			((*((volatile UINT8*)0xbe0f070f)) & 1) )
		{
			VGAPlugStatus = FALSE;
			printk("\n   << VGA >> Notice Plug out\n\n");
			noticekmf(KMF2UMF_EVID_ADC, KMF2UMF_EVTYPE_ADC_VGAPLUGIN, &VGAPlugStatus, sizeof(BOOL));
			// Clear interrupt status => byte 0xbe0f070f 0xf0
			*((volatile UINT8*)0xbe0f070f) = 0xf0;
			// Disable disconnect event interrupt
			*((volatile UINT8*)0xbe0f070f) = 0x10;
			// Enable connect event interrupt
			*((volatile UINT8*)0xbe0f0703) = 0xc0;		
			debounce = 0; 
		}
		else
		{
			// Clear interrupt status and enable disconnect event for debounce confirm
			debounce++;
			*((volatile UINT8*)0xbe0f070f) = 0xf0;
			*((volatile UINT8*)0xbe0f0703) = 0x20;
		}
	}

	//printk("\n <<<<  VGA Wake up !!! (%d) ===> 0x703 = 0x%x , 0x70f = 0x%x  ####\n", VGAPlugStatus, *((volatile UINT8*)0xbe0f0703), *((volatile UINT8*)0xbe0f070f) );
	return IRQ_HANDLED;
}

static struct irqaction adc_vga_irqaction = {
	.handler = (void*)&ADC_VGA_WakeupIsr,
	.flags = 0,//SA_INTERRUPT,
	.name = "VGA_Wakeup",
};

static void ADC_VGA_Plug(struct pt_regs *regs)
{
	do_IRQ(ADC_VGA_WAKEUP_IRQ);//,regs);
}

void ADC_Standby(void)
{
	sAdcInfo.bFactoryMode = TRUE;
	// For easier wake up during standby state, decrease VGA-WAKEUP Bottom Range Number 
	*((volatile UINT8*)0xbe0f0700) = 0x01;
	
	printk("\n   >>>>>>> ADC Standby \n\n\n");
}

void ADC_WakeUp(void)
{
	sAdcInfo.bFactoryMode = FALSE;
	*((volatile UINT8*)0xbe0f0700) = 0x2e;
	printk("\n   >>>>>>> ADC Wake Up \n\n\n");
}

void ADC_ResetADI_Unlock(void)
{
	//ADC_DebugMsg("%s %d\n", __FUNCTION__,__LINE__);

	if(ADC_DetectTiming.ucVFrequency == 0)
		return;

	VIP_ResetADIEnable();
}

void ADC_SystemChipID(void)
{
	sAdcInfo.ulChipID = ((*((UINT32 *)0xbe000000)&0xffff0000)>>8) | *((UINT8 *)0xbe000005);
	ADC_DebugMsg("Chip ID=%x \n", sAdcInfo.ulChipID);
}

UINT8 DRV_ADC_DgSourceStatus(void)
{
	//For the component CC 1 line shift issue
	return ADC_Read(ADC_REG_source_sel);
}
EXPORT_SYMBOL(DRV_ADC_DgSourceStatus);

void ADC_OverSample(void)
{
	if (sAdcInfo.ucSource == Adc_kSourceVGA)
	{
		if(g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr ].usHtotal<= 1024 && g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr ].ucPixelClock<42)
			iEnlargeWidthRate = 1;
		else if (((g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr ].usHtotal> 1024)&& (g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr ].usHtotal<= 2048) ) && (g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr ].ucPixelClock<84 ) )
			iEnlargeWidthRate = 1;
		else
			iEnlargeWidthRate = 1;
	}
	else
	{
		if(g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr ].usHtotal<= 1024 && g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr ].ucPixelClock<42)
			iEnlargeWidthRate = 1;
		else if (((g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr ].usHtotal> 1024)&& (g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr ].usHtotal<= 2048) ) && (g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr ].ucPixelClock<84 ) )
			iEnlargeWidthRate = 1;
		else
			iEnlargeWidthRate =1;
	}
}


BOOL ADC_CheckInterlaceMode(void)
{
	ADC_DebugMsg("%s %d\n", __FUNCTION__,__LINE__);

	if ((abs(ADC_DetectTiming.usVcount - 262) <5 ) ||
		(abs(ADC_DetectTiming.usVcount - 312) <5 ) ||
		(abs(ADC_DetectTiming.usVcount - 562) <5 ))
	{
		ADC_DebugMsg( "Advance check Interlace Mode=%d \n", (ADC_DetectTiming.ucFlag & BIT0));
//		ADC_DetectTiming.ucFlag |= 1;

		return ((ADC_DetectTiming.ucFlag & BIT0)? 1:0);
	}
	else if ((abs(ADC_DetectTiming.usVcount - 525) <5 ) ||
		(abs(ADC_DetectTiming.usVcount - 750) <5 )||
		(abs(ADC_DetectTiming.usVcount - 1125) <5 ))
	{
		ADC_DebugMsg( "Advance check Progressive Mode=%d \n", (ADC_DetectTiming.ucFlag & BIT0));
//		ADC_DetectTiming.ucFlag |= 0;

		return ((ADC_DetectTiming.ucFlag & BIT0)? 0:1);
	}
	else if (abs(ADC_DetectTiming.usVcount - 625) <5 )
	{
		ADC_DebugMsg( "1050i@50Hz conflict with 576i@50hz use RegLowWidth=%d \n", sAdcInfo.ucRegLowWidth);

		if (sAdcInfo.ucRegLowWidth < 250 )
			ADC_DetectTiming.ucFlag = 1;
		else
			ADC_DetectTiming.ucFlag = 0;

		return TRUE;
	}
	else
		return FALSE;
}

#if LINUX_VERSION_CODE >= KERNEL_VERSION(3,0,8)
LONG adc_ioctl(struct file *file,UINT32 cmd,ULONG arg)
#else
ssize_t adc_ioctl(struct inode *inode,struct file *file,UINT32 cmd,ULONG arg)
#endif
{
	adc_ioctl_data parameter;
	UINT8 ucColor, value = 0;
	UINT16 usData[MaxColor];

	#if LINUX_VERSION_CODE >= KERNEL_VERSION(3,0,8)
	down (&adc_ioctl_semaphore);
	#endif

	switch(cmd)
	{
		case ADC_IOCTL0:
			//Get data from user space
			//copy_from_user(&parameter,(void*)arg,sizeof(adc_ioctl_data));

			//Do something ...
			//printk("Get data from user application : 0x%08x\n",parameter.data);//example
			//printk(KERN_EMERG"arg=%ld\n",arg);
			//parameter.data&=0xffff0000; //example

			//Write data into user space
			//copy_to_user((void*)arg,&parameter,sizeof(adc_ioctl_data));
			break;

		case ADC_IOCTL1:
			break;

		case ADC_CHANGE_FLOW:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			printk(KERN_EMERG"Auto flow=%d\n", parameter.bChangeFlow);
			printk(KERN_EMERG"Timing=%d\n", parameter.ucMatchTablePtr);

			if(sAdcInfo.ucSource == Adc_kSourceVGA)
			{
				if(parameter.ucMatchTablePtr < g_stADCTimingTbl.VgaVideoTimingTblSize)
				{
					gAdcAp.bAutoFlow = parameter.bChangeFlow;
					gAdcAp.ucMatchTable = parameter.ucMatchTablePtr;
					ADC_SyncDetectCreate();
				}
			}
			else
			{
				if(parameter.ucMatchTablePtr < g_stADCTimingTbl.YppVideoTimingTblSize)
				{
					gAdcAp.bAutoFlow = parameter.bChangeFlow;
					gAdcAp.ucMatchTable = parameter.ucMatchTablePtr;
					ADC_SyncDetectCreate();
				}
			}
			break;

		case ADC_AUTO_GAIN:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			printk(KERN_EMERG "Auto Gain\n");

			for(ucColor = RED; ucColor<MaxColor; ucColor++)
				gAdcAp.ulTargetValue[ucColor] = parameter.ulTargetValue[ucColor];
			gAdcAp.ulApPosition = parameter.ulPosition;

			gAdcAp.bApUse = TRUE;
			sAdcInfo.bSyncDetection = TRUE;
			ADC_SearchGain(FALSE);
			sAdcInfo.bSyncDetection = FALSE;
			gAdcAp.bApUse = FALSE;

			break;

		case ADC_AUTO_OFFSET:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			printk(KERN_EMERG "Auto Offset\n");

			//enable the auto offset function of 9565 ADC Component mode
			if(sAdcInfo.ucSource == Adc_kSourceCOMP1 || sAdcInfo.ucSource == Adc_kSourceCOMP2 || sAdcInfo.ucSource == Adc_kSourceCOMP3)
				ADC_Write(ADC_REG_auto_ofsen, 0);

			for(ucColor = RED; ucColor<MaxColor; ucColor++)
				gAdcAp.ulTargetValue[ucColor] = parameter.ulTargetValue[ucColor];
			gAdcAp.ulApPosition = parameter.ulPosition;

			gAdcAp.bApUse = TRUE;
			sAdcInfo.bSyncDetection = TRUE;
			ADC_SearchDigitalOffset();
			sAdcInfo.bSyncDetection = FALSE;
			gAdcAp.bApUse = FALSE;

			break;

		case ADC_AUTO_WHITE_BALANCE:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			printk(KERN_EMERG "Auto White Balance\n");

			sAdcInfo.bSyncDetection = TRUE;
			ADC_AutoColorCalibration();
			sAdcInfo.bSyncDetection = FALSE;
			break;

		case ADC_AUTO_PHASE:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			printk(KERN_EMERG "Auto Phase\n");
			printk(KERN_EMERG "Phase =%d,  Times=%d,  Data=%d \n", parameter.ucPhase, parameter.ulTimes, parameter.ulData);

			gAdcAp.bApUse = TRUE;
			gAdcAp.ucPhase = parameter.ucPhase;
			gAdcAp.ulTimes = parameter.ulTimes;
			gAdcAp.ulData = parameter.ulData;
			sAdcInfo.ucUserPhase = ADC_FullPhaseDetected();
			gAdcAp.bApUse = FALSE;
			break;

		case ADC_NEW_AUTO_PHASE:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			printk(KERN_EMERG "New Auto Phase\n");
			printk(KERN_EMERG "Phase =%d,  Times=%d,  Data=%d \n", parameter.ucPhase, parameter.ulTimes, parameter.ulData);

			gAdcAp.bApUse = TRUE;
			gAdcAp.ucPhase = parameter.ucPhase;
			gAdcAp.ulTimes = parameter.ulTimes;
			gAdcAp.ulData = parameter.ulData;
			bAutoAdjust = TRUE;
			sAdcInfo.ucUserPhase = ADC_PhaseDetected();
			bAutoAdjust = FALSE;
			gAdcAp.bApUse = FALSE;

			break;
		case ADC_SET_GAIN:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			printk(KERN_EMERG "Set Gain\n");
			printk(KERN_EMERG "Color=%d, Data=%d\n", parameter.ucColor, parameter.ulData);

			if(parameter.ucColor<3 && parameter.ulData<512)
				ADC_SetGainDirdect(parameter.ucColor, parameter.ulData);
			else
				printk(KERN_EMERG "Error!!Data is too large\n");
			break;

		case ADC_SET_OFFSET:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			printk(KERN_EMERG "Set Offset\n");
			printk(KERN_EMERG "Color=%d, Data=%d\n", parameter.ucColor, parameter.ulData);

			if(parameter.ucColor<3 && parameter.ulData<512)
				DRV_ADC_SetOffset(parameter.ucColor, parameter.ulData);
			else
				printk(KERN_EMERG "Error!!Data is too large\n");
			break;

		case ADC_GET_GAIN:
			printk(KERN_EMERG "Get Gain\n");

			for(ucColor=RED; ucColor<MaxColor; ucColor++)
				usData[ucColor] = ADC_GetGain(ucColor);

			printk(KERN_EMERG "[R] %d  [G] %d  [B] %d\n", usData[RED], usData[GREEN], usData[BLUE]);
			break;

		case ADC_GET_OFFSET:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			printk(KERN_EMERG "Get Offset\n");

			if(ADC_Read(ADC_REG_dofst_r) == 1)
				usData[RED]=(INT16)(ADC_GetOffset(RED) + 255);
			else
				usData[RED]=(INT16)(abs(ADC_GetOffset(RED) - 255));

			if(ADC_Read(ADC_REG_dofst_g) == 1)
				usData[GREEN]=(INT16)(ADC_GetOffset(GREEN) + 255);
			else
				usData[GREEN]=(INT16)(abs(ADC_GetOffset(GREEN) - 255));

			if(ADC_Read(ADC_REG_dofst_b) == 1)
				usData[BLUE]=(INT16)(ADC_GetOffset(BLUE) + 255);
			else
				usData[BLUE]=(INT16)(abs(ADC_GetOffset(BLUE) - 255));

			printk(KERN_EMERG "[R] %d  [G] %d  [B] %d\n", usData[RED], usData[GREEN], usData[BLUE]);
			break;

		case ADC_SET_PHASE:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			printk(KERN_EMERG "Set Phase: %d \n", parameter.ucPhase);

			if(parameter.ucPhase < 32)
				ADC_SetPhaseDirdect(parameter.ucPhase);
			else
				printk(KERN_EMERG "Error! Wrong phase=%d\n", parameter.ucPhase);
			break;

		case ADC_DBG:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			if(gAdcAp.bDisableInterrupt)
			{
				gAdcAp.bDisableInterrupt = FALSE;
				if(sAdcInfo.bSyncDetection==FALSE && sAdcInfo.ucInputMode == NOSIGNAL_MODE)
				{
					if(sAdcInfo.ucSource == Adc_kSourceVGA)
					{
						ADCTimerInfo[TimerVsyncloss][1] = 0;
						ADC_Interrupt(ENABLE, 0x2000);
					}
					else
					{
						ADC_Interrupt(ENABLE, 0x02);
						ADCTimerInfo[TimerSignaloff][1] = 1;
					}
				}
				else
				{
					if(sAdcInfo.ucSource == Adc_kSourceVGA)
					{
						ADCTimerInfo[TimerVsyncloss][1] = 1;
						ADC_Interrupt(ENABLE, 0x7030);
					}
					else
						ADC_Interrupt(ENABLE, 0x478f);
				}
			}
			else
			{
				ADC_Interrupt(DISABLE, 0);
				gAdcAp.bDisableInterrupt = TRUE;
				if(sAdcInfo.ucSource != Adc_kSourceVGA)
					ADCTimerInfo[TimerSignaloff][1] = 0;
			}
			printk(KERN_EMERG "Debug: %d\n", gAdcAp.bDisableInterrupt);
			break;

		case ADC_DISABLE_VIP_PROCESS:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			if(gAdcAp.bDisableInterrupt)
			{
				gAdcAp.bDisableInterrupt = FALSE;
				*((volatile UINT8*)0xbe1c6190) = 1;
				printk(KERN_EMERG "VDI bypass on (NR off)\n");
			}
			else
			{
				gAdcAp.bDisableInterrupt = TRUE;
				*((volatile UINT8*)0xbe1c6190) = 0;
				printk(KERN_EMERG "VDI bypass off (NR on)\n");
			}

			break;
		case ADC_CENTER:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));

			printk(KERN_EMERG "Do Centering\n");
			ADC_Centering(1);
			ADC_InfoSet(VIP_HPOS, 0);
			ADC_InfoSet(VIP_VPOS, 0);
			noticekmf(KMF2UMF_EVID_AUDIO, KMF2UMF_EVTYPE_AUDIO_HEADPHONE, &value, 1);
			break;
		case ADC_SET_CLOCK:
			copy_from_user(&parameter,(pAdc_ioctl_data)arg,sizeof(adc_ioctl_data));
			printk(KERN_EMERG "Set Clock\n");

			if (parameter.ulClock == 0)
			{
				if(sAdcInfo.ucSource == Adc_kSourceVGA)
					printk(KERN_EMERG "Init Htotal is %d\n", g_stADCTimingTbl.pVgaVideoTimingTable[sAdcInfo.ucMatchTablePtr].usHtotal);
				else
					printk(KERN_EMERG "Init Htotal is %d\n", g_stADCTimingTbl.pYppVideoTimingTable[sAdcInfo.ucMatchTablePtr].usHtotal);
			}
			else
			{
				DRV_ADC_SetHTotal(parameter.ulClock);
				printk(KERN_EMERG "current Htotal is %d\n", parameter.ulClock);
			}
			break;
	}

	#if LINUX_VERSION_CODE >= KERNEL_VERSION(3,0,8)
	up(&adc_ioctl_semaphore);
	#endif

	return 0;
}

struct file_operations adc_fops = {
#if LINUX_VERSION_CODE >= KERNEL_VERSION(3,0,8)
	.unlocked_ioctl = adc_ioctl,
#else
	.ioctl = adc_ioctl,
#endif
	.owner = THIS_MODULE,
};

INT32  __init DRV_ADC_Linuxinit(void)
{
	INT32 err,devno;
	UINT32 CPLL_MClk = 0;  
	UINT32 ratio = 0;

	printk(KERN_EMERG"%s: \n",__FUNCTION__);

	ADC_SystemChipID();
	DRV_ADC_power(ENABLE);

	devno=MKDEV(ADC_DEV_MAJOR,0);

	cdev_adc = cdev_alloc();
	cdev_adc->owner = THIS_MODULE;
	cdev_adc->ops = &adc_fops;
	err = cdev_add (cdev_adc,devno,1);

	set_vi_handler(ADC_SYNC_IRQ,(void*)&ADC_Dispatch);
	setup_irq(ADC_SYNC_IRQ,&adc_irqaction);

	set_vi_handler(ADC_VGA_WAKEUP_IRQ, (void*)&ADC_VGA_Plug);
	setup_irq(ADC_VGA_WAKEUP_IRQ,&adc_vga_irqaction);
	// Enable VGA-WAKEUP Function & Interrupt
	*((volatile UINT8*)0xbe0f0703) = 0xc0;
	// Setup Top Range Number for VGA WAKEUP event trigering
	*((volatile UINT8*)0xbe0f0701) = 0xff;
	// VGA INTERUPT SELECTION(0x70f[4]) 
	// 1: To detect vsync or hsync / 0: To detect vsync and hsync
	*((volatile UINT8*)0xbe0f070f) = 0x10;	
	
	pADC_WQSyncDetection=create_workqueue("adc");
	flush_workqueue(pADC_WQSyncDetection);
	print_meminfo("Register SyncDetection WorkQueue Done");

	pADC_WQInterruptProcess=create_workqueue("adc_interrupt");
	flush_workqueue(pADC_WQInterruptProcess);
	print_meminfo("Register InterruptProcess WorkQueue Done");

	pADC_WQTunerStrength=create_workqueue("adc_TunerStrength");
	flush_workqueue(pADC_WQTunerStrength);
	print_meminfo("Register TunerStrength WorkQueue Done");

#if LINUX_VERSION_CODE >= KERNEL_VERSION(3,0,8)
	sema_init(&adc_ioctl_semaphore, 1);
#endif
 	if (err)
	    printk(KERN_NOTICE "ADC Init Failed\n");

	// Get 2x CPLL CLK 
	CPLL_MClk= drv_get_device_clock(CPLL_CLK);
    CPLL_MClk = CPLL_MClk/1000;

	// Convert to 1x ratio for 24.576
	ratio = CPLL_MClk / System_CLK / 2 ;
	
	// CPU PLL Divider
	ADC_Write(GLB_REG_A1ECO_CPLL_CEN_COMP, 1);	
	ADC_Write(GLB_REG_A1ECO_CPLL_PTXCLK_DIV, ratio - 1 );	

	printk(KERN_EMERG" ratio = CPLL / 24576. Clock CPLL(%d) , ratio = (PTXCLK_DIV + 1) = %d \n ", CPLL_MClk, ratio);
	
	ADC_Open();

	ADC_Write(GLB_REG_global_reset, 1);
	sAdcInfo.bFirstPowerOn = TRUE;

	DRV_ADC_power(DISABLE);

	printk(KERN_EMERG"%s: return\n",__FUNCTION__);

	return 0;
}

INT32 adc_AdjustFunction(UINT8 ucFunID, INT32 iValue)
{
	//ptv_base_t ptv = getptvdev();
	INT32 retval = 0;
	UINT8 value = 0;

	switch(ucFunID)
	{
		case ADC_CMD_AUTOADJUST:
#ifdef CONFIG_AutoAdjust_BlackScreen
			ADC_ScreenMode(BlackScreen);
#endif

			bAutoAdjust = TRUE;
			bCheckVIPHttl = FALSE;
			DRV_ADC_SetHTotal(ADC_InputVesaTiming.usHtotal); //richie add, Before do Autotune, need reset Adc Pll clock to default value, or PC Autotune is sometimes wrong
#ifdef CONFIG_SUPPORT_ACTION_SHOW_BLUE_SCREEN_EXCEPT_MEDIA
			{
				VIP_Mute_Flag_st stStauts;
				VIP_GetMuteStatus(&stStauts);
				if (stStauts.fTVFEMuteFlag == FALSE && stStauts.fAppMuteFlag == FALSE && stStauts.fVIPMuteFlag == FALSE)
				{
					VIP_SetVideoMuteColor(0,0,0);
				}
			}
#endif
			ADC_DoAuto(NULLOP, iValue, 2); //YPP & PC source will do centering by 2 in factory mode
			noticekmf(KMF2UMF_EVID_ADC, KMF2UMF_EVTYPE_ADC_PCSETUPDATE, &value, 1);
			bCheckVIPHttl = TRUE;
			bAutoAdjust = FALSE;

#ifdef CONFIG_AutoAdjust_BlackScreen
		ADC_ScreenMode(NormalScreen);
#endif
			break;
		case ADC_CMD_PHASE:
			DRV_ADC_SetPhase(iValue);
			break;
		case ADC_CMD_GAIN_R:
			DRV_ADC_SetGain(RED,iValue);
			break;
		case ADC_CMD_GAIN_G:
			DRV_ADC_SetGain(GREEN,iValue);
			break;
		case ADC_CMD_GAIN_B:
			DRV_ADC_SetGain(BLUE,iValue);
			break;
		case ADC_CMD_OFFSET_R:
			DRV_ADC_SetOffset(RED,iValue);
			break;
		case ADC_CMD_OFFSET_G:
			DRV_ADC_SetOffset(GREEN,iValue);
			break;
		case ADC_CMD_OFFSET_B:
			DRV_ADC_SetOffset(BLUE,iValue);
			break;
		case ADC_CMD_WHITEBALANCE:
			bAutoWB = TRUE;
			FactoryModeAWB = TRUE;
			ADC_AutoColorCalibration();
			FactoryModeAWB = FALSE;
			bAutoWB = FALSE;
			break;
#ifdef CONFIG_DDC_CI_SUPPORT
		case ADC_CMD_DDCCI_OSD_PHASE:
			sAdcInfo.DDCCI_OSDPhase = iValue;
			break;
		case ADC_CMD_DDCCI_OSD_CLOCK:
			sAdcInfo.DDCCI_OSDClock = iValue;
			break;
#endif
		default:
			//KMFDBG(0,"kmf_ioctl_adjustADC: Error occur %d\n", ucFunID);
			retval = -EFAULT;
			break;
	}
	return retval;
}

void  __exit DRV_ADC_Linuxexit(void)
{
	ADC_Close();
	destroy_workqueue(pADC_WQSyncDetection);
	destroy_workqueue(pADC_WQInterruptProcess);
	destroy_workqueue(pADC_WQTunerStrength);

	cdev_del(cdev_adc);
	free_irq(ADC_SYNC_IRQ, NULL);
}

void ADC_GetVideoTimingTable(void)
{
	GetCustomerData("YppModeTable", (void *)&g_stADCTimingTbl.pYppVideoTimingTable, &g_stADCTimingTbl.YppVideoTimingTblSize);
	GetCustomerData("VgaModeTable", (void *)&g_stADCTimingTbl.pVgaVideoTimingTable, &g_stADCTimingTbl.VgaVideoTimingTblSize);

	//Calc Table Size
	g_stADCTimingTbl.YppVideoTimingTblSize = g_stADCTimingTbl.YppVideoTimingTblSize/sizeof(VesaTiming);
	g_stADCTimingTbl.VgaVideoTimingTblSize = g_stADCTimingTbl.VgaVideoTimingTblSize/sizeof(VesaTiming);
}

void DRV_ADC_SetAdcPinConfig(UINT32 itype, InputVideoConf_st InputSrcPin)
{
	ADC_DebugMsg("%s: \n",__FUNCTION__);

	switch (itype)
	{
		case INPUT_TYPE_AV:
			ADC_DebugMsg("AV soruce: (%d)\n", InputSrcPin.cvbs.pin);
			adc_InputSrcPin.cvbs.pin =InputSrcPin.cvbs.pin;
			break;
		case INPUT_TYPE_SV:
			ADC_DebugMsg("SV soruce: (%d, %d)\n", InputSrcPin.svideo.y_pin, InputSrcPin.svideo.c_pin);
			adc_InputSrcPin.svideo.y_pin = InputSrcPin.svideo.y_pin;
			adc_InputSrcPin.svideo.c_pin = InputSrcPin.svideo.c_pin;
			break;
		case INPUT_TYPE_COMPONENT:
			ADC_DebugMsg("YPP soruce: (%d, %d, %d, %d)\n", InputSrcPin.ypbpr.y_pin, InputSrcPin.ypbpr.pb_pin, InputSrcPin.ypbpr.pr_pin, InputSrcPin.ypbpr.soy_pin);
			adc_InputSrcPin.ypbpr.y_pin = InputSrcPin.ypbpr.y_pin;
			break;
		case INPUT_TYPE_PC:
			ADC_DebugMsg("PC soruce: (%d, %d, %d)\n", InputSrcPin.rgb.r_pin, InputSrcPin.rgb.g_pin, InputSrcPin.rgb.b_pin);
			adc_InputSrcPin.rgb.r_pin = InputSrcPin.rgb.r_pin;
			adc_InputSrcPin.rgb.g_pin = InputSrcPin.rgb.g_pin;
			adc_InputSrcPin.rgb.b_pin = InputSrcPin.rgb.b_pin;
		default:
			break;
	}
}
EXPORT_SYMBOL(DRV_ADC_SetAdcPinConfig);

#ifndef INIT_BY_KMF
module_init(DRV_ADC_Linuxinit);
module_exit(DRV_ADC_Linuxexit);
#endif

EXPORT_SYMBOL(DRV_ADC_Linuxinit);
EXPORT_SYMBOL(DRV_ADC_Linuxexit);
MODULE_LICENSE("ADC Driver 07.01.2009");