// Copyright (c) 1995-2009 Nokia Corporation and/or its subsidiary(-ies).

// All rights reserved.

// This component and the accompanying materials are made available

// under the terms of the License "Eclipse Public License v1.0"

// which accompanies this distribution, and is available

// at the URL "http://www.eclipse.org/legal/epl-v10.html".

//

// Initial Contributors:

// Nokia Corporation - initial contribution.

//

// Contributors:

//

// Description:

// e32test\iic\t_iic.h

//

#ifndef __T_IIC_H__

#define __T_IIC_H__

#include <e32ver.h>

const TInt KIicClientMajorVersionNumber = 1;

const TInt KIicClientMinorVersionNumber = 0;

const TInt KIicClientBuildVersionNumber = KE32BuildVersionNumber;

const TInt KPriorityTestNum = 6; // 1 blocking transaction + 5 test transactions

// For IIC,

// If bit 31 is set and bit 30 cleared it is used to extend the Master-Slave channel;

// if bit 31 is cleared and bit 30 is set, it extends the Master channel; 

// if both bits 31 and 30 are cleared it extends the Slave channel interface.

// However,

// since the kernel-side proxy clients interpret the msb being set as indicative of an

// asynchronous request, the values here will have the static extension pattern represented

// in bits 30 and 29, instead. In addition, to support communication with the slave-side proxy,

// the Slave extension value will be represented as bits 30 and 29 set, so that it can be distinguished

// from 'normal' synchronous operations.

//

const TUint KTestControlIoMask =			0x60000000;

const TUint KTestMasterControlIo =		0x20000000;

const TUint KTestSlaveControlIo =		0x60000000;

const TUint KTestMasterSlaveControlIo =	0x40000000;

const TUint KTestControlIoPilOffset =	0x00000002;	// Corresponds to 1 higher than the number used by PIL

const TUint KTestControlUnitTestOffset = 0x10000000;

//

// Enumerations TReqType and TBusType defined in kernel-side class TIicBusTransfer

// The user-side test, and the kernel-side proxy client require access to this

enum TReqType

	{

	EMasterRead,

	EMasterWrite

	};

enum TBusType

	{

	EI2c	   = 0,

	ESpi	   = 0x01,

	EMicrowire = 0x02,

	ECci	   = 0x03,

	ESccb	   = 0x04,

	EInvalidBus

	};

#define MAX_TRANS_LENGTH 20	

#ifndef __KERNEL_MODE__

//

//	For convenience, selected kernel-side information is replicated here

//  to allow the user-side test to populate buffers accordingly

//

// Bus-specific configuration

//

enum TEndianness

	{

	EBigEndian,

	ELittleEndian

	};

enum TBitOrder

	{

	ELsbFirst,

	EMsbFirst

	};

//

// Bus-specific configuration for SPI bus

//

enum TSpiWordWidth

	{

	ESpiWordWidth_8,

	ESpiWordWidth_10,

	ESpiWordWidth_12,

	ESpiWordWidth_16

	};

enum TSpiClkMode

	{

	ESpiPolarityLowRisingEdge,		// Active high, odd edges

	ESpiPolarityLowFallingEdge,		// Active high, even edges

	ESpiPolarityHighFallingEdge,	// Active low,  odd edges

	ESpiPolarityHighRisingEdge		// Active low,  even edges

	};

enum TSpiSsPinMode

    {

    ESpiCSPinActiveLow,      // Active low

    ESpiCSPinActiveHigh     // Active high

    };

class TConfigSpiV01

	{

public:

	TSpiWordWidth	iWordWidth;

	TInt32			iClkSpeedHz;

	TSpiClkMode		iClkMode;

	TInt32			iTimeoutPeriod;

	TEndianness		iEndianness;

	TBitOrder		iBitOrder;

	TUint			iTransactionWaitCycles;

	TSpiSsPinMode	iSSPinActiveMode;

	};

typedef TPckgBuf <TConfigSpiV01> TConfigSpiBufV01;

//

// Bus-specific configuration for I2C bus

//

enum TI2cAddrType

	{

	EI2cAddr7Bit,

	EI2cAddr10Bit

	};

class TConfigI2cV01

	{

	public:

	TI2cAddrType	iAddrType;		// 7 or 10-bit addressing

	TInt32			iClkSpeedHz;

	TEndianness		iEndianness;

	TInt32			iTimeoutPeriod;

	};

typedef TPckgBuf <TConfigI2cV01> TConfigI2cBufV01;

inline static TInt CreateSpiBuf(TConfigSpiBufV01*& aBuf,

								TSpiWordWidth	aWordWidth,

								TInt32			aClkSpeedHz,

								TSpiClkMode		aClkMode,

								TInt32			aTimeoutPeriod,

								TEndianness		aEndianness,

								TBitOrder		aBitOrder,

								TUint			aTransactionWaitCycles,

								TSpiSsPinMode	aSSPinActiveMode)

// Utility function to create a buffer for the SPI bus

	{

	aBuf = new TConfigSpiBufV01();

	if(aBuf==NULL)

		return KErrNoMemory;

	TConfigSpiV01 *buf = &((*aBuf)());

	buf->iWordWidth = aWordWidth;

	buf->iClkSpeedHz = aClkSpeedHz;

	buf->iClkMode = aClkMode;

	buf->iTimeoutPeriod = aTimeoutPeriod;

	buf->iEndianness = aEndianness;

	buf->iBitOrder = aBitOrder;

	buf->iTransactionWaitCycles = aTransactionWaitCycles;

	buf->iSSPinActiveMode = aSSPinActiveMode;

	return KErrNone;

	}

inline static TInt CreateI2cBuf(TConfigI2cBufV01*& aBuf,

								TI2cAddrType	aAddrType,

								TInt32			aClkSpeedHz,

								TEndianness		aEndianness,

								TInt32			aTimeoutPeriod)

// Utility function to create a buffer for the I2C bus

	{

	aBuf = new TConfigI2cBufV01();

	if(aBuf==NULL)

		return KErrNoMemory;

	TConfigI2cV01 *buf = &((*aBuf)());

	buf->iAddrType = aAddrType;

	buf->iClkSpeedHz = aClkSpeedHz;

	buf->iEndianness = aEndianness;

	buf->iTimeoutPeriod = aTimeoutPeriod;

	return KErrNone;

	}

//

// Enumerations for channel type and channel duplex defined in kernel-side class DIicBusChannel

// duplicated for temporary test

enum TChannelType

	{

	EMaster			= 0,

	ESlave			= 0x01,

	EMasterSlave	= 0x02,

	EInvalidType

	};

enum TChannelDuplex

	{

	EHalfDuplex = 0,	// supports only half duplex transactions (even if bus spec supports full duplex)

	EFullDuplex = 0x1,	// supports full duplex transactions (queud transactions may still be half duplex)

	EInvalidDuplex

	};

//

// Bus realisation configuration

//

// 31 30 29 28 | 27 26 25 24 | 23 22 21 20 | 19 18 17 16 | 15 14 13 12 | 11 10  9  8 |  7  6  5  4 |  3  2  1  0

//

// 31:29 - HS Master address (I2C only)

// 28    - HS address valid bit

// 27:23 - Reserved

// 22:20 - Bus type

// 19:15 - Channel number

//  9:0  - Slave address

#define HS_MASTER_ADDR_SHIFT 29

#define HS_MASTER_ADDR_MASK 0x7

#define HS_ADDR_VALID_SHIFT 28

#define HS_ADDR_VALID_MASK 0x1

#define BUS_TYPE_SHIFT 20

#define BUS_TYPE_MASK 0x7

#define CHANNEL_NO_SHIFT 15

#define CHANNEL_NO_MASK 0x1F

#define SLAVE_ADDR_SHIFT 0

#define SLAVE_ADDR_MASK 0x3FF

//

// Macros to access fields within Bus Realisation Configuration data, used on a per-transaction basis with IIC

#define SET_CONFIG_FIELD(aBusId,aField,aMask,aShift) aBusId=(aBusId&~(aMask<<aShift))|((aField&aMask)<<aShift);

#define GET_CONFIG_FIELD(aBusId,aMask,aShift) (((aBusId)>>(aShift))&(aMask))

#define GET_HS_MASTER_ADDR(aBusId) GET_CONFIG_FIELD(aBusId,HS_MASTER_ADDR_MASK,HS_MASTER_ADDR_SHIFT)

#define SET_HS_MASTER_ADDR(aBusId,aHsMasterAddr) SET_CONFIG_FIELD(aBusId,aHsMasterAddr,HS_MASTER_ADDR_MASK,HS_MASTER_ADDR_SHIFT)

#define GET_HS_VALID(aBusId) GET_CONFIG_FIELD(aBusId,HS_ADDR_VALID_MASK,HS_ADDR_VALID_SHIFT)

#define SET_HS_VALID(aBusId,aHsValid) SET_CONFIG_FIELD(aBusId,aHsValid,HS_ADDR_VALID_MASK,HS_ADDR_VALID_SHIFT)

#define GET_BUS_TYPE(aBusId) GET_CONFIG_FIELD(aBusId,BUS_TYPE_MASK,BUS_TYPE_SHIFT)

#define SET_BUS_TYPE(aBusId,aBusType) SET_CONFIG_FIELD(aBusId,aBusType,BUS_TYPE_MASK,BUS_TYPE_SHIFT)

#define GET_CHAN_NUM(aBusId) GET_CONFIG_FIELD(aBusId,CHANNEL_NO_MASK,CHANNEL_NO_SHIFT)

#define SET_CHAN_NUM(aBusId,aChanNum) SET_CONFIG_FIELD(aBusId,aChanNum,CHANNEL_NO_MASK,CHANNEL_NO_SHIFT)

#define SET_SLAVE_ADDR(aBusId,aSlaveAddr) SET_CONFIG_FIELD(aBusId,aSlaveAddr,SLAVE_ADDR_MASK,SLAVE_ADDR_SHIFT)

#define GET_SLAVE_ADDR(aBusId) GET_CONFIG_FIELD(aBusId,SLAVE_ADDR_MASK,SLAVE_ADDR_SHIFT)

static const TUint8 KTransactionWithPreamble = 0x80;

static const TUint8 KTransactionWithMultiTransc = 0x40;

enum TIicBusSlaveTrigger

	{

	ERxAllBytes			= 0x01,

	ERxUnderrun			= 0x02,

	ERxOverrun			= 0x04,

	ETxAllBytes			= 0x08,

	ETxUnderrun			= 0x10,

	ETxOverrun			= 0x20,

	EGeneralBusError	= 0x40,

	EAsyncCaptChan		= 0x80

	};

#endif // #ifndef __KERNEL_MODE__

//

// User-Side abbreviation of kernel side classes TIicBusTransfer and TIicBusTransaction

//

struct TUsideTferDesc

	{

	TInt8 iType;			// as one of TReqType

	TInt8 iBufGranularity;	// width of a transfer word in bits

	TDes8* iBuffer;	// the data for this transfer (packed into 8-bit words with padding)

	TUsideTferDesc* iNext;

	};

struct TUsideTracnDesc

	{

	TBusType iType;

	TDes8* iHeader;

	TUsideTferDesc* iHalfDuplexTrans;

	TUsideTferDesc* iFullDuplexTrans;

	TUint8 iFlags;				// used to indicate if it supports a preamble

	TAny* iPreambleArg;			// used for preamble argument

	TAny* iMultiTranscArg;		// used for multi transc argument

	};

class RBusDevIicClient : public RBusLogicalChannel

	{

    public:

	enum TControl

		{

// Master mode operations

		EQTransSync=1,						/**< Queue Transaction (Synchronous version)					*/

// Slave mode operations

		EInitSlaveClient,					/**< Instigate Slave initialisation required to support testing	*/

		ECaptureChanSync,					/**< Capture Channel (Synchronous version)						*/

		EReleaseChan,						/**< ReleaseChannel												*/

		ERegisterRxBuffer,					/**< Register a buffer for receiving data						*/

		ERegisterTxBuffer,					/**< Register a buffer for transmitting data					*/

		ESetNotifTrigger					/**< Set the notification triggers                               */									

		};

	enum TStaticExt

		{

		ECtlIoNone = 0,

		ECtlIoDumpChan = 1, // KCtrlIoDumpChan - defined only for UDEB

// ControlIO codes for Master follow

		ECtlIoBlockReqCompletion=(KTestMasterControlIo+KTestControlIoPilOffset),

		ECtlIoUnblockReqCompletion,

		ECtlIoDeRegChan,

		ECtlIoTracnOne,

		ECtlIoPriorityTest,

		EGetTestResult,

		ECtlIoSetTimeOutFlag,

		ECtlIoTestFullDuplexTrans,

// ControlIO codes for Slave follow

		ECtrlIoRxWords=(KTestSlaveControlIo+KTestControlIoPilOffset),

		ECtrlIoTxWords,

		ECtrlIoRxTxWords,

		ECtrlIoTxChkBuf,

		ECtlIoBusError,

		ECtrlIoBlockNotification,

		ECtrlIoUnblockNotification,

		ECtrlIoUpdTimeout,

		ECtrlIoNotifNoTrigger

		};

	enum TTestFullDuplexTrans

		{

		ETestValidFullDuplexTrans=1,

		ETestInvalidFullDuplexTrans1,

		ETestInvalidFullDuplexTrans2,

		ETestLastNodeFullDuplexTrans,

		ETestDiffNodeNoFullDuplexTrans,

		ETestNone

		};

	enum TRequest

		{

// Master mode operations

		EQTransAsync=1,						/**< Queue Transaction (Asynchronous version)					*/

		ECtrlIoTestBufReUse,

// Slave mode operations

		ECaptureChanAsync,					/**< Capture Channel (Asynchronous version)						*/

		ECtrlIoOvUndRunRxTx

		};

	enum TTestMessages

	    {

	    ETestIicChannelInlineFunc=KTestControlUnitTestOffset    

	    };

#ifndef __KERNEL_MODE__

	public:   

	inline TInt TestIiicChannelInlineFunc(){return DoControl (ETestIicChannelInlineFunc, NULL, NULL);}	

	// Master mode functions

	inline TInt Open(TDesC& aProxyName) {return (DoCreate(aProxyName,TVersion(KIicClientMajorVersionNumber,KIicClientMinorVersionNumber,KIicClientBuildVersionNumber),-1,NULL,NULL,EOwnerThread));}

	inline TInt QueueTransaction(TInt aBusId, TUsideTracnDesc* aTransaction) {return(DoControl(EQTransSync,(TAny*)aBusId,(TAny*)aTransaction));}

	inline void QueueTransaction(TRequestStatus& aStatus, TInt aBusId, TUsideTracnDesc* aTransaction) {DoRequest(EQTransAsync,aStatus,(TAny*)aBusId,(TAny*)aTransaction);}

	inline void CancelAsyncOperation(TRequestStatus* aStatus, TInt aBusId)	{TInt* parms[2]; parms[0]=(TInt*)aStatus; parms[1]=(TInt*)aBusId;DoCancel((TInt)&parms[0]);} 

	// Slave mode functions

	inline TInt InitSlaveClient() {return(DoControl(EInitSlaveClient,NULL,NULL));}

	inline TInt CaptureChannel(TInt aBusId, TDes8* aConfigHdr, TInt& aChannelId) {TInt* parms[2]; parms[0]=(TInt*)aBusId; parms[1]=&aChannelId;return(DoControl(ECaptureChanSync,(TAny*)aConfigHdr,(TAny*)(&parms[0])));}

	inline TInt CaptureChannel(TInt aBusId, TDes8* aConfigHdr, TInt& aChannelId, TRequestStatus& aStatus) {TInt* parms[2]; parms[0]=(TInt*)aBusId; parms[1]=&aChannelId;DoRequest(ECaptureChanAsync,aStatus,(TAny*)aConfigHdr,(TAny*)(&parms[0]));return KErrNone;}

	inline TInt ReleaseChannel(TInt aChannelId){return(DoControl(EReleaseChan,(TAny*)aChannelId,NULL));};

	inline TInt RegisterRxBuffer(TInt aChannelId, TInt8 aBufGranularity, TInt8 aNumWords, TInt8 aOffset){TInt8 parms[3]; parms[0]=aBufGranularity; parms[1]=aNumWords; parms[2]=aOffset;return(DoControl(ERegisterRxBuffer,(TAny*)aChannelId,(TAny*)(&parms[0])));};

	inline TInt RegisterTxBuffer(TInt aChannelId, TInt8 aBufGranularity, TInt8 aNumWords, TInt8 aOffset){TInt8 parms[3]; parms[0]=aBufGranularity; parms[1]=aNumWords; parms[2]=aOffset;return(DoControl(ERegisterTxBuffer,(TAny*)aChannelId,(TAny*)(&parms[0])));};

	// ControlIO functions follow

	inline TInt BlockReqCompletion(TInt aBusId) {return(DoControl(ECtlIoBlockReqCompletion,(TAny*)aBusId));}

	inline TInt UnblockReqCompletion(TInt aBusId) {return(DoControl(ECtlIoUnblockReqCompletion,(TAny*)aBusId));}

	inline TInt DeRegisterChan(TInt aBusId) {return(DoControl(ECtlIoDeRegChan,(TAny*)aBusId));}

	inline TInt TestTracnOne(TInt aBusId) {return(DoControl(ECtlIoTracnOne, (TAny*)aBusId));}

	inline TInt SetTimeOutFlag(TInt aBusId){return(DoControl(ECtlIoSetTimeOutFlag,(TAny*)aBusId));}

	inline TInt CancelTimeOutFlag(TInt aBusId){return(DoControl(ECtlIoNone,(TAny*)aBusId));}

	inline TInt TestPriority(TInt aBusId) {return(DoControl(ECtlIoPriorityTest, (TAny*)aBusId));}

	inline TInt TestValidFullDuplexTrans(TInt aBusId) {return(DoControl(ECtlIoTestFullDuplexTrans, (TAny*)aBusId, (TAny*)ETestValidFullDuplexTrans));}

	inline TInt TestInvalidFullDuplexTrans1(TInt aBusId) {return(DoControl(ECtlIoTestFullDuplexTrans, (TAny*)aBusId, (TAny*)ETestInvalidFullDuplexTrans1));}

	inline TInt TestInvalidFullDuplexTrans2(TInt aBusId) {return(DoControl(ECtlIoTestFullDuplexTrans, (TAny*)aBusId, (TAny*)ETestInvalidFullDuplexTrans2));}

	inline TInt TestLastNodeFullDuplexTrans(TInt aBusId) {return(DoControl(ECtlIoTestFullDuplexTrans, (TAny*)aBusId, (TAny*)ETestLastNodeFullDuplexTrans));}

	inline TInt TestDiffNodeNumFullDuplexTrans(TInt aBusId) {return(DoControl(ECtlIoTestFullDuplexTrans, (TAny*)aBusId, (TAny*)ETestDiffNodeNoFullDuplexTrans));}

	inline void TestBufferReUse(TInt aBusId, TRequestStatus& aStatus) {DoRequest(ECtrlIoTestBufReUse,aStatus,(TAny*)aBusId,NULL);}

	inline TInt SimulateRxNWords(TInt aBusId, TInt aChannelId, TInt aNumWords){TInt parms[2]; parms[0]=aChannelId; parms[1]=aNumWords;return(DoControl(ECtrlIoRxWords,(TAny*)aBusId,(TAny*)(&parms[0])));};

	inline TInt SimulateTxNWords(TInt aBusId, TInt aChannelId, TInt aNumWords){TInt parms[2]; parms[0]=aChannelId; parms[1]=aNumWords;return(DoControl(ECtrlIoTxWords,(TAny*)aBusId,(TAny*)(&parms[0])));};

	inline TInt SimulateRxTxNWords(TInt aBusId, TInt aChannelId, TInt aNumRxWords, TInt aNumTxWords){TInt parms[3]; parms[0]=aChannelId; parms[1]=aNumRxWords; parms[2]=aNumTxWords;return(DoControl(ECtrlIoRxTxWords,(TAny*)aBusId,(TAny*)(&parms[0])));};

	inline TInt SimulateBusErr(TInt aBusId, TInt aChannelId) {return(DoControl(ECtlIoBusError,(TAny*)aBusId,(TAny*)aChannelId));}

	inline TInt BlockNotification(TInt aBusId, TInt aChannelId) {return(DoControl(ECtrlIoBlockNotification,(TAny*)aBusId,(TAny*)aChannelId));}

	inline TInt UnblockNotification(TInt aBusId, TInt aChannelId) {return(DoControl(ECtrlIoUnblockNotification,(TAny*)aBusId,(TAny*)aChannelId));}

	inline TInt UpdateTimeoutValues(TInt aBusId, TInt aChannelId) {return(DoControl(ECtrlIoUpdTimeout,(TAny*)aBusId,(TAny*)aChannelId));}

	inline TInt SetNotifNoTrigger(TInt aChannelId, TInt aTrigger){return(DoControl(ECtrlIoNotifNoTrigger,(TAny*)aChannelId,(TAny*)aTrigger));};

	inline void TestOverrunUnderrun(TInt aBusId, TInt aChannelId, TRequestStatus& aStatus) {DoRequest(ECtrlIoOvUndRunRxTx,aStatus,(TAny*)aBusId,(TAny*)aChannelId);}

#endif

	};

#ifdef __KERNEL_MODE__

// Definition of function prototype for a callback function provided by the PSL

// to be invoked when the part played by the hardware in processing a transfer

// has completed.

typedef void (*THwDoneCbFn)(TAny* );

#endif

// Data used to support tests

// Transaction One

//

const TUint8 KTransOneTferOne[21] = {0,1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20};

const TUint8 KTransOneTferTwo[8] = {17,18,19,20,21,22,23,24};

const TUint8 KTransOneTferThree[6] = {87,85,83,81,79,77};

const TUint8 KPriorityTestHeader[6] = {0,1,2,3,4,10}; 

const TInt KPriorityTestPrio[6] = {1,2,3,4,5,0};

const TInt KRxBufSizeInBytes = 64;

const TInt KTxBufSizeInBytes = 64;

#endif