//*****************************************************************************
//*****************************************************************************
//** API Functions
//*****************************************************************************
//*****************************************************************************
GERR GD_DMA_Init(void)
{
GERR err = GD_OK;
GD_INT_OPEN_PARAMS_S intParams;
if(initialised)
{
return(GD_OK);
}
memset((void *)dmaDescriptor, 0, sizeof(GD_DMA_DESCRIPTOR_S)*DMA_CHAN_MAX_NUM*DMA_CHAN_MAX_DESC);
memset((void *)dmaDev, 0, sizeof(DMA_DEVICE_S)*DMA_CHAN_MAX_NUM);
intParams.type = GD_INT_DMA_IRQ;
intParams.sensitivity = GD_INT_LEVEL_HIGH;
intParams.active = GD_INT_NO_INVERT_IRQ;
intParams.priority = GD_INT_MID_PRIORITY;
intParams.isrFct.lowPrio = dma_int_handler;
err = GD_INT_Open(&intParams,&dmaIntHandle);
if(err != GD_OK)
{
return err;
}
GD_INT_Enable(&dmaIntHandle, GD_INT_ENABLED);
initialised = 1;
return GD_OK;
}
GERR GD_ICC_UART_Init()
{
GD_INT_OPEN_PARAMS_S int_params;
GD_HANDLE int_handle;
GD_HANDLE gpio_handle;
GD_GPIO_INT_CONFIG_S gpiocfg;
GD_GPIO_OpenFunctionMode( GD_GPIO_TYPE_OUTPUT_ICC0_DATA, &gpio_handle );
GD_GPIO_OpenFunctionMode( GD_GPIO_TYPE_INPUT_ICC0_DATA, &gpio_handle );
int_params.type = (S8)GD_INT_ICC0_IRQ;
int_params.sensitivity = GD_INT_LEVEL_SENSITIVE;
int_params.active = GD_INT_INVERT_IRQ;
int_params.priority = GD_INT_LOW_PRIORITY;
//int_params.priority = GD_INT_MID_PRIORITY;
int_params.isrFct.lowPrio = GD_ICC0_ISR;
//int_params.isrFct.midPrio = GD_ICC0_MID_ISR;
GH_ICC_init();
GH_ICC_set_GuardTimer( 0, (U32)ICC_DEFAULT_GUART_TIME + 10);
GH_ICC_set_PortControl( 0, (U32)0 );
GH_ICC_set_GlobalControl( 0, (U32)0 );
GH_ICC_set_ExtendedControl(0,0);
//GH_ICC_set_PortControl_TRIMOD( 0, 0 );//?
//GH_ICC_set_PortControl_IO1EN( 0, 1 );//?
GH_ICC_set_PortControl_RS232(0,0);
GH_ICC_set_CardClock_INTEGER(0,6);
GH_ICC_set_CardClock_FRACTION(0,0x12);
GH_ICC_set_Baudrate(0,0xF); //115200
GH_ICC_set_GlobalControl_FRM0(0,1);
GH_ICC_set_GlobalControl_FRM1(0,0);
GH_ICC_set_ExtendedControl_ENABLE_10ETU(0,1);
// GD_INT_SetHandler( int_params.type, GD_ICC_Handler );
if( GD_INT_Open( &int_params, &int_handle ) != GD_OK )
{
GM_PrStr( "[ICC0] Open ICC UArt Error!\n");
return( GD_ERR_DEVICE_BUSY );
}
GM_PrStr( "[ICC0] Open ICC UArt Correct!\n");
return( GD_OK );
}
/*---------------------------------------------------------------------------*/
GERR GND_I2C_Init(GD_I2C_INIT_PARAMS_S* paramsP)
{
GD_HANDLE gpioHd;
/* Reset the SCL & SDA pin of I2C */
GD_GPIO_Open(GD_GPIO_INOUT_I2C_CLK , GD_GPIO_TYPE_INOUT_I2C_CLK, 0, &gpioHd );
GD_GPIO_Open(GD_GPIO_INOUT_I2C_DATA , GD_GPIO_TYPE_INOUT_I2C_DATA, 0, &gpioHd );
/* initialize I2c registers */
/*
GH_I2C_set_ControlReg0(0L);
GH_I2C_set_ControlReg0_USE_ADD(1);
GH_I2C_set_ControlReg0_AM_ON(1);
GH_I2C_set_ControlReg0_SPIKE_FILT(1);
GH_I2C_set_ControlReg0_OI_DLY_AL(1);
CtrlReg0Shadow = GH_I2C_get_ControlReg0();
*/
CtrlReg0Shadow = BIT7|BIT4|BIT10|BIT11;
GNH_EXT_SetRegister(REG_I2C_CONTROLREG0,CtrlReg0Shadow);
/*
GH_I2C_set_ControlReg1(0L);
GH_I2C_set_ControlReg1_SL_SLA_ADD(MPEG_SLAADD>>1);
CtrlReg1Shadow = GH_I2C_get_ControlReg1();
*/
CtrlReg1Shadow = MPEG_SLAADD;
GNH_EXT_SetRegister(REG_I2C_CONTROLREG1,CtrlReg1Shadow);
/*
GH_I2C_set_IRQMask0(0L);
GH_I2C_set_IRQMask1(0L);
*/
GNH_EXT_SetRegister(REG_I2C_IRQMASK0,0);
GNH_EXT_SetRegister(REG_I2C_IRQMASK1,0);
/* Open the I2C interrupt */
GD_INT_OPEN_PARAMS_S paramsInt;
paramsInt.active = GD_INT_INVERT_IRQ;
paramsInt.priority = GD_INT_LOW_PRIORITY;
paramsInt.sensitivity = GD_INT_LEVEL_SENSITIVE;
paramsInt.type = GD_INT_IIC_IRQ;
paramsInt.isrFct.lowPrio = GND_ISR_I2C_Handler;
GD_INT_Open(¶msInt, NULL);
return GD_OK;
}
/*!
*******************************************************************************
**
** \brief Initialises the IR driver.
**
** This function must be called at start-up to set the interrupt service
** routine for the infrared interrupt and to register the callback
** function.
**
** \param pInitParams Pointer to the init parameters.
**
** \return Possible return codes:
** - #GD_OK
** - #GD_ERR_ALREADY_INITIALIZED
**
** \sa GD_IR_SetNotifyFunction()
**
******************************************************************************/
GERR GD_IR_Init(GD_IR_INIT_PARAMS_S *pInitParams)
{
GD_INT_OPEN_PARAMS_S intparams;
GERR ret = GD_OK;
GD_HANDLE handle;
intparams.type = GD_INT_IR_IRQ;
intparams.sensitivity = GD_INT_LEVEL_SENSITIVE;
intparams.active = GD_INT_INVERT_IRQ;
intparams.priority = GD_INT_LOW_PRIORITY;
intparams.isrFct.lowPrio = FI_IR_ISR;
NotifyFunction = pInitParams->notifyFunction;
ret = GD_INT_Open(&intparams,&handle);
if (ret != GD_OK)
{
return GD_ERR_ALREADY_INITIALIZED;
}
return GD_OK;
}
int XD_UaInitUart(GD_UART_BAUDRATE_E BaudRate)
{
volatile T_SMARTMPEG_UART_PORT *pUART;
OpU8 RxChar;
U32 mode;
// Steven Yu
GD_HANDLE gpioHd;
#ifdef DEBUG
GD_HANDLE uartHd;
#endif
GD_GPIO_Open(GD_GPIO_28 , GD_GPIO_TYPE_INPUT_UART_RX, 0, &gpioHd );
GD_GPIO_Open(GD_GPIO_29 , GD_GPIO_TYPE_OUTPUT_UART_TX, 0, &gpioHd );
//XD_CiSetMpegSRegBits(SHR16IDX_GPIO_SELECT_LOW, GPIO_L_UART_TX|GPIO_L_UART_RX); // enable UART operation
#ifdef DEBUG
OSAddTask((void (*)(void *))UartTask, TASK_UART_PRIO, STACK_UART, UART_TASK_STK_SIZE);
GD_INT_OPEN_PARAMS_S intparams;
intparams.type = GD_INT_UART_IRQ;
intparams.sensitivity = GD_INT_LEVEL_SENSITIVE;
intparams.active = GD_INT_INVERT_IRQ;
intparams.priority = GD_INT_LOW_PRIORITY;
intparams.isrFct.lowPrio = ISR_UART_Handler;
GNH_EXT_SetRegister(REG_UART_IRQCLEAR,0x03); /* clear interrupt */
GD_INT_Open(&intparams, &uartHd);
#endif
mode = getDataRateMode(BaudRate);
pUART = (volatile T_SMARTMPEG_UART_PORT*) REG_UART_DATA; // Init Pointer to UART Control Registers
pUART->LineControl = 0x00F0; // 8 Databits, 1 Stop, no parity
pUART->Enable = 0x0003; // Internal clock, RX enable
pUART->Delta1 = BaudRateTable[mode * 4 + 2] & 0xff; //0x53;
pUART->ClkBound = BaudRateTable[mode * 4 + 1] & 0xffff; //0x0D; // DPLL bound
pUART->DifDelt = BaudRateTable[mode * 4 + 3] & 0x3ff; //0x2D;
pUART->DmaReqCtrl = 0x0000;
//pUART->IrqMaskReg = BIT1; // enable RxInt. just for Test
pUART->IrqMaskReg = 0; // disable RxInt.
RxChar = pUART->Data; // empty receive register
return RxChar;
}
/*!
*****************************************************************************
** \brief Initialize the Ethernet driver.
**
** This function initializes Ethernet driver.
** It allocates and initializes driver handle structures as well as
** internal buffers for succeeding GD_ETH_Open(). Currently buffers are
** statically allocated. Setting up hardware is not part of GD_ETH_Init(),
** but is executed in GD_ETH_Open().
**
** \note This function is the implementation of
** GD_SYS_DriverT::initDriverFunc.
**
** \return
** - #GD_OK On success
** - #GD_ERR_ALREADY_INITIALIZED Driver is already initialized
** - #GD_ERR_INVALID_HANDLE Invalid handle is specified
** - #GD_ERR_SEMAPHORE_CREATE Semaphore can not be created
** - #GD_ERR_OUT_OF_MEMORY Memory allocation failed
** Not Implemented yet
**
** \sa GD_ETH_Exit()
*****************************************************************************
*/
GERR GD_ETH_Init(GD_ETH_InitParamsT* pInitParams)
{
S32 retval;
GD_INT_OPEN_PARAMS_S intOpenParams;
if(ethIntHandle)
{
return GD_ERR_ALREADY_INITIALIZED;
}
if(pInitParams == NULL)
{
return GD_ERR_BAD_PARAMETER;
}
intOpenParams.type = GD_INT_ETH_IRQ;
intOpenParams.sensitivity = GD_INT_LEVEL_HIGH;
intOpenParams.priority = GD_INT_MID_PRIORITY;
intOpenParams.active = GD_INT_INVERT_IRQ;
intOpenParams.isrFct.lowPrio = GD_ETH_Isr;
retval = GD_INT_Open(&intOpenParams, ðIntHandle);
if (retval != GD_OK)
{
return retval;
}
if (pInitParams->phyreset != GD_GPIO_0)
{
GD_GPIO_Open(pInitParams->phyreset, GD_GPIO_TYPE_OUTPUT_1, NULL, ðdevice.phyreset);
}
if(pInitParams->bHWReset)
{
GD_ETH_PHY_HWReset((GD_HANDLE)ðdevice);
}
ethdevice.phyType = pInitParams->phyType;
GD_ETH_PHY_Init(pInitParams->phyType);
return retval;
}
/*!
*******************************************************************************
**
** \brief Initializes the driver.
**
** This function initializes the TIMER driver. It initializes the
** internal timer variables and registers the interrupts of hard- and
** soft timer. Furthermore it starts the time GPREG timer.
**
** \param initParams Pointer to TIMER init data structure containing all
** customizable driver parameter.
**
** \return One of the following status codes:
** - #GD_OK if successful
** - #GD_ERR_ALREADY_INITIALIZED if this function has already been
** called.
** - #GD_ERR_BAD_PARAMETER if the initialization parameter are not
** correctly specified.
******************************************************************************/
GERR GD_TIMER_Init(GD_TIMER_INIT_PARAMS_S* initParams)
{
GERR ret = GD_OK;
GD_INT_OPEN_PARAMS_S params;
int i;
nTimeStamp = 0;
if (gd_timer_TimerInitFlag != GFALSE)
return GD_ERR_ALREADY_INITIALIZED;
if ((initParams->softTimerReg != GD_REG_TIMER1 &&
initParams->softTimerReg != GD_REG_TIMER2 &&
initParams->softTimerReg != GD_REG_TIMER3) ||
(initParams->hardTimerReg != GD_REG_TIMER1 &&
initParams->hardTimerReg != GD_REG_TIMER2 &&
initParams->hardTimerReg != GD_REG_TIMER3) ||
(initParams->gpregTimerReg != GD_REG_TIMER1 &&
initParams->gpregTimerReg != GD_REG_TIMER2 &&
initParams->gpregTimerReg != GD_REG_TIMER3) ||
(initParams->hardTimerReg == initParams->softTimerReg) ||
(initParams->gpregTimerReg == initParams->softTimerReg) ||
(initParams->hardTimerReg == initParams->gpregTimerReg)
)
{
return GD_ERR_BAD_PARAMETER;
}
for ( i = 0; i <= GD_TIMER_MAX_SOFT_TIME; i++ )
{
gd_timer_sSoftTime[i].nIndex = i;
gd_timer_sSoftTime[i].nTimeCount = 0;
gd_timer_sSoftTime[i].nStoreCount = 0;
gd_timer_sSoftTime[i].eState = TIME_FREE;
gd_timer_sSoftTime[i].bpTimeEnd = NULL;
gd_timer_sSoftTime[i].fpCallBackAddress=NULL;
}
gd_timer_sHardTime.eState = TIME_FREE;
gd_timer_sHardTime.nTimeCount = 0;
gd_timer_sHardTime.bpTimeEnd = NULL;
gd_timer_sHardTime.fpCallBackAddress = NULL;
gd_timer_sGpregTime.eState = TIME_FREE;
gd_timer_sGpregTime.nTimeCount = 0;
gd_timer_sGpregTime.bpTimeEnd = NULL;
gd_timer_sGpregTime.fpCallBackAddress = NULL;
params.active = GD_INT_NO_INVERT_IRQ;
params.sensitivity = GD_INT_RISING_EDGE;
/* soft timer init */
if (initParams->softTimerReg == GD_REG_TIMER1)
params.type = GD_INT_TIMER1_IRQ;
else if (initParams->softTimerReg == GD_REG_TIMER2)
params.type = GD_INT_TIMER2_IRQ;
else if (initParams->softTimerReg == GD_REG_TIMER3)
params.type = GD_INT_TIMER3_IRQ;
for ( i = 0; i <= GD_TIMER_MAX_SOFT_TIME; i++ )
{
gd_timer_sSoftTime[i].timer_irq = GD_REG_SOFT_TIMER_IRQ;
gd_timer_sSoftTime[i].timerReg = (GD_TIMER_REG_E)initParams->softTimerReg;
}
params.priority = initParams->softTimerpriority;
params.isrFct.lowPrio = GI_TIME_ISR;
ret = GD_INT_Open(¶ms, &gd_timer_sSoftTime[0].handle);
if (ret != GD_OK)
{
return ret;
}
for ( i = 1; i <= GD_TIMER_MAX_SOFT_TIME; i++ )
{
gd_timer_sSoftTime[i].handle = gd_timer_sSoftTime[0].handle;
}
/* General the soft timer Interrupt pre 10ms */
GH_TIMER_set_CntnSts(initParams->softTimerReg, (GD_GET_APB_ClkHz() / RTOS_TICK_PER_SECOND));
GH_TIMER_set_Reloadn(initParams->softTimerReg, (GD_GET_APB_ClkHz() / RTOS_TICK_PER_SECOND));
GH_TIMER_set_Match1(initParams->softTimerReg, 0x00);
GH_TIMER_set_Match2(initParams->softTimerReg, 0x00);
/* hard timer init */
if (initParams->hardTimerReg == GD_REG_TIMER1)
params.type = GD_INT_TIMER1_IRQ;
else if (initParams->hardTimerReg == GD_REG_TIMER2)
params.type = GD_INT_TIMER2_IRQ;
else if (initParams->hardTimerReg == GD_REG_TIMER3)
params.type = GD_INT_TIMER3_IRQ;
gd_timer_sHardTime.timer_irq = GD_REG_HARD_TIMER_IRQ;
params.priority = initParams->hardTimerpriority;
params.isrFct.lowPrio = GI_TIMER_HardTimerISR;
ret = GD_INT_Open(¶ms, &gd_timer_sHardTime.handle);
if (ret != GD_OK)
{
GD_INT_Close(&gd_timer_sSoftTime[0].handle);
for ( i = 1; i <= GD_TIMER_MAX_SOFT_TIME; i++ )
{
gd_timer_sSoftTime[i].handle = 0;
}
return ret;
}
gd_timer_sHardTime.timerReg = (GD_TIMER_REG_E)initParams->hardTimerReg;
/* General the hard timer Interrupt pre 100ms */
GH_TIMER_set_CntnSts(initParams->hardTimerReg, (GD_GET_APB_ClkHz() / RTOS_TICK_PER_SECOND));
GH_TIMER_set_Reloadn(initParams->hardTimerReg, (GD_GET_APB_ClkHz() / RTOS_TICK_PER_SECOND));
GH_TIMER_set_Match1(initParams->hardTimerReg, 0x00);
GH_TIMER_set_Match2(initParams->hardTimerReg, 0x00);
/* init time stamp timer */
/* gpreg timer init */
if (initParams->gpregTimerReg == GD_REG_TIMER1)
params.type = GD_INT_TIMER1_IRQ;
else if (initParams->gpregTimerReg == GD_REG_TIMER2)
params.type = GD_INT_TIMER2_IRQ;
else if (initParams->gpregTimerReg == GD_REG_TIMER3)
params.type = GD_INT_TIMER3_IRQ;
gd_timer_sGpregTime.timer_irq = GD_REG_GPREG_TIMER_IRQ;
params.priority = initParams->gpregTimerpriority;
params.isrFct.lowPrio = GI_TIMER_GPREGTimerISR;
ret = GD_INT_Open(¶ms, &gd_timer_sGpregTime.handle);
if (ret != GD_OK)
{
GD_INT_Close(&gd_timer_sSoftTime[0].handle);
for ( i = 1; i <= GD_TIMER_MAX_SOFT_TIME; i++ )
{
gd_timer_sSoftTime[i].handle = 0;
}
GD_INT_Close(&gd_timer_sHardTime.handle);
return ret;
}
gd_timer_sGpregTime.timerReg = (GD_TIMER_REG_E)initParams->gpregTimerReg;
/*set presclaer for generating the interrupt per 100ms*/
GH_TIMER_set_CntnSts(initParams->gpregTimerReg, (GD_GET_APB_ClkHz() / RTOS_TICK_PER_SECOND));
GH_TIMER_set_Reloadn(initParams->gpregTimerReg, (GD_GET_APB_ClkHz() / RTOS_TICK_PER_SECOND));
GH_TIMER_set_Match1(initParams->gpregTimerReg, 0x00);
GH_TIMER_set_Match2(initParams->gpregTimerReg, 0x00);
gd_timer_TimerInitFlag = GTRUE;
timer_enable(gd_timer_sSoftTime[0].timerReg, GD_INT_ENABLED);
GD_INT_Enable(&gd_timer_sSoftTime[0].handle, GD_INT_ENABLED);
return ret;
}