/*..........................................................................*/
void BSP_init(void) {
PLL_Config pllCfg_100MHz = {
0x8BE8U, 0x8000U, 0x0806U, 0x0000U
};
PLL_Obj pllObj;
uint16_t i;
PLL_init(&pllObj, CSL_PLL_INST_0);
PLL_reset(&pllObj);
PLL_config(&pllObj, &pllCfg_100MHz);
QF_zero(); /* clear the QF variables, see NOTE01 */
CSL_SYSCTRL_REGS->PCGCR1 = 0U; /* enable clocks to all peripherals */
CSL_SYSCTRL_REGS->PCGCR2 = 0U;
CSL_SYSCTRL_REGS->EBSR = 0x1800U; /* configure I/O muxing */
CSL_SYSCTRL_REGS->PSRCR = 0x0020U; /* reset all peripherals */
CSL_SYSCTRL_REGS->PRCR = 0x00BFU;
ULED_init(); /* configure the User LEDs... */
IRQ_globalDisable();
IRQ_disableAll(); /* disable all the interrupts */
IRQ_clearAll(); /* clear any pending interrupts */
IRQ_setVecs((uint32_t)&VECSTART); /* set the vector table */
for (i = 1U; i < 32U; ++i) { /* pre-fill the Vector table */
IRQ_plug(i, &illegal_isr); /* with illegal ISR */
}
/* plug in all ISRs into the vector table...*/
// IRQ_plug(TINT_EVENT, &TINT_isr);
// IRQ_plug(RTC_EVENT, &RTC_isr);
/* ... */
if (QS_INIT((void *)0) == 0) { /* initialize the QS software tracing */
Q_ERROR();
}
QS_OBJ_DICTIONARY(&l_TINT_isr);
}
/*
* usb_test()
* USB Bulk transfer test. Device is detected as an eZDSP5535 when
* connected to PC while test is running. Bulk transfers can be
* made using USB_55xx program.
*
*/
CSL_Status usb_test(void)
{
CSL_IRQ_Config config;
CSL_Status result;
Uint16 eventMask;
result = CSL_USB_TEST_FAILED;
usbConfig.opMode = CSL_USB_OPMODE_POLLED;
usbConfig.devNum = CSL_USB0;
usbConfig.maxCurrent = CSL_USB_MAX_CURRENT;
usbConfig.appSuspendCallBack = (CSL_USB_APP_CALLBACK)CSL_suspendCallBack;
usbConfig.appWakeupCallBack = (CSL_USB_APP_CALLBACK)CSL_selfWakeupCallBack;
usbConfig.startTransferCallback = CSL_startTransferCallback;
usbConfig.completeTransferCallback = CSL_completeTransferCallback;
hEpObjArray[0] = &usbCtrlOutEpObj;
hEpObjArray[1] = &usbCtrlInEpObj;
hEpObjArray[2] = &usbBulkOutEpObj;
hEpObjArray[3] = &usbBulkInEpObj;
/* Set the interrupt vector start address */
IRQ_setVecs((Uint32)(&VECSTART));
/* Plug the USB Isr into vector table */
config.funcAddr = &usb_isr;
IRQ_plug(USB_EVENT, config.funcAddr);
/* Enable USB Interrupts */
IRQ_enable(USB_EVENT);
/* Enable CPU Interrupts */
IRQ_globalEnable();
/* Initialize the USB module */
status = USB_init(&usbConfig);
if(status != CSL_SOK)
{
printf("USB init failed\n");
return(result);
}
/* Reset the USB device */
status = USB_resetDev(CSL_USB0);
if(status != CSL_SOK)
{
printf("USB Reset failed\n");
return(result);
}
/* Initialize the Control Endpoint OUT 0 */
eventMask = (CSL_USB_EVENT_RESET | CSL_USB_EVENT_SETUP |
CSL_USB_EVENT_SUSPEND | CSL_USB_EVENT_RESUME |
CSL_USB_EVENT_RESET | CSL_USB_EVENT_EOT);
status = USB_initEndptObj(CSL_USB0, hEpObjArray[0],
CSL_USB_OUT_EP0,CSL_USB_CTRL,
CSL_USB_EP0_PACKET_SIZE, eventMask, NULL);
if(status != CSL_SOK)
{
printf("USB End point init failed\n");
return(result);
}
/* Initialize the Control Endpoint IN 0 */
status = USB_initEndptObj(CSL_USB0, hEpObjArray[1], CSL_USB_IN_EP0,
CSL_USB_CTRL, CSL_USB_EP0_PACKET_SIZE,
CSL_USB_EVENT_EOT, NULL);
if(status != CSL_SOK)
{
printf("USB End point init failed\n");
return(result);
}
/* Initialize the Bulk Endpoint IN 1 */
eventMask = (CSL_USB_EVENT_RESET | CSL_USB_EVENT_EOT);
status = USB_initEndptObj(CSL_USB0, hEpObjArray[2], CSL_USB_IN_EP1,
CSL_USB_BULK, CSL_USB_EP1_PACKET_SIZE_FS,
eventMask, NULL);
if(status != CSL_SOK)
{
printf("USB End point init failed\n");
return(result);
}
/* Initialize the Bulk Endpoint OUT 2 */
status = USB_initEndptObj(CSL_USB0, hEpObjArray[3], CSL_USB_OUT_EP1,
CSL_USB_BULK, CSL_USB_EP1_PACKET_SIZE_FS,
CSL_USB_EVENT_EOT, NULL);
if(status != CSL_SOK)
{
printf("USB End point init failed\n");
return(result);
}
/* Set the parameters */
status = USB_setParams(CSL_USB0, hEpObjArray, FALSE);
if(status != CSL_SOK)
{
printf("USB Set params failed\n");
return(result);
}
/* Connect the USB device */
status = USB_connectDev(CSL_USB0);
if(status != CSL_SOK)
{
printf("USB Connect failed\n");
return(result);
}
deviceDescPtr = (Uint16 *)deviceDesc;
cfgDescPtr = (Uint16 *)cfgDesc;
strDescPtr = (Uint16 *)strDesc;
dataReadBuffPtr = (Uint16 *)dataReadBuff;
dataWriteBuffPtr = (Uint16 *)dataWriteBuff;
while(stopRunning != TRUE);
result = CSL_USB_TEST_PASSED;
return(result);
}
/**
* \brief Audio Class intialization function
*
* \param None
*
* \return None
*/
void CSL_acTest(void)
{
I2sInitPrms i2sInitPrms;
CSL_UsbConfig usbConfig;
PSP_Result result;
Int16 status;
HWI_Attrs attrs;
LOG_printf(&trace, "USB ISO FULL SPEED MODE\n");
/* Initialize audio module */
result = AIC3254_init();
if(result != 0)
{
LOG_printf(&trace, "ERROR: Unable to configure audio codec");
}
else
{
#if !defined(SAMPLE_BY_SAMPLE_PB) || !defined(SAMPLE_BY_SAMPLE_REC)
DMA_HwInit();
DMA_DrvInit();
#endif
/* Initialize I2S and associated DMA channels for Playback and Record */
i2sInitPrms.enablePlayback = TRUE;
i2sInitPrms.enableStereoPb = TRUE;
#ifdef SAMPLE_BY_SAMPLE_PB
i2sInitPrms.sampleBySamplePb = TRUE;
#else /* Configuration untested since ASRC only works with I2S in sample-by-sample mode */
i2sInitPrms.sampleBySamplePb = FALSE;
i2sInitPrms.enableDmaPingPongPb = FALSE;
i2sInitPrms.pingI2sTxLeftBuf = ping_i2sTxLeftBuf;
i2sInitPrms.pongI2sTxLeftBuf = pong_i2sTxLeftBuf;
i2sInitPrms.pingI2sTxRightBuf = ping_i2sTxRightBuf;
i2sInitPrms.pongI2sTxRightBuf = pong_i2sTxRightBuf;
i2sInitPrms.zeroBuf = ZeroBuf;
#endif
i2sInitPrms.i2sPb = PSP_I2S_TX_INST_ID;
i2sInitPrms.enableRecord = TRUE;
i2sInitPrms.enableStereoRec = FALSE;
#ifdef SAMPLE_BY_SAMPLE_REC
i2sInitPrms.sampleBySampleRec = TRUE;
#else
i2sInitPrms.sampleBySampleRec = FALSE;
i2sInitPrms.enableDmaPingPongRec = TRUE;
i2sInitPrms.pingI2sRxLeftBuf = (Int16 *)ping_pong_i2sRxLeftBuf;
i2sInitPrms.pongI2sRxLeftBuf = NULL;
i2sInitPrms.pingI2sRxRightBuf = (Int16 *)ping_pong_i2sRxRightBuf;
i2sInitPrms.pongI2sRxRightBuf = NULL;
#endif
i2sInitPrms.i2sRec = PSP_I2S_RX_INST_ID;
status = i2sInit(&i2sInitPrms);
if (status != I2SSAMPLE_SOK)
{
LOG_printf(&trace, "ERROR: Unable to initialize I2S");
}
#ifdef C5535_EZDSP_DEMO
// initialize the OLED display
oled_init();
#endif
/* Initialising the Pointer to the Audio Class Handle to the Buffer Allocated */
AC_AppHandle.pAcObj = &ACAppBuffer[0];
usbConfig.devNum = CSL_USB0;
usbConfig.opMode = CSL_USB_OPMODE_POLLED;
#ifdef APP_USB_SELF_POWERED
usbConfig.selfPowered = TRUE;
#else
usbConfig.selfPowered = FALSE;
#endif
usbConfig.maxCurrent = APP_USB_MAX_CURRENT;
usbConfig.appSuspendCallBack = (CSL_USB_APP_CALLBACK)CSL_suspendCallBack;
usbConfig.appWakeupCallBack = (CSL_USB_APP_CALLBACK)CSL_selfWakeupCallBack;
usbConfig.startTransferCallback = StartTransfer;
usbConfig.completeTransferCallback = CompleteTransfer;
USB_init(&usbConfig);
USB_setFullSpeedMode(0x40); /* parameter is EP0 data size in bytes */
USB_resetDev(CSL_USB0);
/* Calling init routine */
/* Giving all the table hanldes and the buffers to the Audio Class module */
AC_AppHandle.strDescrApp = (char **)&string_descriptor[0];
AC_AppHandle.lbaBufferPbApp = &lbaBufferPbApp[0];
AC_AppHandle.lbaBufferRecApp = &lbaBufferRecApp[0];
AC_AppHandle.lbaBufferHidReportApp = &lbaBufferHidReportApp[0];
AC_AppHandle.acReqTableApp = USB_ReqTable;
AC_AppHandle.pId = pId;
AC_AppHandle.vId = vId;
#ifndef ENABLE_PLAYBACK_TWO_SAMPLE_RATES
#ifdef SAMPLE_RATE_TX_48kHz
LOG_printf(&trace, "PLAYBACK: 48KHZ ");
#ifdef ENABLE_STEREO_PLAYBACK
LOG_printf(&trace, "STEREO\n");
AC_AppHandle.rxPktSize = EP_PB_MAXP; // max packet size for 48K stereo
#else // ENABLE_STEREO_PLAYBACK
LOG_printf(&trace, "MONO\n");
AC_AppHandle.rxPktSize = 0x60; // max packet size for 48K mono
#endif // ENABLE_STEREO_PLAYBACK
#endif // SAMPLE_RATE_TX_48kHz
#ifdef SAMPLE_RATE_TX_44_1kHz
LOG_printf(&trace, "PLAYBACK: 44.1KHZ ");
#ifdef ENABLE_STEREO_PLAYBACK
LOG_printf(&trace, "STEREO\n");
AC_AppHandle.rxPktSize = 0xB0; // max packet size for 44.1 stereo
#else // ENABLE_STEREO_PLAYBACK
LOG_printf(&trace, "MONO\n");
AC_AppHandle.rxPktSize = 0x58; // max packet size for 44.1 mono
#endif // ENABLE_STEREO_PLAYBACK
#endif // SAMPLE_RATE_TX_44_1kHz
#ifdef SAMPLE_RATE_TX_32kHz
LOG_printf(&trace, "PLAYBACK: 32KHZ ");
#ifdef ENABLE_STEREO_PLAYBACK
LOG_printf(&trace, "STEREO\n");
AC_AppHandle.rxPktSize = 0x80; // max packet size for 32K stereo
#else // ENABLE_STEREO_PLAYBACK
LOG_printf(&trace, "MONO\n");
AC_AppHandle.rxPktSize = 0x40; // max packet size for 32K mono
#endif // ENABLE_STEREO_PLAYBACK
#endif // SAMPLE_RATE_TX_32kHz
#ifdef SAMPLE_RATE_TX_16kHz
LOG_printf(&trace, "PLAYBACK: 16KHZ ");
#ifdef ENABLE_STEREO_PLAYBACK
LOG_printf(&trace, "STEREO\n");
AC_AppHandle.rxPktSize = RX_PKT_SIZE_16K_PLAYBACK_STEREO; // max packet size for 16K stereo
rx_pkt_size_16K_playback = RX_PKT_SIZE_16K_PLAYBACK_STEREO; // max packet size for 16K stereo
#else // ENABLE_STEREO_PLAYBACK
LOG_printf(&trace, "MONO\n");
AC_AppHandle.rxPktSize = RX_PKT_SIZE_16K_PLAYBACK_MONO; // max packet size for 16K mono
rx_pkt_size_16K_playback = RX_PKT_SIZE_16K_PLAYBACK_MONO; // max packet size for 16K mono
#endif // ENABLE_STEREO_PLAYBACK
#endif // SAMPLE_RATE_TX_16kHz
#else /* ENABLE_PLAYBACK_TWO_SAMPLE_RATES */
LOG_printf(&trace, "PLAYBACK: 48KHZ ");
#ifdef ENABLE_STEREO_PLAYBACK
LOG_printf(&trace, "STEREO\n");
AC_AppHandle.rxPktSize = EP_PB_MAXP; // max packet size for 48K stereo
#else // ENABLE_STEREO_PLAYBACK
LOG_printf(&trace, "MONO\n");
AC_AppHandle.rxPktSize = 0x60; // max packet size for 48K mono
#endif // ENABLE_STEREO_PLAYBACK
LOG_printf(&trace, "PLAYBACK: 16KHZ ");
#ifdef ENABLE_STEREO_PLAYBACK
rx_pkt_size_16K_playback = RX_PKT_SIZE_16K_PLAYBACK_STEREO; // max packet size for 16K stereo
LOG_printf(&trace, "STEREO\n");
#else // ENABLE_STEREO_PLAYBACK
rx_pkt_size_16K_playback = RX_PKT_SIZE_16K_PLAYBACK_MONO; // max packet size for 16K mono
LOG_printf(&trace, "MONO\n");
#endif // ENABLE_STEREO_PLAYBACK
#endif /* ENABLE_PLAYBACK_TWO_SAMPLE_RATES */
AC_AppHandle.txPktSize = EP_REC_MAXP; // max packet size for 16K mono
AC_AppHandle.hidTxPktSize = EP_HID_MAXP; // max packet size for HID output report
/* All Function Handlers need to be Initialised */
AC_AppHandle.playAudioApp = appPlayAudio;
AC_AppHandle.recordAudioApp = appRecordAudio;
AC_AppHandle.initPlayAudioApp = appInitPlayAudio;
AC_AppHandle.initRecordAudioApp = appInitRecordAudio;
AC_AppHandle.stopPlayAudioApp = appStopPlayAudio;
AC_AppHandle.stopRecordAudioApp = appStopRecordAudio;
AC_AppHandle.mediaGetPresentStateApp = AppGetMediaStatus;
AC_AppHandle.mediaInitApp = AppMediaInit;
AC_AppHandle.mediaEjectApp = AppMediaEject;
AC_AppHandle.mediaLockUnitApp = AppLockMedia;
AC_AppHandle.getMediaSizeApp = AppGetMediaSize;
AC_AppHandle.getHidReportApp = appGetHidReport;
AC_AppHandle.ctrlHandler = appCtrlFxn;
AC_AppHandle.isoHandler = appIsoFxn;
AC_AppHandle.hidHandler = appHidFxn;
AC_AppHandle.numLun = 2;
/* Initialize End point descriptors */
AC_initDescriptors(AC_AppHandle.pAcObj, (Uint16 *)deviceDescriptorB,
CSL_AC_DEVICE_DESCR, sizeof(deviceDescriptorB));
AC_initDescriptors(AC_AppHandle.pAcObj, (Uint16 *)deviceQualifierDescr,
CSL_AC_DEVICE_QUAL_DESCR, 10);
AC_initDescriptors(AC_AppHandle.pAcObj, (Uint16 *)configDescriptor,
CSL_AC_CONFIG_DESCR, sizeof(configDescriptor));
AC_initDescriptors(AC_AppHandle.pAcObj, (Uint16 *)stringLanId,
CSL_AC_STRING_LANGID_DESC, 6);
AC_initDescriptors(AC_AppHandle.pAcObj, (Uint16 *)acHidReportDescriptor,
CSL_AC_HID_REPORT_DESC, sizeof(acHidReportDescriptor));
/* Initialize HID */
AC_AppHandle.acHidIfNum = IF_NUM_HID; // HID interface number
AC_AppHandle.acHidReportId = HID_REPORT_ID; // HID report ID
AC_AppHandle.acHidReportLen = HID_REPORT_SIZE_BYTES; // HID report length (bytes)
genHidReport(UI_PUSH_BUTTON_NONE, gHidReport); // init. HID report for Get Report
/* Call Init API */
AC_Open(&AC_AppHandle);
/* Enable CPU USB interrupts */
CSL_FINST(CSL_CPU_REGS->IER1, CPU_IER1_USB, ENABLE);
/* Initialize active sample rate */
initSampleRate(RATE_48_KHZ, &active_sample_rate,
&i2sTxBuffSz);
/* Initialize ASRC */
Init_Sample_Rate_Converter(active_sample_rate);
/* Reset codec output buffer */
reset_codec_output_buffer();
#ifdef ENABLE_RECORD
#ifdef SAMPLE_RATE_RX_48kHz
LOG_printf(&trace, "RECORD: 48KHZ ");
#else
LOG_printf(&trace, "RECORD: 16KHZ ");
#endif // SAMPLE_RATE_RX_48kHz
// start the rx DMAs
DMA_StartTransfer(hDmaRxLeft);
#ifdef ENABLE_STEREO_RECORD
LOG_printf(&trace, "STEREO NOT SUPPORTED - RECORD WILL BE MONO\n");
DMA_StartTransfer(hDmaRxRight);
#else
LOG_printf(&trace, "MONO\n");
#endif
#endif // ENABLE_RECORD
#ifdef STORE_PARAMETERS_TO_SDRAM
initSdram(FALSE, 0x0000);
#endif // STORE_PARAMETERS_TO_SDRAM
#ifdef SAMPLE_BY_SAMPLE_PB
/* SampleBySample, init interrupt */
/* Use with compiler "interrupt" keyword */
//IRQ_plug(I2S_TX_EVENT, i2s_txIsr);
/* Use with dispatcher, no "interrupt" keyword */
attrs.ier0mask = 0xFFFF;
attrs.ier1mask = 0xFFFF;
HWI_dispatchPlug(I2S_TX_EVENT, (Fxn)i2s_txIsr, &attrs);
IRQ_enable(I2S_TX_EVENT); /* SampleBySample, enable IRQ for I2S Tx */
#endif
#if defined(SAMPLE_BY_SAMPLE_REC) && !defined(COMBINE_I2S_TX_RX_ISR)
/* SampleBySample, init interrupt */
/* Use with compiler "interrupt" keyword */
IRQ_plug(I2S_RX_EVENT, i2s_rxIsr);
/* Use with dispatcher, no "interrupt" keyword */
//attrs.ier0mask = 0xFFFF;
//attrs.ier1mask = 0xFFFF;
//HWI_dispatchPlug(I2S_RX_EVENT, (Fxn)i2s_rxIsr, &attrs);
IRQ_enable(I2S_RX_EVENT); /* SampleBySample, enable IRQ for I2S Rx */
#endif
#if defined(SAMPLE_BY_SAMPLE_PB) || defined(SAMPLE_BY_SAMLE_REC)
DDC_I2S_transEnable((DDC_I2SHandle)i2sHandleTx, TRUE); /* SampleBySample, enable I2S transmit and receive */
#endif
#ifndef SAMPLE_BY_SAMPLE_PB
i2sTxStart(); // - moved from appPlayAudio()
#endif
#ifdef C5535_EZDSP_DEMO
// clock gating usused peripherals
ClockGating();
#endif
}
}
/**
* \brief UART interrupt Test function
*
* This function verifies the UART operation in interrupt mode.
* This function runs in an infinite loop to read the characters
* from HyperTerminal and echo the characters back to HyperTerminal.
*
* \param none
*
* \return Test result(Only Failure Case)
*/
CSL_Status uart_IntcSample(void)
{
CSL_UartIsrAddr isrAddr;
CSL_Status status;
Uint32 sysClk;
sysClk = getSysClk();
mySetup.clkInput = sysClk;
/* Loop counter and error flag */
status = UART_init(&uartObj,CSL_UART_INST_0,UART_INTERRUPT);
if(CSL_SOK != status)
{
printf("UART_init failed error code %d\n",status);
return(status);
}
else
{
printf("UART_init Successful\n");
}
/* Handle created */
hUart = (CSL_UartHandle)(&uartObj);
/* Configure UART registers using setup structure */
status = UART_setup(hUart,&mySetup);
if(CSL_SOK != status)
{
printf("UART_setup failed error code %d\n",status);
return(status);
}
else
{
printf("UART_setup Successful\n");
}
/* Send the details of the test to HyperTerminal */
status = UART_fputs(hUart,"\r\n\nUART INTERRUPT TEST!",0);
if(CSL_SOK != status)
{
printf("UART_fputs failed error code %d\n",status);
return(status);
}
status = UART_fputs(hUart,"\r\nTEST READS A CHARACTER FROM HYPERTERMINAL CONTINUOUSLY",0);
if(CSL_SOK != status)
{
printf("UART_fputs failed error code %d\n",status);
return(status);
}
status = UART_fputs(hUart,"\r\nENTER '$' TO END THE TEST\r\n",0);
if(CSL_SOK != status)
{
printf("UART_fputs failed error code %d\n",status);
return(status);
}
/* Configure and Register the UART interrupts */
isrAddr.rbiAddr = uart_rxIsr;
isrAddr.tbeiAddr = uart_txIsr;
isrAddr.ctoi = uart_ctoIsr;
isrAddr.lsiAddr = uart_lsiIsr;
/* Disable interrupt */
IRQ_globalDisable();
/* Clear any pending interrupts */
IRQ_clearAll();
/* Disable all the interrupts */
IRQ_disableAll();
IRQ_setVecs((Uint32)(&VECSTART));
/* Configuring Interrupt */
IRQ_plug (UART_EVENT, &UART_intrDispatch);
/* Enabling Interrupt */
IRQ_enable(UART_EVENT);
IRQ_globalEnable();
/* Set the UART callback function */
status = UART_setCallback(hUart,&isrAddr);
if(status != CSL_SOK)
{
printf("UART_setCallback Failed\n");
return(status);
}
/* Enable the UART Events */
status = UART_eventEnable(hUart, CSL_UART_XMITOR_REG_EMPTY_INTERRUPT);
if(status != CSL_SOK)
{
printf("UART_eventEnable Failed\n");
return(status);
}
status = UART_eventEnable(hUart, CSL_UART_RECVOR_REG_DATA_INTERRUPT);
if(status != CSL_SOK)
{
printf("UART_eventEnable Failed\n");
return(status);
}
status = UART_eventEnable(hUart, CSL_UART_RECVOR_LINE_STATUS_INTERRUPT);
if(status != CSL_SOK)
{
printf("UART_eventEnable Failed\n");
return(status);
}
/* Tests runs until users enters Symbol '$' on the HyperTerminal */
while(endOfTest == FALSE)
{
}
printf("\nUSER ENTERED '$' on HyperTerminal\n");
printf("END OF TEST!\n");
/* Disable UART interrupts */
IRQ_disable(UART_EVENT);
/* Disable GLobal Interrupts */
IRQ_globalDisable();
/* Send the END OF TEST MESSAGE to HyperTerminal */
status = UART_fputs(hUart,"\r\n\nYOU HAVE ENTERED '$'.",0);
if(CSL_SOK != status)
{
printf("UART_fputs failed error code %d\n",status);
return(status);
}
status = UART_fputs(hUart,"\r\nEND OF THE TEST!!\r\n",0);
if(CSL_SOK != status)
{
printf("UART_fputs failed error code %d\n",status);
return(status);
}
/* Disable interrupt */
IRQ_globalDisable();
/* Clear any pending interrupts */
IRQ_clearAll();
/* Disable all the interrupts */
IRQ_disableAll();
return(CSL_SOK);
}
