#include "OTA_H.h" #include "eflash_drv.h" #include "uart.h" #include "bsp.h" #include "pit.h" #include "pit32_drv.h" #include "ioctrl_drv.h" #include "usb_drv.h" #include "usb_const.h" #include "meg.h" #include "Flash.h" #include "wdt_drv.h" /****************test************************/ extern unsigned int number1 ; unsigned int ota_lt7689(unsigned char * updata_p,unsigned int length , unsigned int flash_addr) { EFLASH_Init(g_sys_clk/1000); EFLASH_SetWritePermission(); EFLASH_Write(flash_addr,updata_p,length); EFLASH_ClrWritePermission(); return 0; } unsigned int ota_ui(unsigned int addr , unsigned char * ota_lt_buf , unsigned int length,unsigned short offset)//2048 一页 { // for(unsigned char i=0;i<1;i++) // { // pWrBuf = &(vcom_buf[id][i*2048]); // pageAddr = (vcom_rp[id].wrAddr+i*2048)/2048; W25N01GV_WritePageAddr_Data(ota_lt_buf,offset,addr,length); // } return 0; } /* Idle interrupt reception(SCI1) */ /*For debug */ uint8_t Rx_Buffer_short[512] = {0}; //256 uint16_t Rx_Count_short = 0; #include "dmac_drv.h" #define Uart_Channel 2 //DMA channel DMA_CHANNEL_REG *sci_dma_channel[2][DMAC_CHNUM] = {{(DMA_CHANNEL_REG *)(DMA1_BASE_ADDR ),(DMA_CHANNEL_REG *)(DMA1_BASE_ADDR + 0x58 ), (DMA_CHANNEL_REG *)(DMA1_BASE_ADDR + 0xB0 ),(DMA_CHANNEL_REG *)(DMA1_BASE_ADDR + 0x108)}, {(DMA_CHANNEL_REG *)(DMA2_BASE_ADDR ),(DMA_CHANNEL_REG *)(DMA2_BASE_ADDR + 0x58 ), (DMA_CHANNEL_REG *)(DMA2_BASE_ADDR + 0xB0 ),(DMA_CHANNEL_REG *)(DMA2_BASE_ADDR + 0x108)}};//global struct variable for for Channel registers DMA_CONTROL_REG *sci_dma_control[2] = {(DMA_CONTROL_REG*)(DMA1_BASE_ADDR+0x2C0), (DMA_CONTROL_REG*)(DMA2_BASE_ADDR+0x2C0)};//global struct variable for for DMAC registers uint16_t dma_uartRX(UART_TypeDef *UARTx,uint8_t n, uint8_t *dest,uint32_t len) { uint8_t dmaNum = 0; uint16_t ret = 0; uint16_t temp = 0; if(UARTx == SCI2) { dmaNum =1; } else //SCI1 SCI3 { dmaNum =0; } sci_dma_control[dmaNum]->DMA_CHEN &= (~(CHANNEL_WRITE_ENABLE(n)|CHANNEL_ENABLE(n)));////DMA disable sci_dma_control[dmaNum]->DMA_CONFIG = 0; sci_dma_channel[dmaNum][n]->DMA_SADDR = (uint32_t)&UARTx->SCIDRL; sci_dma_channel[dmaNum][n]->DMA_DADDR = (uint32_t)dest; sci_dma_channel[dmaNum][n]->DMA_CTRL = DIEC|SNOCHG|P2M_DMA; sci_dma_channel[dmaNum][n]->DMA_CTRL_HIGH = len; sci_dma_control[dmaNum]->DMA_CONFIG = 1; sci_dma_channel[dmaNum][n]->DMA_CFG = (HS_SEL_SRC_HARD)|(HS_SEL_DST_SOFT)|(FIFO_EMPTY)|(CH_PRIOR2); if(UARTx == SCI1) { sci_dma_channel[dmaNum][n]->DMA_CFG_HIGH = (0xb<<7); } else if(UARTx == SCI2) { sci_dma_channel[dmaNum][n]->DMA_CFG_HIGH = (0x0<<7); } else { sci_dma_channel[dmaNum][n]->DMA_CFG_HIGH = (0xd<<7); } sci_dma_control[dmaNum]->DMA_CHEN |= (CHANNEL_WRITE_ENABLE(n)|CHANNEL_ENABLE(n)); return ret; } uint32_t DMA_uart_GetRecvLen(UART_TypeDef *UARTx,uint8_t n) { uint8_t dmaNum = 0; if(UARTx == SCI2) { dmaNum =1; } else //SCI1 SCI3 { dmaNum =0; } return sci_dma_channel[dmaNum][n]->DMA_CTRL_HIGH; } void SCI1_DMA_Init(unsigned int pclk,unsigned int bound) { uint32_t band_rate=0; NVIC_Init(0, 0, SCI1_IRQn, 2); SCI1->SCIBRDF=(((pclk*8/bound)+1)/2)&0x003f; band_rate =(pclk*4/bound)>>6; SCI1->SCIBDH =(uint8_t)((band_rate>>8)&0x00ff); SCI1->SCIBDL =(uint8_t)(band_rate&0x00ff); SCI1->SCICR1 &=~(1<<4); //Data frame??1+8+1 SCI1->SCICR1 &=~(1<<1); //No verification SCI1->SCIRXTOCTR = 64; SCI1->SCIFCR = 0; SCI1->SCIFCR |= (SCIFCR_RFEN|SCIFCR_RXFLSEL_1_8|SCIFCR_TXFLSEL_1_8); //RX FIFOenable SCI1->SCIFCR2 |= (SCIFCR2_RXFCLR|SCIFCR2_RXFTOE); //clean fifo , time over SCI1->SCICR1 |= SCICR1_ILT_MASK; //Idle frame starts from end bit SCI1->SCICR2 |= (SCICR2_TE_MASK|SCICR2_RE_MASK|SCICR2_ILIE_MASK); //Idle interrupt, receive, send enable // SCI3->SCICR2 |= SCICR2_RE_MASK; SCI1->SCIDCR |= SCIDCR_RXDMAE_MASK; //Uart_DMA enable dma_uartRX(SCI1,Uart_Channel, Rx_Buffer_short,256); } void SCI3_DMA_Init(unsigned int pclk,unsigned int bound) { uint32_t band_rate=0; NVIC_Init(0, 0, SCI3_IRQn, 2); SCI3->SCIBRDF=(((pclk*8/bound)+1)/2)&0x003f; band_rate =(pclk*4/bound)>>6; SCI3->SCIBDH =(uint8_t)((band_rate>>8)&0x00ff); SCI3->SCIBDL =(uint8_t)(band_rate&0x00ff); SCI3->SCICR1 &=~(1<<4); //Data frame??1+8+1 SCI3->SCICR1 &=~(1<<1); //No verification SCI3->SCIRXTOCTR = 64; SCI3->SCIFCR = 0; SCI3->SCIFCR |= (SCIFCR_RFEN|SCIFCR_RXFLSEL_1_8|SCIFCR_TXFLSEL_1_8); //RX FIFOenable SCI3->SCIFCR2 |= (SCIFCR2_RXFCLR|SCIFCR2_RXFTOE); //clean fifo , time over SCI3->SCICR1 |= SCICR1_ILT_MASK; //Idle frame starts from end bit SCI3->SCICR2 |= (SCICR2_TE_MASK|SCICR2_RE_MASK|SCICR2_ILIE_MASK); //Idle interrupt, receive, send enable // SCI3->SCICR2 |= SCICR2_RE_MASK; SCI3->SCIDCR |= SCIDCR_RXDMAE_MASK; //Uart_DMA enable dma_uartRX(SCI3,Uart_Channel, Rx_Buffer_short,256); } //void SCI1_IRQHandler(void) //{ // uint16_t tmp,ret; // uint8_t clear_idle_flag; // UART_TypeDef *UARTx=SCI1; // //UART_Enter idle interrupt // if(UARTx->SCISR1 & SCISR1_IDLE_MASK) //The receiver is idle // { // //清除标志位 // while((UARTx->SCIFSR&SCIFSR_REMPTY_MASK) == 0) //FIFO not empty, Wait for the received data to be transmitted to DMA // { // if( UARTx->SCIFSR& (SCIFSR_RFULL_MASK|SCIFSR_RTOS_MASK) ) //FIFO overflow??receive time-out // { // break; // } // } // tmp = UARTx->SCIDRL; // UARTx->SCIFCR2 |= SCIFCR2_RXFCLR; // Rx_Count_short = DMA_uart_GetRecvLen(UARTx,Uart_Channel); //// gUsartRx.Flag = 1; // printf("len:%d\r\n",Rx_Count_short); // // SCI3->SCICR2 |= SCICR2_RE_MASK; // // SCI3->SCIDCR |= SCIDCR_RXDMAE_MASK; //Uart_DMA enable //// for(unsigned char i = 0 ; i < Rx_Count_short;i++ ) //// { //// printf(" %x ",Rx_Buffer_short[i]); //// } //// number1++; // dma_uartRX(UARTx,Uart_Channel, Rx_Buffer_short,256); // ota_lt7689_flag=1; // // clear_idle_flag = SCI1->SCIDRL; // clear_idle_flag = SCI1->SCISR1; // } //} unsigned char ui_buf[2050]; unsigned int ui_offset=0; unsigned short block = 0; unsigned int page = 0; unsigned int ui_addr =0x00000000; unsigned char last_flag = 0; // SCI3 DMA #if 1 void SCI3_IRQHandler(void) { uint16_t tmp,ret; uint8_t clear_idle_flag; UART_TypeDef *UARTx=SCI3; //UART_Enter idle interrupt if(UARTx->SCISR1 & SCISR1_IDLE_MASK) //The receiver is idle { //清除标志位 while((UARTx->SCIFSR&SCIFSR_REMPTY_MASK) == 0) //FIFO not empty, Wait for the received data to be transmitted to DMA { if( UARTx->SCIFSR& (SCIFSR_RFULL_MASK|SCIFSR_RTOS_MASK) ) //FIFO overflow??receive time-out { break; } } tmp = UARTx->SCIDRL; UARTx->SCIFCR2 |= SCIFCR2_RXFCLR; Rx_Count_short = DMA_uart_GetRecvLen(UARTx,Uart_Channel); gUsartRx.Flag = 1; printf("len:%d\r\n",Rx_Count_short); // SCI3->SCICR2 |= SCICR2_RE_MASK; // SCI3->SCIDCR |= SCIDCR_RXDMAE_MASK; //Uart_DMA enable // for(unsigned char i = 0 ; i < Rx_Count_short;i++ ) // { // printf(" %x ",Rx_Buffer_short[i]); // } number1+=Rx_Count_short; // ui_offset+=Rx_Count_short; // Rx_Count_short=0; dma_uartRX(UARTx,Uart_Channel, Rx_Buffer_short,256); #if 1 // UI_bin #endif if(Rx_Count_short<256) { last_flag = 1; ota_lt7689_flag=1; } ota_lt7689_flag=1; clear_idle_flag = SCI1->SCIDRL; clear_idle_flag = SCI1->SCISR1; if(Rx_Count_short<256) printf("number1=%d\r\n",number1); } } #endif #if 0 // SCI3 接收 /空闲中断 void SCI3_IRQHandler(void) { // uint8_t ch = 0; // printf("SCI3!\r\n"); WDT_FeedDog(); if ((SCI3->SCISR1 & 0x20) == 0x20) { // Rx_Buffer_short[Rx_Count_short++]=SCI3->SCIDRL; ui_buf[ui_offset++]=SCI3->SCIDRL; // ch = SCI3->SCIDRL; // number1++; if(ui_offset%2048==0) { ota_lt7689_flag=1; // ui_buf_length=0; } else if(ui_offset%2048==288) { ota_lt7689_flag=1; last_flag = 1; } } #if 0 if((SCI3->SCISR1 & 0x10) == 0x10) //空闲中断 { //清除标志位 unsigned char clear_idle_flag; clear_idle_flag = SCI3->SCIDRL; clear_idle_flag = SCI3->SCISR1; if(ui_buf_length==2048) { ui_buf_length=0; } // ota_lt7689_flag=1; printf("number1=%d\r\n",number1); } #endif } #endif