void Camera_Test(void)
{
int i;
SetSysFclk(FCLK_220M); //设置系统时钟 220M
ChangeClockDivider(1, 1); //设置分频 1：2：4
CalcBusClk(); //计算总线频
Uart_Select(0);
Uart_Init(0, 115200);
Uart_Printf("\nCamera Preview Test\n");
CamReset();
// Initializing camif
rCLKCON |= (1<<19); // enable camclk
CamPortSet();
ChangeUPllValue(56, 2, 1); // UPLL clock = 96MHz, PLL input 12MHz
rCLKDIVN|=(1<<3); // UCLK 48MHz setting for UPLL 96MHz
// 0:48MHz, 1:24MHz, 2:16MHz, 3:12MHz...
// Camera clock = UPLL/[(CAMCLK_DIV+1)X2]
SetCAMClockDivider(CAMCLK24000000); //Set Camera Clock 24MHz s5x532, OV9650
i = Test_OV9650();
if( i )
{
Uart_Printf("\nTest is failed!!!\n");
return ;
}
Uart_Printf("Initializing end...\n");
Test_CamPreview() ;
Uart_Printf("\nCamera Preview Test End\n");
rCLKCON &= ~(1<<19); // disable camclk
TFT_Init();
SetSysFclk(FCLK_400M); //设置系统时钟 400M
ChangeClockDivider(2, 1); //设置分频 1：4：8
CalcBusClk(); //计算总线频
Uart_Select(0);
Uart_Init(0, 115200);
}
//
// Function: _InitModem
//
// Description: Initialization of Radio Modem
//
// Return Values:
//
// Name Explanation
// ----------- -------------------------------------------------------------------
// RetStatus Error code
//
int _InitModem( t_boolean FirstTime )
{
int RetStatus = RM_SUCCESS;
time_t ltime;
HeapBuffDef *pHeap = Data_GetHeapPtr();
pHeap->DataLength = 0; //Initialization of Main Heap Buffer
RM_InitPrint( "ErrorRM.txt" ); //I need to put here fileName of error log file
time( <ime );
PrintLogMessage( "[I] Initialization started at: ", ctime( <ime ), 0 );
//Initialization of internal memory manager
if ( (RetStatus = Mem_Init( FirstTime )) != RM_SUCCESS )
PrintError( "[E] InitModem ( Memory Error )", "RetStatus:", RetStatus );
//Initialization of internal queues
QueueInit(FirstTime);
#ifdef RM_STANDALONE
Uart_Init();
#endif
if ( (RetStatus = VRM_Init(UNCONFIRMED)) == RM_SUCCESS )
PrintError( "InitModem: COMPLETED", "", 0 );
else
{
PrintError( "InitModem: FATAL ERROR", "Power cycle your modem. RetStatus:", RetStatus );
}//end else
return( RetStatus );
}//RM_InitModem
int main(void ){
Uart_Init();
CoreScheduler_Init();
CoreScheduler_RegisterJob(jobIndex[0], Function0);
CoreScheduler_RegisterJob(jobIndex[1], Function1);
CoreScheduler_RegisterJob(jobIndex[2], Function2);
CoreScheduler_RegisterJob(jobIndex[3], Function3);
CoreScheduler_RegisterJob(jobIndex[4], Function4);
CoreScheduler_RegisterJob(jobIndex[5], Function5);
CoreScheduler_RegisterJob(jobIndex[6], Function6);
CoreScheduler_RegisterJob(jobIndex[7], Function7);
CoreScheduler_RegisterJob(jobIndex[8], Function8);
CoreScheduler_RegisterJob(jobIndex[9], Function9);
#if defined(CoreScheduler_EnableCheckRetrig)
//Data_1Byte i;
//for(i = 0; i < 10; i++) CoreScheduler_AllowRetrigger(jobIndex[i], (i % 2 == 0)?TRUE:FALSE);
#endif
Uart_Uart1RXCompleteInterruptFunction = CommandIn;
CoreMemory_Init();
if(CoreMemory_MemorySpaceVerify()){
Uart_Transmit(Uart_Uart1DeviceIdentify, 0xB8);
}
else{
Uart_Transmit(Uart_Uart1DeviceIdentify, 0xC7);
}
CoreTimer_Init();
CoreTimer_EnableBaseTimer(TRUE);
CoreScheduler_RunLoop();
while(1);
return 0;
}
interrupt(PORT1_VECTOR) Buttopn(void)
{
P1IFG &= ~0x04;
P1OUT ^= 0x03;
//after press the button , we can send and recieve message
BSP_Init();
MRFI_Init();
MRFI_SetLogicalChannel(1);
MRFI_SetRFPwr(0);
Uart_Init();
MRFI_WakeUp();
MRFI_RxOn();
Scan_Init(&etat); //open timer B for scan
Start_Timer_Surveille(); //open timer for surveille
print("\n\r");
print("command: \n\r");
print("o : who is on line \n\r");
print("v : voisin \n\r");
print("r : router table \n\r");
print("i : sysinfo \n\r");
print("ESC: help \n\r");
}
/*--- codigo de la funcion ---*/
int Main(void){
char *pt_str = str;
leds_off();
sys_init(); // inicializacion de la placa, interrupciones, puertos
Eint4567_init();
keyboard_init();
Uart_Init(115200); // inicializacion de la Uart
Uart_Config(); // configuración de interrupciones y buffers
while(1){
*pt_str = Uart_Getch1(); // leer caracter
if(pt_str[0] == 'L'){
led1_on();
led2_off();
} else if (pt_str[0] == 'R'){
led2_on();
led1_off();
}
else {
D8Led_symbol(pt_str[0]-'0');
}
}
}
int main(void)
{
_U08 u8Config;
ANCON0 = 0XFF; /*Desactivamos las entradas analógicas*/
ANCON1 = 0XFF; /*Desactivamos las entradas analógicas*/
Gpios_PinDirection(GPIOS_PORTD, 0, GPIOS_INPUT); /*SCL2*/
Gpios_PinDirection(GPIOS_PORTD, 1, GPIOS_INPUT); /*SDA2*/
Gpios_PinDirection(GPIOS_PORTC, 6, GPIOS_OUTPUT); /*puerto de tx uart como salida*/
(void)Uart_Init(UART_PORT1, 115200); /*velocidad a 115200 bauds*/
xdev_out(putChar); /*funcion Uart_PutChar como salida estandar*/
I2c_Init(I2C_PORT2, 100000); /*puerto I2C 2 a 100KHz de velocidad*/
I2c_Start(I2C_PORT2); /*generamos condicion start*/
(void)I2c_bTxByte(I2C_PORT2, ADDR_WRITE(0b1001101)); /*madamos direccion del sensor en modo escritura*/
(void)I2c_bTxByte(I2C_PORT2, 0x01); /*mandamos direccion a leer*/
I2c_RepeatedStart(I2C_PORT2); /*repetimos señal start*/
(void)I2c_bTxByte(I2C_PORT2, ADDR_READ(0b1001101)); /*madmaos direccion del sensor en modo lectura*/
u8Config = I2c_u8RxByte(I2C_PORT2, I2C_NACK); /*leemos dato leido y contestamos NACK*/
I2c_Stop(I2C_PORT2); /*indicamos fin de comunicacion*/
/*mostramos por serial el byte leido el cual tendra el valor de 0x40, indica sensor listo*/
xprintf("Registro config: 0x%X\r\n", (_U16)u8Config);
while (1)
{
/*Escribe aqui tu aplicacion*/
}
}
//------------------------------------------------------------------------------
// ===== main_init =====
//------------------------------------------------------------------------------
void main_init(void)
{
cbi(SREG,7); //all interrupt disable
//ADC
ADMUX = 0x40; //ADC 초기화
ADCSRA = 0x87; //ADC Enable, 분주비=128
cbi(DDRF,0); //ADC1 핀 입력으로 설정
sbi(SREG,7); //모든 인터럽트 활성화
//USART
Uart_Init(0,9600); // uart enable
Uart_Init(1,9600);
sbi(SREG,7);
}
void Init_Fun(void)
{
UART_SEND;
Flash_IO_Init();
Delay_Init();
Uart_Init();
ADC_Init_Fun();
EEPROM_IO_Init();
Key_IO_Init();
Cartridge_Type_Check();
UART_RECEIVE;
Flash_Times = Read_Num_From_EEPROM();
if(Flash_Times >= Flash_Times_Level8)
{
Flash_Times_Level = Flash_Times_Level_9;
Low_Lamp = 1;
}else{
Low_Lamp = 0;
if(Flash_Times >= Flash_Times_Level7)
{
Flash_Times_Level = Flash_Times_Level_8;
}else{
if(Flash_Times >= Flash_Times_Level6)
{
Flash_Times_Level = Flash_Times_Level_7;
}else{
if(Flash_Times >= Flash_Times_Level5)
{
Flash_Times_Level = Flash_Times_Level_6;
}else{
if(Flash_Times >= Flash_Times_Level4)
{
Flash_Times_Level = Flash_Times_Level_5;
}else{
if(Flash_Times >= Flash_Times_Level3)
{
Flash_Times_Level = Flash_Times_Level_4;
}else{
if(Flash_Times >= Flash_Times_Level2)
{
Flash_Times_Level = Flash_Times_Level_3;
}else{
if(Flash_Times >= Flash_Times_Level1)
{
Flash_Times_Level = Flash_Times_Level_2;
}else{
Flash_Times_Level = Flash_Times_Level_1;
}
}
}
}
}
}
}
}
}
static void init_system_component() {
// timer
init_system_tick();
// ble
Uart_Init();
// DRIVER_IO
driver_io_init();
}
int main(void)
{
Gpios_PinDirection(GPIOS_PORTD, 1, GPIOS_OUTPUT); /*pin de tx como salida*/
(void)Uart_Init(UART_PORT0, 57600); /*se iniclaiza el puerto serial a 115200 baudios*/
while (1)
{
Uart_PutString(UART_PORT0, (const _U08*)"Hola mundo\n\r"); /*se manda mensaje por puerto serial*/
Delays_ms(1000); /*se cicla por 1 seg*/
}
}
void TargetInit(void)
{
int i;
U8 key;
U32 mpll_val=0;
#if ADS10
__rt_lib_init(0,0); //for ADS 1.0
#endif
i = 2 ; //use 400M!
switch ( i ) {
case 0: //200
key = 12;
mpll_val = (92<<12)|(4<<4)|(1);
break;
case 1: //300
key = 14;
mpll_val = (67<<12)|(1<<4)|(1);
break;
case 2: //400
key = 14;
mpll_val = (92<<12)|(1<<4)|(1);
break;
case 3: //440!!!
key = 14;
mpll_val = (102<<12)|(1<<4)|(1);
break;
default:
key = 14;
mpll_val = (92<<12)|(1<<4)|(1);
break;
}
//init FCLK=400M
ChangeClockDivider(key, 12);
ChangeMPllValue((mpll_val>>12)&0xff, (mpll_val>>4)&0x3f, mpll_val&3);
//MMU_EnableICache();
//MMU_EnableDCache();
MMU_DisableICache();
MMU_DisableDCache();
Port_Init();
MMU_Init();
Delay(0);
Uart_Init(0,115200);
Uart_Select(0);
Uart_SendString("Board init complete.\n");
}
void Main(void)
{
//硬件初始化
var_Init();//初始化定时器相关的参数
Port_Init();//IO端口初始化
Isr_Init();//中断初始化
Uart_Init(0,115200);//串口初始化
Uart_Select(0);
_init_alloc(0x32500000,0x333fffff);//初始化堆地址：15M，使能malloc等存储分配函数
setlocale(LC_ALL,"C");//使能本地函数，如sprintf等
Timer4_Init();
lcdTest();
}
void Main(void)
{
Port_Init(); //IO端口初始化
Isr_Init(); //中断初始化
Uart_Init(0,115200);//串口初始化
Uart_Select(0);
Uart_Printf("\n\nDM2410 Experiment System (ADS) Ver1.10\n") ;//打印系统信息
Test_SDI();
}
void Main(void)
{
memcpy((unsigned char *)0x0,(unsigned char *)0x30000000,0x1000);
SetSysFclk(FCLK_400M); //设置系统时钟 400M
ChangeClockDivider(2, 1); //设置分频 1：4：8
CalcBusClk(); //计算总线频
Uart_Select(0);
Uart_Init(0, 115200);
Test_Nand();
while(1);
}
void sys_init()// Interrupt,Port and UART
{
/* enable interrupt */
rINTMOD=0x0;
rINTCON=0x1;
rI_ISPC = 0xffffffff; /* clear all interrupt pend */
rEXTINTPND = 0xf; // clear EXTINTPND reg
Port_Init(); /* Initial 44B0X's I/O port */
LED8ADDR = 0 ;
Led_Display(0xf);
Delay(0); /* delay time */
Uart_Init(0,115200); /* Initial Serial port 1 */
}
void TargetInit(void)
{
int i;
U8 key;
U32 mpll_val=0;
i = 2 ; //use 400M!
switch ( i ) {
case 0: //200
key = 12;
mpll_val = (92<<12)|(4<<4)|(1);
break;
case 1: //300
key = 14;
mpll_val = (67<<12)|(1<<4)|(1);
break;
case 2: //400
key = 14;
mpll_val = (92<<12)|(1<<4)|(1);
break;
case 3: //440!!!
key = 14;
mpll_val = (102<<12)|(1<<4)|(1);
break;
default:
key = 14;
mpll_val = (92<<12)|(1<<4)|(1);
break;
}
//init FCLK=400M, so change MPLL first
ChangeMPllValue((mpll_val>>12)&0xff, (mpll_val>>4)&0x3f, mpll_val&3);
ChangeClockDivider(key, 12);
MMU_DisableICache();
MMU_DisableDCache();
Port_Init();
MMU_Init();
_init_alloc(0x17fe000, 0x17ff000);/*分配堆的起始地址和结束地址，4k的空间*/
Delay(0);
Uart_Init(0,115200);
Uart_Select(0);
Uart_SendString("Board init complete.\n");
}
void sys_init()// Interrupt,Port and UART
{
Port_Init(); /* Initial 44B0X's I/O port */
/* enable interrupt */
rINTMOD=0x0;
rINTCON=0x1;
rEXTINT = 0x22222222; // level mode
rI_ISPC = 0xffffffff; /* clear all interrupt pend */
rEXTINTPND = 0xf; // clear EXTINTPND reg
LED8ADDR = 0 ;
Delay(0);
Led_Display(0xf);
Uart_Init(0,115200); /* Initial Serial port 1 */
}
int main(){
int muxpin[4] = {19,18,17,16};
Uart_Init(57600);
Uart_Print("Uart Inited\n\r");
SPI_InitMaster(16);
Mux_Init(&MBMux,20,muxpin);
Encoder_Init(&MBMux);
Uart_Print("SPI Encoder Inited\n\r");
Joystick_Init();
GPIO_Init(31,OUTPUT);
Timer_Init(0,100,Timer_Rountine);
return 0;
}
int main()
{
SystemCoreClockUpdate();
Uart_Init();
Logging_Init();
MCP9808_Init();
Uart_Setup(9600);
while(1)
{
Uart_Idle();
Logging_Idle();
MCP9808_Idle();
}
}
/********************************************************************
// 语法格式 : void Main(void)
// 功能描述 : DMA操作实验主程序
// 实现功能：
// 实现DMA方式内存到内存的拷贝动作，修改DMA设置
// 并比较其工作效率，实验包括：DMA0-DMA3
// 入口参数 : 无
// 出口参数 : 无
*********************************************************************/
void Main(void)
{
memcpy((U8 *)0x0,(U8 *)0x30000000,0x1000);
SetSysFclk(FCLK_400M); //设置系统时钟 400M
ChangeClockDivider(2,1); //设置分频 1：4：8
CalcBusClk(); //计算总线频
Uart_Select(0);
Uart_Init(0,115200);
Uart_Printf("\n---DMA操作实验主程序---\n");
Test_DMA();
Uart_Printf("\nDMA测试结束\n");
while(1);
}
int main(void)
{
ANCON0 = 0XFF; /*Desactivamos las entradas analogicas*/
ANCON1 = 0XFF; /*Desactivamos las entradas analogicas*/
Gpios_PinDirection(GPIOS_PORTC, 6, GPIOS_OUTPUT); /*pin de tx como salida*/
Gpios_PinDirection(GPIOS_PORTC, 7, GPIOS_INPUT); /*pin de rx como entrada*/
(void)Uart_Init(UART_PORT1, 9600); /*se iniclaiza el puerto serial a 9600 baudios*/
__ENABLE_INTERRUPTS(); /*habilitamos interrupciones globales*/
while (1)
{
if(gbFlag == 1) /*llego un caracter por teclado*/
{
gbFlag = 0; /*limpiamos la bandera*/
Uart_PutChar(UART_PORT1, gu8RxData);/*lo enviamos de regreso para tener feedback visual*/
}
}
}
char Uart()
{
char id[20]={};
char nz[]={0x37,0x34,0x39};
char sj;
char x,xx;
char y=0;
int data;
Uart_Init(0,9600);
Uart_Select(1);
bz=0;
if(rUTRSTAT1 & 0x1)
{
for(y=0;y<8;y++)
{
sj=Uart_Getch();
id[y]=sj;
}
}
if(id[2]==nz[1])
{
bz=1;
}
else
bz=0;
if(id[0]!=0)
{
x = id[1];
xx=id[2];
}
return bz;
}
//====================================================
// 语法格式：void Main(void)
// 功能描述: 主函数
// 入口参数: 无
// 出口参数: 无
//====================================================
void Main(void)
{
memcpy((unsigned char *)0x0,(unsigned char *)0x30000000,0x1000);
SetSysFclk(FCLK_400M); //设置系统时钟 400M
ChangeClockDivider(2, 1); //设置分频 1：4：8
CalcBusClk(); //计算总线频
Uart_Select(0);
Uart_Init(0, 115200); //设置端口 波特率115200 无数据流检测 数据位= 8位
Select_Device(IrDA);
IrDA_Port_Set();
Uart_Printf("\2440 IrDA Test start\n");
while(1)
{
Test_IrDA_Tx();
}
}
int main(void)
{
_S08 i8Temp;
ANCON0 = 0XFF; /*Desativamos las entradas analógicas*/
ANCON1 = 0XFF; /*Desativamos las entradas analógicas*/
Gpios_PinDirection(GPIOS_PORTD, 0, GPIOS_INPUT); /*SCL2*/
Gpios_PinDirection(GPIOS_PORTD, 1, GPIOS_INPUT); /*SDA2*/
Gpios_PinDirection(GPIOS_PORTC, 6, GPIOS_OUTPUT); /*puerto de tx uart como salida*/
(void)Uart_Init(UART_PORT1, 115200); /*velocidad a 115200 bauds*/
xdev_out(putChar); /*funcion Uart_PutChar como salida estandar*/
I2c_Init(I2C_PORT2, 100000); /*puerto I2C 2 a 100KHz de velocidad*/
while (1)
{
i8Temp = Tc74ax_ReadTemp(TC74A5);
/*mostramos por serial el byte leido el cual tendra el valor de la temp ambiental*/
xprintf("Temperatura ambiente: %d\r", (_S16)i8Temp);
Delays_ms(1000);
}
}
void Dvs_Test(void)
{
volatile int i, n;
Uart_Printf("Dvs test.\n");
rGPGCON = (rGPGCON & ~(3<<22)) | (1<<22); // set GPG11 output for idle state.
rBANKSIZE = (rBANKSIZE & ~(3<<4)) | (0<<4) | (1<<7); //SCKE_EN, SCLK_EN = disable.
Uart_Printf("Change core speed to 266MHz.\n");
#if FIN==12000000
ChangeClockDivider(13, 12); // 1:3:6
#if CPU2440A==1
ChangeMPllValue(127,2,1); // 406MHz
#else // 2440X
ChangeMPllValue(127,2,0); // 406MHz
#endif
#else // 16.9344Mhz
ChangeClockDivider(13, 12);
#if CPU2440A==1
ChangeMPllValue(110,3,1); // 400MHz
#else // 2440X
ChangeMPllValue(110,3,0); // 400MHz
#endif
#endif
Calc_Clock(1);
UPDATE_REFRESH(Hclk);
Uart_Init(Pclk, 115200);
Uart_Printf("Check Clkout0:FCLK, Clkout1:HCLK.\n");
// Clkout0: FCLK.
Clk0_Enable(2);
// Clkout1: HCLK.
Clk1_Enable(3);
#if ADS10==TRUE
srand(0);
#endif
Led_Display(0); // clear all leds.
Timer_Setting();
Set_Lcd_Tft_16Bit_240320_Dvs();
Uart_Printf("Tcnt, Vcnt, Idle_flag.\n");
Uart_Printf("%8d,%8d,%1d\n", Timer_cnt0, Vcount, Idle_flag);
while(1) {
//Uart_Printf("\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b");
Uart_Printf("%8d,%8d,%1d\n", Timer_cnt0, Vcount, Idle_flag);
for(i=0; i<1024*32; i+=4) {
//*(U32 *)(XADDR+i) = i;
//*(U32 *)(XADDR+i);
}
if(Uart_GetKey()==ESC_KEY) break;
}
rINTMSK = BIT_ALLMSK;
}
/**
* main - main application loop. Sets up platform and then performs simple
* transfers (simplex) while incrementing the sequence number for the lifetime
* of execution.
*
* @return Exit code of the main application, however, this application
* should never exit.
*/
int main(void)
{
RCC_ClocksTypeDef RCC_ClockFreq;
RCC_GetClocksFreq(&RCC_ClockFreq);
if (SysTick_Config(RCC_ClockFreq.HCLK_Frequency/1000))
{
/* Capture error */
while (1);
}
Il_Hw_Init();
Init_SI4463_Pin();
vRadio_Init();
ClkSwitch2HseSystemInit();
RCC_GetClocksFreq(&RCC_ClockFreq);
if (SysTick_Config(RCC_ClockFreq.HCLK_Frequency/1000))
{
/* Capture error */
while (1);
}
Il_Hw_Init();
Uart_Init();
Init_SI4463_Pin();
//TimingBaseInit(50000);
// while(1)
// {
//// //LedD4StaInvert();
//// GPIOB->BSRR = 0x00000040;
//// GPIOB->BRR = 0x00000040;
// }
//EXTILine_TimingSync_Config();
//si446x_get_int_status(0u, 0u, 0u);
uint8_t testBuff[6]={0x05,0xD0,0x01,0x02,0x03,0xD6};
//UartSendByte(testBuff, 6);
vRadio_StartRX(pRadioConfiguration->Radio_ChannelNumber);
RadioGotoRxSta();
SI4463_Enable_NIRQ_Int();
if (!ProtocolInit(&gProtocolSetupInfo))
{
return false;
}
while(true)
{
if(GetPubRxBufCount()>0x00)
{
//UartSendByte(timMark, 1);
//UartSendByte(uartRxDataBuff, uartRxCount);
//uartDataProcess();
PubRxDataProcess();
}
if(GetPubTxBufCount()>0x00)
{
PubTxDataProcess();
}
if (!ProtocolBusy())
{
// Increment the sequence number for the next transmission.
gPacket.seqNum++;
}
}
// while (true)
// {
// // Perform a simple transfer of the packet.
// if (!ProtocolSimpleTransfer((unsigned char*)&gPacket, sizeof(struct sPacket)))
// {
// // Put the microcontroller into a low power state (sleep). Remain here
// // until the ISR wakes up the processor.
// //McuSleep();
// }
//
// /**
// * Check if the protocol is busy. If it is, a new transfer cannot occur
// * until it becomes ready for the next instruction. Do not increment the
// * sequence number until the protocol is ready. This prevents incrementing
// * the sequence number more than once between transmissions.
// */
// if (!ProtocolBusy())
// {
// // Increment the sequence number for the next transmission.
// gPacket.seqNum++;
// }
// }
}
void TargetInit(void)
{
int i;
U8 key;
U32 mpll_val=0;
#if ADS10
//_rt_lib_init(0,0); //for ADS 1.0
#endif
i = 2 ; //use 400M!
switch ( i ) {
case 0: //200
key = 12;
mpll_val = (92<<12)|(4<<4)|(1);
break;
case 1: //300
key = 14;
mpll_val = (67<<12)|(1<<4)|(1);
break;
case 2: //400
key = 14;
mpll_val = (92<<12)|(1<<4)|(1);
break;
case 3: //440!!!
key = 14;
mpll_val = (102<<12)|(1<<4)|(1);
break;
default:
key = 14;
mpll_val = (92<<12)|(1<<4)|(1);
break;
}
//init FCLK=400M, so change MPLL first
ChangeMPllValue((mpll_val>>12)&0xff, (mpll_val>>4)&0x3f, mpll_val&3);
ChangeClockDivider(key, 12);
//MMU_EnableICache();
//MMU_EnableDCache();
MMU_DisableICache();
MMU_DisableDCache();
Port_Init();
MMU_Init();
Touch_init();
Delay(0);
Uart_Init(0,115200);
Uart_Select(1);
//Uart_SendString("hello,FriendlyARM\n");
/*若使用printf语句，将使目标代码增加很多*/
// Uart_Printf("hello,qq2440, printf\n");
rGPBCON = 0x00555555;
rGPBDAT = 0x0000;
// rGPBDAT = 0x07ff;
rGPFDAT = 0x00;
rGPFDAT = 0x00;
// Delay(0);
}
/**
* main - main application loop. Sets up platform and then goes to sleep for
* the lifetime of execution.
*
* @return Exit code of the main application, however, this application
* should never exit.
*/
int main(void)
{
RCC_ClocksTypeDef RCC_ClockFreq;
RCC_GetClocksFreq(&RCC_ClockFreq);
if (SysTick_Config(RCC_ClockFreq.HCLK_Frequency/1000))
{
/* Capture error */
while (1);
}
Il_Hw_Init();
Init_SI4463_Pin();
vRadio_Init();
ClkSwitch2HseSystemInit();
RCC_GetClocksFreq(&RCC_ClockFreq);
if (SysTick_Config(RCC_ClockFreq.HCLK_Frequency/1000))
{
/* Capture error */
while (1);
}
Il_Hw_Init();
Uart_Init();
Init_SI4463_Pin();
//TimingBaseInit(50000);
// while(1)
// {
//// //LedD4StaInvert();
//// GPIOB->BSRR = 0x00000040;
//// GPIOB->BRR = 0x00000040;
// }
//EXTILine_TimingSync_Config();
//si446x_get_int_status(0u, 0u, 0u);
uint8_t testBuff[6]={0x05,0xD0,0x01,0x02,0x03,0xD6};
//UartSendByte(testBuff, 6);
vRadio_StartRX(pRadioConfiguration->Radio_ChannelNumber);
RadioGotoRxSta();
SI4463_Enable_NIRQ_Int();
if (!ProtocolInit(&gProtocolSetupInfo))
{
return false;
}
while(1)
{
if(GetPubTxBufCount()>0x00)
{
PubTxDataProcess();
}
}
}
/*------------------------------------------------------------------------------
FUNCTION NAME: Main_Init
DESCRIPTION: Main init function
PARAMETERS:
- INPUT:
- OUTPUT:
RETURN:
NOTES: Don't try to change the order of the function calls!
------------------------------------------------------------------------------*/
void Main_Init (void)
{
t_uchar Lines[2] = {9,END_OF_LINES};
char Msg[40];
#ifdef PC_TERMINAL
int RetVal;
t_uchar PrinterIndex, NumPrinters, Type, Port, Model;
t_boolean InvertScreen;
int LCDContrastOffset;
#endif
/* MAEL Version */
#if defined (FEDORA_VERSION)
srand48((long) time(NULL));
#else
#if !defined (NT_VERSION)
/* Standart Random generation init */
randomize ();
#else
/* Seed the random-number generator with current time so that
* the numbers will be different every time we run.
*/
srand( (unsigned)time( NULL ) );
#endif
#endif /* MAEL Version */
/*---------------------------------------------------*/
/* Set dos verify option to on and other DOS options */
/*---------------------------------------------------*/
#if !defined (NT_VERSION)
#if !defined (FEDORA_VERSION)
/* In Linux Verify is always on */
/* And cbreak does nothing */
setverify (1);
setcbrk (0);
#endif /* FEDORA_VERSION */
/* Set new Ctrl-Break handler */
#if defined (DOSX286)
DosSetPassToProtVec (0x1B, (PIHANDLER) Main_HandlerCtrlBreak,
&OldCtrlBrkProt, &OldCtrlBrkReal);
DosSetPassToProtVec (0x23, (PIHANDLER) Main_HandlerCtrlBreak,
&OldCtrlCProt, &OldCtrlCReal);
#else
#if defined (FEDORA_VERSION)
signal(SIGINT,SIG_IGN);
#else
ctrlbrk (Main_HandlerCtrlBreak);
#endif /* MAEL VERSION */
#endif
#endif
/*-------------*/
/* Nosdos Init */
/*-------------*/
/*----------*/
/* Init. Kb */
/*----------*/
#if defined (FEDORA_VERSION)
Kb_Init (KEYBOARD_STANDART);
#else
#if defined (TERMINAL_WT9602)
Kb_Init (KEYBOARD_WT9602);
#else
#if defined (TERMINAL_WT9603)
Kb_Init (KEYBOARD_WT9603);
#else
Kb_Init (KEYBOARD_STANDART);
#endif
#endif
#endif /* MAEL Version */
/*-----------------------*/
/* Init. display modules */
/*-----------------------*/
#if defined(FEDORA_VERSION)
#if defined(SVGALIB_MODE) || defined(XLIB_MODE)
GrphDisp_Init (240, 128, 8);
#else
GrphDisp_Init (40, 14, 8);
#endif
#else
#if defined(NT_VERSION)
GrphDisp_Init (40, 14, 8);
#else
GrphDisp_Init (240, 128, 8);
#endif
#endif /* MAEL Version */
GrphText_Init (240, 128, 8);
#if defined (TERMINAL_WT9602) || defined (TERMINAL_WT9603)
#if defined (LNSE)
GrphDisp_SetInvertScreen (FALSE);
#else
GrphDisp_SetInvertScreen (TRUE);
#endif
Util_SetLCDContrast (INITIAL_LCD_CONTRAST);
#endif
/* Init message */
GrphText_PopUp (54, 0, 240, Lines, TRUE);
strcpy (Msg, S0252);
GrphText_Cls (TRUE);
GrphText_Write (1, (t_uchar) ((40-strlen (Msg))/2*6), Msg, FONT_7X5, (t_uchar) strlen (Msg),
TRUE, FALSE);
/*-------------------------------------------------------*/
/* Ramdisk init (includes error handler for disk access) */
/*-------------------------------------------------------*/
RamDisk_Init ();
/* Init. Error logger */
Errlog_Init ();
/*------------*/
/* Init. UART */
/*------------*/
Uart_Init ();
/*----------------------*/
/* Init. Parallel ports */
/*----------------------*/
Parallel_Init ();
/*-----------------*/
/* End nosdos Init */
/*-----------------*/
/*-----------*/
/* App. Init */
/*-----------*/
/* Database Init */
DB_InitStaticData ();
RetVal = DB_LoadDBGlobal ();
if (RetVal != DB_OK)
{ /* ??? Disk error: ends application ??? */
} /* endif */
DB_InitDynamicData ();
/* Communication Init */
Comm_Init ();
#if defined (FEDORA_VERSION)
/* Ping IP address to initialize vpn */
TCPIP_Init_Tunnel();
/* Get and Apply last contrast value configured */
Display_GetAndApplyContrast();
#endif
/* Comm_Init for backup line if it is configured */
{
t_uchar CurrentLineType, OperationMode;
DB_OperationMode (&OperationMode);
if (OperationMode == OPERATIONMODE_REALONLINEBACKUP)
{
DB_CurrentLineType (&CurrentLineType);
/* Change current line type to backup line */
DB_GLOBAL_DYNAMIC.DB_CURRENT_LINETYPE = LINETYPE_BACKUP;
/* Init backup line */
Comm_PhysInitComm ();
/* Restore main line type */
DB_GLOBAL_DYNAMIC.DB_CURRENT_LINETYPE = CurrentLineType;
} /* endif */
}
/* Comm_Init for main line */
Comm_PhysInitComm ();
Comm_CommDeviceInit ();
/* App. protocol */
Prot_Init ();
#if defined(ENABLE_HOTLINE)
/* Init. Answer logger of hotline */
Hotline_Init ();
#endif
/* Devices init */
Devices_Init ();
/* Enable OMR device */
Devices_SetState (DEVCODE_OMR, DEVSTATE_ENABLED);
/*----------------------*/
/* Init. printer module */
/*----------------------*/
DB_NumPrinters (&NumPrinters);
for (PrinterIndex = 0; PrinterIndex < NumPrinters; PrinterIndex++)
{
DB_PrinterInfo (PrinterIndex, &Type, &Port, &Model);
Printer_Init (PrinterIndex, Type, Port, Model, TRUE);
} /* endfor */
/* Invert screen option */
DB_GetInvertScreen (&InvertScreen);
GrphDisp_SetInvertScreen (InvertScreen);
/* LCD Contrast */
DB_GetLCDContrastOffset (&LCDContrastOffset);
Util_SetLCDContrast (LCDContrastOffset);
/*----------------------*/
/* App. crc error check */
/*----------------------*/
DB_ChkAppCrcError ();
/*---------------*/
/* End App. Init */
/*---------------*/
/* Clear message from virtual display */
GrphText_Cls (FALSE);
GrphText_PopDown (FALSE);
} /* Main_Init */
void main(void)
{
register nPage;
unsigned char *pBuf;
unsigned char ucDID, ucHID;
unsigned char nCnt;
unsigned char uNumOfLoadPage = LOAD_PAGE_SIZE;
BOOL b4KPage = FALSE;
// Set up copy section (initialized globals).
//
// NOTE: after this call, globals become valid.
//
// SetupCopySection(pTOC);
// Enable the ICache.
// MMU_EnableICache();
// Set up all GPIO ports.
Port_Init();
#ifdef DEBUGUART
// UART initialize
Uart_Init();
//Uart_SendString("\r\n\r\nWince 5.0 1st NAND Bootloader (NBL1) for SMDK2443\r\n");
// Initialize the NAND flash interface.
Uart_SendString("NAND Initialize\r\n");
#endif
NAND_Init();
Read_DeviceID(0, &ucDID, &ucHID);
#ifdef DEBUGUART
Uart_SendString("Device ID : 0x");
Uart_SendBYTE(ucDID, 1);
Uart_SendString("Hidden ID : 0x");
Uart_SendBYTE(ucHID, 1);
#endif
if ( (ucDID == 0xd5 && ucHID == 0x14)
|| (ucDID == 0xd5 && ucHID == 0x94)
|| (ucDID == 0xd7 && ucHID == 0x55)
|| (ucDID == 0xd7 && ucHID == 0xD5) // for MLC
|| (ucDID == 0xd3 && ucHID == 0x10)) // for SLC
{
b4KPage = TRUE;
uNumOfLoadPage = LOAD_PAGE_SIZE/2;
}
// Turn the LEDs off.
Led_Display(0x0);
pBuf = (unsigned char *)LOAD_ADDRESS_PHYSICAL;
// MLC
// Page 0, 1 : Steploader
// Page 2 ~ 5 : empty page
// Page 6 ~ PAGES_PER_BLOCK-3 : effective page
// read pages with 0, 1 and 6 to PAGES_PER_BLOCK-3
nPage = 10;
for (nCnt = 0; nCnt < uNumOfLoadPage; nCnt++)
{
#ifdef OMNIBOOK_VER
Led_Display(0x1);
#else //!OMNIBOOK_VER
Led_Display(0x2);
#endif OMNIBOOK_VER
if (nPage >= (NAND_PAGE_PER_BLOCK-2) || (NAND_Read(0, nPage, pBuf, b4KPage) == FALSE))
{
#ifdef DEBUGUART
// Uncorrectable ECC Error
Uart_SendString("ECC Error @ Page 0x");
Uart_SendBYTE(nPage, 1);
#endif
#ifdef OMNIBOOK_VER
Led_Display(0x0);
#else //!OMNIBOOK_VER
Led_Display(0x9);
#endif OMNIBOOK_VER
while(1);
}
nPage++;
if (b4KPage == TRUE)
pBuf += NAND_BYTE_PER_PAGE*2;
else
pBuf += NAND_BYTE_PER_PAGE;
#ifdef OMNIBOOK_VER
Led_Display(0x2);
#else //!OMNIBOOK_VER
Led_Display(0x4);
#endif OMNIBOOK_VER
}
//Uart_SendString("Jump to 2nd Bootloader...\r\n");
// Uart_SendDWORD(LOAD_ADDRESS_PHYSICAL, 1);
// Turn the LEDs on.
//
#ifdef OMNIBOOK_VER
Led_Display(0x3);
#else //!OMNIBOOK_VER
Led_Display(0x5);
#endif OMNIBOOK_VER
#ifdef DEBUGUART
Uart_SendString("Jump to 2nd Bootloader...\r\n");
#endif
((PFN_IMAGE_LAUNCH)(LOAD_ADDRESS_PHYSICAL))();
}
