#define PD4 (*((volatile unsigned long *)0x )) #define PE3 (*((volatile unsigned long *)0x ))

Transcription

1 //Table 1: Character LCD pins with 1 Controller //**********************************************// //1 VSS Power supply (GND) //2 VCC Power supply (+5V) //3 VEE Contrast adjust //4 RS 0 = Instruction input //1 = Data input //5 R/W 0 = Write to LCD module //1 = Read from LCD module //6 EN Enable signal //7 D0 Data bus line 0 (LSB) //8 D1 Data bus line 1 //9 D2 Data bus line 2 //10 D3 Data bus line 3 //11 D4 Data bus line 4 //12 D5 Data bus line 5 //13 D6 Data bus line 6 //14 D7 Data bus line 7 (MSB) //*********************************************// //#include "inc/tm4c123gh6pm.h" #define PD2 (*((volatile unsigned long *)0x )) #define PD3 (*((volatile unsigned long *)0x )) #define PD4 (*((volatile unsigned long *)0x )) #define PD7 (*((volatile unsigned long *)0x )) #define PE1 (*((volatile unsigned long *)0x )) #define PE2 (*((volatile unsigned long *)0x )) #define PE3 (*((volatile unsigned long *)0x )) // Encoder A Pin // Encoder B Pin // RESET DDS // Encoder C Pin // Encoder D Pin #define RS (*((volatile unsigned long *)0x )) #define E (*((volatile unsigned long *)0x )) #define D0 (*((volatile unsigned long *)0x )) #define D1 (*((volatile unsigned long *)0x )) #define D2 (*((volatile unsigned long *)0x )) #define D3 (*((volatile unsigned long *)0x )) #define D4 (*((volatile unsigned long *)0x )) #define D5 (*((volatile unsigned long *)0x )) #define D6 (*((volatile unsigned long *)0x )) #define D7 (*((volatile unsigned long *)0x )) // Flash ROM addresses must be 1k byte aligned, e.g., 0x8000, 0x8400, 0x #define FLASH 0x10000 // location in flash to write; make sure no program code is in this block #define FLASH1 0x10010 #define FLASH2 0x10020 #define FLASH3 0x10060 #define FLASH4 0x10040 #define FLASH5 0x10050 #define FLASH6 0x10070 //fonctions// void interrupt_portd(void); void interrupt_porte(void); int Lcd_Cmd(int portb); int lcd_display(char *disp); int void Lcd_Init(void);

2 void write_ftw0_in_flash(); //float f_affichage; float f_affichage_bis; char s[20]; void ssi0putdata( int instruction,long data,int num_byte); int i; int j; uint32_t FTW0_memory[1]; uint32_t FTW1_memory[1]; uint32_t POW0_memory[1]; uint32_t POW1_memory[1]; uint32_t ACR0_memory[1]; uint32_t ACR1_memory[1]; uint32_t read_byte2; uint32_t read_flash2; uint32_t read_byte; uint32_t read_flash; uint32_t read_byte3; uint32_t read_flash3; uint32_t read_byte4; uint32_t read_flash4; uint32_t read_byte5; uint32_t read_flash5; uint32_t read_byte6; uint32_t read_flash6; unsigned char encoder_a; unsigned char encoder_b; unsigned char encoder_c; unsigned char encoder_d; float result = 0; float result_bis = 0; int OSK_value; int OSK; char test[9]='0','0','0','0','0','0','0','0'; char OSK_bis[5]='2','0','4','8'; long OSK1_affichage; long OSK1_affichage_bis; long OSK0_affichage; long OSK0_affichage_bis; long POW1_affichage; long POW1_affichage_bis; /* DDS AD9959 */ short FR1_ADRESS = 0x01; // AD9959 FR1 adresss Byte long FR1_NUM_BYTE = 0x03; // AD9959 byte number by FR1 long FR1 = 0xD00000; // VCO high gain, PLLx20 short CFR_ADRESS = 0x03; fonction registers long CFR; // AD9959 long CFR_NUM_BYTE = 0x03; short CSR_ADRESS = 0x00; long CSR0 = 0x10; long CSR1 = 0x20; long CSR2 = 0x40; long CSR3 = 0x80; // A9959 CFR address Byte channel // AD9959 byte number by CFR // AD9959 CSR adresss Byte // AD9959 CH0 MSB first // AD9959 CH1 MSB first // AD9959 CH2 MSB first // AD9959 CH3 MSB first

3 int CSR_NUM_BYTE = 0x01; short FTW_ADRESS = 0x04; float FTW0; float FTW1; int FTW_NUM_BYTE = 0x04; short POW_ADDRESS = 0x05; int POW_NUM_BYTE = 0x02; int POW0 = 0x0000; int POW1; int POW2 = 0x0000; int POW3 = 0x0000; // AD9959 byte number by CSR // AD9959 FTW adresss Byte // AD9959 byte number by FTW // AD9959 POW adresss Byte // AD9959 byte number by POW short ACR_ADDRESS = 0x06; // AD9959 ACR (Amp Ctrl Register)addresss Byte int ACR_NUM_BYTE = 0x03; // AD9959 byte number by ACR int ACR0 = 0x1250; // full DAC 10bits OV output int ACR1 = 0x1250; int ACR2 = 0x1050; int ACR3 = 0x1050; unsigned long Encoder_A(void) return PD3; // 0x08 if pressed, 0x00 if not pressed unsigned long Encoder_B(void) return PD2; // 0x04 if pressed, 0x00 if not pressed unsigned long Encoder_C(void) return PE2; // 0x04 if pressed, 0x00 if not pressed unsigned long Encoder_D(void) return PE3; // 0x08 if pressed, 0x00 if not pressed unsigned long Switch_Input(void) return PF4; // return 0x10(pressed) or 0(not pressed) //*********************************************************************** ****** #ifdef DEBUG void error (char *pcfilename, uint32_t ui32line) #endif void interrupt_portd(void) if (GPIOIntStatus(GPIO_PORTD_BASE, false) & PD3) GPIOIntRegister(GPIO_PORTD_BASE, interrupt_portd); // Register our handler function for port D GPIOIntTypeSet(GPIO_PORTD_BASE, PD3,GPIO_RISING_EDGE); // Configure PD3 for rising edge trigger

4 GPIOIntClear(GPIO_PORTD_BASE, PD3); // Clear interrupt flag result = atoi(test); if(pa0 ==0x00 && PA1 ==0x00) if(pe1==0x00 && PE2==0x00 && PE3==0x00) if (Encoder_A()) if(encoder_b()) if( test[1]<'9') test[1] ++; result = atoi(test); //PC4 =0x10; // make PF3 high //PC4 =0x00; if(test[1]=='9' && test[0]<='9') test[0] ++; test[1]= '0'; result = atoi(test); //PC4 =0x10; // make PF3 high //PC4 =0x00; if(test[1]=='9' && test[0]=='9') else if( test[0]<='9' && test[1]<='9') if(test[1]>'0') test[1] --; result = atoi(test); //PC5 =0x00; if(test[1]=='0') if(test[0]>'0') test[0]--; test[1] = '9'; result = atoi(test); //PC5 =0x00;

5 result_bis = result/ ; lcd_display(" FREQ AD9959"); sprintf(s,"f(mhz)=%f",result_bis); FTW0 = result* / ; FTW1 = result* / ; if(pe1==0x02) if (Encoder_A()) if(encoder_b()) if( test[3]<'9') test[3] ++,test[4] = '0',test[5] = '0',test[6] = '0',test[7] = '0',result = atoi(test); //PC4 =0x10; // make PF3 high //PC4 =0x00; if(test[3]=='9' && test[2]<'9') test[2] ++,test[3]= '0',test[4] = '0',test[5] = '0',test[6] = '0',test[7] = '0',result = atoi(test); //PC4 =0x10; // make PF3 high //PC4 =0x00; if(test[3]=='9' && test[2]=='9') else if( test[3]<='9' && test[2]<='9') if(test[3]>'0') test[3] --,test[4] = '0',test[5] = '0',test[6] = '0',test[7] = '0',result = atoi(test); //PC5 =0x00; if(test[3]=='0') if(test[2]>'0') test[2]--,test[3] = '9',test[4] = '0',test[5] = '0',test[6] = '0',test[7] = '0',result = atoi(test);

6 //PC5 =0x00; result_bis = (float)result/ ; lcd_display(" FREQ AD9959"); sprintf(s,"f(mhz)=%f",result_bis); FTW0 = result* / ; FTW1 = result* / ; if(pe2==0x04) if (Encoder_A()) if(encoder_b()) if( test[5]<'9') test[5] ++,test[4] = '0',test[6] = '0',test[7] = '0',result = atoi(test); //PC4 =0x10; // make PF3 high //PC4 =0x00; if(test[5]=='9' && test[4]<'9') test[4] ++,test[5]= '0',test[6] = '0',test[7] = '0'; result = atoi(test); PC4 =0x10; // make PF3 high PC4 =0x00; if(test[4]=='9' && test[5]=='9') if(test[3]>'0') test[3] ++,test[4]= '0',test[5]= '0',test[6]= '0',test[7]= '0'; else if( test[4]<='9' && test[5]<='9') if(test[5]>'0') test[5] --,test[6] = '0',test[7] = '0',result = atoi(test);

7 //PC5 =0x00; if(test[5]=='0') if(test[4]>'0') test[4]--,test[5]= '9',test[6]= '0',test[7]= '0'; result = atoi(test); //PC5 =0x00; result_bis = (float)result/ ; lcd_display(" FREQ AD9959"); sprintf(s,"f(mhz)=%f",result_bis); FTW0 = result* / ; FTW1 = result* / ; if(pe3==0x08) if (Encoder_A()) if(encoder_b()) if( test[7]<'9') test[7] ++; result = atoi(test); //PC4 =0x10; // make PF3 high //PC4 =0x00; if(test[7]=='9' && test[6]<'9') test[6] ++,test[7]= '0'; result = atoi(test); //PC4 =0x10; // make PF3 high //PC4 =0x00; if(test[6]=='9' && test[7]=='9') if(test[4]>'0') test[4] ++,test[6]= '0',test[7]= '0';

8 else if( test[6]<='9' && test[7]<='9') if(test[7]>'0') test[7] --,result = atoi(test),result = atoi(test); //PC5 =0x00; if(test[7]=='0') if(test[6]>'0') test[6]--,test[7] = '9',result = atoi(test); //PC5 =0x00; result_bis = (float)result/ ; lcd_display(" FREQ AD9959"); sprintf(s,"f(mhz)=%f",result_bis); FTW0 = result* / ; FTW1 = result* / ; //phase offset word POW1 AD9959// if(pa1 ==0x02) if (Encoder_A()) if(encoder_b()) POW1 ++; PC4 =0x10; // make PF3 high PC4 =0x00; else POW1 --; PC5 =0x20; // make PF3 high PC5 =0x00;

9 POW1_affichage = ( POW1 *16384)/360; lcd_display(" PHASE CH1/CH0"); sprintf(s,"phase(deg)= %d",pow1); //amplitude ACR0 AD9959// if(pa0 ==0x01 && PE3==0x00) if (Encoder_A()) if(encoder_b()) ACR0+=10; ACR0 ++; //PC4 =0x10; // make PF3 high //PC4 =0x00; else ACR0-=10; ACR0 --; //PC5 =0x00; OSK0_affichage = ACR0; lcd_display("amp CH0 AD9959"); OSK0_affichage_bis = OSK0_affichage - 0x1050; sprintf(s,"(0-1024) = %d",osk0_affichage_bis); //amplitude ACR1 AD9959// if(pa0 ==0x01 && PE3==0x08) if (Encoder_A()) if(encoder_b()) ACR1+=10; ACR1 ++; //PC4 =0x10; // make PF3 high //PC4 =0x00;

10 else ACR1-=10; ACR1 --; //PC5 =0x00; OSK1_affichage = ACR1; lcd_display("amp CH1 AD9959"); OSK1_affichage_bis = OSK1_affichage - 0x1050; sprintf(s,"(0-1024) = %d",osk1_affichage_bis); //*********************************************************************** ****** // // SSI0 SERIAL PORT // //*********************************************************************** ****** void ssi0putdata( int instruction,long data,int num_byte) int i=0; SSI0_DR_R = instruction; while( num_byte ) while(!(ssi0_sr_r & SSI_SR_TNF)) // wait until there is space to write in the buffer SSI0_DR_R = data >>(num_byte-1-i)*8; num_byte--; void PortA_Init(void) volatile unsigned long delay; SYSCTL_RCGC2_R = 0x ; // 1) activate clock for Port A delay = SYSCTL_RCGC2_R; // allow time for clock to start GPIO_PORTA_AMSEL_R &= ~0x80; // 3) disable analog on PA7 GPIO_PORTA_PCTL_R &= ~0xF ; // 4) PCTL GPIO on PA7 GPIO_PORTA_DIR_R = 0xC0; // 5) PA7-PA6 out PA0 PA1 in //GPIO_PORTA_DIR_R = 0xC8; // PA7 PA6 PA3 out GPIO_PORTA_AFSEL_R &= ~0x80; // 6) disable alt funct on PA7 GPIO_PORTA_DEN_R = 0xC3; // 7) enable digital I/O on PA7-PA6 //GPIO_PORTA_DEN_R = 0xC8;

11 void PortB_Init(void) volatile unsigned long delay; SYSCTL_RCGC2_R = 0x ; // 1) activate clock for Port B delay = SYSCTL_RCGC2_R; // allow time for clock to start GPIO_PORTB_AMSEL_R = 0x00; // 3) disable analog on PB GPIO_PORTB_PCTL_R = 0x ; // 4) PCTL GPIO on PB0 GPIO_PORTB_DIR_R = 0xFF; // 5) PB0-PB7 is out //GPIO_PORTB_AFSEL_R &= ~0x01; // 6) disable alt funct on PB0 GPIO_PORTB_AFSEL_R &= ~0xFF; // 6) disable alt funct on PB0-PB7 GPIO_PORTB_DEN_R = 0xFF; // 7) enable digital I/O on PB0-PB7 void PortC_Init(void) volatile unsigned long delay; SYSCTL_RCGC2_R = 0x ; // port C Clock Gating Control delay = SYSCTL_RCGC2_R; // allow time for clock to start GPIO_PORTC_DIR_R = 0x30; // make PC5 PC4 output (PC5 built-in LED) GPIO_PORTC_DEN_R = 0x30; // enable digital I/O on PC5 PC4 void PortD_Init(void) volatile unsigned long delay; SYSCTL_RCGC2_R = 0x ; // 1) activate clock for Port D delay = SYSCTL_RCGC2_R; // allow time for clock to start // 2) no need to unlock PD3-0 GPIO_PORTD_AMSEL_R &= ~0x0F; // 3) disable analog functionality on PD3-0 GPIO_PORTD_AFSEL_R &= ~0x0F; // 6) regular port function GPIO_PORTD_PCTL_R &= ~0x0000FFFF; // 4) GPIO //GPIO_PORTD_DIR_R = 0x00; // 5) make PD3-0 in GPIO_PORTD_DIR_R = 0x13; //PD1 PD0 PD4 output --PD2 PD3 input //GPIO_PORTD_DEN_R = 0x0F; // 7) enable digital I/O on PD3-0 GPIO_PORTD_DEN_R = 0x1F; void PortE_Init(void) volatile unsigned long delay; SYSCTL_RCGC2_R = 0x10; // activate clock for Port E delay = SYSCTL_RCGC2_R; // wait 3-5 bus cycles GPIO_PORTE_DIR_R &= ~0x0F; // PE3,2,1,0 input GPIO_PORTE_AFSEL_R &= ~0x0F; // not alternative GPIO_PORTE_AMSEL_R &= ~0x0F; // no analog GPIO_PORTE_PCTL_R &= ~0x0000FFFF; // bits for PE3,PE2,PE1,PE0 GPIO_PORTE_DEN_R = 0x0F; // enable PE3,PE2,PE1,PE0 //// PF4 is input SW1 and PF2 is output Blue LED void PortF_Init(void) volatile unsigned long delay; SYSCTL_RCGC2_R = 0x ; // 1) activate clock for Port F delay = SYSCTL_RCGC2_R; // allow time for clock to start GPIO_PORTF_LOCK_R = 0x4C4F434B; // 2) unlock GPIO Port F GPIO_PORTF_CR_R = 0x1F; // allow changes to PF4-0 // only PF0 needs to be unlocked, other bits can't be locked GPIO_PORTF_AMSEL_R = 0x00; // 3) disable analog on PF GPIO_PORTF_PCTL_R = 0x ; // 4) PCTL GPIO on PF4-0

12 //GPIO_PORTF_DIR_R = 0x0E; // 5) PF4,PF0 in, PF3-PF1 out GPIO_PORTF_DIR_R = 0x0A; // 5) PF4,PF2,PF0 in, PF3-1 out GPIO_PORTF_AFSEL_R = 0x00; // 6) disable alt funct on PF7-0 //GPIO_PORTF_PUR_R = 0x11; // enable pull-up on PF0 and PF4 GPIO_PORTF_DEN_R = 0x1F; // 7) enable digital I/O on PF4-0 void init_spi0(void) // Enable Peripheral SSI0 SysCtlPeripheralEnable(SYSCTL_PERIPH_GPIOA); //Enable GPIO port A pins which are used for SSI0. SysCtlPeripheralEnable(SYSCTL_PERIPH_SSI0); GPIOPinConfigure(GPIO_PA2_SSI0CLK); GPIOPinConfigure(GPIO_PA5_SSI0TX); GPIOPinTypeSSI(GPIO_PORTA_BASE, GPIO_PIN_5 GPIO_PIN_2); SSIConfigSetExpClk(SSI0_BASE, , SSI_FRF_MOTO_MODE_0, SSI_MODE_MASTER, , 8); SSIEnable(SSI0_BASE); // Enable the SSI void PeripheralEnableInit(void) SysCtlPeripheralEnable(SYSCTL_PERIPH_GPIOA); SysCtlPeripheralEnable(SYSCTL_PERIPH_GPIOB); SysCtlPeripheralEnable(SYSCTL_PERIPH_GPIOC); SysCtlPeripheralEnable(SYSCTL_PERIPH_GPIOD); SysCtlPeripheralEnable(SYSCTL_PERIPH_GPIOE); SysCtlPeripheralEnable(SYSCTL_PERIPH_GPIOF); int Lcd_Port(int portb) GPIO_PORTB_DATA_R = portb; return 0; // Function for sending command to LCD int Lcd_Cmd(int portb) RS = 0x00; // => RS = 0 Lcd_Port(portB); E = 0x40; // Enable = 1 SysCtlDelay(15000); E = 0x00; // Enable = 0 return 0; // Function for sending data to LCD int Lcd_data(int portb) Lcd_Port(portB); RS = 0x80; // RS = 1 E = 0x40; //Enable = 1 SysCtlDelay(15000); E = 0x00; // Enable = 0 return 0; int Lcd_Clear() Lcd_Cmd(0); Lcd_Cmd(1); return 0;

13 void Lcd_display_off() Lcd_Cmd(0); Lcd_Cmd(0x0C); void Lcd_Shift_Right() Lcd_Cmd(0x01); Lcd_Cmd(0x18); void Lcd_Shift_Left() Lcd_Cmd(0x01); Lcd_Cmd(0x1C); void LCD_busy() D7 = 0x80; //Make D7th bit of LCD as i/p E = 0x40; //Enable = 1 RS = 0x80; // RS = 1 //Selected command register while(d7) //read busy flag again and again till it becomes 0 E = 0x00; // //Enable H->L E = 0x40; //Enable = 1 // Function for initializing LCD void Lcd_Init() SysCtlDelay(10000); Lcd_Cmd(0x38); //Function set: 2 Line, 8-bit, 5x7 dots SysCtlDelay(10000); Lcd_Cmd(0x0c); SysCtlDelay(10000); Lcd_Cmd(0x01); //Clear LCD SysCtlDelay(10000); Lcd_Cmd(0x06); //Entry mode, auto increment with no shift SysCtlDelay(10000); Lcd_Cmd(0x83); // DDRAM addresses 0x80..0x8F + 0xC0..0xCF are used. SysCtlDelay(10000); // Function for sending string to LCD int lcd_display(char *disp) int x=0; while(disp[x]!=0) Lcd_data(disp[x]); x++; return 0; int main(void)

14 SysCtlClockSet(SYSCTL_SYSDIV_4 SYSCTL_USE_PLL SYSCTL_OSC_MAIN SYSCTL_XTAL_16MHZ); // Set the clocking to run at 50MHz from the PLL. PeripheralEnableInit(); PortA_Init(); PortB_Init(); PortC_Init(); PortD_Init(); PortE_Init(); PortF_Init(); init_spi0(); PD4 =0x10; // reset DDS SysCtlDelay(200000); PD4 =0x00; Lcd_Init(); SysCtlDelay(20000); SysCtlDelay(400000); lcd_display("welcome to"); lcd_display("cnrs-lpl-ig-up13"); SysCtlDelay( ); //37.5ns * = 1,875 s SysCtlDelay(400000); Lcd_Cmd(0x84); lcd_display("atelier"); Lcd_Cmd(0xc2); lcd_display("electronique"); SysCtlDelay( ); //37.5ns * = 1,875 s float k = / ; float f_affichage; read_byte = *(unsigned long *)FLASH; //read FLASH for FTW0 read_flash = read_byte; read_byte4 = *(unsigned int *)FLASH3; read_flash4 = read_byte4; read_byte5 = *(unsigned int *)FLASH4; read_flash5 = read_byte5; read_byte6 = *(unsigned int *)FLASH5; read_flash6 = read_byte6; //read FLASH3 for POW1 //read FLASH4 for ACR0 //read FLASH5 for ACR1 if(pa0==0x00 && PA1==0x00) //frequency select f_affichage = (read_flash*k)/ ; SysCtlDelay( ); //37.5ns * = 1,875/ s SysCtlDelay(400000); lcd_display(" FREQ AD9959");

15 sprintf(s,"f(mhz)=%f",f_affichage); if(pa1==0x02 && PA0==0x00) // phase select POW1_affichage = (read_flash4 *16384)/360; SysCtlDelay( ); //37.5ns * = 1,875/ s SysCtlDelay(400000); lcd_display(" PHASE CH1/CH0"); POW1_affichage_bis = (read_flash4 *360) / 16384; sprintf(s,"phase(deg)= %d",pow1_affichage_bis); if(pa1==0x00 && PA0==0x01 && PE3==0x08) //amplitude ch1 select OSK1_affichage = read_flash6; SysCtlDelay(400000); lcd_display("amp CH1 AD9959"); OSK1_affichage_bis = OSK1_affichage ; sprintf(s,"(0-1024) = %d",osk1_affichage_bis); if(pa1==0x00 && PA0==0x01 && PE3==0x00) //amplitude ch0 select OSK0_affichage = read_flash5; SysCtlDelay(400000); lcd_display("amp CH0 AD9959"); OSK0_affichage_bis = OSK0_affichage ; sprintf(s,"(0-1024) = %d",osk0_affichage_bis); // Interrupt setup GPIOIntDisable(GPIO_PORTD_BASE, PD3); PD3 (in case it was enabled) GPIOIntClear(GPIO_PORTD_BASE, PD3); for PD3 // Disable interrupt for // Clear pending interrupts GPIOIntRegister(GPIO_PORTD_BASE, interrupt_portd); // Register our handler function for port D GPIOIntTypeSet(GPIO_PORTD_BASE, PD3,GPIO_FALLING_EDGE); // Configure PD3 for falling edge trigger GPIOIntEnable(GPIO_PORTD_BASE, PD3); // Enable interrupt for PD3 ssi0putdata(fr1_adress,fr1,fr1_num_byte); //PLL activé X20 ssi0putdata(csr_adress,csr0,csr_num_byte);

16 read_byte = *(unsigned long *)FLASH; //read FLASH for FTW0 read_flash = read_byte; FTW0 = read_flash; ssi0putdata(ftw_adress,(long)read_flash,ftw_num_byte); ssi0putdata(csr_adress,csr1,csr_num_byte); read_byte2 = *(unsigned long *)FLASH1; //read FLASH1 for FTW1 read_flash2 = read_byte2; FTW1 = read_flash2; ssi0putdata(ftw_adress,read_flash2,ftw_num_byte); read_byte3 = *(unsigned int *)FLASH2; //read FLASH2 for POW0 read_flash3 = read_byte3; POW0 = read_flash3; ssi0putdata(csr_adress,csr0,csr_num_byte); ssi0putdata(pow_address,read_flash3,pow_num_byte); read_byte4 = *(unsigned int *)FLASH3; //read FLASH3 for POW1 read_flash4 = read_byte4; POW1_affichage = read_flash4; ssi0putdata(csr_adress,csr1,csr_num_byte); ssi0putdata(pow_address,read_flash4,pow_num_byte); read_byte5 = *(unsigned int *)FLASH4; //read FLASH4 for ACR0 read_flash5 = read_byte5; OSK0_affichage = read_flash5; ssi0putdata(csr_adress,csr0,csr_num_byte); ssi0putdata(acr_address,read_flash5,acr_num_byte); read_byte6 = *(unsigned int *)FLASH5; //read FLASH5 for ACR1 read_flash6 = read_byte6; OSK1_affichage = read_flash6; ssi0putdata(csr_adress,csr1,csr_num_byte); ssi0putdata(acr_address,read_flash6,acr_num_byte); PD1 =0x02; // AD9959 I/O update PD1 =0x00; while(1) if(pf2==0x04) if(pa0==0x00 && PA1==0x00) ssi0putdata(csr_adress,csr0,csr_num_byte); ssi0putdata(ftw_adress,(long)ftw0,ftw_num_byte); ssi0putdata(csr_adress,csr1,csr_num_byte); ssi0putdata(ftw_adress,(long)ftw1,ftw_num_byte); PD1 =0x02; // AD9959 I/O update

17 PD1 =0x00; if(pa1==0x02 && PA0==0x00) ssi0putdata(csr_adress,csr0,csr_num_byte); ssi0putdata(pow_address, POW0, POW_NUM_BYTE); ssi0putdata(csr_adress,csr1,csr_num_byte); ssi0putdata(pow_address, POW1_affichage, POW_NUM_BYTE); PD1 =0x02; // AD9959 I/O update PD1 =0x00; if( PA0==0x01 && PA1==0x00 && PE3==0x08) ssi0putdata(csr_adress,csr1,csr_num_byte); ssi0putdata(acr_address, OSK1_affichage, ACR_NUM_BYTE); PD1 =0x02; // AD9959 I/O update PD1 =0x00; if( PA0==0x01 && PA1==0x00 && PE3==0x00) ssi0putdata(csr_adress,csr0,csr_num_byte); ssi0putdata(acr_address, OSK0_affichage, ACR_NUM_BYTE); PD1 =0x02; // AD9959 I/O update PD1 =0x00; // data put in memory flash FlashErase(FLASH); FTW0_memory[0] = (long)ftw0; FTW1_memory[0] = (long)ftw1; FlashProgram(FTW0_memory, FLASH, sizeof(ftw0_memory)); read_byte = *(unsigned long *)FLASH; read_flash = read_byte; FlashProgram(FTW1_memory, FLASH1, sizeof(ftw1_memory)); read_byte2 = *(unsigned long *)FLASH1; read_flash2 = read_byte2; POW0_memory[0] = POW0; POW1_memory[0] = POW1_affichage; FlashProgram(POW0_memory, FLASH2, sizeof(pow0_memory)); read_byte3 = *(unsigned int *)FLASH2; read_flash3 = read_byte3; FlashProgram(POW1_memory, FLASH3, sizeof(pow1_memory)); read_byte4 = *(unsigned int *)FLASH3; read_flash4 = read_byte4; ACR0_memory[0] = OSK0_affichage; ACR1_memory[0] = OSK1_affichage;

18 FlashProgram(ACR0_memory, FLASH4, sizeof(acr0_memory)); read_byte5 = *(unsigned int *)FLASH4; read_flash5 = read_byte5; FlashProgram(ACR1_memory, FLASH5, sizeof(acr1_memory)); read_byte6 = *(unsigned int *)FLASH5; read_flash6 = read_byte6;