/*
 SPI : initialisation du dds et communication SPI
 */
#include"ad9915.h"
#include "spi.h"
#include "ddsFreq.h"

#define debug
//fonction reset
void Send_Reset(int f_dds)
{
		char reset='2';
		write(f_dds,&reset,sizeof(reset)); //reset
		sleep(0.1);
}

//fonction ioupdate
void Send_IO_Update(int f_dds)
{
		char update='1';
		write(f_dds,&update,sizeof(update)); //reset
		sleep(0.1);
}

//fonction write register
void  write_register (int fd, unsigned char addr, unsigned char d3, unsigned char d2, unsigned char d1, unsigned char d0)
{
		unsigned char tx[5]={0};
		tx[0]=addr;
		tx[1]=d3;
		tx[2]=d2;
		tx[3]=d1;
		tx[4]=d0;
		//spi_put_multiple envoie le vecteur dans cet ordre
		//[tx0]-[tx1]-[tx2] -> adresse->bit poids Fort->bit poids faible
		spi_put_multiple(fd,tx,5,NULL,0);
}

//fonction read register

void  read_register (int fd,unsigned char addr, uint32_t *readword)
{
		unsigned char tx[1] = {0};
		unsigned char rx[4] = {0};
		addr = addr|0x80;//instruction byte for the read : 1000 0000 | byte_adress
		tx[0]=addr;
		spi_put_multiple(fd,tx,1,rx,4);
		//printf("TX:%x RX:%x %x %x %x\n",tx[0],rx[0],rx[1],rx[2],rx[3]);
		*readword = 0x00000000;
		*readword = *readword|(rx[0]<<24);
		*readword = *readword|(rx[1]<<16);
		*readword = *readword|(rx[2]<<8);
		*readword = *readword|rx[3];
}

//fonction read register
void  read_register_ini (int fd, unsigned char addr)
{
		unsigned char tx[1] = {0};
		unsigned char rx[4] = {0};
		addr = addr|0x80;
		tx[0]=addr;
		spi_put_multiple(fd,tx,1,rx,4);
		printf("TX:%x RX:%x %x %x %x\n",tx[0],rx[0],rx[1],rx[2],rx[3]);
	//	Send_IO_Update (f_dds);    //Send the update to set the control registers
}

//initialisation du dds
void Initialize_DDS (int fd, int f_dds)
{
	Send_Reset(f_dds);
	write_register(fd,CFRAddress[0],CFR1Start[0], CFR1Start[1], CFR1Start[2], CFR1Start[3]);
  	Send_IO_Update (f_dds);    //Send the update to set the control registers
	write_register(fd,CFRAddress[1], CFR2Start[0], CFR2Start[1], CFR2Start[2], CFR2Start[3]);
  	Send_IO_Update (f_dds);
	write_register(fd,CFRAddress[2], CFR3Start[0], CFR3Start[1], CFR3Start[2], CFR3Start[3]);
  	Send_IO_Update (f_dds);
	write_register(fd,CFRAddress[3], CFR4Start[0], CFR4Start[1], CFR4Start[2], CFR4Start[3]);
  	Send_IO_Update (f_dds);
	write_register(fd,USR0Address, 0xA2, 0x00, 0x08, 0x00);
  	Send_IO_Update (f_dds);
}

//calibration du dac
void Calibrate_DAC (int fd, int f_dds)
{		
	write_register(fd,CFRAddress[3], DACCalEnable[0], DACCalEnable[1], DACCalEnable[2], DACCalEnable[3]);
  	Send_IO_Update (f_dds);
	write_register(fd,CFRAddress[3], CFR4Start[0], CFR4Start[1], CFR4Start[2], CFR4Start[3]);
  	Send_IO_Update (f_dds);
}

void modulus_setup(int fd, int f_dds) 
{
	write_register(fd,0x00,0x00, 0x01, 0x01, 0x0a); //OSK enable //0x08
	//write_register(fd,0x00,0x00, 0x01, 0x01, 0x08); //OSK enable de base
  	Send_IO_Update (f_dds);
	write_register(fd,0x01,0x00, 0x89, 0x09, 0x00); //enable program modulus and digital ramp
  	Send_IO_Update (f_dds);
}

void basic_setup(int fd, int f_dds,uint16_t ampWord, uint16_t phaseWord)
{
	write_register(fd,0x00,0x00, 0x01, 0x01, 0x08); //OSK enable
  	Send_IO_Update (f_dds);
	write_register(fd,0x01,0x00, 0x89, 0x09, 0x00); //enable program modulus and digital ramp
  	Send_IO_Update (f_dds);
    write_register(fd,0x04,0x19, 0x99, 0x99, 0x99); //ftw
  	Send_IO_Update (f_dds);
    write_register(fd,0x05,0xC0, 0x00, 0x00, 0x00); //A
  	Send_IO_Update (f_dds);
    write_register(fd,0x06,0x00, 0x00, 0x00, 0x05);  //B
  	Send_IO_Update (f_dds);
    //write_register(fd,0x0c, 0x0F, 0xFF, 0x00, 0x00); // amp (12b) ph(16)
    write_register(fd,0x0c, (uint8_t)((ampWord>>8) & 0x0F), (uint8_t)(ampWord & 0xFF), (uint8_t)((phaseWord>>8) & 0xFF), (uint8_t)(phaseWord & 0xFF)); // amp (12b) ph(16)
  	Send_IO_Update (f_dds);
}

void setFreqMM(int fd, int f_dds, unsigned int ftw, unsigned int A, unsigned int B)
{
    //uint16_t phaseWord = 0x7400;
    //uint16_t ampWord = (uint16_t)strtol(argv[4],NULL,0) & 0x0FFF ; //masque en 2
    //uint16_t ampWord = 0x00000FFF;
    //uint32_t phaseAmpWord = phaseWord | ampWord<<16;
		
    //write_register(fd,0x00,0x00, 0x01, 0x01, 0x08); //OSK enable
    //Send_IO_Update(f_dds);
    //write_register(fd,0x01,0x00, 0x89, 0x09, 0x00); //enable program modulus and digital ramp
    //Send_IO_Update(f_dds);
    write_register(fd,0x04,ftw>>24&0xFF, ftw>>16&0xFF, ftw>>8&0xFF, ftw&0xFF); //ftw
    Send_IO_Update(f_dds);
    write_register(fd,0x05,A>>24&0xFF,A>>16&0xFF, A>>8&0xFF, A&0xFF); //A
    Send_IO_Update(f_dds);
    write_register(fd,0x06,B>>24&0xFF,B>>16&0xFF, B>>8&0xFF, B&0xFF); //B
    Send_IO_Update(f_dds);
   // write_register(fd,0x0c, phaseAmpWord>>24&0xFF, phaseAmpWord>>16&0xFF,phaseAmpWord>>8&0xFF,phaseAmpWord&0xFF); // amp (12b) ph(16)
    //Send_IO_Update(f_dds);
}

void setAmpPhaseWord(int fd, int f_dds,unsigned int phaseAmpWord)
{
   write_register(fd,0x0c, phaseAmpWord>>24&0xFF, phaseAmpWord>>16&0xFF,phaseAmpWord>>8&0xFF,phaseAmpWord&0xFF); // amp (12b) ph(16)
   Send_IO_Update(f_dds);
}

/*
void getAmpPhaseWord(int fd)
{
  // unsigned char rx[5]={0};
   unsigned char* pt;
   read_register(fd,0x0c,rx); // amp (12b) ph(16)
   rx[0]=*pt;
   rx[1]=*(pt+1);
   rx[2]=*(pt+2);
   rx[3]=*(pt+3);
   rx[4]=*(pt+4);
   printf("%c %c %c %c %c", rx[0], rx[1], rx[2], rx[3], rx[4]); 
}
*/
void checkSize(void)
{	
		printf("int : %d\n",sizeof(unsigned int));
}

int openAndSetDdsFreq( char * device, char * gpio_update, double f_clk, double f_out, uint16_t ampWord, uint16_t phaseWord)
{
	#ifdef debug
	printf("device=%s\tgpio_update=%s\tf_clk=%e\tf_out=%e\tampWord=%d\tphaseWord=%d\n\n",device,gpio_update,f_clk,f_out,ampWord,phaseWord);
	#else
	printf("device=%s\tgpio_update=%s\tf_clk=%e\tf_out=%e\tampWord=%d\tphaseWord=%d\n\n",device,gpio_update,f_clk,f_out,ampWord,phaseWord);
	int fd=configureSpi(device); //ex #define FILENAME2 "/dev/spidev0.0"
	printf("fd(funct)=%d\n",fd);
	setMode(fd,SPI_MODE_0);	
	if (fd <= 0){
		printf("ERREUR : ouverture périphérique SPI %s\n",device);
		return EXIT_FAILURE;	
	}
	int f_dds=open(gpio_update,O_RDWR); //ex #define UPDATE2 "/sys/dds/gpio24/updateOn"
	printf("f_dds(funct)=%d\n",f_dds);
	if (f_dds <= 0){
		printf("ERREUR : ouverture ");printf(gpio_update);printf("\n");
		printf("Chargez le module ddsIOupdateX\n");
		return EXIT_FAILURE;
	}
	setddsFreq(fd,f_dds,f_out,f_clk);
	//debug
	phaseWord = 0x0000;
	ampWord=0x0FFF;
	uint32_t phaseAmpWord = phaseWord | ampWord<<16;
	setAmpPhaseWord(fd, f_dds, phaseAmpWord);
	#endif
	return EXIT_SUCCESS;	
}

int setDdsFreqFull ( int fd, int f_dds, double f_clk, double f_out, uint16_t ampWord, uint16_t phaseWord)
{
	setddsFreq(fd,f_dds,f_out,f_clk);
	#ifdef debug
	phaseWord = 0x0000;
	ampWord=0x0FFF;
	#endif
	uint32_t phaseAmpWord = phaseWord | ampWord<<16;
	setAmpPhaseWord(fd, f_dds, phaseAmpWord);
	
	return EXIT_SUCCESS;
}

void Send_CTRL_UP(int fp)
{
		char DRCTLOn='0';//pente positive
		write(fp,&DRCTLOn,sizeof(DRCTLOn)); //
		sleep(0.1);
}

void Send_CTRL_DOWN(int fp)
{
		char DRCTLOn='2';//pente negative
		write(fp,&DRCTLOn,sizeof(DRCTLOn)); //reset
		sleep(0.1);
}

void Send_HOLD(int fp)
{
		char DRHOLDOn ='1';//rampe bloquée
		write(fp,&DRHOLDOn,sizeof(DRHOLDOn)); //reset
		sleep(0.1);
}

void Send_UNHOLD(int fp)
{
		char DRHOLDOn ='3';//rampe debloquée
		write(fp,&DRHOLDOn,sizeof(DRHOLDOn)); //reset
		sleep(0.1);
}


int testRampFreq(int fd, int f_dds, int fp)
{


	//3-Rampe de pente positive + debloquage
	Send_CTRL_DOWN(fp);//rampe up
	Send_UNHOLD(fp);

	Send_Reset(f_dds);
	//Initialize_DDS (fd, f_dds);

	//0- paramètre de bases
	write_register(fd,0x00,0x00,0x01,0x01,0x0a);//OSKenable+Read&write
	Send_IO_Update(f_dds);
	read_register_ini(fd,0x00);

	write_register(fd,0x01,0x00, 0x00, 0x09, 0x00); // enable amp ramp
	Send_IO_Update(f_dds);
	read_register_ini(fd,0x00);

	//1- Donner une frequence f_dds de 1.1e7 Hz sachant que f_clk=1e9 Hz;
	// => Le mot a donner est (p.19) : FTW=(f_dds/f_clk)*2³²
	// FTW = 42949672.96 = 42 949 673. = 0x028f5c29
	// 1.1e7 =0x02d0e560

//			2d0e560

	//Calibrate_DAC (fd,f_dds);
	


	write_register(fd,0x0b,0x02,0xd0,0xe5,0x60);//mot de frequence
	Send_IO_Update(f_dds);
	write_register(fd,0x0c,0x0F,0xFF,0x00,0x00); //mot de amp et de phase : amp max, phase nulle 
	Send_IO_Update(f_dds);

	printf("Les mots de frequences, d'amplitudes et de phases sont envoyes\n");
	printf("Lecture registre de frequence: 0x0b\n");
	read_register_ini(fd,0x0b);
	printf("Lecture registre de amp et phase: 0x0c\n");
	read_register_ini(fd,0x0c);

	Calibrate_DAC (fd,f_dds);
	printf("\n\n ----------------------- \n\n");


/*
	//2- Taille des dt

	write_register(fd,0x08,0xFF,0xFF,0xFF,0xFF); //+dt max, -dt max (+dt = -dt)
	Send_IO_Update(f_dds);

	printf("Les mots de dt sont envoyes\n");
	printf("Lecture dans le registre 0x08 : taille dt\n");
	read_register_ini (fd,0x08);




	printf("\n\n ----------------------- \n\n");


	//3- STEP SIZE  :dphi

	// en theorie dphi =2.25e-28 degrees 
	write_register(fd,0x06,0x00,0x00,0x00,0x01); 
	Send_IO_Update(f_dds);

	write_register(fd,0x07,0x00,0x00,0x00,0x01); 
	Send_IO_Update(f_dds);

	//printf("\n\n ----------------------- \n\n");
	printf("Les mots de dphi sont envoyes\n");
	printf("Lecture dans les registres 0x06 et 0x07 : taille dt\n");
	read_register_ini (fd,0x06);
	read_register_ini (fd,0x07);

	printf("\n\n ----------------------- \n\n");
	//4- Ecrire les extremums de la rampe
	
	write_register(fd,0x04,0x00,0x00,0x00,0x01);//0 rad 
	Send_IO_Update(f_dds);
	write_register(fd,0x05,0xFF,0xFF,0xFF,0xFF);//2*pi rad
	Send_IO_Update(f_dds);

	printf("Les mots des frontieres sont envoyes\n");
	printf("Lecture dans les registres 0x04 et 0x05 : taille dt\n");
	read_register_ini (fd,0x04);
	read_register_ini (fd,0x05);


	//3-Rampe de pente positive ou négative
//	Send_CTRL_UP(fp);//rampe up
	

	//4-ecriture dans le registre 0x01
	write_register(fd,0x01,0x00, 0xa8, 0x09, 0x00); // enable amp ramp
	Send_IO_Update(f_dds);
	
	printf("Lecture dans le registre 0x01  : \n");
	read_register_ini (fd,0x01);
//	printf("Les mots de dt sont envoyes\n");
	printf("Lecture dans le registre 0x08 : taille dt\n");
	read_register_ini (fd,0x08);


*/
	return EXIT_SUCCESS;
}

//---------------rajout 8/1

int PutAmpWord(int fd, int f_dds, double amplitude)
{
        uint16_t PhaseWord = 0x0000;
        uint16_t AmpWord = 0x0000;
        uint32_t ReadPhaseAmpWord=0x00000000;

        AmpWord = rint(amplitude*(pow(2.0,12.0)-1)/100);

        read_register(fd,0x0c,&ReadPhaseAmpWord);

        PhaseWord = ReadPhaseAmpWord&0xFFFF;

        write_register(fd,0x0c,AmpWord>>8&0xFF,AmpWord&0xFF,PhaseWord>>8&0xFF,PhaseWord&0xFF);
        Send_IO_Update(f_dds);

        return 0;
}


int PutPhaseWord(int fd, int f_dds, double phase)
{
        uint16_t PhaseWord = 0x0000;
        uint16_t AmpWord = 0x0000;
        uint32_t ReadPhaseAmpWord=0x00000000;

        PhaseWord = rint(phase*(pow(2.0,16.0)-1)/360);

        read_register(fd,0x0c,&ReadPhaseAmpWord);

        AmpWord = ReadPhaseAmpWord>>16&0xFFFF;

        write_register(fd,0x0c,AmpWord>>8&0xFF,AmpWord&0xFF,PhaseWord>>8&0xFF,PhaseWord&0xFF);
        Send_IO_Update(f_dds);

        return 0;
}

int PutFrequencyWord(int fd, int f_dds, double fout)//Attention uniquement valable pour fclk = 1 GHz
{

        uint32_t FTWR = 0x00000000;
        FTWR = rint((fout/1e9)*pow(2.0,32.0));
        write_register(fd,0x0b,FTWR>>24&0xFF,FTWR>>16&0xFF,FTWR>>8&0xFF,FTWR&0xFF);//mot de frequence
        Send_IO_Update(f_dds);

        return 0;
}


int PutFrequencyAmpPhaseWord(int fd, int f_dds, double fout, double fclk,double amp, double phase)//n'existe pas dans le mode profile enable
{

        uint32_t FTWR = 0x00000000;

        FTWR = rint((fout/fclk)*pow(2.0,32.0));

        write_register(fd,0x0b,FTWR>>24&0xFF,FTWR>>16&0xFF,FTWR>>8&0xFF,FTWR&0xFF);//mot de frequence

        Send_IO_Update(f_dds);

//              write_register(fd,0x0c,0x0F,0xFF,0x00,0x00); //mot de amp et de phase : amp max, phase nulle 
//              Send_IO_Update(f_dds);

        PutPhaseWord(fd,f_dds,phase);
        PutAmpWord(fd,f_dds,amp);

        return 0;
}


int InitialisationProfile (int fd,int f_dds)
{

        Send_Reset(f_dds); //les registres sont maintenant par defaut
        write_register(fd,0x00,0x00,0x01,0x01,0x0a); //OSK+SDIO input only//ok
        Send_IO_Update(f_dds);
        write_register(fd,0x01,0x00,0x80,0x09,0x00); // profile mode enable very important
        Send_IO_Update(f_dds);
        write_register(fd,0x02,0x00,0x00,0x19,0x1c); // default
        Send_IO_Update(f_dds);
        write_register(fd,0x03,0x01,0x05,0x21,0x20); // calibration 1/2 :enable
        Send_IO_Update(f_dds);
        write_register(fd,0x03,0x00,0x05,0x21,0x20); // calibration 2/2 :desenable
        Send_IO_Update(f_dds);

        return 0;
}



//------------------- FIN RAJOUT 8/1


//-------------------------FONCTIONS RAMPES HARDWARE

//1-rampe de frequence

//rampe simple de fréquence
int FrequencySweep (int fd, int f_dds,double fclk,double dfUp, double dfDown, double FreqMax,double FreqMin, double DeltaTimeUp, double DeltaTimeDown)
{
        //calcul de N => N=DeltaF/df = DeltaT/dt

	//1-fmax > fmin
	double DeltaFreq = FreqMax-FreqMin;
	if(FreqMax<FreqMin)
	{
		printf("FreqMax should be > FreqMin\n");
		printf("Can't Start the ramp\n");
		return -1;
	}
	
	//2- Calcul du nombre de points de la rampe
	int NumberPointsUp = DeltaFreq/dfUp;
	int NumberPointsDown = DeltaFreq/dfDown;
	
	//3- En déduire la valeur de dtUp et dtDown
	double dtUp = DeltaTimeUp/NumberPointsUp;
	double dtDown = DeltaTimeDown/NumberPointsDown;

	double dtmin = 24/fclk;
	double dtmax = dtmin*(pow(2.0,16.0)-1);

	//Check Up
	if(dtUp<dtmin)
	{
		printf("During of ramp UP should be > %f s\n",dtmin*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtUp>dtmax)
	{
		printf("During of ramp UP should be < %f\n",dtmax*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	//Check Down
	if(dtDown<dtmin)
	{
		printf("During of ramp DOWN  should be > %f s\n",dtmin*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtDown>dtmax)
	{
		printf("During of ramp DOWN should be < %f\n",dtmax*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}


	//4 - Put word in register


	//4.1 Limit register
        uint32_t FTWRmin = rint((FreqMin/fclk)*pow(2.0,32.0));
        write_register(fd,0x04,FTWRmin>>24&0xFF,FTWRmin>>16&0xFF,FTWRmin>>8&0xFF,FTWRmin&0xFF);//mot de frequence
        Send_IO_Update(f_dds);

        uint32_t FTWRmax = rint((FreqMax/fclk)*pow(2.0,32.0));
        write_register(fd,0x05,FTWRmax>>24&0xFF,FTWRmax>>16&0xFF,FTWRmax>>8&0xFF,FTWRmax&0xFF);//mot de frequence
        Send_IO_Update(f_dds);

	
	//4.2 dfUP et dfDown
        double df_up = DeltaFreq/NumberPointsUp;
        double df_down = DeltaFreq/NumberPointsDown;

        uint32_t Word_df_up = rint(df_up*pow(2.0,32.0)/fclk);
        uint32_t Word_df_down = rint(df_down*pow(2.0,32.0)/fclk);

        write_register(fd,0x06,Word_df_up>>24&0xFF,Word_df_up>>16&0xFF,Word_df_up>>8&0xFF,Word_df_up&0xFF); //df_up
        Send_IO_Update(f_dds);
        write_register(fd,0x07,Word_df_down>>24&0xFF,Word_df_down>>16&0xFF,Word_df_down>>8&0xFF,Word_df_down&0xFF);//df_down
        Send_IO_Update(f_dds);


	//4.3 dtUp et dtDown

        uint16_t Word_dt_up = 0x0000;
        uint16_t Word_dt_down = 0x0000;

        Word_dt_up = rint(dtUp*fclk/24);
        Word_dt_down = rint(dtDown*fclk/24);

        write_register(fd,0x08,Word_dt_down>>8&0xFF,Word_dt_down&0xFF,Word_dt_up>>8&0xFF,Word_dt_up&0xFF);  // il y a 2 dt
        Send_IO_Update(f_dds);

        //5 Start of the ramp

        write_register(fd,0x01,0x00,0x08,0x09,0x00); //rampe simple
        Send_IO_Update(f_dds);
        return 0;



        return EXIT_SUCCESS;

}


//rampe continue de fréquence
int ContinueFrequencySweep (int fd, int f_dds,double fclk,double dfUp, double dfDown, double FreqMax,double FreqMin, double DeltaTimeUp, double DeltaTimeDown)
{
        //calcul de N => N=DeltaF/df = DeltaT/dt

	//1-fmax > fmin
	double DeltaFreq = FreqMax-FreqMin;
	if(FreqMax<FreqMin)
	{
		printf("FreqMax should be > FreqMin\n");
		printf("Can't Start the ramp\n");
		return -1;
	}
	
	//2- Calcul du nombre de points de la rampe
	int NumberPointsUp = DeltaFreq/dfUp;
	int NumberPointsDown = DeltaFreq/dfDown;
	
	//3- En déduire la valeur de dtUp et dtDown
	double dtUp = DeltaTimeUp/NumberPointsUp;
	double dtDown = DeltaTimeDown/NumberPointsDown;

	double dtmin = 24/fclk;
	double dtmax = dtmin*(pow(2.0,16.0)-1);

	//Check Up
	if(dtUp<dtmin)
	{
		printf("During of ramp UP should be > %f s\n",dtmin*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtUp>dtmax)
	{
		printf("During of ramp UP should be < %f\n",dtmax*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	//Check Down
	if(dtDown<dtmin)
	{
		printf("During of ramp DOWN  should be > %f s\n",dtmin*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtDown>dtmax)
	{
		printf("During of ramp DOWN should be < %f\n",dtmax*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}


	//4 - Put word in register


	//4.1 Limit register
        uint32_t FTWRmin = rint((FreqMin/fclk)*pow(2.0,32.0));
        write_register(fd,0x04,FTWRmin>>24&0xFF,FTWRmin>>16&0xFF,FTWRmin>>8&0xFF,FTWRmin&0xFF);//mot de frequence
        Send_IO_Update(f_dds);

        uint32_t FTWRmax = rint((FreqMax/fclk)*pow(2.0,32.0));
        write_register(fd,0x05,FTWRmax>>24&0xFF,FTWRmax>>16&0xFF,FTWRmax>>8&0xFF,FTWRmax&0xFF);//mot de frequence
        Send_IO_Update(f_dds);

	
	//4.2 dfUP et dfDown
        double df_up = DeltaFreq/NumberPointsUp;
        double df_down = DeltaFreq/NumberPointsDown;

        uint32_t Word_df_up = rint(df_up*pow(2.0,32.0)/fclk);
        uint32_t Word_df_down = rint(df_down*pow(2.0,32.0)/fclk);

        write_register(fd,0x06,Word_df_up>>24&0xFF,Word_df_up>>16&0xFF,Word_df_up>>8&0xFF,Word_df_up&0xFF); //df_up
        Send_IO_Update(f_dds);
        write_register(fd,0x07,Word_df_down>>24&0xFF,Word_df_down>>16&0xFF,Word_df_down>>8&0xFF,Word_df_down&0xFF);//df_down
        Send_IO_Update(f_dds);


	//4.3 dtUp et dtDown

        uint16_t Word_dt_up = 0x0000;
        uint16_t Word_dt_down = 0x0000;

        Word_dt_up = rint(dtUp*fclk/24);
        Word_dt_down = rint(dtDown*fclk/24);

        write_register(fd,0x08,Word_dt_down>>8&0xFF,Word_dt_down&0xFF,Word_dt_up>>8&0xFF,Word_dt_up&0xFF);  // il y a 2 dt
        Send_IO_Update(f_dds);

        //5 Start of the ramp

        write_register(fd,0x01,0x00,0x8e,0x29,0x00); //rampe triangulaire
        Send_IO_Update(f_dds);
        return 0;



        return EXIT_SUCCESS;

}

//2-rampe d'amplitude

int AmplitudeSweep (int fd, int f_dds,double fclk,double dAUp, double dADown, double AMax,double AMin, double DeltaTimeUp, double DeltaTimeDown)
{


        //calcul de N => N=DeltaF/df = DeltaT/dt

	//1-Amax > Amin
	double DeltaAmp = AMax-AMin;
	if(AMax<AMin)
	{
		printf("AMax should be > AMin\n");
		printf("Can't Start the ramp\n");
		return -1;
	}
	
	
	//2- Calcul du nombre de points de la rampe
	int NumberPointsUp = DeltaAmp/dAUp;
	int NumberPointsDown = DeltaAmp/dADown;
	
	//3- En déduire la valeur de dtUp et dtDown
	double dtUp = DeltaTimeUp/NumberPointsUp;
	double dtDown = DeltaTimeDown/NumberPointsDown;

	double dtmin = 24/fclk;
	double dtmax = dtmin*(pow(2.0,16.0)-1);

	//Check Up
	if(dtUp<dtmin)
	{
		printf("During of ramp UP should be > %f s\n",dtmin*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtUp>dtmax)
	{
		printf("During of ramp UP should be < %f\n",dtmax*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	//Check Down
	if(dtDown<dtmin)
	{
		printf("During of ramp DOWN  should be > %f s\n",dtmin*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtDown>dtmax)
	{
		printf("During of ramp DOWN should be < %f\n",dtmax*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}



	//check if DeltaAmp is enouth
        double enouthUP=0.5*NumberPointsUp*100/4095;
        double enouthDOWN=0.5*NumberPointsDown*100/4095;

        int borneUP = rint(enouthUP);
        int borneDown = rint(enouthDOWN);

         if(DeltaAmp<=enouthUP)
        {
                printf("The amplitude difference should be > %d\n, decrease Number Points for positive slope",borneUP);
                //return -1;
        }

        if(DeltaAmp<=enouthDOWN)
        {
                printf("The amplitude difference should be > %d\n, decrease Number Points for negative slope",borneDown);
                //return -1;
        }


	//4 - Put word in register


	//4.1 Limit register
	uint32_t WordAmin = rint(AMin*4095/100);
	uint32_t WordAmax= rint(AMax*4095/100);
       
	 write_register(fd,0x04,WordAmin>>24&0xFF,WordAmin>>16&0xFF,WordAmin>>8&0xFF,WordAmin&0xFF); //min => lim-(Amp ) = 0x800 = Amax/2
        Send_IO_Update(f_dds);
        write_register(fd,0x05,WordAmax>>24&0xFF,WordAmax>>16&0xFF,WordAmax>>8&0xFF,WordAmax&0xFF);//max => lim+(Amp) = 0xFFF= Amax0
        Send_IO_Update(f_dds);


	//4.2 dAUP et dADown

	uint32_t Word_dA_up = rint(dAUp*4095/100);
        uint32_t Word_dA_down = rint(dADown*4095/100);

        write_register(fd,0x06,Word_dA_up>>24&0xFF,Word_dA_up>>16&0xFF,Word_dA_up>>8&0xFF,Word_dA_up&0xFF); //dA_up
        Send_IO_Update(f_dds);
        write_register(fd,0x07,Word_dA_down>>24&0xFF,Word_dA_down>>16&0xFF,Word_dA_down>>8&0xFF,Word_dA_down&0xFF);//dA_down
        Send_IO_Update(f_dds);


	//4.3 dtUp et dtDown

        uint16_t Word_dt_up = rint(dtUp*fclk/24);
        uint16_t Word_dt_down = rint(dtDown*fclk/24);

        write_register(fd,0x08,Word_dt_down>>8&0xFF,Word_dt_down&0xFF,Word_dt_up>>8&0xFF,Word_dt_up&0xFF);  // il y a 2 dt
        Send_IO_Update(f_dds);

        //5 Start of the ramp

	write_register(fd,0x01,0x00,0x28,0x09,0x00); //rampe simple montante
	//write_register(fd,0x01,0x00,0xAE,0x29,0x00); //rampe continue
        Send_IO_Update(f_dds);

        return EXIT_SUCCESS;
}

int ContinueAmplitudeSweep (int fd, int f_dds,double fclk,double dAUp, double dADown, double AMax,double AMin, double DeltaTimeUp, double DeltaTimeDown)
{


        //calcul de N => N=DeltaF/df = DeltaT/dt

	//1-Amax > Amin
	double DeltaAmp = AMax-AMin;
	if(AMax<AMin)
	{
		printf("AMax should be > AMin\n");
		printf("Can't Start the ramp\n");
		return -1;
	}
	
	
	//2- Calcul du nombre de points de la rampe
	int NumberPointsUp = DeltaAmp/dAUp;
	int NumberPointsDown = DeltaAmp/dADown;
	
	//3- En déduire la valeur de dtUp et dtDown
	double dtUp = DeltaTimeUp/NumberPointsUp;
	double dtDown = DeltaTimeDown/NumberPointsDown;

	double dtmin = 24/fclk;
	double dtmax = dtmin*(pow(2.0,16.0)-1);

	//Check Up
	if(dtUp<dtmin)
	{
		printf("During of ramp UP should be > %f s\n",dtmin*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtUp>dtmax)
	{
		printf("During of ramp UP should be < %f\n",dtmax*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	//Check Down
	if(dtDown<dtmin)
	{
		printf("During of ramp DOWN  should be > %f s\n",dtmin*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtDown>dtmax)
	{
		printf("During of ramp DOWN should be < %f\n",dtmax*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}



	//check if DeltaAmp is enouth
        double enouthUP=0.5*NumberPointsUp*100/4095;
        double enouthDOWN=0.5*NumberPointsDown*100/4095;

        int borneUP = rint(enouthUP);
        int borneDown = rint(enouthDOWN);

         if(DeltaAmp<=enouthUP)
        {
                printf("The amplitude difference should be > %d\n, decrease Number Points for positive slope",borneUP);
                //return -1;
        }

        if(DeltaAmp<=enouthDOWN)
        {
                printf("The amplitude difference should be > %d\n, decrease Number Points for negative slope",borneDown);
                //return -1;
        }


	//4 - Put word in register


	//4.1 Limit register
	uint32_t WordAmin = rint(AMin*4095/100);
	uint32_t WordAmax= rint(AMax*4095/100);
       
	 write_register(fd,0x04,WordAmin>>24&0xFF,WordAmin>>16&0xFF,WordAmin>>8&0xFF,WordAmin&0xFF); //min => lim-(Amp ) = 0x800 = Amax/2
        Send_IO_Update(f_dds);
        write_register(fd,0x05,WordAmax>>24&0xFF,WordAmax>>16&0xFF,WordAmax>>8&0xFF,WordAmax&0xFF);//max => lim+(Amp) = 0xFFF= Amax0
        Send_IO_Update(f_dds);


	//4.2 dAUP et dADown

	uint32_t Word_dA_up = rint(dAUp*4095/100);
        uint32_t Word_dA_down = rint(dADown*4095/100);

        write_register(fd,0x06,Word_dA_up>>24&0xFF,Word_dA_up>>16&0xFF,Word_dA_up>>8&0xFF,Word_dA_up&0xFF); //dA_up
        Send_IO_Update(f_dds);
        write_register(fd,0x07,Word_dA_down>>24&0xFF,Word_dA_down>>16&0xFF,Word_dA_down>>8&0xFF,Word_dA_down&0xFF);//dA_down
        Send_IO_Update(f_dds);


	//4.3 dtUp et dtDown

        uint16_t Word_dt_up = rint(dtUp*fclk/24);
        uint16_t Word_dt_down = rint(dtDown*fclk/24);

        write_register(fd,0x08,Word_dt_down>>8&0xFF,Word_dt_down&0xFF,Word_dt_up>>8&0xFF,Word_dt_up&0xFF);  // il y a 2 dt
        Send_IO_Update(f_dds);

        //5 Start of the ramp

	//write_register(fd,0x01,0x00,0x28,0x09,0x00); //rampe simple montante
	write_register(fd,0x01,0x00,0xAE,0x29,0x00); //rampe continue
        Send_IO_Update(f_dds);

        return EXIT_SUCCESS;
}


//3-rampe de ĥase

int PhaseSweep (int fd, int f_dds,double fclk,double dphiUp, double dphiDown, double PhiMax,double PhiMin, double DeltaTimeUp, double DeltaTimeDown)
{


        //calcul de N => N=Deltaphi/dphi = DeltaT/dt

	//1-phimax > phimin
	double DeltaPhi = PhiMax-PhiMin;
	if(PhiMax<PhiMin)
	{
		printf("PhiMax should be > PhiMin\n");
		printf("Can't Start the ramp\n");
		return -1;
	}
	
	
	//2- Calcul du nombre de points de la rampe
	int NumberPointsUp = DeltaPhi/dphiUp;
	int NumberPointsDown = DeltaPhi/dphiDown;
	
	printf("NumberPointsUp = %d\n",NumberPointsUp);
	printf("NumberPointsDown = %d\n",NumberPointsDown);

	//3- En déduire la valeur de dtUp et dtDown
	double dtUp = DeltaTimeUp/NumberPointsUp;
	double dtDown = DeltaTimeDown/NumberPointsDown;

	double dtmin = 24/fclk;
	double dtmax = dtmin*(pow(2.0,16.0)-1);

	//Check Up
	if(dtUp<dtmin)
	{
		printf("During of ramp UP should be > %f s\n",dtmin*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtUp>dtmax)
	{
		printf("During of ramp UP should be < %f\n",dtmax*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	//Check Down
	if(dtDown<dtmin)
	{
		printf("During of ramp DOWN  should be > %f s\n",dtmin*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtDown>dtmax)
	{
		printf("During of ramp DOWN should be < %f\n",dtmax*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}



	//check if DeltaAmp is enouth
/*
        double enouthUP=0.5*NumberPointsUp*100/4095;
        double enouthDOWN=0.5*NumberPointsDown*100/4095;

        int borneUP = rint(enouthUP);
        int borneDown = rint(enouthDOWN);

         if(DeltaAmp<=enouthUP)
        {
                printf("The amplitude difference should be > %d\n, decrease Number Points for positive slope",borneUP);
                //return -1;
        }

        if(DeltaAmp<=enouthDOWN)
        {
                printf("The amplitude difference should be > %d\n, decrease Number Points for negative slope",borneDown);
                //return -1;
        }

*/

	//4 - Put word in register


	//4.1 Limit register
	uint32_t WordPhimin = rint(PhiMin*65535/360);
	uint32_t WordPhimax= rint(PhiMax*65535/360);
      

	printf("WordPhimin = %.32x\n",WordPhimin);
	printf("WordPhimax = %.32x\n",WordPhimax);

 
	 write_register(fd,0x04,WordPhimin>>24&0xFF,WordPhimin>>16&0xFF,WordPhimin>>8&0xFF,WordPhimin&0xFF); //min => lim-(Amp ) = 0x800 = Amax/2
        Send_IO_Update(f_dds);
        write_register(fd,0x05,WordPhimax>>24&0xFF,WordPhimax>>16&0xFF,WordPhimax>>8&0xFF,WordPhimax&0xFF);//max => lim+(Amp) = 0xFFF= Amax0
        Send_IO_Update(f_dds);


	//4.2 dphiUP et dphiDown

//	uint32_t Word_dphi_up = rint(dphiUp*(pow(2.0,29.0)-1)/45);
//      uint32_t Word_dphi_down = rint(dphiDown*(pow(2.0,29.0)-1)/45);
	uint32_t Word_dphi_up = rint(dphiUp*(65535/360));
        uint32_t Word_dphi_down = rint(dphiDown*(65535/360));

	printf("Word_dphi_up = %.32x\n",Word_dphi_up);
	printf("Word_dphi_down = %.32x\n",Word_dphi_down);

/*
       	write_register(fd,0x06,Word_dphi_up>>16&0xFF,Word_dphi_up>>8&0xFF,Word_dphi_up>>0&0xFF,Word_dphi_up&0xFF); //dphi_up
        Send_IO_Update(f_dds);
        write_register(fd,0x07,Word_dphi_down>>16&0xFF,Word_dphi_down>>8&0xFF,Word_dphi_down>>0&0xFF,Word_dphi_down&0xFF);//dphi_down
        Send_IO_Update(f_dds);

*/


	write_register(fd,0x06,Word_dphi_up>>24&0xFF,Word_dphi_up>>16&0xFF,Word_dphi_up>>8&0xFF,Word_dphi_up&0xFF); //dA_up
        Send_IO_Update(f_dds);
        write_register(fd,0x07,Word_dphi_down>>24&0xFF,Word_dphi_down>>16&0xFF,Word_dphi_down>>8&0xFF,Word_dphi_down&0xFF);//dA_down
        Send_IO_Update(f_dds);


	//4.3 dtUp et dtDown

        uint16_t Word_dt_up = rint(dtUp*fclk/24);
        uint16_t Word_dt_down = rint(dtDown*fclk/24);

        write_register(fd,0x08,Word_dt_down>>8&0xFF,Word_dt_down&0xFF,Word_dt_up>>8&0xFF,Word_dt_up&0xFF);  // il y a 2 dt
        Send_IO_Update(f_dds);

        //5 Start of the ramp

	write_register(fd,0x01,0x00,0x18,0x09,0x00); //rampe simple montante
        Send_IO_Update(f_dds);

        return EXIT_SUCCESS;
}

int ContinuePhaseSweep (int fd, int f_dds,double fclk,double dphiUp, double dphiDown, double PhiMax,double PhiMin, double DeltaTimeUp, double DeltaTimeDown)
{


        //calcul de N => N=Deltaphi/dphi = DeltaT/dt

	//1-phimax > phimin
	double DeltaPhi = PhiMax-PhiMin;
	if(PhiMax<PhiMin)
	{
		printf("PhiMax should be > PhiMin\n");
		printf("Can't Start the ramp\n");
		return -1;
	}
	
	
	//2- Calcul du nombre de points de la rampe
	int NumberPointsUp = DeltaPhi/dphiUp;
	int NumberPointsDown = DeltaPhi/dphiDown;
	
	printf("NumberPointsUp = %d\n",NumberPointsUp);
	printf("NumberPointsDown = %d\n",NumberPointsDown);

	//3- En déduire la valeur de dtUp et dtDown
	double dtUp = DeltaTimeUp/NumberPointsUp;
	double dtDown = DeltaTimeDown/NumberPointsDown;

	double dtmin = 24/fclk;
	double dtmax = dtmin*(pow(2.0,16.0)-1);

	//Check Up
	if(dtUp<dtmin)
	{
		printf("During of ramp UP should be > %f s\n",dtmin*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtUp>dtmax)
	{
		printf("During of ramp UP should be < %f\n",dtmax*NumberPointsUp);
		printf("Can't start the ramp\n");
		return -1;
	}

	//Check Down
	if(dtDown<dtmin)
	{
		printf("During of ramp DOWN  should be > %f s\n",dtmin*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}

	if(dtDown>dtmax)
	{
		printf("During of ramp DOWN should be < %f\n",dtmax*NumberPointsDown);
		printf("Can't start the ramp\n");
		return -1;
	}



	//check if DeltaAmp is enouth
/*
        double enouthUP=0.5*NumberPointsUp*100/4095;
        double enouthDOWN=0.5*NumberPointsDown*100/4095;

        int borneUP = rint(enouthUP);
        int borneDown = rint(enouthDOWN);

         if(DeltaAmp<=enouthUP)
        {
                printf("The amplitude difference should be > %d\n, decrease Number Points for positive slope",borneUP);
                //return -1;
        }

        if(DeltaAmp<=enouthDOWN)
        {
                printf("The amplitude difference should be > %d\n, decrease Number Points for negative slope",borneDown);
                //return -1;
        }

*/

	//4 - Put word in register


	//4.1 Limit register
	uint32_t WordPhimin = rint(PhiMin*65535/360);
	uint32_t WordPhimax= rint(PhiMax*65535/360);
      

	printf("WordPhimin = %.32x\n",WordPhimin);
	printf("WordPhimax = %.32x\n",WordPhimax);

 
	 write_register(fd,0x04,WordPhimin>>24&0xFF,WordPhimin>>16&0xFF,WordPhimin>>8&0xFF,WordPhimin&0xFF); //min => lim-(Amp ) = 0x800 = Amax/2
        Send_IO_Update(f_dds);
        write_register(fd,0x05,WordPhimax>>24&0xFF,WordPhimax>>16&0xFF,WordPhimax>>8&0xFF,WordPhimax&0xFF);//max => lim+(Amp) = 0xFFF= Amax0
        Send_IO_Update(f_dds);


	//4.2 dphiUP et dphiDown

//	uint32_t Word_dphi_up = rint(dphiUp*(pow(2.0,29.0)-1)/45);
//      uint32_t Word_dphi_down = rint(dphiDown*(pow(2.0,29.0)-1)/45);
	uint32_t Word_dphi_up = rint(dphiUp*(65535/360));
        uint32_t Word_dphi_down = rint(dphiDown*(65535/360));

	printf("Word_dphi_up = %.32x\n",Word_dphi_up);
	printf("Word_dphi_down = %.32x\n",Word_dphi_down);

/*
       	write_register(fd,0x06,Word_dphi_up>>16&0xFF,Word_dphi_up>>8&0xFF,Word_dphi_up>>0&0xFF,Word_dphi_up&0xFF); //dphi_up
        Send_IO_Update(f_dds);
        write_register(fd,0x07,Word_dphi_down>>16&0xFF,Word_dphi_down>>8&0xFF,Word_dphi_down>>0&0xFF,Word_dphi_down&0xFF);//dphi_down
        Send_IO_Update(f_dds);

*/


	write_register(fd,0x06,Word_dphi_up>>24&0xFF,Word_dphi_up>>16&0xFF,Word_dphi_up>>8&0xFF,Word_dphi_up&0xFF); //dA_up
        Send_IO_Update(f_dds);
        write_register(fd,0x07,Word_dphi_down>>24&0xFF,Word_dphi_down>>16&0xFF,Word_dphi_down>>8&0xFF,Word_dphi_down&0xFF);//dA_down
        Send_IO_Update(f_dds);


	//4.3 dtUp et dtDown

        uint16_t Word_dt_up = rint(dtUp*fclk/24);
        uint16_t Word_dt_down = rint(dtDown*fclk/24);

        write_register(fd,0x08,Word_dt_down>>8&0xFF,Word_dt_down&0xFF,Word_dt_up>>8&0xFF,Word_dt_up&0xFF);  // il y a 2 dt
        Send_IO_Update(f_dds);

        //5 Start of the ramp

	write_register(fd,0x01,0x00,0x9E,0x29,0x00); //rampe simple montante
        Send_IO_Update(f_dds);

        return EXIT_SUCCESS;
}


//-------------------------FIN FONCTIONS RAMPES HARDWARES

//--------------------------FONCTIONS RAMPES SOFTWARES

int RampAmpFromSoft(int fd, int f_dds,double DeltaTimeUp,double AIni, double AFin)
{

	//On va plutôt fixé dA sinon trop de contrainte : => Besoin d'allocation dynamique
	double dA=0.024;//en %
	double DeltaAmp = AIni-AFin;
	double AbsDeltaAmp = 0;
	if(DeltaAmp>=0)
	{
		AbsDeltaAmp = DeltaAmp;
	}
	else
	{
		AbsDeltaAmp = -1*DeltaAmp;
	}

	int NumberPoints = AbsDeltaAmp/dA;
	
	double dt=DeltaTimeUp/NumberPoints;

	printf("Taille du tableau = %d\n", NumberPoints);
	printf("dt = %f s\n",dt);


	uint16_t* ArrayWordAmp= NULL;
	ArrayWordAmp = malloc(NumberPoints*sizeof(uint16_t));

	//extraction de la phase initiale et de l'amplitude

	uint32_t ReadPhaseAmpWord = 0x00000000;
	read_register(fd, 0x0c,&ReadPhaseAmpWord);
	printf("ReadPhaseAmpWord = %.8x \n", ReadPhaseAmpWord);
	
	uint16_t WordPhaseInitiale = ReadPhaseAmpWord&0xFFFF;
	printf("Phase = %.4x \n", WordPhaseInitiale);


	//
	for(int i=0;i<NumberPoints;i++)
	{
		ArrayWordAmp[i]=rint((AIni+i*dA)*4096/100);
	//	printf("ArrayWordAmp[%d] = %.16x\n", i, ArrayWordAmp[i]);
	}
	free(ArrayWordAmp); 

	printf("Array calculated\n");

	printf("Start of the ramp\n");
	for(int i=0;i<NumberPoints;i++)
	{
	        write_register(fd,0x0c,ArrayWordAmp[i]>>8&0xFF,ArrayWordAmp[i]&0xFF,WordPhaseInitiale>>8&0xFF,WordPhaseInitiale&0xFF);
		Send_IO_Update(f_dds);
		usleep(1000000*dt);
	}



/*
	uint16_t PhaseWord = 0x0000;
        uint16_t AmpWord = 0x0000;
        uint32_t ReadPhaseAmpWord=0x00000000;

        AmpWord = rint(amplitude*(pow(2.0,12.0)-1)/100);

        read_register(fd,0x0c,&ReadPhaseAmpWord);

        PhaseWord = ReadPhaseAmpWord&0xFFFF;

        write_register(fd,0x0c,AmpWord>>8&0xFF,AmpWord&0xFF,PhaseWord>>8&0xFF,PhaseWord&0xFF);

*/



/*

	//pas de durée dtUp et dtDown fixée au minimum à 1 ms
	if(DeltaTimeUp < 4.095)
	{
		printf("Use hardware fonctions for the ramp\n");
	}


	//
	double DeltaAmp = AMax-AMin;
	double dA = DeltaAmp/TAILLETAB;
	printf("dA=%f\n",dA);


	if(dA<0.024)
	{
		printf("Amplitude step should be > 0.024 pourcent\n");
		printf("Impossible to start a ramp of amplitude\n");
		return -1;
	}

	//extraction de la phase initiale et de l'amplitude

	uint32_t ReadPhaseAmpWord = 0x00000000;
	read_register(fd, 0x0c,&ReadPhaseAmpWord);
	printf("ReadPhaseAmpWord = %.8x \n", ReadPhaseAmpWord);
	
	uint16_t WordPhaseInitiale = ReadPhaseAmpWord&0xFFFF;
	printf("Phase = %.4x \n", WordPhaseInitiale);
	
	uint16_t WordAmpInitiale = ReadPhaseAmpWord>>16&0xFFFF;
	printf("Amp = %.4x \n", WordAmpInitiale);

	uint16_t Word_dA = rint(dA*4095/100);

	uint32_t ArrayWordAmp[TAILLETAB];

	for(int i=0;i<TAILLETAB;i++)
	{
		ArrayWordAmp[i]=WordAmpInitiale+i*Word_dA;
//		printf("ArrayWordAmp[%d] = %.16x\n", i, ArrayWordAmp[i]);
	}

*/

	return EXIT_SUCCESS;
}

int RampPhaseFromSoft(int fd, int f_dds,double DeltaTimeUp,double PhiIni, double PhiFin)
{

	//On va plutôt fixé dphi : => Besoin d'allocation dynamique
	double dphi=0.06;//en °
	double DeltaPhi = PhiIni-PhiFin;
	double AbsDeltaPhi = 0;
	if(DeltaPhi>=0)
	{
		AbsDeltaPhi = DeltaPhi;
	}
	else
	{
		AbsDeltaPhi = -1*DeltaPhi;
	}

	int NumberPoints = AbsDeltaPhi/dphi;
	
	double dt=DeltaTimeUp/NumberPoints;

	printf("Taille du tableau = %d\n", NumberPoints);
	printf("dt = %f s\n",dt);


	uint16_t* ArrayWordPhi= NULL;
	ArrayWordPhi = malloc(NumberPoints*sizeof(uint16_t));

	//extraction de l'amplitude

	uint32_t ReadPhaseAmpWord = 0x00000000;
	read_register(fd, 0x0c,&ReadPhaseAmpWord);
	printf("ReadPhaseAmpWord = %.8x \n", ReadPhaseAmpWord);
	
	uint16_t WordAmpInitiale = ReadPhaseAmpWord>>16&0xFFFF;
	printf("Amp = %.4x \n", WordAmpInitiale);


	for(int i=0;i<NumberPoints;i++)
	{
		ArrayWordPhi[i]=rint((PhiIni+i*dphi)*65536/360);
	}
	free(ArrayWordPhi); 

	printf("Array calculated\n");

	printf("Start of the ramp\n");
	for(int i=0;i<NumberPoints;i++)
	{
	        write_register(fd,0x0c,WordAmpInitiale>>8&0xFF,WordAmpInitiale&0xFF,ArrayWordPhi[i]>>8&0xFF,ArrayWordPhi[i]&0xFF);
		Send_IO_Update(f_dds);
		usleep(1000000*dt);
	}
	

	return EXIT_SUCCESS;
}



//-------------------------FIN FONCTIONS RAMPES SOFTWARES




int receiveParameterFromPythonServer(char * device, double f_clk, double f_out){

        printf("receiveParameterFromPythonServer::device=%s\tf_clk=%e\tf_out=%e\n",device,f_clk,f_out);
        return 0;
}