void imu_init()
{
lock = 0;
i2c_open(&imuConn, PIN_IMU_SCL, PIN_IMU_SDA, 0);
// Gyro initialization.
// 22 -> 11011 Set internal clock and scale.
// 21 -> 9 Set sample rate.
// 23 -> 101 Trigger interrupt when new data is ready (extra int pins).
// 62 -> 1 Set clock source.
write_to_register(&imuConn, GYRO_ADDR, 0x16, 0x1A);
write_to_register(&imuConn, GYRO_ADDR, 0x15, 0x09);
write_to_register(&imuConn, GYRO_ADDR, 0x17, 0x05);
write_to_register(&imuConn, GYRO_ADDR, 0x3E, 1);
// Accel initialization.
// 45 -> 1000, 100 Wake it from sleep, keep it awake.
// 49 -> 01 Set the data range. 00->2, 01->4, 10->8, 11->16 (+- g).
write_to_register(&imuConn, ACCL_ADDR, 0x2D, 16);
write_to_register(&imuConn, ACCL_ADDR, 0x2D, 8);
write_to_register(&imuConn, ACCL_ADDR, 0x31, 0); // Might need to change this later.
//writeToRegister(&imuConn, ACCL_ADDR, 0x1E, -25/-4); -25 // Tuning values.
//writeToRegister(&imuConn, ACCL_ADDR, 0x1F, 12/-4); 12
//writeToRegister(&imuConn, ACCL_ADDR, 0x20, 249/4); 249
}
int main(int argc, char *argv[]) {
int fd;
int sock;
daisy7_imu imu_data;
sock = gcs_udp_open();
if (sock==0) return(1);
printf("Starting...sock %X\n", sock);
// init i2c
fd = i2c_open(I2C_G20_DEVICE);
if (!(fd<0)) {
// i2c opened. Init daisy7
daisy7_init(fd);
while(1) {
daisy7_readall(fd, &imu_data);
gcs_heartbeat(sock);
gcs_raw_imu(sock,imu_data);
// printf("acc(%5d - %5d - %5d) gyro(%5d - %5d - %5d) \r",
// imu_data.acc.raw_x,imu_data.acc.raw_y,imu_data.acc.raw_z,
// imu_data.gyro.raw_x,imu_data.gyro.raw_y,imu_data.gyro.raw_z);
usleep(2500);
}
}
gcs_udp_close(sock);
return(0);
}
/*!
* \brief Command initialization.
*
* \param argc Command-line argument count.
* \param argv Command-line arguments.
* \param pI2C Pointer to \h_i2c handle.
*/
static void MainInit(int argc, char *argv[], i2c_t *pI2C)
{
// Name of this process
Argv0 = basename(argv[0]);
// Get the environment
//EnvGet();
// Parse input arguments
argv = OptsGet(Argv0, &PkgInfo, &I2CShPgmInfo, I2CShOptsInfo, true,
&argc, argv);
if( OptDevName == NULL || OptDevName[0] == 0 )
{
OptDevName = "/dev/i2c/0";
}
if( OptVerbose )
{
printf("I2C device: %s\n\n", OptDevName);
}
if( i2c_open(pI2C, OptDevName) < 0 )
{
LOGSYSERROR("%s: Failed to open.", OptDevName);
exit(EC_ERROR);
}
}
//---------------------------------------------------------------------------
void QboxDialog::on_openBtn_clicked()
{
if(isOpen()) {
close_frontend();
return;
}
#if 1
i2c_close();
unsigned char tmp8[2];
i2c_fd = i2c_open("/dev/i2c-5");
if(i2c_fd < 0) {
qDebug("Failed to open i2c");
return;
}
// read device id from system register
if(i2c_read(1, 0x00) > 0)
qDebug("Device ID Register: 0x%02x, Device id: 0x%02x revision: 0x%02x",
i2c_rx_buf[0],
(i2c_rx_buf[0] >> 4),
(i2c_rx_buf[0] & 0x0f));
// read system mode register
if(i2c_read(1, 0x01) > 0) {
tmp8[0] = (i2c_rx_buf[0] >> 3) & 0x03;
tmp8[1] = i2c_rx_buf[0] & 0x07;
qDebug("System mode: 0x%02x, Modulation: %s, Mode: %s",
i2c_rx_buf[0],
tmp8[0] == 0x00 ? "BPSK":(tmp8[0] == 0x01 ? "QPSK":"Reservd"),
tmp8[1] == 0x00 ? "DVB-S":(tmp8[1] == 0x01 ? "DSS":"Reservd"));
}
i2c *i2c_newbus(int sclpin, int sdapin, int scldrive)
{
i2c *bus = i2c_open(&list[buscnt++], sclpin, sdapin, scldrive);
//return bus;
bus = &list[buscnt-1];
return bus;
}
int main(int argc, char *argv[])
{
int mode,i;
char data[8];
if( i2c_open(BUS,I2C_DEVICE) < 0)
return -1;
if(argc == 2 && argv[1][0] == 'h')
mode = 1;
else
mode = 0;
data[0] = 0;
data[1] = 0;
for(i=2;i<8;i++)
data[i] = '0';
//i2c_write(data,10);
data[0] = 0;
data[1] = 0;
i2c_write(data,2);
dumpEeprom(mode);
i2c_close();
return 0;
}
int i2c_write(int device, unsigned char *buf, int count)
{
int cnt = count;
int timeout = 5;
device &= 0xFF;
i2c_open();
__i2c_send_nack(); /* Master does not send ACK, slave sends it */
W_try_again:
if (timeout < 0)
goto W_timeout;
cnt = count;
__i2c_send_start();
if (i2c_put_data( (device << 1) | I2C_WRITE ) < 0)
goto device_err;
#if 0 //CONFIG_JZ_TPANEL_ATA2508
if (address == 0xff)
{
while (cnt)
{
if (i2c_put_data_nack(*buf) < 0)
break;
cnt--;
buf++;
}
}
else
#endif
{
while (cnt)
{
if (i2c_put_data(*buf) < 0)
break;
cnt--;
buf++;
}
}
__i2c_send_stop();
i2c_close();
return count - cnt;
device_err:
timeout--;
__i2c_send_stop();
goto W_try_again;
W_timeout:
logf("Write I2C device 0x%2x failed.", device);
__i2c_send_stop();
i2c_close();
return -1;
}
int i2c_init_taos() {
fTAOS = i2c_open("/dev/i2c-1", ADDRESS_TAOS);
printf("i2c: taos:file %d\n", fTAOS);
if (fTAOS == -1)
return -1;
i2c_taos_config();
return 0;
}
static unsigned long i2c_get_funcs(int bus)
{
int fd = i2c_open(bus, 0, 0);
unsigned long result;
xioctl(fd, I2C_FUNCS, &result);
close(fd);
return result;
}
int i2c_init_encoder() {
fENCODER = i2c_open("/dev/i2c-1", ADDRESS_ENCODER);
printf("i2c: encoder:file %d\n", fENCODER);
if (fENCODER != -1)
return 0;
else
return -1;
}
int ledrgb_close () {
if(ledrgb_open_count && --ledrgb_open_count == 0) {
i2c_open();
i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_CONFIG, 0);
i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_ENABLE, 0);
i2c_close();
}
}
int i2c_init_gpio() {
fGPIO = i2c_open("/dev/i2c-1", ADDRESS_GPIO);
printf("i2c: gpio:file %d\n", fGPIO);
if (fGPIO != -1) {
set_gpio_config();
return 0;
} else {
return -1;
}
}
/*!
* \brief Command initialization.
*
* \param argc Command-line argument count.
* \param argv Command-line arguments.
* \param pI2C Pointer to \h_i2c handle.
*/
static void MainInit(int argc, char *argv[], i2c_t *pI2C)
{
// Name of this process
Argv0 = basename(argv[0]);
// Get the environment
//EnvGet();
// Parse input arguments
argv = OptsGet(Argv0, &PkgInfo, &I2CWritePgmInfo, I2CWriteOptsInfo, true,
&argc, argv);
// Final option checks
if( OptI2CAddr < 0x00 )
{
fprintf(stderr, "%s: Address option required\n", Argv0);
exit(EC_BAD_OPT);
}
else if( (OptI2CAddr < I2C_ADDR_DEV_LOW) || (OptI2CAddr > I2C_ADDR_DEV_HIGH) )
{
fprintf(stderr, "%s: Address out of range: 0x%x\n", Argv0, OptI2CAddr);
exit(EC_BAD_OPT);
}
// Convert command-line arguments
ArgsGet(argc, argv);
// Opened device specified
if( OptDevFd >= 0 )
{
pI2C->fd = OptDevFd;
pI2C->addr = (ushort_t)(-1);
}
// I2C Bus device specified
else
{
if( OptDevName == NULL || OptDevName[0] == 0 )
{
OptDevName = "/dev/i2c/0";
}
if( OptVerbose )
{
printf("I2C device: %s\n\n", OptDevName);
}
if( i2c_open(pI2C, OptDevName) < 0 )
{
LOGSYSERROR("%s: Failed to open.", OptDevName);
exit(EC_ERROR);
}
}
}
int
cam_init(void)
{
int i=0;
unsigned char pair[2];
int not_finished=1;
i2ch=i2c_open(I2CBUS, CAM_ADDR);
// do a reset
// reset the sensor
pair[0]=MT9M001_RESET; pair[1]=0x0001;
i2c_write(i2ch, CAM_ADDR, pair, 2);
delay_ms(999);
do
{
// obtain address and value to program
pair[0]=params_1280x1024[i];
pair[1]=params_1280x1024[i+1];
// reached end?
if ((pair[0]==0xaa) && (pair[1]==0xbb))
{
if ((params_1280x1024[i+2]==0xcc) && (params_1280x1024[i+3]==0xdd))
{
// end sequence seen.
not_finished=0;
break;
}
}
//i2c_write(i2ch, pair, 2);
i2c_write(i2ch, CAM_ADDR, pair, 2);
delay_ms(10);
i=i+2;
}while (not_finished);
// test
//pair[0]=OV9655_COM3; pair[1]=0x80;
//i2c_write_ignore_nack(i2ch, CAM_ADDR, pair, 2);
//delay_ms(10);
cam_id_dump();
i2c_close(i2ch);
printf("Camera should be working\n");
return(0);
}
int i2c_read(int device, unsigned char *buf, int count)
{
int cnt = count;
int timeout = 5;
device &= 0xFF;
i2c_open();
L_try_again:
if (timeout < 0)
goto L_timeout;
__i2c_send_nack(); /* Master does not send ACK, slave sends it */
__i2c_send_start();
if (i2c_put_data( (device << 1) | I2C_READ ) < 0)
goto device_err;
__i2c_send_ack(); /* Master sends ACK for continue reading */
while (cnt)
{
if (cnt == 1)
{
if (i2c_get_data(buf, 0) < 0)
break;
}
else
{
if (i2c_get_data(buf, 1) < 0)
break;
}
cnt--;
buf++;
}
__i2c_send_stop();
i2c_close();
return count - cnt;
device_err:
timeout--;
__i2c_send_stop();
goto L_try_again;
L_timeout:
__i2c_send_stop();
logf("Read I2C device 0x%2x failed.", device);
i2c_close();
return -1;
}
int i2c_init_servo() {
fSERVO = i2c_open("/dev/i2c-1", ADDRESS_SERVO);
printf("i2c: servo:file %d\n", fSERVO);
if (fSERVO == -1)
return -1;
i2c_servo_set_servo(SERVO_LEFT, servo_left_close);
i2c_servo_set_servo(SERVO_RIGHT, servo_right_close);
u08 buf[2];
buf[0] = 0x00, buf[1] = SERVO_AS_SR_DEF;
i2c_write(fSERVO, buf, 2);
return 0;
}
void i2cget_main(void)
{
int bus = atolx_range(toys.optargs[0], 0, INT_MAX);
int chip = atolx_range(toys.optargs[1], 0, 0x7f);
int addr = atolx_range(toys.optargs[2], 0, 0xff);
int fd, byte;
confirm("Read register 0x%02x from chip 0x%02x on bus %d?", addr, chip, bus);
fd = i2c_open(bus, (toys.optflags&FLAG_f)?I2C_SLAVE_FORCE:I2C_SLAVE, chip);
if (i2c_read_byte(fd, addr, &byte) == -1) perror_exit("i2c_read_byte");
printf("0x%02x\n", byte);
close(fd);
}
void ledrgb_set(uint8_t rgb_mask, uint8_t r, uint8_t g, uint8_t b)
{
//TRACE_INFO("ledrgb_set %x %x %x\r\n", r, g, b);
i2c_open();
if (rgb_mask & 0x1)
i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_RPWM, r);
if (rgb_mask & 0x2)
i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_GPWM, g);
if (rgb_mask & 0x4)
i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_BPWM, b);
i2c_close();
}
void i2cdetect_main(void)
{
if (toys.optflags & FLAG_l) {
if (toys.optc) error_exit("-l doesn't take arguments");
dirtree_read("/sys/class/i2c-dev", i2cdetect_dash_l);
} else if (toys.optflags & FLAG_F) {
if (toys.optc != 1) error_exit("-F BUS");
i2cdetect_dash_F(atolx_range(*toys.optargs, 0, INT_MAX));
} else {
int bus, first = 0x03, last = 0x77, fd, row, addr, byte;
if (toys.optflags & FLAG_a) {
first = 0x00;
last = 0x7f;
}
if (toys.optc != 1 && toys.optc != 3) error_exit("bad args");
bus = atolx_range(*toys.optargs, 0, INT_MAX);
if (toys.optc == 3) {
first = atolx_range(toys.optargs[1], 0, 0x7f);
last = atolx_range(toys.optargs[1], 0, 0x7f);
if (first > last) error_exit("first > last");
}
confirm("Probe chips 0x%02x-0x%02x on bus %d?", first, last, bus);
fd = i2c_open(bus, 0, 0);
printf(" 0 1 2 3 4 5 6 7 8 9 a b c d e f\n");
for (row = 0; row <= 0x70; row += 16) {
xprintf("%02x:", row & 0xf0);
for (addr = row; addr < row + 16; ++addr) {
if (addr < first || addr > last) printf(" ");
else {
if (ioctl(fd, I2C_SLAVE, addr) == -1) {
if (errno == EBUSY) {
xprintf(" UU");
continue;
}
perror_exit("ioctl(I2C_SLAVE)");
}
if (i2c_read_byte(fd, addr, &byte) == -1) xprintf(" --");
else xprintf(" %02x", addr);
}
}
putchar('\n');
}
close(fd);
}
}
int main(void){
i2c_init();
i2c_open(addr);
i2c_write(R_Vel,0x03,1000);
i2c_write(L_Vel,0x02,500);
//y = i2c_read(L_Enc);
//t = i2c_read(R_Enc);
printf("%u\n", t);
printf("%u\n", y);
return(0);
}
/**
* Open I2C device
*
* @param self
* @param args
* @return
*/
static PyObject* py_open(PyObject* self, PyObject* args) {
/* Parse arguments */
if (!PyArg_ParseTuple(args, "i", &address)) {
return NULL;
}
/* Open slave device*/
fd = i2c_open(bus, address);
if (fd < 0) {
return PyErr_SetFromErrno(PyExc_IOError);
}
Py_RETURN_NONE;
}
unsigned char cam_reg_read(unsigned char addr, unsigned char reg)
{
int ret;
unsigned char buf[2];
// To read from the camera, we first write the register value
buf[0]=reg;
//i2c_write_ignore_nack(i2ch, CAM_ADDR, buf, 1);
i2c_write(i2ch, (char *) CAM_ADDR, buf, 1);
i2c_close(i2ch);
i2ch=i2c_open(I2CBUS, CAM_ADDR);
ret=i2c_read_no_ack(i2ch, CAM_ADDR, buf, 1);
if (ret<0)
printf("cam_reg_read error!\n");
return(buf[0]);
}
int cam_trigger() {
int i=0;
unsigned char pair[2];
i2ch=i2c_open(I2CBUS, CAM_ADDR);
// trigger an exposure
pair[0]=MT9M001_FRAME_RESTART; pair[1]=0x0001;
i2c_write(i2ch, CAM_ADDR, pair, 2);
cam_id_dump();
i2c_close(i2ch);
return(0);
}
static be_jse_symbol_t *i2c_module_handle_cb(be_jse_vm_ctx_t *execInfo, be_jse_symbol_t *var, const char *name)
{
if (0 == strcmp(name, "open")) {
return i2c_open();
}
if (0 == strcmp(name, "read")) {
return i2c_read();
}
if (0 == strcmp(name, "write")) {
return i2c_write();
}
if (0 == strcmp(name, "close")) {
return i2c_close();
}
return (BE_JSE_FUNC_UNHANDLED);
}
int main (void) {
if (i2c_open()<0) { printf("Apertura del bus I2C fallita\n"); return 1; }
ds1307_init();
input_data();
set_data(giorno_in,mese_in,anno_in);
printf("Data sul DS1307: %d/%d/%d\r\n",read_day(),read_month(),read_year());
input_ora();
set_ora(ora_in,minuto_in);
while (1){
printf("Data sul DS1307: %02X/%02X/%02X\r\n", read_day(), read_month(), read_year());
printf("Ora sul DS1307: %02X:%02X:%02X\r\n",read_hour(),read_min(),read_sec());
sleep(10);
}
return 1;
}
int ledrgb_open () {
if(!ledrgb_open_count++) {
i2c_open();
i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_ENABLE, LEDRGB_CHIPEN);
//delay(500);
Task_sleep(1);
//i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_CONFIG, LEDRGB_CPMODE_AUTO|LEDRGB_PWM_HF|LEDRGB_INT_CLK_EN|LEDRGB_R_TO_BATT);
i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_CONFIG, LEDRGB_CPMODE_AUTO|LEDRGB_PWM_HF|LEDRGB_INT_CLK_EN|LEDRGB_R_TO_BATT|LEDRGB_PWRSAVE_EN);
//delay(20);
i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_OPMODE, LEDRGB_RMODE_DC|LEDRGB_GMODE_DC|LEDRGB_BMODE_DC);
//config lights:
i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_RCURRENT, 0x20);
i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_GCURRENT, 0x20);
i2cMasterWrite(LEDRGB_PHY_ADDR, 1, LEDRGB_REG_BCURRENT, 0x20);
i2c_close();
}
}
int aversive_open(aversive_dev_t* dev)
{
#if CONFIG_USE_I2C
if (i2c_open(&dev->i2c_dev, 0) == -1)
{
DEBUG_ERROR("i2c_open\n");
return -1;
}
#elif CONFIG_USE_CAN
dev->can_dev = can_open();
if (dev->can_dev == 0)
{
DEBUG_ERROR("can_open\n");
return -1;
}
#endif /* CONFIG_USE_XXX */
#if (CONFIG_DO_ADC == 0)
#if (CONFIG_DO_KEYVAL == 0)
/* send the following to initialize aversive
*/
aversive_sync_sequence(dev);
aversive_stop(dev);
aversive_set_asserv(dev, 0);
aversive_set_power(dev, 0);
aversive_set_pos(dev, 0, 0, 0);
aversive_set_power(dev, 1);
aversive_set_asserv(dev, 1);
aversive_set_blocking_params(dev, 5, 300, 8000);
aversive_set_blocking_params2(dev, 150, 150);
#endif /* CONFIG_DO_KEYVAL == 0 */
#endif /* CONFIG_DO_ADC == 0 */
return 0;
}
int main(int argc, char** argv) {
if (argc < 3) {
fprintf(stderr, "Must specify I2C bus number and command\n");
return -1;
}
int returnVal = -1;
int fd = i2c_open(atoi(argv[1]), I2C_ADDRESS);
if (fd == -1)
return -1;
if (strcmp(argv[2], "s") == 0) {
returnVal = switch_application(fd);
} else if (strcmp(argv[2], "v") == 0) {
unsigned char version[INFO_SIZE];
version[INFO_SIZE] = '\0';
returnVal = read_version(fd, version, INFO_SIZE);
if (returnVal != -1)
printf("%s\n", version);
} else if (strcmp(argv[2], "c") == 0) {
unsigned char buffer[2];
returnVal = read_checksum(fd, buffer, sizeof(buffer));
if (returnVal != -1) {
printf("%02X %02X\n", buffer[0], buffer[1]);
}
} else {
fprintf(stderr, "Unknown command\n");
}
i2c_close(fd);
return returnVal;
}
void i2cdump_main(void)
{
int bus = atolx_range(toys.optargs[0], 0, INT_MAX);
int chip = atolx_range(toys.optargs[1], 0, 0x7f);
int fd, row, addr, byte;
confirm("Dump chip 0x%02x on bus %d?", chip, bus);
fd = i2c_open(bus, (toys.optflags&FLAG_f)?I2C_SLAVE_FORCE:I2C_SLAVE, chip);
printf(" 0 1 2 3 4 5 6 7 8 9 a b c d e f 0123456789abcdef\n");
for (row = 0; row <= 0xf0; row += 16) {
xprintf("%02x:", row & 0xf0);
for (addr = row; addr < row + 16; ++addr) {
if (i2c_read_byte(fd, addr, &byte) == -1) perror_exit("i2c_read_byte");
printf(" %02x", byte);
toybuf[addr-row] = isprint(byte) ? byte : (byte ? '?' : '.');
}
printf(" %16.16s\n", toybuf);
}
close(fd);
}
/**
Initialize Gsensor IIC bus
Initialize Gsensor IIC bus
@param void
@return void
*/
BOOL GSensor_I2C_Init(GSENSOR_INFO GSensorInfo)
{
UINT erReturn;
g_GsensorInfo.I2C_RegBytes = GSensorInfo.I2C_RegBytes;
g_GsensorInfo.I2C_PinMux = GSensorInfo.I2C_PinMux;
g_GsensorInfo.I2C_BusClock = GSensorInfo.I2C_BusClock;
g_GsensorInfo.I2C_Slave_WAddr = GSensorInfo.I2C_Slave_WAddr;
g_GsensorInfo.I2C_Slave_RAddr = GSensorInfo.I2C_Slave_RAddr;
if (g_GsensorInfo.I2C_RegBytes > GSENSOR_I2C_REGISTER_2BYTE)
{
debug_msg("Error register Byte Count !!\r\n");
return FALSE;
}
if (g_GsensorInfo.I2C_PinMux > I2C_PINMUX_2ND)
{
debug_msg("Error I2C Pin mux !!\r\n");
return FALSE;
}
if (g_GsensorInfo.I2C_BusClock > I2C_BUS_CLOCK_1MHZ)
{
debug_msg("Error I2C Bus Clock !!\r\n");
return FALSE;
}
erReturn = i2c_open(&(g_GsensorInfo.I2C_Channel));
if(erReturn != I2C_STS_OK)
{
debug_err(("Error open I2C driver!!\r\n"));
return FALSE;
}
i2c_setConfig(g_GsensorInfo.I2C_Channel, I2C_CONFIG_ID_PINMUX, g_GsensorInfo.I2C_PinMux); //select to control I2C 1st device
i2c_setConfig(g_GsensorInfo.I2C_Channel, I2C_CONFIG_ID_BUSCLOCK, g_GsensorInfo.I2C_BusClock); //up to 400KHZ
return TRUE;
}