/*
* card_device_init - open card read used uart
* @return : status
*/
int card_device_init(void)
{
int ret;
int fd;
switch(g_port) {
case 1:
fd = open_uart(PORT_0, O_RDWR);
if (fd < 0) {
debug_msg("Card Device Init Failed\n");
return -ETAX_OPEN_CARD;
}
break;
case 2:
fd = open_uart(PORT_1, O_RDWR);
if (fd < 0) {
debug_msg("Card Device Init Failed\n");
return -ETAX_OPEN_CARD;
}
break;
case 3:
fd = open_uart(PORT_2, O_RDWR);
if (fd < 0) {
debug_msg("Card Device Init Failed\n");
return -ETAX_OPEN_CARD;
}
break;
case 4:
fd = open_uart(PORT_3, O_RDWR);
if (fd < 0) {
debug_msg("Card Device Init Failed\n");
return -ETAX_OPEN_CARD;
}
break;
default:
return 1;
break;
}
ret = card_uart_setup(fd);
if (ret < 0) {
close(fd);
return FAIL;
}
card_dev = fd;
return SUCCESS;
}
float get_umidade_relativa()
{
int uart_descriptor = open_uart();
if (uart_descriptor == -1)
return 0;
unsigned char buffer[5];
buffer[0] = 0x06;
buffer[1] = 3;
buffer[2] = 2;
buffer[3] = 9;
buffer[4] = 8;
if (write_uart(uart_descriptor, buffer, 5) == -1)
return 0;
printf("Escrita completa!\n");
float umidade;
if (read_uart(uart_descriptor, (void*) &umidade, 4) == -1)
return 0;
printf("Leitura completa!\n");
close(uart_descriptor);
return umidade;
}
int test_hott_telemetry(int argc, char *argv[])
{
PX4_INFO("HoTT Telemetry Test Requirements:");
PX4_INFO("- Radio on and Electric Air. Mod on (telemetry -> sensor select).");
PX4_INFO("- Receiver telemetry port must be in telemetry mode.");
PX4_INFO("- Connect telemetry wire to /dev/ttyS1 (USART2).");
PX4_INFO("Testing...");
const char device[] = "/dev/ttyS1";
int fd = open_uart(device);
if (fd < 0) {
close(fd);
return ERROR;
}
#ifdef TIOCSSINGLEWIRE
/* Activate single wire mode */
ioctl(fd, TIOCSSINGLEWIRE, SER_SINGLEWIRE_ENABLED);
#endif
char send = 'a';
write(fd, &send, 1);
/* Since TX and RX are now connected we should be able to read in what we wrote */
const int timeout = 1000;
struct pollfd fds[] = { { .fd = fd, .events = POLLIN } };
int
hott_sensors_thread_main(int argc, char *argv[])
{
warnx("starting");
thread_running = true;
const char *device = DEFAULT_UART;
/* read commandline arguments */
for (int i = 0; i < argc && argv[i]; i++) {
if (strcmp(argv[i], "-d") == 0 || strcmp(argv[i], "--device") == 0) { //device set
if (argc > i + 1) {
device = argv[i + 1];
} else {
thread_running = false;
errx(1, "missing parameter to -d\n%s", commandline_usage);
}
}
}
/* enable UART, writes potentially an empty buffer, but multiplexing is disabled */
const int uart = open_uart(device);
if (uart < 0) {
errx(1, "Failed opening HoTT UART, exiting.");
thread_running = false;
}
init_pub_messages();
uint8_t buffer[MAX_MESSAGE_BUFFER_SIZE];
size_t size = 0;
uint8_t id = 0;
while (!thread_should_exit) {
// Currently we only support a General Air Module sensor.
build_gam_request(&buffer[0], &size);
send_poll(uart, buffer, size);
// The sensor will need a little time before it starts sending.
usleep(5000);
recv_data(uart, &buffer[0], &size, &id);
// Determine which moduel sent it and process accordingly.
if (id == GAM_SENSOR_ID) {
publish_gam_message(buffer);
} else {
warnx("Unknown sensor ID: %d", id);
}
}
warnx("exiting");
close(uart);
thread_running = false;
return 0;
}
void main(){
open_uart(); // open uart
signal(SIGINT, INThandler);
send();
close(fd); // close uart
}
int
hott_telemetry_thread_main(int argc, char *argv[])
{
warnx("starting");
thread_running = true;
const char *device = DEFAULT_UART;
/* read commandline arguments */
for (int i = 0; i < argc && argv[i]; i++) {
if (strcmp(argv[i], "-d") == 0 || strcmp(argv[i], "--device") == 0) { //device set
if (argc > i + 1) {
device = argv[i + 1];
} else {
thread_running = false;
errx(1, "missing parameter to -d\n%s", commandline_usage);
}
}
}
/* enable UART, writes potentially an empty buffer, but multiplexing is disabled */
const int uart = open_uart(device);
if (uart < 0) {
errx(1, "Failed opening HoTT UART, exiting.");
thread_running = false;
}
init_sub_messages();
uint8_t buffer[MAX_MESSAGE_BUFFER_SIZE];
size_t size = 0;
uint8_t id = 0;
bool connected = true;
while (!thread_should_exit) {
// Listen for and serve poll from the receiver.
if (recv_req_id(uart, &id) == OK) {
if (!connected) {
connected = true;
warnx("OK");
}
switch (id) {
case EAM_SENSOR_ID:
build_eam_response(buffer, &size);
break;
case GAM_SENSOR_ID:
build_gam_response(buffer, &size);
break;
case GPS_SENSOR_ID:
build_gps_response(buffer, &size);
break;
default:
continue; // Not a module we support.
}
send_data(uart, buffer, size);
} else {
connected = false;
warnx("syncing");
}
}
warnx("exiting");
close(uart);
thread_running = false;
return 0;
}
/// \cond
int main(int argc, char **argv)
{
int fd;
char *s;
unsigned char ope_code;
unsigned char prev_code;
unsigned char data_size;
unsigned char prev_size;
int len;
int baud;
char ret;
printf("bcm2835_for_java ver1.01 start priority=%d\n", nice(1) );
if( argc != 2 )
{
printf("bcm2835_for_java needs 1 parameter like as /tmp/shared_mem\n");
exit ( -1 );
}
else
{
fd = open( argv[1], O_RDWR);
if( fd == -1 )
{
printf("file %s can't open\n",argv[1]);
exit(-1);
}
else
{
s = mmap(0, 4096, PROT_READ | PROT_WRITE, MAP_SHARED, fd, 0);
if( s == MAP_FAILED )
{
printf("we can't create mapping file\n");
}
}
}
r_buff = (struct ring_buff *)s;
w_buff = (struct ring_buff *)(s+sizeof(struct ring_buff) );
bi_send_buff = (char *)( s + 2*sizeof(struct ring_buff) );
bi_rec_buff = (char *)( bi_send_buff + TEMP_BUFF_SIZE );
sync_code = (int *)( bi_rec_buff + TEMP_BUFF_SIZE );
reply_code = (int *)( sync_code + 1 );
init_ring_buff(w_buff,WRITER_INIT);
init_ring_buff(r_buff,READER_INIT);
bi_status = STATUS_FINE;
while( 1 )
{
if( calc_data_size( r_buff ) != 0 )
{
prev_code = ope_code;
prev_size = data_size;
get_ope_code();
ope_code = buff[0];
data_size = calc_data_size( r_buff );
switch( ope_code )
{
case OPE_INIT:
bcm_init();
break;
case OPE_CLOSE:
bcm_close();
break;
case OPE_SET_DEBUG:
ope_set_debug();
break;
case OPE_PERI_READ:
ope_peri_read();
break;
case OPE_PERI_READ_NB:
ope_peri_read_nb();
break;
case OPE_PERI_WRITE:
ope_peri_write();
break;
case OPE_PERI_WRITE_NB:
ope_peri_write_nb();
break;
case OPE_PERI_SET_BITS:
ope_peri_set_bits();
break;
case OPE_GPIO_FSEL:
ope_gpio_fsel();
break;
case OPE_GPIO_SET:
ope_gpio_set();
break;
case OPE_GPIO_CLR:
ope_gpio_clr();
break;
case OPE_GPIO_SET_MULTI:
ope_gpio_set_multi();
break;
case OPE_GPIO_CLR_MULTI:
ope_gpio_clr_multi();
break;
case OPE_GPIO_LEV:
ope_gpio_lev();
break;
case OPE_GPIO_EDS:
ope_gpio_eds();
break;
case OPE_GPIO_SET_EDS:
ope_gpio_set_eds();
break;
case OPE_GPIO_REN:
ope_gpio_ren();
break;
case OPE_GPIO_CLR_REN:
ope_gpio_clr_ren();
break;
case OPE_GPIO_FEN:
ope_gpio_fen();
break;
case OPE_GPIO_CLR_FEN:
ope_gpio_clr_fen();
break;
case OPE_GPIO_HEN:
ope_gpio_hen();
break;
case OPE_GPIO_CLR_HEN:
ope_gpio_clr_hen();
break;
case OPE_GPIO_LEN:
ope_gpio_len();
break;
case OPE_GPIO_CLR_LEN:
ope_gpio_clr_len();
break;
case OPE_GPIO_AREN:
ope_gpio_aren();
break;
case OPE_GPIO_CLR_AREN:
ope_gpio_clr_aren();
break;
case OPE_GPIO_AFEN:
ope_gpio_afen();
break;
case OPE_GPIO_CLR_AFEN:
ope_gpio_clr_afen();
break;
case OPE_GPIO_PUD:
ope_gpio_pud();
break;
case OPE_GPIO_PUDCLK:
ope_gpio_pudclk();
break;
case OPE_GPIO_WRITE:
ope_gpio_write();
break;
case OPE_GPIO_PAD:
ope_gpio_pad();
break;
case OPE_GPIO_SET_PAD:
ope_gpio_set_pad();
break;
case OPE_DELAY:
ope_delay();
break;
case OPE_DELAYMICROSECONDS:
ope_delaymicroseconds();
break;
case OPE_GPIO_WRITE_MULTI:
ope_gpio_write_multi();
break;
case OPE_GPIO_WRITE_MASK:
ope_gpio_write_mask();
break;
case OPE_GPIO_SET_PUD:
ope_gpio_set_pud();
break;
case OPE_SPI_BEGIN:
ope_spi_begin();
break;
case OPE_SPI_END:
ope_spi_end();
break;
case OPE_SPI_SETBITORDER:
ope_spi_setbitorder();
break;
case OPE_SPI_SETCLOCKDIVIDER:
ope_spi_setclockdivider();
break;
case OPE_SPI_SETDATAMODE:
ope_spi_setdatamode();
break;
case OPE_SPI_CHIPSELECT:
ope_spi_chipselect();
break;
case OPE_SPI_SETCHIPSELECTPOLARITY:
ope_spi_setchipselectpolarity();
break;
case OPE_SPI_TRANSFER:
ope_spi_transfer();
break;
case OPE_SPI_TRANSFERNB:
ope_spi_transfernb();
break;
case OPE_SPI_TRANSFERN:
ope_spi_transfern();
break;
case OPE_SPI_WRITENB:
ope_spi_writenb();
break;
case OPE_I2C_BEGIN:
ope_i2c_begin();
break;
case OPE_I2C_END:
ope_i2c_end();
break;
case OPE_I2C_SETSLAVEADDRESS:
ope_i2c_setslaveaddress();
break;
case OPE_I2C_SETCLOCKDIVIDER:
ope_i2c_setclockdivider();
break;
case OPE_I2C_SET_BAUDRATE:
ope_i2c_set_baudrate();
break;
case OPE_I2C_WRITE:
ope_i2c_write();
break;
case OPE_I2C_READ:
ope_i2c_read();
break;
case OPE_I2C_READ_REGISTER_RS:
ope_i2c_read_register_rs();
break;
case OPE_ST_READ:
ope_st_read();
break;
case OPE_ST_DELAY:
ope_st_delay();
break;
case OPE_HELLO:
get_int_code();
len = *(int *)(buff+1);
set_ope_code( OPE_REPLY );
strcpy( bi_rec_buff, "Nice to meet you." );
set_int_code( strlen(bi_rec_buff) );
put_reply();
mark_sync();
usleep(5000);
break;
case OPE_SYNC:
mark_sync();
break;
case OPE_EXIT:
goto BREAK_LINE;
break;
case OPE_OPEN_UART:
open_uart();
break;
case OPE_CONFIG_UART:
configure_uart();
break;
case OPE_SEND_UART:
send_uart();
break;
case OPE_RECEIVE_UART:
receive_uart();
break;
case OPE_CLOSE_UART:
close_uart();
break;
default:
printf("prev_code %02x \n",prev_code);
printf("prev_size %d \n",prev_size);
printf("ope_code error %02x \n",ope_code);
printf("data_size=%d \n",data_size);
break;
}
}
else
{
usleep(5000);
}
}
BREAK_LINE:
printf("Close bcm2835_for_java\n");
exit(0);
}
void IridiumSBD::main_loop(int argc, char *argv[])
{
CDev::init();
pthread_mutex_init(&_tx_buf_mutex, NULL);
pthread_mutex_init(&_rx_buf_mutex, NULL);
int arg_i = 3;
int arg_uart_name = 0;
while (arg_i < argc) {
if (!strcmp(argv[arg_i], "-d")) {
arg_i++;
arg_uart_name = arg_i;
} else if (!strcmp(argv[arg_i], "-v")) {
PX4_WARN("verbose mode ON");
_verbose = true;
}
arg_i++;
}
if (arg_uart_name == 0) {
PX4_WARN("no Iridium SBD modem UART port provided!");
_task_should_exit = true;
return;
}
if (open_uart(argv[arg_uart_name]) != SATCOM_UART_OK) {
PX4_WARN("failed to open UART port!");
_task_should_exit = true;
return;
}
// disable flow control
write_at("AT&K0");
if (read_at_command() != SATCOM_RESULT_OK) {
PX4_WARN("modem not responding");
_task_should_exit = true;
return;
}
// disable command echo
write_at("ATE0");
if (read_at_command() != SATCOM_RESULT_OK) {
PX4_WARN("modem not responding");
_task_should_exit = true;
return;
}
param_t param_pointer;
param_pointer = param_find("ISBD_READ_INT");
param_get(param_pointer, &_param_read_interval_s);
param_pointer = param_find("ISBD_SBD_TIMEOUT");
param_get(param_pointer, &_param_session_timeout_s);
if (_param_session_timeout_s < 0) {
_param_session_timeout_s = 60;
}
param_pointer = param_find("ISBD_STACK_TIME");
param_get(param_pointer, &_param_stacking_time_ms);
if (_param_stacking_time_ms < 0) {
_param_stacking_time_ms = 0;
}
VERBOSE_INFO("read interval: %d s", _param_read_interval_s);
VERBOSE_INFO("SBD session timeout: %d s", _param_session_timeout_s);
VERBOSE_INFO("SBD stack time: %d ms", _param_stacking_time_ms);
while (!_task_should_exit) {
switch (_state) {
case SATCOM_STATE_STANDBY:
standby_loop();
break;
case SATCOM_STATE_CSQ:
csq_loop();
break;
case SATCOM_STATE_SBDSESSION:
sbdsession_loop();
break;
case SATCOM_STATE_TEST:
test_loop();
break;
}
if (_new_state != _state) {
VERBOSE_INFO("SWITCHING STATE FROM %s TO %s", satcom_state_string[_state], satcom_state_string[_new_state]);
_state = _new_state;
publish_iridium_status();
} else {
publish_iridium_status();
usleep(100000); // 100ms
}
}
}
int
hott_telemetry_thread_main(int argc, char *argv[])
{
warnx("starting");
connect_count = perf_alloc(PC_COUNT, "reconnects ");
recon_port = perf_alloc(PC_COUNT, "reopen port ");
reqs_count = perf_alloc(PC_COUNT, "requests ");
bin_reply = perf_alloc(PC_COUNT, "bin replies ");
txt_reply = perf_alloc(PC_COUNT, "text replies ");
bad_reply = perf_alloc(PC_COUNT, "unknown replies ");
dead_reply = perf_alloc(PC_COUNT, "dead replies ");
thread_running = true;
const char *device = DEFAULT_UART;
/* read commandline arguments */
for (int i = 0; i < argc && argv[i]; i++) {
if (strcmp(argv[i], "-d") == 0 || strcmp(argv[i], "--device") == 0) { //device set
if (argc > i + 1) {
device = argv[i + 1];
} else {
thread_running = false;
errx(1, "missing parameter to -d\n%s", commandline_usage);
}
}
}
/* enable UART, writes potentially an empty buffer, but multiplexing is disabled */
int uart = open_uart(device);
if (uart < 0) {
errx(1, "Failed opening HoTT UART, exiting.");
thread_running = false;
}
init_sub_messages();
uint8_t buffer[MAX_MESSAGE_BUFFER_SIZE];
size_t size = 0;
uint8_t id = 0;
bool connected = true;
int recon = 0;
while (!thread_should_exit) {
// Listen for and serve poll from the receiver.
if (recv_req_id(uart, &id) == OK) {
if (!connected) {
connected = true;
warnx("OK");
}
switch (id) {
case EAM_SENSOR_ID:
build_eam_response(buffer, &size);
perf_count(bin_reply);
break;
case GAM_SENSOR_ID:
build_gam_response(buffer, &size);
perf_count(bin_reply);
break;
case GPS_SENSOR_ID:
build_gps_response(buffer, &size);
perf_count(bin_reply);
break;
case BINARY_MODE_REQUEST_ID:
perf_count(dead_reply);
break;
default:
perf_count(bad_reply);
continue; // Not a module we support.
}
send_data(uart, buffer, size);
} else {
if (connected) {
connected = false;
} else {
recon++;
}
if (recon > 100) {
perf_count(recon_port);
close(uart);
uart = open_uart(device);
perf_reset(reqs_count);
perf_reset(bin_reply);
perf_reset(txt_reply);
perf_reset(dead_reply);
perf_reset(bad_reply);
}
}
}
warnx("exiting");
close(uart);
thread_running = false;
perf_free(connect_count);
perf_free(recon_port);
perf_free(reqs_count);
perf_free(bin_reply);
perf_free(txt_reply);
perf_free(bad_reply);
perf_free(dead_reply);
return 0;
}