lowermachine/source/main.c
Miaow d6e22519d5 fix bug at resuming operation
The START command following a STOP command can cause misplaced counters. This commit fixes the bug by setting counter variables to their initial value as soon as STOP command reaches.
2022-03-10 15:30:21 +08:00

233 lines
6.6 KiB
C

#include <valve.h>
#include <sys/socket.h>
#include <arpa/inet.h>
#include <math.h>
#include <queue_uint64.h>
#include <camera_trigger.h>
#include <encoder.h>
#include <host_computer.h>
/**
* @brief Value of state machine
*/
typedef enum
{
SLEEPING = 0,
RUNNING = 1,
} status_enum_t;
valvedata_t valvedata = {0};
queue_uint64_msg_t data_queue = {0};
queue_uint64_msg_t cmd_queue = {0};
static int count_valve = 1, count_camera = 0, count_valve_should_be = 2;
static uint64_t count_continues = 0UL, count_valve_continues = 0UL, count_camera_continues = 0UL;
static status_enum_t status = SLEEPING;
static int camera_trigger_pulse_count = 500;
static int valve_should_trigger_pulse_count = 1;
static int valve_trigger_pulse_count = 10;
static int camera_to_valve_pulse_count = 3015;
#define ROTATE_UINT64_RIGHT(x, n) ((x) >> (n)) | ((x) << ((64) - (n)))
#define ROTATE_UINT64_LEFT(x, n) ((x) << (n)) | ((x) >> ((64) - (n)))
void on_encoder(void);
void valve_test(float ms_for_each_channel);
void valve_test2(float ms_for_each_channel, int which_channel);
void valve_test3(float ms_for_each_channel);
void process_cmd(uint64_t *cmd);
int main(int argc, char *argv[])
{
queue_uint64_init(&data_queue, 99999);
queue_uint64_init(&cmd_queue, 99999);
// valve_init();
// printf("testing valve.....");
// fflush(stdout);
// valve_test3(100.0f);
// valve_test2(200.0f, 0);
// for (int i = 0; i < 999; i++)
// {
// valve_test(200.0f);
// }
// printf("OK\r\n");
// valve_deinit();
hostcomputer_init(&data_queue, &cmd_queue);
printf("\r\n>>>>>\r\nstatus==SLEEPING\r\n<<<<<\r\n\r\n");
uint64_t cmd;
int TRUE = 1;
while (TRUE)
{
if (queue_uint64_get(&cmd_queue, &cmd) == 0)
{
process_cmd(&cmd);
}
usleep(100000);
}
hostcomputer_deinit();
queue_uint64_deinit(&data_queue);
queue_uint64_deinit(&cmd_queue);
// encoder_init(on_encoder);
// sleep(100);
// encoder_deinit();
// cameratrigger_init();
// for (int i = 0; i < 100; i++)
// {
// sleep(1);
// cameratrigger_trig();
// }
// cameratrigger_deinit();
return 0;
}
void process_cmd(uint64_t *cmd)
{
int tmp_cmd = (int)*cmd;
int tmp_data = (int)(*cmd >> 32);
if (status == SLEEPING)
{
if (tmp_cmd == HOSTCOMPUTER_CMD_START)
{
queue_uint64_clear(&data_queue);
valve_should_trigger_pulse_count = camera_trigger_pulse_count / HOST_COMPUTER_PICTURE_ROW_NUM;
for (int i = 0; i < camera_to_valve_pulse_count * HOST_COMPUTER_PICTURE_ROW_NUM / camera_trigger_pulse_count; i++)
queue_uint64_put(&data_queue, 0L);
valve_init();
cameratrigger_init();
encoder_init(on_encoder);
printf("\r\n>>>>>\r\nstatus==RUNNING\r\ncamera_trigger_pulse_count=%d\r\nvalve_trigger_pulse_count=%d\r\ncamera_to_valve_pulse_count=%d\r\n<<<<<\r\n\r\n", camera_trigger_pulse_count, valve_trigger_pulse_count, camera_to_valve_pulse_count);
status = RUNNING;
}
else if (tmp_cmd == HOSTCOMPUTER_CMD_TEST)
{
valve_init();
valve_test(500.0f);
valve_deinit();
}
else if (tmp_cmd == HOSTCOMPUTER_CMD_SETCAMERATRIGPULSECOUNT)
{
camera_trigger_pulse_count = tmp_data;
}
else if (tmp_cmd == HOSTCOMPUTER_CMD_SETVALVETRIGPULSECOUNT)
{
valve_trigger_pulse_count = tmp_data;
}
else if (tmp_cmd == HOSTCOMPUTER_CMD_SETCAMERATOVALVEPULSECOUNT)
{
camera_to_valve_pulse_count = tmp_data;
}
}
else if (status == RUNNING)
{
if (tmp_cmd == HOSTCOMPUTER_CMD_STOP)
{
encoder_deinit();
cameratrigger_deinit();
valve_deinit();
queue_uint64_clear(&data_queue);
count_continues = 0UL;
count_valve_continues = 0UL;
count_camera_continues = 0UL;
count_valve = 1;
count_camera = 0;
count_valve_should_be = 2;
status = SLEEPING;
printf("\r\n>>>>>\r\nstatus==SLEEPING\r\n<<<<<\r\n\r\n");
}
}
}
void valve_test(float ms_for_each_channel)
{
uint64_t valve_data = 1ul;
for (int i = 0; i < 48; i++)
{
usleep((useconds_t)(ms_for_each_channel * 500.0f));
valvedata.valvedata_1 = valve_data << i;
valve_sendmsg(&valvedata);
usleep((useconds_t)(ms_for_each_channel * 500.0f));
valvedata.valvedata_1 = 0;
valve_sendmsg(&valvedata);
}
}
void valve_test2(float ms_for_each_channel, int which_channel)
{
uint64_t valve_data = 1ul;
for (int i = 0; i < 10; i++)
{
usleep((useconds_t)(ms_for_each_channel * 500.0f));
valvedata.valvedata_1 = valve_data << which_channel;
valve_sendmsg(&valvedata);
usleep((useconds_t)(ms_for_each_channel * 500.0f));
valvedata.valvedata_1 = 0;
valve_sendmsg(&valvedata);
}
}
void valve_test3(float ms_for_each_channel)
{
valvedata.valvedata_1 = 0x5555555555555555ul;
for (int i = 0; i < 9999; i++)
{
usleep((useconds_t)(ms_for_each_channel * 250.0f));
valvedata.valvedata_1 = 0x5555555555555555ul;
valve_sendmsg(&valvedata);
usleep((useconds_t)(ms_for_each_channel * 250.0f));
valvedata.valvedata_1 = 0;
valve_sendmsg(&valvedata);
usleep((useconds_t)(ms_for_each_channel * 250.0f));
valvedata.valvedata_1 = 0xaaaaaaaaaaaaaaaaul;
valve_sendmsg(&valvedata);
usleep((useconds_t)(ms_for_each_channel * 250.0f));
valvedata.valvedata_1 = 0;
valve_sendmsg(&valvedata);
usleep((useconds_t)(ms_for_each_channel * 250.0f));
}
}
void on_encoder()
{
count_continues++;
if (++count_valve == valve_trigger_pulse_count + 1)
{
count_valve = 1;
count_valve_continues++;
valve_sendmsg(&valvedata);
// printf("data:%llx send to valve, queue length is %d\r\n", valvedata.valvedata_1, data_queue.nData);
// printf("%016llx ", valvedata.valvedata_1);
fflush(stdout);
}
if (++count_valve_should_be == valve_should_trigger_pulse_count + 2)
{
count_valve_should_be = 2;
valvedata.valvedata_1 = 0;
queue_uint64_get(&data_queue, &(valvedata.valvedata_1));
// if (data_queue.nData == 0)
// {
// printf("sb\r\n");
// }
}
if (++count_camera == camera_trigger_pulse_count)
{
// printf("camera triggled\r\n");
count_camera = 0;
count_camera_continues++;
cameratrigger_trig();
}
}