uint8_t _main_flight(json_t *data) {
json_t *_source, *_destination, *_set_start, *_set_end, *_pilot, *_task;
const char *source;
char *destination, *pilot;
size_t set_start, set_end;
_source = json_object_get(data, "source");
_destination = json_object_get(data, "destination");
_set_start = json_object_get(data, "set_start");
_set_end = json_object_get(data, "set_end");
_pilot = json_object_get(data, "pilot");
_task = json_object_get(data, "task");
if (!json_is_string(_source)) {
fprintf(stderr, "{\"error\": \"No source file provided\"}");
return 0;
}
source = json_string_value(_source);
if (!json_is_string(_destination)) {
destination = calloc(strlen(source) + 1, sizeof(char));
strcpy(destination, source);
dirname(destination);
} else {
destination = (char *) json_string_value(_destination);
}
if (!json_is_string(_pilot)) {
pilot = (char *) json_string_value(_pilot);
}
char out_file_1[strlen(destination) + 20];
char out_file_2[strlen(destination) + 20];
char out_file_3[strlen(destination) + 20];
char out_file_4[strlen(destination) + 20];
sprintf(out_file_1, "%s%s", destination, "/track.js");
sprintf(out_file_2, "%s%s", destination, "/track.kml");
sprintf(out_file_3, "%s%s", destination, "/track_earth.kml");
sprintf(out_file_4, "%s%s", destination, "/track_split.kml");
char *igc_file = load_file(source);
if (igc_file != NULL) {
coordinate_set_t *set = NEW(coordinate_set_t, 1);
coordinate_set_init(set);
task_t *read_task = NULL;
coordinate_set_parse_igc(set, igc_file, &read_task);
size_t initial_length = set->length;
coordinate_set_trim(set);
coordinate_set_repair(set);
coordinate_set_simplify(set, 1500);
coordinate_set_extrema(set);
json_t *_section = json_object_get(data, "section");
size_t section;
if (_section) {
section = json_integer_value(_section);
coordinate_set_select_section(set, section, 0);
}
if (set->subset_count == 1) {
task_t *task = parse_task(_task);
if (!task) {
task = read_task;
}
distance_map_t *map = NEW(distance_map_t, 1);
distance_map_init(map, set);
char *ids;
printf("{");
printf("\"validated\": %d,", validate_file(source));
printf("\"total_points\": %d,", initial_length);
printf("\"sets\": %d,", set->subset_count);
printf("\"date\": \"%04d-%02d-%02d\",", set->year, set->month, set->day);
printf("\"start_time\": %d,", set->first->timestamp);
printf("\"duration\": %d,", set->last->timestamp - set->first->timestamp);
printf("\"points\": %d,", set->length);
printf("\"stats\": {", set->length);
printf("\"height\" : {\"min\": %d, \"max\": %d},", set->first->ele, set->last->ele);
printf("\"speed\" : {\"min\": %d, \"max\": %d},", set->first->speed, set->last->speed);
printf("\"climb_rate\" : {\"min\": %d, \"max\": %d}", set->first->climb_rate, set->last->climb_rate);
printf("},");
printf("\"task\": {", set->length);
task_t *od, *or, *tr, *ft;
od = distance_map_score_open_distance_3tp(map);
or = distance_map_score_out_and_return(map);
tr = distance_map_score_triangle(map, 0.28);
ft = distance_map_score_triangle(map, 0);
format_task(od, "open_distance", OPEN_DISTANCE);
printf(",");
format_task(or, "out_and_return", OUT_AND_RETURN);
printf(",");
format_task(tr, "triangle", TRIANGLE);
printf(",");
format_task(ft, "flat_triangle", FLAT_TRIANGLE);
if (task) {
printf(",");
format_task(task, "declared", task->type);
printf(", \"complete\": %d", task_completes_task(task, set));
}
printf("}, \"output\": {\"js\": \"%s\",\"kml\": \"%s\",\"earth\": \"%s\"}", out_file_1, out_file_2, out_file_3);
formatter_t *formatter;
formatter = NEW(formatter_t, 1);
formatter_js_init(formatter, set, 1, od, or, tr, ft);
formatter_js_output(formatter, out_file_1);
free(formatter);
formatter = NEW(formatter_t, 1);
formatter_kml_init(formatter, set, pilot ?: "N/A", od, or, tr, ft, task);
formatter_kml_output(formatter, out_file_2);
free(formatter);
formatter = NEW(formatter_t, 1);
formatter_kml_earth_init(formatter, set, pilot ?: "N/A", od, or, tr, ft, task);
formatter_kml_earth_output(formatter, out_file_3);
free(formatter);
printf("}");
if (od) {
task_deinit(od);
}
if (or) {
task_deinit(or);
}
if (tr) {
task_deinit(tr);
}
distance_map_deinit(map);
} else {
int main(int argc, char *argv[])
{
try
{
setlocale(LC_ALL, "Russian");
std::vector<std::string> addresses;
std::vector< std::stack<int> > ports;
if( !read_net(addresses, ports) )
throw simple_exception("Error : reading grid net description failed");
grid_client gc;
gc.run(addresses, ports);
menu_t menu = get_menu();
while(1)
{
std::string user_str;
std::getline(std::cin, user_str);
boost::to_lower(user_str);
std::vector<std::string> split_vec;
boost::algorithm::split(split_vec, user_str, boost::algorithm::is_any_of(" \t"));
if( split_vec.empty() ) continue;
std::string user_command = split_vec.front();
std::string task_name = split_vec.size() > 1 ? split_vec[1] : std::string();
grid_task gt;
//***********************************************************************
if( user_command == menu[QUIT].command )
{
break;
}
//***********************************************************************
else if( user_command == menu[APPLY_TASK].command )
{
if( !task_name.empty() )
{
std::ifstream fin(task_name.data());
if( fin )
{
if( parse_task(gt, fin) )
gc.apply_task(gt);
}
else
std::cerr << "Error : cannot open task.txt" << std::endl;
fin.close();
}
else
std::cout << menu[APPLY_TASK].definition << std::endl;
}
//***********************************************************************
else if( user_command == menu[REMOVE_TASK].command )
{
if( !task_name.empty() )
gc.remove_task(task_name);
else
std::cout << menu[REMOVE_TASK].definition << std::endl;
}
//***********************************************************************
else if( user_command == menu[REFRESH_STATUS].command )
{
if( !task_name.empty() )
gc.refresh_status(task_name);
else
std::cout << menu[REFRESH_STATUS].definition << std::endl;
}
//***********************************************************************
else if( user_command == menu[GET_RESULT].command )
{
if( !task_name.empty() )
gc.get_result(task_name);
else
std::cout << menu[GET_RESULT].definition << std::endl;
}
//***********************************************************************
else if( user_command == menu[STATUS].command )
{
if( !task_name.empty() )
std::cout << gc.task_status_message(task_name) << std::endl;
else
std::cout << menu[STATUS].definition << std::endl;
}
//***********************************************************************
else if( user_command == menu[TASKS].command )
{
grid_client::pair_string_vector tasks;
gc.tasks(tasks);
for(grid_client::pair_string_vector::const_iterator i = tasks.begin(); i < tasks.end(); ++i)
std::cout << i->first << '\t' << i->second << std::endl;
}
//***********************************************************************
else
{
for(menu_t::const_iterator i = menu.begin(); i != menu.end(); ++i)
std::cout << i->second.command << '\t' << i->second.definition << std::endl;
}
//***********************************************************************
}
gc.stop();
}
catch(const std::exception &ex)
{
std::cerr << ex.what() << std::endl;
}
return 0;
}
int
main (int argc, char **argv)
{
error_t err;
task_t task;
int search = 0;
unsigned show = 0; /* what info we print */
mach_port_type_t only = 0, target_only = 0; /* Which names to show */
task_t xlate_task = MACH_PORT_NULL;
int no_translation_errors = 0; /* inhibit complaints about bad names */
struct port_name_xlator *xlator = 0;
/* Parse our options... */
error_t parse_opt (int key, char *arg, struct argp_state *state)
{
switch (key)
{
case 'v': show |= PORTINFO_DETAILS; break;
case 'm': show |= PORTINFO_MEMBERS; break;
case 'x': show |= PORTINFO_HEX_NAMES; break;
case 'r': only |= MACH_PORT_TYPE_RECEIVE; break;
case 's': only |= MACH_PORT_TYPE_SEND; break;
case 'o': only |= MACH_PORT_TYPE_SEND_ONCE; break;
case 'd': only |= MACH_PORT_TYPE_DEAD_NAME; break;
case 'p': only |= MACH_PORT_TYPE_PORT_SET; break;
case 'R': target_only |= MACH_PORT_TYPE_RECEIVE; break;
case 'S': target_only |= MACH_PORT_TYPE_SEND; break;
case 'O': target_only |= MACH_PORT_TYPE_SEND_ONCE; break;
case 't': xlate_task = parse_task (arg); break;
case 'a': search = 1; break;
case 'E': no_translation_errors = 1; break;
case '*':
hold = 1;
while (hold)
sleep (1);
break;
case ARGP_KEY_NO_ARGS:
argp_usage (state);
return EINVAL;
case ARGP_KEY_ARG:
if (state->arg_num == 0)
/* The task */
{
task = parse_task (arg);
if (only == 0)
only = ~0;
if (target_only == 0)
target_only = ~0;
if (xlate_task != MACH_PORT_NULL)
{
if (search)
argp_error (state,
"Both --search and --translate specified");
err = port_name_xlator_create (task, xlate_task, &xlator);
if (err)
error (13, err, "Cannot setup task translation");
}
if (state->next == state->argc)
/* No port names specified, print all of them. */
{
if (xlator)
err = print_xlated_task_ports_info (xlator, only,
show, stdout);
else
err = print_task_ports_info (task, only, show, stdout);
if (err)
error (12, err, "%s", arg);
}
break;
}
/* A port name */
{
char *end;
mach_port_t name = strtoul (arg, &end, 0);
if (name == 0)
error (0, 0, "%s: Invalid port name", arg);
else
{
if (xlator)
{
err = print_xlated_port_info (name, 0, xlator,
show, stdout);
if (err && no_translation_errors)
break;
}
else
err = print_port_info (name, 0, task, show, stdout);
if (err)
error (0, err, "%s", arg);
}
}
break;
default:
return ARGP_ERR_UNKNOWN;
}
return 0;
}
const struct argp argp = { options, parse_opt, args_doc, doc };
/* Parse our arguments. */
argp_parse (&argp, argc, argv, 0, 0, 0);
exit (0);
}