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r_api.c
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r_api.c
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/** @file
Generic RF data receiver and decoder for ISM band devices using RTL-SDR and SoapySDR.
Copyright (C) 2019 Christian W. Zuckschwerdt <zany@triq.net>
This program is free software; you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation; either version 2 of the License, or
(at your option) any later version.
*/
#include <stdio.h>
#include <stdlib.h>
#include <stdint.h>
#include <stdbool.h>
#include <string.h>
#include <math.h>
#include "r_api.h"
#include "r_util.h"
#include "rtl_433.h"
#include "r_private.h"
#include "rtl_433_devices.h"
#include "r_device.h"
#include "pulse_slicer.h"
#include "pulse_detect_fsk.h"
#include "sdr.h"
#include "data.h"
#include "data_tag.h"
#include "list.h"
#include "optparse.h"
#include "output_file.h"
#include "output_log.h"
#include "output_udp.h"
#include "output_mqtt.h"
#include "output_influx.h"
#include "output_trigger.h"
#include "output_rtltcp.h"
#include "write_sigrok.h"
#include "mongoose.h"
#include "compat_time.h"
#include "logger.h"
#include "fatal.h"
#include "http_server.h"
#ifdef _WIN32
#include <io.h>
#include <fcntl.h>
#ifdef _MSC_VER
#define F_OK 0
#endif
#endif
#ifndef _MSC_VER
#include <unistd.h>
#endif
#ifndef _MSC_VER
#include <getopt.h>
#else
#include "getopt/getopt.h"
#endif
char const *version_string(void)
{
return "rtl_433"
#ifdef GIT_VERSION
#define STR_VALUE(arg) #arg
#define STR_EXPAND(s) STR_VALUE(s)
" version " STR_EXPAND(GIT_VERSION)
#ifdef GIT_BRANCH
" branch " STR_EXPAND(GIT_BRANCH)
#endif
#ifdef GIT_TIMESTAMP
" at " STR_EXPAND(GIT_TIMESTAMP)
#endif
#undef STR_VALUE
#undef STR_EXPAND
#else
" version unknown"
#endif
" inputs file rtl_tcp"
#ifdef RTLSDR
" RTL-SDR"
#endif
#ifdef SOAPYSDR
" SoapySDR"
#endif
#ifdef OPENSSL
" with TLS"
#endif
;
}
/* helper */
struct mg_mgr *get_mgr(r_cfg_t *cfg)
{
if (!cfg->mgr) {
cfg->mgr = calloc(1, sizeof(*cfg->mgr));
if (!cfg->mgr)
FATAL_CALLOC("get_mgr()");
mg_mgr_init(cfg->mgr, NULL);
}
return cfg->mgr;
}
void set_center_freq(r_cfg_t *cfg, uint32_t center_freq)
{
cfg->frequencies = 1;
cfg->frequency_index = 0;
cfg->frequency[0] = center_freq;
// cfg->center_frequency = center_freq; // actually applied in the sdr event
sdr_set_center_freq(cfg->dev, center_freq, 1);
}
void set_freq_correction(r_cfg_t *cfg, int freq_correction)
{
// cfg->ppm_error = freq_correction; // actually applied in the sdr event
sdr_set_freq_correction(cfg->dev, freq_correction, 0);
}
void set_sample_rate(r_cfg_t *cfg, uint32_t sample_rate)
{
// cfg->samp_rate = sample_rate; // actually applied in the sdr event
sdr_set_sample_rate(cfg->dev, sample_rate, 0);
}
void set_gain_str(struct r_cfg *cfg, char const *gain_str)
{
free(cfg->gain_str);
if (!gain_str) {
cfg->gain_str = NULL; // auto gain
}
else {
cfg->gain_str = strdup(gain_str);
if (!cfg->gain_str)
WARN_STRDUP("set_gain_str()");
}
sdr_set_tuner_gain(cfg->dev, gain_str, 0);
}
/* general */
void r_init_cfg(r_cfg_t *cfg)
{
cfg->out_block_size = DEFAULT_BUF_LENGTH;
cfg->samp_rate = DEFAULT_SAMPLE_RATE;
cfg->conversion_mode = CONVERT_NATIVE;
cfg->fsk_pulse_detect_mode = FSK_PULSE_DETECT_AUTO;
// Default log level is to show all LOG_FATAL, LOG_ERROR, LOG_WARNING
// abnormal messages and LOG_CRITICAL information.
cfg->verbosity = LOG_WARNING;
list_ensure_size(&cfg->in_files, 100);
list_ensure_size(&cfg->output_handler, 16);
// collect devices list, this should be a module
r_device r_devices[] = {
#define DECL(name) name,
DEVICES
#undef DECL
};
cfg->num_r_devices = sizeof(r_devices) / sizeof(*r_devices);
for (unsigned i = 0; i < cfg->num_r_devices; i++) {
r_devices[i].protocol_num = i + 1;
}
cfg->devices = malloc(sizeof(r_devices));
if (!cfg->devices)
FATAL_CALLOC("r_init_cfg()");
memcpy(cfg->devices, r_devices, sizeof(r_devices));
cfg->demod = calloc(1, sizeof(*cfg->demod));
if (!cfg->demod)
FATAL_CALLOC("r_init_cfg()");
cfg->demod->level_limit = 0.0;
cfg->demod->min_level = -12.1442;
cfg->demod->min_snr = 9.0;
// Pulse detect will only print LOG_NOTICE and lower.
cfg->demod->detect_verbosity = LOG_WARNING;
// note: this should be optional
cfg->demod->pulse_detect = pulse_detect_create();
// initialize tables
baseband_init();
time(&cfg->frames_since);
list_ensure_size(&cfg->demod->r_devs, 100);
list_ensure_size(&cfg->demod->dumper, 32);
}
r_cfg_t *r_create_cfg(void)
{
r_cfg_t *cfg = calloc(1, sizeof(*cfg));
if (!cfg)
FATAL_CALLOC("r_create_cfg()");
r_init_cfg(cfg);
return cfg;
}
void r_free_cfg(r_cfg_t *cfg)
{
if (cfg->dev) {
sdr_deactivate(cfg->dev);
sdr_close(cfg->dev);
}
free(cfg->gain_str);
for (void **iter = cfg->demod->dumper.elems; iter && *iter; ++iter) {
file_info_t const *dumper = *iter;
if (dumper->file && (dumper->file != stdout))
fclose(dumper->file);
}
list_free_elems(&cfg->demod->dumper, free);
list_free_elems(&cfg->demod->r_devs, (list_elem_free_fn)free_protocol);
if (cfg->demod->am_analyze)
am_analyze_free(cfg->demod->am_analyze);
pulse_detect_free(cfg->demod->pulse_detect);
list_free_elems(&cfg->raw_handler, (list_elem_free_fn)raw_output_free);
r_logger_set_log_handler(NULL, NULL);
list_free_elems(&cfg->output_handler, (list_elem_free_fn)data_output_free);
list_free_elems(&cfg->data_tags, (list_elem_free_fn)data_tag_free);
list_free_elems(&cfg->in_files, NULL);
free(cfg->demod);
free(cfg->devices);
mg_mgr_free(cfg->mgr);
free(cfg->mgr);
//free(cfg);
}
/* device decoder protocols */
void register_protocol(r_cfg_t *cfg, r_device *r_dev, char *arg)
{
// use arg of 'v', 'vv', 'vvv' as device verbosity
int dev_verbose = 0;
if (arg && *arg == 'v') {
for (; *arg == 'v'; ++arg) {
dev_verbose++;
}
if (*arg) {
arg++; // skip separator
}
}
// use any other arg as device parameter
r_device *p;
if (r_dev->create_fn) {
p = r_dev->create_fn(arg);
}
else {
if (arg && *arg) {
fprintf(stderr, "Protocol [%u] \"%s\" does not take arguments \"%s\"!\n", r_dev->protocol_num, r_dev->name, arg);
}
p = malloc(sizeof(*p));
if (!p)
FATAL_CALLOC("register_protocol()");
*p = *r_dev; // copy
}
p->verbose = dev_verbose ? dev_verbose : (cfg->verbosity > 4 ? cfg->verbosity - 5 : 0);
p->verbose_bits = cfg->verbose_bits;
p->log_fn = log_device_handler;
p->output_fn = data_acquired_handler;
p->output_ctx = cfg;
list_push(&cfg->demod->r_devs, p);
if (cfg->verbosity >= LOG_INFO) {
fprintf(stderr, "Registering protocol [%u] \"%s\"\n", r_dev->protocol_num, r_dev->name);
}
}
void free_protocol(r_device *r_dev)
{
// free(r_dev->name);
free(r_dev->decode_ctx);
free(r_dev);
}
void unregister_protocol(r_cfg_t *cfg, r_device *r_dev)
{
for (size_t i = 0; i < cfg->demod->r_devs.len; ++i) { // list might contain NULLs
r_device *p = cfg->demod->r_devs.elems[i];
if (!strcmp(p->name, r_dev->name)) {
list_remove(&cfg->demod->r_devs, i, (list_elem_free_fn)free_protocol);
i--; // so we don't skip the next elem now shifted down
}
}
}
void register_all_protocols(r_cfg_t *cfg, unsigned disabled)
{
for (int i = 0; i < cfg->num_r_devices; i++) {
// register all device protocols that are not disabled
if (cfg->devices[i].disabled <= disabled) {
register_protocol(cfg, &cfg->devices[i], NULL);
}
}
}
/* output helper */
void calc_rssi_snr(r_cfg_t *cfg, pulse_data_t *pulse_data)
{
float ook_high_estimate = pulse_data->ook_high_estimate > 0 ? pulse_data->ook_high_estimate : 1;
float ook_low_estimate = pulse_data->ook_low_estimate > 0 ? pulse_data->ook_low_estimate : 1;
float asnr = ook_high_estimate / ook_low_estimate;
float foffs1 = (float)pulse_data->fsk_f1_est / INT16_MAX * cfg->samp_rate / 2.0;
float foffs2 = (float)pulse_data->fsk_f2_est / INT16_MAX * cfg->samp_rate / 2.0;
pulse_data->freq1_hz = (foffs1 + cfg->center_frequency);
pulse_data->freq2_hz = (foffs2 + cfg->center_frequency);
pulse_data->centerfreq_hz = cfg->center_frequency;
pulse_data->depth_bits = cfg->demod->sample_size * 4;
// NOTE: for (CU8) amplitude is 10x (because it's squares)
if (cfg->demod->sample_size == 2 && !cfg->demod->use_mag_est) { // amplitude (CU8)
pulse_data->range_db = 42.1442f; // 10*log10f(16384.0f) == 20*log10f(128.0f)
pulse_data->rssi_db = 10.0f * log10f(ook_high_estimate) - 42.1442f; // 10*log10f(16384.0f)
pulse_data->noise_db = 10.0f * log10f(ook_low_estimate) - 42.1442f; // 10*log10f(16384.0f)
pulse_data->snr_db = 10.0f * log10f(asnr);
}
else { // magnitude (CU8, CS16)
pulse_data->range_db = 84.2884f; // 20*log10f(16384.0f)
// lowest (scaled x128) reading at 8 bit is -20*log10(128) = -42.1442 (eff. -36 dB)
// lowest (scaled div2) reading at 12 bit is -20*log10(1024) = -60.2060 (eff. -54 dB)
// lowest (scaled div2) reading at 16 bit is -20*log10(16384) = -84.2884 (eff. -78 dB)
pulse_data->rssi_db = 20.0f * log10f(ook_high_estimate) - 84.2884f; // 20*log10f(16384.0f)
pulse_data->noise_db = 20.0f * log10f(ook_low_estimate) - 84.2884f; // 20*log10f(16384.0f)
pulse_data->snr_db = 20.0f * log10f(asnr);
}
}
char *time_pos_str(r_cfg_t *cfg, unsigned samples_ago, char *buf)
{
if (cfg->report_time == REPORT_TIME_SAMPLES) {
double s_per_sample = 1.0 / cfg->samp_rate;
return sample_pos_str(cfg->demod->sample_file_pos - samples_ago * s_per_sample, buf);
}
else {
struct timeval ago = cfg->demod->now;
double us_per_sample = 1e6 / cfg->samp_rate;
unsigned usecs_ago = samples_ago * us_per_sample;
while (ago.tv_usec < (int)usecs_ago) {
ago.tv_sec -= 1;
ago.tv_usec += 1000000;
}
ago.tv_usec -= usecs_ago;
char const *format = NULL;
if (cfg->report_time == REPORT_TIME_UNIX)
format = "%s";
else if (cfg->report_time == REPORT_TIME_ISO)
format = "%Y-%m-%dT%H:%M:%S";
if (cfg->report_time_hires)
return usecs_time_str(buf, format, cfg->report_time_tz, &ago);
else
return format_time_str(buf, format, cfg->report_time_tz, ago.tv_sec);
}
}
// well-known fields "time", "msg" and "codes" are used to output general decoder messages
// well-known field "bits" is only used when verbose bits (-M bits) is requested
// well-known field "tag" is only used when output tagging is requested
// well-known field "protocol" is only used when model protocol is requested
// well-known field "description" is only used when model description is requested
// well-known fields "mod", "freq", "freq1", "freq2", "rssi", "snr", "noise" are used by meta report option
char const **well_known_output_fields(r_cfg_t *cfg)
{
list_t field_list = {0};
list_ensure_size(&field_list, 15);
list_push(&field_list, "time");
list_push(&field_list, "msg");
list_push(&field_list, "codes");
if (cfg->verbose_bits)
list_push(&field_list, "bits");
for (void **iter = cfg->data_tags.elems; iter && *iter; ++iter) {
data_tag_t *tag = *iter;
if (tag->key) {
list_push(&field_list, (void *)tag->key);
}
else {
list_push_all(&field_list, (void **)tag->includes);
}
}
if (cfg->report_protocol)
list_push(&field_list, "protocol");
if (cfg->report_description)
list_push(&field_list, "description");
if (cfg->report_meta) {
list_push(&field_list, "mod");
list_push(&field_list, "freq");
list_push(&field_list, "freq1");
list_push(&field_list, "freq2");
list_push(&field_list, "rssi");
list_push(&field_list, "snr");
list_push(&field_list, "noise");
}
return (char const **)field_list.elems;
}
/** Convert CSV keys according to selected conversion mode. Replacement is static but in-place. */
static char const **convert_csv_fields(r_cfg_t *cfg, char const **fields)
{
if (cfg->conversion_mode == CONVERT_SI) {
for (char const **p = fields; *p; ++p) {
if (!strcmp(*p, "temperature_F")) *p = "temperature_C";
else if (!strcmp(*p, "pressure_PSI")) *p = "pressure_kPa";
else if (!strcmp(*p, "rain_in")) *p = "rain_mm";
else if (!strcmp(*p, "rain_rate_in_h")) *p = "rain_rate_mm_h";
else if (!strcmp(*p, "wind_avg_mi_h")) *p = "wind_avg_km_h";
else if (!strcmp(*p, "wind_max_mi_h")) *p = "wind_max_km_h";
}
}
if (cfg->conversion_mode == CONVERT_CUSTOMARY) {
for (char const **p = fields; *p; ++p) {
if (!strcmp(*p, "temperature_C")) *p = "temperature_F";
else if (!strcmp(*p, "temperature_1_C")) *p = "temperature_1_F";
else if (!strcmp(*p, "temperature_2_C")) *p = "temperature_2_F";
else if (!strcmp(*p, "setpoint_C")) *p = "setpoint_F";
else if (!strcmp(*p, "pressure_hPa")) *p = "pressure_inHg";
else if (!strcmp(*p, "pressure_kPa")) *p = "pressure_PSI";
else if (!strcmp(*p, "rain_mm")) *p = "rain_in";
else if (!strcmp(*p, "rain_rate_mm_h")) *p = "rain_rate_in_h";
else if (!strcmp(*p, "wind_avg_km_h")) *p = "wind_avg_mi_h";
else if (!strcmp(*p, "wind_max_km_h")) *p = "wind_max_mi_h";
}
}
return fields;
}
// find the fields output for CSV
char const **determine_csv_fields(r_cfg_t *cfg, char const *const *well_known, int *num_fields)
{
list_t field_list = {0};
list_ensure_size(&field_list, 100);
// always add well-known fields
list_push_all(&field_list, (void **)well_known);
list_t *r_devs = &cfg->demod->r_devs;
for (void **iter = r_devs->elems; iter && *iter; ++iter) {
r_device *r_dev = *iter;
if (r_dev->fields)
list_push_all(&field_list, (void **)r_dev->fields);
else
fprintf(stderr, "rtl_433: warning: %u \"%s\" does not support CSV output\n",
r_dev->protocol_num, r_dev->name);
}
convert_csv_fields(cfg, (char const **)field_list.elems);
if (num_fields)
*num_fields = field_list.len;
return (char const **)field_list.elems;
}
int run_ook_demods(list_t *r_devs, pulse_data_t *pulse_data)
{
int p_events = 0;
unsigned next_priority = 0; // next smallest on each loop through decoders
// run all decoders of each priority, stop if an event is produced
for (unsigned priority = 0; !p_events && priority < UINT_MAX; priority = next_priority) {
next_priority = UINT_MAX;
for (void **iter = r_devs->elems; iter && *iter; ++iter) {
r_device *r_dev = *iter;
// Find next smallest priority
if (r_dev->priority > priority && r_dev->priority < next_priority)
next_priority = r_dev->priority;
// Run only current priority
if (r_dev->priority != priority)
continue;
switch (r_dev->modulation) {
case OOK_PULSE_PCM:
// case OOK_PULSE_RZ:
p_events += pulse_slicer_pcm(pulse_data, r_dev);
break;
case OOK_PULSE_PPM:
p_events += pulse_slicer_ppm(pulse_data, r_dev);
break;
case OOK_PULSE_PWM:
p_events += pulse_slicer_pwm(pulse_data, r_dev);
break;
case OOK_PULSE_MANCHESTER_ZEROBIT:
p_events += pulse_slicer_manchester_zerobit(pulse_data, r_dev);
break;
case OOK_PULSE_PIWM_RAW:
p_events += pulse_slicer_piwm_raw(pulse_data, r_dev);
break;
case OOK_PULSE_PIWM_DC:
p_events += pulse_slicer_piwm_dc(pulse_data, r_dev);
break;
case OOK_PULSE_DMC:
p_events += pulse_slicer_dmc(pulse_data, r_dev);
break;
case OOK_PULSE_PWM_OSV1:
p_events += pulse_slicer_osv1(pulse_data, r_dev);
break;
case OOK_PULSE_NRZS:
p_events += pulse_slicer_nrzs(pulse_data, r_dev);
break;
// FSK decoders
case FSK_PULSE_PCM:
case FSK_PULSE_PWM:
case FSK_PULSE_MANCHESTER_ZEROBIT:
break;
default:
fprintf(stderr, "Unknown modulation %u in protocol!\n", r_dev->modulation);
}
}
}
return p_events;
}
int run_fsk_demods(list_t *r_devs, pulse_data_t *fsk_pulse_data)
{
int p_events = 0;
unsigned next_priority = 0; // next smallest on each loop through decoders
// run all decoders of each priority, stop if an event is produced
for (unsigned priority = 0; !p_events && priority < UINT_MAX; priority = next_priority) {
next_priority = UINT_MAX;
for (void **iter = r_devs->elems; iter && *iter; ++iter) {
r_device *r_dev = *iter;
// Find next smallest priority
if (r_dev->priority > priority && r_dev->priority < next_priority)
next_priority = r_dev->priority;
// Run only current priority
if (r_dev->priority != priority)
continue;
switch (r_dev->modulation) {
// OOK decoders
case OOK_PULSE_PCM:
// case OOK_PULSE_RZ:
case OOK_PULSE_PPM:
case OOK_PULSE_PWM:
case OOK_PULSE_MANCHESTER_ZEROBIT:
case OOK_PULSE_PIWM_RAW:
case OOK_PULSE_PIWM_DC:
case OOK_PULSE_DMC:
case OOK_PULSE_PWM_OSV1:
case OOK_PULSE_NRZS:
break;
case FSK_PULSE_PCM:
p_events += pulse_slicer_pcm(fsk_pulse_data, r_dev);
break;
case FSK_PULSE_PWM:
p_events += pulse_slicer_pwm(fsk_pulse_data, r_dev);
break;
case FSK_PULSE_MANCHESTER_ZEROBIT:
p_events += pulse_slicer_manchester_zerobit(fsk_pulse_data, r_dev);
break;
default:
fprintf(stderr, "Unknown modulation %u in protocol!\n", r_dev->modulation);
}
}
}
return p_events;
}
/* handlers */
static void log_handler(log_level_t level, char const *src, char const *msg, void *userdata)
{
r_cfg_t *cfg = userdata;
if (cfg->verbosity < (int)level) {
return;
}
/* clang-format off */
data_t *data = data_make(
"src", "", DATA_STRING, src,
"lvl", "", DATA_INT, level,
"msg", "", DATA_STRING, msg,
NULL);
/* clang-format on */
// prepend "time" if requested
if (cfg->report_time != REPORT_TIME_OFF) {
char time_str[LOCAL_TIME_BUFLEN];
time_pos_str(cfg, 0, time_str);
data = data_prepend(data,
"time", "", DATA_STRING, time_str,
NULL);
}
for (size_t i = 0; i < cfg->output_handler.len; ++i) { // list might contain NULLs
data_output_t *output = cfg->output_handler.elems[i];
if (output && output->log_level >= (int)level) {
data_output_print(output, data);
}
}
data_free(data);
}
void r_redirect_logging(r_cfg_t *cfg)
{
r_logger_set_log_handler(log_handler, cfg);
}
/** Pass the data structure to all output handlers. Frees data afterwards. */
void event_occurred_handler(r_cfg_t *cfg, data_t *data)
{
// prepend "time" if requested
if (cfg->report_time != REPORT_TIME_OFF) {
char time_str[LOCAL_TIME_BUFLEN];
time_pos_str(cfg, 0, time_str);
data = data_prepend(data,
"time", "", DATA_STRING, time_str,
NULL);
}
for (size_t i = 0; i < cfg->output_handler.len; ++i) { // list might contain NULLs
data_output_t *output = cfg->output_handler.elems[i];
data_output_print(output, data);
}
data_free(data);
}
/** Pass the data structure to all output handlers. Frees data afterwards. */
void log_device_handler(r_device *r_dev, int level, data_t *data)
{
r_cfg_t *cfg = r_dev->output_ctx;
// prepend "time" if requested
if (cfg->report_time != REPORT_TIME_OFF) {
char time_str[LOCAL_TIME_BUFLEN];
time_pos_str(cfg, cfg->demod->pulse_data.start_ago, time_str);
data = data_prepend(data,
"time", "", DATA_STRING, time_str,
NULL);
}
for (size_t i = 0; i < cfg->output_handler.len; ++i) { // list might contain NULLs
data_output_t *output = cfg->output_handler.elems[i];
if (output && output->log_level >= level) {
data_output_print(output, data);
}
}
data_free(data);
}
/** Pass the data structure to all output handlers. Frees data afterwards. */
void data_acquired_handler(r_device *r_dev, data_t *data)
{
r_cfg_t *cfg = r_dev->output_ctx;
#ifndef NDEBUG
// check for undeclared csv fields
for (data_t *d = data; d; d = d->next) {
int found = 0;
for (char const *const *p = r_dev->fields; *p; ++p) {
if (!strcmp(d->key, *p)) {
found = 1;
break;
}
}
if (!found) {
fprintf(stderr, "WARNING: Undeclared field \"%s\" in [%u] \"%s\"\n", d->key, r_dev->protocol_num, r_dev->name);
}
}
#endif
if (cfg->conversion_mode == CONVERT_SI) {
for (data_t *d = data; d; d = d->next) {
// Convert double type fields ending in _F to _C
if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_F")) {
d->value.v_dbl = fahrenheit2celsius(d->value.v_dbl);
char *new_label = str_replace(d->key, "_F", "_C");
free(d->key);
d->key = new_label;
char *pos;
if (d->format && (pos = strrchr(d->format, 'F'))) {
*pos = 'C';
}
}
// Convert double type fields ending in _mph to _kph
else if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_mph")) {
d->value.v_dbl = mph2kmph(d->value.v_dbl);
char *new_label = str_replace(d->key, "_mph", "_kph");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "mi/h", "km/h");
free(d->format);
d->format = new_format_label;
}
// Convert double type fields ending in _mi_h to _km_h
else if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_mi_h")) {
d->value.v_dbl = mph2kmph(d->value.v_dbl);
char *new_label = str_replace(d->key, "_mi_h", "_km_h");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "mi/h", "km/h");
free(d->format);
d->format = new_format_label;
}
// Convert double type fields ending in _in to _mm
else if ((d->type == DATA_DOUBLE) &&
(str_endswith(d->key, "_in") || str_endswith(d->key, "_inch"))) {
d->value.v_dbl = inch2mm(d->value.v_dbl);
char *new_label = str_replace(str_replace(d->key, "_inch", "_in"), "_in", "_mm");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "in", "mm");
free(d->format);
d->format = new_format_label;
}
// Convert double type fields ending in _in_h to _mm_h
else if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_in_h")) {
d->value.v_dbl = inch2mm(d->value.v_dbl);
char *new_label = str_replace(d->key, "_in_h", "_mm_h");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "in/h", "mm/h");
free(d->format);
d->format = new_format_label;
}
// Convert double type fields ending in _inHg to _hPa
else if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_inHg")) {
d->value.v_dbl = inhg2hpa(d->value.v_dbl);
char *new_label = str_replace(d->key, "_inHg", "_hPa");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "inHg", "hPa");
free(d->format);
d->format = new_format_label;
}
// Convert double type fields ending in _PSI to _kPa
else if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_PSI")) {
d->value.v_dbl = psi2kpa(d->value.v_dbl);
char *new_label = str_replace(d->key, "_PSI", "_kPa");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "PSI", "kPa");
free(d->format);
d->format = new_format_label;
}
}
}
if (cfg->conversion_mode == CONVERT_CUSTOMARY) {
for (data_t *d = data; d; d = d->next) {
// Convert double type fields ending in _C to _F
if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_C")) {
d->value.v_dbl = celsius2fahrenheit(d->value.v_dbl);
char *new_label = str_replace(d->key, "_C", "_F");
free(d->key);
d->key = new_label;
char *pos;
if (d->format && (pos = strrchr(d->format, 'C'))) {
*pos = 'F';
}
}
// Convert double type fields ending in _kph to _mph
else if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_kph")) {
d->value.v_dbl = kmph2mph(d->value.v_dbl);
char *new_label = str_replace(d->key, "_kph", "_mph");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "km/h", "mi/h");
free(d->format);
d->format = new_format_label;
}
// Convert double type fields ending in _km_h to _mi_h
else if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_km_h")) {
d->value.v_dbl = kmph2mph(d->value.v_dbl);
char *new_label = str_replace(d->key, "_km_h", "_mi_h");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "km/h", "mi/h");
free(d->format);
d->format = new_format_label;
}
// Convert double type fields ending in _mm to _inch
else if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_mm")) {
d->value.v_dbl = mm2inch(d->value.v_dbl);
char *new_label = str_replace(d->key, "_mm", "_in");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "mm", "in");
free(d->format);
d->format = new_format_label;
}
// Convert double type fields ending in _mm_h to _in_h
else if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_mm_h")) {
d->value.v_dbl = mm2inch(d->value.v_dbl);
char *new_label = str_replace(d->key, "_mm_h", "_in_h");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "mm/h", "in/h");
free(d->format);
d->format = new_format_label;
}
// Convert double type fields ending in _hPa to _inHg
else if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_hPa")) {
d->value.v_dbl = hpa2inhg(d->value.v_dbl);
char *new_label = str_replace(d->key, "_hPa", "_inHg");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "hPa", "inHg");
free(d->format);
d->format = new_format_label;
}
// Convert double type fields ending in _kPa to _PSI
else if ((d->type == DATA_DOUBLE) && str_endswith(d->key, "_kPa")) {
d->value.v_dbl = kpa2psi(d->value.v_dbl);
char *new_label = str_replace(d->key, "_kPa", "_PSI");
free(d->key);
d->key = new_label;
char *new_format_label = str_replace(d->format, "kPa", "PSI");
free(d->format);
d->format = new_format_label;
}
}
}
// prepend "description" if requested
if (cfg->report_description) {
data = data_prepend(data,
"description", "Description", DATA_STRING, r_dev->name,
NULL);
}
// prepend "protocol" if requested
if (cfg->report_protocol && r_dev->protocol_num) {
data = data_prepend(data,
"protocol", "Protocol", DATA_INT, r_dev->protocol_num,
NULL);
}
if (cfg->report_meta && cfg->demod->fsk_pulse_data.fsk_f2_est) {
data_append(data,
"mod", "Modulation", DATA_STRING, "FSK",
"freq1", "Freq1", DATA_FORMAT, "%.1f MHz", DATA_DOUBLE, cfg->demod->fsk_pulse_data.freq1_hz / 1000000.0,
"freq2", "Freq2", DATA_FORMAT, "%.1f MHz", DATA_DOUBLE, cfg->demod->fsk_pulse_data.freq2_hz / 1000000.0,
"rssi", "RSSI", DATA_FORMAT, "%.1f dB", DATA_DOUBLE, cfg->demod->fsk_pulse_data.rssi_db,
"snr", "SNR", DATA_FORMAT, "%.1f dB", DATA_DOUBLE, cfg->demod->fsk_pulse_data.snr_db,
"noise", "Noise", DATA_FORMAT, "%.1f dB", DATA_DOUBLE, cfg->demod->fsk_pulse_data.noise_db,
NULL);
}
else if (cfg->report_meta) {
data_append(data,
"mod", "Modulation", DATA_STRING, "ASK",
"freq", "Freq", DATA_FORMAT, "%.1f MHz", DATA_DOUBLE, cfg->demod->pulse_data.freq1_hz / 1000000.0,
"rssi", "RSSI", DATA_FORMAT, "%.1f dB", DATA_DOUBLE, cfg->demod->pulse_data.rssi_db,
"snr", "SNR", DATA_FORMAT, "%.1f dB", DATA_DOUBLE, cfg->demod->pulse_data.snr_db,
"noise", "Noise", DATA_FORMAT, "%.1f dB", DATA_DOUBLE, cfg->demod->pulse_data.noise_db,
NULL);
}
// prepend "time" if requested
if (cfg->report_time != REPORT_TIME_OFF) {
char time_str[LOCAL_TIME_BUFLEN];
time_pos_str(cfg, cfg->demod->pulse_data.start_ago, time_str);
data = data_prepend(data,
"time", "", DATA_STRING, time_str,
NULL);
}
// apply all tags
for (void **iter = cfg->data_tags.elems; iter && *iter; ++iter) {
data_tag_t *tag = *iter;
data = data_tag_apply(tag, data, cfg->in_filename);
}
for (size_t i = 0; i < cfg->output_handler.len; ++i) { // list might contain NULLs
data_output_t *output = cfg->output_handler.elems[i];
data_output_print(output, data);
}
data_free(data);
}
// level 0: do not report (don't call this), 1: report successful devices, 2: report active devices, 3: report all
data_t *create_report_data(r_cfg_t *cfg, int level)
{
list_t *r_devs = &cfg->demod->r_devs;
data_t *data;
list_t dev_data_list = {0};
list_ensure_size(&dev_data_list, r_devs->len);
for (void **iter = r_devs->elems; iter && *iter; ++iter) {
r_device *r_dev = *iter;
if (level <= 2 && r_dev->decode_events == 0)
continue;
if (level <= 1 && r_dev->decode_ok == 0)
continue;
if (level <= 0)
continue;
data = data_make(
"device", "", DATA_INT, r_dev->protocol_num,
"name", "", DATA_STRING, r_dev->name,
"events", "", DATA_INT, r_dev->decode_events,
"ok", "", DATA_INT, r_dev->decode_ok,
"messages", "", DATA_INT, r_dev->decode_messages,
NULL);
if (r_dev->decode_fails[-DECODE_FAIL_OTHER])
data_append(data,
"fail_other", "", DATA_INT, r_dev->decode_fails[-DECODE_FAIL_OTHER],
NULL);
if (r_dev->decode_fails[-DECODE_ABORT_LENGTH])
data_append(data,
"abort_length", "", DATA_INT, r_dev->decode_fails[-DECODE_ABORT_LENGTH],
NULL);
if (r_dev->decode_fails[-DECODE_ABORT_EARLY])
data_append(data,
"abort_early", "", DATA_INT, r_dev->decode_fails[-DECODE_ABORT_EARLY],
NULL);
if (r_dev->decode_fails[-DECODE_FAIL_MIC])
data_append(data,
"fail_mic", "", DATA_INT, r_dev->decode_fails[-DECODE_FAIL_MIC],
NULL);
if (r_dev->decode_fails[-DECODE_FAIL_SANITY])
data_append(data,
"fail_sanity", "", DATA_INT, r_dev->decode_fails[-DECODE_FAIL_SANITY],
NULL);
list_push(&dev_data_list, data);
}
data = data_make(
"count", "", DATA_INT, cfg->frames_count,
"fsk", "", DATA_INT, cfg->frames_fsk,
"events", "", DATA_INT, cfg->frames_events,
NULL);
char since_str[LOCAL_TIME_BUFLEN];
format_time_str(since_str, "%Y-%m-%dT%H:%M:%S", cfg->report_time_tz, cfg->frames_since);
data = data_make(
"enabled", "", DATA_INT, r_devs->len,
"since", "", DATA_STRING, since_str,
"frames", "", DATA_DATA, data,
"stats", "", DATA_ARRAY, data_array(dev_data_list.len, DATA_DATA, dev_data_list.elems),
NULL);
list_free_elems(&dev_data_list, NULL);
return data;
}
void flush_report_data(r_cfg_t *cfg)
{
list_t *r_devs = &cfg->demod->r_devs;
time(&cfg->frames_since);
cfg->frames_count = 0;
cfg->frames_fsk = 0;
cfg->frames_events = 0;
for (void **iter = r_devs->elems; iter && *iter; ++iter) {
r_device *r_dev = *iter;
r_dev->decode_events = 0;
r_dev->decode_ok = 0;
r_dev->decode_messages = 0;
r_dev->decode_fails[0] = 0;
r_dev->decode_fails[1] = 0;
r_dev->decode_fails[2] = 0;
r_dev->decode_fails[3] = 0;
r_dev->decode_fails[4] = 0;
}
}
/* setup */
static int lvlarg_param(char **param, int default_verb)
{
if (!param || !*param) {