Merge branch 'testing' into experimental

pull/164/head
Mark Jessop 2019-04-14 14:48:22 +09:30
commit 01e8ded044
7 zmienionych plików z 292 dodań i 166 usunięć

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@ -61,6 +61,10 @@ exporter_objects = [] # This list will hold references to each exporter instan
exporter_functions = [] # This list will hold references to the exporter add functions, which will be passed onto the decoders.
# Temporary frequency block list
# This contains frequncies that should be blocked for a short amount of time.
temporary_block_list = {}
# Scan Result Queue
# Scan results are processed asynchronously from the main scanner object.
@ -96,7 +100,7 @@ def allocate_sdr(check_only = False, task_description = ""):
def start_scanner():
""" Start a scanner thread on the first available SDR """
global config, scan_results, RS_PATH
global config, scan_results, RS_PATH, temporary_block_list
if 'SCAN' in autorx.task_list:
# Already a scanner running! Return.
@ -136,7 +140,9 @@ def start_scanner():
gain = autorx.sdr_list[_device_idx]['gain'],
ppm = autorx.sdr_list[_device_idx]['ppm'],
bias = autorx.sdr_list[_device_idx]['bias'],
save_detection_audio = config['save_detection_audio']
save_detection_audio = config['save_detection_audio'],
temporary_block_list = temporary_block_list,
temporary_block_time = config['temporary_block_time']
)
# Add a reference into the sdr_list entry
@ -174,7 +180,19 @@ def start_decoder(freq, sonde_type):
sonde_type (str): The radiosonde type ('RS41', 'RS92', 'DFM', 'M10, 'iMet')
"""
global config, RS_PATH, exporter_functions, rs92_ephemeris
global config, RS_PATH, exporter_functions, rs92_ephemeris, temporary_block_list
# Check the frequency is not in our temporary block list
# (This may happen from time-to-time depending on the timing of the scan thread)
if freq in temporary_block_list.keys():
if temporary_block_list[freq] > (time.time()-config['temporary_block_time']*60):
logging.error("Task Manager - Attempted to start a decoder on a temporarily blocked frequency (%.3f MHz)" % (freq/1e6))
return
else:
# This frequency should not be blocked any more, remove it from the block list.
logging.info("Task Manager - Removed %.3f MHz from temporary block list." % (freq/1e6))
temporary_block_list.pop(freq)
# Allocate a SDR.
_device_idx = allocate_sdr(task_description="Decoder (%s, %.3f MHz)" % (sonde_type, freq/1e6))
@ -250,6 +268,7 @@ def handle_scan_results():
# Break if we don't support this sonde type.
if (_check_type not in VALID_SONDE_TYPES):
logging.error("Unsupported sonde type: %s" % _check_type)
# TODO - Potentially add the frequency of the unsupported sonde to the temporary block list?
continue
if allocate_sdr(check_only=True) is not None :
@ -277,19 +296,40 @@ def clean_task_list():
try:
_running = autorx.task_list[_key]['task'].running()
_task_sdr = autorx.task_list[_key]['device_idx']
_exit_state = autorx.task_list[_key]['task'].exit_state
except Exception as e:
logging.error("Task Manager - Error getting task %s state - %s" % (str(_key),str(e)))
continue
if _running == False:
# This task has stopped. Release its associated SDR.
# This task has stopped.
# Check the exit state of the task for any abnormalities:
if _exit_state == "Encrypted":
# This task was a decoder, and it has encountered an encrypted sonde.
logging.info("Task Manager - Adding temporary block for frequency %.3f MHz" % (_key/1e6))
# Add the sonde's frequency to the global temporary block-list
temporary_block_list[_key] = time.time()
# If there is a scanner currently running, add it to the scanners internal block list.
if 'SCAN' in autorx.task_list:
auto_rx.task_list['SCAN']['task'].add_temporary_block(_key)
# Release its associated SDR.
autorx.sdr_list[_task_sdr]['in_use'] = False
autorx.sdr_list[_task_sdr]['task'] = None
# Pop the task from the task list.
autorx.task_list.pop(_key)
# Indicate to the web client that the task list has been updated.
flask_emit_event('task_event')
# Clean out the temporary block list of old entries.
for _freq in temporary_block_list.keys():
if temporary_block_list[_freq] < (time.time() - config['temporary_block_time']*60):
temporary_block_list.pop(_freq)
logging.info("Task Manager - Removed %.3f MHz from temporary block list." % (_freq/1e6))
# Check if there is a scanner thread still running. If not, and if there is a SDR free, start one up again.
if ('SCAN' not in autorx.task_list) and (allocate_sdr(check_only=True) is not None):
# We have a SDR free, and we are not running a scan thread. Start one.

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@ -11,7 +11,7 @@
# MINOR - New sonde type support, other fairly big changes that may result in telemetry or config file incompatability issus.
# PATCH - Small changes, or minor feature additions.
__version__ = "1.1.1-experimental"
__version__ = "1.1.2-experimental"
# Global Variables

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@ -101,6 +101,7 @@ def read_auto_rx_config(filename):
'detect_dwell_time' : 5,
'scan_delay' : 10,
'payload_id_valid' : 5,
'temporary_block_time' : 60,
# Rotator Settings
'enable_rotator': False,
'rotator_update_rate': 30,
@ -245,6 +246,12 @@ def read_auto_rx_config(filename):
except:
logging.error("Config - Could not find station_code field, using default.")
# New temporary block time - added 2019-04-14
try:
auto_rx_config['temporary_block_time'] = config.getint('advanced', 'temporary_block_time')
except:
logging.error("Config - New advanced settings missing, using defaults.")
# Now we attempt to read in the individual SDR parameters.
auto_rx_config['sdr_settings'] = {}

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@ -142,6 +142,8 @@ class SondeDecoder(object):
# This will become our decoder thread.
self.decoder = None
self.exit_state = "OK"
# Detect if we have an 'inverted' sonde.
if self.sonde_type.startswith('-'):
self.inverted = True
@ -407,6 +409,7 @@ class SondeDecoder(object):
if time.time() > (_last_packet + self.timeout):
# If we have not seen data for a while, break.
self.log_error("RX Timed out.")
self.exit_state = "Timeout"
break
else:
# Otherwise, sleep for a short time.
@ -486,9 +489,12 @@ class SondeDecoder(object):
if _field not in _telemetry:
_telemetry[_field] = self.DECODER_OPTIONAL_FIELDS[_field]
_telemetry['encrypted'] = True
# Check for an encrypted flag (this indicates a sonde that we cannot decode telemetry from.)
if 'encrypted' in _telemetry:
self.log_error("Radiosonde %s has encrypted telemetry (possible RS41-SGM)! We cannot decode this, closing decoder." % _telemetry['id'])
self.exit_state = "Encrypted"
self.decoder_running = False
return False

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@ -13,7 +13,7 @@ import platform
import subprocess
import time
import traceback
from threading import Thread
from threading import Thread, Lock
from types import FunctionType, MethodType
from .utils import detect_peaks, rtlsdr_test, reset_rtlsdr_by_serial, reset_all_rtlsdrs, peak_decimation
try:
@ -358,7 +358,9 @@ class SondeScanner(object):
gain = -1,
ppm = 0,
bias = False,
save_detection_audio = False):
save_detection_audio = False,
temporary_block_list = {},
temporary_block_time = 60):
""" Initialise a Sonde Scanner Object.
Apologies for the huge number of args...
@ -390,6 +392,8 @@ class SondeScanner(object):
gain (int): SDR Gain setting, in dB. A gain setting of -1 enables the RTLSDR AGC.
bias (bool): If True, enable the bias tee on the SDR.
save_detection_audio (bool): Save the audio used in each detecton to detect_<device_idx>.wav
temporary_block_list (dict): A dictionary where each attribute represents a frequency that should be blacklisted for a set time.
temporary_block_time (int): How long (minutes) frequencies in the temporary block list should remain blocked for.
"""
# Thread flag. This is set to True when a scan is running.
@ -420,6 +424,14 @@ class SondeScanner(object):
self.callback = callback
self.save_detection_audio = save_detection_audio
# Temporary block list.
self.temporary_block_list = temporary_block_list.copy()
self.temporary_block_list_lock = Lock()
self.temporary_block_time = temporary_block_time
# Alert the user if there are temporary blocks in place.
if len(self.temporary_block_list.keys())>0:
self.log_info("Temporary blocks in place for frequencies: %s" % str(self.temporary_block_list.keys()))
# Error counter.
self.error_retries = 0
@ -439,8 +451,11 @@ class SondeScanner(object):
if not _rtlsdr_ok:
self.log_error("RTLSDR #%s non-functional - exiting." % device_idx)
self.sonde_scanner_running = False
self.exit_state = "Failed SDR"
return
self.exit_state = "OK"
if auto_start:
self.start()
@ -611,6 +626,7 @@ class SondeScanner(object):
_, peak_idx = np.unique(peak_frequencies, return_index=True)
peak_frequencies = peak_frequencies[np.sort(peak_idx)]
# Remove any frequencies in the blacklist.
for _frequency in np.array(self.blacklist)*1e6:
_index = np.argwhere(peak_frequencies==_frequency)
@ -623,6 +639,25 @@ class SondeScanner(object):
# Append on any frequencies in the supplied greylist
peak_frequencies = np.append(np.array(self.greylist)*1e6, peak_frequencies)
# Remove any frequencies in the temporary block list
self.temporary_block_list_lock.acquire()
for _frequency in self.temporary_block_list.keys():
# Check the time the block was added.
if self.temporary_block_list[_frequency] > (time.time()-self.temporary_block_time*60):
# We should still be blocking this frequency, so remove any peaks with this frequency.
_index = np.argwhere(peak_frequencies==_frequency)
peak_frequencies = np.delete(peak_frequencies, _index)
if len(_index) > 0:
self.log_debug("Peak on %.3f MHz was removed due to temporary block." % (_frequency/1e6))
else:
# This frequency doesn't need to be blocked any more, remove it from the block list.
self.temporary_block_list.pop(_frequency)
self.log_info("Removed %.3f MHz from temporary block list." % (_frequency/1e6))
self.temporary_block_list_lock.release()
# Get the level of our peak search results, to send to the web client.
# This is actually a bit of a pain to do...
_peak_freq = []
@ -734,6 +769,20 @@ class SondeScanner(object):
return self.sonde_scanner_running
def add_temporary_block(self, frequency):
""" Add a frequency to the temporary block list.
Args:
frequency (float): Frequency to be blocked, in Hz
"""
# Acquire a lock on the block list, so we don't accidentally modify it
# while it is being used in a scan.
self.temporary_block_list_lock.acquire()
self.temporary_block_list[frequency] = time.time()
self.temporary_block_list_lock.release()
self.log_info("Adding temporary block for frequency %.3f MHz." % (frequency/1e6))
def log_debug(self, line):
""" Helper function to log a debug message with a descriptive heading.
Args:

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@ -335,6 +335,8 @@ detect_dwell_time = 5
scan_delay = 10
# Quantize search results to x Hz steps. Useful as most sondes are on 10 kHz frequency steps.
quantization = 10000
# Temporary Block Time (minutes) - How long to block encrypted or otherwise non-decodable sondes for.
temporary_block_time = 60
# Upload when (seconds_since_utc_epoch%upload_rate) == 0. Otherwise just delay upload_rate seconds between uploads.
# Setting this to True with multple uploaders should give a higher chance of all uploaders uploading the same frame,
# however the upload_rate should not be set too low, else there may be a chance of missing upload slots.

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@ -82,8 +82,7 @@ typedef struct {
int wday;
int std; int min; float sek;
double lat; double lon; double alt;
double vN; double vE; double vU;
double vH; double vD; double vD2;
double vH; double vD; double vV;
float T; float RH;
ui32_t crc;
ui8_t frame[FRAME_LEN];
@ -96,12 +95,12 @@ typedef struct {
float ptu_co2[3]; // { -243.911 , 0.187654 , 8.2e-06 }
float ptu_calT2[3]; // calibration T2-Hum
float ptu_calH[2]; // calibration Hum
ui32_t freq; // freq/kHz
ui16_t conf_fw; // firmware
ui8_t conf_cd; // kill countdown (sec) (kt or bt)
ui16_t conf_kt; // kill timer (sec)
ui16_t conf_bt; // burst timer (sec)
ui8_t conf_bk; // burst kill
ui32_t freq; // freq/kHz
ui8_t conf_cd; // kill countdown (sec) (kt or bt)
char rstyp[9]; // RS41-SG, RS41-SGP
int aux;
char xdata[XDATA_LEN+16]; // xdata: aux_str1#aux_str2 ...
@ -248,6 +247,7 @@ static int crc16(gpx_t *gpx, int start, int len) {
static int check_CRC(gpx_t *gpx, ui32_t pos, ui32_t pck) {
ui32_t crclen = 0,
crcdat = 0;
// check only pck_type (variable len pcks 0x76, 0x7E)
if (((pck>>8) & 0xFF) != gpx->frame[pos]) return -1;
crclen = gpx->frame[pos+1];
if (pos + crclen + 4 > FRAME_LEN) return -1;
@ -328,7 +328,7 @@ GPS chip: ublox UBX-G6010-ST
#define pck_ZEROstd 0x7611 // NDATA std-frm, no aux
#define pos_ZEROstd 0x12B // pos_AUX(0)
#define pck_ENCRYPTED 0x80 // Packet type for an Encrypted payload
#define pck_ENCRYPTED 0x8000 // Packet type for an Encrypted payload
/*
frame[pos_FRAME-1] == 0x0F: len == NDATA_LEN(320)
@ -344,72 +344,6 @@ static int frametype(gpx_t *gpx) { // -4..+4: 0xF0 -> -4 , 0x0F -> +4
return ft;
}
const double c = 299.792458e6;
const double L1 = 1575.42e6;
static int get_SatData(gpx_t *gpx) {
int i, n;
int sv;
ui32_t minPR;
int numSV;
double pDOP, sAcc;
fprintf(stdout, "[%d]\n", u2(gpx->frame+pos_FrameNb));
fprintf(stdout, "iTOW: 0x%08X", u4(gpx->frame+pos_GPSiTOW));
fprintf(stdout, " week: 0x%04X", u2(gpx->frame+pos_GPSweek));
fprintf(stdout, "\n");
minPR = u4(gpx->frame+pos_minPR);
fprintf(stdout, "minPR: %d", minPR);
fprintf(stdout, "\n");
for (i = 0; i < 12; i++) {
n = i*7;
sv = gpx->frame[pos_satsN+2*i];
if (sv == 0xFF) break;
fprintf(stdout, " SV: %2d ", sv);
//fprintf(stdout, " (%02x) ", gpx->frame[pos_satsN+2*i+1]);
fprintf(stdout, "# ");
fprintf(stdout, "prMes: %.1f", u4(gpx->frame+pos_dataSats+n)/100.0 + minPR);
fprintf(stdout, " ");
fprintf(stdout, "doMes: %.1f", -i3(gpx->frame+pos_dataSats+n+4)/100.0*L1/c);
fprintf(stdout, "\n");
}
fprintf(stdout, "ECEF-POS: (%d,%d,%d)\n",
(i32_t)u4(gpx->frame+pos_GPSecefX),
(i32_t)u4(gpx->frame+pos_GPSecefY),
(i32_t)u4(gpx->frame+pos_GPSecefZ));
fprintf(stdout, "ECEF-VEL: (%d,%d,%d)\n",
(i16_t)u2(gpx->frame+pos_GPSecefV+0),
(i16_t)u2(gpx->frame+pos_GPSecefV+2),
(i16_t)u2(gpx->frame+pos_GPSecefV+4));
numSV = gpx->frame[pos_numSats];
sAcc = gpx->frame[pos_sAcc]/10.0; if (gpx->frame[pos_sAcc] == 0xFF) sAcc = -1.0;
pDOP = gpx->frame[pos_pDOP]/10.0; if (gpx->frame[pos_pDOP] == 0xFF) pDOP = -1.0;
fprintf(stdout, "numSatsFix: %2d sAcc: %.1f pDOP: %.1f\n", numSV, sAcc, pDOP);
fprintf(stdout, "CRC: ");
fprintf(stdout, " %04X", pck_GPS1);
if (check_CRC(gpx, pos_GPS1, pck_GPS1)==0) fprintf(stdout, "[OK]"); else fprintf(stdout, "[NO]");
//fprintf(stdout, "[%+d]", check_CRC(gpx, pos_GPS1, pck_GPS1));
fprintf(stdout, " %04X", pck_GPS2);
if (check_CRC(gpx, pos_GPS2, pck_GPS2)==0) fprintf(stdout, "[OK]"); else fprintf(stdout, "[NO]");
//fprintf(stdout, "[%+d]", check_CRC(gpx, pos_GPS2, pck_GPS2));
fprintf(stdout, " %04X", pck_GPS3);
if (check_CRC(gpx, pos_GPS3, pck_GPS3)==0) fprintf(stdout, "[OK]"); else fprintf(stdout, "[NO]");
//fprintf(stdout, "[%+d]", check_CRC(gpx, pos_GPS3, pck_GPS3));
fprintf(stdout, "\n");
fprintf(stdout, "\n");
return 0;
}
static int get_FrameNb(gpx_t *gpx) {
int i;
unsigned byte;
@ -442,16 +376,20 @@ static int get_SondeID(gpx_t *gpx, int crc) {
if ( strncmp(gpx->id, sondeid_bytes, 8) != 0 ) {
//for (i = 0; i < 51; i++) gpx->calfrchk[i] = 0;
memset(gpx->calfrchk, 0, 51);
memcpy(gpx->id, sondeid_bytes, 8);
gpx->id[8] = '\0';
// conf data
// reset conf data
memset(gpx->rstyp, 0, 9);
gpx->freq = 0;
gpx->conf_fw = 0;
gpx->conf_cd = -1;
gpx->conf_kt = -1;
gpx->conf_bt = 0;
gpx->conf_bk = 0;
gpx->freq = 0;
memset(gpx->rstyp, 0, 9);
gpx->conf_cd = -1;
gpx->conf_kt = -1;
// don't reset gpx->frame[] !
// gpx->T = -273.15;
// gpx->RH = -1.0;
// new ID:
memcpy(gpx->id, sondeid_bytes, 8);
gpx->id[8] = '\0';
}
}
@ -467,8 +405,8 @@ static int get_FrameConf(gpx_t *gpx) {
if (crc) gpx->crc |= crc_FRAME;
err = crc;
err |= get_FrameNb(gpx);
err |= get_SondeID(gpx, crc);
err |= get_FrameNb(gpx);
if (crc == 0) {
calfr = gpx->frame[pos_CalData];
@ -639,7 +577,7 @@ static int get_PTU(gpx_t *gpx) {
}
printf("\n");
if (gpx->alt > -400.0)
//if (gpx->alt > -400.0)
{
printf(" %9.2f ; %6.1f ; %6.1f ", gpx->alt, gpx->ptu_Rf1, gpx->ptu_Rf2);
printf("; %10.6f ; %10.6f ; %10.6f ", gpx->ptu_calT1[0], gpx->ptu_calT1[1], gpx->ptu_calT1[2]);
@ -657,6 +595,82 @@ static int get_PTU(gpx_t *gpx) {
return err;
}
const double c = 299.792458e6;
const double L1 = 1575.42e6;
static int get_SatData(gpx_t *gpx) {
int i, n;
int sv;
ui32_t minPR;
int numSV;
double pDOP, sAcc;
int err = 0;
if ( ((gpx->frame[pos_GPS1]<<8) | gpx->frame[pos_GPS1+1]) != pck_GPS1 ) return -1;
if ( ((gpx->frame[pos_GPS2]<<8) | gpx->frame[pos_GPS2+1]) != pck_GPS2 ) return -2;
if ( ((gpx->frame[pos_GPS3]<<8) | gpx->frame[pos_GPS3+1]) != pck_GPS3 ) return -3;
err = get_FrameConf(gpx);
if (!err) {
fprintf(stdout, "[%5d] ", gpx->frnr);
fprintf(stdout, "(%s) ", gpx->id);
fprintf(stdout, "\n");
}
fprintf(stdout, "iTOW: 0x%08X", u4(gpx->frame+pos_GPSiTOW));
fprintf(stdout, " week: 0x%04X", u2(gpx->frame+pos_GPSweek));
fprintf(stdout, "\n");
minPR = u4(gpx->frame+pos_minPR);
fprintf(stdout, "minPR: %d", minPR);
fprintf(stdout, "\n");
for (i = 0; i < 12; i++) {
n = i*7;
sv = gpx->frame[pos_satsN+2*i];
if (sv == 0xFF) break;
fprintf(stdout, " SV: %2d ", sv);
//fprintf(stdout, " (%02x) ", gpx->frame[pos_satsN+2*i+1]);
fprintf(stdout, "# ");
fprintf(stdout, "prMes: %.1f", u4(gpx->frame+pos_dataSats+n)/100.0 + minPR);
fprintf(stdout, " ");
fprintf(stdout, "doMes: %.1f", -i3(gpx->frame+pos_dataSats+n+4)/100.0*L1/c);
fprintf(stdout, "\n");
}
fprintf(stdout, "ECEF-POS: (%d,%d,%d)\n",
(i32_t)u4(gpx->frame+pos_GPSecefX),
(i32_t)u4(gpx->frame+pos_GPSecefY),
(i32_t)u4(gpx->frame+pos_GPSecefZ));
fprintf(stdout, "ECEF-VEL: (%d,%d,%d)\n",
(i16_t)u2(gpx->frame+pos_GPSecefV+0),
(i16_t)u2(gpx->frame+pos_GPSecefV+2),
(i16_t)u2(gpx->frame+pos_GPSecefV+4));
numSV = gpx->frame[pos_numSats];
sAcc = gpx->frame[pos_sAcc]/10.0; if (gpx->frame[pos_sAcc] == 0xFF) sAcc = -1.0;
pDOP = gpx->frame[pos_pDOP]/10.0; if (gpx->frame[pos_pDOP] == 0xFF) pDOP = -1.0;
fprintf(stdout, "numSatsFix: %2d sAcc: %.1f pDOP: %.1f\n", numSV, sAcc, pDOP);
fprintf(stdout, "CRC: ");
fprintf(stdout, " %04X", pck_GPS1);
if (check_CRC(gpx, pos_GPS1, pck_GPS1)==0) fprintf(stdout, "[OK]"); else fprintf(stdout, "[NO]");
//fprintf(stdout, "[%+d]", check_CRC(gpx, pos_GPS1, pck_GPS1));
fprintf(stdout, " %04X", pck_GPS2);
if (check_CRC(gpx, pos_GPS2, pck_GPS2)==0) fprintf(stdout, "[OK]"); else fprintf(stdout, "[NO]");
//fprintf(stdout, "[%+d]", check_CRC(gpx, pos_GPS2, pck_GPS2));
fprintf(stdout, " %04X", pck_GPS3);
if (check_CRC(gpx, pos_GPS3, pck_GPS3)==0) fprintf(stdout, "[OK]"); else fprintf(stdout, "[NO]");
//fprintf(stdout, "[%+d]", check_CRC(gpx, pos_GPS3, pck_GPS3));
fprintf(stdout, "\n");
fprintf(stdout, "\n");
return 0;
}
static int get_GPSweek(gpx_t *gpx) {
int i;
unsigned byte;
@ -714,15 +728,16 @@ static int get_GPStime(gpx_t *gpx) {
static int get_GPS1(gpx_t *gpx) {
int err=0;
// ((gpx->frame[pos_GPS1]<<8) | gpx->frame[pos_GPS1+1]) != pck_GPS1 ?
if ( gpx->frame[pos_GPS1] != ((pck_GPS1>>8) & 0xFF) ) {
// gpx->frame[pos_GPS1+1] != (pck_GPS1 & 0xFF) ?
err = check_CRC(gpx, pos_GPS1, pck_GPS1);
if (err) {
gpx->crc |= crc_GPS1;
// reset GPS1-data (json)
gpx->jahr = 0; gpx->monat = 0; gpx->tag = 0;
gpx->std = 0; gpx->min = 0; gpx->sek = 0.0;
return -1;
}
err = check_CRC(gpx, pos_GPS1, pck_GPS1);
if (err) gpx->crc |= crc_GPS1;
err |= get_GPSweek(gpx); // no plausibility-check
err |= get_GPStime(gpx); // no plausibility-check
@ -732,6 +747,7 @@ static int get_GPS1(gpx_t *gpx) {
static int get_GPS2(gpx_t *gpx) {
int err=0;
// gpx->frame[pos_GPS2+1] != (pck_GPS2 & 0xFF) ?
err = check_CRC(gpx, pos_GPS2, pck_GPS2);
if (err) gpx->crc |= crc_GPS2;
@ -775,7 +791,9 @@ static int get_GPSkoord(gpx_t *gpx) {
double X[3], lat, lon, alt;
ui8_t gpsVel_bytes[2];
short vel16; // 16bit
double V[3], phi, lam, dir;
double V[3];
double phi, lam, dir;
double vN; double vE; double vU;
for (k = 0; k < 3; k++) {
@ -809,12 +827,12 @@ static int get_GPSkoord(gpx_t *gpx) {
// ECEF-Vel -> NorthEastUp
phi = lat*M_PI/180.0;
lam = lon*M_PI/180.0;
gpx->vN = -V[0]*sin(phi)*cos(lam) - V[1]*sin(phi)*sin(lam) + V[2]*cos(phi);
gpx->vE = -V[0]*sin(lam) + V[1]*cos(lam);
gpx->vU = V[0]*cos(phi)*cos(lam) + V[1]*cos(phi)*sin(lam) + V[2]*sin(phi);
vN = -V[0]*sin(phi)*cos(lam) - V[1]*sin(phi)*sin(lam) + V[2]*cos(phi);
vE = -V[0]*sin(lam) + V[1]*cos(lam);
vU = V[0]*cos(phi)*cos(lam) + V[1]*cos(phi)*sin(lam) + V[2]*sin(phi);
// NEU -> HorDirVer
gpx->vH = sqrt(gpx->vN*gpx->vN+gpx->vE*gpx->vE);
gpx->vH = sqrt(vN*vN+vE*vE);
/*
double alpha;
alpha = atan2(gpx->vN, gpx->vE)*180/M_PI; // ComplexPlane (von x-Achse nach links) - GeoMeteo (von y-Achse nach rechts)
@ -822,10 +840,12 @@ static int get_GPSkoord(gpx_t *gpx) {
if (dir < 0) dir += 360; // atan2(y,x)=atan(y/x)=pi/2-atan(x/y) , atan(1/t) = pi/2 - atan(t)
gpx->vD2 = dir;
*/
dir = atan2(gpx->vE, gpx->vN) * 180 / M_PI;
dir = atan2(vE, vN) * 180 / M_PI;
if (dir < 0) dir += 360;
gpx->vD = dir;
gpx->vV = vU;
gpx->numSV = gpx->frame[pos_numSats];
return 0;
@ -834,15 +854,17 @@ static int get_GPSkoord(gpx_t *gpx) {
static int get_GPS3(gpx_t *gpx) {
int err=0;
// ((gpx->frame[pos_GPS3]<<8) | gpx->frame[pos_GPS3+1]) != pck_GPS3 ?
if ( gpx->frame[pos_GPS3] != ((pck_GPS3>>8) & 0xFF) ) {
// gpx->frame[pos_GPS3+1] != (pck_GPS3 & 0xFF) ?
err = check_CRC(gpx, pos_GPS3, pck_GPS3);
if (err) {
gpx->crc |= crc_GPS3;
// reset GPS3-data (json)
gpx->lat = 0.0; gpx->lon = 0.0; gpx->alt = 0.0;
gpx->vH = 0.0; gpx->vD = 0.0; gpx->vV = 0.0;
gpx->numSV = 0;
return -1;
}
err = check_CRC(gpx, pos_GPS3, pck_GPS3);
if (err) gpx->crc |= crc_GPS3;
err |= get_GPSkoord(gpx); // plausibility-check: altitude, if ecef=(0,0,0)
return err;
@ -891,7 +913,7 @@ static int get_Aux(gpx_t *gpx) {
}
gpx->xdata[n] = '\0';
i = check_CRC(gpx, pos7E, 0x7600); // 0x76xx: 00-padding block
i = check_CRC(gpx, pos7E, pck_ZERO); // 0x76xx: 00-padding block
if (i) gpx->crc |= crc_ZERO;
return count7E;
@ -1080,20 +1102,20 @@ static int print_position(gpx_t *gpx, int ec) {
int i;
int err, err0, err1, err2, err3;
int output, out_mask;
int encrypted;
int encrypted = 0;
gpx->out = 0;
gpx->aux = 0;
err = get_FrameConf(gpx);
// Quick check for an encrypted packet (RS41-SGM)
// These sondes have a type 0x80 packet in place of the regular PTU packet.
if (gpx->frame[pos_PTU] == pck_ENCRYPTED){
encrypted = 1;
// Continue with the rest of the extraction (which will result in null data)
if (check_CRC(gpx, pos_PTU, pck_ENCRYPTED)==0) { // frame[pos_PTU] == pck_ENCRYPTED>>8
encrypted = 1; // and CRC-OK
// Continue with the rest of the extraction
}
err = get_FrameConf(gpx);
err1 = get_GPS1(gpx);
err2 = get_GPS2(gpx);
err3 = get_GPS3(gpx);
@ -1113,8 +1135,8 @@ static int print_position(gpx_t *gpx, int ec) {
fprintf(stdout, "[%5d] ", gpx->frnr);
fprintf(stdout, "(%s) ", gpx->id);
}
if (encrypted) {
fprintf(stdout, " Encrypted payload (RS41-SGM) ");
if (encrypted) { // e.g. 0x80A7-pck
fprintf(stdout, " (RS41-SGM: %02X%02X) ", gpx->frame[pos_PTU], gpx->frame[pos_PTU+1]);
}
if (!err1) {
Gps2Date(gpx);
@ -1131,7 +1153,7 @@ static int print_position(gpx_t *gpx, int ec) {
//if (gpx->option.vbs)
{
//fprintf(stdout, " (%.1f %.1f %.1f) ", gpx->vN, gpx->vE, gpx->vU);
fprintf(stdout," vH: %4.1f D: %5.1f vV: %3.1f ", gpx->vH, gpx->vD, gpx->vU);
fprintf(stdout," vH: %4.1f D: %5.1f vV: %3.1f ", gpx->vH, gpx->vD, gpx->vV);
if (gpx->option.vbs == 3) fprintf(stdout," sats: %02d ", gpx->numSV);
}
}
@ -1149,9 +1171,9 @@ static int print_position(gpx_t *gpx, int ec) {
int flen = NDATA_LEN;
if (frametype(gpx) < 0) flen += XDATA_LEN;
pos = pos_FRAME;
while (pos < flen-1) {
blk = gpx->frame[pos]; // 0x80XX: encrypted block
len = gpx->frame[pos+1]; // 0x76XX: 00-padding block
while (pos < flen-1) { // e.g.
blk = gpx->frame[pos]; // 0x80xx: encrypted block
len = gpx->frame[pos+1]; // 0x76xx: 00-padding block
crc = check_CRC(gpx, pos, blk<<8);
fprintf(stdout, " %02X%02X", gpx->frame[pos], gpx->frame[pos+1]);
fprintf(stdout, "[%d]", crc&1);
@ -1188,7 +1210,7 @@ static int print_position(gpx_t *gpx, int ec) {
if ((!err && !err1 && !err3) || (!err && encrypted)) { // frame-nb/id && gps-time && gps-position (crc-)ok; 3 CRCs, RS not needed
// eigentlich GPS, d.h. UTC = GPS - 18sec (ab 1.1.2017)
fprintf(stdout, "{ \"frame\": %d, \"id\": \"%s\", \"datetime\": \"%04d-%02d-%02dT%02d:%02d:%06.3fZ\", \"lat\": %.5f, \"lon\": %.5f, \"alt\": %.5f, \"vel_h\": %.5f, \"heading\": %.5f, \"vel_v\": %.5f, \"sats\": %d",
gpx->frnr, gpx->id, gpx->jahr, gpx->monat, gpx->tag, gpx->std, gpx->min, gpx->sek, gpx->lat, gpx->lon, gpx->alt, gpx->vH, gpx->vD, gpx->vU, gpx->numSV);
gpx->frnr, gpx->id, gpx->jahr, gpx->monat, gpx->tag, gpx->std, gpx->min, gpx->sek, gpx->lat, gpx->lon, gpx->alt, gpx->vH, gpx->vD, gpx->vV, gpx->numSV );
if (gpx->option.ptu && !err0 && gpx->T > -273.0) {
fprintf(stdout, ", \"temp\": %.1f", gpx->T );
}