import sys
import interpreter
from metar import Metar
import metar_scrape
# Program entry:
if __name__ == "__main__":
try:
targetStation = sys.argv[1]
except IndexError:
print("Input 4-letter station id as command line arg")
print("Example usage: metar_hub.py ksgf")
exit(0)
# get metar report and put it into a Metar object
report = Metar(metar_scrape.getReport(targetStation))
components = [
interpreter.stationID(report.getStationID()),
interpreter.dateTime(report.getDateTime()),
interpreter.reportModifier(report.getModifier()),
interpreter.windGroup(report.getWind()),
interpreter.visibilityGroup(report.getVisibility()),
interpreter.runwayVisibilityRange(report.getRunway()),
interpreter.skyCondition(report.getSky()),
interpreter.tempDewPoint(report.getTempDewPoint()),
interpreter.altimeter(report.getAltimeter())
]
print("\n------------------------------------------------------")
for component in components:
class GFS(threading.Thread):
'''
NOAA GFS download and parse functions.
'''
cycles = [0, 6, 12, 18]
baseurl = 'https://nomads.ncep.noaa.gov/cgi-bin/filter_gfs_0p50.pl?'
params = [
'leftlon=0',
'rightlon=360',
'toplat=90',
'bottomlat=-90',
]
levels = [
'700_mb', # FL100
'600_mb', # FL140
'500_mb', # FL180
'400_mb', # FL235
'300_mb', # FL300
'200_mb', # FL380
'150_mb', # FL443
'100_mb', # FL518
'high_cloud_bottom_level',
'high_cloud_layer',
'high_cloud_top_level',
'low_cloud_bottom_level',
'low_cloud_layer',
'low_cloud_top_level',
'mean_sea_level',
'middle_cloud_bottom_level',
'middle_cloud_layer',
'middle_cloud_top_level',
#'surface',
]
variables = ['PRES',
'TCDC',
'UGRD',
'VGRD',
'TMP',
'PRMSL',
'RH',
]
nwinds, nclouds = 0, 0
downloading = False
downloadWait = 0
# wait n seconds to start download
lastgrib = False
lat, lon, lastlat, lastlon = False, False, False, False
cycle = ''
lastcycle = ''
newGrib = False
parsed_latlon = (0, 0)
die = threading.Event()
dummy = threading.Event()
lock = threading.Lock()
def __init__(self, conf):
self.conf = conf
self.lastgrib = self.conf.lastgrib
self.wafs = WAFS(conf)
self.metar = Metar(conf)
threading.Thread.__init__(self)
def run(self):
# Worker thread
while not self.die.wait(self.conf.parserate):
if not self.conf.enabled:
continue
datecycle, cycle, forecast = self.getCycleDate()
if self.downloadWait < 1:
self.downloadCycle(datecycle, cycle, forecast)
elif self.downloadWait > 0:
self.downloadWait -= self.conf.parserate
# Run WAFS worker
self.wafs.run(self.lat, self.lon, self.conf.parserate)
# Run Metar worker
self.metar.run(self.lat, self.lon, self.conf.parserate)
if self.die.isSet():
# Kill downloaders if avaliable
if self.wafs and self.wafs.downloading and self.wafs.download:
self.wafs.download.die()
if self.downloading and self.download:
self.download.die()
return
# flush stdout
sys.stdout.flush()
def getCycleDate(self):
'''
Returns last cycle date avaliable
'''
now = datetime.utcnow()
#cycle is published with 4 hours 25min delay
cnow = now - timedelta(hours=4, minutes=25)
#get last cycle
for cycle in self.cycles:
if cnow.hour >= cycle:
lcycle = cycle
# Forecast
adjs = 0
if cnow.day != now.day:
adjs = +24
forecast = (adjs + now.hour - lcycle)/3*3
return ( '%d%02d%02d%02d' % (cnow.year, cnow.month, cnow.day, lcycle), lcycle, forecast)
def downloadCycle(self, datecycle, cycle, forecast):
'''
Downloads the requested grib file
'''
filename = 'gfs.t%02dz.pgrb2full.0p50.f0%02d' % (cycle, forecast)
path = os.sep.join([self.conf.cachepath, 'gfs'])
cachefile = os.sep.join(['gfs', '%s_%s.grib2' % (datecycle, filename)])
if cachefile == self.lastgrib:
# No need to download
return
if not os.path.exists(path):
os.makedirs(path)
if self.downloading == True:
if not self.download.q.empty():
#Finished downloading
lastgrib = self.download.q.get()
# Dowload success
if lastgrib:
if not self.conf.keepOldFiles and self.conf.lastgrib:
util.remove(os.sep.join([self.conf.cachepath, self.conf.lastgrib]))
self.lastgrib = lastgrib
self.conf.lastgrib = self.lastgrib
self.newGrib = True
#print "new grib file: " + self.lastgrib
else:
# Wait a minute
self.downloadWait = 60
self.downloading = False
elif self.conf.download and self.downloadWait < 1:
# Download new grib
## Build download url
params = self.params;
dir = 'dir=%%2Fgfs.%s' % (datecycle)
params.append(dir)
params.append('file=' + filename)
# add variables
for level in self.levels:
params.append('lev_' + level + '=1')
for var in self.variables:
params.append('var_' + var + '=1')
url = self.baseurl + '&'.join(params)
#print('XPGFS: downloading %s' % (url))
self.downloading = True
self.download = AsyncDownload(self.conf, url, cachefile)
return False
def parseGribData(self, filepath, lat, lon):
'''
Executes wgrib2 and parses its output
'''
args = ['-s',
'-lon',
'%f' % (lon),
'%f' % (lat),
os.sep.join([self.conf.cachepath, filepath])
]
if self.conf.spinfo:
p = subprocess.Popen([self.conf.wgrib2bin] + args, stdout=subprocess.PIPE, startupinfo=self.conf.spinfo, shell=True)
else:
p = subprocess.Popen([self.conf.wgrib2bin] + args, stdout=subprocess.PIPE)
it = iter(p.stdout)
data = {}
clouds = {}
pressure = False
for line in it:
r = line[:-1].split(':')
# Level, variable, value
level, variable, value = [r[4].split(' '), r[3], r[7].split(',')[2].split('=')[1]]
if len(level) > 1:
if level[1] == 'cloud':
#cloud layer
clouds.setdefault(level[0], {})
if len(level) > 3 and variable == 'PRES':
clouds[level[0]][level[2]] = value
else:
#level coverage/temperature
clouds[level[0]][variable] = value
elif level[1] == 'mb':
# wind levels
data.setdefault(level[0], {})
data[level[0]][variable] = value
elif level[0] == 'mean':
if variable == 'PRMSL':
pressure = c.pa2inhg(float(value))
windlevels = []
cloudlevels = []
# Let data ready to push on datarefs.
# Convert wind levels
for level in data:
wind = data[level]
if 'UGRD' in wind and 'VGRD' in wind:
hdg, vel = c.c2p(float(wind['UGRD']), float(wind['VGRD']))
#print wind['UGRD'], wind['VGRD'], float(wind['UGRD']), float(wind['VGRD']), hdg, vel
alt = c.mb2alt(float(level))
# Optional varialbes
temp, rh, dew = False, False, False
# Temperature
if 'TMP' in wind:
temp = float(wind['TMP'])
# Relative Humidity
if 'RH' in wind:
rh = float(wind['RH'])
else:
temp = False
if temp and rh:
dew = c.dewpoint(temp, rh)
windlevels.append([alt, hdg, c.ms2knots(vel), {'temp': temp, 'rh': rh, 'dew': dew, 'gust': 0}])
#print 'alt: %i rh: %i vis: %i' % (alt, float(wind['RH']), vis)
# Convert cloud level
for level in clouds:
level = clouds[level]
if 'top' in level and 'bottom' in level and 'TCDC' in level:
top, bottom, cover = float(level['top']), float(level['bottom']), float(level['TCDC'])
#print "XPGFS: top: %.0fmbar %.0fm, bottom: %.0fmbar %.0fm %d%%" % (top * 0.01, c.mb2alt(top * 0.01), bottom * 0.01, c.mb2alt(bottom * 0.01), cover)
#if bottom > 1 and alt > 1:
cloudlevels.append([c.mb2alt(bottom * 0.01) * 0.3048, c.mb2alt(top * 0.01) * 0.3048, cover])
#XP10
#cloudlevels.append((c.mb2alt(bottom * 0.01) * 0.3048, c.mb2alt(top * 0.01) * 0.3048, cover/10))
windlevels.sort()
cloudlevels.sort()
data = {
'winds': windlevels,
'clouds': cloudlevels,
'pressure': pressure
}
return data
def __init__(self, conf):
self.conf = conf
self.lastgrib = self.conf.lastgrib
self.wafs = WAFS(conf)
self.metar = Metar(conf)
threading.Thread.__init__(self)
def report(vis_group):
"""(Macro) Return Metar object for a report with the vis group."""
return Metar.Metar(sta_time + "09010KT " + vis_group)
class GFS(threading.Thread):
"""
NOAA GFS download and parse functions.
"""
cycles = [0, 6, 12, 18]
baseurl = "http://nomads.ncep.noaa.gov/cgi-bin/filter_gfs_0p50.pl?"
params = ["leftlon=0", "rightlon=360", "toplat=90", "bottomlat=-90"]
levels = [
"700_mb", # FL100
"600_mb", # FL140
"500_mb", # FL180
"400_mb", # FL235
"300_mb", # FL300
"200_mb", # FL380
"150_mb", # FL443
"100_mb", # FL518
"high_cloud_bottom_level",
"high_cloud_layer",
"high_cloud_top_level",
"low_cloud_bottom_level",
"low_cloud_layer",
"low_cloud_top_level",
"mean_sea_level",
"middle_cloud_bottom_level",
"middle_cloud_layer",
"middle_cloud_top_level",
#'surface',
]
variables = ["PRES", "TCDC", "UGRD", "VGRD", "TMP", "PRMSL", "RH"]
nwinds, nclouds = 0, 0
downloading = False
downloadWait = 0
# wait n seconds to start download
lastgrib = False
lat, lon, lastlat, lastlon = False, False, False, False
cycle = ""
lastcycle = ""
newGrib = False
parsed_latlon = (0, 0)
die = threading.Event()
dummy = threading.Event()
lock = threading.Lock()
def __init__(self, conf):
self.conf = conf
self.lastgrib = self.conf.lastgrib
self.wafs = WAFS(conf)
self.metar = Metar(conf)
threading.Thread.__init__(self)
def run(self):
# Worker thread
while not self.die.wait(self.conf.parserate):
if not self.conf.enabled:
continue
datecycle, cycle, forecast = self.getCycleDate()
if self.downloadWait < 1:
self.downloadCycle(datecycle, cycle, forecast)
elif self.downloadWait > 0:
self.downloadWait -= self.conf.parserate
# Run WAFS worker
self.wafs.run(self.lat, self.lon, self.conf.parserate)
# Run Metar worker
self.metar.run(self.lat, self.lon, self.conf.parserate)
if self.die.isSet():
# Kill downloaders if avaliable
if self.wafs and self.wafs.downloading and self.wafs.download:
self.wafs.download.die()
if self.downloading and self.download:
self.download.die()
return
# flush stdout
sys.stdout.flush()
def getCycleDate(self):
"""
Returns last cycle date avaliable
"""
now = datetime.utcnow()
# cycle is published with 4 hours 25min delay
cnow = now - timedelta(hours=4, minutes=0)
# get last cycle
for cycle in self.cycles:
if cnow.hour >= cycle:
lcycle = cycle
# Forecast
adjs = 0
if cnow.day != now.day:
adjs = +24
forecast = (adjs + now.hour - lcycle) / 3 * 3
return ("%d%02d%02d%02d" % (cnow.year, cnow.month, cnow.day, lcycle), lcycle, forecast)
def downloadCycle(self, datecycle, cycle, forecast):
"""
Downloads the requested grib file
"""
filename = "gfs.t%02dz.pgrb2full.0p50.f0%02d" % (cycle, forecast)
path = os.sep.join([self.conf.cachepath, "gfs"])
cachefile = os.sep.join(["gfs", "%s_%s.grib2" % (datecycle, filename)])
if cachefile == self.lastgrib:
# No need to download
return
if not os.path.exists(path):
os.makedirs(path)
if self.downloading == True:
if not self.download.q.empty():
# Finished downloading
lastgrib = self.download.q.get()
# Dowload success
if lastgrib:
if not self.conf.keepOldFiles and self.conf.lastgrib:
util.remove(os.sep.join([self.conf.cachepath, self.conf.lastgrib]))
self.lastgrib = lastgrib
self.conf.lastgrib = self.lastgrib
self.newGrib = True
# print "new grib file: " + self.lastgrib
else:
# Wait a minute
self.downloadWait = 60
self.downloading = False
elif self.conf.download and self.downloadWait < 1:
# Download new grib
## Build download url
params = self.params
dir = "dir=%%2Fgfs.%s" % (datecycle)
params.append(dir)
params.append("file=" + filename)
# add variables
for level in self.levels:
params.append("lev_" + level + "=1")
for var in self.variables:
params.append("var_" + var + "=1")
url = self.baseurl + "&".join(params)
# print 'XPGFS: downloading %s' % (url)
self.downloading = True
self.download = AsyncDownload(self.conf, url, cachefile)
return False
def parseGribData(self, filepath, lat, lon):
"""
Executes wgrib2 and parses its output
"""
args = ["-s", "-lon", "%f" % (lon), "%f" % (lat), os.sep.join([self.conf.cachepath, filepath])]
if self.conf.spinfo:
p = subprocess.Popen(
[self.conf.wgrib2bin] + args, stdout=subprocess.PIPE, startupinfo=self.conf.spinfo, shell=True
)
else:
p = subprocess.Popen([self.conf.wgrib2bin] + args, stdout=subprocess.PIPE)
it = iter(p.stdout)
data = {}
clouds = {}
pressure = False
for line in it:
r = line[:-1].split(":")
# Level, variable, value
level, variable, value = [r[4].split(" "), r[3], r[7].split(",")[2].split("=")[1]]
if len(level) > 1:
if level[1] == "cloud":
# cloud layer
clouds.setdefault(level[0], {})
if len(level) > 3 and variable == "PRES":
clouds[level[0]][level[2]] = value
else:
# level coverage/temperature
clouds[level[0]][variable] = value
elif level[1] == "mb":
# wind levels
data.setdefault(level[0], {})
data[level[0]][variable] = value
elif level[0] == "mean":
if variable == "PRMSL":
pressure = c.pa2inhg(float(value))
windlevels = []
cloudlevels = []
# Let data ready to push on datarefs.
# Convert wind levels
for level in data:
wind = data[level]
if "UGRD" in wind and "VGRD" in wind:
hdg, vel = c.c2p(float(wind["UGRD"]), float(wind["VGRD"]))
# print wind['UGRD'], wind['VGRD'], float(wind['UGRD']), float(wind['VGRD']), hdg, vel
alt = c.mb2alt(float(level))
# Optional varialbes
temp, rh, dew = False, False, False
# Temperature
if "TMP" in wind:
temp = float(wind["TMP"])
# Relative Humidity
if "RH" in wind:
rh = float(wind["RH"])
else:
temp = False
if temp and rh:
dew = c.dewpoint(temp, rh)
windlevels.append([alt, hdg, c.ms2knots(vel), {"temp": temp, "rh": rh, "dew": dew, "gust": 0}])
# print 'alt: %i rh: %i vis: %i' % (alt, float(wind['RH']), vis)
# Convert cloud level
for level in clouds:
level = clouds[level]
if "top" in level and "bottom" in level and "TCDC" in level:
top, bottom, cover = float(level["top"]), float(level["bottom"]), float(level["TCDC"])
# print "XPGFS: top: %.0fmbar %.0fm, bottom: %.0fmbar %.0fm %d%%" % (top * 0.01, c.mb2alt(top * 0.01), bottom * 0.01, c.mb2alt(bottom * 0.01), cover)
# if bottom > 1 and alt > 1:
cloudlevels.append([c.mb2alt(bottom * 0.01) * 0.3048, c.mb2alt(top * 0.01) * 0.3048, cover])
# XP10
# cloudlevels.append((c.mb2alt(bottom * 0.01) * 0.3048, c.mb2alt(top * 0.01) * 0.3048, cover/10))
windlevels.sort()
cloudlevels.sort()
data = {"winds": windlevels, "clouds": cloudlevels, "pressure": pressure}
return data
def report(wind_group):
"""(Macro) Return Metar object from parsing the given wind group."""
return Metar.Metar(sta_time + wind_group)
def test_issue51_strict():
"""Check that setting strict=False prevents a ParserError"""
with warnings.catch_warnings(record=True) as w:
report = Metar.Metar(sta_time + "90010KT", strict=False)
assert len(w) == 1
assert report.wind_speed is None
def report(mod_group):
"""(Macro) Return Metar object from parsing the modifier group."""
return Metar.Metar(sta_time + mod_group)
def test_140_parseWind():
"""Check parsing of wind groups."""
report = Metar.Metar(sta_time + "09010KT")
assert report.decode_completed
assert report.wind_dir.value() == 90
assert report.wind_speed.value() == 10
assert report.wind_gust is None
assert report.wind_dir_from is None
assert report.wind_dir_from is None
assert report.wind() == "E at 10 knots"
report = Metar.Metar(sta_time + "09010MPS")
assert report.decode_completed
assert report.wind_speed.value() == 10
assert report.wind_speed.value("KMH") == 36
assert report.wind() == "E at 19 knots"
assert report.wind("MPS") == "E at 10 mps"
assert report.wind("KMH") == "E at 36 km/h"
report = Metar.Metar(sta_time + "09010KMH")
assert report.decode_completed
assert report.wind_speed.value() == 10
assert report.wind() == "E at 5 knots"
assert report.wind("KMH") == "E at 10 km/h"
report = Metar.Metar(sta_time + "090010KT")
assert report.decode_completed
assert report.wind_dir.value() == 90
assert report.wind_speed.value() == 10
report = Metar.Metar(sta_time + "000000KT")
assert report.decode_completed
assert report.wind_dir.value() == 0
assert report.wind_speed.value() == 0
assert report.wind() == "calm"
report = Metar.Metar(sta_time + "VRB03KT")
assert report.decode_completed
assert report.wind_dir is None
assert report.wind_speed.value() == 3
assert report.wind() == "variable at 3 knots"
report = Metar.Metar(sta_time + "VRB00KT")
assert report.decode_completed
assert report.wind() == "calm"
report = Metar.Metar(sta_time + "VRB03G40KT")
assert report.decode_completed
assert report.wind_dir is None
assert report.wind_speed.value() == 3
assert report.wind_gust.value() == 40
assert report.wind_dir_from is None
assert report.wind_dir_to is None
assert report.wind() == "variable at 3 knots, gusting to 40 knots"
report = Metar.Metar(sta_time + "21010G30KT")
assert report.decode_completed
assert report.wind() == "SSW at 10 knots, gusting to 30 knots"
report = Metar.Metar(sta_time + "21010KT 180V240")
assert report.wind_dir.value() == 210
assert report.wind_speed.value() == 10
assert report.wind_gust is None
assert report.wind_dir_from.value() == 180
assert report.wind_dir_to.value() == 240
assert report.wind() == "S to WSW at 10 knots"
def test_041_parseModifier():
"""Check parsing of 'modifier' groups."""
assert Metar.Metar(sta_time + "AUTO").mod == "AUTO"
assert Metar.Metar(sta_time + "COR").mod == "COR"
def test_040_parseModifier_default():
"""Check default 'modifier' value."""
assert Metar.Metar("KEWR").mod == "AUTO"
def raisesParserError(code):
"""Helper to test the a given code raises a Metar.ParserError."""
with pytest.raises(Metar.ParserError):
Metar.Metar(code)
def test_010_parseType_default():
"""Check default value of the report type."""
assert Metar.Metar("KEWR").type == "METAR"
def process(ncfn):
"""Process this file """
IEM = psycopg2.connect(database='iem', host='iemdb')
icursor = IEM.cursor()
xref = {}
icursor.execute("""SELECT id, network from stations where
network ~* 'ASOS' or network = 'AWOS' and country = 'US'""")
for row in icursor:
xref[row[0]] = row[1]
icursor.close()
nc = netCDF4.Dataset(ncfn)
data = {}
for vname in [
'stationId',
'observationTime',
'temperature',
'dewpoint',
'altimeter', # Pa
'windDir',
'windSpeed', # mps
'windGust',
'visibility', # m
'precipAccum',
'presWx',
'skyCvr',
'skyCovLayerBase',
'autoRemark',
'operatorRemark'
]:
data[vname] = nc.variables[vname][:]
vname += "QCR"
if vname in nc.variables:
data[vname] = nc.variables[vname][:]
for vname in ['temperature', 'dewpoint']:
data[vname + "C"] = temperature(data[vname], 'K').value('C')
data[vname] = temperature(data[vname], 'K').value('F')
for vname in ['windSpeed', 'windGust']:
data[vname] = speed(data[vname], 'MPS').value('KT')
data['altimeter'] = pressure(data['altimeter'], 'PA').value("IN")
data['skyCovLayerBase'] = distance(data['skyCovLayerBase'],
'M').value("FT")
data['visibility'] = distance(data['visibility'], 'M').value("MI")
data['precipAccum'] = distance(data['precipAccum'], 'MM').value("IN")
for i in range(len(data['stationId'])):
sid = tostring(data['stationId'][i])
sid3 = sid[1:] if sid[0] == 'K' else sid
ts = datetime.datetime(1970, 1, 1) + datetime.timedelta(
seconds=data['observationTime'][i])
ts = ts.replace(tzinfo=pytz.timezone("UTC"))
mtr = "%s %sZ AUTO " % (sid, ts.strftime("%d%H%M"))
network = xref.get(sid3, 'ASOS')
iem = Observation(sid3, network,
ts.astimezone(TIMEZONES[LOC2TZ.get(sid3, None)]))
# 06019G23KT
if (data['windDirQCR'][i] == 0
and data['windDir'][i] is not np.ma.masked):
iem.data['drct'] = int(data['windDir'][i])
mtr += "%03i" % (iem.data['drct'], )
else:
mtr += "///"
if (data['windSpeedQCR'][i] == 0
and data['windSpeed'][i] is not np.ma.masked):
iem.data['sknt'] = int(data['windSpeed'][i])
mtr += "%02i" % (iem.data['sknt'], )
else:
mtr += "//"
if (data['windGustQCR'][i] == 0
and data['windGust'][i] is not np.ma.masked
and data['windGust'][i] > 0):
iem.data['gust'] = int(data['windGust'][i])
mtr += "G%02i" % (iem.data['gust'], )
mtr += "KT "
if (data['visibilityQCR'][i] == 0
and data['visibility'][i] is not np.ma.masked):
iem.data['vsby'] = float(data['visibility'][i])
mtr += "%sSM " % (vsbyfmt(iem.data['vsby']), )
presentwx = tostring(data['presWx'][i])
if presentwx != '':
iem.data['presentwx'] = presentwx
mtr += "%s " % (presentwx, )
for _i, (_c, _l) in enumerate(
zip(data['skyCvr'][i], data['skyCovLayerBase'][i])):
if tostring(_c) != '':
skyc = tostring(_c)
iem.data['skyc%s' % (_i + 1, )] = skyc
if skyc != 'CLR':
iem.data['skyl%s' % (_i + 1, )] = int(_l)
mtr += "%s%03i " % (tostring(_c), int(_l) / 100)
else:
mtr += "CLR "
t = ""
tgroup = "T"
if (data['temperatureQCR'][i] == 0
and data['temperature'][i] is not np.ma.masked):
# iem.data['tmpf'] = float(data['temperature'][i])
tmpc = float(data['temperatureC'][i])
t = "%s%02i/" % ("M" if tmpc < 0 else "", tmpc if tmpc > 0 else
(0 - tmpc))
tgroup += "%s%03i" % ("1" if tmpc < 0 else "0",
(tmpc if tmpc > 0 else (0 - tmpc)) * 10.)
if (data['dewpointQCR'][i] == 0
and data['dewpoint'][i] is not np.ma.masked):
# iem.data['dwpf'] = float(data['dewpoint'][i])
tmpc = float(data['dewpointC'][i])
if t != "":
t = "%s%s%02i " % (t, "M" if tmpc < 0 else "",
tmpc if tmpc > 0 else 0 - tmpc)
tgroup += "%s%03i" % ("1" if tmpc < 0 else "0",
(tmpc if tmpc > 0 else (0 - tmpc)) * 10.)
if len(t) > 4:
mtr += t
if (data['altimeterQCR'][i] == 0
and data['altimeter'][i] is not np.ma.masked):
iem.data['alti'] = round(data['altimeter'][i], 2)
mtr += "A%4i " % (iem.data['alti'] * 100., )
mtr += "RMK "
if (data['precipAccumQCR'][i] == 0
and data['precipAccum'][i] is not np.ma.masked):
if data['precipAccum'][i] > 0:
iem.data['phour'] = round(data['precipAccum'][i], 2)
mtr += "P%04i " % (iem.data['phour'] * 100., )
if tgroup != "T":
mtr += "%s " % (tgroup, )
autoremark = tostring(data['autoRemark'][i])
opremark = tostring(data['operatorRemark'][i])
if autoremark != '' or opremark != '':
mtr += "%s %s " % (autoremark, opremark)
mtr += "MADISHF"
# Eat our own dogfood
try:
Metar(mtr)
iem.data['raw'] = mtr
except:
pass
icursor = IEM.cursor()
if not iem.save(icursor, force_current_log=True, skip_current=True):
print(("extract_hfmetar: unknown station? %s %s %s\n%s") %
(sid3, network, ts, mtr))
pass
icursor.close()
IEM.commit()