def zon(opofonder):
city = LocationInfo()
city.region = "Netherlands"
###voor nijverdal
city.name = "Nijverdal"
city.latitude = 52.366146
city.longitude = 6.443098
###Voor Meppel
if test():
city.name = "Meppel"
city.latitude = 52.701499
city.longitude = 6.232482
tijdzoneAmsterdam = timezone("Europe/Amsterdam")
nu = datetime.datetime.now()
if test():
print(nu)
city.timezone = tijdzoneAmsterdam
s = sun(city.observer, date=nu, tzinfo=tijdzoneAmsterdam)
if test():
for k in ["dawn", "sunrise", "noon", "sunset", "dusk"]:
print("%7s %s" % (k, s[k]))
if opofonder == "onder":
return (s["sunset"])
if opofonder == "op":
return (s["sunrise"])
def calc_astral_day_time(date: datetime.date, time, latitude, longitude):
"""
Compute sun position for given coordinates and time.
:param date: UTC date
:param time: UTC time
:param latitude: latitude
:param longitude: longitude
:return: D for Day, U for Dusk, N for Night, A for Dawn (Aube in French)
"""
loc = LocationInfo()
loc.latitude = latitude
loc.longitude = longitude
s = sun(loc.observer, date=date, dawn_dusk_depression=Depression.NAUTICAL)
ret = '?'
# The intervals and their interpretation
interp = ({'from:': s['dusk'].time(), 'to:': s['dawn'].time(), '=>': 'N'},
{'from:': s['dawn'].time(), 'to:': s['sunrise'].time(), '=>': 'A'},
{'from:': s['sunrise'].time(), 'to:': s['sunset'].time(), '=>': 'D'},
{'from:': s['sunset'].time(), 'to:': s['dusk'].time(), '=>': 'U'},
)
for intrv in interp:
if (intrv['from:'] < intrv['to:']
and intrv['from:'] <= time <= intrv['to:']):
# Normal interval
ret = intrv['=>']
elif intrv['from:'] > intrv['to:'] \
and (time >= intrv['from:'] or time <= intrv['to:']):
# Change of day b/w the 2 parts of the interval
ret = intrv['=>']
return ret
def calc_astral_day_time2(date: datetime.datetime, time, latitude, longitude):
"""
Compute sun position for given coordinates and time.
:param date: UTC date
:param time: UTC time
:param latitude: latitude
:param longitude: longitude
:return: D for Day, U for Dusk, N for Night, A pour Dawn (Aube in French)
"""
loc = LocationInfo()
loc.latitude = latitude
loc.longitude = longitude
sun_phases = sun(observer=loc.observer, date=date, dawn_dusk_depression=Depression.NAUTICAL)
observation_time = datetime.datetime.combine(date, time, tzinfo=utc)
if observation_time < sun_phases['dawn']:
sun_phases = sun(observer=loc.observer, date=date - ONE_DAY, dawn_dusk_depression=Depression.NAUTICAL)
elif observation_time > sun_phases['dusk']:
sun_phases = sun(observer=loc.observer, date=date + ONE_DAY, dawn_dusk_depression=Depression.NAUTICAL)
# The intervals and their interpretation
interp = [
{'from:': sun_phases['dawn'], 'to:': sun_phases['sunrise'], '=>': 'A'},
{'from:': sun_phases['sunrise'], 'to:': sun_phases['sunset'], '=>': 'D'},
{'from:': sun_phases['sunset'], 'to:': sun_phases['dusk'], '=>': 'U'},
]
for intrv in interp:
if intrv['from:'] <= observation_time <= intrv['to:']:
return intrv['=>']
return '?'
def main(us_se):
if 'location' not in us_se:
logger.error('Invalid config file')
return
if us_se['location']['auto_enabled']:
loc = get_loc_from_ip()
if loc:
loc = loc.json()
else:
logger.error('Couldn\'t connect to ipinfo, giving up')
return
loc['latitude'], loc['longitude'] = (
float(x) for x in loc['loc'].strip().split(','))
loc['time_zone'] = tzlocal.get_localzone().zone
else:
for k, v in us_se['location']['manual'].items():
try:
val = v.strip()
except AttributeError:
pass
else:
if not val:
logger.error(
'Auto location is not enabled and some manual values are missing'
)
return
loc = us_se['location']['manual']
try:
location = LocationInfo()
location.name = loc['city']
location.region = loc['region']
location.latitude = loc['latitude']
location.longitude = loc['longitude']
location.timezone = loc['time_zone']
except ValueError as e:
logger.error(str(e))
return
s = sun(location.observer,
date=date.today(),
tzinfo=pytz.timezone(location.timezone))
sunrise = s['sunrise'].replace(second=0) + timedelta(
minutes=us_se['offset']['sunrise'])
sunset = s['sunset'].replace(second=0) + timedelta(
minutes=us_se['offset']['sunset'])
# Convert to UTC for storage
return sunrise.astimezone(pytz.utc), sunset.astimezone(pytz.utc)
def zon(opofonder):
city = LocationInfo()
city.region = "Netherlands"
###voor nijverdal
city.name = "Nijverdal"
city.latitude = 52.366146
city.longitude = 6.443098
###Voor Meppel
city.name = "Meppel"
city.latitude = 52.701499
city.longitude = 6.232482
tijdzoneAmsterdam = timezone("Europe/Amsterdam")
nu = datetime.datetime.now()
city.timezone = tijdzoneAmsterdam
s = sun(city.observer, date=nu, tzinfo=tijdzoneAmsterdam)
if opofonder == "onder":
return (f'ondergang: {s["sunset"]}')
if opofonder == "op":
return (f'opkomst : {s["sunrise"]}')
def zon(opofonder):
city = LocationInfo()
city.region = "Netherlands"
###voor nijverdal
city.name = "Nijverdal"
city.latitude = 52.366146
city.longitude = 6.443098
###Voor Meppel
city.name = "Meppel"
city.latitude = 52.701499
city.longitude = 6.232482
tijdzoneAmsterdam = timezone("Europe/Amsterdam")
nu = datetime.datetime.now()
city.timezone = tijdzoneAmsterdam
# print ("Huidige tijd : ")
# print (nu.strftime("%Y-%m-%d %H:%M:%S"))
s = sun(city.observer, date=nu ,tzinfo=tijdzoneAmsterdam )
# print(city.name)
# print(city.latitude)
# print(city.longitude)
# print('Zon')
if opofonder == "onder":
# print((f'ondergang: {s["sunset"]}\n'))
return((f'ondergang: {s["sunset"]}\n'))
# return s["sunrise"]
# return "1846"
if opofonder == "op":
print((f'opkomst : {s["sunrise"]}\n'))
return s["sunset"]
def get_local_time_of():
location = data["location"]
geo_data = get_geodata(location)
city = LocationInfo()
city.latitude = geo_data["latitude"]
city.longitude = geo_data["longitude"]
city.timezone = geo_data["timezone"]
timezone = city.timezone
local_tz = pytz.timezone(timezone)
datetime_day_start = datetime.datetime.now()\
.replace(hour=0, minute=0, second=0, microsecond=0)
current_sun = sun(city.observer, date=datetime_day_start)
local_time_of = lambda x: current_sun[x]\
.replace(tzinfo=pytz.utc)\
.astimezone(local_tz)\
.strftime("%H:%M:%S")
return local_time_of
def isDay():
"""Checks if the time is after sunset
Returns:
bool: Day time
"""
import datetime
from pytz import timezone, utc
from astral import LocationInfo
from astral.sun import sun
import geocoder
g = geocoder.ip('me')
city = LocationInfo()
city.latitude = g.latlng[0]
city.longitude = g.latlng[1]
s = sun(city.observer, date=datetime.date.today())
# This presumably depends on the computer's timezone being correct
now = utc.localize(datetime.datetime.utcnow())
return s['dawn'] < now < s['dusk']
def textual_information(data_parsed, geo_data, config, html_output=False):
"""
Add textual information about current weather and
astronomical conditions
"""
def _shorten_full_location(full_location, city_only=False):
def _count_runes(string):
return len(string.encode('utf-16-le')) // 2
words = full_location.split(",")
output = words[0]
if city_only:
return output
for word in words[1:]:
if _count_runes(output + "," + word) > 50:
return output
output += "," + word
return output
def _colorize(text, color):
return colorize(text, color, html_output=html_output)
city = LocationInfo()
city.latitude = geo_data["latitude"]
city.longitude = geo_data["longitude"]
city.timezone = geo_data["timezone"]
output = []
timezone = city.timezone
datetime_day_start = datetime.datetime.now()\
.replace(hour=0, minute=0, second=0, microsecond=0)
format_line = "%c %C, %t, %h, %w, %P"
current_condition = data_parsed['data']['current_condition'][0]
query = {}
weather_line = wttr_line.render_line(format_line, current_condition, query)
output.append('Weather: %s' % weather_line)
output.append('Timezone: %s' % timezone)
local_tz = pytz.timezone(timezone)
def _get_local_time_of(what):
_sun = {
"dawn": sun.dawn,
"sunrise": sun.sunrise,
"noon": sun.noon,
"sunset": sun.sunset,
"dusk": sun.dusk,
}[what]
current_time_of_what = _sun(city.observer, date=datetime_day_start)
return current_time_of_what\
.replace(tzinfo=pytz.utc)\
.astimezone(local_tz)\
.strftime("%H:%M:%S")
local_time_of = {}
for what in ["dawn", "sunrise", "noon", "sunset", "dusk"]:
try:
local_time_of[what] = _get_local_time_of(what)
except ValueError:
local_time_of[what] = "-" * 8
tmp_output = []
tmp_output.append(' Now: %%{{NOW(%s)}}' % timezone)
tmp_output.append('Dawn: %s' % local_time_of["dawn"])
tmp_output.append('Sunrise: %s' % local_time_of["sunrise"])
tmp_output.append(' Zenith: %s ' % local_time_of["noon"])
tmp_output.append('Sunset: %s' % local_time_of["sunset"])
tmp_output.append('Dusk: %s' % local_time_of["dusk"])
tmp_output = [
re.sub("^([A-Za-z]*:)", lambda m: _colorize(m.group(1), "2"), x)
for x in tmp_output
]
output.append(
"%20s" % tmp_output[0] \
+ " | %20s " % tmp_output[1] \
+ " | %20s" % tmp_output[2])
output.append(
"%20s" % tmp_output[3] \
+ " | %20s " % tmp_output[4] \
+ " | %20s" % tmp_output[5])
city_only = False
suffix = ""
if "Simferopol" in timezone:
city_only = True
suffix = ", Крым"
if config["full_address"]:
output.append('Location: %s%s [%5.4f,%5.4f]' \
% (
_shorten_full_location(config["full_address"], city_only=city_only),
suffix,
geo_data["latitude"],
geo_data["longitude"],
))
output = [
re.sub(
"^( *[A-Za-z]*:)", lambda m: _colorize(m.group(1), "2"),
re.sub("^( +[A-Za-z]*:)", lambda m: _colorize(m.group(1), "2"),
re.sub(r"(\|)", lambda m: _colorize(m.group(1), "2"), x)))
for x in output
]
return "".join("%s\n" % x for x in output)
def draw_astronomical(city_name, geo_data, config):
datetime_day_start = datetime.datetime.now().replace(hour=0,
minute=0,
second=0,
microsecond=0)
city = LocationInfo()
city.latitude = geo_data["latitude"]
city.longitude = geo_data["longitude"]
city.timezone = geo_data["timezone"]
answer = ""
moon_line = ""
for time_interval in range(72):
current_date = (datetime_day_start +
datetime.timedelta(hours=1 * time_interval)).replace(
tzinfo=pytz.timezone(geo_data["timezone"]))
try:
dawn = sun.dawn(city.observer, date=current_date)
except ValueError:
dawn = current_date
try:
dusk = sun.dusk(city.observer, date=current_date)
except ValueError:
dusk = current_date + datetime.timedelta(hours=24)
try:
sunrise = sun.sunrise(city.observer, date=current_date)
except ValueError:
sunrise = current_date
try:
sunset = sun.sunset(city.observer, date=current_date)
except ValueError:
sunset = current_date + datetime.timedelta(hours=24)
char = "."
if current_date < dawn:
char = " "
elif current_date > dusk:
char = " "
elif dawn <= current_date and current_date <= sunrise:
char = u"─"
elif sunset <= current_date and current_date <= dusk:
char = u"─"
elif sunrise <= current_date and current_date <= sunset:
char = u"━"
answer += char
if config.get("view") in ["v2n", "v2d"]:
moon_phases = constants.MOON_PHASES_WI
moon_phases = [" %s" % x for x in moon_phases]
else:
moon_phases = constants.MOON_PHASES
# moon
if time_interval in [0, 23, 47, 69]: # time_interval % 3 == 0:
moon_phase = moon.phase(date=datetime_day_start +
datetime.timedelta(hours=time_interval))
moon_phase_emoji = moon_phases[int(
math.floor(moon_phase * 1.0 / 28.0 * 8 + 0.5)) %
len(moon_phases)]
# if time_interval in [0, 24, 48, 69]:
moon_line += moon_phase_emoji # + " "
elif time_interval % 3 == 0:
if time_interval not in [24, 28]: #se:
moon_line += " "
else:
moon_line += " "
answer = moon_line + "\n" + answer + "\n"
answer += "\n"
return answer
def gmAll():
# initialize
data = request.get_json()
data['text'] = data['text'].strip()
message = data['text'].split()
count = 0
send = None
# find bot id
conn = sqlite3.connect('pancake.db')
c = conn.cursor()
for row in c.execute(f"SELECT * FROM chats WHERE id = ?",
(data['group_id'], )):
botid = row[2]
accesstoken = row[0]
try:
botid
except:
print("invalid group")
return ("invalid group")
headers = {
'content-type': 'application/json',
'x-access-token': accesstoken
}
getInfo = requests.get('https://api.groupme.com/v3/users/me',
headers=headers)
getInfo = getInfo.json()['response']
user_id1 = getInfo['user_id']
c.close()
if data['sender_type'] == 'system':
if "added the Pancake bot" in data['text']:
time.sleep(0.5)
send = "Hi! I'm Pancake. I'm a fun GroupMe bot designed to spice up any groupchat!\n\nHere are a list of commands:\n\np!lmgtfy {search term}\np!pick {option 1},{option 2}\np!coinflip\np!urban {search term}\np!love {firstname1} {firstname2}\np!madgab (use command twice)\np!8ball {your question}\np!sun\np!joke\n\np!help\np!leave (can only be used by owner)\np!ban/p!unban @whoever (can only be used by owner)\n\nI highly recommend using p!madgab to start some friendly competition in this groupchat!"
if data['sender_type'] == 'user':
conn = sqlite3.connect('databases/banned.db')
c = conn.cursor()
adminList = []
for row in c.execute(f"SELECT * FROM banned"):
adminList.append(row[0])
if int(data['user_id']) in adminList:
return ("banned user")
c.close()
conn = sqlite3.connect('databases/whitelist.db')
c = conn.cursor()
adminList = []
for row in c.execute(f"SELECT * FROM white WHERE group_id = ?",
(data['group_id'], )):
adminList.append(row[0])
if data['user_id'] == user_id1:
pass
elif adminList == []:
pass
elif data['user_id'] not in adminList:
return ("banned user")
c.close()
if ((str(message[0])) == 'p!ban') and (str(data['sender_id'])
== user_id1):
conn = sqlite3.connect('databases/banned.db')
c = conn.cursor()
try:
for x in data['attachments'][0]['user_ids']:
c.execute("INSERT INTO banned (user_id) VALUES (?)", (x, ))
conn.commit()
send = f"banned member"
except Exception as e:
print(str(e))
send = "error"
c.close()
elif ((str(message[0])) == 'p!unban') and (str(data['sender_id'])
== user_id1):
conn = sqlite3.connect('databases/banned.db')
c = conn.cursor()
try:
send = None
for x in data['attachments'][0]['user_ids']:
c.execute("DELETE FROM banned WHERE user_id = ?", (x, ))
conn.commit()
send = "unbanned member"
if send == None:
send = "member was not banned"
except:
send = "error"
c.close()
elif ((str(message[0])) == 'p!whitelist') and (str(data['sender_id'])
== user_id1):
if message[1].lower() == "add":
conn = sqlite3.connect('databases/whitelist.db')
c = conn.cursor()
try:
for x in data['attachments'][0]['user_ids']:
c.execute(
"INSERT INTO white (user_id, group_id) VALUES (?,?)",
(x, data['group_id']))
conn.commit()
send = f"added member to whitelist"
except Exception as e:
print(str(e))
send = "error"
c.close()
if message[1].lower() == "remove":
conn = sqlite3.connect('databases/whitelist.db')
c = conn.cursor()
try:
send = None
for x in data['attachments'][0]['user_ids']:
c.execute(
"DELETE FROM white WHERE user_id = ? and group_id = ?",
(x, data['group_id']))
conn.commit()
send = "removed member"
if send == None:
send = "member was not removed"
except Exception as e:
print(str(e))
send = "error"
c.close()
if message[1].lower() == "off":
conn = sqlite3.connect('databases/whitelist.db')
c = conn.cursor()
try:
c.execute("DELETE FROM white WHERE group_id = ?",
(data['group_id'], ))
conn.commit()
send = "whitelist off"
except:
send = "error"
c.close()
#leave
if message[0].lower() == 'p!leave' and data['user_id'] == user_id1:
conn = sqlite3.connect('pancake.db')
c = conn.cursor()
c.execute("DELETE FROM chats WHERE id = ?", (data['group_id'], ))
conn.commit()
c.close()
params = {"bot_id": botid, "text": "pancake is shutting down"}
create = requests.post('https://api.groupme.com/v3/bots/post',
headers=headers,
params=params)
params = {"bot_id": botid}
create = requests.post('https://api.groupme.com/v3/bots/destroy',
headers=headers,
params=params)
return ("removed")
if message[0].lower() == 'p!help':
send = "Hi! I'm Pancake. I'm a fun GroupMe bot designed to spice up any groupchat!\n\nHere are a list of commands:\n\np!lmgtfy {search term}\np!pick {option 1},{option 2}\np!coinflip\np!urban {search term}\np!love {firstname1} {firstname2}\np!madgab (use command twice)\np!8ball {your question}\np!sun\np!joke\n\np!help\np!leave (can only be used by owner)\np!ban/p!unban @whoever (can only be used by owner)\n\nI highly recommend using p!madgab to start some friendly competition in this groupchat!"
#lmgtfy
if message[0].lower() == 'p!lmgtfy':
message.pop(0)
send = "https://lmgtfy.com/?q=" + '+'.join(message)
#choose
elif message[0].lower() == 'p!pick':
text = data['text'][6:].split(",")
for i in range(len(text)):
text[i] = text[i].strip()
num = random.randint(0, len(text) - 1)
send = "i pick \"" + text[num] + "\""
#coinflip
elif message[0].lower() == 'p!coinflip':
num = random.randint(0, 11)
listOne = [0, 1, 2, 3, 4, 5]
listTwo = [6, 7, 8, 9, 10, 11]
if num in listOne:
send = "Heads"
elif num in listTwo:
send = "Tails"
#urban
elif message[0].lower() == 'p!urban':
message.pop(0)
urbanTerm = ' '.join(message)
urban = requests.get(
f"http://api.urbandictionary.com/v0/define?term={urbanTerm}")
try:
send = urban.json()['list'][0]['definition']
except IndexError:
send = f"couldn't find a definition for {urbanTerm}"
#love
elif message[0].lower() == 'p!love':
try:
first = message[1].lower()
second = message[2].lower()
love = requests.get(
f"https://www.lovecalculator.com/love.php?name1={first}&name2={second}"
)
lovesoup = BeautifulSoup(love.text, "lxml")
score = lovesoup.findAll(
"div", {"class": "result__score"})[0].text.strip()
send = score
except:
send = "invalid syntax"
#madgab
elif message[0].lower() == 'p!madgab':
conn = sqlite3.connect('databases/madgab.db')
c = conn.cursor()
questions = []
answers = []
channels = []
requestions = []
for x in open("databases/question.txt", "r"):
questions.append(x)
for x in open("databases/answer.txt", "r"):
answers.append(x)
for row in c.execute(f"SELECT * FROM gameplay"):
channels.append(row[0])
requestions.append(row[1])
if data['group_id'] in channels:
active = True
else:
active = False
if active == True:
sendAnswer = 0
for x in range(len(channels)):
if data['group_id'] == channels[x]:
sendAnswer = answers[int(requestions[x])]
c.execute("DELETE FROM gameplay WHERE channel = ?",
(data['group_id'], ))
conn.commit()
send = sendAnswer
else:
num = random.randint(0, len(questions) - 1)
c.execute(
"INSERT INTO gameplay (channel,question) VALUES (?,?)",
(data['group_id'], num))
conn.commit()
send = questions[num]
c.close()
elif message[0].lower() == 'p!8ball':
responses = [
'Don’t count on it.', 'It is certain.', 'It is decidedly so.',
'Most likely.', 'My reply is no.', 'My sources say no.',
'Signs point to yes.', 'Very doubtful.', 'Without a doubt.',
'Yes.', 'Yes – definitely.', 'You may rely on it.',
'As I see it, yes.', 'Ask again later.',
'Better to not tell you now.', 'Cannot predict now.',
'Concentrate and ask again.'
]
send = random.choice(responses)
elif message[0].lower() == "p!sun":
city_name = 'Atlanta'
city = LocationInfo()
city.latitude = 33.7490
city.longitude = -84.3880
city.timezone = 'US/Eastern'
s = sun(city.observer, date=datetime.now(), tzinfo=city.timezone)
send = f"Sun Info For Atlanta\n\nDawn: {s['dawn'].strftime('%I:%M %p')}\nSunrise: {s['sunrise'].strftime('%I:%M %p')}\nNoon: {s['noon'].strftime('%I:%M %p')}\nSunset: {s['sunset'].strftime('%I:%M %p')}\nDusk: {s['dusk'].strftime('%I:%M %p')}\n"
elif message[0].lower() == "p!joke":
jheaders = {'User-Agent': 'curl/7.55.1'}
joke = requests.get("https://icanhazdadjoke.com/",
headers=jheaders)
send = joke
if send != None:
params = {"bot_id": botid, "text": send}
create = requests.post('https://api.groupme.com/v3/bots/post',
headers=headers,
params=params)
return ("message received")
if send != None:
params = {"bot_id": botid, "text": send}
create = requests.post('https://api.groupme.com/v3/bots/post',
headers=headers,
params=params)
return ("message received!")
# Gerard Doets
# 18 maart 2020
# Naam : zonOpkomstEnOndergang.py
from astral import LocationInfo
from astral.sun import sun
from pytz import *
import datetime
city = LocationInfo()
city.region = "Netherlands"
###voor nijverdal
city.name = "Nijverdal"
city.latitude = 52.366146
city.longitude = 6.443098
###Voor Meppel
city.name = "Meppel"
city.latitude = 52.701499
city.longitude = 6.232482
tijdzoneAmsterdam = timezone("Europe/Amsterdam")
nu = datetime.datetime.now()
city.timezone = tijdzoneAmsterdam
print ("Huidige tijd : ")
print (nu.strftime("%Y-%m-%d %H:%M:%S"))
s = sun(city.observer, date=nu ,tzinfo=tijdzoneAmsterdam )
print(city.name)
def main():
try:
# need time to get internet connection once pi starts up
time.sleep(
120
) # if you lower this value and there is a critical error in your code your pi could get stuck in an infinite reboot loop!
dir_path = os.path.dirname(os.path.realpath(__file__))
logging.basicConfig(filename=os.path.join(dir_path, "app.log"))
# get current location
with open(os.path.join(dir_path, 'location.json')) as loc_file:
data = json.load(loc_file)
loc = LocationInfo()
loc.timezone = data["general"]["timezone"]
loc.latitude = data["coordinates"]["latitude"]
loc.longitude = data["coordinates"]["longitude"]
# get sunrise and sunset times
times = sun(loc.observer, date=datetime.now(), tzinfo=loc.timezone)
# determine time until next daylight, sleep until then
sleep_time = time_until_daylight(times["sunrise"], times["sunset"],
loc)
if sleep_time != 0:
time.sleep(sleep_time)
resources = Resources()
while True:
present_dt = datetime.now()
# capture photos from both webcams
resources.wb.time = present_dt.strftime("%Y-%m-%d %H_%M_%S")
resources.wb.capture_usb_photo()
resources.wb.capture_ribbon_photo()
# send the jpgs to google photos and then delete them off local storage
resources.gphotos.upload_all_photos_in_dir(
resources.wb.base_dir_ribbon, "ribbon")
resources.gphotos.upload_all_photos_in_dir(
resources.wb.base_dir_usb, "usb")
# log any errors encountered during execution of this cycle into the database
if os.path.getsize("./app.log") > 0:
with open("./app.log", "r") as f:
error_message = f.read()
resources.sql_store.insert_error(
present_dt.strftime("%Y-%m-%d %H:%M:%S"),
error_message)
# clear out the log
with open("./app.log", "w") as f:
pass
# regular sleep interval is 5 minutes, otherwise sleep until next sunrise
sleep_time = time_until_daylight(times["sunrise"], times["sunset"],
loc)
if sleep_time == 0:
time.sleep(300)
else:
resources.release()
time.sleep(sleep_time)
resources = Resources()
times = sun(loc.observer,
date=datetime.now(),
tzinfo=loc.timezone)
except BaseException as e:
logging.exception(
'Something went wrong in the __main__ script. Restarting the pi.\n'
)
os.system('sudo reboot')
def fRWU(ts,
lat=49.70764,
lon=5.897638,
elev=200.,
diffx=3,
slope_diff=3,
maxdiffs=0.25,
mintime=3.5):
r"""Calulate a daily root water uptake estimate from a soil moisture time series
Returns a data frame with time series of daily RWU estimates and daily evaluation
references after Jackisch et al. (in review)
Parameters
----------
ts : pandas.DataFrame with time zone aware datetime index
time series of one soil moisture sensor (assumes vol.%)
a relatively high temporal resolution of about 30 min or smaller is assumed
lat : float
latitude of location (degree)
lon : float
longitude of location (degree)
elev : float
elevation at location (m above msl)
diffx : int
number of time steps to evaluate change in moisture to (spans window)
slope_diff : float
minimal difference factor of slope between night and day linear regession
to evaluate step shape especially in case of night decrease of soil moisture
maxdiffs : float
maximum of soil moistue difference to assume no significant other water
transport (some sort of threshold which could be the noise of the sensed data)
mintime : float
minmimal time of a day or night period (in h)
Returns
-------
RWU : pandas.DataFrame
returns a data frame with time series of daily RWU estimates and daily references:
rwu :: root water uptake with extrapolated night changes
rwu_nonight :: neglecting nocturnal changes
lm_night :: slope of linear model during night
lm_day :: slope of linear model during day
step_control :: control values (1111 means all criteria met)
evalx :: control values for time references
eval_nse :: control values for diurnal step shape as nash-sutcliffe efficiency
tin :: start of previous night
tout :: start of day
tix :: start of next night
References
----------
Jackisch, C., Knoblauch, S., Blume, T., Zehe, E. and Hassler, S.K. (in review):
Estimates of tree root water uptake from soil moisture profile dynamics.
Submitted to Biogeosciences. DOI to be added
"""
# use astral to get sunrise/sunset time references as a function of the date
l = LocationInfo()
l.latitude = lat
l.longitude = lon
l.timezone = str(ts.index.tz)
l.elevation = elev
#sunrise sunset
def sunr(dd):
# give date and return time of sunrise
sunrise = pd.to_datetime(sun(l, date=dd)['sunrise'])
return sunrise.tz_convert(l.timezone)
def suns(dd):
# give date and return time of sunset
sunset = pd.to_datetime(sun(l, date=dd)['sunset'])
return sunset.tz_convert(l.timezone)
# get unique days in time series
ddx = ts.resample('1d').mean().index.date
# get frequencies of ts
freqx = (pd.Series(ts.index[1:]) - pd.Series(ts.index[:-1])).value_counts()
# get change in soil moisture as smoothed diff
dif_ts = pd.Series(spf.gaussian_filter1d(ts.diff(diffx), 1))
dif_ts.index = ts.index
# create empty dataframe for RWU calculation and evaluation
RWU = pd.DataFrame(np.zeros((len(ddx), 10)) * np.nan)
RWU.index = pd.to_datetime(ddx)
RWU.columns = [
'rwu', 'rwu_nonight', 'lm_night', 'lm_day', 'step_control', 'evalx',
'eval_nse', 'tin', 'tout', 'tix'
]
def startstopRWU(dd):
# give soilmoisture ts and date, return time of end of RWU
try:
# find first steps of not declining soil moisture after sunset
tsx = dif_ts.loc[suns(dd - datetime.timedelta(hours=24)) -
datetime.timedelta(hours=5):suns(dd) +
datetime.timedelta(hours=2)]
stopRWU = tsx.index[np.where(tsx.values >= 0)[0][0]]
stop2RWU = tsx.index[np.where(tsx.values > 0)[0][np.where(
tsx.values > 0)[0] > np.where(tsx.values <= -0.01)[0][np.where(
tsx.values <= -0.01)[0] > np.where(
tsx.values >= 0)[0][0]][0]][0]]
reflim = np.min([
-0.001, tsx.loc[stopRWU:stop2RWU][
tsx.loc[stopRWU:stop2RWU] < -0.001].quantile(0.95)
])
startRWU = tsx.loc[stopRWU:].index[
tsx.loc[stopRWU:].rolling(3, center=True).mean() <= reflim][0]
return [stopRWU, startRWU, stop2RWU, 1]
except:
# in case soil moisture keeps falling without stepping assume 1 hour after sunset/sunrise but return warning flag
try:
stopRWU = ts.index[ts.index.get_loc(
suns(dd - datetime.timedelta(hours=24)) +
datetime.timedelta(hours=1),
method='nearest')]
startRWU = ts.index[ts.index.get_loc(
sunr(dd) + datetime.timedelta(hours=2), method='nearest')]
stop2RWU = ts.index[ts.index.get_loc(
suns(dd) + datetime.timedelta(hours=1), method='nearest')]
except:
stopRWU = tsx.index[nearby(
tsx.index,
suns(dd - datetime.timedelta(hours=24)) +
datetime.timedelta(hours=1))]
startRWU = tsx.index[nearby(
tsx.index,
sunr(dd) + datetime.timedelta(hours=2))]
stop2RWU = tsx.index[nearby(
tsx.index,
suns(dd) + datetime.timedelta(hours=1))]
return [stopRWU, startRWU, stop2RWU, 0]
def idstep_startstop(dd):
# return astro reference times for idealised step
try:
tin = ts.index[ts.index.get_loc(
suns(dd - datetime.timedelta(hours=24)) -
datetime.timedelta(hours=1.5),
method='nearest')]
tout = ts.index[ts.index.get_loc(sunr(dd) +
datetime.timedelta(hours=2),
method='nearest')]
tix = ts.index[ts.index.get_loc(suns(dd) -
datetime.timedelta(hours=0.5),
method='nearest')]
except:
tin = ts.index[nearby(
ts.index,
suns(dd - datetime.timedelta(hours=24)) -
datetime.timedelta(hours=1.5))]
tout = ts.index[nearby(ts.index,
sunr(dd) + datetime.timedelta(hours=2))]
tix = ts.index[nearby(ts.index,
suns(dd) - datetime.timedelta(hours=0.5))]
return [tin, tout, tix]
def dayRWU(dd):
# get reference times
[tin, tout, tix, evalx] = startstopRWU(dd)
# check for soil moisture differences and min time spans
if ((tout - tin).seconds < mintime * 3600.) | (
(tix - tout).seconds < mintime * 3600.):
return [np.nan, np.nan, np.nan, np.nan, 2, evalx, tin, tout, tix]
if any(dif_ts.loc[tin:tix] > maxdiffs):
return [np.nan, np.nan, np.nan, np.nan, 3, evalx, tin, tout, tix]
# build linear extrapolation model of night time change
df = pd.DataFrame([
np.arange(len(ts.loc[tin:tout - datetime.timedelta(hours=1)])),
ts.loc[tin:tout - -datetime.timedelta(hours=1)].values
]).T
df.columns = ['x', 'y']
try:
mod = smf.ols(formula='y ~ x', data=df)
res = mod.fit()
except:
return [np.nan, np.nan, np.nan, np.nan, 0, evalx, tin, tout, tix]
# build linear model of day time change
df2 = pd.DataFrame(
[np.arange(len(ts.loc[tout:tix])), ts.loc[tout:tix].values]).T
df2.columns = ['x', 'y']
try:
mod2 = smf.ols(formula='y ~ x', data=df2)
res2 = mod2.fit()
except:
return [
np.nan, np.nan, res.params.x, np.nan, 0, evalx, tin, tout, tix
]
# create dummy time series for night time extrapolation
dummy = pd.date_range(tin, tix, freq=freqx.index[0])
fuse = pd.Series(data=res.params.Intercept +
res.params.x * np.arange(len(dummy)),
index=dummy)
# control of assumptions of a step
step_control = 0
if res.params.x / (
(6. * 3600.) / freqx.index[0].seconds
) > -0.5 / 6.: #night slope shall be more than minus 0.5 vol.% per 6h
step_control += 10
if res.params.x / (
(6. * 3600.) / freqx.index[0].seconds
) < 1 / 6.: #night slope shall be less than plus 1 vol.% per 6h
step_control += 100
if (res2.params.x < 0) & (
res2.params.x /
((6. * 3600.) / freqx.index[0].seconds) > -0.5 / 12.
): #day slope must be negative but more than minus 0.5 vol.% per 12h
step_control += 1000
if res2.params.x < slope_diff * res.params.x: #day slope must be at least 3 times more steep than night (if night was negative)
step_control += 1
if fuse.loc[tix] - ts.loc[tix] < 2.: #rwu should not exceed 2 mm/day
step_control += 10000
# only if step_control == 1111 fully valid results:
rwu = fuse.loc[tix] - ts.loc[tix]
rwu_nonight = ts.loc[tout] - ts.loc[tix]
return [
rwu, rwu_nonight, res.params.x, res2.params.x, step_control, evalx,
tin, tout, tix
]
def dayRWU2(dd, crit_nse=0.5):
# perform comparison to idealised step before evaluation
# get reference times
[tin, tout, tix, evalx] = startstopRWU(dd)
[dtin, dtout, dtix] = idstep_startstop(dd)
# construct idealised step reference
idx = pd.date_range(dtin, dtix, freq=freqx.index[0])
dummy = pd.Series(np.zeros(len(idx)) * np.nan, index=idx)
dummy[dtin] = ts.loc[dtin]
dummy[dtout + datetime.timedelta(hours=1)] = ts.loc[dtin] + 0.01
dummy[dtix - datetime.timedelta(hours=2.5)] = ts.loc[dtix]
dummy = dummy.interpolate()
dummyx = pd.concat([
dummy, ts.loc[tin - datetime.timedelta(hours=0.5):tix +
datetime.timedelta(hours=0.5)]
],
axis=1)
dummyx.columns = ['ideal', 'obs']
dummyx = dummyx.dropna()
# compare observed soil moisture dynamics with idealised step
evaly = he.nse_c2m(dummyx.obs.values, dummyx.ideal.values)
#if evaly >= crit_nse:
[
rwu, rwu_nonight, resparamsx, res2paramsx, step_control, evalx,
tin2, tout2, tix2
] = dayRWU(dd)
return [
rwu, rwu_nonight, resparamsx, res2paramsx, step_control, evalx,
evaly, tin, tout, tix
]
for dd in ddx[:-1]:
try:
RWU.loc[dd] = dayRWU2(dd)
except:
print(str(dd) + ' could not be processed.')
return RWU
