def load_config(file_path, overrides=[]):
if not _is_valid(file_path):
_fail_and_exit()
with open(file_path) as file:
config = ConfigDict()
# Helps keep track of the "group" that we want to set settings to.
current_group = None
for line in file.read().splitlines():
line = _clean(line)
if not line:
continue
# Begin parse by looking for any "group" to init config obj with.
# -- If not found, proceed with the last detected "group".
current_group = _is_a_group(line) or current_group
if current_group and _set_group(config, current_group):
continue
elif not current_group:
# At this point, if we don't have a "group" to assign "settings" to, we assume that the config is malformed.
_fail_and_exit()
override_setting = _is_override_setting(line)
if override_setting and _set_override_setting(
config, current_group, override_setting, overrides):
continue
standard_setting = _is_standard_setting(line)
if standard_setting and _set_standard_setting(
config, current_group, standard_setting):
continue
# At this point, if we can't recognize the line format, we assume that the config is malformed.
_fail_and_exit()
return config
def file_dict(tmpdir_factory):
f = tmpdir_factory.mktemp('test').join('config.txt')
filepath = str(f)
content = '''one=unu\ntwo=doi\nthree=trei\nfour=patru\n'''
f.write(content)
file_dict = ConfigDict(filepath)
return file_dict
def __init__(self, db, log_level="ERROR"):
logger = Logger(log_level)
self.log = logger.get_logger()
self.conf = {}
self.db = db
self.db_id = 0
self.unit_lib = UnitConverter()
self.config_dict = ConfigDict()
def test_set_setting(self):
config = ConfigDict()
group = 'group'
key = 'basic_size_limit'
value = 26214400
_set_group(config, group)
_set_setting(config, group, key, value)
self.assertEqual(config.group[key], value)
def test_set_override_setting(self):
config = ConfigDict()
group = 'group'
key = 'path'
override = 'production'
value = '/srv/var/tmp/'
_set_group(config, group)
_set_override_setting(config, group, [key, override, value],
['production'])
self.assertEqual(config.group[key], value)
def __init__(self, db, log_level="ERROR"):
#logger
logger = Logger(log_level)
self.log = logger.get_logger()
#empty conf
self.conf = {}
#database
self.db = db
self.db_id = 0
#unit library
self.unit_lib = UnitConverter()
#configuration dictionary
self.config_dict = ConfigDict()
class Config:
def __init__(self, db, log_level="ERROR"):
#logger
logger = Logger(log_level)
self.log = logger.get_logger()
#empty conf
self.conf = {}
#database
self.db = db
self.db_id = 0
#unit library
self.unit_lib = UnitConverter()
#configuration dictionary
self.config_dict = ConfigDict()
def set_value(self, value, keyword):
"""
Set the value of different config options with the help
of the defined functions.
"""
if(keyword in ["Edge Length", "Edge length"]):
self.set_edge_length(value)
if(keyword in ["Model", "model"]):
self.set_model(value)
if(keyword in ["Mass", "mass"]):
self.set_mass(value)
if(keyword in ["Simulation duration", "Simulation Duration"]):
self.set_sim_dur(value)
if(keyword in ["Ephemeris step", "Ephemeris step"]):
self.set_ephemeris_step(value)
if(keyword in ["Difference between terrestrial and universal time", "Difference between terrestrial and universal time"]):
self.set_diff_terrestrial_universal_time(value)
if(keyword in ["a (Semi major axis)", "A (Semi Major Axis)"]):
self.set_semi_major_axis(value)
if(keyword in ["lambdaEq"]):
self.set_lambdaEq(value)
if(keyword in ["Stela Version"]):
self.set_stela_version(value)
if(keyword in ["Author"]):
self.set_author(self)
if(keyword in ["Comment"]):
self.set_comment(value)
if(keyword in ["Integration Step", "Integration step"]):
self.set_int_step(value)
if(keyword in ["Atmospheric drag switch", "Atmospheric Drag Switch"]):
self.set_atmos_drag_switch(value)
if(keyword in ["Drag quadrature Points", "Drag Quadrature Points"]):
self.set_quad_points(value)
if(keyword in ["Atmospheric Drag Recompute step", "Atmospheric Drag Recompute Step"]):
self.set_atmos_drag_recom_step(value)
if(keyword in ["Solar radiation pressure switch", "Solar Radiation Pressure Switch"]):
self.set_solar_rad_pres_switch(value)
if(keyword in ["Solar radiation pressure quadrature Points", "Solar Radiation Pressure Quadrature Points"]):
self.set_solar_rad_pres_quad_points(value)
if(keyword in ["Iterative Mode"]):
self.set_iter_method(value)
if(keyword in ["Sun switch", "Sun Switch"]):
self.set_sun_switch(value)
if(keyword in ["Moon switch", "Moon Switch"]):
self.set_moon_switch(value)
if(keyword in ["Zonal order", "Zonal Order"]):
self.set_zonal_order(value)
if(keyword in ["Earth Tesseral switch", "Earth Tesseral Switch"]):
self.set_earth_tesseral_switch(value)
if(keyword in ["Tesseral min period", "Tesseral Min Period"]):
self.set_tesseral_min_period(value)
if(keyword in ["Reentry Altitude", "Reentry altitude"]):
self.set_reentry_alt(value)
if(keyword in ["Drag Area","Drag area"]):
self.set_drag_area(value)
if(keyword in ["Reflecting Area", "Reflecting area"]):
self.set_reflect_area(value)
if(keyword in ["Reflectivity Coefficient", "Reflectivity coefficient"]):
self.set_reflect_coef(value)
if(keyword in ["Orbit Type", "Orbit type"]):
self.set_orbit_type(value)
if(keyword in ["Name"]):
self.set_space_object_name(value)
if(keyword in ["Date", "Initial Date"]):
self.set_initial_date(value)
if(keyword in ["Zp (Perigee altitude)", "Zp (Perigee Altitude)", "Zp (Perigee)"]):
self.set_perigee_alt(value)
if(keyword in ["Za (Apogee altitude)", "Za (Apogee Altitude)", "Za (Apogee)"]):
self.set_perigee_alt(value)
if(keyword in ["I (Inclination)"]):
self.set_incl(value)
if(keyword in ["RAAN (Right Ascension of Ascending Node)", "RAAN (Right ascension of ascending Node)"]):
self.set_raan(value)
if(keyword in ["W (Argument Of Perigee)", "w (Argument Of Perigee)"]):
self.set_arg_perigee(value)
if(keyword in ["M (Mean Anomaly)", "M (Mean anomaly)"]):
self.set_mean_anomaly(value)
if(keyword in ["E (Eccentricity)", "e (Eccentricity)"]):
self.set_eccentricity(value)
if(keyword in ["Atmospheric model", "Atmospheric Model"]):
self.set_atoms_model(value)
if(keyword in ["longitudeTFE"]):
self.set_longitudeTFE(value)
if(keyword in ["epochTFE"]):
self.set_epochTFE(value)
if(keyword in ["eX"]):
self.set_eX(value)
if(keyword in ["eY"]):
self.set_eY(value)
if(keyword in ["iX"]):
self.set_iX(value)
if(keyword in ["iY"]):
self.set_iY(value)
if(keyword in ["x"]):
self.set_x(value)
if(keyword in ["y"]):
self.set_y(value)
if(keyword in ["z"]):
self.set_z(value)
if(keyword in ["vX"]):
self.set_vX(value)
if(keyword in ["vY"]):
self.set_vY(value)
if(keyword in ["vZ"]):
self.set_vZ(value)
if(keyword in ["Solar Activity Type"]):
self.set_solar_activity_type(value)
if(keyword in ["AP Constant Equivalent Solar Activity"]):
self.set_ap_constant_solar_act(value)
if(keyword in ["F10.7 Constant Equivalent Solar Activity"]):
self.set_f107(value)
if(keyword in ["Function Value Accuracy"]):
self.set_func_value_accu(value)
if(keyword in ["Simulation Minus Expiring Duration"]):
self.set_sim_minus_exp(value)
if(keyword in ["Iteration Method"]):
self.set_iter_method(value)
if(keyword in ["Expiring Duration"]):
self.set_exp_dur(value)
if(keyword in ["Iterative Mode"]):
self.set_iter_mode(value)
def set_abstract_item(self, section, option, value):
"""
Adds items to the config array
"""
if section in self.conf.keys():
self.conf[section][option] = value
else:
self.conf[section] = {}
self.conf[section][option] = value
def get_abstract_item(self, section, option):
"""
Gives the item value back.
"""
try:
return self.conf[section][option]
except KeyError as e:
self.log.warning("Key or value not found please try again ")
return None
def get_conf(self):
"""
Gives the conf dict back
"""
return self.conf
def set_conf(self, conf):
"""
Sets the conf file from the conf dict
"""
self.conf = conf
def get_config_general(self):
"""
Gives the General configuration back
"""
try:
return self.config["General"]
except KeyError as e:
self.log.error("Key General not existant.")
return None
def set_longitudeTFE(self, longi):
"""
Sets the longitudeTFE in km
"""
self.set_abstract_item("Initial Bulletin", "longitudeTFE", longi)
def get_longitudeTFE(self):
"""
Gets the longitudeTFE
"""
self.get_abstract_item("Initial Bulletin", "longitudeTFE")
def set_epochTFE(self, epoch):
"""
Sets the Epoch, which is same as date here
"""
self.set_abstract_item("Initial Bulletin", "epochTFE", epoch)
def get_epochTFE(self):
"""
Gets the Epoch
"""
self.set_abstract_item("Initial Bulletin", "epochTFE")
def get_tesseral_min_period(self):
"""
Gets the Tesseral Min Period
"""
return self.get_abstract_item("General", "Tesseral min period")
def set_tesseral_min_period(self, period):
"""
Sets the Tesseral Min Period
"""
self.set_abstract_item("General", "Tesseral min period")
def set_model(self, model):
"""
Set Model in General
"""
self.set_abstract_item("General", "Model", model)
def get_model(self):
"""
Gives Model back
"""
return self.get_abstract_item("General", "Model")
def get_author(self):
"""
Gives the Author back
"""
return self.get_abstract_item("General", "Author")
def set_author(self, author):
"""
Set the autor of config
"""
self.set_abstract_item("General", "Author", author)
def get_comment(self):
"""
Get the comment field
"""
return self.get_abstract_item("General", "Comment")
def set_comment(self, comment):
"""
Set the comment
"""
self.set_abstract_item("General", "Comment", comment)
def get_sim_dur(self):
"""
Get the Simulation duration in years.
"""
return self.get_abstract_item("General", "Simulation duration")
def set_sim_dur(self, dur):
"""
Set the Simulation durition in years.
"""
self.set_abstract_item("General", "Simulation duration", dur)
def get_ephemeris_step(self):
"""
Get ephemeris Step in seconds.
"""
return self.get_abstract_item("General", "Ephemeris step")
def set_ephemeris_step(self, step=86400):
"""
Sets ephemeris Step in seconds.
Default value is 86400, which is a day.
"""
self.set_abstract_item("General", "Ephemeris step", step)
def get_diff_terrestrial_universal_time(self):
"""
Get the difference Difference between
terrestrial and universal time in seconds
"""
return self.get_abstract_item(
"General",
"Difference between terrestrial and universal time")
def set_diff_terrestrial_universal_time(self, time):
"""
Set the difference Difference between
terrestrial and universal time in seconds
"""
self.set_abstract_item(
"General",
"Difference between terrestrial and universal time",
time)
def get_int_step(self):
"""
Get the integration step of the simulation config in seconds
"""
return self.get_abstract_item("General", "Integration Step")
def set_int_step(self, step=86400):
"""
Set the integration step of the simulation, per default 86400s, a day
"""
self.set_abstract_item("General", "Integration Setp")
def get_atmos_drag_switch(self):
"""
Get the atmospheric drag switch, Boolean.
"""
return self.get_abstract_item("General", "Atmospheric drag switch")
def set_atmos_drag_switch(self, switch=True):
"""
Set the atmospheric drag, default True
"""
self.set_abstract_item("General", "Atmospheric drag switch", switch)
def get_quad_points(self):
"""
Returns the Drag quadrature Points
"""
return self.get_abstract_item("General", "Drag quadrature Points")
def set_quad_points(self, points=33):
"""
Sets Drag quadrature Points, default value is 33
"""
self.set_abstract_item("General", "Drag quadrature Points", points)
def get_atmos_drag_recom_step(self):
"""
Retruns the Atmospheric Drag Recompute step
"""
return self.get_abstract_item(
"General",
"Atmospheric Drag Recompute step")
def set_atmos_drag_recom_step(self, step=1):
"""
Sets the Atmospheric Drag Recompute step, default is 1.
"""
self.set_atmos_drag_recom_step(
"General",
"Atmospheric Drag Recompute step",
step)
def get_solar_rad_pres_switch(self):
"""
Returns the Solar radiation pressure switch, Boolean
"""
return self.get_abstract_item(
"General",
"Solar radiation pressure switch")
def set_solar_rad_pres_switch(self, switch=True):
"""
Sets the Solar radiation pressure switch, Per default True
"""
self.set_abstract_item(
"General",
"Solar radiation pressure switch",
switch)
def get_solar_rad_pres_quad_points(self):
"""
Gets the Solar radiation pressure quadrature Points
"""
return self.get_abstract_item(
"General",
"Solar radiation pressure quadrature Points")
def set_solar_rad_pres_quad_points(self, points=11):
"""
Sets Solar radiation pressure quadrature Points, per default 11
"""
self.set_abstract_item(
"General",
"Solar radiation pressure quadrature Points",
points)
def get_sun_switch(self):
"""
Gets the Sun switch, Boolean.
"""
return self.get_abstract_item("General", "Sun Switch")
def set_sun_switch(self, switch=True):
"""
Sets the Sun switch value, per default True.
"""
self.set_abstract_item("General", "Sun switch", switch)
def get_moon_switch(self):
"""
Gets the Sun switch value, Boolean
"""
return self.get_abstract_item("General", "Moon switch")
def set_moon_switch(self, switch=True):
"""
Sets the Moon Switch, per default Boolean True
"""
self.set_abstract_item("General", "Moon switch", switch)
def get_zonal_order(self):
"""
Gets the Zonal order
"""
return self.get_abstract_item("General", "Zonal order")
def set_zonal_order(self, order=7):
"""
Sets the Zonal order, Per default 7
"""
self.set_abstract_item("General", "Zonal order", order)
def get_earth_tesseral_switch(self):
"""
Get the Earth Tesseral Switch, Boolean
"""
return self.get_abstract_item("General", "Earth Tesseral switch")
def set_earth_tesseral_switch(self, switch=False):
"""
Sets the Earth Tesseral switch, per default False
"""
self.set_abstract_item("General", "Earth Tesseral switch", switch)
def get_reentry_alt(self):
"""
Gets the Reentry Altitude
"""
return self.get_abstract_item("General", "Reentry Altitude")
def set_reentry_alt(self, alt=120):
"""
Sets the Reentry Altitude, default 120Km, can't be less than 80.
"""
while(alt < 80):
alt = raw_input("The Altitude must be between 140 - 80 KM")
self.set_abstract_item("General", "Reentry Altitude", alt)
def set_mass(self, mass):
"""
Set the mass of the space object in kilo grams
"""
self.set_abstract_item("Space Object", "Mass", mass)
def get_mass(self):
"""
Gives the Mass of the Object back.
"""
return self.get_abstract_item("Space Object", "Mass")
def get_edge_length(self):
"""
Gets the length of a Cube edge, in m
"""
return self.get_abstract_item("Space Object", "Edge Length")
def set_edge_length(self, length):
"""
Set the length of a the Cube Edge in m
"""
self.set_abstract_item("Space Object", "Edge Length", length)
self.db.update_value("spaceObject", "edgeLength", self.get_db_id(), length)
self.set_drag_area()
self.set_reflect_area()
def get_drag_area(self):
"""
Get the Drag area of a space object, in m^2
"""
result = self.get_abstract_item("Space Object", "Drag Area")
if(result):
return result
else:
self.set_drag_area()
return self.get_drag_area()
def get_reflect_area(self):
"""
Get the Reflecting area of the Cube
"""
result = self.get_abstract_item("Space Object", "Reflecting Area")
if(result):
return result
else:
self.set_reflect_area()
return self.get_reflect_area()
def set_reflect_area(self, number=6):
""""
Sets the refelcting area of the Cubesat.
The value would be calculated from the numbers
of the reflecting sides of the cubes.Default value of 6.
"""
if(number < 7):
self.set_abstract_item(
"Space Object",
"Reflecting Area",
float(self.calculate_drag_area(self.get_edge_length())))
else:
self.log.error("A cube had at most 6 Reflectable sides")
def get_reflect_coef(self):
"""
Gets the Reflectivity Coefficient
"""
result = self.get_abstract_item(
"Space Object",
"Reflectivity Coefficient")
if(result):
return result
else:
self.set_reflect_coef()
return self.get_reflect_coef()
def set_reflect_coef(self, coef=1.5):
"""
Sets the Reflectivity Coefficient, Default value 1.5.
Is Material connceted and a mean value should be set.
"""
self.set_abstract_item(
"Space Object",
"Reflectivity Coefficient",
coef)
def get_orbit_type(self):
"""
Gets the orbit type.
"""
result = self.get_abstract_item("Space Object", "Orbit Type")
if(result):
return result
else:
self.set_orbit_type()
return self.get_orbit_type()
def set_orbit_type(self, orbit="LEO"):
"""
Sets the orbit type. Default is LEO (Low Earth Orbit)
"""
self.set_abstract_item("Space Object", "Orbit Type", orbit)
def get_drag_coef_type(self):
"""
Gets the Drag Coefficent Type
"""
return self.get_abstract_item(
"Space Object",
"Drag Coefficent Type")
def set_drag_coef_type(self, coef="VARIABLE"):
"""
ets the Drag Coefficent Type
Per default VARIABLE the other value would be the CONSTANT
"""
self.set_abstract_item(
"Space Object",
"Drag Coefficent Type",
"Drag Coefficent Type "+coef)
def get_space_object_name(self):
"""
Returns the space objcet name.
"""
return self.get_abstract_item("Space Object", "Name")
def set_space_object_name(self, name):
"""
Sets the space object name it should be called in
satgen so the object get inserted to the table.
"""
self.set_abstract_item("Space Object", "Name", name)
def get_db_id(self):
"""
Returns the database id if not exisit 0
"""
return self.db_id
def set_db_id(self,db_id):
"""
Sets the database id of the configuration
"""
self.db_id = db_id
def calculate_drag_area(self,edge_tuple):
"""
Calculates the drag area with the given tuple
"""
step_conf = ConfigStep()
area = 0
for i in itertools.combinations(step_conf.convert_to_tuple(edge_tuple),2):
area = ((i[0]*i[1])*2)+area
return area
def set_drag_area(self, mode="random"):
"""
Set the Drag area of space object, in m^2
The mode can be fixed, random
The default mode is the random, mode
before that the edge length must be set.
"""
area = self.calculate_drag_area(self.get_edge_length())
try:
if(self.get_edge_length()):
if (mode == "fixed"):
self.set_abstract_item(
"Space Object",
"Drag Area",
float(area))
elif (mode == "random"):
self.set_abstract_item(
"Space Object",
"Drag Area",
(float(area)/4))
except:
self.log.error(
"The Cube Length is not set"
"Please set it with set_edge_length(l)")
def get_atmos_model(self):
"""
Get the Atmospheric model
"""
return self.get_abstract_item(
"Atmospheric Model",
"Atmospheric Model")
def set_atoms_model(self, model="NRLMSISE-00"):
"""
Sets the Atmospheric model, per default NRLMSISE-00
"""
self.get_abstract_item("Atmospheric Model", "Atmospheric model", model)
def get_solar_activity_type(self):
"""
Gets the Solar activiy type
"""
return self.get_abstract_item("Solar Activity", "Solar Activity Type")
def set_solar_activity_type(self, act_type="MEAN_CONSTANT"):
"""
Sets the Solar Activity Type, per default is the MEAN_CONSTANT
"""
self.set_abstract_item(
"Solar Activity",
"Solar Activity Type",
act_type)
def get_ap_constant_solar_act(self):
"""
Gets AP Constant Equivalent Solar Activity
"""
return self.get_abstract_item(
"Solar Activity",
"AP Constant Equivalent Solar Activity")
def set_ap_constant_solar_act(self, ap=15):
"""
Sets AP Constant Equivalent Solar Activity, default value is 15
"""
self.set_abstract_item(
"Solar Activity",
"AP Constant Equivalent Solar Activity",
ap)
def get_f107(self):
"""
Gets the F10.7 Constant Equivalent Solar Activity
"""
return self.get_abstract_item(
"Solar Activity",
"F10.7 Constant Equivalent Solar Activity")
def set_f107(self, f107=140):
"""
Sets F10.7 Constant Equivalent Solar Activity,
with default value of 140
"""
self.set_abstract_item(
"Solar Activity",
"F10.7 Constant Equivalent Solar Activity",
f107)
def get_initial_date(self):
"""
Gets the initail date of the simulation
"""
return self.get_abstract_item("Initial Bulletin", "Date")
def set_initial_date(self, date):
"""
Sets the date, the date can be dot or - splitted yyyy-mm-dd
internally it will be changed to yyyy-mm-ddT12:00:00:00.000
"""
return self.set_abstract_item("Initial Bulletin", "Date", date)
def get_type_of_sim(self):
"""
Gets the type of Simulation, paramater
"""
return self.get_abstract_item("Initial Bulletin", "Type")
def set_type_of_sim(self, sim_type="Perigee/Apogee"):
"""
Sets the type of simulation, per default Perigee/Apogee
"""
self.set_abstract_item("Initial Bulletin", "Type", sim_type)
def get_frame(self):
"""
Gets the Simulation Frame
"""
return self.get_abstract_item("Initial Bulletin", "Frame")
def set_frame(self, frame="CELESTIAL_MEAN_OF_DATE"):
"""
Sets the Simulation Frame, per default CELESTIAL_MEAN_OF_DATE
"""
self.set_abstract_item("Initial Bulletin", "Frame", frame)
def get_nature(self):
"""
Gets the Nature of Simulation
"""
return self.get_abstract_item("Initial Bulletin", "Nature")
def set_nature(self, nature="MEAN"):
"""
Sets the Nature of Simulation, per default MEAN
"""
self.set_abstract_item("Initial Bulletin", "Nature", nature)
def get_preigee_alt(self):
"""
Gets the Perigee Altitude in Km
"""
return self.get_abstract_item(
"Initial Bulletin",
"Zp (Perigee altitude)")
def set_perigee_alt(self, alt):
"""
Sets the perigee Altitude in Km
"""
self.set_abstract_item(
"Initial Bulletin",
"Zp (Perigee altitude)",
alt)
def get_apogee_alt(self):
"""
Gets the Apogee altitude in Km
"""
return self.get_abstract_item(
"Initial Bulletin",
"Za (Apogee altitude)")
def set_apogee_alt(self, alt):
"""
Sets the Apogee altitude in Km
"""
self.set_abstract_item(
"Initial Bulletin",
"Za (Apogee altitude)",
alt)
def get_incl(self):
"""
Gets the Inclination in Deg
"""
return self.get_abstract_item("Initial Bulletin", "I (Inclination)")
def set_incl(self, inclination):
"""
Sets the Inclination in Deg
"""
self.set_abstract_item(
"Initial Bulletin",
"I (Inclination)",
inclination)
def get_raan(self):
"""
Gets the RAAN (Right Ascension of Ascending Node) in Deg
"""
return self.get_abstract_item(
"Initial Bulletin",
"RAAN (Right Ascension of Ascending Node)")
def set_raan(self, rann):
"""
Sets RAAN (Right Ascension of Ascending Node) in Deg
"""
self.set_abstract_item(
"Initial Bulletin",
"RAAN (Right Ascension of Ascending Node)",
raan)
def get_arg_perigee(self):
"""
Gets the Argument of prigee in Deg
"""
return self.get_abstract_item(
"Initial Bulletin",
"w (Argument of perigee)")
def set_arg_perigee(self, arg):
"""
Sets the Argument of perigee in Deg
"""
self.set_abstract_item(
"Initial Bulletin",
"w (Argument of perigee)",
arg)
def get_mean_anomaly(self):
"""
Gets the Mean Anomaly in Deg
"""
return self.get_abstract_item("Initial Bulletin", "M (Mean anomaly)")
def set_mean_anomaly(self, anomaly):
"""
Sets the Mean Anomaly in Deg
"""
self.set_abstract_item(
"Initial Bulletin",
"M (Mean anomaly)",
anomaly)
def set_semi_major_axis(self, axis):
"""
Sets the SemiMajor Axis in km
"""
self.set_abstract_item("Initial Bulletin", "a (Semi major axis)".title(), axis)
def get_semi_major_axis(self):
"""
Gets the SemiMajor Axis in km
"""
return self.get_abstract_item("Initial Bulletin", "a (Semi major axis)".title())
def get_eccentricity(self):
"""
Gets the Eccentricity
"""
return self.get_abstract_item("Initial Bulletin", "e (Eccentricity)")
def set_eccentricity(self, ecc):
"""
Sets the Eccentricity
"""
self.set_abstract_item("Initial Bulletin", "e (Eccentricity)", ecc)
def set_eX(self, eX):
"""
Sets the eX Orbital Parameter
"""
self.set_abstract_item("Initial Bulletin", "eX", eX)
def get_eX(self):
"""
Gets the eX Orbital Parameter
"""
return self.get_abstract_item("Initial Bulletin", "eX")
def set_eY(self, eY):
"""
Sets the eY Orbital Parameter
"""
self.set_abstract_item("Initial Bulletin", "eY", eY)
def get_eY(self):
"""
Gets the eY Orbital Parameter
"""
return self.get_abstract_item("Initial Bulletin", "eY")
def set_iX(self, iX):
"""
Sets the Orbital Parameter iX
"""
self.set_abstract_item("Initial Bulletin", "iX", iX)
def get_iX(self):
"""
Gets the Orbital Parameter iX
"""
return self.get_abstract_item("Initial Bulletin", "iX")
def set_iY(self, iY):
"""
Sets the Orbital Parameter iY
"""
self.set_abstract_item("Initial Bulletin", "iY", iY)
def get_iY(self):
"""
Gets the Orbital Parameter iY
"""
return self.get_abstract_item("Initial Bulletin", "iY")
def set_x(self, x):
"""
Sets the x value
"""
self.set_abstract_item("Initial Bulletin", "x", x)
def get_x(self):
"""
Gets the x value
"""
self.get_abstract_item("Initial Bulletin", "x")
def set_lambdaEq(self, lambdaEq):
"""
Sets the Orbital Parameter lambdaEq in Deg
"""
self.set_abstract_item("Initial Bulletin", "lambdaEq", lambdaEq)
def get_lambdaEq(self):
"""
Gets the Orbital Parameter lambdaEq in Deg
"""
return self.get_abstract_item("Initial Bulletin", "lambdaEq")
def set_epoch_tfe(self, date):
"""
Sets the epochTFE with the date
"""
self.set_abstract_item("Initial Bulletin", "epochTFE", date)
def get_eppch_tfe(self):
"""
Returns the epochTFE
"""
return self.get_abstract_item("Initial Bulletin", "epochTFE")
def set_func_value_accu(self, accu):
"""
Sets functional Value Accuracy of Iteration in days
"""
self.set_abstract_item(
"Iteration Data",
"Function Value Accuracy",
accu)
def get_func_value_accu(self):
"""
Gets the functional Value Accuracy of Iteration in days
"""
return self.get_abstract_item(
"Iteration Data",
"Function Value Accuracy")
def get_exp_dur(self):
"""
Gets the Expiring Duration in years
"""
return self.get_abstract_item(
"Iteration Data",
"Expiring Duration")
def set_exp_dur(self, dur):
"""
Sets the expiring duration in years
"""
self.set_abstract_item(
"Iteration Data",
"Expiring Duration")
def get_sim_minus_exp(self):
"""
Gets the Simulation Minus Expireing Duration in years
"""
return self.get_abstract_item(
"Iteration Data",
"Simulation Minus Expireing Duration")
def set_sim_minus_exp(self, exp):
"""
Sets the Simulation Minus Expireing Duration in years
"""
self.set_abstract_item(
"Iteration Data",
"Simulation Minus Expireing Duration")
def set_iter_method(self, method="FrozenOrbit"):
"""
Sets the Iteration Method
"""
self.set_abstract_item(
"Iteration Data",
"Iteration Method",
method)
def get_iter_method(self):
"""
Gets the Iteration Method
"""
self.get_abstract_item("Iteration Data", "Iteration Method")
def get_stela_version(self):
"""
Gets the Stela Version
"""
return self.get_abstract_item("General", "Stela Version")
def set_stela_version(self, version):
"""
Sets the Stela Version
"""
self.set_abstract_item("General", "Stela Version", version)
def set_drag_coef_const(self, value):
"""
Sets the value for the Constant drag coeficient
"""
if(self.get_conf()["Space Object"]["Drag Coefficent Type"] ==
"Drag Coefficent Type CONSTANT"):
self.set_abstract_item(
"Space Object",
"Constant Drag Coef",
value)
def get_drag_coef_const(self):
"""
Returns the constant Drag Coefficent
"""
return self.get_abstract_item("Space Object", "Constant Drag Coef")
def values_to_keys(self, want_value, dictio):
"""
Returns key from the given values, for dicts
"""
for key, is_value in dictio.items():
if (is_value == want_value):
return key
def parse_elements(
self,
parent,
key_value_dict,
unit_dict=dict(),
sort_dict=dict(),
trans_dict=dict(),
exceptions=list()):
"""
Parses the keys and values dict with help of
unit_dict, sort_dict, transition_dict and the excpetion list.
"""
db_id = self.get_db_id()
conf_dict = self.config_dict
unit_converter = self.unit_lib
sorted_list = sorted(
key_value_dict.items(),
key=lambda x: sort_dict.get(x[0]))
for sort_item in sorted_list:
if(sort_item[0] not in exceptions and sort_item[0] != "Drag Coefficent Type"):
tmp_el = ET.SubElement(parent, str(trans_dict[sort_item[0]]))
if sort_item[0] in unit_dict:
tmp_el.set('unit', str(unit_dict[sort_item[0]]))
#unit conversion
if(unit_dict[sort_item[0]]=="rad"):
tmp_el.text = str(
unit_converter.deg_to_rad(float(sort_item[1])))
elif(unit_dict[sort_item[0]]=="m"):
tmp_el.text = str(
unit_converter.km_to_m(float(sort_item[1])))
else:
tmp_el.text = str(sort_item[1])
else:
tmp_el.text = str(sort_item[1])
#exception Atmospheric Model
if(sort_item[0] == "Atmospheric Model"):
atmos = ET.SubElement(parent, str(trans_dict["Atmospheric model"]))
atmos.text = self.get_atmos_model()
#exception Drag Coefficient
if(sort_item[0] == "Drag Coefficent Type"):
drag_co_type = self.get_conf()["Space Object"]["Drag Coefficent Type"]
drag_co_el = ET.SubElement(
parent,
str(trans_dict["Drag Coefficent Type " + drag_co_type]))
if(drag_co_type == "CONSTANT"):
drag_co_const = ET.SubElement(
drag_co_el,
str(trans_dict["Constant Drag Coef"]))
drag_co_const.text = str(self.get_drag_coef_const())
#exception Solar Activity
if(sort_item[0] == "Solar Activity Type"):
solar_act_type = self.get_solar_activity_type()
tmp_el = ET.SubElement(
parent,
str(trans_dict["Solar Activity Type " + solar_act_type]))
if(solar_act_type == "VARIABLE"):
solar_act_type_el = ET.SubElement(
tmp_el, str(trans_dict["Solar Activity Type"]))
solar_act_type_el.text = str(self.get_solar_activity_type())
else:
self.parse_elements(
tmp_el,
self.get_conf()["Solar Activity"],
unit_dict,
config_dict.get_sort_solar_act(),
trans_dict)
#exception Iteration Data
if(sort_item[0] == "Iteration Data"):
iteration = ET.SubElement(parent, str(trans_dict["Iteration Data"]))
self.parse_elements(
iteration,
self.get_conf()["Iteration Data"],
unit_dict,
conf_dict.get_sort_iteration_data(),
trans_dict)
def get_xml_file_name(self):
"""
Get the xml_file name generated
"""
name = self.get_space_object_name()
edge_length = self.get_edge_length()
mass = self.get_mass()
sat_name = name+"_a_sim.xml"
return sat_name
def convert_to_xml(self):
"""
Creates an xml configuration from the cfg file
"""
unit_converter = UnitConverter()
dictio = self.config_dict.get_dict()
sort_space_object = self.config_dict.get_sort_space_object()
unit_dict = self.config_dict.get_unit_dict()
self.set_abstract_item(
"General",
"Solar Activity Type",
self.get_solar_activity_type())
self.set_abstract_item(
"General",
"Iteration Data",
"")
self.set_abstract_item(
"General",
"Atmospheric Model",
"")
self.set_stela_version("2.5.0")
leosimulation = ET.Element('LEOSimulation')
leosimulation.set("version", str(self.get_stela_version()))
stelaversion = ET.SubElement(leosimulation, 'STELAVersion')
stelaversion.text = "2.5.1"
spaceobject = ET.SubElement(leosimulation, dictio["Space Object"])
self.parse_elements(
spaceobject,
self.get_conf()["Space Object"],
unit_dict,
sort_space_object,
dictio,
["Edge Length", "Constant Drag Coef"])
ephemerisman = ET.SubElement(leosimulation, 'EphemerisManager')
ephemerisman.set('version', str(self.get_stela_version()))
initstate = ET.SubElement(ephemerisman, 'initState')
bulletin = ET.SubElement(initstate, 'bulletin')
bulletin.set('version', str(self.get_stela_version()))
date = strftime("%Y-%m-%dT%H:%M:%S.000", gmtime())
self.set_initial_date(date)
date_element = ET.SubElement(bulletin, 'date')
date_element.text = date
bulletin_type = str(dictio["Type " + self.get_type_of_sim()])
sim_type_element = ET.SubElement( bulletin, bulletin_type)
for param in self.config_dict.get_conf_sim(sim_type_element.tag):
tmp_el = ET.SubElement(sim_type_element, str(dictio[param]))
if param in unit_dict:
tmp_el.set('unit', str(unit_dict[param]))
if(unit_dict[param]=="rad"):
tmp_el.text = str(
unit_converter.deg_to_rad(
float(self.get_abstract_item(
"Initial Bulletin", param.title()))))
elif(unit_dict[param]=="m"):
tmp_el.text = str(
unit_converter.km_to_m(
float(self.get_abstract_item(
"Initial Bulletin", param.title()))))
else:
tmp_el.text = str(
self.get_abstract_item(
"Initial Bulletin", param.title()))
else:
tmp_el.text = str(
self.get_abstract_item("Initial Bulletin", param.title()))
finishstate = ET.SubElement(ephemerisman, 'finalState')
self.parse_elements(
leosimulation,
self.get_conf()["General"],
unit_dict,
self.config_dict.get_sort_general(),
dictio,
[
"Stela Version",
"Edge Length",
"Solar Activity Type",
"Atmospheric Model" ,
"Earth Tesseral Switch",
"Iteration Data"])
result = ""
if(sys.version_info) > (2,7):
result = prettify(leosimulation)
else:
result = ET.tostring(leosimulation)
return result
def convert_space_object_to_tuple(self):
"""
convertes the space object to tuple
"""
key_tuple = tuple()
value_tuple = tuple()
qu_tuple = tuple()
qu = "?,"
qu_tuple = "("
for k,v in self.get_conf()["Space Object"].items():
if(k=="Drag Coefficent Type"):
k = k+" "+v
v = 1
key_tuple = key_tuple+(self.config_dict.get_dict()[k],)
value_tuple=value_tuple+(v,)
qu_tuple = qu_tuple+qu
qu_tuple = qu_tuple[:-1]+")"
return {"key":key_tuple, "value":value_tuple, "qu": qu_tuple}
def convert_init_state_to_tuple(self, space_object_id):
"""
converts the initState to Tuple
"""
unit_dict = self.config_dict.get_unit_dict()
key_tuple = tuple()
value_tuple = tuple()
qu_tuple = tuple()
qu = "?,"
qu_tuple = "(?,?,?,"
bulletin_type = str(self.config_dict.get_dict()["Type " + self.get_type_of_sim()])
for param in self.config_dict.get_conf_sim(bulletin_type):
key_tuple = key_tuple + (self.config_dict.get_dict()[param],)
if param in unit_dict:
if(unit_dict[param]=="rad"):
value_tuple = value_tuple + (
self.unit_lib.deg_to_rad(
float(self.get_abstract_item(
"Initial Bulletin", param.title()))), )
elif(unit_dict[param]=="m"):
value_tuple = value_tuple + (self.unit_lib.km_to_m(
float(self.get_abstract_item(
"Initial Bulletin", param.title()))),)
else:
value_tuple = value_tuple + (self.get_abstract_item(
"Initial Bulletin", param.title()),)
else:
value_tuple = value_tuple + (
self.get_abstract_item("Initial Bulletin", param.title()),)
qu_tuple = qu_tuple+qu
key_tuple = key_tuple + ("spaceObjectId", bulletin_type, "date")
value_tuple = value_tuple + (space_object_id, 1, self.get_initial_date())
qu_tuple = qu_tuple[:-1]+")"
return {"key":key_tuple, "value":value_tuple, "qu": qu_tuple}
def convert_general_sim(self, space_object_id):
"""
convert to General Sim tuple for the database
"""
key_tuple = tuple()
value_tuple = tuple()
qu_tuple = tuple()
qu = "?,"
qu_tuple = "(?, "
for k,v in self.get_conf()["General"].items():
if(k not in ["Stela Version",
"Drag Coefficent Type",
"Edge Length",
"Solar Activity Type",
"Atmospheric Model" ,
"Earth Tesseral Switch",
"Iteration Data"]):
key_tuple = key_tuple+(self.config_dict.get_dict()[k],)
value_tuple = value_tuple + (v,)
qu_tuple = qu_tuple+qu
key_tuple = key_tuple + ("spaceObjectId",)
value_tuple = value_tuple + (space_object_id,)
qu_tuple = qu_tuple[:-1]+")"
return {"key":key_tuple, "value":value_tuple, "qu": qu_tuple}
def test_set_group(self):
config = ConfigDict()
group = 'group'
result = _set_group(config, group)
self.assertTrue(result)
self.assertTrue(group in config)