def sanity_example1(self):
from PyAstronomy import constants as c
# Print a summary of available constants
# on screen
c.summary()
# Which unit system is in use?
print()
print("Current unit system: ", c.getSystem())
# Access a constant
print()
print("Gravitational constant: ", c.G)
# The 'f_' prefix is used as a convention. These
# attributes hold `Quantity` objects as defined in
# the `quantities` package. These encapsulate value
# and unit. The prefixless attribute holds only the
# number.
print(" with unit: ", c.f_G)
print(" error with unit: ", c.f_G_err)
#Change the unit system
print()
print("Change the unit system")
c.setSystem('SI')
# Which unit system is in use?
print("Current unit system: ", c.getSystem())
# Access a constant again...
print()
print("Gravitational constant: ", c.G)
print(" with unit: ", c.f_G)
print(" error with unit: ", c.f_G_err)
# Separate value and unit
print()
print("Value: ", c.f_G.magnitude, ", units: ", c.f_G.units)
# Look up details
print()
print("What exactly was G?")
c.constantDetails("G")
# Apply unit conversion
print()
print("Use some other units")
G_InFeet = c.inUnitsOf("G", "ft**3/(kg * s**2)")
print("G with feet [ft**3/(kg * s**2)]: ", G_InFeet)
def sanity_example1(self):
from PyAstronomy import constants as c
# Print a summary of available constants
# on screen
c.summary()
# Which unit system is in use?
print()
print("Current unit system: ", c.getSystem())
# Access a constant
print()
print("Gravitational constant: ", c.G)
# The 'f_' prefix is used as a convention. These
# attributes hold `Quantity` objects as defined in
# the `quantities` package. These encapsulate value
# and unit. The prefixless attribute holds only the
# number.
print(" with unit: ", c.f_G)
print(" error with unit: ", c.f_G_err)
#Change the unit system
print()
print("Change the unit system")
c.setSystem('SI')
# Which unit system is in use?
print("Current unit system: ", c.getSystem())
# Access a constant again...
print()
print("Gravitational constant: ", c.G)
print(" with unit: ", c.f_G)
print(" error with unit: ", c.f_G_err)
# Separate value and unit
print()
print("Value: ", c.f_G.magnitude, ", units: ", c.f_G.units)
# Look up details
print()
print("What exactly was G?")
c.constantDetails("G")
# Apply unit conversion
print()
print("Use some other units")
G_InFeet = c.inUnitsOf("G", "ft**3/(kg * s**2)")
print("G with feet [ft**3/(kg * s**2)]: ", G_InFeet)
from datetime import datetime
from PyAstronomy import pyasl
from PyAstronomy import constants as consts
import matplotlib.pyplot as plt
import numpy as np
import svgfig as svg
import inspect
import spice
import math
import os
from io import StringIO
import telnetlib
import socket
consts.setSystem('SI')
class Horizons(telnetlib.Telnet, object):
MERCURY = 199
VENUS = 299
EARTH = 399
MARS = 499
JUPITER = 599
SATURN = 699
URANUS = 799
NEPTUNE = 899
PLUTO = 999
def __init__(self, timeout=socket._GLOBAL_DEFAULT_TIMEOUT):
from datetime import datetime
from PyAstronomy import pyasl
from PyAstronomy import constants as consts
import matplotlib.pyplot as plt
import numpy as np
import svgfig as svg
import inspect
import spice
import math
import os
from io import StringIO
import telnetlib
import socket
consts.setSystem("SI")
class Horizons(telnetlib.Telnet, object):
MERCURY = 199
VENUS = 299
EARTH = 399
MARS = 499
JUPITER = 599
SATURN = 699
URANUS = 799
NEPTUNE = 899
PLUTO = 999
def __init__(self, timeout=socket._GLOBAL_DEFAULT_TIMEOUT):
