def temp(self, timestep):
"""The temperature of this component at the chosen timestep
:param timestep: the timestep at which to query the temperature
:type timestep: int
:return: the temperature of the component at the chosen timestep
:rtype: float, in units of kelvin
"""
validation.validate_ge("timestep", timestep, 0)
validation.validate_le("timestep", timestep, self.timer.timesteps())
return self.T[timestep]
def temp(self, timestep):
"""The temperature of this component at the chosen timestep
:param timestep: the timestep at which to query the temperature
:type timestep: int
:return: the temperature of the component at the chosen timestep
:rtype: float, in units of kelvin
"""
validation.validate_ge("timestep", timestep, 0)
validation.validate_le("timestep", timestep, self.timer.timesteps())
return self.T[timestep]
def advance_time(self, time):
"""Advances the timer to a specific time
:param time: the time to advance to
:type time: Quantity units seconds
"""
new_ts = self.t_idx(time)
old_ts = self.ts
if (abs(new_ts - old_ts) > 1):
msg = "At timestep "
msg += str(self.ts)
msg += ", which translates to time ("
msg += str(self.t(self.ts))
msg += ") the new timestep ("
msg += str(new_ts)
msg += ") was more than one step greater than the old timestep: "
msg += str(old_ts)
raise RuntimeError(msg)
self.ts = new_ts
return validation.validate_le("current time", time, self.tf)
def test_le_both_large():
val = 1000000000000000
valname = "testval"
ulim = val
assert_equal(v.validate_le(valname, val, ulim), val)
def test_le_right_type():
val = 1
valname = "testval"
ulim = 10
assert_equal(v.validate_le(valname, val, ulim), val)
def test_le_both_large():
val = 1000000000000000
valname = "testval"
ulim = val
assert_equal(v.validate_le(valname, val, ulim), val)
def test_le_right_type():
val = 1
valname = "testval"
ulim = 10
assert_equal(v.validate_le(valname, val, ulim), val)
