def e0(self):
""" Line lower state energy (Numeric) """
return Numeric(c.c_void_p(lib.getE0AbsorptionSingleLine(self.__data__)))
def diameter_area_equ_aerodynamical(self):
""" (Numeric) """
return Numeric(
c.c_void_p(
lib.getdiameter_area_equ_aerodynamicalScatteringMetaData(
self.__data__)))
def upper_freq(self):
return Numeric(c.c_void_p(lib.getupper_freqSpeciesTag(self.__data__)))
def i0(self):
""" Line strength (Numeric) """
return Numeric(c.c_void_p(lib.getI0AbsorptionSingleLine(self.__data__)))
def linemixinglimit(self):
""" Line mixing pressure limit (Numeric) """
return Numeric(
c.c_void_p(lib.getlinemixinglimitAbsorptionLines(self.__data__)))
def perturbation(self):
""" Perturbation for some calculations (Numeric) """
return Numeric(c.c_void_p(lib.getPerturbationJacobianTarget(self.__data__)))
def end_lstep(self):
""" The distance between end pos and the first position in pos (Numeric) """
return Numeric(c.c_void_p(lib.getend_lstepPpath(self.__data__)))
def t0(self):
""" Reference temperature (Numeric) """
return Numeric(c.c_void_p(lib.getT0AbsorptionLines(self.__data__)))
def constant(self):
""" The propagation path constant (only used for 1D) (Numeric) """
return Numeric(c.c_void_p(lib.getconstantPpath(self.__data__)))
def start_lstep(self):
""" Length between sensor and atmospheric boundary (Numeric) """
return Numeric(c.c_void_p(lib.getstart_lstepPpath(self.__data__)))
s.val = "Hej"
assert s == "Hej", "Bad write"
s.set(String("Help"))
assert s == "Help", "Bad write"
i.val = 3
assert i == 3, "Bad write"
i.set(5)
assert i == 5, "Bad write"
n.val = 3.5
assert n == 3.5, "Bad write"
n.set(3.14)
assert n == 3.14, "Bad write"
s2 = String(0)
s.savexml("tmp.s.xml", "binary")
s2.readxml("tmp.s.xml")
assert s == s2
i2 = Index(0)
i.savexml("tmp.i.xml", "binary")
i2.readxml("tmp.i.xml")
assert i == i2
n2 = Numeric(0)
n.savexml("tmp.n.xml", "binary")
n2.readxml("tmp.n.xml")
assert n == n2
def x3(self):
""" Model parameter #4 (Numeric) """
return Numeric(
c.c_void_p(lib.getX3LineShapeModelParameters(self.__data__)))
def mass(self):
return Numeric(
c.c_void_p(
lib.getmassSpeciesErrorCorrectedSuddenData(self.__data__)))
def mass(self):
""" (Numeric) """
return Numeric(c.c_void_p(lib.getmassScatteringMetaData(
self.__data__)))
def gl(self):
""" Lower state statistical weight (Numeric) """
return Numeric(c.c_void_p(lib.getglowAbsorptionSingleLine(self.__data__)))
def diameter_volume_equ(self):
""" (Numeric) """
return Numeric(
c.c_void_p(
lib.getdiameter_volume_equScatteringMetaData(self.__data__)))
def gu(self):
""" Upper state statistical weight (Numeric) """
return Numeric(c.c_void_p(lib.getguppAbsorptionSingleLine(self.__data__)))
def cutofffreq(self):
""" Cutoff frequency (Numeric) """
return Numeric(
c.c_void_p(lib.getcutofffreqAbsorptionLines(self.__data__)))
def a(self):
""" Einstein coefficient (Numeric) """
return Numeric(c.c_void_p(lib.getAAbsorptionSingleLine(self.__data__)))
def sigma_za(self):
""" (Numeric) """
return Numeric(c.c_void_p(lib.getszaMCAntenna(self.__data__)))
def f0(self):
""" Line frequency (Numeric) """
return Numeric(c.c_void_p(lib.getF0AbsorptionSingleLine(self.__data__)))
def perturbation(self):
""" (Numeric) """
return Numeric(
c.c_void_p(lib.getPerturbationRetrievalQuantity(self.__data__)))
def dlat(self):
""" Resolution of the Atlas (Numeric) """
return Numeric(c.c_void_p(lib.getLatTelsemAtlas(self.__data__)))