def test_BBHStrain(LISA_prop1, aLIGO, SKA_WN, ET):
source_1 = binary.BBHFrequencyDomain(M[0],
q[0],
z[0],
x1[0],
x2[0],
instrument=LISA_prop1)
source_2 = binary.BBHFrequencyDomain(M[1],
q[1],
z[1],
x1[1],
x2[1],
instrument=aLIGO)
source_3 = binary.BBHFrequencyDomain(M[2],
q[2],
z[2],
x1[2],
x2[2],
instrument=SKA_WN)
source_4 = binary.BBHFrequencyDomain(M[1],
q[0],
z[1],
x1[1],
x2[1],
instrument=ET)
def test_BBHStrain(LISA_prop1, aLIGO, SKA_WN, ET):
source_1 = binary.BBHFrequencyDomain(
M[0],
q[0],
z[0],
x1[0],
x2[0],
instrument=LISA_prop1,
f_min=1e-6,
f_max=10,
nfreqs=int(1e3),
)
source_2 = binary.BBHFrequencyDomain(M[1],
q[1],
z[1],
chi2=x2[1],
instrument=aLIGO)
source_3 = binary.BBHFrequencyDomain(M[2],
q[2],
z[2],
x1[2],
x2[2],
instrument=SKA_WN)
source_4 = binary.BBHFrequencyDomain(M[1],
q[0],
z[1],
chi1=x1[1],
instrument=ET)
binary.Get_Char_Strain(source_1)
binary.Get_Time_From_Merger(source_4,
freq=1 / u.yr,
in_frame="source",
out_frame="observer").to("yr")
binary.Get_Time_From_Merger(source_2,
freq=1 / u.yr,
in_frame="source",
out_frame="source").to("yr")
binary.Get_Time_From_Merger(source_2,
freq=1 / u.yr,
in_frame="observer",
out_frame="observer").to("yr")
binary.Get_Mono_Char_Strain(
source_2,
np.max(source_2.instrument.T_obs).to("s"),
inc=np.pi / 2,
f_gw_frame="observer",
)
binary.Check_Freq_Evol(
source_3,
T_evol=np.max(source_3.instrument.T_obs).to("s"),
T_evol_frame="source",
)
binary.Get_Mono_Strain(source_2)
binary.Get_Mono_Strain(source_2, out_frame="observer")
def source_space_based():
# M = m1+m2 Total Mass
M = 1e6
M_min = 1e1
M_max = 1e10
source_space_based = binary.BBHFrequencyDomain(M, q, z, chi1, chi2)
source_space_based.M = [M, M_min, M_max]
source_space_based.q = [q, q_min, q_max]
source_space_based.chi1 = [chi1, chi_min, chi_max]
source_space_based.chi2 = [chi2, chi_min, chi_max]
source_space_based.z = [z, z_min, z_max]
return source_space_based
def source_pta():
# M = m1+m2 Total Mass
M = 1e8
M_min = 1e7
M_max = 1e11
source_pta = binary.BBHFrequencyDomain(M, q, z, chi1, chi2)
source_pta.M = [M, M_min, M_max]
source_pta.q = [q, q_min, q_max]
source_pta.chi1 = [chi1, chi_min, chi_max]
source_pta.chi2 = [chi2, chi_min, chi_max]
source_pta.z = [z, z_min, z_max]
return source_pta
def Get_Source(model):
if model == 0 or model == 1:
#M = m1+m2 Total Mass
M = 1e2
M_min = 1e0
M_max = 1e5
elif model == 2 or model == 3:
#M = m1+m2 Total Mass
M = 1e8
M_min = 1e7
M_max = 1e11
else:
#M = m1+m2 Total Mass
M = 1e6
M_min = 1e1
M_max = 1e10
#q = m2/m1 reduced mass
q = 1.0
q_min = 1.0
q_max = 18.0
#Chi = S_i*L/m_i**2, spins of each mass i
chi1 = 0.0 #spin of m1
chi2 = 0.0 #spin of m2
chi_min = -0.85 #Limits of PhenomD for unaligned spins
chi_max = 0.85
z = 3.0 #Redshift
z_min = 1e-2
z_max = 1e3
source = binary.BBHFrequencyDomain(M, q, chi1, chi2, z)
source.M = [M, M_min, M_max]
source.q = [q, q_min, q_max]
source.chi1 = [chi1, chi_min, chi_max]
source.chi2 = [chi2, chi_min, chi_max]
source.z = [z, z_min, z_max]
return source
def test_BBH_lalsuite_approx(LISA_prop1):
approximant = "IMRPhenomD"
lalsuite_kwargs = {"eccentricity": 0.5}
delT_obs = 1 / 4 / u.yr
delT_obs = delT_obs.to("1/s")
source_6 = binary.BBHFrequencyDomain(M,
q,
z,
approximant=approximant,
lalsuite_kwargs=lalsuite_kwargs)
source_6.f_min = 1e-7
source_6.chi1 = 0.5
source_6.chi2 = -0.2
source_6.f_gw = 1e-3 * u.Hz
[_, _] = waveform.Get_Waveform(
source_6,
approximant=approximant,
pct_of_peak=0.01,
lalsuite_kwargs=lalsuite_kwargs,
out_frame="observer",
)
binary.Get_Char_Strain(source_6)
lalsuite_kwargs.update({
"approximant": "IMRPhenomPv3",
"chi1": 0.0,
"chi2": 0.2,
"deltaF": delT_obs.value,
"f_min": delT_obs.value,
"f_max": delT_obs.value * 1e3,
"f_ref": 0.1 * u.Hz,
})
source_7 = binary.BBHFrequencyDomain(M[0],
q[0],
z[0],
lalsuite_kwargs=lalsuite_kwargs)
source_7.f_gw = 1e-3 * u.Hz
binary.Get_Char_Strain(source_7, in_frame="source", out_frame="observer")
binary.Get_Char_Strain(source_7, in_frame="observer", out_frame="source")
binary.Get_Char_Strain(source_7, in_frame="source", out_frame="source")
lalsuite_kwargs_2 = {
"m1": M[0] / (1 + q[0]) * u.M_sun.to("kg"),
"m2": (M[0] * q[0] / (1 + q[0])) * u.M_sun.to("kg"),
"S1x": 0,
"S1y": 0,
"S1z": x1[2],
"S2x": 0,
"S2y": 0,
"S2z": x2[2],
"distance": 7.146757481804179e27,
"inclination": 0,
"phiRef": 0,
"longAscNodes": 0,
"eccentricity": 0,
"meanPerAno": 0,
"deltaF": delT_obs,
"f_min": delT_obs * 0.01,
"f_max": delT_obs * 1e3,
"f_ref": 0,
"LALpars": {},
}
source_8 = binary.BBHFrequencyDomain(
M[0],
q[0],
z[0],
approximant=98,
instrument=LISA_prop1,
lalsuite_kwargs=lalsuite_kwargs_2,
)
[_, _] = waveform.Get_Waveform(
source_8,
approximant=98,
pct_of_peak=0.01,
lalsuite_kwargs=lalsuite_kwargs_2,
out_frame="source",
)
waveform.Strain_Conv(
source_8,
source_8.f,
source_8.h_f,
inverse=True,
in_frame="source",
out_frame="observer",
)
waveform.Strain_Conv(
source_8,
source_8.f,
source_8.h_f,
inverse=True,
in_frame="observer",
out_frame="observer",
)
waveform.Strain_Conv(
source_8,
source_8.f,
source_8.h_f,
inverse=True,
in_frame="source",
out_frame="source",
)
waveform.Strain_Conv(
source_8,
source_8.f,
source_8.h_f,
inverse=True,
in_frame="observer",
out_frame="source",
)
def test_BBH_Mono_Funcs():
source_5 = binary.BBHFrequencyDomain(M[0], q[1], z[1], f_gw=1e-5 * u.Hz)
source_5.chi1 = 0.0
source_5.chi2 = 0.0
source_5.f
source_5.chi2 = 0.5
source_5.h_f
binary.Get_Mono_Char_Strain(source_5)
binary.Get_Mono_Char_Strain(
source_5,
method="SPA",
freq=source_5.f_gw,
f_gw_frame="source",
pn_frame="source",
out_frame="observer",
inc=np.pi / 2,
)
binary.Get_Mono_Char_Strain(
source_5,
method="SPA",
freq=source_5.f_gw,
f_gw_frame="source",
pn_frame="source",
out_frame="source",
inc=np.pi / 2,
)
binary.Get_Mono_Char_Strain(
source_5,
method="SPA",
freq=source_5.f_gw,
f_gw_frame="source",
pn_frame="source",
out_frame="source",
inc=np.pi / 2,
)
binary.Get_Mono_Char_Strain(
source_5,
method="SPA",
f_gw_frame="observer",
pn_frame="source",
out_frame="source",
)
binary.Get_Mono_Char_Strain(
source_5,
method="PN",
freq=source_5.f_gw,
f_gw_frame="observer",
pn_frame="source",
out_frame="source",
)
binary.Get_Mono_Char_Strain(
source_5,
method="PN",
freq=source_5.f_gw,
f_gw_frame="source",
pn_frame="observer",
out_frame="source",
)
binary.Get_Mono_Strain(
source_5,
method="PN",
freq=source_5.f_gw,
f_gw_frame="source",
pn_frame="observer",
out_frame="source",
)
binary.Get_F_Dot(source_5,
freq=None,
in_frame="observer",
out_frame="observer")
binary.Get_F_Dot(source_5,
freq=None,
in_frame="source",
out_frame="observer")
binary.Get_F_Dot(source_5,
freq=None,
in_frame="observer",
out_frame="source")
binary.Get_F_Dot(source_5,
freq=source_5.f_gw,
in_frame="source",
out_frame="source")
binary.Check_Freq_Evol(
source_5,
T_evol=4 * u.yr.to("s"),
T_evol_frame="observer",
f_gw_frame="source",
)
def test_BBH_arg_error():
with pytest.raises(ValueError):
binary.BBHFrequencyDomain(M[0], q[0], z[0], x1[0], x2[0], M[1])
