def pairwiser_massboost_one_row(row, Dc, ra_rad, dec_rad, tzav, Tmapsc,
bin_edges, mass, dTw, w2, sum_mass, Npairs):
'''
inputs:
row: what row to compute
Dc: distances
ra_rad: ra
dec_rad: dec
tzav: averaged T vs z
Tmapsc: Tdisc-Tring
bin_edges: bin edges in Mpc (for n bins, we need n+1)
mass: mass in linear scale
outputs:
dTw: accumulated sum dT * c_ij * M_ij
w2: accumulated sum c_ij**2 * M_ij**2
sum_mass: sum M_ij
Npairs: counter'''
many = len(ra_rad)
i = row
for j in range(i + 1, many):
ang_ij = angle_jit_rad(dec_rad[i], ra_rad[i], dec_rad[j], ra_rad[j])
vecdiff_ij = vecdiff_jit(Dc[i], Dc[j], ang_ij)
if (vecdiff_ij > bin_edges[0]) and (vecdiff_ij < bin_edges[-1]):
binval_ij = inWhatBinIsIt(vecdiff_ij, bin_edges)
dT_ij = (Tmapsc[i] - tzav[i]) - (Tmapsc[j] - tzav[j])
cij = (Dc[i] - Dc[j]) * (1.0 + mt.cos(ang_ij)) / (2.0 * vecdiff_ij)
Mij = (mass[i] + mass[j]) / 2.
dTw[binval_ij] += dT_ij * cij * Mij
w2[binval_ij] += cij**2. * Mij**2
sum_mass[binval_ij] += Mij
Npairs[binval_ij] += 1
def do_the_jitted_pairwise(ra_rad, dec_rad, Dc, dT_ksz,
row, bin_edges,
vecdiff_ij_s, cij_s, dTw_s, w2_s, i_s, j_s,
bin_number_s):
'''Will do the pairwise calculation fast.
returns n_stored which is the length of the vector that survived the
r_max cut
Results are stored in vecdiff_ij_s, cij_s, dTw_s, and w2_s.'''
i = row
N_gal = len(ra_rad)
n_stored = 0
for j in range(row+1, N_gal):
ang_ij = pairwiser.angle_jit_rad(dec_rad[i], ra_rad[i],
dec_rad[j], ra_rad[j])
vecdiff_ij = pairwiser.vecdiff_jit(Dc[i], Dc[j], ang_ij)
if (vecdiff_ij > bin_edges[0]) and (vecdiff_ij < bin_edges[-1]):
binval_ij = inWhatBinIsIt(vecdiff_ij, bin_edges)
cij = (Dc[i]-Dc[j])*(1.0 + mt.cos(ang_ij)) / (2*vecdiff_ij)
dT_ij = dT_ksz[i]-dT_ksz[j]
dTw = dT_ij * cij
w2 = cij**2
#store result
vecdiff_ij_s[n_stored] = vecdiff_ij
cij_s[n_stored] = cij
dTw_s[n_stored] = dTw
w2_s[n_stored] = w2
i_s[n_stored] = row
j_s[n_stored] = j
bin_number_s[n_stored] = binval_ij
n_stored += 1
return n_stored
def cross_pairwiser_one_row_uneven_bins(row, Dc, ra_rad, dec_rad, tzav1, tzav2,
dT1, dT2, bin_edges, dTw, w2):
'''Idem to pairwise_one_row_uneven_bins from pairwiser.py'''
many = len(ra_rad)
i = row
for j in range(i + 1, many):
ang_ij = angle_jit_rad(dec_rad[i], ra_rad[i], dec_rad[j], ra_rad[j])
vecdiff_ij = vecdiff_jit(Dc[i], Dc[j], ang_ij)
# check if separation within bin space
if (vecdiff_ij > bin_edges[0]) and (vecdiff_ij < bin_edges[-1]):
binval_ij = inWhatBinIsIt(vecdiff_ij, bin_edges)
dT_ij = (dT1[i] - tzav1[i]) - (dT2[j] - tzav2[j])
cij = (Dc[i] - Dc[j]) * (1.0 + mt.cos(ang_ij)) / (2.0 * vecdiff_ij)
dTw[binval_ij] += dT_ij * cij
w2[binval_ij] += cij**2.0
def pairwise_Nit_uneven_bins(Nit, Dc, ra_rad, dec_rad, tzav, Tmapsc, bin_edges,
dTw, w2):
N_gal = len(Dc)
rand_ij = np.zeros(2, dtype=np.int64)
for it in xrange(Nit):
gen_random_pair(N_gal, rand_ij)
i, j = rand_ij[0], rand_ij[1]
ang_ij = angle_jit_rad(dec_rad[i], ra_rad[i], dec_rad[j], ra_rad[j])
vecdiff_ij = vecdiff_jit(Dc[i], Dc[j], ang_ij)
# Check if this separation is within the bin space
if (vecdiff_ij > bin_edges[0]) and (vecdiff_ij < bin_edges[-1]):
binval_ij = inWhatBinIsIt(vecdiff_ij, bin_edges)
# Now compute and store
dT_ij = (Tmapsc[i] - tzav[i]) - (Tmapsc[j] - tzav[j])
cij = (Dc[i] - Dc[j]) * (1.0 + mt.cos(ang_ij)) / (2.0 * vecdiff_ij)
dTw[binval_ij] += dT_ij * cij
w2[binval_ij] += cij**2.