def test_totdev_ci(self):
s32rows = testutils.read_stable32(resultfile='totdev_decade.txt',
datarate=1.0)
for row in s32rows:
data = testutils.read_datafile(data_file)
(taus, devs, errs, ns) = allan.totdev(data,
rate=rate,
taus=[row['tau']])
edf = allan.edf_totdev(N=len(data), m=row['m'], alpha=row['alpha'])
#,d=3,m=row['m'],N=len(data),overlapping=True, modified = False, verbose=True)
(lo, hi) = allan.confidence_intervals(devs[0],
ci=0.68268949213708585,
edf=edf)
print("n check: ", testutils.check_equal(ns[0], row['n']))
print("dev check: ",
testutils.check_approx_equal(devs[0], row['dev']))
print(
"min dev check: ", lo, row['dev_min'],
testutils.check_approx_equal(lo,
row['dev_min'],
tolerance=1e-3))
print(
"max dev check: ", hi, row['dev_max'],
testutils.check_approx_equal(hi,
row['dev_max'],
tolerance=1e-3))
def test_totdev_ci(self):
print("totdev()")
s32rows = testutils.read_stable32(resultfile='totdev_octave.txt',
datarate=1.0)
for row in s32rows:
data = testutils.read_datafile(data_file)
data = allan.frequency2fractional(data, mean_frequency=1.0e7)
(taus, devs, errs, ns) = allan.totdev(data,
rate=rate,
data_type="freq",
taus=[row['tau']])
edf = allan.edf_totdev(N=len(data), m=row['m'], alpha=row['alpha'])
(lo, hi) = allan.confidence_interval(devs[0], edf=edf)
print("n check: ", testutils.check_equal(ns[0], row['n']))
print(
"dev check: ",
testutils.check_approx_equal(devs[0],
row['dev'],
tolerance=2e-3))
print("min dev check: %.4g %.4g %d" %
(lo, row['dev_min'],
testutils.check_approx_equal(
lo, row['dev_min'], tolerance=2e-3)))
print("max dev check: %.4g %.4g %d" %
(hi, row['dev_max'],
testutils.check_approx_equal(
hi, row['dev_max'], tolerance=2e-3)))
def test_phasedat_totdev(self):
(s32_taus, s32_devs, s32_devs_lo, s32_devs_hi,
s32_ns) = read_stable32('phase_dat_totdev_octave.txt', 1.0)
phase = read_datafile('PHASE.DAT')
(taus, devs, errs, ns) = allan.totdev(phase, taus=s32_taus)
los = []
his = []
for (d, t, n) in zip(devs, taus, ns):
#edf = greenhall_simple_edf( alpha=0, d=3, m=t, S=1, F=t, N=len(phase) )
#edf2 = greenhall_edf( alpha=0, d=3, m=int(t), N=len(phase), overlapping = True, modified=False )
#print(edf,edf2,edf2/edf)
edf = allan.edf_totdev(len(phase), t, alpha=0)
(lo,
hi) = allan.confidence_intervals(dev=d,
ci=0.68268949213708585,
edf=edf) # 0.68268949213708585
#allan.uncertainty_estimate(len(phase), t, d,ci=0.683,noisetype='wf')
los.append(lo)
his.append(hi)
for (t1, d1, lo1, hi1, n1, t2, d2, lo2, hi2,
n2) in zip(s32_taus, s32_devs, s32_devs_lo, s32_devs_hi, s32_ns,
taus, devs, los, his, ns):
print("s32 %03d %03f %1.6f %1.6f %1.6f" % (n1, t1, lo1, d1, hi1))
print("at %03d %03f %1.6f %1.6f %1.6f" %
(n2, t2, round(lo2, 7), round(d2, 7), round(hi2, 7)))
approx_equal(lo1, lo2, tolerance=1e-3)
approx_equal(hi1, hi2, tolerance=1e-3)
print("----")
def test_phasedat_totdev(self):
s32_rows = testutils.read_stable32('phase_dat_totdev_octave.txt', 1.0)
phase = testutils.read_datafile('PHASE.DAT')
(taus, devs, errs,
ns) = allan.totdev(phase, taus=[s32['tau'] for s32 in s32_rows])
los = []
his = []
for (d, t, n) in zip(devs, taus, ns):
#edf = greenhall_simple_edf( alpha=0, d=3, m=t, S=1, F=t, N=len(phase) )
#edf2 = greenhall_edf( alpha=0, d=3, m=int(t), N=len(phase), overlapping = True, modified=False )
#print(edf,edf2,edf2/edf)
edf = allan.edf_totdev(len(phase), t, alpha=0)
(lo, hi) = allan.confidence_interval(dev=d, edf=edf)
#allan.uncertainty_estimate(len(phase), t, d,ci=0.683,noisetype='wf')
los.append(lo)
his.append(hi)
print("totdev()")
for (s32, t2, d2, lo2, hi2, n2) in zip(s32_rows, taus, devs, los, his,
ns):
print("s32 %03d %03f %1.6f %1.6f %1.6f" %
(s32['n'], s32['tau'], s32['dev_min'], s32['dev'],
s32['dev_max']))
print("at %03d %03f %1.6f %1.6f %1.6f" %
(n2, t2, round(lo2, 5), round(d2, 5), round(hi2, 5)))
testutils.check_approx_equal(s32['dev_min'], lo2, tolerance=1e-3)
testutils.check_approx_equal(s32['dev_max'], hi2, tolerance=1e-3)
print("----")
def test_totdev_ci(self):
s32rows = testutils.read_stable32(resultfile='totdev_decade.txt', datarate=1.0)
for row in s32rows:
data = testutils.read_datafile(data_file)
(taus, devs, errs, ns) = allan.totdev(data, rate=rate,
taus=[ row['tau'] ])
edf = allan.edf_totdev(N=len(data),m=row['m'], alpha=row['alpha'])
#,d=3,m=row['m'],N=len(data),overlapping=True, modified = False, verbose=True)
(lo,hi) = allan.confidence_intervals(devs[0],ci=0.68268949213708585, edf=edf)
print("n check: ", testutils.check_equal( ns[0], row['n'] ) )
print("dev check: ", testutils.check_approx_equal( devs[0], row['dev'] ) )
print("min dev check: ", lo, row['dev_min'], testutils.check_approx_equal( lo, row['dev_min'], tolerance=1e-3 ) )
print("max dev check: ", hi, row['dev_max'], testutils.check_approx_equal( hi, row['dev_max'], tolerance=1e-3 ) )
def test_totdev_ci(self):
print("totdev()")
s32rows = testutils.read_stable32(resultfile='totdev_octave.txt', datarate=1.0)
for row in s32rows:
data = testutils.read_datafile(data_file)
data = allan.frequency2fractional(data, mean_frequency=1.0e7)
(taus, devs, errs, ns) = allan.totdev(data, rate=rate, data_type="freq",
taus=[ row['tau'] ])
edf = allan.edf_totdev(N=len(data),m=row['m'], alpha=row['alpha'])
(lo,hi) = allan.confidence_interval(devs[0], edf=edf)
print("n check: ", testutils.check_equal( ns[0], row['n'] ) )
print("dev check: ", testutils.check_approx_equal( devs[0], row['dev'], tolerance=2e-3 ) )
print("min dev check: %.4g %.4g %d" %( lo, row['dev_min'], testutils.check_approx_equal( lo, row['dev_min'], tolerance=2e-3 ) ) )
print("max dev check: %.4g %.4g %d" %( hi, row['dev_max'], testutils.check_approx_equal( hi, row['dev_max'], tolerance=2e-3 ) ) )
def test_phasedat_totdev(self):
s32_rows = testutils.read_stable32( 'phase_dat_totdev_octave.txt' , 1.0 )
phase = testutils.read_datafile('PHASE.DAT')
(taus,devs,errs,ns) = allan.totdev(phase, taus=[s32['tau'] for s32 in s32_rows])
los=[]
his=[]
for (d,t, n) in zip(devs, taus, ns):
#edf = greenhall_simple_edf( alpha=0, d=3, m=t, S=1, F=t, N=len(phase) )
#edf2 = greenhall_edf( alpha=0, d=3, m=int(t), N=len(phase), overlapping = True, modified=False )
#print(edf,edf2,edf2/edf)
edf = allan.edf_totdev(len(phase), t, alpha=0)
(lo,hi) = allan.confidence_interval( dev=d, edf=edf )
#allan.uncertainty_estimate(len(phase), t, d,ci=0.683,noisetype='wf')
los.append(lo)
his.append(hi)
print("totdev()")
for (s32, t2, d2, lo2, hi2, n2) in zip(s32_rows, taus, devs, los, his, ns):
print("s32 %03d %03f %1.6f %1.6f %1.6f" % (s32['n'], s32['tau'], s32['dev_min'], s32['dev'], s32['dev_max']))
print("at %03d %03f %1.6f %1.6f %1.6f" % (n2, t2, round(lo2,5), round(d2,5), round(hi2,5) ))
testutils.check_approx_equal(s32['dev_min'], lo2, tolerance=1e-3)
testutils.check_approx_equal(s32['dev_max'], hi2, tolerance=1e-3)
print("----")
