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22fe9ead55
Introduce a new multi-band element that contains a list of Edfa element: - reads multiple amps out of the element config. - deduces frequency band from the amp in the list. no autodesign yet: multi-band amps must have type_variety. - checks that type variety of individual EDFAs is consistent with multiband type variety - demux and mux spectrum when propagate in multiband - don't add a preamp or booster if a multiband amp is already defined. The print of channel number is removed from equipment, since the channel number may now depend on the path's amplifiers. This changes invocation results layout. Signed-off-by: EstherLerouzic <esther.lerouzic@orange.com> Change-Id: I44e77ff82e622cdee4021a7984d660317cb90cf9
506 lines
19 KiB
Python
506 lines
19 KiB
Python
#!/usr/bin/env python3
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# -*- coding: utf-8 -*-
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# @Author: Jean-Luc Auge
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# @Date: 2018-02-02 14:06:55
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from numpy import zeros, array
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from numpy.testing import assert_allclose
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from gnpy.core.elements import Transceiver, Edfa, Fiber
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from gnpy.core.utils import automatic_fmax, lin2db, db2lin, merge_amplifier_restrictions, dbm2watt, watt2dbm
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from gnpy.core.info import create_input_spectral_information, create_arbitrary_spectral_information
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from gnpy.core.network import build_network, set_amplifier_voa
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from gnpy.tools.json_io import load_network, load_equipment, load_json, _equipment_from_json, network_from_json
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from pathlib import Path
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import pytest
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TEST_DIR = Path(__file__).parent
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DATA_DIR = TEST_DIR / 'data'
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test_network = DATA_DIR / 'test_network.json'
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eqpt_library = DATA_DIR / 'eqpt_config.json'
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# TODO in elements.py code: pytests doesn't pass with 1 channel: interpolate fail
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@pytest.fixture(
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params=[(96, 0.05e12), (60, 0.075e12), (45, 0.1e12), (2, 0.1e12)],
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ids=['50GHz spacing', '75GHz spacing', '100GHz spacing', '2 channels'])
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def nch_and_spacing(request):
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"""parametrize channel count vs channel spacing (Hz)"""
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yield request.param
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@pytest.fixture()
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def bw():
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"""parametrize signal bandwidth (Hz)"""
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return 45e9
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@pytest.fixture()
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def setup_edfa_variable_gain():
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"""init edfa class by reading test_network.json file
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remove all gain and nf ripple"""
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equipment = load_equipment(eqpt_library)
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network = load_network(test_network, equipment)
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build_network(network, equipment, 0, 20)
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edfa = [n for n in network.nodes() if isinstance(n, Edfa)][0]
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edfa.gain_ripple = zeros(96)
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edfa.interpol_nf_ripple = zeros(96)
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yield edfa
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@pytest.fixture()
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def setup_edfa_fixed_gain():
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"""init edfa class by reading the 2nd edfa in test_network.json file"""
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equipment = load_equipment(eqpt_library)
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network = load_network(test_network, equipment)
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build_network(network, equipment, 0, 20)
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edfa = [n for n in network.nodes() if isinstance(n, Edfa)][1]
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yield edfa
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@pytest.fixture()
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def setup_trx():
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"""init transceiver class to access snr and osnr calculations"""
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equipment = load_equipment(eqpt_library)
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network = load_network(test_network, equipment)
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build_network(network, equipment, 0, 20)
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trx = [n for n in network.nodes() if isinstance(n, Transceiver)][0]
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return trx
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@pytest.fixture()
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def si(nch_and_spacing, bw):
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"""parametrize a channel comb with nb_channel, spacing and signal bw"""
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nb_channel, spacing = nch_and_spacing
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f_min = 191.3e12
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f_max = automatic_fmax(f_min, spacing, nb_channel)
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return create_input_spectral_information(f_min=f_min, f_max=f_max, roll_off=0.15, baud_rate=bw,
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spacing=spacing, tx_osnr=40.0, tx_power=1e-3)
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@pytest.mark.parametrize("gain, nf_expected", [(10, 15), (15, 10), (25, 5.8)])
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def test_variable_gain_nf(gain, nf_expected, setup_edfa_variable_gain, si):
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"""=> unitary test for variable gain model Edfa._calc_nf() (and Edfa.interpol_params)"""
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edfa = setup_edfa_variable_gain
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si.signal /= db2lin(gain)
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si.nli /= db2lin(gain)
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si.ase /= db2lin(gain)
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edfa.operational.gain_target = gain
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edfa.effective_gain = gain
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edfa.interpol_params(si)
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result = edfa.nf
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assert pytest.approx(nf_expected, abs=0.01) == result[0]
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@pytest.mark.parametrize("gain, nf_expected", [(15, 10), (20, 5), (25, 5)])
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def test_fixed_gain_nf(gain, nf_expected, setup_edfa_fixed_gain, si):
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"""=> unitary test for fixed gain model Edfa._calc_nf() (and Edfa.interpol_params)"""
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edfa = setup_edfa_fixed_gain
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si.signal /= db2lin(gain)
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si.nli /= db2lin(gain)
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si.ase /= db2lin(gain)
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edfa.operational.gain_target = gain
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edfa.effective_gain = gain
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edfa.interpol_params(si)
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assert pytest.approx(nf_expected, abs=0.01) == edfa.nf[0]
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def test_si(si, nch_and_spacing):
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"""basic total power check of the channel comb generation"""
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nb_channel = nch_and_spacing[0]
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p_tot = sum(si.signal + si.ase + si.nli)
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expected_p_tot = si.signal[0] * nb_channel
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assert pytest.approx(expected_p_tot, abs=0.01) == p_tot
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@pytest.mark.parametrize("gain", [17, 19, 21, 23])
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def test_compare_nf_models(gain, setup_edfa_variable_gain, si):
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"""compare the 2 amplifier models (polynomial and estimated from nf_min and max)
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=> nf_model vs nf_poly_fit for intermediate gain values:
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between gain_min and gain_flatmax some discrepancy is expected but target < 0.5dB
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=> unitary test for Edfa._calc_nf (and Edfa.interpol_params)"""
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edfa = setup_edfa_variable_gain
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si.signal /= db2lin(gain)
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si.nli /= db2lin(gain)
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si.ase /= db2lin(gain)
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edfa.operational.gain_target = gain
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edfa.effective_gain = gain
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# edfa is variable gain type
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edfa.interpol_params(si)
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nf_model = edfa.nf[0]
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# change edfa type variety to a polynomial
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el_config = {
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"uid": "Edfa1",
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"operational": {
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"gain_target": gain,
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"tilt_target": 0
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},
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"metadata": {
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"location": {
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"region": "",
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"latitude": 2,
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"longitude": 0
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}
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}
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}
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equipment = load_equipment(eqpt_library)
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extra_params = equipment['Edfa']['CienaDB_medium_gain']
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temp = el_config.setdefault('params', {})
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temp = merge_amplifier_restrictions(temp, extra_params.__dict__)
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el_config['params'] = temp
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edfa = Edfa(**el_config)
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# edfa is variable gain type
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edfa.interpol_params(si)
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nf_poly = edfa.nf[0]
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print(nf_poly, nf_model)
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assert pytest.approx(nf_model, abs=0.5) == nf_poly
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@pytest.mark.parametrize("gain", [13, 15, 17, 19, 21, 23, 25, 27])
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def test_ase_noise(gain, si, setup_trx, bw):
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"""testing 3 different ways of calculating osnr:
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1-pin-edfa.nf+58 vs
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2-pout/pase afet propagate
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3-Transceiver osnr_ase_01nm
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=> unitary test for Edfa.noise_profile (Edfa.interpol_params, Edfa.propagate)"""
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equipment = load_equipment(eqpt_library)
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network = load_network(test_network, equipment)
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edfa = next(n for n in network.nodes() if n.uid == 'Edfa1')
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span = next(n for n in network.nodes() if n.uid == 'Span1')
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# update span1 and Edfa1 according to new gain before building network
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# updating span 1 avoids to overload amp
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span.params.length = gain * 1e3 / 0.2
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edfa.operational.gain_target = gain
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build_network(network, equipment, 0, 20)
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edfa.gain_ripple = zeros(96)
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edfa.interpol_nf_ripple = zeros(96)
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# propagate in span1 to have si with the correct power level
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si = span(si)
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print(span)
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edfa.interpol_params(si)
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nf = edfa.nf
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print('nf', nf)
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pin = lin2db((si.signal[0] + si.ase[0] + si.nli[0]) * 1e3)
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osnr_expected = pin - nf[0] + 58
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si = edfa(si)
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print(edfa)
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osnr = lin2db(si.signal[0] / si.ase[0]) - lin2db(12.5e9 / bw)
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assert pytest.approx(osnr_expected, abs=0.01) == osnr
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trx = setup_trx
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si = trx(si)
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osnr = trx.osnr_ase_01nm[0]
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assert pytest.approx(osnr_expected, abs=0.01) == osnr
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@pytest.mark.parametrize('delta_p', [0, None, 2])
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@pytest.mark.parametrize('tilt_target', [0, -4])
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def test_amp_behaviour(tilt_target, delta_p):
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"""Check that amp correctly applies saturation, when there is tilt
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"""
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json_data = {
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"elements": [{
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"uid": "Edfa1",
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"type": "Edfa",
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"type_variety": "test",
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"operational": {
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"delta_p": delta_p,
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"gain_target": 20 + delta_p if delta_p else 20,
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"tilt_target": tilt_target,
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"out_voa": 0
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}
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}, {
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"uid": "Span1",
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"type": "Fiber",
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"type_variety": "SSMF",
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"params": {
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"length": 100,
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"loss_coef": 0.2,
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"length_units": "km"
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}
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}],
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"connections": []
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}
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equipment = load_equipment(eqpt_library)
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network = network_from_json(json_data, equipment)
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edfa = [n for n in network.nodes() if isinstance(n, Edfa)][0]
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fiber = [n for n in network.nodes() if isinstance(n, Fiber)][0]
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fiber.params.con_in = 0
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fiber.params.con_out = 0
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fiber.ref_pch_in_dbm = 0.0
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si = create_input_spectral_information(f_min=191.3e12, f_max=196.05e12, roll_off=0.15, baud_rate=64e9,
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spacing=75e9, tx_osnr=None, tx_power=1e-3)
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si = fiber(si)
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total_sig_powerin = sum(si.signal)
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sig_in = lin2db(si.signal)
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si = edfa(si)
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sig_out = lin2db(si.signal)
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total_sig_powerout = sum(si.signal)
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gain = lin2db(total_sig_powerout / total_sig_powerin)
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expected_total_power_out = total_sig_powerin * 100 * db2lin(delta_p) if delta_p else total_sig_powerin * 100
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assert pytest.approx(total_sig_powerout, abs=1e-6) == min(expected_total_power_out, dbm2watt(21))
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assert pytest.approx(edfa.effective_gain, 1e-5) == gain
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assert watt2dbm(sum(si.signal + si.nli + si.ase)) <= 21.01
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# If there is no tilt on the amp: the gain is identical for all carriers
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if tilt_target == 0:
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assert_allclose(sig_in + gain, sig_out, rtol=1e-13)
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else:
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if delta_p != 2:
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expected_sig_out = [
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-31.95025022, -31.88168886, -31.81178634, -31.73838831, -31.66318631,
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-31.58762141, -31.51156294, -31.43760161, -31.38124626, -31.34245197,
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-31.30629475, -31.26970711, -31.22566555, -31.17412914, -31.11806869,
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-31.05122228, -30.97358131, -30.90658619, -30.86616148, -30.83854197,
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-30.81115028, -30.78403337, -30.7570206, -30.73002834, -30.70088634,
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-30.66844432, -30.63427939, -30.59364514, -30.54659009, -30.49180643,
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-30.41406352, -30.31434813, -30.22984104, -30.18249387, -30.1516453,
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-30.12082034, -30.08970494, -30.05779424, -30.02543415, -29.99309889,
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-29.96078803, -29.92798594, -29.89002127, -29.84689015, -29.79726968,
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-29.72927112, -29.64485972, -29.55578693, -29.45569694, -29.35111795,
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-29.24662471, -29.12148491, -28.94244964, -28.73421833, -28.53930479,
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-28.36231261, -28.19361236, -28.04376778, -27.91280403, -27.79433658,
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-27.7065072, -27.64495288, -27.59798975]
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else:
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expected_sig_out = [
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-29.95025022, -29.88168886, -29.81178634, -29.73838831, -29.66318631,
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-29.58762141, -29.51156294, -29.43760161, -29.38124626, -29.34245197,
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-29.30629475, -29.26970711, -29.22566555, -29.17412914, -29.11806869,
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-29.05122228, -28.97358131, -28.90658619, -28.86616148, -28.83854197,
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-28.81115028, -28.78403337, -28.7570206, -28.73002834, -28.70088634,
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-28.66844432, -28.63427939, -28.59364514, -28.54659009, -28.49180643,
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-28.41406352, -28.31434813, -28.22984104, -28.18249387, -28.1516453,
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-28.12082034, -28.08970494, -28.05779424, -28.02543415, -27.99309889,
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-27.96078803, -27.92798594, -27.89002127, -27.84689015, -27.79726968,
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-27.72927112, -27.64485972, -27.55578693, -27.45569694, -27.35111795,
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-27.24662471, -27.12148491, -26.94244964, -26.73421833, -26.53930479,
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-26.36231261, -26.19361236, -26.04376778, -25.91280403, -25.79433658,
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-25.7065072, -25.64495288, -25.59798975]
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print(sig_out)
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assert_allclose(sig_out, expected_sig_out, rtol=1e-9)
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@pytest.mark.parametrize('delta_p', [0, None, 20])
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@pytest.mark.parametrize('base_power', [0, 20])
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@pytest.mark.parametrize('delta_pdb_per_channel',
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[[0, 1, 3, 0.5, -2],
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[0, 0, 0, 0, 0],
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[-2, -2, -2, -2, -2],
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[0, 2, -2, -5, 4],
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[0, 1, 3, 0.5, -2], ])
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def test_amp_saturation(delta_pdb_per_channel, base_power, delta_p):
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"""Check that amp correctly applies saturation
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"""
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json_data = {
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"elements": [{
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"uid": "Edfa1",
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"type": "Edfa",
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"type_variety": "test",
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"operational": {
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"delta_p": delta_p,
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"gain_target": 20,
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"tilt_target": 0,
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"out_voa": 0
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}
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}],
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"connections": []
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}
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equipment = load_equipment(eqpt_library)
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network = network_from_json(json_data, equipment)
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edfa = [n for n in network.nodes()][0]
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frequency = 193e12 + array([0, 50e9, 150e9, 225e9, 275e9])
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slot_width = array([37.5e9, 50e9, 75e9, 50e9, 37.5e9])
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baud_rate = array([32e9, 42e9, 64e9, 42e9, 32e9])
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signal = dbm2watt(array([-20.0, -18.0, -22.0, -25.0, -16.0]) + array(delta_pdb_per_channel) + base_power)
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si = create_arbitrary_spectral_information(frequency=frequency, slot_width=slot_width,
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signal=signal, baud_rate=baud_rate, roll_off=0.15,
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delta_pdb_per_channel=delta_pdb_per_channel,
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tx_osnr=None, tx_power=None)
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total_sig_powerin = sum(si.signal)
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sig_in = lin2db(si.signal)
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si = edfa(si)
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sig_out = lin2db(si.signal)
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total_sig_powerout = sum(si.signal)
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gain = lin2db(total_sig_powerout / total_sig_powerin)
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assert watt2dbm(sum(si.signal + si.nli + si.ase)) <= 21.02
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assert pytest.approx(edfa.effective_gain, 1e-13) == gain
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assert_allclose(sig_in + gain, sig_out, rtol=1e-13)
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def test_set_out_voa():
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"""Check that out_voa is correctly set if out_voa_auto is true
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gain is maximized to obtain better NF:
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if optimum input power in next span is -3 + pref_ch_db then total power at optimum is 19 -3 = 16dBm.
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since amp has 21 dBm p_max, power out of amp can be set to 21dBm increasing out_voa by 5 to keep
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same input power in the fiber. Since the optimisation contains a hard coded margin of 1 to account for
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possible degradation on max power, the expected voa value is 4, and delta_p and gain are corrected
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accordingly.
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"""
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json_data = {
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"elements": [{
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"uid": "Edfa1",
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"type": "Edfa",
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"type_variety": "test",
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"operational": {
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"delta_p": -3,
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"gain_target": 20,
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"tilt_target": 0
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}
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}],
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"connections": []
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}
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equipment = load_equipment(eqpt_library)
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network = network_from_json(json_data, equipment)
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amp = [n for n in network.nodes()][0]
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print(amp.out_voa)
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power_target = 19 + amp.delta_p
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power_mode = True
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amp.params.out_voa_auto = True
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set_amplifier_voa(amp, power_target, power_mode)
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assert amp.out_voa == 4.0
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assert amp.effective_gain == 20.0 + 4.0
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assert amp.delta_p == -3.0 + 4.0
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def test_multiband():
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equipment_json = load_json(eqpt_library)
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# add some multiband amplifiers
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amps = [
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{
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"type_variety": "std_medium_gain_C",
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"f_min": 191.25e12,
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"f_max": 196.15e12,
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"type_def": "variable_gain",
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"gain_flatmax": 26,
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"gain_min": 15,
|
|
"p_max": 21,
|
|
"nf_min": 6,
|
|
"nf_max": 10,
|
|
"out_voa_auto": False,
|
|
"allowed_for_design": True},
|
|
{
|
|
"type_variety": "std_medium_gain_L",
|
|
"f_min": 186.55e12,
|
|
"f_max": 190.05e12,
|
|
"type_def": "variable_gain",
|
|
"gain_flatmax": 26,
|
|
"gain_min": 15,
|
|
"p_max": 21,
|
|
"nf_min": 6,
|
|
"nf_max": 10,
|
|
"out_voa_auto": False,
|
|
"allowed_for_design": True},
|
|
{
|
|
"type_variety": "std_medium_gain_multiband",
|
|
"type_def": "multi_band",
|
|
"amplifiers": [
|
|
"std_medium_gain_C",
|
|
"std_medium_gain_L"
|
|
],
|
|
"allowed_for_design": False
|
|
}
|
|
]
|
|
equipment_json['Edfa'].extend(amps)
|
|
|
|
equipment = _equipment_from_json(equipment_json, eqpt_library)
|
|
|
|
el_config = {
|
|
"uid": "Edfa1",
|
|
"type": "Multiband_amplifier",
|
|
"type_variety": "std_medium_gain_multiband",
|
|
"amplifiers": [
|
|
{
|
|
"type_variety": "std_medium_gain_C",
|
|
"operational": {
|
|
"gain_target": 22.55,
|
|
"delta_p": 0.9,
|
|
"out_voa": 3.0,
|
|
"tilt_target": 0.0,
|
|
}
|
|
},
|
|
{
|
|
"type_variety": "std_medium_gain_L",
|
|
"operational": {
|
|
"gain_target": 21,
|
|
"delta_p": 3.0,
|
|
"out_voa": 3.0,
|
|
"tilt_target": 0.0,
|
|
}
|
|
}
|
|
]
|
|
}
|
|
fused_config = {
|
|
"uid": "[83/WR-2-4-SIG=>930/WRT-1-2-SIG]-Tl/9300",
|
|
"type": "Fused",
|
|
"params": {
|
|
"loss": 20
|
|
}
|
|
}
|
|
json_data = {
|
|
"elements": [
|
|
el_config,
|
|
fused_config
|
|
],
|
|
"connections": []
|
|
}
|
|
network = network_from_json(json_data, equipment)
|
|
amp = next(n for n in network.nodes() if n.uid == 'Edfa1')
|
|
fused = next(n for n in network.nodes() if n.uid == '[83/WR-2-4-SIG=>930/WRT-1-2-SIG]-Tl/9300')
|
|
si = create_input_spectral_information(f_min=186e12, f_max=196e12, roll_off=0.15, baud_rate=32e9, tx_power=1e-3,
|
|
spacing=50e9, tx_osnr=40.0)
|
|
assert si.number_of_channels == 200
|
|
si = fused(si)
|
|
si = amp(si)
|
|
# assert nb of channel after mux/demux
|
|
assert si.number_of_channels == 164 # computed based on amp bands
|
|
# Check that multiband amp is correctly created with correct __str__
|
|
actual_c_amp = amp.amplifiers["CBAND"].__str__()
|
|
expected_c_amp = '\n'.join([
|
|
'Edfa Edfa1',
|
|
' type_variety: std_medium_gain_C',
|
|
' effective gain(dB): 21.22',
|
|
' (before att_in and before output VOA)',
|
|
' noise figure (dB): 6.32',
|
|
' (including att_in)',
|
|
' pad att_in (dB): 0.00',
|
|
' Power In (dBm): -0.22',
|
|
' Power Out (dBm): 21.01',
|
|
' Delta_P (dB): 0.90',
|
|
' target pch (dBm): None',
|
|
' actual pch out (dBm): -1.77',
|
|
' output VOA (dB): 3.00'])
|
|
assert actual_c_amp == expected_c_amp
|
|
actual_l_amp = amp.amplifiers["LBAND"].__str__()
|
|
expected_l_amp = '\n'.join([
|
|
'Edfa Edfa1',
|
|
' type_variety: std_medium_gain_L',
|
|
' effective gain(dB): 21.00',
|
|
' (before att_in and before output VOA)',
|
|
' noise figure (dB): 6.36',
|
|
' (including att_in)',
|
|
' pad att_in (dB): 0.00',
|
|
' Power In (dBm): -1.61',
|
|
' Power Out (dBm): 19.40',
|
|
' Delta_P (dB): 3.00',
|
|
' target pch (dBm): None',
|
|
' actual pch out (dBm): -1.99',
|
|
' output VOA (dB): 3.00'])
|
|
assert actual_l_amp == expected_l_amp
|
|
|
|
# check that f_min, f_max of si are within amp band
|
|
assert amp.amplifiers["LBAND"].params.f_min == 186.55e12
|
|
assert si.frequency[0] >= amp.amplifiers["LBAND"].params.f_min
|
|
assert amp.amplifiers["CBAND"].params.f_max == 196.15e12
|
|
assert si.frequency[-1] <= amp.amplifiers["CBAND"].params.f_max
|
|
for freq in si.frequency:
|
|
if freq > 190.05e12:
|
|
assert freq >= 191.25e12
|
|
if freq < 191.25e12:
|
|
assert freq <= 190.25e12
|