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test_functionality.py
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/
test_functionality.py
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#!/usr/bin/env python3
## vi: tabstop=4 shiftwidth=4 softtabstop=4 expandtab
## ---------------------------------------------------------------------
##
## Copyright (C) 2018 by the adcc authors
##
## This file is part of adcc.
##
## adcc is free software: you can redistribute it and/or modify
## it under the terms of the GNU General Public License as published
## by the Free Software Foundation, either version 3 of the License, or
## (at your option) any later version.
##
## adcc is distributed in the hope that it will be useful,
## but WITHOUT ANY WARRANTY; without even the implied warranty of
## MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
## GNU General Public License for more details.
##
## You should have received a copy of the GNU General Public License
## along with adcc. If not, see <http://www.gnu.org/licenses/>.
##
## ---------------------------------------------------------------------
import adcc
import unittest
import numpy as np
from .misc import assert_allclose_signfix, expand_test_templates
from numpy.testing import assert_allclose
from adcc import ExcitedStates
from adcc.testdata.cache import cache
import pytest
from pytest import approx
# The methods to test
methods = ["adc0", "adc1", "adc2", "adc2x", "adc3"]
class TestFunctionalityBase(unittest.TestCase):
def base_test(self, system, method, kind, prefix="", test_mp=True, **args):
if prefix:
prefix += "-"
hf = cache.hfdata[system]
refdata = cache.reference_data[system]
ref = refdata[prefix.replace("_", "-") + method][kind]
n_ref = len(ref["eigenvalues"])
smallsystem = ("sto3g" in system or "631g" in system)
# Run ADC and properties
args["conv_tol"] = 3e-9
res = getattr(adcc, method.replace("-", "_"))(hf, **args)
# Checks
assert isinstance(res, ExcitedStates)
assert res.converged
assert_allclose(res.excitation_energy[:n_ref],
ref["eigenvalues"], atol=1e-7)
if test_mp:
refmp = refdata[prefix + "mp"]
if res.method.level >= 2:
assert res.ground_state.energy_correction(2) == \
approx(refmp["mp2"]["energy"])
if res.method.level >= 3:
if not res.method.is_core_valence_separated:
# TODO The latter check can be removed once CVS-MP3 energies
# are implemented
assert res.ground_state.energy_correction(3) == \
approx(refmp["mp3"]["energy"])
if method == "adc0" and "cn" in system:
# TODO Investigate this
pytest.xfail("CN adc0 transition properties currently fail for "
"unknown reasons and are thus not explicitly tested.")
for i in range(n_ref):
# Computing the dipole moment implies a lot of cancelling in the
# contraction, which has quite an impact on the accuracy.
res_tdm = res.transition_dipole_moment[i]
ref_tdm = ref["transition_dipole_moments"][i]
# Test norm and actual values
res_tdm_norm = np.sum(res_tdm * res_tdm)
ref_tdm_norm = np.sum(ref_tdm * ref_tdm)
assert res_tdm_norm == approx(ref_tdm_norm, abs=1e-5)
# If the eigenpair is degenerate, then some rotation
# in the eigenspace is possible, which reflects as a
# rotation inside the dipole moments. This is the case
# for example for the CN test system. For simplicity,
# we only compare the norm of the transition dipole moment
# in such cases and skip the test for the exact values.
if "cn" not in system:
assert_allclose_signfix(res_tdm, ref_tdm, atol=1e-5)
# Computing the dipole moment implies a lot of cancelling in the
# contraction, which has quite an impact on the accuracy.
assert_allclose(res.state_dipole_moment[:n_ref],
ref["state_dipole_moments"], atol=1e-4)
# Test we do not use too many iterations
if smallsystem:
n_iter_bound = {
"adc0": 1, "adc1": 4, "adc2": 9, "adc2x": 14, "adc3": 13,
"cvs-adc0": 1, "cvs-adc1": 4, "cvs-adc2": 5, "cvs-adc2x": 12,
"cvs-adc3": 13,
}[method]
else:
n_iter_bound = {
"adc0": 1, "adc1": 8, "adc2": 16, "adc2x": 17, "adc3": 17,
"cvs-adc0": 1, "cvs-adc1": 7, "cvs-adc2": 16, "cvs-adc2x": 18,
"cvs-adc3": 17,
}[method]
assert res.n_iter <= n_iter_bound
@expand_test_templates(methods)
class TestFunctionalityGeneral(TestFunctionalityBase):
def template_h2o_sto3g_singlets(self, method):
self.base_test("h2o_sto3g", method, "singlet", n_singlets=10)
def template_h2o_def2tzvp_singlets(self, method):
self.base_test("h2o_def2tzvp", method, "singlet", n_singlets=3)
def template_h2o_sto3g_triplets(self, method):
self.base_test("h2o_sto3g", method, "triplet", n_triplets=10)
def template_h2o_def2tzvp_triplets(self, method):
self.base_test("h2o_def2tzvp", method, "triplet", n_triplets=3)
def template_cn_sto3g(self, method):
kwargs = {}
if method in ["adc0", "adc1"]:
kwargs["max_subspace"] = 42
self.base_test("cn_sto3g", method, "state", n_states=8, **kwargs)
def template_cn_ccpvdz(self, method):
kwargs = {}
n_states = 5
if method == "adc1":
kwargs["max_subspace"] = 42
n_states = 4
self.base_test("cn_ccpvdz", method, "state",
n_states=n_states, **kwargs)
@expand_test_templates(methods)
class TestFunctionalityCvs(TestFunctionalityBase):
def template_cvs_h2o_sto3g_singlets(self, method):
n_singlets = 3
if method in ["adc0", "adc1"]:
n_singlets = 2
self.base_test("h2o_sto3g", "cvs-" + method, "singlet",
n_singlets=n_singlets, core_orbitals=1)
def template_cvs_h2o_def2tzvp_singlets(self, method):
self.base_test("h2o_def2tzvp", "cvs-" + method, "singlet", n_singlets=3,
core_orbitals=1)
def template_cvs_h2o_sto3g_triplets(self, method):
n_triplets = 3
if method in ["adc0", "adc1"]:
n_triplets = 2
self.base_test("h2o_sto3g", "cvs-" + method, "triplet",
n_triplets=n_triplets, core_orbitals=1)
def template_cvs_h2o_def2tzvp_triplets(self, method):
self.base_test("h2o_def2tzvp", "cvs-" + method, "triplet", n_triplets=4,
core_orbitals=1)
def template_cvs_cn_sto3g(self, method):
self.base_test("cn_sto3g", "cvs-" + method, "state",
n_states=6, core_orbitals=1)
def template_cvs_cn_ccpvdz(self, method):
kwargs = {}
if method in ["adc0", "adc1"]:
kwargs["max_subspace"] = 28
self.base_test("cn_ccpvdz", "cvs-" + method, "state", n_states=5,
core_orbitals=1, **kwargs)
@expand_test_templates(methods)
class TestFunctionalitySpinFlip(TestFunctionalityBase):
def template_hf3_spin_flip(self, method):
self.base_test("hf3_631g", method, "spin_flip", n_spin_flip=9)
class TestFunctionalitySpaces(TestFunctionalityBase):
#
# H2O STO-3G
#
def base_test_h2o_sto3g(self, prefix, method, kind):
kw_prefix = {"fc": {"frozen_core": 1},
"fv": {"frozen_virtual": 1}, }
kw_kind = {"singlet": {"n_singlets": 3},
"triplet": {"n_triplets": 3}, }
kw_extra = kw_kind[kind]
for pfx in prefix.split("-"):
kw_extra.update(kw_prefix[pfx])
if "cvs" in method:
kw_extra["core_orbitals"] = 1
self.base_test("h2o_sto3g", method, kind, prefix=prefix, **kw_extra)
def test_h2o_sto3g_fc_adc2_singlets(self):
self.base_test_h2o_sto3g("fc", "adc2", "singlet")
def test_h2o_sto3g_fc_adc2_triplets(self):
self.base_test_h2o_sto3g("fc", "adc2", "triplet")
def test_h2o_sto3g_fc_fv_adc2_singlets(self):
self.base_test_h2o_sto3g("fc-fv", "adc2", "singlet")
def test_h2o_sto3g_fc_fv_adc2_triplets(self):
self.base_test_h2o_sto3g("fc-fv", "adc2", "triplet")
def test_h2o_sto3g_fv_adc2x_singlets(self):
self.base_test_h2o_sto3g("fv", "adc2x", "singlet")
def test_h2o_sto3g_fv_adc2x_triplets(self):
self.base_test_h2o_sto3g("fv", "adc2x", "triplet")
def test_h2o_sto3g_fv_cvs_adc2x_singlets(self):
self.base_test_h2o_sto3g("fv", "cvs-adc2x", "singlet")
def test_h2o_sto3g_fv_cvs_adc2x_triplets(self):
self.base_test_h2o_sto3g("fv", "cvs-adc2x", "triplet")
#
# CN STO-3G
#
def base_test_cn_sto3g(self, prefix, method):
kw_prefix = {"fc": {"frozen_core": 1},
"fv": {"frozen_virtual": 1}, }
kw_extra = {"n_states": 4, }
for pfx in prefix.split("-"):
kw_extra.update(kw_prefix[pfx])
if "cvs" in method:
kw_extra["core_orbitals"] = 1
self.base_test("cn_sto3g", method, "state", prefix=prefix, **kw_extra)
def test_cn_sto3g_fc_adc2(self):
self.base_test_cn_sto3g("fc", "adc2")
def test_cn_sto3g_fc_fv_adc2(self):
self.base_test_cn_sto3g("fc-fv", "adc2")
def test_cn_sto3g_fv_adc2x(self):
self.base_test_cn_sto3g("fv", "adc2x")
def test_cn_sto3g_fv_cvs_adc2x(self):
self.base_test_cn_sto3g("fv", "cvs-adc2x")
#
# H2S STO-3G
#
def base_test_h2s_sto3g(self, prefix, method, kind):
kw_prefix = {"fc": {"frozen_core": 1},
"fv": {"frozen_virtual": 1}, }
kw_kind = {"singlet": {"n_singlets": 3},
"triplet": {"n_triplets": 3}, }
kw_extra = kw_kind[kind]
for pfx in prefix.split("-"):
kw_extra.update(kw_prefix[pfx])
if "cvs" in method:
kw_extra["core_orbitals"] = 1
self.base_test("h2s_sto3g", method, kind, prefix=prefix, test_mp=False,
**kw_extra)
def test_h2s_sto3g_fc_cvs_adc2_singlets(self):
self.base_test_h2s_sto3g("fc", "cvs-adc2", "singlet")
def test_h2s_sto3g_fc_cvs_adc2_triplets(self):
self.base_test_h2s_sto3g("fc", "cvs-adc2", "triplet")
def test_h2s_sto3g_fc_fv_cvs_adc2x_singlets(self):
self.base_test_h2s_sto3g("fc-fv", "cvs-adc2x", "singlet")
def test_h2s_sto3g_fc_fv_cvs_adc2x_triplets(self):
self.base_test_h2s_sto3g("fc-fv", "cvs-adc2x", "triplet")
#
# H2S 6311+G**
#
def base_test_h2s_6311g(self, prefix, method, kind):
kw_prefix = {"fc": {"frozen_core": 1},
"fv": {"frozen_virtual": 3}, }
kw_kind = {"singlet": {"n_singlets": 3},
"triplet": {"n_triplets": 3}, }
kw_extra = kw_kind[kind]
for pfx in prefix.split("-"):
kw_extra.update(kw_prefix[pfx])
if "cvs" in method:
kw_extra["core_orbitals"] = 1
self.base_test("h2s_6311g", method, kind, prefix=prefix, **kw_extra)
def test_h2s_6311g_fc_adc2_singlets(self):
self.base_test_h2s_6311g("fc", "adc2", "singlet")
def test_h2s_6311g_fc_adc2_triplets(self):
self.base_test_h2s_6311g("fc", "adc2", "triplet")
def test_h2s_6311g_fv_adc2_singlets(self):
self.base_test_h2s_6311g("fv", "adc2", "singlet")
def test_h2s_6311g_fv_adc2_triplets(self):
self.base_test_h2s_6311g("fv", "adc2", "triplet")
def test_h2s_6311g_fc_fv_adc2_singlets(self):
self.base_test_h2s_6311g("fc-fv", "adc2", "singlet")
def test_h2s_6311g_fc_fv_adc2_triplets(self):
self.base_test_h2s_6311g("fc-fv", "adc2", "triplet")
def test_h2s_6311g_fc_cvs_adc2x_singlets(self):
self.base_test_h2s_6311g("fc", "cvs-adc2x", "singlet")
def test_h2s_6311g_fc_cvs_adc2x_triplets(self):
self.base_test_h2s_6311g("fc", "cvs-adc2x", "triplet")
def test_h2s_6311g_fv_cvs_adc2x_singlets(self):
self.base_test_h2s_6311g("fv", "cvs-adc2x", "singlet")
def test_h2s_6311g_fv_cvs_adc2x_triplets(self):
self.base_test_h2s_6311g("fv", "cvs-adc2x", "triplet")
def test_h2s_6311g_fc_fv_cvs_adc2x_singlets(self):
self.base_test_h2s_6311g("fc-fv", "cvs-adc2x", "singlet")
def test_h2s_6311g_fc_fv_cvs_adc2x_triplets(self):
self.base_test_h2s_6311g("fc-fv", "cvs-adc2x", "triplet")