def test_complex():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
complex_2 = Complex(D, 'P-', 2)
complex_3 = Complex(D, 'P', 2)
complex_4 = Complex(D, 'P', 1)
assert complex_1 != complex_2 and complex_2 != complex_3 and complex_4 != complex_3
def test_harmonic_space():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
complex_2 = Complex(D, 'P', 2)
space1 = HarmonicSpace(complex_1, 1)
space2 = HarmonicSpace(complex_1, 1)
space3 = HarmonicSpace(complex_2, 1)
space4 = HarmonicSpace(complex_1, 0)
assert space1 == space2 and space2 != space3 and space3 != space4
def test_simplifiy():
domain = Domain(3, 3)
complex_1 = Complex(domain, 'P-', 1)
space = FormSpace(complex_1, 0)
Hspace = HarmonicSpace(complex_1, 0)
ref = ReferenceCell(domain)
f = Coefficient(space)
p = Coefficient(Hspace)
u = trialfunction(space)
v = Argument(space, 0)
kappa = Constant(1)
g1 = wedge(kappa, d(u))
a = inner(wedge(kappa, d(u)), d(v))
L = inner((f - p), u)
w = pullback(a)
w1 = pullback(g1)
w2 = simplify(w)
w3 = simplify(w1)
assert not isinstance(w2.integrand, Pullback) and isinstance(
w.integrand, Pullback) and not isinstance(w3, Pullback) and isinstance(
w1, Pullback)
def test_possion_str():
domain = Domain(3, 3)
complex_1 = Complex(domain, 'P-', 1)
space = FormSpace(complex_1, 0)
Hspace = HarmonicSpace(complex_1, 0)
f = Coefficient(space)
p = Coefficient(Hspace)
u = trialfunction(space)
v = Argument(space, 0)
kappa = Constant(1)
a = inner(wedge(kappa, d(u)), d(v))
L = inner((f - p), u)
print(
"This test will fail if all tests are run, due to string numbers changing, use command py.test.exe test_str.py to check"
)
assert (
str(a) == "∫Ω₁{(((-1∧W₀)+W₁)∧*(U))}"
or str(a) == "\u222b\u03a9\u2081{((1\u2227d(U))\u2227*(d(V)))}"
or str(a) == "\u222b\u03a9\u2081\u2087{((1\u2227d(U))\u2227*(d(V)))}"
) and (
str(L) == "∫Ω₁{(((-1∧W₀)+W₁)∧*(U))}" or str(L)
== "\u222b\u03a9\u2081{(((-1\u2227W\u2080)+W\u2081)\u2227*(U))}"
or str(L) ==
"\u222b\u03a9\u2081\u2087{(((-1\u2227W\u2081\u2082)+W\u2081\u2083)\u2227*(U))}"
)
def test_space():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
space1 = FormSpace(complex_1, 1)
space2 = complex_1[1]
space3 = FormSpace(complex_1, 0)
assert space1 == space2 and space1 != space3
def test_coefficient():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
space = FormSpace(complex_1, 1)
f = Coefficient(space)
g = Coefficient(space)
assert f.degree == 1 and f.domain == D and f != g
def test_argument():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
space = FormSpace(complex_1, 1)
f = Argument(space, 1)
g = Argument(space, 0)
assert f.degree == 1 and g.degree == 1 and f.domain == D and g != f
def test_wedge():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
space = FormSpace(complex_1, 1)
f = Coefficient(space)
u = Argument(space, 1)
v = Argument(space, 0)
w = wedge(wedge(u, v), f)
assert w.degree == 3 and w.domain == D
def test_integral_1():
domain = Domain(3, 3)
complex = Complex(domain, 'P-', 2)
space = FormSpace(complex, 1)
G = Coefficient(space)
u = Argument(space, 1)
form = wedge(wedge(d(u), Constant(3)), G)
a = Integral(form)
assert a.domain == domain and a.integrand == form
def test_Sum():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
space = FormSpace(complex_1, 1)
space2 = FormSpace(complex_1, 2)
f = Coefficient(space2)
u = Argument(space, 1)
v = Argument(space, 0)
w = Sum(u, v)
w1 = Sum(w, f)
assert w.degree == 1 and w.domain == D and w1.degree == 1 and w1.domain == D
def test_d_2():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
space = FormSpace(complex_1, 1)
space2 = FormSpace(complex_1, 2)
f = Coefficient(space2)
u = Argument(space, 1)
v = Argument(space, 0)
w1 = d(wedge(3.45, wedge(u, v)))
w2 = d(wedge(w1, f))
assert w1.degree == 3 and w1.domain == D and w2.degree == 6 and w2.domain == D
def test_wedge_2():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
space = FormSpace(complex_1, 1)
space2 = FormSpace(complex_1, 2)
f = Coefficient(space2)
u = Argument(space, 1)
v = Argument(space, 0)
w1 = wedge(wedge(u, v), 7)
w2 = wedge(w1, f)
assert w1.degree == 2 and w1.domain == D and w2.degree == 4
def test_forms():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
space = FormSpace(complex_1, 1)
f = Coefficient(space)
u = Argument(space, 1)
v = Argument(space, 0)
w = u + v
w1 = f + w
w2 = w1 - v
assert w2.degree == 1 and w2.domain == D
def test_d():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
space = FormSpace(complex_1, 1)
space2 = FormSpace(complex_1, 2)
f = Coefficient(space)
u = Argument(space, 1)
v = Argument(space2, 0)
w1 = d(u)
w2 = d(v)
w3 = d(f)
assert w1.degree == 2 and w1.domain == D and w2.degree == 3 and w3.degree == 2
def test_ints_with_forms():
D = Domain(2, 3)
complex_1 = Complex(D, 'P-', 2)
space = FormSpace(complex_1, 0)
f = Coefficient(space)
u = Argument(space, 1)
v = Argument(space, 0)
w = u + 1
w1 = w - v
w2 = w1 - f
w3 = w2 - 5
assert w3.domain == D and w3.degree == 0
def test_possion():
domain = Domain(3, 3)
complex_1 = Complex(domain, 'P-', 1)
space = FormSpace(complex_1, 0)
Hspace = HarmonicSpace(complex_1, 0)
f = Coefficient(space)
p = Coefficient(Hspace)
u = trialfunction(space)
v = Argument(space, 0)
kappa = Constant(1)
a = inner(wedge(kappa, d(u)), d(v))
L = inner((f - p), u)
assert L.domain == domain and L.integrand.degree == 3 and a.integrand.degree == 3
def test_pullback():
domain = Domain(3, 3)
complex_1 = Complex(domain, 'P-', 1)
space = FormSpace(complex_1, 0)
Hspace = HarmonicSpace(complex_1, 0)
ref = ReferenceCell(domain)
f = Coefficient(space)
p = Coefficient(Hspace)
u = trialfunction(space)
v = Argument(space, 0)
kappa = Constant(1)
g1 = wedge(kappa, d(u))
a = inner(wedge(kappa, d(u)), d(v))
L = inner((f - p), u)
w = pullback(a)
w1 = pullback(g1)
assert w1.domain == domain and w.integrand.degree == 3 and w.domain == ref
def test_domain_and_complex():
D = Domain(3, 3)
complex_1 = Complex(D, 'P-', 2)
assert D != complex_1
