Beispiel #1
0
def test_plot3d():
    explorer = Explorer()
    explorer.plot3d(my_function2d, im=range(-10, 10), re=range(70))
    ax = plt.gca()
    assert ax.xaxis.get_label().get_text() == 're'
    assert ax.yaxis.get_label().get_text() == 'im'
    maybe_show_plots()
def test_resolve_complex():
    explorer = Explorer()

    @explorer.add_function(provides=('x'), requires=('a',))
    def x(a): pass

    @explorer.add_function(provides=('y'), requires=('x','m','n'))
    def y(x): pass

    @explorer.add_function(provides=('m','n'), requires=('y',))
    def mn(y): pass


    with pytest.raises(RuntimeError) as e:
        funcs_to_call, all_requires = explorer._resolve_call(need=('y',), have=('a',))
    assert 'circular' in str(e.value)
    assert 'provider' in str(e.value)

    funcs_to_call = explorer._resolve_call(need=('y',), have=('a', 'm', 'n'))
    print('comlex with amn', funcs_to_call)
    assert funcs_to_call == (y, x)

    funcs_to_call = explorer._resolve_call(need=('y',), have=('x', 'm', 'n'))
    print('comlex with xmn', funcs_to_call)
    assert (funcs_to_call) == (y, )
def test_map_no_call():
    explorer = Explorer(parallel='thread')
    cached = explorer.cache_function(my_function)
    data = explorer.map(cached, processes=2, x=range(5))
    data_no_call = explorer.map_no_call(cached, x=range(2, 9))
    print(data, data_no_call)
    assert data_no_call[-1] is None
    assert data_no_call[-2] is None
    assert all(data_no_call[0:3] == data[2:])
def test_caches():
    explorer = Explorer()
    mock = MagicMock()
    my_function = mock.my_function
    wrapped = explorer.cache_function(my_function)
    wrapped(a=1, b=2)
    wrapped(a=1, b=2)
    my_function.assert_called_once()
    my_function.assert_called_once_with(a=1, b=2)
def test_mproc_cache():
    explorer = Explorer(parallel='process', cache=FunctoolsCache_Mproc())
    data = explorer.map(my_function, processes=2, x=range(5))
    print('cache info', my_function.cache_info())
    print('cache', my_function._cache)
    data_no_call = explorer.map_no_call(my_function, x=range(2, 9))
    print(data, data_no_call)
    assert data_no_call[-1] is None
    assert data_no_call[-2] is None
    assert all(data_no_call[0:3] == data[2:])
Beispiel #6
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def test_plot2d():
    explorer = Explorer()
    explorer.plot2d(my_function, x=range(50))
    ax = plt.gca()
    assert ax.xaxis.get_label().get_text() == 'x'
    assert len(ax.lines) == 1
    line = ax.lines[0]
    assert all(line.get_xdata() == np.arange(0, 50))
    assert all(line.get_ydata() == my_function(np.arange(0, 50)))
    maybe_show_plots()
def test_works_with_cache(tmpdir):
    """ Tests if the cache properly wraps functions to allow inspection."""
    cache = JobLibCache(str(tmpdir), verbose=1)
    explorer = Explorer(cache=cache)

    @explorer.provider
    def c(a, b=1):
        return a + b

    z = explorer.get_variable('c', a=2)
    assert z == 2 + 1

    z = explorer.get_variable('c', a=2, b=2)
    assert z == 2 + 2
def test_caches(tmpdir):
    """ Tests if cache indeed caches."""
    cache = JobLibCache(str(tmpdir), verbose=1)
    explorer = Explorer(cache=cache)
    calls = 0

    @cache
    def my_function(a, b):
        nonlocal calls
        calls += 1
        return a + b + 1

    wrapped = explorer.cache_function(my_function)
    print('wrapped', wrapped)
    wrapped(a=1, b=2)
    wrapped(a=1, b=2)
    assert calls == 1
def test_provider_and_opts():
    explorer = Explorer()

    # Simple call

    @explorer.provider
    def sq(sum):
        return sum*sum

    @explorer.provider
    def sum(x, y=12):
        return x+y

    z = explorer.get_variable('sq', x=10)
    assert z == (10+12)**2
    z = explorer.get_variable('sq', x=10, y=8)
    assert z == (10+8)**2
Beispiel #10
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def test_maps():
    explorer = Explorer()

    def my_function(x):
        return x + 1

    data = explorer.map(my_function, x=range(5))
    print(data)
    assert np.allclose(data, np.arange(1, 6))

    def my_function(x, y):
        return x + y

    data = explorer.map(my_function, x=range(5), y=range(3))
    print(data)
    assert data.shape == (5, 3)
    assert data[1, 2] == my_function(1, 2)
    assert data[4, 2] == 4 + 2
def test_add_with_provider():
    explorer = Explorer()

    @explorer.provider
    def y(x, m):
        return x*2 + m

    calls_z = 0
    @explorer.provider(cache=False)
    def z(y):
        nonlocal calls_z
        calls_z += 1
        return calls_z + y


    zv = explorer.get_variable('z', x=1, m=5)
    assert zv == 1*2+1+5
    zs = explorer.map_variable('z', x=[1, 2, 3], m=[2])
    print(zs)
    assert all(zs == [6, 9, 12])
def test_resolve_linear():
    explorer = Explorer()

    @explorer.add_function(provides=('y'), requires=('x',))
    def y(x):
        pass

    @explorer.add_function(provides=('z',), requires=('y',))
    def z(y):
        pass

    @explorer.add_function(provides=('k',), requires=('z',))
    def k(z):
        pass

    funcs_to_call = explorer._resolve_call(need=('k',), have=('x',))
    print('linear when have x', funcs_to_call)
    assert len(funcs_to_call) == 3

    funcs_to_call = explorer._resolve_call(need=('k',), have=('y',))
    print('linear when have y', funcs_to_call)
    assert len(funcs_to_call) == 2
def test_resolve_call():
    explorer = Explorer()

    # Simple call

    @explorer.add_function(provides='version')
    def version():
        return 12

    ver = explorer.get_variable('version')
    assert ver == 12

    # Complex call

    @explorer.add_function(provides=('surname','middlename'), requires='name')
    def surname(name):
        return {'John': ('Doe', None), 'Martin':('King', 'Luther')}[name]

    @explorer.add_function(provides='age', requires=('name',))
    def age(name):
        return {'John': 12, 'Martin': 15}[name]

    @explorer.add_function(provides=('person', ), requires=('name','age','surname'))
    def make_person(name, surname, age):
        return Person(name, surname, age)



    person = explorer.get_variable('person', name='John')
    print(person)
    assert person.age == 12
    assert person.surname == 'Doe'

    person = explorer.get_variable('person', name='Martin')
    print(person)
    assert person.age == 15

    middle = explorer.get_variable('middlename', name='Martin')
    assert middle == 'Luther'

    people = explorer.map_variable('person', name=['Martin', 'John'])
    assert len(people) == 2
    assert people[0].name == 'Martin'
    assert people[0].age == 15
def test_mproc_cache(tmpdir):
    cache = JobLibCache(str(tmpdir), verbose=1)
    # smoke
    explorer = Explorer(parallel='joblib', cache=cache)
    parallel = JobLib(n_jobs=3, verbose=10)

    explorer = Explorer(parallel=parallel, cache=cache)
    func = explorer.cache_function(my_function)

    start = time.time()
    data = explorer.map(func, processes=2, x=range(6))
    dur = time.time() - start
    assert dur < 6 * DELAY

    data_no_call = explorer.map_no_call(func, x=range(3, 10))
    print(data, data_no_call)
    assert data_no_call[-1] is None
    assert data_no_call[-2] is None
    assert all(data_no_call[0:3] == data[3:])
Beispiel #15
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def test_mproc():
    explorer = Explorer(parallel='process')
    data = explorer.map(my_function, processes=2, x=range(5))
    print(data)
    assert np.allclose(data, np.arange(1, 6))
Beispiel #16
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    'ex', 'graph', 'qiskit_time', 'quimb_time', 'qtensor_time',
    'gen_time_data', 'plot_xar_data', 'time_comparison_xarray', 'ql'
]

# Cell
import numpy as np
import qtensor as qt
from qtensor.tests.qiskit_qaoa_energy import simulate_qiskit_amps
from qtensor.tests.qaoa_quimb import simulate_one_parallel as simulate_quimb_energy
import matplotlib.pyplot as plt
import time

from cartesian_explorer import Explorer

# Cell
ex = Explorer()


# Cell
@ex.provider
def graph(N, d=3, graph_type='random', seed=10):
    return qt.toolbox.random_graph(nodes=N,
                                   type=graph_type,
                                   degree=d,
                                   seed=seed)


# Cell
@ex.provider
def qiskit_time(graph, p):
    gamma, beta = [.1] * p, [.3] * p
Beispiel #17
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# # Compare qtensor with statevector simulations

# +
import sys
import numpy as np
import matplotlib.pyplot as plt

import qtensor as qt
from cartesian_explorer import Explorer
# -

import matplotlib as mpl
from cycler import cycler
mpl.rcParams['axes.prop_cycle'] = cycler(color=['#db503d', '#02C6E0'])

ex = Explorer()

# ## Qtensor simulation times

# ### Get cost estimation
# Cells in this section have metadata active="ipynb" to prevent them from running in `.py` script

# + active="ipynb"
N = 1000
p = 4
edge_idx = 4
gamma, beta = [.1]*p, [.3]*p
graph = qt.toolbox.random_graph(nodes=N, degree=3)

comp = qt.QtreeQAOAComposer(graph, gamma=gamma, beta=beta)