Ejemplo n.º 1
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 def test_cut_both(self):
     d = self.collagen
     dcut = Cut(lowlim=0, highlim=2)(d)
     self.assertFalse(getx(dcut))
     dcut = Cut(lowlim=1000, highlim=1100)(d)
     self.assertGreaterEqual(min(getx(dcut)), 1000)
     self.assertLessEqual(max(getx(dcut)), 1100)
Ejemplo n.º 2
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 def test_cut_single_inverse(self):
     d = self.collagen
     dcut = Cut(lowlim=1000, inverse=True)(d)
     self.assertLessEqual(max(getx(dcut)), 1000)
     self.assertEqual(min(getx(dcut)), min(getx(d)))
     dcut = Cut(highlim=1000, inverse=True)(d)
     self.assertGreaterEqual(min(getx(dcut)), 1000)
     self.assertEqual(max(getx(dcut)), max(getx(d)))
Ejemplo n.º 3
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 def test_cut_both_inverse(self):
     d = self.collagen
     # cutting out of x interval - need all
     dcut = Cut(lowlim=0, highlim=2, inverse=True)(d)
     np.testing.assert_equal(getx(dcut), getx(d))
     # cutting in the middle - edged are the same
     dcut = Cut(lowlim=1000, highlim=1100, inverse=True)(d)
     dcutx = getx(dcut)
     self.assertEqual(min(dcutx), min(getx(d)))
     self.assertEqual(max(dcutx), max(getx(d)))
     self.assertLess(len(dcutx), len(getx(d)))
     np.testing.assert_equal(np.where(dcutx < 1100), np.where(dcutx < 1000))
     np.testing.assert_equal(np.where(dcutx > 1100), np.where(dcutx > 1000))
Ejemplo n.º 4
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 def test_predict_different_domain_interpolation(self):
     train, test = separate_learn_test(self.collagen)
     aucorig = AUC(TestOnTestData()(train, test, [LogisticRegressionLearner()]))
     test = Interpolate(points=getx(test) - 1.)(test) # other test domain
     train = Interpolate(points=getx(train))(train)  # make train capable of interpolation
     aucshift = AUC(TestOnTestData()(train, test, [LogisticRegressionLearner()]))
     self.assertAlmostEqual(aucorig, aucshift, delta=0.01)  # shift can decrease AUC slightly
     test = Cut(1000, 1700)(test)
     auccut1 = AUC(TestOnTestData()(train, test, [LogisticRegressionLearner()]))
     test = Cut(1100, 1600)(test)
     auccut2 = AUC(TestOnTestData()(train, test, [LogisticRegressionLearner()]))
     test = Cut(1200, 1500)(test)
     auccut3 = AUC(TestOnTestData()(train, test, [LogisticRegressionLearner()]))
     # the more we cut the lower precision we get
     self.assertTrue(aucorig > auccut1 > auccut2 > auccut3)
Ejemplo n.º 5
0
                orig_data.domain.metas + data.domain.attributes,
            )
            data_anno = orig_data.transform(dom_anno)
            data_anno.metas[:, len(orig_data.domain.metas):] = data.X

        progress_interrupt(100)

        return data, data_fits, data_resid, data_anno

    def on_done(self, results):
        fit_params, fits, residuals, annotated_data = results
        self.Outputs.fit_params.send(fit_params)
        self.Outputs.fits.send(fits)
        self.Outputs.residuals.send(residuals)
        self.Outputs.annotated_data.send(annotated_data)

    def on_exception(self, ex):
        try:
            super().on_exception(ex)
        except ValueError:
            self.Error.applying(ex)
            self.Outputs.fit_params.send(None)
            self.Outputs.fits.send(None)
            self.Outputs.residuals.send(None)
            self.Outputs.annotated_data.send(None)


if __name__ == "__main__":  # pragma: no cover
    data = Cut(lowlim=1360, highlim=1700)(Table("collagen")[0:3])
    WidgetPreview(OWPeakFit).run(data)
    """
    Rerturn appropriate test file for a preprocessor.

    Very slow preprocessors should get smaller files.
    """
    if isinstance(preproc, ME_EMSC):
        return SMALLER_COLLAGEN
    return SMALL_COLLAGEN


# Preprocessors that work per sample and should return the same
# result for a sample independent of the other samples
PREPROCESSORS_INDEPENDENT_SAMPLES = [
    Interpolate(np.linspace(1000, 1700, 100)),
    SavitzkyGolayFiltering(window=9, polyorder=2, deriv=2),
    Cut(lowlim=1000, highlim=1800),
    GaussianSmoothing(sd=3.),
    Absorbance(),
    Transmittance(),
    Integrate(limits=[[900, 100], [1100, 1200], [1200, 1300]]),
    Integrate(methods=Integrate.Simple, limits=[[1100, 1200]]),
    Integrate(methods=Integrate.Baseline, limits=[[1100, 1200]]),
    Integrate(methods=Integrate.PeakMax, limits=[[1100, 1200]]),
    Integrate(methods=Integrate.PeakBaseline, limits=[[1100, 1200]]),
    Integrate(methods=Integrate.PeakAt, limits=[[1100]]),
    Integrate(methods=Integrate.PeakX, limits=[[1100, 1200]]),
    Integrate(methods=Integrate.PeakXBaseline, limits=[[1100, 1200]]),
    RubberbandBaseline(),
    LinearBaseline(),
    Normalize(method=Normalize.Vector),
    Normalize(method=Normalize.Area,
import numpy as np
from Orange.widgets.data.utils.preprocess import DescriptionRole
from Orange.widgets.tests.base import WidgetTest
from orangewidget.tests.base import GuiTest

from orangecontrib.spectroscopy.data import getx
from orangecontrib.spectroscopy.preprocess import Cut, LinearBaseline
from orangecontrib.spectroscopy.tests.spectral_preprocess import wait_for_preview
from orangecontrib.spectroscopy.widgets.gui import MovableVline
from orangecontrib.spectroscopy.widgets.owpeakfit import OWPeakFit, fit_peaks, PREPROCESSORS, \
    create_model, prepare_params, unique_prefix, create_composite_model, pack_model_editor
from orangecontrib.spectroscopy.widgets.peak_editors import ParamHintBox, VoigtModelEditor, \
    PseudoVoigtModelEditor, ExponentialGaussianModelEditor, PolynomialModelEditor

COLLAGEN = Orange.data.Table("collagen")[0:3]
COLLAGEN_2 = LinearBaseline()(Cut(lowlim=1500, highlim=1700)(COLLAGEN))
COLLAGEN_1 = LinearBaseline()(Cut(lowlim=1600, highlim=1700)(COLLAGEN_2))


class TestOWPeakFit(WidgetTest):
    def setUp(self):
        self.widget = self.create_widget(OWPeakFit)
        self.data = COLLAGEN_1

    def test_load_unload(self):
        self.send_signal("Data", Orange.data.Table("iris.tab"))
        self.send_signal("Data", None)

    def test_allint_indv(self):
        for p in PREPROCESSORS:
            with self.subTest(msg=f"Testing model {p.name}"):
                    self.info_preproc.setText(
                        self._format_preproc_str(
                            self.preprocessor).lstrip("\n"))
            else:
                # only allow readers with tile-by-tile support to run.
                reader = None
            return reader
        elif self.source == self.URL:
            url = self.url_combo.currentText().strip()
            if url:
                return UrlReader(url)


if __name__ == "__main__":
    import sys
    from orangecontrib.spectroscopy.preprocess import Cut, LinearBaseline
    from Orange.preprocess.preprocess import PreprocessorList
    import orangecontrib.protospec  #load readers
    a = QApplication(sys.argv)
    # preproc = PreprocessorList([Cut(lowlim=2000, highlim=2006), LinearBaseline()])
    preproc = PreprocessorList(
        [LinearBaseline(), Cut(lowlim=2000, highlim=2006)])
    # preproc = PreprocessorList([Cut(lowlim=2000, highlim=2006), Cut(lowlim=2002, highlim=2006)])
    # Test 2nd Deriv superwide
    # from orangecontrib.spectroscopy.preprocess import Normalize, Integrate, integrate, SavitzkyGolayFiltering
    # preproc = PreprocessorList([Normalize(lower=1591.0484214631633, upper=1719.720747038586, int_method=integrate.IntegrateFeatureSimple), SavitzkyGolayFiltering(window=13, deriv=2), Integrate(methods=integrate.IntegrateFeatureAtPeak, limits=[[1625.0, 1.0], [1152.0, 1.0], [1575.0, 1.0], [1127.0, 1.0]])])
    ow = OWTilefile()
    ow.update_preprocessor(preproc)
    ow.show()
    a.exec_()
    ow.saveSettings()