Ejemplo n.º 1
0
def run_warnings_caught(args):
    # Read investigation
    investigation = InvestigationReader.from_stream(args.input_investigation_file).read()
    args.input_investigation_file.close()

    # Validate investigation
    InvestigationValidator(investigation).validate()

    # Read studies and assays
    path_in = os.path.normpath(os.path.dirname(args.input_investigation_file.name))
    studies = {}
    assays = {}
    for s, study_info in enumerate(investigation.studies):
        if study_info.info.path:
            with open(os.path.join(path_in, study_info.info.path), "rt") as inputf:
                studies[s] = StudyReader.from_stream("S{}".format(s + 1), inputf).read()
        if study_info.assays:
            assays[s] = {}
        for a, assay_info in enumerate(study_info.assays):
            if assay_info.path:
                with open(os.path.join(path_in, assay_info.path), "rt") as inputf:
                    assays[s][a] = AssayReader.from_stream(
                        "S{}".format(s + 1), "A{}".format(a + 1), inputf
                    ).read()

    # Validate studies and assays
    for s, study_info in enumerate(investigation.studies):
        if study_info.info.path:
            StudyValidator(investigation, study_info, studies[s]).validate()
        for a, assay_info in enumerate(study_info.assays):
            if assay_info.path:
                AssayValidator(investigation, study_info, assay_info, assays[s][a]).validate()
Ejemplo n.º 2
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def test_assay_reader_minimal_assay_iostring2(minimal_investigation_file,
                                              minimal_assay_file):
    # Load investigation (tested elsewhere)
    stringio = io.StringIO(minimal_investigation_file.read())
    investigation = InvestigationReader.from_stream(stringio).read()
    with pytest.warns(IsaWarning) as record:
        InvestigationValidator(investigation).validate()

    # Check warnings
    assert 2 == len(record)

    # Create new assay reader and read from StringIO with no filename indicated
    stringio = io.StringIO(minimal_assay_file.read())
    reader = AssayReader.from_stream("S1", "A1", stringio)
    assert 5 == len(reader.header)

    # Read and validate assay
    assay = reader.read()
    AssayValidator(investigation, investigation.studies[0],
                   investigation.studies[0].assays[0], assay).validate()

    # Check results
    assert str(assay.file) == os.path.normpath("<no file>")
    assert 5 == len(assay.header)
    assert 3 == len(assay.materials)
    assert 1 == len(assay.processes)
    assert 3 == len(assay.arcs)
Ejemplo n.º 3
0
def _parse_write_assert_assay(investigation_file,
                              tmp_path,
                              quote=None,
                              normalize=False,
                              skip=None):
    # Load investigation
    investigation = InvestigationReader.from_stream(investigation_file).read()
    InvestigationValidator(investigation).validate()
    directory = os.path.normpath(os.path.dirname(investigation_file.name))
    # Iterate assays
    for s, study_info in enumerate(investigation.studies):
        for a, assay_info in enumerate(study_info.assays):
            if skip and str(assay_info.path) in skip:
                continue
            # Load assay
            path_in = os.path.join(directory, assay_info.path)
            with open(path_in, "rt") as inputf:
                assay = AssayReader.from_stream("S{}".format(s + 1),
                                                "A{}".format(a + 1),
                                                inputf).read()
            AssayValidator(investigation, study_info, assay_info,
                           assay).validate()
            # Write assay to temporary file
            path_out = tmp_path / assay_info.path
            with open(path_out, "wt", newline="") as file:
                AssayWriter.from_stream(assay, file, quote=quote).write()
            if normalize:
                # Read and write assay again
                path_in = path_out
                with open(path_out, "rt") as inputf:
                    assay = AssayReader.from_stream("S{}".format(s + 1),
                                                    "A{}".format(a + 1),
                                                    inputf).read()
                AssayValidator(investigation, study_info, assay_info,
                               assay).validate()
                path_out = tmp_path / (assay_info.path.name + "_b")
                with open(path_out, "wt", newline="") as file:
                    AssayWriter.from_stream(assay, file, quote=quote).write()
            # Sort and compare input and output
            path_in_s = tmp_path / (assay_info.path.name + ".in.sorted")
            path_out_s = tmp_path / (assay_info.path.name + ".out.sorted")
            assert filecmp.cmp(sort_file(path_in, path_in_s),
                               sort_file(path_out, path_out_s),
                               shallow=False)
Ejemplo n.º 4
0
def test_assay_reader_minimal_assay(minimal_investigation_file,
                                    minimal_assay_file):
    """Use ``AssayReader`` to read in minimal assay file.

    Using the ``AssayReader`` instead of the ``AssayRowReader`` gives us
    ``Assay`` objects instead of just the row-wise nodes.
    """
    # Load investigation (tested elsewhere)
    investigation = InvestigationReader.from_stream(
        minimal_investigation_file).read()
    with pytest.warns(IsaWarning) as record:
        InvestigationValidator(investigation).validate()

    # Check warnings
    assert 1 == len(record)

    # Create new row reader and check read headers
    reader = AssayReader.from_stream("S1", "A1", minimal_assay_file)
    assert 5 == len(reader.header)

    # Read and validate assay
    assay = reader.read()
    AssayValidator(investigation, investigation.studies[0],
                   investigation.studies[0].assays[0], assay).validate()

    # Check results
    assert os.path.normpath(str(assay.file)).endswith(
        os.path.normpath("data/i_minimal/a_minimal.txt"))
    assert 5 == len(assay.header)
    assert 3 == len(assay.materials)
    assert 1 == len(assay.processes)
    assert 3 == len(assay.arcs)

    expected = models.Material(
        "Sample Name",
        "S1-sample-0815-N1",
        "0815-N1",
        None,
        (),
        (),
        (),
        None,
        [table_headers.SAMPLE_NAME],
    )
    assert expected == assay.materials["S1-sample-0815-N1"]
    expected = models.Material(
        "Raw Data File",
        "S1-A1-0815-N1-DNA1-WES1_L???_???_R1.fastq.gz-COL4",
        "0815-N1-DNA1-WES1_L???_???_R1.fastq.gz",
        None,
        (),
        (),
        (),
        None,
        [table_headers.RAW_DATA_FILE],
    )
    assert expected == assay.materials[
        "S1-A1-0815-N1-DNA1-WES1_L???_???_R1.fastq.gz-COL4"]
    expected = models.Material(
        "Raw Data File",
        "S1-A1-0815-N1-DNA1-WES1_L???_???_R2.fastq.gz-COL5",
        "0815-N1-DNA1-WES1_L???_???_R2.fastq.gz",
        None,
        (),
        (),
        (),
        None,
        [table_headers.RAW_DATA_FILE],
    )
    assert expected == assay.materials[
        "S1-A1-0815-N1-DNA1-WES1_L???_???_R2.fastq.gz-COL5"]

    expected = models.Process(
        "nucleic acid sequencing",
        "S1-A1-0815-N1-DNA1-WES1-3",
        "0815-N1-DNA1-WES1",
        "Assay Name",
        None,
        None,
        (),
        (),
        None,
        None,
        None,
        [table_headers.PROTOCOL_REF, table_headers.ASSAY_NAME],
    )
    assert expected == assay.processes["S1-A1-0815-N1-DNA1-WES1-3"]

    expected = (
        models.Arc("S1-sample-0815-N1", "S1-A1-0815-N1-DNA1-WES1-3"),
        models.Arc("S1-A1-0815-N1-DNA1-WES1-3",
                   "S1-A1-0815-N1-DNA1-WES1_L???_???_R1.fastq.gz-COL4"),
        models.Arc(
            "S1-A1-0815-N1-DNA1-WES1_L???_???_R1.fastq.gz-COL4",
            "S1-A1-0815-N1-DNA1-WES1_L???_???_R2.fastq.gz-COL5",
        ),
    )
    assert expected == assay.arcs
Ejemplo n.º 5
0
def test_assay_reader_gelelect(gelelect_investigation_file,
                               gelelect_assay_file):
    """Use ``AssayReader`` to read in small assay file."""
    with pytest.warns(IsaWarning) as record:
        # Load investigation
        investigation = InvestigationReader.from_stream(
            gelelect_investigation_file).read()
        InvestigationValidator(investigation).validate()

        # Create new row reader and check read headers
        reader = AssayReader.from_stream("S1", "A1", gelelect_assay_file)
        assert 22 == len(reader.header)

        # Read assay
        assay = reader.read()
        AssayValidator(investigation, investigation.studies[0],
                       investigation.studies[0].assays[0], assay).validate()

    # Check warnings
    assert 4 == len(record)

    # Check results
    assert os.path.normpath(str(assay.file)).endswith(
        os.path.normpath(
            "data/test_gelelect/a_study01_protein_expression_profiling_gel_electrophoresis.txt"
        ))
    assert 22 == len(assay.header)
    assert 9 == len(assay.materials)
    assert 10 == len(assay.processes)
    assert 18 == len(assay.arcs)

    expected = models.Material(
        "Image File",
        "S1-A1-Image01.jpeg-COL19",
        "Image01.jpeg",
        None,
        (),
        (),
        (),
        None,
        [table_headers.IMAGE_FILE],
    )
    assert expected == assay.materials["S1-A1-Image01.jpeg-COL19"]

    expected = models.Process(
        "data collection",
        "S1-A1-Scan02-18",
        "Scan02",
        "Scan Name",
        None,
        None,
        (),
        (),
        None,
        None,
        None,
        [table_headers.PROTOCOL_REF, table_headers.SCAN_NAME],
    )
    assert expected == assay.processes["S1-A1-Scan02-18"]

    header_electrophoresis = [
        table_headers.PROTOCOL_REF,
        table_headers.GEL_ELECTROPHORESIS_ASSAY_NAME,
        table_headers.FIRST_DIMENSION,
        table_headers.TERM_SOURCE_REF,
        table_headers.TERM_ACCESSION_NUMBER,
        table_headers.SECOND_DIMENSION,
        table_headers.TERM_SOURCE_REF,
        table_headers.TERM_ACCESSION_NUMBER,
    ]

    expected = models.Process(
        "electrophoresis",
        "S1-A1-Assay01-10",
        "Assay01",
        "Gel Electrophoresis Assay Name",
        None,
        None,
        (),
        (),
        None,
        models.OntologyTermRef("", "", ""),
        models.OntologyTermRef("", "", ""),
        header_electrophoresis,
    )
    assert expected == assay.processes["S1-A1-Assay01-10"]

    expected = models.Process(
        "electrophoresis",
        "S1-A1-electrophoresis-9-2",
        "",
        "Gel Electrophoresis Assay Name",
        None,
        None,
        (),
        (),
        None,
        models.OntologyTermRef("AssayX", None, None),
        models.OntologyTermRef("AssayY", None, None),
        header_electrophoresis,
    )
    assert expected == assay.processes["S1-A1-electrophoresis-9-2"]
Ejemplo n.º 6
0
def test_assay_reader_small2_assay(small2_investigation_file,
                                   small2_assay_file):
    """Use ``AssayReader`` to read in small assay file."""
    # Load investigation (tested elsewhere)
    investigation = InvestigationReader.from_stream(
        small2_investigation_file).read()
    InvestigationValidator(investigation).validate()

    # Create new row reader and check read headers
    reader = AssayReader.from_stream("S1", "A1", small2_assay_file)
    assert 14 == len(reader.header)

    # Read assay
    assay = reader.read()
    AssayValidator(investigation, investigation.studies[0],
                   investigation.studies[0].assays[0], assay).validate()

    # Check results
    assert os.path.normpath(str(assay.file)).endswith(
        os.path.normpath("data/i_small2/a_small2.txt"))
    assert 14 == len(assay.header)
    assert 25 == len(assay.materials)
    assert 41 == len(assay.processes)
    assert 74 == len(assay.arcs)

    # Comments
    expected = models.Comment(name="Replicate", value="B")
    assert assay.materials["S1-A1-0815-T1-Pro1-B-115-COL5"].comments[
        0] == expected

    # Expected arcs
    expected = (
        models.Arc("S1-sample-0815-N1", "S1-A1-extraction-2-1"),
        models.Arc("S1-sample-0815-T1", "S1-A1-extraction-2-2"),
        models.Arc("S1-A1-extraction-2-1", "S1-A1-0815-N1-Pro1-COL3"),
        models.Arc("S1-A1-extraction-2-2", "S1-A1-0815-T1-Pro1-COL3"),
        models.Arc("S1-A1-0815-N1-Pro1-COL3", "S1-A1-labeling-4-1"),
        models.Arc("S1-A1-0815-T1-Pro1-COL3", "S1-A1-labeling-4-2"),
        models.Arc("S1-A1-0815-N1-Pro1-COL3", "S1-A1-labeling-4-3"),
        models.Arc("S1-A1-0815-T1-Pro1-COL3", "S1-A1-labeling-4-4"),
        models.Arc("S1-A1-0815-N1-Pro1-COL3", "S1-A1-labeling-4-5"),
        models.Arc("S1-A1-0815-T1-Pro1-COL3", "S1-A1-labeling-4-6"),
        models.Arc("S1-A1-0815-N1-Pro1-COL3", "S1-A1-labeling-4-7"),
        models.Arc("S1-A1-0815-T1-Pro1-COL3", "S1-A1-labeling-4-8"),
        models.Arc("S1-A1-0815-N1-Pro1-COL3", "S1-A1-labeling-4-9"),
        models.Arc("S1-A1-0815-T1-Pro1-COL3", "S1-A1-labeling-4-10"),
        models.Arc("S1-A1-0815-N1-Pro1-COL3", "S1-A1-labeling-4-11"),
        models.Arc("S1-A1-0815-T1-Pro1-COL3", "S1-A1-labeling-4-12"),
        models.Arc("S1-A1-labeling-4-1", "S1-A1-0815-N1-Pro1-A-114-COL5"),
        models.Arc("S1-A1-labeling-4-2", "S1-A1-0815-T1-Pro1-A-115-COL5"),
        models.Arc("S1-A1-labeling-4-3", "S1-A1-0815-N1-Pro1-B-114-COL5"),
        models.Arc("S1-A1-labeling-4-4", "S1-A1-0815-T1-Pro1-B-115-COL5"),
        models.Arc("S1-A1-labeling-4-5", "S1-A1-0815-N1-Pro1-C-114-COL5"),
        models.Arc("S1-A1-labeling-4-6", "S1-A1-0815-T1-Pro1-C-115-COL5"),
        models.Arc("S1-A1-labeling-4-7", "S1-A1-0815-N1-Pro1-D-114-COL5"),
        models.Arc("S1-A1-labeling-4-8", "S1-A1-0815-T1-Pro1-D-115-COL5"),
        models.Arc("S1-A1-labeling-4-9", "S1-A1-0815-N1-Pro1-E-114-COL5"),
        models.Arc("S1-A1-labeling-4-10", "S1-A1-0815-T1-Pro1-E-115-COL5"),
        models.Arc("S1-A1-labeling-4-11", "S1-A1-0815-N1-Pro1-F-114-COL5"),
        models.Arc("S1-A1-labeling-4-12", "S1-A1-0815-T1-Pro1-F-115-COL5"),
        models.Arc("S1-A1-0815-N1-Pro1-A-114-COL5",
                   "S1-A1-chromatography-8-1"),
        models.Arc("S1-A1-0815-T1-Pro1-A-115-COL5",
                   "S1-A1-chromatography-8-2"),
        models.Arc("S1-A1-0815-N1-Pro1-B-114-COL5",
                   "S1-A1-chromatography-8-3"),
        models.Arc("S1-A1-0815-T1-Pro1-B-115-COL5",
                   "S1-A1-chromatography-8-4"),
        models.Arc("S1-A1-0815-N1-Pro1-C-114-COL5",
                   "S1-A1-chromatography-8-5"),
        models.Arc("S1-A1-0815-T1-Pro1-C-115-COL5",
                   "S1-A1-chromatography-8-6"),
        models.Arc("S1-A1-0815-N1-Pro1-D-114-COL5",
                   "S1-A1-chromatography-8-7"),
        models.Arc("S1-A1-0815-T1-Pro1-D-115-COL5",
                   "S1-A1-chromatography-8-8"),
        models.Arc("S1-A1-0815-N1-Pro1-E-114-COL5",
                   "S1-A1-chromatography-8-9"),
        models.Arc("S1-A1-0815-T1-Pro1-E-115-COL5",
                   "S1-A1-chromatography-8-10"),
        models.Arc("S1-A1-0815-N1-Pro1-F-114-COL5",
                   "S1-A1-chromatography-8-11"),
        models.Arc("S1-A1-0815-T1-Pro1-F-115-COL5",
                   "S1-A1-chromatography-8-12"),
        models.Arc("S1-A1-chromatography-8-1", "S1-A1-poolA-10"),
        models.Arc("S1-A1-chromatography-8-2", "S1-A1-poolA-10"),
        models.Arc("S1-A1-chromatography-8-3", "S1-A1-mass spectrometry-9-3"),
        models.Arc("S1-A1-chromatography-8-4", "S1-A1-mass spectrometry-9-4"),
        models.Arc("S1-A1-chromatography-8-5", "S1-A1-poolC-10"),
        models.Arc("S1-A1-chromatography-8-6", "S1-A1-poolC-10"),
        models.Arc("S1-A1-chromatography-8-7", "S1-A1-mass spectrometry-9-7"),
        models.Arc("S1-A1-chromatography-8-8", "S1-A1-mass spectrometry-9-8"),
        models.Arc("S1-A1-chromatography-8-9", "S1-A1-poolE-10"),
        models.Arc("S1-A1-chromatography-8-10", "S1-A1-poolE-10"),
        models.Arc("S1-A1-chromatography-8-11", "S1-A1-poolF-10"),
        models.Arc("S1-A1-chromatography-8-12", "S1-A1-poolF-10"),
        models.Arc("S1-A1-poolA-10", "S1-A1-poolA.raw-COL11"),
        models.Arc("S1-A1-mass spectrometry-9-3", "S1-A1-poolB.raw-COL11"),
        models.Arc("S1-A1-mass spectrometry-9-4", "S1-A1-poolB.raw-COL11"),
        models.Arc("S1-A1-poolC-10",
                   "S1-A1-Empty Raw Spectral Data File-11-5"),
        models.Arc("S1-A1-mass spectrometry-9-7",
                   "S1-A1-Empty Raw Spectral Data File-11-7"),
        models.Arc("S1-A1-mass spectrometry-9-8",
                   "S1-A1-Empty Raw Spectral Data File-11-8"),
        models.Arc("S1-A1-poolE-10", "S1-A1-poolE.raw-COL11"),
        models.Arc("S1-A1-poolF-10",
                   "S1-A1-Empty Raw Spectral Data File-11-11"),
        models.Arc("S1-A1-poolA.raw-COL11", "S1-A1-data transformation-12-1"),
        models.Arc("S1-A1-poolB.raw-COL11", "S1-A1-data transformation-12-3"),
        models.Arc("S1-A1-Empty Raw Spectral Data File-11-5",
                   "S1-A1-data transformation-12-5"),
        models.Arc("S1-A1-Empty Raw Spectral Data File-11-7",
                   "S1-A1-data transformation-12-7"),
        models.Arc("S1-A1-Empty Raw Spectral Data File-11-8",
                   "S1-A1-data transformation-12-8"),
        models.Arc("S1-A1-poolE.raw-COL11", "S1-A1-data transformation-12-9"),
        models.Arc("S1-A1-Empty Raw Spectral Data File-11-11",
                   "S1-A1-data analysis-13"),
        models.Arc("S1-A1-data transformation-12-1",
                   "S1-A1-results.csv-COL14"),
        models.Arc("S1-A1-data transformation-12-3",
                   "S1-A1-results.csv-COL14"),
        models.Arc("S1-A1-data transformation-12-5",
                   "S1-A1-results.csv-COL14"),
        models.Arc("S1-A1-data transformation-12-7",
                   "S1-A1-results.csv-COL14"),
        models.Arc("S1-A1-data transformation-12-8",
                   "S1-A1-results.csv-COL14"),
        models.Arc("S1-A1-data transformation-12-9",
                   "S1-A1-Empty Derived Data File-14-9"),
        models.Arc("S1-A1-data analysis-13", "S1-A1-results.csv-COL14"),
    )
    assert sorted(expected) == sorted(assay.arcs)
Ejemplo n.º 7
0
def test_assay_reader_small_assay(small_investigation_file, small_assay_file):
    """Use ``AssayReader`` to read in small assay file."""
    # Load investigation (tested elsewhere)
    investigation = InvestigationReader.from_stream(
        small_investigation_file).read()
    with pytest.warns(IsaWarning) as record:
        InvestigationValidator(investigation).validate()

    # Check warnings
    assert 1 == len(record)

    # Create new row reader and check read headers
    reader = AssayReader.from_stream("S1", "A1", small_assay_file)
    assert 9 == len(reader.header)

    # Read assay
    with pytest.warns(IsaWarning) as record:
        assay = reader.read()
        AssayValidator(investigation, investigation.studies[0],
                       investigation.studies[0].assays[0], assay).validate()

    # Check warnings
    assert 1 == len(record)

    # Check results
    assert os.path.normpath(str(assay.file)).endswith(
        os.path.normpath("data/i_small/a_small.txt"))
    assert 9 == len(assay.header)
    assert 9 == len(assay.materials)
    assert 5 == len(assay.processes)
    assert 13 == len(assay.arcs)

    expected = models.Material(
        "Sample Name",
        "S1-sample-0815-N1",
        "0815-N1",
        None,
        (),
        (),
        (),
        None,
        [table_headers.SAMPLE_NAME],
    )
    assert expected == assay.materials["S1-sample-0815-N1"]
    expected = models.Material(
        "Sample Name",
        "S1-sample-0815-T1",
        "0815-T1",
        None,
        (),
        (),
        (),
        None,
        [table_headers.SAMPLE_NAME],
    )
    assert expected == assay.materials["S1-sample-0815-T1"]
    expected = models.Material(
        "Raw Data File",
        "S1-A1-0815-N1-DNA1-WES1_L???_???_R1.fastq.gz-COL6",
        "0815-N1-DNA1-WES1_L???_???_R1.fastq.gz",
        None,
        (),
        (),
        (),
        None,
        [table_headers.RAW_DATA_FILE],
    )
    assert expected == assay.materials[
        "S1-A1-0815-N1-DNA1-WES1_L???_???_R1.fastq.gz-COL6"]
    expected = models.Material(
        "Raw Data File",
        "S1-A1-0815-N1-DNA1-WES1_L???_???_R2.fastq.gz-COL7",
        "0815-N1-DNA1-WES1_L???_???_R2.fastq.gz",
        None,
        (),
        (),
        (),
        None,
        [table_headers.RAW_DATA_FILE],
    )
    assert expected == assay.materials[
        "S1-A1-0815-N1-DNA1-WES1_L???_???_R2.fastq.gz-COL7"]
    expected = models.Material(
        "Raw Data File",
        "S1-A1-0815-T1-DNA1-WES1_L???_???_R1.fastq.gz-COL6",
        "0815-T1-DNA1-WES1_L???_???_R1.fastq.gz",
        None,
        (),
        (),
        (),
        None,
        [table_headers.RAW_DATA_FILE],
    )
    assert expected == assay.materials[
        "S1-A1-0815-T1-DNA1-WES1_L???_???_R1.fastq.gz-COL6"]
    expected = models.Material(
        "Raw Data File",
        "S1-A1-0815-T1-DNA1-WES1_L???_???_R2.fastq.gz-COL7",
        "0815-T1-DNA1-WES1_L???_???_R2.fastq.gz",
        None,
        (),
        (),
        (),
        None,
        [table_headers.RAW_DATA_FILE],
    )
    assert expected == assay.materials[
        "S1-A1-0815-T1-DNA1-WES1_L???_???_R2.fastq.gz-COL7"]
    expected = models.Material(
        "Derived Data File",
        "S1-A1-0815-somatic.vcf.gz-COL9",
        "0815-somatic.vcf.gz",
        None,
        (),
        (),
        (),
        None,
        [table_headers.DERIVED_DATA_FILE],
    )
    assert expected == assay.materials["S1-A1-0815-somatic.vcf.gz-COL9"]

    expected = models.Process(
        "library preparation",
        "S1-A1-library preparation-2-1",
        None,
        None,
        None,
        None,
        (),
        (),
        None,
        None,
        None,
        [table_headers.PROTOCOL_REF],
    )
    assert expected == assay.processes["S1-A1-library preparation-2-1"]
    expected = models.Process(
        "library preparation",
        "S1-A1-library preparation-2-2",
        None,
        None,
        None,
        None,
        (),
        (),
        None,
        None,
        None,
        [table_headers.PROTOCOL_REF],
    )
    assert expected == assay.processes["S1-A1-library preparation-2-2"]
    expected = models.Process(
        "nucleic acid sequencing",
        "S1-A1-0815-N1-DNA1-WES1-5",
        "0815-N1-DNA1-WES1",
        "Assay Name",
        None,
        None,
        (),
        (),
        None,
        None,
        None,
        [table_headers.PROTOCOL_REF, table_headers.ASSAY_NAME],
    )
    assert expected == assay.processes["S1-A1-0815-N1-DNA1-WES1-5"]
    expected = models.Process(
        "nucleic acid sequencing",
        "S1-A1-0815-T1-DNA1-WES1-5",
        "0815-T1-DNA1-WES1",
        "Assay Name",
        None,
        None,
        (),
        (),
        None,
        None,
        None,
        [table_headers.PROTOCOL_REF, table_headers.ASSAY_NAME],
    )
    assert expected == assay.processes["S1-A1-0815-T1-DNA1-WES1-5"]

    expected = (
        models.Arc("S1-sample-0815-N1", "S1-A1-library preparation-2-1"),
        models.Arc("S1-A1-library preparation-2-1", "S1-A1-0815-N1-DNA1-COL3"),
        models.Arc("S1-A1-0815-N1-DNA1-COL3", "S1-A1-0815-N1-DNA1-WES1-5"),
        models.Arc("S1-A1-0815-N1-DNA1-WES1-5",
                   "S1-A1-0815-N1-DNA1-WES1_L???_???_R1.fastq.gz-COL6"),
        models.Arc(
            "S1-A1-0815-N1-DNA1-WES1_L???_???_R1.fastq.gz-COL6",
            "S1-A1-0815-N1-DNA1-WES1_L???_???_R2.fastq.gz-COL7",
        ),
        models.Arc("S1-A1-0815-N1-DNA1-WES1_L???_???_R2.fastq.gz-COL7",
                   "S1-A1-somatic variant calling-1-8"),
        models.Arc("S1-A1-somatic variant calling-1-8",
                   "S1-A1-0815-somatic.vcf.gz-COL9"),
        models.Arc("S1-sample-0815-T1", "S1-A1-library preparation-2-2"),
        models.Arc("S1-A1-library preparation-2-2", "S1-A1-0815-T1-DNA1-COL3"),
        models.Arc("S1-A1-0815-T1-DNA1-COL3", "S1-A1-0815-T1-DNA1-WES1-5"),
        models.Arc("S1-A1-0815-T1-DNA1-WES1-5",
                   "S1-A1-0815-T1-DNA1-WES1_L???_???_R1.fastq.gz-COL6"),
        models.Arc(
            "S1-A1-0815-T1-DNA1-WES1_L???_???_R1.fastq.gz-COL6",
            "S1-A1-0815-T1-DNA1-WES1_L???_???_R2.fastq.gz-COL7",
        ),
        models.Arc("S1-A1-0815-T1-DNA1-WES1_L???_???_R2.fastq.gz-COL7",
                   "S1-A1-somatic variant calling-1-8"),
    )
    assert expected == assay.arcs
Ejemplo n.º 8
0
def create_and_write(out_path):
    """Create an investigation with a study and assay and write to ``output_path``."""

    # Prepare one or more study sections
    # Prepare basic study information
    study_info = models.BasicInfo(
        path="s_minimal.txt",
        identifier="s_minimal",
        title="Germline Study",
        description=None,
        submission_date=None,
        public_release_date=None,
        comments=(
            models.Comment(name="Study Grant Number", value=None),
            models.Comment(name="Study Funding Agency", value=None),
        ),
        headers=[],
    )

    # Create one or more assays
    assay_01 = models.AssayInfo(
        measurement_type=models.OntologyTermRef(
            name="exome sequencing assay",
            accession="http://purl.obolibrary.org/obo/OBI_0002118",
            ontology_name="OBI",
        ),
        technology_type=models.OntologyTermRef(
            name="nucleotide sequencing",
            accession="http://purl.obolibrary.org/obo/OBI_0000626",
            ontology_name="OBI",
        ),
        platform=None,
        path="a_minimal.txt",
        comments=(),
        headers=[],
    )

    # Prepare one or more protocols
    protocol_01 = models.ProtocolInfo(
        name="sample collection",
        type=models.OntologyTermRef(name="sample collection"),
        description=None,
        uri=None,
        version=None,
        parameters={},
        components={},
        comments=(),
        headers=[],
    )
    protocol_02 = models.ProtocolInfo(
        name="nucleic acid sequencing",
        type=models.OntologyTermRef(name="nucleic acid sequencing"),
        description=None,
        uri=None,
        version=None,
        parameters={},
        components={},
        comments=(),
        headers=[],
    )

    # Create study object
    study_01 = models.StudyInfo(
        info=study_info,
        designs=(),
        publications=(),
        factors={},
        assays=(assay_01, ),
        protocols={
            protocol_01.name: protocol_01,
            protocol_02.name: protocol_02
        },
        contacts=(),
    )

    # Prepare other investigation section
    # Prepare one or more ontology term source references
    onto_ref_01 = models.OntologyRef(
        name="OBI",
        file="http://data.bioontology.org/ontologies/OBI",
        version="31",
        description="Ontology for Biomedical Investigations",
        comments=(),
        headers=[],
    )

    # Prepare basic investigation information
    invest_info = models.BasicInfo(
        path="i_minimal.txt",
        identifier="i_minimal",
        title="Minimal Investigation",
        description=None,
        submission_date=None,
        public_release_date=None,
        comments=(),
        headers=[],
    )

    # Create investigation object
    investigation = models.InvestigationInfo(
        ontology_source_refs={onto_ref_01.name: onto_ref_01},
        info=invest_info,
        publications=(),
        contacts=(),
        studies=(study_01, ),
    )

    # Validate investigation
    InvestigationValidator(investigation).validate()

    # Write the investigation as ISA-Tab txt file
    with open(join(out_path, investigation.info.path), "wt",
              newline="") as outputf:
        InvestigationWriter.from_stream(investigation=investigation,
                                        output_file=outputf).write()

    # Create a corresponding Study graph

    # Create at least on source, one sample and one collection process
    # Unique names are required for unambiguous node identification
    source_01 = models.Material(
        type="Source Name",
        unique_name="S1-source-0815",
        name="0815",
        extract_label=None,
        characteristics=(),
        comments=(),
        factor_values=(),
        material_type=None,
        headers=[table_headers.SOURCE_NAME],
    )

    sample_01 = models.Material(
        type="Sample Name",
        unique_name="S1-sample-0815-N1",
        name="0815-N1",
        extract_label=None,
        characteristics=(),
        comments=(),
        factor_values=(),
        material_type=None,
        headers=[table_headers.SAMPLE_NAME],
    )

    process_01 = models.Process(
        protocol_ref="sample collection",
        unique_name="S1-sample collection-2-1",
        name=None,
        name_type=None,
        date=None,
        performer=None,
        parameter_values=(),
        comments=(),
        array_design_ref=None,
        first_dimension=None,
        second_dimension=None,
        headers=[table_headers.PROTOCOL_REF],
    )

    # Create the arcs to connect the material and process nodes, referenced by the unique name
    arc_01 = models.Arc(tail="S1-source-0815", head="S1-sample collection-2-1")
    arc_02 = models.Arc(tail="S1-sample collection-2-1",
                        head="S1-sample-0815-N1")

    # Create the study graph object
    study_graph_01 = models.Study(
        file=investigation.studies[0].info.path,
        header=None,
        materials={
            source_01.unique_name: source_01,
            sample_01.unique_name: sample_01
        },
        processes={process_01.unique_name: process_01},
        arcs=(arc_01, arc_02),
    )

    # Validate study graph
    StudyValidator(investigation=investigation,
                   study_info=investigation.studies[0],
                   study=study_graph_01).validate()

    # Write the study as ISA-Tab txt file
    with open(join(out_path, investigation.studies[0].info.path),
              "wt",
              newline="") as outputf:
        StudyWriter.from_stream(study_or_assay=study_graph_01,
                                output_file=outputf).write()

    # Create a corresponding Assay graph

    # Create at least on samples, one output material and one collection process
    # Unique names are required for unambiguous node identification
    # Explicit header definition per node is currently required to enable export to ISA-Tab
    sample_01 = models.Material(
        type="Sample Name",
        unique_name="S1-sample-0815-N1",
        name="0815-N1",
        extract_label=None,
        characteristics=(),
        comments=(),
        factor_values=(),
        material_type=None,
        headers=[table_headers.SAMPLE_NAME],
    )

    data_file_01 = models.Material(
        type="Raw Data File",
        unique_name="S1-A1-0815-N1-DNA1-WES1_L???_???_R1.fastq.gz-COL4",
        name="0815-N1-DNA1-WES1_L???_???_R1.fastq.gz",
        extract_label=None,
        characteristics=(),
        comments=(),
        factor_values=(),
        material_type=None,
        headers=[table_headers.RAW_DATA_FILE],
    )

    data_file_02 = models.Material(
        type="Raw Data File",
        unique_name="S1-A1-0815-N1-DNA1-WES1_L???_???_R2.fastq.gz-COL5",
        name="0815-N1-DNA1-WES1_L???_???_R2.fastq.gz",
        extract_label=None,
        characteristics=(),
        comments=(),
        factor_values=(),
        material_type=None,
        headers=[table_headers.RAW_DATA_FILE],
    )

    process_01 = models.Process(
        protocol_ref="nucleic acid sequencing",
        unique_name="S1-A1-0815-N1-DNA1-WES1-3",
        name="0815-N1-DNA1-WES1",
        name_type="Assay Name",
        date=None,
        performer=None,
        parameter_values=(),
        comments=(),
        array_design_ref=None,
        first_dimension=None,
        second_dimension=None,
        headers=[table_headers.PROTOCOL_REF, table_headers.ASSAY_NAME],
    )

    # Create the arcs to connect the material and process nodes, referenced by the unique name
    arcs = (
        models.Arc(tail="S1-sample-0815-N1", head="S1-A1-0815-N1-DNA1-WES1-3"),
        models.Arc(
            tail="S1-A1-0815-N1-DNA1-WES1-3",
            head="S1-A1-0815-N1-DNA1-WES1_L???_???_R1.fastq.gz-COL4",
        ),
        models.Arc(
            tail="S1-A1-0815-N1-DNA1-WES1_L???_???_R1.fastq.gz-COL4",
            head="S1-A1-0815-N1-DNA1-WES1_L???_???_R2.fastq.gz-COL5",
        ),
    )

    # Create the assay graph object
    assay_graph_01 = models.Assay(
        file=investigation.studies[0].assays[0].path,
        header=None,
        materials={
            sample_01.unique_name: sample_01,
            data_file_01.unique_name: data_file_01,
            data_file_02.unique_name: data_file_02,
        },
        processes={process_01.unique_name: process_01},
        arcs=arcs,
    )

    # Validate assay graph
    AssayValidator(
        investigation=investigation,
        study_info=investigation.studies[0],
        assay_info=investigation.studies[0].assays[0],
        assay=assay_graph_01,
    ).validate()

    # Write the assay as ISA-Tab txt file
    with open(join(out_path, investigation.studies[0].assays[0].path),
              "wt",
              newline="") as outputf:
        AssayWriter.from_stream(study_or_assay=assay_graph_01,
                                output_file=outputf).write()