def get_docglobalm2m(globalm2m,
                     decomposition,
                     doc_m2m_prob_threshold=None,
                     doc_m2m_overlap_threshold=None):
    # experiment = mass2motif.experiment
    experiment = Experiment.objects.get(pk=decomposition.experiment_id)
    ## default prob_threshold 0.05, default overlap_threshld 0.0
    if not doc_m2m_prob_threshold:
        doc_m2m_prob_threshold = get_option('doc_m2m_prob_threshold',
                                            experiment=experiment)
        if doc_m2m_prob_threshold:
            doc_m2m_prob_threshold = float(doc_m2m_prob_threshold)
        else:
            doc_m2m_prob_threshold = 0.05

    if not doc_m2m_overlap_threshold:
        doc_m2m_overlap_threshold = get_option('doc_m2m_overlap_threshold',
                                               experiment=experiment)
        if doc_m2m_overlap_threshold:
            doc_m2m_overlap_threshold = float(doc_m2m_overlap_threshold)
        else:
            doc_m2m_overlap_threshold = 0.0

    ## Notice need to add *decomposition* when search database for *DocumentGlobalMass2Motif*
    ## For LDA experiment,  *DocumentMass2Motif* does not have *experiment* entry, so does not need to do that
    dm2m = DocumentGlobalMass2Motif.objects.filter(
        mass2motif=globalm2m,
        decomposition=decomposition,
        probability__gte=doc_m2m_prob_threshold,
        overlap_score__gte=doc_m2m_overlap_threshold).order_by('-probability')

    return dm2m
def get_degree_matrix(request, mf_id):
    if request.is_ajax():
        mfe = MultiFileExperiment.objects.get(id=mf_id)
        if not mfe.degree_matrix:
            links = MultiLink.objects.filter(
                multifileexperiment=mfe).order_by('experiment__name')
            individuals = [l.experiment for l in links]
            deg_vals = []

            for individual in individuals:

                doc_m2m_threshold = get_option('doc_m2m_threshold',
                                               experiment=individual)
                if doc_m2m_threshold:
                    doc_m2m_threshold = float(doc_m2m_threshold)
                else:
                    doc_m2m_threshold = 0.0
                default_score = get_option('default_doc_m2m_score',
                                           experiment=individual)
                if not default_score:
                    default_score = 'probability'

                new_row = []
                motif_set = individual.mass2motif_set.all().order_by('name')
                for motif in motif_set:
                    motif_name = motif.name
                    m2m = Mass2Motif.objects.get(name=motif_name,
                                                 experiment=individual)
                    docs = get_docm2m(m2m)

                    # Following modified to make the degrees here consistent with the plots

                    # dm2m = motif.documentmass2motif_set.all()
                    # if default_score == 'probability':
                    #     new_row.append(len([d for d in dm2m if d.probability > doc_m2m_threshold]))
                    # else:
                    #     new_row.append(len([d for d in dm2m if d.overlap_score > doc_m2m_threshold]))

                    new_row.append(len(docs))

                deg_vals.append(new_row)

            deg_vals = map(list, zip(*deg_vals))
            deg_vals = [[motif_set[i].name, motif_set[i].annotation] + dv
                        for i, dv in enumerate(deg_vals)]

            data = json.dumps(deg_vals)
            mfe.degree_matrix = jsonpickle.encode(deg_vals)
            mfe.save()
        else:
            deg_vals = jsonpickle.decode(mfe.degree_matrix)
            data = json.dumps(deg_vals)
        return HttpResponse(data, content_type='application/json')
    else:
        raise Http404
def get_parents_decomposition(motif_id,
                              decomposition,
                              vo_id=None,
                              experiment=None):
    if vo_id:
        viz_options = VizOptions.objects.get(id=vo_id)
        edge_choice = viz_options.edge_choice
        edge_thresh = viz_options.edge_thresh
    elif experiment:
        edge_choice = get_option('default_doc_m2m_score',
                                 experiment=experiment)
        edge_thresh = get_option('doc_m2m_threshold', experiment=experiment)
    else:
        edge_choice = 'probability'
        edge_thresh = 0.05
    motif = GlobalMotif.objects.get(id=motif_id)
    parent_data = []
    if edge_choice == 'probability':
        docm2m = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=motif,
            probability__gte=edge_thresh,
            decomposition=decomposition).order_by('-probability')
    elif edge_choice == 'overlap_score':
        docm2m = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=motif,
            overlap_score__gte=edge_thresh,
            decomposition=decomposition).order_by('-overlap_score')
    elif edge_choice == 'both':
        docm2m = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=motif,
            overlap_score__gte=edge_thresh,
            probability__gte=edge_thresh,
            decomposition=decomposition).order_by('-overlap_score')
    for dm in docm2m:
        document = dm.document
        parent_data.append(
            get_parent_for_plot_decomp(decomposition,
                                       document,
                                       motif=motif,
                                       edge_choice=edge_choice))

    return parent_data
Example #4
0
def view_parents(request, mass2motif_id, decomposition_id):
    context_dict = {}
    decomposition = Decomposition.objects.get(id=decomposition_id)
    experiment = decomposition.experiment
    mass2motif = GlobalMotif.objects.get(id=mass2motif_id)
    context_dict['mass2motif'] = mass2motif
    context_dict['experiment'] = experiment
    context_dict['decomposition'] = decomposition

    # Thought -- should these options be decomposition specific?
    edge_choice = get_option('default_doc_m2m_score', experiment=experiment)
    edge_thresh = get_option('doc_m2m_threshold', experiment=experiment)

    if edge_choice == 'probability':
        dm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=mass2motif,
            probability__gte=edge_thresh,
            decomposition=decomposition).order_by('-probability')
    elif edge_choice == 'overlap_score':
        dm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=mass2motif,
            overlap_score__gte=edge_thresh,
            decomposition=decomposition).order_by('-overlap_score')
    elif edge_choice == 'both':
        dm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=mass2motif,
            overlap_score__gte=edge_thresh,
            probability__gte=edge_thresh,
            decomposition=decomposition).order_by('-overlap_score')
    else:
        dm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=mass2motif,
            probability__gte=edge_thresh,
            decomposition=decomposition).order_by('-probability')

    originalfeatures = Mass2MotifInstance.objects.filter(
        mass2motif=mass2motif.originalmotif)

    context_dict['motif_features'] = originalfeatures
    context_dict['dm2ms'] = dm2ms
    return render(request, 'decomposition/view_parents.html', context_dict)
Example #5
0
def get_doc_topics(request, decomposition_id, doc_id):
    document = Document.objects.get(id=doc_id)
    decomposition = Decomposition.objects.get(id=decomposition_id)
    score_type = get_option('default_doc_m2m_score',
                            experiment=document.experiment)
    plot_fragments = [
        get_parent_for_plot_decomp(decomposition,
                                   document,
                                   edge_choice=score_type,
                                   get_key=True)
    ]
    return HttpResponse(json.dumps(plot_fragments),
                        content_type='application/json')
Example #6
0
import django
django.setup()

from basicviz.models import Experiment, User, UserExperiment, SystemOptions
from options.views import get_option

exp_id_set = set()
for opt in SystemOptions.objects.all():
    exp_id_set.add(opt.experiment_id)

## check if something wrong with fetching doc_m2m_threshold data
for exp_id in exp_id_set:
    if exp_id:
        experiment = Experiment.objects.get(id=exp_id)
        doc_m2m_threshold = get_option('doc_m2m_threshold',
                                       experiment=experiment)
        if not doc_m2m_threshold:
            print("!!!get_option for expreriment {} failed".format(exp_id))
            break
'''
Updating Rules:
for one experiment:
	if not doc_m2m_threshold setting:
		1. if no default_doc_m2m_score
			=> DO NOTHING
		2. if default_doc_m2m_score is 'probability'
			=> DO NOTHING
		3. if default_doc_m2m_score is 'overlap_score'
			=> probability threshold to 0.0
			=> overlap threshold to original gloabl doc_m2m_threshold
		4. if default_doc_m2m_score is 'both'
Example #7
0
def get_doc_table(request, mf_id, motif_name):
    mfe = MultiFileExperiment.objects.get(id=mf_id)
    links = MultiLink.objects.filter(multifileexperiment=mfe).order_by('experiment__name')
    individuals = [l.experiment for l in links]

    individual_motifs = {}
    for individual in individuals:
        thismotif = Mass2Motif.objects.get(experiment=individual, name=motif_name)
        individual_motifs[individual] = thismotif

    doc_table = []
    individual_names = []
    peaksets = {}
    peakset_list = []
    peakset_masses = []
    for i, individual in enumerate(individuals):
        individual_names.append(individual.name)
        docs = get_docm2m(individual_motifs[individual])
        for doc in docs:
            peakset_index = -1
            ii = doc.document.intensityinstance_set.all()
            if len(ii) > 0:
                ii = ii[0]
                ps = ii.peakset
                if not ps in peaksets:
                    peaksets[ps] = {}
                    peakset_list.append(ps)
                    peakset_masses.append(ps.mz)
                peakset_index = peakset_list.index(ps)
                peaksets[ps][individual] = ii.intensity

            mz = 0
            rt = 0
            md = jsonpickle.decode(doc.document.metadata)
            if 'parentmass' in md:
                mz = md['parentmass']
            elif 'mz' in md:
                mz = md['mz']
            elif '_' in doc.document.name:
                split_name = doc.document.name.split('_')
                mz = float(split_name[0])
            if 'rt' in md:
                rt = md['rt']
            elif '_' in doc.document.name:
                split_name = doc.document.name.split('_')
                rt = float(split_name[1])

            doc_table.append([rt, mz, i, doc.probability, peakset_index])

    # Add the peaks to the peakset object that are not linked to a document
    # (i.e. the MS1 peak is present, but it wasn't fragmented)
    for ps in peaksets:
        # Grab the intensity instances for this peakset
        intensity_instances = ps.intensityinstance_set.all()
        # Extract the individual experiments that are represented
        individuals_present = [i.experiment for i in intensity_instances]
        # Loop over the experiment
        for individual in individuals:
            # If the experiment is not in the current peakset but there is an intensity instance
            if (not individual in peaksets[ps]) and individual in individuals_present:
                # Find the intensity instance
                int_int = filter(lambda x: x.experiment == individual, intensity_instances)
                peaksets[ps][individual] = int_int[0].intensity
                print ps, individual, int_int[0].intensity

    intensity_table = []
    unnormalised_intensity_table = []
    counts = []
    final_peaksets = []

    min_count_options = get_option('heatmap_minimum_display_count',experiment = individuals[0])
    # min_count_options = SystemOptions.objects.filter(key='heatmap_minimum_display_count')
    if len(min_count_options) > 0:
        min_count = int(min_count_options)
    else:
        min_count = 5

    log_intensities_options = get_option('log_peakset_intensities',experiment = individuals[0])
    # log_intensities_options = SystemOptions.objects.filter(key='log_peakset_intensities')
    if len(log_intensities_options) > 0:
        val = log_intensities_options
        if val == 'true':
            log_peakset_intensities = True
        else:
            log_peakset_intensities = False
    else:
        log_peakset_intensities = True
    
    normalise_heatmap_options = get_option('heatmap_normalisation',experiment = individuals[0])
    if len(normalise_heatmap_options) == 0:
        normalise_heatmap_options = 'none'

    for peakset in peaksets:
        new_row = []
        for individual in individuals:
            new_row.append(peaksets[peakset].get(individual, 0))
        count = sum([1 for i in new_row if i > 0])
        if min_count >= 0:
            nz_vals = [v for v in new_row if v > 0]
            if log_peakset_intensities:
                nz_vals = [np.log(v) for v in nz_vals]
                new_row = [np.log(v) if v > 0 else 0 for v in new_row]
            me = sum(nz_vals) / (1.0 * len(nz_vals))
            va = sum([v ** 2 for v in nz_vals]) / len(nz_vals) - me ** 2
            va = math.sqrt(va)
            maxval = max(nz_vals)

            if normalise_heatmap_options == 'none':
                intensity_table.append(new_row)
                unnormalised_intensity_table.append(new_row)
                counts.append(count)
                final_peaksets.append(peakset)
            elif normalise_heatmap_options == 'max':
                new_row_n = [v/maxval for v in new_row]
                intensity_table.append(new_row_n)
                unnormalised_intensity_table.append(new_row)
                counts.append(count)
                final_peaksets.append(peakset)
            elif normalise_heatmap_options == 'standard' and va > 0:
                # if variance is zero, skip...
                unnormalised_intensity_table.append(new_row)
                new_row_n = [(v - me) / va if v > 0 else 0 for v in new_row]
                intensity_table.append(new_row_n)
                counts.append(count)
                final_peaksets.append(peakset)

    # Order so that the most popular are at the top
    if len(final_peaksets) > 0:
        temp = zip(counts, intensity_table, final_peaksets)
        temp = sorted(temp, key=lambda x: x[0], reverse=True)
        counts, intensity_table, final_peaksets = zip(*temp)
        intensity_table = list(intensity_table)

    # Change the indexes in the doc table to match the new ordering
    for row in doc_table:
        old_ps_index = row[-1]
        if old_ps_index > -1:
            old_ps = peakset_list[old_ps_index]
            if old_ps in final_peaksets:
                new_ps_index = final_peaksets.index(old_ps)
            else:
                new_ps_index = -1
            row[-1] = new_ps_index

    final_peakset_masses = [p.mz for p in final_peaksets]
    final_peakset_rt = [p.rt for p in final_peaksets]

    final_peakset_rt_variance = np.array(final_peakset_rt).var()
    return HttpResponse(json.dumps((
        individual_names, doc_table, intensity_table, final_peakset_masses, final_peakset_rt,
        unnormalised_intensity_table,final_peakset_rt_variance)), content_type='application/json')
def make_decomposition_graph(decomposition,
                             experiment,
                             min_degree=5,
                             topic_scale_factor=5,
                             edge_scale_factor=5,
                             ms1_analysis_id=None,
                             doc_max_size=200,
                             motif_max_size=1000):
    # This is the graph maker for a decomposition experiment
    ## Notice mass2motif here is an object of GlobalMotif
    ## Get all unique Global mass2motifs, prepare for *get_docglobalm2m*
    all_docm2ms = DocumentGlobalMass2Motif.objects.filter(
        decomposition=decomposition)
    mass2motifs = set([docm2m.mass2motif for docm2m in all_docm2ms])

    # Find the degrees
    topics = {}
    docm2m_dict = {}
    for mass2motif in mass2motifs:
        topics[mass2motif] = 0
        docm2ms = get_docglobalm2m(mass2motif, decomposition)
        docm2m_dict[mass2motif] = list(docm2ms)

        for d in docm2ms:
            topics[mass2motif] += 1
    to_remove = []
    for topic in topics:
        if topics[topic] < min_degree:
            to_remove.append(topic)
    for topic in to_remove:
        del topics[topic]

    docm2mset = []
    for topic in topics:
        docm2mset += docm2m_dict[topic]

    do_plage_flag = True
    if ms1_analysis_id:
        analysis = DecompositionAnalysis.objects.filter(id=ms1_analysis_id)[0]
        all_logfc_vals = []
        res = DecompositionAnalysisResult.objects.filter(
            analysis=analysis,
            document__in=[docm2m.document for docm2m in docm2mset])
        for analysis_result in res:
            foldChange = analysis_result.foldChange
            logfc = np.log(foldChange)
            if not np.abs(logfc) == np.inf:
                all_logfc_vals.append(np.log(foldChange))
        min_logfc = np.min(all_logfc_vals)
        max_logfc = np.max(all_logfc_vals)

        ## try make graph for plage
        all_plage_vals = []
        for plage_result in DecompositionAnalysisResultPlage.objects.filter(
                analysis=analysis, globalmotif__in=topics.keys()):
            plage_t_value = plage_result.plage_t_value
            all_plage_vals.append(plage_t_value)
        if all_plage_vals:
            min_plage = np.min(all_plage_vals)
            max_plage = np.max(all_plage_vals)
        else:
            do_plage_flag = False

    print "First"
    # Add the topics to the graph
    G = nx.Graph()
    for topic in topics:
        mass2motif = topic.originalmotif
        metadata = jsonpickle.decode(mass2motif.metadata)
        ## try make graph for plage
        if ms1_analysis_id and do_plage_flag:
            ## white to green
            lowcol = [255, 255, 255]
            endcol = [0, 255, 0]
            plage_result = DecompositionAnalysisResultPlage.objects.filter(
                analysis=analysis, globalmotif=topic)[0]
            plage_t_value = plage_result.plage_t_value
            plage_p_value = plage_result.plage_p_value
            pos = (plage_t_value - min_plage) / (max_plage - min_plage)
            r = lowcol[0] + int(pos * (endcol[0] - lowcol[0]))
            g = lowcol[1] + int(pos * (endcol[1] - lowcol[1]))
            b = lowcol[2] + int(pos * (endcol[2] - lowcol[2]))
            col = "#{}{}{}".format("{:02x}".format(r), "{:02x}".format(g),
                                   "{:02x}".format(b))
            if plage_p_value == None:
                size = 10
            elif plage_p_value == 0:
                size = motif_max_size
            else:
                size = min(10 - np.log(plage_p_value) * 200, motif_max_size)
            na = mass2motif.short_annotation
            if na:
                na += ' (' + topic.name + ')'
            else:
                na = topic.name
            G.add_node(
                topic.name,
                group=2,
                name=na + ", " + str(plage_t_value) + ", " +
                str(plage_p_value),
                # size=topic_scale_factor * topics[topic],
                size=size,
                special=True,
                in_degree=topics[topic],
                highlight_colour=col,
                score=1,
                node_id=topic.id,
                is_topic=True)

        else:
            if mass2motif.short_annotation:
                # if 'annotation' in metadata:
                G.add_node(topic.name,
                           group=2,
                           name=mass2motif.short_annotation,
                           size=topic_scale_factor * topics[topic],
                           special=True,
                           in_degree=topics[topic],
                           score=1,
                           node_id=topic.id,
                           is_topic=True)
            else:
                G.add_node(topic.name,
                           group=2,
                           name=topic.name,
                           size=topic_scale_factor * topics[topic],
                           special=False,
                           in_degree=topics[topic],
                           score=1,
                           node_id=topic.id,
                           is_topic=True)

    doc_nodes = []

    print "Second"

    edge_choice = get_option('default_doc_m2m_score', experiment)

    for docm2m in docm2mset:
        # if docm2m.mass2motif in topics:
        if not docm2m.document in doc_nodes:
            metadata = jsonpickle.decode(docm2m.document.metadata)
            if 'compound' in metadata:
                name = metadata['compound']
            elif 'annotation' in metadata:
                name = metadata['annotation']
            else:
                name = docm2m.document.name
            ## do MS1 expression analysis only when user choose a ms1 analysis setting
            if not ms1_analysis_id:
                G.add_node(docm2m.document.name,
                           group=1,
                           name=name,
                           size=20,
                           type='square',
                           peakid=docm2m.document.name,
                           special=False,
                           in_degree=0,
                           score=0,
                           is_topic=False)
            else:
                analysis_result = DecompositionAnalysisResult.objects.filter(
                    analysis=analysis, document=docm2m.document)[0]
                foldChange = analysis_result.foldChange
                pValue = analysis_result.pValue
                logfc = np.log(foldChange)

                ## lowest: blue, logfc==0: white, highest: red
                ## use scaled colour to represent logfc of document
                if logfc == np.inf:
                    col = "#{}{}{}".format('FF', '00', '00')
                elif -logfc == np.inf:
                    col = "#{}{}{}".format('00', '00', 'FF')
                else:
                    lowcol = [0, 0, 255]
                    endcol = [255, 0, 0]
                    midcol = [255, 255, 255]
                    if logfc < 0:
                        # if logfc < -3:
                        #     logfc = -3
                        pos = logfc / min_logfc
                        r = midcol[0] + int(pos * (lowcol[0] - midcol[0]))
                        g = midcol[1] + int(pos * (lowcol[1] - midcol[1]))
                        b = midcol[2] + int(pos * (lowcol[2] - midcol[2]))
                    else:
                        pos = logfc / max_logfc
                        r = midcol[0] + int(pos * (endcol[0] - midcol[0]))
                        g = midcol[1] + int(pos * (endcol[1] - midcol[1]))
                        b = midcol[2] + int(pos * (endcol[2] - midcol[2]))
                    col = "#{}{}{}".format("{:02x}".format(r),
                                           "{:02x}".format(g),
                                           "{:02x}".format(b))

                ## use size to represent pValue of document
                if not pValue:
                    size = 5
                else:
                    size = min(5 - np.log(pValue) * 15, doc_max_size)
                ## represent document node with name + logfc + pValue
                if pValue:
                    name = "{}, {:.3f}, {:.3f}".format(name, logfc, pValue)
                else:
                    name = "{}, {:.3f}, None".format(name, logfc)
                # name += ", " + str(logfc) + ", " + str(pValue)
                G.add_node(docm2m.document.name,
                           group=1,
                           name=name,
                           size=size,
                           type='square',
                           peakid=docm2m.document.name,
                           special=True,
                           highlight_colour=col,
                           logfc=docm2m.document.logfc,
                           in_degree=0,
                           score=0,
                           is_topic=False)

            doc_nodes.append(docm2m.document)

        if edge_choice == 'probability':
            weight = edge_scale_factor * docm2m.probability
        elif edge_choice == 'both':
            weight = docm2m.overlap_score
        else:
            weight = edge_scale_factor * docm2m.overlap_score
        G.add_edge(docm2m.mass2motif.name, docm2m.document.name, weight=weight)
    print "Third"

    return G
def make_intensity_graph(request, motif_id, vo_id, decomposition_id):
    decomposition = Decomposition.objects.get(id=decomposition_id)
    experiment = decomposition.experiment
    if not vo_id == 'nan':
        viz_options = VizOptions.objects.get(id=vo_id)
        experiment = viz_options.experiment
        edge_thresh = viz_options.edge_thresh
        edge_choice = viz_options.edge_choice
    elif experiment:
        edge_choice = get_option('default_doc_m2m_score',
                                 experiment=experiment)
        edge_thresh = get_option('doc_m2m_threshold', experiment=experiment)
    else:
        edge_choice = 'probability'
        edge_thresh = 0.05

    colours = ['#404080', '#0080C0']
    colours = ['red', 'blue']

    data_for_json = []
    motif = GlobalMotif.objects.get(id=motif_id)
    originalmotif = motif.originalmotif
    originalfeatures = Mass2MotifInstance.objects.filter(
        mass2motif=originalmotif, probability__gte=0.01)
    globalfeatures = FeatureMap.objects.filter(
        localfeature__in=[o.feature for o in originalfeatures])
    globalfeatures = [g.globalfeature for g in globalfeatures]
    if edge_choice == 'probability':
        docm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=motif,
            probability__gte=edge_thresh,
            decomposition=decomposition)
    elif edge_choice == 'overlap_score':
        docm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=motif,
            overlap_score__gte=edge_thresh,
            decomposition=decomposition)
    elif edge_choice == 'both':
        docm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=motif,
            overlap_score__gte=edge_thresh,
            probability__gte=edge_thresh,
            decomposition=decomposition)
    else:
        docm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=motif,
            probability__gte=edge_thresh,
            decomposition=decomposition)
    documents = [d.document for d in docm2ms]

    feat_total_intensity = {}
    feat_motif_intensity = {}
    for feature in globalfeatures:
        feat_total_intensity[feature] = 0.0
        feat_motif_intensity[feature] = 0.0
    for feature in globalfeatures:
        fi = DocumentGlobalFeature.objects.filter(
            document__experiment=experiment, feature=feature)
        for ft in fi:
            feat_total_intensity[feature] += ft.intensity
            if ft.document in documents:
                feat_motif_intensity[feature] += ft.intensity

    feat_list = []
    feat_tot_intensity = zip(feat_total_intensity.keys(),
                             feat_total_intensity.values())
    feat_tot_intensity = sorted(feat_tot_intensity,
                                key=lambda x: x[1],
                                reverse=True)
    for feature, tot_intensity in feat_tot_intensity:
        feat_type = feature.name.split('_')[0]
        feat_mz = feature.name.split('_')[1]
        short_name = "{}_{:.4f}".format(feat_type, float(feat_mz))
        feat_list.append(
            [short_name, feat_total_intensity[feature], colours[0]])
        feat_list.append(['', feat_motif_intensity[feature], colours[1]])
        feat_list.append(('', 0, ''))
    data_for_json.append(feat_tot_intensity[0][1])
    data_for_json.append(feat_list)

    return data_for_json
def make_word_graph(request, motif_id, vo_id, decomposition_id):
    decomposition = Decomposition.objects.get(id=decomposition_id)
    experiment = decomposition.experiment
    if not vo_id == 'nan':
        viz_options = VizOptions.objects.get(id=vo_id)
        experiment = viz_options.experiment
        edge_thresh = viz_options.edge_thresh
        edge_choice = viz_options.edge_choice
    elif experiment:
        edge_choice = get_option('default_doc_m2m_score',
                                 experiment=experiment)
        edge_thresh = get_option('doc_m2m_threshold', experiment=experiment)
    else:
        edge_choice = 'probability'
        edge_thresh = 0.05

    data_for_json = []
    motif = GlobalMotif.objects.get(id=motif_id)
    originalmotif = motif.originalmotif
    originalfeatures = Mass2MotifInstance.objects.filter(
        mass2motif=originalmotif, probability__gte=0.01)
    globalfeatures = FeatureMap.objects.filter(
        localfeature__in=[o.feature for o in originalfeatures])
    globalfeatures = [g.globalfeature for g in globalfeatures]
    if edge_choice == 'probability':
        docm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=motif,
            probability__gte=edge_thresh,
            decomposition=decomposition)
    elif edge_choice == 'overlap_score':
        docm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=motif,
            overlap_score__gte=edge_thresh,
            decomposition=decomposition)
    elif edge_choice == 'both':
        docm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=motif,
            overlap_score__gte=edge_thresh,
            probability__gte=edge_thresh,
            decomposition=decomposition)
    else:
        docm2ms = DocumentGlobalMass2Motif.objects.filter(
            mass2motif=motif,
            probability__gte=edge_thresh,
            decomposition=decomposition)
    data_for_json.append(len(docm2ms))
    feat_counts = {}
    for feature in globalfeatures:
        feat_counts[feature] = 0
    for dm2m in docm2ms:
        fi = DocumentGlobalFeature.objects.filter(document=dm2m.document)
        for ft in fi:
            if ft.feature in feat_counts:
                feat_counts[ft.feature] += 1
    colours = '#404080'
    feat_list = []
    for feature in feat_counts:
        feat_type = feature.name.split('_')[0]
        feat_mz = feature.name.split('_')[1]
        short_name = "{}_{:.4f}".format(feat_type, float(feat_mz))
        feat_list.append([short_name, feat_counts[feature], colours])
    feat_list = sorted(feat_list, key=lambda x: x[1], reverse=True)
    data_for_json.append(feat_list)

    return data_for_json
Example #11
0
import django
django.setup()

from basicviz.models import Experiment,User,UserExperiment,SystemOptions
from options.views import get_option


exp_id_set = set()
for opt in SystemOptions.objects.all():
	exp_id_set.add(opt.experiment_id)

## check if something wrong with fetching doc_m2m_threshold data
for exp_id in exp_id_set:
	if exp_id:
		experiment = Experiment.objects.get(id = exp_id)
		doc_m2m_threshold = get_option('doc_m2m_threshold', experiment=experiment)
		if not doc_m2m_threshold:
			print("!!!get_option for expreriment {} failed".format(exp_id))
			break

'''
Updating Rules:
for one experiment:
	if not doc_m2m_threshold setting:
		1. if no default_doc_m2m_score
			=> DO NOTHING
		2. if default_doc_m2m_score is 'probability'
			=> DO NOTHING
		3. if default_doc_m2m_score is 'overlap_score'
			=> probability threshold to 0.0
			=> overlap threshold to original gloabl doc_m2m_threshold