示例#1
0
def finish_plot(E, fig, level, xbins, ybins, h, l, nrows, title, fname,
                ADD_SOURCE):

    percent_time_color = E.fcolors['other'][0]
    set_legend(fig, h, l, text_color=percent_time_color)

    if (xbins, ybins) == (2, 4):
        fig.text(.94,
                 .25,
                 'percent time',
                 color=percent_time_color,
                 fontsize=10,
                 ha='left')

    if nrows == 1:
        typad = 0
        sypad = -.05
    elif nrows >= 2 or nrows < 6:
        typad = 0
        sypad = .05

    add_titles_notes(E, fig, title=title, typad=typad)

    plt.subplots_adjust(hspace=.3)

    save_plot(fname, fig, ADD_SOURCE=ADD_SOURCE, sypad=sypad)
示例#2
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def set_panel_layout(E, fig, err_type, tbin_type='12bins'):

    # legend annotation
    if tbin_type.endswith('bins'):
        fig.text(.7, 1.1, 'gray background: Dark Cycle', fontsize=8)

    xlabel = 'Circadian Time'
    add_xylabels(fig, xlabel=xlabel, xypad=-.15, labelsize=10)

    days_string = E.get_days_to_use_text()
    fig_title = '%s Experiment\nFeatures vs CT, 12bins group avg$\pm$%s\n%s days: %s' % (
        E.short_name, err_type, E.use_days.replace('_',
                                                   '-').title(), days_string)

    add_titles_notes(E, fig, title=fig_title, typad=.1)
    plt.subplots_adjust(hspace=.6, wspace=.6)
示例#3
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def set_panel_layout(E, fig, err_type, tbin_type):
    fig.text(.6, .9, '0: %s, control, %s (grayscale)' %(E.strain_names[0], tbin_type), fontsize=8)
    fig.text(.6, .85, '1: %s, knock-out, %s (colors)' %(E.strain_names[1], tbin_type), fontsize=8)
    if tbin_type.endswith('bins'):
        fig.text(.6, .8, 'gray background: Dark Cycle', fontsize=8)

    xlabel = 'Circadian Time'
    add_xylabels(fig, xlabel=xlabel, xypad=-.02, labelsize=10)

    days_string = E.get_days_to_use_text()
    fig_title = '%s Experiment\nFeatures vs CT, 12bins, group avg$\pm$%s\n%s days: %s' %(
                    E.short_name, err_type,
                    E.use_days.replace('_', '-').title(), days_string
                    )

    add_titles_notes(E, fig, title=fig_title)   
示例#4
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def draw_subplot(experiment,
                 avgs,
                 labels,
                 level,
                 cycle,
                 err_type,
                 fname,
                 plot_subtype,
                 plot_type,
                 ADD_SOURCE=True):
    E = experiment

    figsize, nrows, ncols, _, _ = get_subplot_specs(E,
                                                    num_subplots=len(E.groups))
    fig, axes = plt.subplots(nrows, ncols, figsize=figsize)

    slice_labels = ['M', 'F', 'W', 'other', 'IS']
    colors = [E.fcolors[x][0] for x in slice_labels]

    title, subtitles = get_figure_titles(E, labels, level, cycle, err_type,
                                         plot_type)

    for c in xrange(avgs.shape[0]):

        try:
            ax = axes.flatten()[c]
            if plot_subtype == 'bar':
                stop

            elif plot_subtype == 'pie':
                plot_as_a_pie(ax, avgs[c], colors, slice_labels, subtitles[c])

            if c == 0:
                h, l = ax.get_legend_handles_labels()

        except IndexError:
            ax.axis('off')
            continue

        set_legend(fig, h, l)

        # plt.subplots_adjust(hspace=.4)

    add_titles_notes(E, fig, title=title, typad=-.15, tlxpad=0, tlypad=-.15)

    save_plot(fname, fig, ADD_SOURCE=ADD_SOURCE, labelsize=6, sypad=.25)
示例#5
0
def plot_features_panel_LC_DC_ratio(experiment,
                                    level='group',
                                    bin_type='3cycles',
                                    err_type='sem',
                                    plot_type='features',
                                    ADD_SOURCE=True):
    E = experiment

    print "%s, level: %s, bin_type: %s, err_type: %s, days: %s" % (
        plot_features_panel_LC_DC_ratio.__name__, level, bin_type, err_type,
        E.daysToUse)

    features = E.features_by_activity
    num_features = len(features)
    days_to_use = E.daysToUse

    dirname = E.figures_dir + '%s/vectors/panels_expdays/%s/%s_days/' % (
        plot_type, bin_type, E.use_days)
    if not os.path.isdir(dirname): os.makedirs(dirname)
    fname = dirname + '%s_panel_expdays_LC_DC_ratio' % (plot_type
                                                        )  #s, err_type)

    # using mouseday value
    # ratios = E.generate_feature_vectors_LC_DC_ratio_expdays(features, level, bin_type, err_type)

    # using group averages value
    data_ = E.generate_feature_vectors_expdays(features, level, bin_type,
                                               err_type)
    ratios_ = data_[:, :, :, 2, 0] / data_[:, :, :, 1, 0]  # LC/DC, avgs

    figsize = (14.4, 4.8)
    nrows, ncols = 4, 7
    fig, axes = plt.subplots(nrows, ncols, figsize=figsize, sharex=True)
    xs = days_to_use

    cnt = 0
    for n in xrange(nrows):
        for m in xrange(ncols):
            ax = axes.flatten()[n * ncols + m]
            if n == 0 and m >= 3:
                ax.axis('off')
                continue

            feature = features[cnt]
            colors = get_two_group_features_colors(E, feature)
            subtitle = '%s %s' % (feature,
                                  E.plot_settings_dict[feature]['unit'])

            for g in xrange(E.num_strains):
                # # using mouseday values
                # tkw = {'fmt':'o-', 'ms':2, 'elinewidth':.5, 'capsize':1}
                # ax.errorbar(xs, ratios[g, cnt, :, 0], yerr=ratios[g, cnt, :, 1],
                #     color=colors[g], mec=colors[g], **tkw)

                # using group averages value
                tkw = {'marker': 'o', 'ms': 2, 'zorder': 0}
                ax.plot(xs,
                        ratios_[g, cnt, :],
                        color=colors[g],
                        mec=colors[g],
                        **tkw)
                # use when plotting all for comparison
                # colors_ = ['r', 'y']
                # ax.plot(xs, ratios_[g, cnt, :], color=colors_[g], mec=colors_[g], **tkw)

            if E.short_name == 'HFD2':
                d_day = E.dietChangeDayNumbers[0]
                ax.axvspan(xmin=d_day,
                           xmax=days_to_use[-1],
                           color='.9',
                           zorder=0)

            xlims = ax.get_xlim()
            ax.set_xlim((4, xlims[1]))
            ax.set_ylim((0, ax.get_ylim()[1]))
            ax_cleanup(ax)
            ax.set_title(subtitle, fontsize=10)

            cnt += 1

    fig.text(.6,
             .9,
             '0: %s, control, 24H (grayscale)' % E.strain_names[0],
             fontsize=8)
    fig.text(.6,
             .85,
             '1: %s, knock-out, 24H (colors)' % E.strain_names[1],
             fontsize=8)
    fig.text(.6, .8, 'gray background: diet change', fontsize=8)

    xlabel = 'Experiment Day'
    add_xylabels(fig, xlabel=xlabel, xypad=-.02, labelsize=10)

    days_string = E.get_days_to_use_text()
    fig_title = '%s Experiment\nFeatures vs days, LC/DC ratio %s avg$\pm$%s\nacross %s days: %s' % (
        E.short_name, level, err_type, E.use_days.replace(
            '_', '-').title(), days_string)

    add_titles_notes(E, fig, title=fig_title)

    plt.subplots_adjust(hspace=.6, wspace=.34)
    save_plot(fname, fig, ADD_SOURCE=ADD_SOURCE, sypad=-.02)
示例#6
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def plot_features_panel_DC_LC(experiment,
                              level='group',
                              bin_type='3cycles',
                              err_type='sem',
                              plot_type='features',
                              ADD_SOURCE=True):

    E = experiment

    print "%s, level: %s, bin_type: %s, err_type: %s, days: %s" % (
        plot_features_panel_DC_LC.__name__, level, bin_type, err_type,
        E.daysToUse)

    features = E.features_by_activity
    num_features = len(features)
    days_to_use = E.daysToUse

    dirname = E.figures_dir + '%s/vectors/panels_expdays/%s/%s_days/' % (
        plot_type, bin_type, E.use_days)
    if not os.path.isdir(dirname): os.makedirs(dirname)
    fname = dirname + '%s_panel_expdays_DC_LC_group_%s' % (plot_type, err_type)

    # groups, features, days, cycles, avg/err
    data = E.generate_feature_vectors_expdays(features, level, bin_type,
                                              err_type)
    new_data = data[:, :, :, 1:, :]

    figsize = (14.4, 4.8)
    nrows, ncols = 4, 7
    fig, axes = plt.subplots(nrows, ncols, figsize=figsize, sharex=True)
    xs = days_to_use

    cnt = 0
    for n in xrange(nrows):
        for m in xrange(ncols):
            ax = axes.flatten()[n * ncols + m]
            if n == 0 and m >= 3:
                ax.axis('off')
                continue

            feature = features[cnt]
            # get colors
            if feature.startswith('AS'):
                color1, color2 = [E.fcolors['AS'].values()[x] for x in [1, 3]]
            elif feature.startswith('T'):
                color1, color2 = [
                    E.fcolors[feature[1:]].values()[x] for x in [1, 3]
                ]
            else:
                color1, color2 = [
                    E.fcolors[feature[:1]].values()[x] for x in [1, 3]
                ]

            colors = ['.4', '.7', color1, color2]

            subtitle = '%s %s' % (feature,
                                  E.plot_settings_dict[feature]['unit'])

            for g in xrange(E.num_strains):
                tkw = {'fmt': 'o-', 'ms': 2, 'elinewidth': .5, 'capsize': 1}
                # DC
                mec = '0' if g == 0 else colors[2 * g]
                ax.errorbar(xs,
                            new_data[g, cnt, :, 0, 0],
                            yerr=new_data[g, cnt, :, 0, 1],
                            color=colors[2 * g],
                            mec=mec,
                            **tkw)
                #LC
                mc = '0' if g == 0 else colors[2 * g + 1]
                ax.errorbar(xs,
                            new_data[g, cnt, :, 1, 0],
                            yerr=new_data[g, cnt, :, 1, 1],
                            color=colors[2 * g + 1],
                            mec=mec,
                            **tkw)

            if E.short_name == 'HFD2':
                d_day = E.dietChangeDayNumbers[0]
                ax.axvspan(xmin=d_day,
                           xmax=days_to_use[-1],
                           color='.9',
                           zorder=0)

            xlims = ax.get_xlim()
            ax.set_xlim((4, xlims[1]))
            ax.set_ylim([0, ax.get_ylim()[1]])
            ax_cleanup(ax)
            ax.set_title(subtitle, fontsize=10)

            cnt += 1

    fig.text(.6,
             .9,
             '0: %s, control (grayscale)\nDC:black, LC: gray' %
             E.strain_names[0],
             fontsize=8)
    fig.text(.6,
             .83,
             '1: %s, knock-out (colors)\nDC: dark, LC: light ' %
             E.strain_names[1],
             fontsize=8)
    fig.text(.6, .78, 'gray background: diet change', fontsize=8)

    xlabel = 'Experiment Day'
    add_xylabels(fig, xlabel=xlabel, xypad=-.02, labelsize=10)

    days_string = E.get_days_to_use_text()
    fig_title = '%s Experiment\nFeatures, DC vs. LC, %s avg and %s\nacross %s days: %s' % (
        E.short_name, level, err_type, E.use_days.replace(
            '_', '-').title(), days_string)

    add_titles_notes(E, fig, title=fig_title)

    plt.subplots_adjust(hspace=.6, wspace=.34)
    save_plot(fname, fig, ADD_SOURCE=ADD_SOURCE, sypad=-.02)
示例#7
0
def plot_features_panel_12bins(experiment,
                               level='group',
                               bin_type='12bins',
                               err_type='sem',
                               plot_type='features',
                               ADD_SOURCE=True):

    E = experiment

    print "%s, level: %s, bin_type: %s, err_type: %s, days: %s" % (
        plot_features_panel_12bins.__name__, level, bin_type, err_type,
        E.daysToUse)

    features = E.features_by_activity
    num_features = len(features)
    days_to_use = E.daysToUse
    num_bins = int(bin_type.strip('bins'))
    tbins = my_utils.get_tbins_string(bin_type)

    dirname = E.figures_dir + '%s/vectors/panels_expdays/%s/%s_days/' % (
        plot_type, bin_type, E.use_days)
    if not os.path.isdir(dirname): os.makedirs(dirname)

    data = E.generate_feature_vectors_expdays(features, level, bin_type,
                                              err_type)
    ymaxs = get_ymaxs(data)

    # stop
    for b in xrange(num_bins):
        new_data = data[:, :, :, b, :]
        figsize = (14.4, 4.8)
        nrows, ncols = 4, 7
        fig, axes = plt.subplots(nrows, ncols, figsize=figsize, sharex=True)
        xs = days_to_use

        cnt = 0
        for n in xrange(nrows):
            for m in xrange(ncols):
                ax = axes.flatten()[n * ncols + m]
                if n == 0 and m >= 3:
                    ax.axis('off')
                    continue

                feature = features[cnt]
                colors = get_two_group_features_colors(E, feature)
                subtitle = '%s %s' % (feature,
                                      E.plot_settings_dict[feature]['unit'])

                for g in xrange(E.num_strains):
                    tkw = {
                        'fmt': 'o-',
                        'ms': 2,
                        'elinewidth': .5,
                        'capsize': 1
                    }
                    ax.errorbar(xs,
                                new_data[g, cnt, :, 0],
                                yerr=new_data[g, cnt, :, 1],
                                color=colors[g],
                                mec=colors[g],
                                **tkw)

                if E.short_name == 'HFD2':
                    d_day = E.dietChangeDayNumbers[0]
                    ax.axvspan(xmin=d_day,
                               xmax=days_to_use[-1],
                               color='.9',
                               zorder=0)

                # xmin, xmax = ax.get_xlim()
                # ax.set_xlim((xmin-.5, xmax+.5))
                # ax.set_ylim([0, ymaxs[cnt]])
                ax_cleanup(ax)
                ax.set_title(subtitle, fontsize=10)

                cnt += 1

        xmin, xmax = ax.get_xlim()
        ax.set_xlim((xmin - .5, xmax + .5))

        fig.text(.6,
                 .9,
                 '0: %s, control, %s (grayscale)' %
                 (E.strain_names[0], tbins[b]),
                 fontsize=8)
        fig.text(.6,
                 .85,
                 '1: %s, knock-out, %s (colors)' %
                 (E.strain_names[1], tbins[b]),
                 fontsize=8)
        fig.text(.6, .8, 'gray background: diet change', fontsize=8)

        xlabel = 'Experiment Day'
        add_xylabels(fig, xlabel=xlabel, xypad=-.02, labelsize=10)

        days_string = E.get_days_to_use_text()
        fig_title = '%s Experiment\nFeatures, %s %s avg$\pm$%s, %s\nacross %s days: %s' % (
            E.short_name, bin_type, level, err_type, tbins[b],
            E.use_days.replace('_', '-').title(), days_string)

        add_titles_notes(E, fig, title=fig_title)

        plt.subplots_adjust(hspace=.6, wspace=.34)
        fname = dirname + '%s_panel_expdays_%s_group_%s_bin%d' % (
            plot_type, bin_type, err_type, b)

        save_plot(fname, fig, ADD_SOURCE=ADD_SOURCE, sypad=-.02)
示例#8
0
def draw_subplot(experiment,
                 data,
                 labels,
                 data_rescaled,
                 fname,
                 act='F',
                 level='mouse',
                 sub_type='line',
                 plot_type='ingestion',
                 ADD_SOURCE=False):

    E = experiment

    i_act = 0 if act == 'F' else 1
    units = ['mg/s', 'g', 'min']
    # var_names = [E.HCM_variables[x][i_act] for x in var_types]
    varTypes = ['coeffs', 'tots', 'durs']
    varNames = [E.HCM_derived['events'][plot_type][x][0] for x in varTypes]
    m_labels = np.unique(labels[:, 1])

    figsize, nrows, ncols, sharex, sharey = get_subplot_specs(
        num_subplots=len(m_labels))

    fig, axes = plt.subplots(nrows,
                             ncols,
                             figsize=figsize,
                             sharex=sharex,
                             sharey=sharey)

    colors = [E.fcolors[act].values()[x] for x in [1, 0, 2]]

    title, subtitles = get_figure_titles(E,
                                         labels,
                                         act=act,
                                         plot_type=plot_type)

    hls = []
    for m, mouse in enumerate(m_labels):
        try:
            ax = axes.flatten()[m]

            idx = labels[:, 1] == mouse
            arr = data_rescaled[idx]

            if sub_type == 'line':

                for k, var in enumerate(varNames):

                    ax.plot(arr[:, k], lw=.5, color=colors[k], label=var)
                    # ax.axhline(y=arr.mean()[k], c='grey', alpha='.5', label='')
                    # stop
                    make_annotation(ax, arr, data, k, idx, colors, units)

            elif sub_type == 'bar':
                pass
                # bar_width = .2
                # for k, var in enumerate(varNames):
                #     ind = np.arange(len(arr)) + k * bar_width -.1
                #     tkw = {'lw':.2, 'label':var,
                #             'color':colors[k], 'edgecolor':None,
                #             }
                #     ax.bar(ind, arr[:, k], bar_width, **tkw)

            set_layout(E, ax)

            ax.set_title(subtitles[m], fontsize=10)

            if m == 0:
                h, l = ax.get_legend_handles_labels()

        except IndexError:
            ax.axis('off')
            continue

    # legend
    tkw = {
        'ncol': 3,
        'fontsize': 8,
        'bbox_to_anchor': [0.85, .08],
        'frameon': False
    }
    legend = fig.legend(h, l, **tkw)
    for label in legend.get_lines():
        label.set_linewidth(3)  # the legend line width

    # set subplot labels
    xlabel = 'Experiment Day'
    ylabel = '%s Coefficient' % act
    add_xylabels(fig, xlabel, ylabel)  #, xypad=0, yxpad=0, labelsize=10)
    add_titles_notes(
        E,
        fig,
        title=title,
        # typad=typad,
        # tlxpad=tlxpad,
        # tlypad=typad
    )

    plt.subplots_adjust(bottom=.12, hspace=0.6, wspace=0.4)

    save_plot(fname, fig, ADD_SOURCE=ADD_SOURCE)  #, sypad=-.05)
示例#9
0
def draw_histogram_plot(E, mouse_data, arr_preFast, arr_postFast, mouseNumbers,
                        fname, plot_type, ADD_SOURCE):

    # ZeroLight is one group only
    # for m in xrange(num_mice):
    #     data = mouse_data[m]
    #     label = mouseNumbers[m]
    #     data_pre, data_post = arr_preFast[m], arr_postFast[m]

    #     stop

    # i_act = 0 if act == 'F' else 1
    units = ['mg/s', 'g', 'min']
    # var_names = [E.HCM_variables[x][i_act] for x in var_types]
    varTypes = ['coeffs', 'tots', 'durs']
    varNames = [E.HCM_derived['events'][plot_type][x][0] for x in varTypes]

    num_mice = len(mouseNumbers)
    figsize = (12.8, 3.6)
    nrows, ncols = len(varNames), num_mice

    fig, axes = plt.subplots(nrows,
                             ncols,
                             figsize=figsize,
                             sharex=True,
                             sharey=False)

    colors = [E.fcolors['F'].values()[x] for x in [1, 0, 2]]

    # title, subtitles = get_figure_titles(E, labels, act=act, plot_type=plot_type)

    hls = []
    cnt = 0
    for m in xrange(nrows):  # FC, FT, FD
        data = mouse_data[:, :, m]
        pre, post = arr_preFast[:, m], arr_postFast[:, m]

        for n in xrange(ncols):  # mouseNumbers
            ax = axes.flatten()[cnt]
            # plot quantity across days for each mouse
            ax.plot(data[n, :], lw=.5, color=colors[m])
            if m == 0:
                xmin, xmax = ax.get_xlim()
                ax.axhline(xmin=xmin,
                           xmax=xmax,
                           y=data[n].mean(0),
                           linestyle='-',
                           color=colors[m],
                           zorder=0,
                           label='average FC - up to day 35 value')
                ax.axhline(xmin=xmin,
                           xmax=xmax,
                           y=pre[n],
                           linestyle='--',
                           color='g',
                           zorder=1,
                           label='day%d, FC 4h-preFast value' %
                           E.fastDayNumbers[0])
                ax.axhline(xmin=xmin,
                           xmax=xmax,
                           y=post[n],
                           linestyle=':',
                           color='r',
                           zorder=2,
                           label='day%d FC 1h-postFast value' %
                           E.fastDayNumbers[0])

                ax.set_title('M%d' % mouseNumbers[n], fontsize=10)
                if n == 0:
                    h, l = ax.get_legend_handles_labels()

            if n == 0:
                ax.set_ylabel('%s [%s]' % (varNames[m], units[m]), fontsize=10)

            ax.set_ylim([.9 * data.min(), 1.1 * data.max()])
            set_layout2(E, ax, m, n)

            cnt += 1

    # legend
    tkw = {'fontsize': 8, 'bbox_to_anchor': [0.8, .15], 'frameon': False}
    legend = fig.legend(h, l, **tkw)
    for label in legend.get_lines():
        label.set_linewidth(3)  # the legend line width

    # set subplot labels
    xlabel = 'Experiment Day'
    add_xylabels(fig, xlabel)
    add_titles_notes(
        E,
        fig,
        title='F-Coefficient, F-Total Amounts, F-Total PhotoBeam BreakTime')

    plt.subplots_adjust(bottom=.12)  #, hspace=0.6, wspace=0.4)

    save_plot(fname, fig, ADD_SOURCE=ADD_SOURCE, sypad=-.03)
示例#10
0
def plot_HCM_system_time(E, ttype='maintenance', ADD_SOURCE=True):
    """plots system_on_off 
    """
    if ttype == 'maintenance':
        HCM_time, labels = E.get_HCM_maintenance_time() 
        xlims = [2, 8]
        xticks = range(2, 10+1, 2)
        xticklabels = xticks

    elif ttype == 'recording':
        HCM_time, labels = E.get_HCM_recording_time() 
        xlims = [2, 34]
        xticks = range(4, 32+1, 4)
        xticklabels = [str(x) for x in range(4, 24+1, 4)] \
                    + [str(x) for x in range(4, 10+1, 4)]
        
    print "%s, %s days.." %(plot_HCM_system_time.__name__, E.use_days)

    figsize, nrows, ncols, sharex, sharey = \
            get_subplot_specs(E, num_subplots=len(E.groups), plot_type='subplot')
    fig, axes = plt.subplots(nrows, ncols, figsize=figsize, sharex=sharex, sharey=sharey)

    for strain in range(nrows * ncols):
        ax = axes.flatten()[strain] if type(axes) == np.ndarray else axes
        idx = labels [:, 0] == strain
        data = HCM_time[idx] / 3600. - 7
        c = 0
        for row in data:
            ax.plot([row[0], row[1]], [c, c], lw=0.5, color='0.5')
            c += 1

        ax.set_xlim(xlims)
        ax.set_xticks(xticks)
        ax.set_xticklabels(xticklabels)
        
        if ttype == 'maintenance':
            text = 'avg:\n%1.1fmin' %(np.diff(data).mean() * 60)
        
        elif ttype == 'recording':
            text = 'avg:\n%1.2fhrs' %np.diff(data).mean()
            ax.axvline(x=12, linestyle='--', color='k')
            ax.axvline(x=24, linestyle='--', color='k')

        ax.text(.9, .9, text, fontsize=10, 
                ha='center', transform=ax.transAxes)  
        

        ax.set_xlabel('Circadian Time')
        ax.set_ylabel('Obs. days', labelpad=10)
        ax.set_title('group%d: %s' %(strain, E.strain_names[strain]), y=1.05)  

        ax_cleanup(ax, labelsize=10)


    title = '%sExp\n%s days\nDaily %s Time' %(
                E.short_name, E.use_days.replace('_', '-').title(), ttype.title())
    add_titles_notes(E, fig, 
                    title=title,
                    typad=.18,
                    tlxpad=-.1,
                    tlypad=.15,
                    HP_TEXT=False)

    plt.subplots_adjust(wspace=0.4)
    
    # save
    dirname_out = E.figures_dir + 'HCM_recording_time/%s_days/' %E.use_days
    if not os.path.isdir(dirname_out): os.makedirs(dirname_out)
    fname = dirname_out + 'HCMsystem_%s_time_%s_days' %(ttype, E.use_days)
    save_plot(fname, fig, ADD_SOURCE=ADD_SOURCE, sypad=-.1)        
示例#11
0
def plot_raster_groups(E, group_list, bin_type='12bins', SHOW_DAYS=True, 
        plot_type='raster', ADD_SOURCE=True):
    """ does not plot ignored mice/mousedays
    """
    dirname_out = E.figures_dir + '%ss/%s/group/%s_days/' %(plot_type, bin_type, E.use_days)
    if not os.path.isdir(dirname_out): os.makedirs(dirname_out)
    
    print "%s, %s days.." %(plot_raster_groups.__name__, E.use_days)

    y_sep = 10  
    for strain in group_list:
        group = E.get_group_object(groupNumber=strain)

        num_mice = len(group.count_mice()[0])    # mice ok
        if num_mice > 12 and num_mice <=16:
            nrows, ncols = (4,4) 
        elif num_mice > 8 and num_mice <=12:
            nrows, ncols = (3, 4)
            figsize = (12.8, 6.4)
          
        fig, axes = plt.subplots(nrows, ncols, figsize=figsize)

        m = 0       # mouse counter
        for mouse in group.individuals:
            
            ax = axes.flatten()[m]

            if mouse.ignored:
                print mouse, 'excluded'
                ax.text(.5, .6, 'M%d\nexcluded' %mouse.mouseNumber, 
                    fontsize=12, color='.5', ha='center', va='center')
                ax.axis('off')

            else:

                cnt = 0
                for MD in mouse.mouse_days:
                    if MD.dayNumber in E.daysToUse: 

                        y_offset = y_sep * (-cnt)
                        
                        if MD.ignored:
                            print MD, 'excluded'
                            ax.text(18, y_offset-5, 'D%d excluded' %MD.dayNumber, 
                                    fontsize=8, color='.5', ha='center', va='center')
                            ax.axis('off')

                        else:
                            print MD
                            plot_events(MD, fig, ax, y_offset)

                            if SHOW_DAYS:
                                if m%4 == 0:
                                    show_days(MD, ax, y_offset, 
                                                labelsize=8)

                        cnt += 1
                
                # subtitle
                ax.set_title('M%d' %mouse.mouseNumber, y=1.1, fontsize=10)
                set_raster_layout(fig, ax, num_days=len(E.daysToUse)), 
                add_DC_rectangle_to_raster(ax, ypos=5, height=1.5)

            m += 1

        remove_axes_not_used(group, axes, nrows, ncols, m)

        add_titles_notes(E, fig, title=group.get_figtitle())

        plt.subplots_adjust(hspace=0.4)
        
        print "saving.."
        fname = dirname_out + '%s_group%d' %(plot_type, group.number)
        save_plot(fname, fig, ADD_SOURCE=ADD_SOURCE, sypad=.03)
示例#12
0
def plot_events(MD, fname, plot_type, bin_type='12bins', FLAG_IGNORED=False):

    E = MD.experiment

    varNames, colors, offsets, heights, labels, label_offsets = \
                                                get_settings_and_annotations(MD)

    figsize = (12., 3.6)
    fig, ax = plt.subplots(figsize=figsize)

    other_color = E.fcolors['other'][0]

    c = 0
    for tup in zip(varNames, colors, offsets, heights, labels, label_offsets):

        name, color, offset, height, label, label_offset = tup

        events = MD.load(name) / 3600. - 7  # why here did I use -6.5 ??
        if name in ['CT_out_HB', 'CT_at_HB']:
            ax.scatter(events,
                       offset * np.ones(events.shape[0]),
                       c=color,
                       marker='|',
                       s=150,
                       lw=0.01,
                       edgecolor=None)
        else:
            for x in events:
                event_patch = patches.Rectangle(
                    (x[0], offset),
                    x[1] - x[0],
                    height,  # xy lower left corner, width, height
                    lw=0.001,
                    fc=color,
                    ec=color)
                ax.add_patch(event_patch)

            if name in [
                    'AS_timeSet', 'FB_timeSet', 'WB_timeSet', 'MB_timeSet'
            ]:
                print_duration(ax, events, offset, name, color)

        ax.text(4.5,
                label_offset,
                label,
                color=color,
                ha='right',
                va='center',
                fontsize=8,
                clip_on=False)

    set_raster_layout(fig,
                      ax,
                      num_days=len(E.daysToUse),
                      bin_type=bin_type,
                      SHIFT=E.BIN_SHIFT,
                      tshift=E.binTimeShift)

    add_DC_rectangle_to_raster(ax, ypos=-.3, height=.3)

    add_titles_notes(
        E,
        fig,
        title=MD.get_figtitle() + ', %s' % bin_type,
        TL_NOTE=True,
    )

    if MD.ignored:
        fig.text(.3,
                 1.02,
                 'MD excluded',
                 fontsize=18,
                 color='.5',
                 ha='right',
                 va='bottom',
                 transform=ax.transAxes)

    # begin/end fast
    if E.short_name == '2CFast':
        if MD.dayNumber in E.fastDayNumbers + E.reFeedDayNumbers:
            text = '"FAST"' if MD.dayNumber in E.fastDayNumbers else '"REFEED"'
            fig.text(.15,
                     1.05,
                     text,
                     fontsize=18,
                     color=other_color,
                     ha='left',
                     va='bottom',
                     transform=ax.transAxes)

            show_fast_times(E,
                            ax,
                            day_num=MD.dayNumber,
                            TEXT=True,
                            color=other_color)

    print "saving.."
    save_plot(fname, fig, ADD_SOURCE=True)
示例#13
0
def draw_position_density_tbins2(E,
                                 data,
                                 mouseNumbers,
                                 tbin_type,
                                 err_type,
                                 xbins,
                                 ybins,
                                 fig_title,
                                 fname,
                                 rect_HB=None,
                                 obs_rect=None,
                                 plot_type='position_density',
                                 ADD_SOURCE=False):

    C = Cage()

    # figure
    figsize = (6.4, 6.4)
    nrows, ncols = data.shape[0], data.shape[1]

    fig, axes = plt.subplots(nrows, ncols, figsize=figsize)

    cmap = plt.get_cmap("viridis")
    vmin, vmax = .0001, 1.
    if (xbins, ybins) == (2, 4):
        vmin = 0.01
    extent = [C.CMXLower, C.CMXUpper, C.CMYLower, C.CMYUpper]

    percent_time_color = E.fcolors['other'][0]

    row_labels = ['M%d' % m for m in mouseNumbers]
    column_labels = ['D%d' % d for d in E.daysToUse]

    for r in xrange(nrows):
        # display row labels
        top, bottom, left, right = [
            getattr(fig.subplotpars, x)
            for x in ['top', 'bottom', 'left', 'right']
        ]
        yy = top - .025 - (top - bottom) * r / nrows
        fig.text(left - .1, yy, row_labels[r], va='center', fontsize=8)

        for c in xrange(ncols):
            # display column labels
            if r < 1:
                xx = left + .02 + (right - left) * c / ncols
                fig.text(xx,
                         top + .02,
                         column_labels[c],
                         ha='center',
                         fontsize=8)

            try:
                ax = axes[r, c] if type(
                    axes) is np.ndarray else axes  # when just one axis

                Z3 = data[r, c, :, :, 0]  # plt average only for the moment

                if np.isnan(Z3).all():
                    ax.axis('off')

                else:
                    Z3_ = Z3.copy()
                    Z3_[Z3 <
                        1e-4] = 1e-4  # round small numbers to almost zero for plotting

                    im = ax.imshow(Z3_,
                                   interpolation='nearest',
                                   cmap=cmap,
                                   norm=LogNorm(vmin=vmin,
                                                vmax=vmax))  #, extent=extent)

                    set_position_density_layout(fig, ax, im)

                    if (xbins, ybins) == (2, 4):
                        draw_homebase_star(ax,
                                           rect_HB[r, c],
                                           color=percent_time_color)

                if r * c < 1:
                    hh, ll = ax.get_legend_handles_labels()

            except IndexError:
                ax.axis('off')
                continue

    set_colorbar(fig, ax, im)
    set_legend(fig, hh, ll, xbins, ybins, text_color=percent_time_color)

    add_titles_notes(E,
                     fig,
                     title=fig_title,
                     titlesize=14,
                     typad=.08,
                     TL_NOTE=False)

    plt.subplots_adjust(hspace=.2, wspace=.05)

    save_plot(fname, fig, ADD_SOURCE=ADD_SOURCE, sypad=.03)
示例#14
0
def draw_position_density_tbins(E,
                                data,
                                labels,
                                tbin_type,
                                level,
                                err_type,
                                xbins,
                                ybins,
                                fname,
                                rect_HB=None,
                                obs_rect=None,
                                plot_type='position_density',
                                ADD_SOURCE=False):

    C = Cage()

    # figure
    figsize, nrows, ncols = get_subplot_specs(E,
                                              num_subplots=data.shape[0],
                                              plot_type=plot_type,
                                              sub_type=tbin_type)

    fig, axes = plt.subplots(nrows, ncols, figsize=figsize)

    cmap = plt.get_cmap("viridis")
    vmin, vmax = .0001, 1.
    if (xbins, ybins) == (2, 4):
        vmin = 0.01
    extent = [C.CMXLower, C.CMXUpper, C.CMYLower, C.CMYUpper]

    percent_time_color = E.fcolors['other'][0]

    title, subtitles = get_figure_titles(E,
                                         labels=labels,
                                         level=level,
                                         tbin_type=tbin_type,
                                         err_type=err_type,
                                         plot_type=plot_type)

    data_ = data.swapaxes(0, 1)
    arr = my_utils.get_CT_bins(
        bin_type=tbin_type) / 3600 - 7  # CT in hours. num_tbins=arr.shape[0]
    row_labels = ['CT%d-%d' % (row[0], row[1]) for row in arr]
    column_labels = subtitles

    for r in xrange(nrows):
        # row labels
        top, bottom, left, right = [
            getattr(fig.subplotpars, x)
            for x in ['top', 'bottom', 'left', 'right']
        ]
        yy = top - .03 - (top - bottom) * r / nrows
        fig.text(left - .1, yy, row_labels[r], va='center', fontsize=8)

        for c in xrange(ncols):
            # column labels
            if r < 1:
                xx = left + .01 + (right - left) * c / ncols
                fig.text(xx, top + .03, column_labels[c], fontsize=8)

            bin_data = data_[r, c, :, :]

            try:
                ax = axes[r, c] if type(
                    axes) is np.ndarray else axes  # when just one axis

                Z3 = bin_data[:, :, 0]  # plt average only for the moment

                if np.isnan(Z3).all():
                    # ax.text(.5, .5, subtitles[r] + ' excluded',
                    #     fontsize=12, color='.5', ha='center', va='center')
                    ax.axis('off')

                else:
                    Z3_ = Z3.copy()
                    Z3_[Z3 <
                        1e-4] = 1e-4  # round small numbers to almost zero for plotting

                    im = ax.imshow(Z3_,
                                   interpolation='nearest',
                                   cmap=cmap,
                                   norm=LogNorm(vmin=vmin,
                                                vmax=vmax))  #, extent=extent)

                    # ax.set_title(subtitles[c])
                    set_position_density_layout(fig, ax, im)
                    if (xbins, ybins) == (2, 4):
                        draw_homebase_star(ax,
                                           rect_HB[c],
                                           color=percent_time_color)

                if r * c < 1:
                    hh, ll = ax.get_legend_handles_labels()

            except IndexError:
                ax.axis('off')
                continue

    set_colorbar(fig, ax, im)
    set_legend(fig, hh, ll, xbins, ybins, text_color=percent_time_color)

    typad = .15  #if level == 'group' else 0
    add_titles_notes(E,
                     fig,
                     title=title,
                     typad=typad,
                     titlesize=14,
                     TL_NOTE=False)

    plt.subplots_adjust(hspace=.2, wspace=.05)

    sypad = -.05 if level == 'group' else .05

    save_plot(fname, fig, ADD_SOURCE=ADD_SOURCE, sypad=sypad)