Example #1
0
def plot_latency_v0(ms_files, labels, plot_file, plot_dir):

    colors = plot_util.COLORLISTS[len(ms_files)]
    markers = plot_util.MARKERS

    for i, (ms_file, label, m,
            c) in enumerate(zip(ms_files, labels, markers, colors)):
        xs, ys, errs = data_util.get_performance_data(ms_file)

        plt.plot(xs,
                 ys,
                 label=label,
                 lw=4,
                 markersize=8,
                 alpha=0.5,
                 marker=m,
                 color=c)

        #plt.errorbar(xs, ys, yerr=errs, label=label,
        #                 lw=4,
        #                 markersize=8,
        #                 marker=m,
        #                 color=c)

    filename = os.path.join(plot_dir, plot_file)

    plot_util.format_plot("Num Apps", "Average Latency (us)", 15)

    plt.tight_layout()
    plt.yscale('log')
    plt.legend(loc=0, fontsize=15)
    plt.savefig(filename + ".pdf")

    plt.clf()
Example #2
0
def plot_by_num_apps_v0(ms_files, labels, num_setups, plot_file, plot_dir):
    colors = plot_util.COLORLISTS[len(ms_files)]
    markers = plot_util.MARKERS

    metric = "F1"

    for j in range(2):

        lines = []
        all_pts = []

        for i, (ms_file, label, m,
                c) in enumerate(zip(ms_files, labels, markers, colors)):
            metrics, fpses = data_util.get_scheduler_data(ms_file)

            xs = []
            ys = []
            errs = []
            for num_apps in sorted(metrics.keys()):
                if num_setups > len(metrics[num_apps]):
                    continue
                xs.append(num_apps)
                ys.append(np.average(metrics[num_apps]))
                errs.append(np.std(metrics[num_apps]))

            plt.plot(xs,
                     ys,
                     label=label,
                     lw=4,
                     markersize=8,
                     alpha=0.5,
                     marker=m,
                     color=c)

            #plt.errorbar(xs, ys, yerr=errs, label=label,
            #                 lw=4,
            #                 markersize=8,
            #                 marker=m,
            #                 color=c)

        plot_util.format_plot("Num Apps", "Average Event " + metric)
        plt.title(str(num_setups) + " setups per point", fontsize=20)

        plt.ylim(0, 1)

        filename = os.path.join(plot_dir, plot_file + "-" + metric)

        plt.legend(loc=0, fontsize=15)
        plt.savefig(filename + ".pdf")

        plt.clf()
def plot_precision(ms_files,
                   max_files,
                   min_files,
                   plot_files,
                   titles,
                   plot_dir,
                   errbars=True):
    for i in range(2):
        for ms_file, max_file, min_file, plot_file, title \
                in zip(ms_files, max_files, min_files, plot_files, titles):
            xs1, ys1, errs1, _, _ = get_precision_data(ms_file)
            xs2, ys2, errs2, _, _ = get_precision_data(max_file)
            xs3, ys3, errs3, _, _ = get_precision_data(min_file)

            if not errbars:
                errs3 = None
                errs2 = None
                errs1 = None
            plt.errorbar(xs3,
                         ys3,
                         yerr=errs3,
                         lw=4,
                         markersize=8,
                         marker=plot_util.NO_SHARING['marker'],
                         color=plot_util.NO_SHARING['color'],
                         label=plot_util.NO_SHARING['label'])
            plt.errorbar(xs2,
                         ys2,
                         yerr=errs2,
                         lw=4,
                         markersize=8,
                         marker=plot_util.MAX_SHARING['marker'],
                         color=plot_util.MAX_SHARING['color'],
                         label=plot_util.MAX_SHARING['label'])
            plt.errorbar(xs1,
                         ys1,
                         yerr=errs1,
                         lw=4,
                         markersize=8,
                         marker=plot_util.MAINSTREAM['marker'],
                         color=plot_util.MAINSTREAM['color'],
                         label=plot_util.MAINSTREAM['label'])

            plot_util.format_plot("Number of concurrent apps",
                                  "Event Precision")
            plt.xlim(max(min(xs1), 2), max(xs1))
            plt.ylim(0, 1)

            plt.savefig(plot_dir + "/" + plot_file + "-precision.pdf")
            plt.clf()
def plot_recall(ms_files,
                max_files,
                min_files,
                plot_files,
                titles,
                plot_dir,
                version=0):
    for i in range(2):
        for ms_file, max_file, min_file, plot_file, title \
                in zip(ms_files, max_files, min_files, plot_files, titles):
            xs1, ys1, errs1, losses1, fpses1 = get_recall_data(
                ms_file, version)
            xs2, ys2, errs2, losses2, fpses2 = get_recall_data(
                max_file, version)
            xs3, ys3, errs3, losses3, fpses3 = get_recall_data(
                min_file, version)

            plt.errorbar(xs3,
                         ys3,
                         yerr=errs3,
                         lw=4,
                         markersize=8,
                         marker=plot_util.NO_SHARING['marker'],
                         color=plot_util.NO_SHARING['color'],
                         label=plot_util.NO_SHARING['label'])
            plt.errorbar(xs2,
                         ys2,
                         yerr=errs2,
                         lw=4,
                         markersize=8,
                         marker=plot_util.MAX_SHARING['marker'],
                         color=plot_util.MAX_SHARING['color'],
                         label=plot_util.MAX_SHARING['label'])
            plt.errorbar(xs1,
                         ys1,
                         yerr=errs1,
                         lw=4,
                         markersize=8,
                         marker=plot_util.MAINSTREAM['marker'],
                         color=plot_util.MAINSTREAM['color'],
                         label=plot_util.MAINSTREAM['label'])

            plot_util.format_plot("Number of concurrent apps", "Event Recall")
            plt.xlim(max(min(xs1), 2), max(xs1))
            plt.ylim(0, 1)

            plt.savefig(plot_dir + "/" + plot_file + "-recall.pdf")
            plt.clf()
Example #5
0
def plot_bar_v0(ms_files, label_prefixes, plot_file, plot_dir, limit=20):
    colors = plot_util.COLORLISTS[len(ms_files)]

    metric = "F1"
    title = "F1"

    width = 0.3

    for j in range(2):

        lines = []
        all_pts = []

        for i, (ms_file, label_prefix,
                c) in enumerate(zip(ms_files, label_prefixes, colors)):
            metrics, fpses = data_util.get_scheduler_data(ms_file)

            ys = []
            avg_fpses = []
            for num_apps in sorted(metrics.keys()):
                ys += metrics[num_apps]
                avg_fpses += fpses[num_apps]

            xs = range(len(ys))

            xs_bar = [x + (i * width) for x in xs]
            plt.bar(xs_bar[:limit],
                    ys[:limit],
                    width,
                    color=c,
                    alpha=0.5,
                    label=label_prefix)

        plot_util.format_plot("Config ID", "Event " + title)

        plt.ylim(0, 1)

        filename = os.path.join(plot_dir, plot_file + "-" + metric)

        plt.legend(loc=3, fontsize=15)
        plt.savefig(filename + ".pdf")

        plt.clf()
def plot_correlation(ms_files, labels, plot_file, plot_dir, version=0):
    colors = plot_util.COLORLISTS[len(ms_files)]
    markers = plot_util.MARKERS[:len(ms_files)]
    for i in range(2):
        for ms_file, label, c, m in zip(ms_files, labels, colors, markers):
            xs, ys, errs, losses, fpses = get_recall_data(ms_file, version)
            plt.errorbar(xs,
                         ys,
                         yerr=errs,
                         label=label,
                         lw=4,
                         markersize=8,
                         marker=m,
                         color=c)

        plot_util.format_plot("Number of concurrent apps", "Recall")
        plt.xlim(max(min(xs), 2), max(xs))
        plt.ylim(0, 1)

        plt.savefig(plot_dir + "/" + plot_file + "-correlation.pdf")
        plt.clf()
def run(exponent_range, num_frozen, plot_dir):
    #exponents = range(8, exponent_range + 2, 2)
    #c0s = np.arange(0, 0.2, 0.05)

    epses = np.arange(0, 0.4, 0.1)
    max_accs = np.arange(0.4, 1, 0.2)

    exponent = 10
    c0 = 0.1

    #epses = [epses[1]]
    #max_accs = [max_accs[1]]

    for eps in epses:
        for max_acc in max_accs:
            plot_range(exponent, c0, eps, max_acc, num_frozen)
    plot_file = os.path.join(plot_dir, "variants")
    plot_util.format_plot("Number of frozen layers", "Top-1 Accuracy")
    plt.ylim(0, 1)
    plt.savefig(plot_file)
    plt.clf()
def plot_x_voting(ms_files,
                  labels,
                  plot_file,
                  plot_dir,
                  dual=False,
                  frontier=False):
    colors = plot_util.COLORLISTS[4]
    colors = [colors[0], colors[3], colors[1], colors[2]]
    markers = plot_util.MARKERS[:len(ms_files)]

    metrics = ["f1", "recall", "precision"]
    titles = ["F1-score", "Recall", "Precision"]

    for metric, title in zip(metrics, titles):
        for i in range(2):
            fig, ax1 = plt.subplots()
            if dual:
                ax2 = ax1.twinx()

            lines = []
            all_pts = []
            for ms_file, label, c, m in zip(ms_files, labels, colors, markers):
                if metric == 'f1':
                    xs, ys, errs, losses, fpses = get_f1_data(ms_file)
                elif metric == 'recall':
                    xs, ys, errs, losses, fpses = get_recall_data(ms_file, 1)
                elif metric == 'precision':
                    xs, ys, errs, losses, fpses = get_precision_data(ms_file)
                if frontier:
                    if label == "7-voting":
                        lines.append(
                            ax1.errorbar(xs,
                                         ys,
                                         yerr=errs,
                                         label=label,
                                         lw=2,
                                         markersize=6,
                                         marker=m,
                                         color=c))
                    else:
                        lines.append(
                            ax1.errorbar(xs,
                                         ys,
                                         yerr=errs,
                                         label=label,
                                         lw=2,
                                         markersize=4,
                                         marker=m,
                                         color=c))
                    # lines.append(ax1.scatter(xs, ys, label=label, s=50,
                    # edgecolor='black', marker=m, color=c))
                    all_pts += list(zip(xs, ys))
                else:
                    lines.append(
                        ax1.errorbar(xs,
                                     ys,
                                     yerr=errs,
                                     label=label,
                                     lw=4,
                                     markersize=8,
                                     marker=m,
                                     color=c))
                if dual:
                    ax2.plot(xs,
                             fpses,
                             lw=2,
                             markersize=8,
                             alpha=0.2,
                             marker=m,
                             color=c)

            if frontier:
                if plot_file == 'voting-train-500-f1' and metric == 'f1':
                    xss, ys = plot_util.frontier(all_pts, True)
                else:
                    xss, ys = plot_util.frontier(all_pts, False)

                lines += ax1.plot(xss, ys, '--', label='Pareto Frontier', lw=7)

                ax1.set_ylim(0, 1)

            if dual:
                plot_util.format_plot_dual(ax1, ax2,
                                           "Number of concurrent apps",
                                           "Event " + title, "Average FPS")
            else:
                plot_util.format_plot("Number of concurrent apps",
                                      "Event " + title)
            ax1.set_xlim(max(min(xs), 2), max(xs))

            filename = plot_dir + "/" + plot_file + "-" + metric
            if dual:
                filename += "-dual"
            if frontier:
                filename += "-frontier"
            labels = [l.get_label() for l in lines]
            leg = ax1.legend(lines, labels, loc=0, fontsize=15)
            leg.get_frame().set_alpha(0.5)
            plt.savefig(filename + ".pdf")
def plot_f1(ms_files,
            max_files,
            min_files,
            plot_files,
            titles,
            plot_dir,
            errbars=True,
            xlim=None,
            annotations=[],
            ms_variant_files=[],
            ms_variant_name=None,
            legend=True,
            legend_xargs={}):
    # import matplotlib
    # matplotlib.use('ps')
    # matplotlib.rc('text', usetex=True)
    # matplotlib.rc('text.latex', preamble='\usepackage{xcolor}')
    for i in range(2):
        for i, (ms_file, max_file, min_file, plot_file, title) \
                in enumerate(zip(ms_files, max_files, min_files, plot_files, titles)):
            ms_variant_file = ms_variant_files[i] if ms_variant_files else None
            xs1, ys1, errs1, losses1, fpses1 = get_f1_data(ms_file)
            xs2, ys2, errs2, losses2, fpses2 = get_f1_data(max_file)
            xs3, ys3, errs3, losses3, fpses3 = get_f1_data(min_file)
            if ms_variant_file:
                xs4, ys4, errs4, losses4, fpses4 = get_f1_data(ms_variant_file)

            plot_util.format_plot("Number of concurrent apps",
                                  "Event F1-score")
            if xlim:
                plt.xlim(*xlim)
            else:
                plt.xlim(max(min(xs1), 2), max(xs1))
            plt.ylim(0, 1)

            if not errbars:
                errs3 = None
                errs2 = None
                errs1 = None
            plt.errorbar(xs3,
                         ys3,
                         yerr=errs3,
                         lw=4,
                         markersize=8,
                         marker=plot_util.NO_SHARING['marker'],
                         color=plot_util.NO_SHARING['color'],
                         label=plot_util.NO_SHARING['label'])
            plt.errorbar(xs2,
                         ys2,
                         yerr=errs2,
                         lw=4,
                         markersize=8,
                         marker=plot_util.MAX_SHARING['marker'],
                         color=plot_util.MAX_SHARING['color'],
                         label=plot_util.MAX_SHARING['label'])
            plt.errorbar(xs1,
                         ys1,
                         yerr=errs1,
                         lw=4,
                         markersize=8,
                         marker=plot_util.MAINSTREAM['marker'],
                         color=plot_util.MAINSTREAM['color'],
                         label=plot_util.MAINSTREAM['label'])

            # To get calculation for atc2018.
            diffs = [[], []]
            for x1, y1, x2, y2, x3, y3 in zip(xs1, ys1, xs2, ys2, xs3, ys3):
                # print "should be same", x1, x2, x3
                assert x1 == x2 == x3
                print x1, y1, y2, y3, "%", y1 / y2, y1 / y3
                diffs[0].append(y1 / y2)
                diffs[1].append(y1 / y3)
                # print "difference", 0., y1 - y2, y1 - y3
            print "max", max(diffs[0]), max(diffs[1])

            if ms_variant_file:
                plt.errorbar(xs4,
                             ys4,
                             yerr=errs4,
                             lw=4,
                             markersize=8,
                             marker=plot_util.MAINSTREAM_VARIANT['marker'],
                             color=plot_util.MAINSTREAM_VARIANT['color'],
                             label=ms_variant_name if ms_variant_name else
                             plot_util.MAINSTREAM_VARIANT['label'])

            if legend:
                leg = plt.legend(**legend_xargs)
                leg.get_frame().set_alpha(0.5)

            plt.savefig(plot_dir + "/" + plot_file + "-f1.pdf")

            if len(annotations) > 0:
                assert len(annotations) == 6

                annotations_params = [
                    {
                        'xy': (-30, 30),
                        'src': 1,
                        'name': 'a'
                    },
                    {
                        'xy': (-280, 40),
                        'src': 1,
                        'name': 'b'
                    },
                    {
                        'xy': (15, -70),
                        'src': 2,
                        'name': 'e'
                    },
                    {
                        'xy': (-130, -40),
                        'src': 2,
                        'name': 'd'
                    },
                    {
                        'xy': (35, -25),
                        'src': 3,
                        'name': 'c'
                    },
                    {
                        'xy': (-170, 30),
                        'src': 3,
                        'name': 'f'
                    },
                ]
                for annotation, params in zip(annotations, annotations_params):
                    if params['src'] == 1:
                        (x, y, loss,
                         fps) = (xs1[annotation], ys1[annotation],
                                 losses1[annotation], fpses1[annotation])
                    elif params['src'] == 2:
                        (x, y, loss,
                         fps) = (xs2[annotation], ys2[annotation],
                                 losses2[annotation], fpses2[annotation])
                    elif params['src'] == 3:
                        (x, y, loss,
                         fps) = (xs3[annotation], ys3[annotation],
                                 losses3[annotation], fpses3[annotation])

                    # plt.annotate("\\textcolor{{red}}{{({})}} Frame Acc: {}, FPS: {}".format(params["name"], 1-loss, fps),                         fpses3[annotation])
                    plt.annotate("({}) Frame Acc: {}, FPS: {}".format(
                        params["name"], 1 - loss, fps),
                                 xy=(x, y),
                                 xytext=params['xy'],
                                 xycoords='data',
                                 fontsize=15,
                                 textcoords='offset points',
                                 arrowprops=dict(arrowstyle="->"))

                plt.savefig(plot_dir + "/" + plot_file + "-f1-annotated.pdf")
            plt.clf()