measurement-scripts/plot_single_transmission_EM9190.py

#!/usr/bin/env python3
import math
import multiprocessing
import os
from argparse import ArgumentParser

import matplotlib
import numpy as np
import pandas as pd
import matplotlib.pyplot as plt

import seaborn as sns

sns.set()
#sns.set(font_scale=1.5)

tex_fonts = {
    "pgf.texsystem": "lualatex",
    # "legend.fontsize": "x-large",
    # "figure.figsize": (15, 5),
    "axes.labelsize": 15,  # "small",
    # "axes.titlesize": "x-large",
    "xtick.labelsize": 15,  # "small",
    "ytick.labelsize": 15,  # "small",
    "legend.fontsize": 15,
    "axes.formatter.use_mathtext": True,
    "mathtext.fontset": "dejavusans",
}


# plt.rcParams.update(tex_fonts)


def convert_cellid(value):
    if isinstance(value, str):
        try:
            r = int(value.split(" ")[-1].replace("(", "").replace(")", ""))
            return r
        except Exception as e:
            return -1
    else:
        return int(-1)


if __name__ == "__main__":
    parser = ArgumentParser()
    parser.add_argument("-s", "--serial_file", required=True, help="Serial csv file.")
    parser.add_argument(
        "-p", "--pcap_csv_folder", required=True, help="PCAP csv folder."
    )
    parser.add_argument("--save", required=True, help="Location to save pdf file.")
    parser.add_argument("--fancy", action="store_true", help="Create fancy plot.")
    parser.add_argument(
        "-i",
        "--interval",
        default=10,
        type=int,
        help="Time interval for rolling window.",
    )

    args = parser.parse_args()

    pcap_csv_list = list()
    for filename in os.listdir(args.pcap_csv_folder):
        if filename.endswith(".csv") and "tcp" in filename:
            pcap_csv_list.append(filename)

    counter = 1
    if len(pcap_csv_list) == 0:
        print("No CSV files found.")

    pcap_csv_list.sort(key=lambda x: int(x.split("_")[-1].replace(".csv", "")))

    for csv in pcap_csv_list:
        print(
            "\rProcessing {} out of {} CSVs.\t({}%)\t".format(
                counter, len(pcap_csv_list), math.floor(counter / len(pcap_csv_list))
            )
        )

        # try:
        transmission_df = pd.read_csv(
            "{}{}".format(args.pcap_csv_folder, csv),
            dtype=dict(is_retranmission=bool, is_dup_ack=bool),
        )

        transmission_df["datetime"] = pd.to_datetime(
            transmission_df["datetime"]
        ) - pd.Timedelta(hours=1)
        transmission_df = transmission_df.set_index("datetime")
        transmission_df.index = pd.to_datetime(transmission_df.index)
        transmission_df = transmission_df.sort_index()

        # srtt to [s]
        transmission_df["srtt"] = transmission_df["srtt"].apply(lambda x: x / 10 ** 6)

        # key for columns and level for index
        transmission_df["goodput"] = (
            transmission_df["payload_size"]
            .groupby(pd.Grouper(level="datetime", freq="{}s".format(args.interval)))
            .transform("sum")
        )
        transmission_df["goodput"] = transmission_df["goodput"].apply(
            lambda x: ((x * 8) / args.interval) / 10 ** 6
        )

        transmission_df["goodput_rolling"] = (
            transmission_df["payload_size"].rolling("{}s".format(args.interval)).sum()
        )
        transmission_df["goodput_rolling"] = transmission_df["goodput_rolling"].apply(
            lambda x: ((x * 8) / args.interval) / 10 ** 6
        )

        # set meta values and remove all not needed columns
        cc_algo = transmission_df["congestion_control"].iloc[0]
        cc_algo = cc_algo.upper()
        transmission_direction = transmission_df["direction"].iloc[0]

        # transmission_df = transmission_df.filter(["goodput", "datetime", "ack_rtt", "goodput_rolling", "snd_cwnd"])

        # read serial csv
        serial_df = pd.read_csv(
            args.serial_file, converters={"Cell_ID": convert_cellid}
        )
        serial_df["datetime"] = pd.to_datetime(serial_df["datetime"]) - pd.Timedelta(
            hours=1
        )
        serial_df = serial_df.set_index("datetime")
        serial_df.index = pd.to_datetime(serial_df.index)
        serial_df.sort_index()

        # print(serial_df["Cell_ID"])

        # serial_df["Cell_ID"] = serial_df["Cell_ID"].apply(
        #    lambda x: int(x.split(" ")[-1].replace("(", "").replace(")", "")))

        transmission_df = pd.merge_asof(
            transmission_df,
            serial_df,
            tolerance=pd.Timedelta("1s"),
            right_index=True,
            left_index=True,
        )

        transmission_df.index = transmission_df["arrival_time"]

        # replace 0 in RSRQ with Nan
        transmission_df["NR5G_RSRQ_(dB)"] = transmission_df["NR5G_RSRQ_(dB)"].replace(
            0, np.NaN
        )
        transmission_df["RSRQ_(dB)"] = transmission_df["RSRQ_(dB)"].replace(0, np.NaN)

        # filter active state
        for i in range(1, 5):
            transmission_df["LTE_SCC{}_effective_bw".format(i)] = transmission_df[
                "LTE_SCC{}_bw".format(i)
            ]

            mask = transmission_df["LTE_SCC{}_state".format(i)].isin(["ACTIVE"])
            transmission_df["LTE_SCC{}_effective_bw".format(i)] = transmission_df[
                "LTE_SCC{}_effective_bw".format(i)
            ].where(mask, other=0)

        # filter if sc is usesd for uplink
        for i in range(1, 5):
            mask = transmission_df["LTE_SCC{}_UL_Configured".format(i)].isin([False])
            transmission_df["LTE_SCC{}_effective_bw".format(i)] = transmission_df[
                "LTE_SCC{}_effective_bw".format(i)
            ].where(mask, other=0)

        # sum all effective bandwidth for 5G and 4G
        transmission_df["SCC1_NR5G_effective_bw"] = transmission_df[
            "SCC1_NR5G_bw"
        ].fillna(0)

        transmission_df["lte_effective_bw_sum"] = (
                transmission_df["LTE_SCC1_effective_bw"].fillna(0)
                + transmission_df["LTE_SCC2_effective_bw"].fillna(0)
                + transmission_df["LTE_SCC3_effective_bw"].fillna(0)
                + transmission_df["LTE_SCC4_effective_bw"].fillna(0)
                + transmission_df["LTE_bw"].fillna(0))
        transmission_df["nr_effective_bw_sum"] = transmission_df["SCC1_NR5G_effective_bw"]

        transmission_df["effective_bw_sum"] = transmission_df["nr_effective_bw_sum"] + transmission_df[
            "lte_effective_bw_sum"]

        # transmission timeline
        scaley = 1.5
        scalex = 1.0
        fig, ax = plt.subplots(2, 1, figsize=[6.4 * scaley, 4.8 * scalex])
        fig.subplots_adjust(right=0.75)
        if not args.fancy:
            plt.title("{} with {}".format(transmission_direction, cc_algo))
            fig.suptitle("{} with {}".format(transmission_direction, cc_algo))
        ax0 = ax[0]
        ax1 = ax0.twinx()
        ax2 = ax0.twinx()
        # ax2.spines.right.set_position(("axes", 1.22))

        ax00 = ax[1]
        ax01 = ax00.twinx()
        ax02 = ax00.twinx()

        # Plot vertical lines
        first = True
        lte_handovers = transmission_df["Cell_ID"].dropna().diff()
        lte_hanover_plot = None
        for index, value in lte_handovers.items():
            if value > 0:
                if first:
                    lte_hanover_plot = ax00.axvline(
                        index, ymin=0, ymax=1, color="skyblue", label="4G Handover"
                    )
                    first = False
                else:
                    ax00.axvline(index, ymin=0, ymax=1, color="skyblue")

        first = True
        nr_handovers = (
            transmission_df["NR5G_Cell_ID"].replace(0, np.NaN).dropna().diff()
        )

        nr_hanover_plot = None
        for index, value in nr_handovers.items():
            if value > 0:
                if first:
                    nr_hanover_plot = ax00.axvline(
                        index, ymin=0, ymax=1, color="greenyellow", label="5G Handover"
                    )
                    first = False
                else:
                    ax00.axvline(index, ymin=0, ymax=1, color="greenyellow")

        snd_plot = ax0.plot(
            transmission_df["snd_cwnd"].dropna(),
            color="lime",
            linestyle="dashed",
            label="cwnd",
        )
        srtt_plot = ax1.plot(
            transmission_df["srtt"].dropna(),
            color="red",
            linestyle="dashdot",
            label="sRTT",
        )
        goodput_plot = ax2.plot(
            transmission_df["goodput_rolling"],
            color="blue",
            linestyle="solid",
            label="goodput",
        )
        # ax2.plot(transmission_df["goodput"], color="blue", linestyle="solid", label="goodput")

        eff_bw_plot = ax01.plot(
            transmission_df["effective_bw_sum"].dropna(),
            color="peru",
            linestyle="solid",
            label="bandwidth",
        )
        lte_eff_bw_plot = ax01.plot(
            transmission_df["lte_effective_bw_sum"].dropna(),
            color="lightsteelblue",
            linestyle="solid",
            label="4G bandwidth",
            alpha=0.5,
        )
        nr_eff_bw_plot = ax01.plot(
            transmission_df["nr_effective_bw_sum"].dropna(),
            color="cornflowerblue",
            linestyle="solid",
            label="5G bandwidth",
            alpha=0.5,
        )

        # ax01.stackplot(transmission_df["arrival_time"].to_list(),
        #               [transmission_df["lte_bw_sum"].to_list(), transmission_df["nr_bw_sum"].to_list()],
        #               colors=["lightsteelblue", "cornflowerblue"],
        #               labels=["4G bandwidth", "5G bandwidth"]
        #               )

        lte_rsrq_plot = ax02.plot(
            transmission_df["RSRQ_(dB)"].dropna(),
            color="purple",
            linestyle="dotted",
            label="LTE RSRQ",
        )
        nr_rsrq_plot = ax00.plot(
            transmission_df["NR5G_RSRQ_(dB)"].dropna(),
            color="magenta",
            linestyle="dotted",
            label="NR RSRQ",
        )

        ax2.spines.right.set_position(("axes", 1.1))
        ax02.spines.right.set_position(("axes", 1.1))

        ax0.set_ylim(0, 5000)
        ax1.set_ylim(0, 0.3)
        ax2.set_ylim(0, 600)
        ax00.set_ylim(-25, 0)
        ax01.set_ylim(0, 250)
        # second dB axis
        ax02.set_ylim(-25, 0)
        ax02.set_axis_off()

        ax00.set_xlabel("arrival time [s]")

        ax2.set_ylabel("Goodput [mbps]")
        ax00.set_ylabel("LTE/NR RSRQ [dB]")
        # ax02.set_ylabel("LTE RSRQ [dB]")
        ax1.set_ylabel("sRTT [s]")
        ax0.set_ylabel("cwnd [MSS]")
        ax01.set_ylabel("Bandwidth [MHz]")

        if args.fancy:
            legend_frame = False
            ax0.set_xlim([0, transmission_df.index[-1]])
            ax00.set_xlim([0, transmission_df.index[-1]])
            # added these three lines
            lns_ax0 = snd_plot + srtt_plot + goodput_plot
            labs_ax0 = [l.get_label() for l in lns_ax0]
            ax2.legend(lns_ax0, labs_ax0, ncols=9, fontsize=9, loc="upper left", frameon=legend_frame)
            #ax0.set_zorder(100)

            lns_ax00 = eff_bw_plot + lte_eff_bw_plot + nr_eff_bw_plot + lte_rsrq_plot + nr_rsrq_plot
            if lte_hanover_plot:
                lns_ax00.append(lte_hanover_plot)
            if nr_hanover_plot:
                lns_ax00.append(nr_hanover_plot)
            labs_ax00 = [l.get_label() for l in lns_ax00]
            ax02.legend(lns_ax00, labs_ax00, ncols=3, fontsize=9, loc="upper center", frameon=legend_frame)
            #ax00.set_zorder(100)
            plt.savefig("{}{}_plot.eps".format(args.save, csv.replace(".csv", "")), bbox_inches="tight")
        else:
            fig.legend(loc="lower right")
            plt.savefig("{}{}_plot.pdf".format(args.save, csv.replace(".csv", "")), bbox_inches="tight")
        # except Exception as e:
        #    print("Error processing file: {}".format(csv))
        #    print(str(e))
        counter += 1

        plt.close(fig)
        plt.clf()