Resource Utilization

CPU, memory, disk I/O, and network throughput analysis for PQ Devnet clients.

This notebook examines container-level resource usage using cAdvisor metrics:

  • CPU usage (cores) per client
  • Memory working set and RSS per client
  • Disk read/write throughput
  • Disk usage over time
  • Network receive/transmit throughput
Show code
import json
from pathlib import Path

import pandas as pd
import plotly.express as px
import plotly.graph_objects as go
from plotly.subplots import make_subplots
from IPython.display import HTML, display

# Set default renderer for static HTML output
import plotly.io as pio
pio.renderers.default = "notebook"
Show code
# Resolve devnet_id
DATA_DIR = Path("../data")

if devnet_id is None:
    # Use latest devnet from manifest
    devnets_path = DATA_DIR / "devnets.json"
    if devnets_path.exists():
        with open(devnets_path) as f:
            devnets = json.load(f).get("devnets", [])
        if devnets:
            devnet_id = devnets[-1]["id"]  # Latest
            print(f"Using latest devnet: {devnet_id}")
    else:
        raise ValueError("No devnets.json found. Run 'just detect-devnets' first.")

DEVNET_DIR = DATA_DIR / devnet_id
print(f"Loading data from: {DEVNET_DIR}")
Loading data from: ../data/pqdevnet-20260517T0859Z
Show code
# Load devnet metadata
with open(DATA_DIR / "devnets.json") as f:
    devnets_data = json.load(f)
    devnet_info = next((d for d in devnets_data["devnets"] if d["id"] == devnet_id), None)

if devnet_info:
    print(f"Devnet: {devnet_info['id']}")
    print(f"Duration: {devnet_info['duration_hours']:.1f} hours")
    print(f"Time: {devnet_info['start_time']} to {devnet_info['end_time']}")
    print(f"Slots: {devnet_info['start_slot']} \u2192 {devnet_info['end_slot']}")
    print(f"Clients: {', '.join(devnet_info['clients'])}")
Devnet: pqdevnet-20260517T0859Z
Duration: 0.2 hours
Time: 2026-05-17T08:59:01+00:00 to 2026-05-17T09:09:18+00:00
Slots: 14 β†’ 2309
Clients: ethlambda_0, ethlambda_1, ethlambda_2, ethlambda_3, ethlambda_4, ethlambda_5, ethlambda_6, ethlambda_7, gean_0, gean_1, gean_2, gean_3, gean_4, gean_5, gean_6, gean_7, grandine_0, grandine_1, grandine_2, grandine_3, grandine_4, grandine_5, grandine_6, grandine_7, nlean_0, nlean_1, nlean_2, nlean_3, nlean_4, nlean_5, nlean_6, nlean_7, qlean_0, qlean_1, qlean_3, qlean_4, qlean_6, qlean_7, ream_0, ream_1, ream_2, ream_3, ream_4, ream_5, ream_6, ream_7, zeam_0, zeam_1, zeam_2, zeam_3, zeam_4, zeam_5, zeam_6, zeam_7
Show code
def format_bytes(val: float) -> str:
    """Format bytes to human-readable units."""
    for unit in ["B", "KB", "MB", "GB", "TB"]:
        if abs(val) < 1024:
            return f"{val:.1f} {unit}"
        val /= 1024
    return f"{val:.1f} PB"


def format_bytes_per_sec(val: float) -> str:
    """Format bytes/s to human-readable units."""
    return format_bytes(val) + "/s"

Load DataΒΆ

Show code
# Load container resource data
data_files = {
    "cpu": "container_cpu.parquet",
    "memory": "container_memory.parquet",
    "disk_io": "container_disk_io.parquet",
    "network": "container_network.parquet",
}

# Infrastructure containers irrelevant to devnet client analysis
EXCLUDED_CONTAINERS = {"unknown", "cadvisor", "prometheus", "promtail", "node-exporter", "node_exporter", "grafana"}

# Aggregation strategy per data type:
# - cpu/memory: max (gauge-like, take the active container's value)
# - disk_io/network: sum (per-device/interface rates should be summed)
AGG_STRATEGY = {"cpu": "max", "memory": "max", "disk_io": "sum", "network": "sum"}

# Group-by columns per data type (all have container+timestamp, some have metric)
GROUP_COLS = {
    "cpu": ["container", "timestamp"],
    "memory": ["container", "metric", "timestamp"],
    "disk_io": ["container", "metric", "timestamp"],
    "network": ["container", "metric", "timestamp"],
}

dfs = {}
for key, filename in data_files.items():
    path = DEVNET_DIR / filename
    if path.exists():
        df = pd.read_parquet(path)
        df = df[~df["container"].isin(EXCLUDED_CONTAINERS)]
        # Deduplicate: multiple Prometheus series (interfaces, devices, container
        # IDs after restarts) can produce duplicate rows per container+timestamp.
        df = df.groupby(GROUP_COLS[key], as_index=False)["value"].agg(AGG_STRATEGY[key])
        dfs[key] = df
        print(f"{key}: {len(df)} records, containers: {df['container'].nunique()}")
    else:
        dfs[key] = pd.DataFrame()
        print(f"{key}: no data (file not found)")

# Unified container list: use devnet_info["clients"] which already contains
# full names with instance suffixes (e.g., "ream_0", "ream_1").
all_containers = sorted(devnet_info["clients"])
n_cols = min(len(all_containers), 2)
n_rows = -(-len(all_containers) // n_cols)
print(f"\nAll containers ({len(all_containers)}): {all_containers}")
cpu: 151 records, containers: 51
memory: 1132 records, containers: 53
disk_io: 278 records, containers: 47
network: 302 records, containers: 51

All containers (54): ['ethlambda_0', 'ethlambda_1', 'ethlambda_2', 'ethlambda_3', 'ethlambda_4', 'ethlambda_5', 'ethlambda_6', 'ethlambda_7', 'gean_0', 'gean_1', 'gean_2', 'gean_3', 'gean_4', 'gean_5', 'gean_6', 'gean_7', 'grandine_0', 'grandine_1', 'grandine_2', 'grandine_3', 'grandine_4', 'grandine_5', 'grandine_6', 'grandine_7', 'nlean_0', 'nlean_1', 'nlean_2', 'nlean_3', 'nlean_4', 'nlean_5', 'nlean_6', 'nlean_7', 'qlean_0', 'qlean_1', 'qlean_3', 'qlean_4', 'qlean_6', 'qlean_7', 'ream_0', 'ream_1', 'ream_2', 'ream_3', 'ream_4', 'ream_5', 'ream_6', 'ream_7', 'zeam_0', 'zeam_1', 'zeam_2', 'zeam_3', 'zeam_4', 'zeam_5', 'zeam_6', 'zeam_7']

CPU UsageΒΆ

CPU cores used per container over time, derived from rate(container_cpu_usage_seconds_total[5m]).

Show code
cpu_df = dfs["cpu"]

if cpu_df.empty:
    print("No CPU data available")
else:
    fig = make_subplots(
        rows=n_rows, cols=n_cols,
        subplot_titles=all_containers,
        vertical_spacing=0.12 / max(n_rows - 1, 1) * 2,
        horizontal_spacing=0.08,
    )

    for i, container in enumerate(all_containers):
        row = i // n_cols + 1
        col = i % n_cols + 1
        cdf = cpu_df[cpu_df["container"] == container].sort_values("timestamp")
        if not cdf.empty:
            fig.add_trace(
                go.Scatter(
                    x=cdf["timestamp"], y=cdf["value"],
                    name=container, showlegend=False,
                    line=dict(color="#636EFA"),
                ),
                row=row, col=col,
            )
        else:
            fig.add_trace(
                go.Scatter(x=[None], y=[None], showlegend=False, hoverinfo='skip'),
                row=row, col=col,
            )
            _n = (row - 1) * n_cols + col
            _s = "" if _n == 1 else str(_n)
            fig.add_annotation(
                text="No data available",
                xref=f"x{_s} domain", yref=f"y{_s} domain",
                x=0.5, y=0.5,
                showarrow=False,
                font=dict(size=12, color="#999"),
            )
        fig.update_yaxes(title_text="CPU (cores)", row=row, col=col)

    fig.update_layout(
        title="CPU Usage per Container",
        height=270 * n_rows,
    )
    fig.show()
Show code
# CPU summary statistics
if not cpu_df.empty:
    cpu_summary = cpu_df.groupby("container")["value"].agg(
        ["mean", "max", "min", "std"]
    ).round(3)
    cpu_summary.columns = ["Mean (cores)", "Max (cores)", "Min (cores)", "Std Dev"]
    cpu_summary = cpu_summary.sort_index()
    display(cpu_summary)
Mean (cores) Max (cores) Min (cores) Std Dev
container
ethlambda_0 3.083 4.715 1.103 1.831
ethlambda_1 1.993 3.029 0.363 1.429
ethlambda_2 1.530 2.604 0.242 1.195
ethlambda_3 1.575 2.751 0.307 1.225
ethlambda_4 1.003 1.685 0.128 0.796
ethlambda_5 1.331 2.277 0.176 1.066
ethlambda_6 1.367 2.272 0.191 1.067
ethlambda_7 1.523 2.377 0.201 1.161
gean_0 4.528 6.073 1.537 2.590
gean_1 0.798 0.955 0.604 0.179
gean_2 0.853 1.229 0.242 0.534
gean_3 0.848 1.255 0.195 0.572
gean_4 0.981 1.475 0.197 0.686
gean_5 1.027 1.576 0.207 0.723
gean_6 0.897 1.441 0.157 0.664
gean_7 1.025 1.558 0.186 0.735
grandine_0 2.597 3.517 1.122 1.290
grandine_1 1.311 1.931 0.198 0.966
grandine_4 1.423 2.149 0.225 1.046
grandine_5 1.995 3.093 0.275 1.508
grandine_6 1.609 2.309 0.262 1.167
grandine_7 1.445 2.570 0.165 1.210
nlean_0 4.053 6.359 1.289 2.566
nlean_1 0.586 0.799 0.443 0.188
nlean_3 0.731 1.106 0.116 0.537
nlean_4 0.734 1.050 0.169 0.490
nlean_5 0.955 1.396 0.152 0.697
nlean_6 0.781 1.158 0.144 0.555
nlean_7 0.618 1.044 0.142 0.453
qlean_0 5.344 7.014 2.227 2.702
qlean_1 1.041 1.597 0.242 0.709
qlean_3 1.322 1.977 0.314 0.887
qlean_4 1.105 1.904 0.323 0.791
qlean_6 1.007 1.851 0.291 0.788
qlean_7 0.684 0.975 0.236 0.394
ream_0 0.661 0.957 0.117 0.472
ream_1 0.645 0.820 0.353 0.255
ream_2 0.961 1.478 0.379 0.553
ream_3 0.769 1.131 0.407 0.512
ream_4 0.472 0.805 0.139 0.471
ream_5 0.718 1.017 0.361 0.332
ream_6 0.617 0.852 0.389 0.231
ream_7 0.928 1.681 0.228 0.728
zeam_0 0.275 0.416 0.010 0.230
zeam_1 0.484 1.091 0.014 0.552
zeam_2 0.233 0.370 0.005 0.199
zeam_3 0.290 0.426 0.041 0.216
zeam_4 0.562 1.226 0.011 0.616
zeam_5 0.264 0.419 0.007 0.224
zeam_6 0.633 1.474 0.008 0.757
zeam_7 0.212 0.331 0.002 0.182

Memory UsageΒΆ

Memory consumption per container, including working set (total usage minus inactive file cache) and RSS (Resident Set Size -- anonymous memory only, excluding file-backed pages). The gap between the two shows active file cache usage.

Show code
mem_df = dfs["memory"]

if mem_df.empty:
    print("No memory data available")
else:
    # Combine working_set and rss for per-container comparison
    mem_plot_df = mem_df[mem_df["metric"].isin(["working_set", "rss"])].copy()
    if not mem_plot_df.empty:
        mem_plot_df["value_mb"] = mem_plot_df["value"] / (1024 * 1024)

        fig = make_subplots(
            rows=n_rows, cols=n_cols,
            subplot_titles=all_containers,
            vertical_spacing=0.12 / max(n_rows - 1, 1) * 2,
            horizontal_spacing=0.08,
        )

        colors = {"working_set": "#636EFA", "rss": "#EF553B"}
        legend_added = set()

        for i, container in enumerate(all_containers):
            row = i // n_cols + 1
            col = i % n_cols + 1
            cdf = mem_plot_df[mem_plot_df["container"] == container]
            if not cdf.empty:
                for metric in ["working_set", "rss"]:
                    mdf = cdf[cdf["metric"] == metric].sort_values("timestamp")
                    if mdf.empty:
                        continue
                    show_legend = metric not in legend_added
                    legend_added.add(metric)
                    fig.add_trace(
                        go.Scatter(
                            x=mdf["timestamp"], y=mdf["value_mb"],
                            name=metric, legendgroup=metric,
                            showlegend=show_legend,
                            line=dict(color=colors[metric]),
                        ),
                        row=row, col=col,
                    )
            else:
                fig.add_trace(
                    go.Scatter(x=[None], y=[None], showlegend=False, hoverinfo='skip'),
                    row=row, col=col,
                )
                _n = (row - 1) * n_cols + col
                _s = "" if _n == 1 else str(_n)
                fig.add_annotation(
                    text="No data available",
                    xref=f"x{_s} domain", yref=f"y{_s} domain",
                    x=0.5, y=0.5,
                    showarrow=False,
                    font=dict(size=12, color="#999"),
                )
            fig.update_yaxes(title_text="MB", row=row, col=col)

        fig.update_layout(
            title="Memory Usage per Container (Working Set vs RSS)",
            height=270 * n_rows,
        )
        fig.show()
Show code
# Memory summary
if not mem_df.empty:
    ws_df = mem_df[mem_df["metric"] == "working_set"]
    if not ws_df.empty:
        mem_summary = ws_df.groupby("container")["value"].agg(["mean", "max"]).reset_index()
        mem_summary["Mean"] = mem_summary["mean"].apply(format_bytes)
        mem_summary["Peak"] = mem_summary["max"].apply(format_bytes)
        mem_summary = mem_summary.rename(columns={"container": "Container"})[["Container", "Mean", "Peak"]]
        mem_summary = mem_summary.sort_values("Container")
        display(mem_summary.set_index("Container"))
Mean Peak
Container
ethlambda_0 1.5 GB 2.0 GB
ethlambda_1 3.2 GB 8.4 GB
ethlambda_2 1.3 GB 2.1 GB
ethlambda_3 1.1 GB 1.3 GB
ethlambda_4 970.8 MB 1.1 GB
ethlambda_5 1.0 GB 1.8 GB
ethlambda_6 990.2 MB 1.3 GB
ethlambda_7 1.3 GB 2.3 GB
gean_0 3.8 GB 5.4 GB
gean_1 3.7 GB 8.3 GB
gean_2 1.1 GB 1.3 GB
gean_3 788.5 MB 1005.0 MB
gean_4 1.1 GB 1.4 GB
gean_5 713.2 MB 904.5 MB
gean_6 761.7 MB 946.6 MB
gean_7 916.6 MB 1.3 GB
grandine_0 3.0 GB 4.3 GB
grandine_1 1.8 GB 2.7 GB
grandine_4 1.6 GB 2.1 GB
grandine_5 1.8 GB 2.7 GB
grandine_6 1.9 GB 2.8 GB
grandine_7 1.4 GB 1.9 GB
lantern_6 1.6 MB 1.6 MB
nlean_0 3.2 GB 4.3 GB
nlean_1 2.2 GB 3.6 GB
nlean_2 3.6 MB 3.6 MB
nlean_3 2.5 GB 3.2 GB
nlean_4 2.4 GB 3.8 GB
nlean_5 2.7 GB 3.8 GB
nlean_6 2.4 GB 3.5 GB
nlean_7 2.4 GB 3.8 GB
qlean_0 1.1 GB 1.5 GB
qlean_1 1003.6 MB 1.5 GB
qlean_3 1.2 GB 1.8 GB
qlean_4 1.2 GB 1.5 GB
qlean_6 976.2 MB 1.2 GB
qlean_7 741.9 MB 963.0 MB
ream_0 10.5 GB 14.5 GB
ream_1 9.4 GB 13.7 GB
ream_2 12.0 GB 14.5 GB
ream_3 12.9 GB 14.5 GB
ream_4 8.9 GB 11.2 GB
ream_5 10.3 GB 11.9 GB
ream_6 10.1 GB 11.1 GB
ream_7 8.4 GB 10.9 GB
zeam_0 2.4 GB 2.5 GB
zeam_1 3.1 GB 3.3 GB
zeam_2 2.5 GB 2.6 GB
zeam_3 3.4 GB 3.6 GB
zeam_4 2.1 GB 2.3 GB
zeam_5 4.4 GB 4.4 GB
zeam_6 4.1 GB 4.8 GB
zeam_7 1.8 GB 1.9 GB

Disk I/OΒΆ

Disk read/write throughput per container.

Show code
disk_df = dfs["disk_io"]

if disk_df.empty:
    print("No disk I/O data available")
else:
    # Read/write throughput per container
    throughput_df = disk_df[disk_df["metric"].isin(["read_throughput", "write_throughput"])].copy()
    if not throughput_df.empty:
        throughput_df["value_mb"] = throughput_df["value"] / (1024 * 1024)

        fig = make_subplots(
            rows=n_rows, cols=n_cols,
            subplot_titles=all_containers,
            vertical_spacing=0.12 / max(n_rows - 1, 1) * 2,
            horizontal_spacing=0.08,
        )

        colors = {"read_throughput": "#636EFA", "write_throughput": "#EF553B"}
        legend_added = set()

        for i, container in enumerate(all_containers):
            row = i // n_cols + 1
            col = i % n_cols + 1
            cdf = throughput_df[throughput_df["container"] == container]
            if not cdf.empty:
                for metric in ["read_throughput", "write_throughput"]:
                    mdf = cdf[cdf["metric"] == metric].sort_values("timestamp")
                    if mdf.empty:
                        continue
                    label = metric.replace("_throughput", "")
                    show_legend = metric not in legend_added
                    legend_added.add(metric)
                    fig.add_trace(
                        go.Scatter(
                            x=mdf["timestamp"], y=mdf["value_mb"],
                            name=label, legendgroup=metric,
                            showlegend=show_legend,
                            line=dict(color=colors[metric]),
                        ),
                        row=row, col=col,
                    )
            else:
                fig.add_trace(
                    go.Scatter(x=[None], y=[None], showlegend=False, hoverinfo='skip'),
                    row=row, col=col,
                )
                _n = (row - 1) * n_cols + col
                _s = "" if _n == 1 else str(_n)
                fig.add_annotation(
                    text="No data available",
                    xref=f"x{_s} domain", yref=f"y{_s} domain",
                    x=0.5, y=0.5,
                    showarrow=False,
                    font=dict(size=12, color="#999"),
                )
            fig.update_yaxes(title_text="MB/s", row=row, col=col)

        fig.update_layout(
            title="Disk I/O Throughput per Container (Read vs Write)",
            height=270 * n_rows,
        )
        fig.show()

Disk UsageΒΆ

Total disk space used per container over time.

Show code
# Disk usage uses the 'client' column (container is 'unknown' for this metric)
disk_io_path = DEVNET_DIR / "container_disk_io.parquet"
if disk_io_path.exists():
    raw_disk = pd.read_parquet(disk_io_path)
    usage_df = raw_disk[raw_disk["metric"] == "disk_usage"].copy()
    usage_df = usage_df.groupby(["client", "timestamp"], as_index=False)["value"].max()
else:
    usage_df = pd.DataFrame()

if usage_df.empty:
    print("No disk usage data available")
else:
    usage_df["value_gb"] = usage_df["value"] / (1024 * 1024 * 1024)

    # Use client names from devnet metadata
    all_clients_sorted = sorted(devnet_info["clients"])
    n_cols_du = min(len(all_clients_sorted), 2)
    n_rows_du = -(-len(all_clients_sorted) // n_cols_du)

    fig = make_subplots(
        rows=n_rows_du, cols=n_cols_du,
        subplot_titles=all_clients_sorted,
        vertical_spacing=0.12 / max(n_rows_du - 1, 1) * 2,
        horizontal_spacing=0.08,
    )

    for i, client in enumerate(all_clients_sorted):
        row = i // n_cols_du + 1
        col = i % n_cols_du + 1
        cdf = usage_df[usage_df["client"] == client].sort_values("timestamp")
        if not cdf.empty and cdf["value"].max() > 0:
            fig.add_trace(
                go.Scatter(
                    x=cdf["timestamp"], y=cdf["value_gb"],
                    name=client, showlegend=False,
                    line=dict(color="#636EFA"),
                ),
                row=row, col=col,
            )
        else:
            fig.add_trace(
                go.Scatter(x=[None], y=[None], showlegend=False, hoverinfo='skip'),
                row=row, col=col,
            )
            _n = (row - 1) * n_cols_du + col
            _s = "" if _n == 1 else str(_n)
            fig.add_annotation(
                text="No data available",
                xref=f"x{_s} domain", yref=f"y{_s} domain",
                x=0.5, y=0.5,
                showarrow=False,
                font=dict(size=12, color="#999"),
            )
        fig.update_yaxes(title_text="GB", row=row, col=col)

    fig.update_layout(
        title="Disk Usage per Client",
        height=270 * n_rows_du,
    )
    fig.show()

Network ThroughputΒΆ

Network receive (rx) and transmit (tx) throughput per container.

Show code
net_df = dfs["network"]

if net_df.empty:
    print("No network data available")
else:
    net_df["value_mb"] = net_df["value"] / (1024 * 1024)

    fig = make_subplots(
        rows=n_rows, cols=n_cols,
        subplot_titles=all_containers,
        vertical_spacing=0.12 / max(n_rows - 1, 1) * 2,
        horizontal_spacing=0.08,
    )

    colors = {"rx": "#636EFA", "tx": "#EF553B"}
    legend_added = set()

    for i, container in enumerate(all_containers):
        row = i // n_cols + 1
        col = i % n_cols + 1
        cdf = net_df[net_df["container"] == container]
        if not cdf.empty:
            for metric in ["rx", "tx"]:
                mdf = cdf[cdf["metric"] == metric].sort_values("timestamp")
                if mdf.empty:
                    continue
                show_legend = metric not in legend_added
                legend_added.add(metric)
                fig.add_trace(
                    go.Scatter(
                        x=mdf["timestamp"], y=mdf["value_mb"],
                        name=metric, legendgroup=metric,
                        showlegend=show_legend,
                        line=dict(color=colors[metric]),
                    ),
                    row=row, col=col,
                )
        else:
            fig.add_trace(
                go.Scatter(x=[None], y=[None], showlegend=False, hoverinfo='skip'),
                row=row, col=col,
            )
            _n = (row - 1) * n_cols + col
            _s = "" if _n == 1 else str(_n)
            fig.add_annotation(
                text="No data available",
                xref=f"x{_s} domain", yref=f"y{_s} domain",
                x=0.5, y=0.5,
                showarrow=False,
                font=dict(size=12, color="#999"),
            )
        fig.update_yaxes(title_text="MB/s", row=row, col=col)

    fig.update_layout(
        title="Network Throughput per Container (RX vs TX)",
        height=270 * n_rows,
    )
    fig.show()

SummaryΒΆ

Peak and average resource usage per container across the devnet.

Show code
# Build summary table across all resource types
summary_rows = []

# CPU
if not cpu_df.empty:
    for container, group in cpu_df.groupby("container"):
        summary_rows.append({
            "Container": container,
            "Avg CPU (cores)": f"{group['value'].mean():.3f}",
            "Peak CPU (cores)": f"{group['value'].max():.3f}",
        })

# Memory
if not mem_df.empty:
    ws_df = mem_df[mem_df["metric"] == "working_set"]
    for container, group in ws_df.groupby("container"):
        existing = next((r for r in summary_rows if r["Container"] == container), None)
        if existing is None:
            existing = {"Container": container}
            summary_rows.append(existing)
        existing["Avg Memory"] = format_bytes(group["value"].mean())
        existing["Peak Memory"] = format_bytes(group["value"].max())

# Network
if not net_df.empty:
    for container, group in net_df.groupby("container"):
        existing = next((r for r in summary_rows if r["Container"] == container), None)
        if existing is None:
            existing = {"Container": container}
            summary_rows.append(existing)
        rx = group[group["metric"] == "rx"]["value"]
        tx = group[group["metric"] == "tx"]["value"]
        if not rx.empty:
            existing["Avg RX"] = format_bytes_per_sec(rx.mean())
        if not tx.empty:
            existing["Avg TX"] = format_bytes_per_sec(tx.mean())

if summary_rows:
    summary_df = pd.DataFrame(summary_rows).set_index("Container").sort_index().fillna("-")
    display(summary_df)
else:
    print("No resource data available for summary.")
Avg CPU (cores) Peak CPU (cores) Avg Memory Peak Memory Avg RX Avg TX
Container
ethlambda_0 3.083 4.715 1.5 GB 2.0 GB 12.6 MB/s 30.6 MB/s
ethlambda_1 1.993 3.029 3.2 GB 8.4 GB 43.9 MB/s 68.5 MB/s
ethlambda_2 1.530 2.604 1.3 GB 2.1 GB 14.2 MB/s 34.9 MB/s
ethlambda_3 1.575 2.751 1.1 GB 1.3 GB 20.8 MB/s 44.8 MB/s
ethlambda_4 1.003 1.685 970.8 MB 1.1 GB 27.7 MB/s 40.5 MB/s
ethlambda_5 1.331 2.277 1.0 GB 1.8 GB 23.9 MB/s 45.2 MB/s
ethlambda_6 1.367 2.272 990.2 MB 1.3 GB 24.3 MB/s 43.2 MB/s
ethlambda_7 1.523 2.377 1.3 GB 2.3 GB 39.9 MB/s 42.7 MB/s
gean_0 4.528 6.073 3.8 GB 5.4 GB 12.6 MB/s 11.3 MB/s
gean_1 0.798 0.955 3.7 GB 8.3 GB 61.5 MB/s 48.6 MB/s
gean_2 0.853 1.229 1.1 GB 1.3 GB 23.8 MB/s 45.2 MB/s
gean_3 0.848 1.255 788.5 MB 1005.0 MB 24.3 MB/s 43.1 MB/s
gean_4 0.981 1.475 1.1 GB 1.4 GB 40.1 MB/s 42.8 MB/s
gean_5 1.027 1.576 713.2 MB 904.5 MB 14.4 MB/s 13.6 MB/s
gean_6 0.897 1.441 761.7 MB 946.6 MB 20.6 MB/s 37.4 MB/s
gean_7 1.025 1.558 916.6 MB 1.3 GB 33.2 MB/s 18.3 MB/s
grandine_0 2.597 3.517 3.0 GB 4.3 GB 13.2 MB/s 1.2 MB/s
grandine_1 1.311 1.931 1.8 GB 2.7 GB 40.1 MB/s 42.8 MB/s
grandine_4 1.423 2.149 1.6 GB 2.1 GB 33.4 MB/s 18.4 MB/s
grandine_5 1.995 3.093 1.8 GB 2.7 GB 30.4 MB/s 8.3 MB/s
grandine_6 1.609 2.309 1.9 GB 2.8 GB 39.9 MB/s 23.7 MB/s
grandine_7 1.445 2.570 1.4 GB 1.9 GB 26.6 MB/s 8.3 MB/s
lantern_6 - - 1.6 MB 1.6 MB - -
nlean_0 4.053 6.359 3.2 GB 4.3 GB 10.9 MB/s 10.6 MB/s
nlean_1 0.586 0.799 2.2 GB 3.6 GB 31.3 MB/s 16.3 MB/s
nlean_2 - - 3.6 MB 3.6 MB - -
nlean_3 0.731 1.106 2.5 GB 3.2 GB 39.9 MB/s 23.7 MB/s
nlean_4 0.734 1.050 2.4 GB 3.8 GB 25.8 MB/s 8.8 MB/s
nlean_5 0.955 1.396 2.7 GB 3.8 GB 30.3 MB/s 25.2 MB/s
nlean_6 0.781 1.158 2.4 GB 3.5 GB 17.2 MB/s 17.8 MB/s
nlean_7 0.618 1.044 2.4 GB 3.8 GB 9.3 MB/s 8.3 MB/s
qlean_0 5.344 7.014 1.1 GB 1.5 GB 345.3 KB/s 640.6 KB/s
qlean_1 1.041 1.597 1003.6 MB 1.5 GB 40.3 MB/s 23.8 MB/s
qlean_3 1.322 1.977 1.2 GB 1.8 GB 30.3 MB/s 25.2 MB/s
qlean_4 1.105 1.904 1.2 GB 1.5 GB 16.9 MB/s 17.9 MB/s
qlean_6 1.007 1.851 976.2 MB 1.2 GB 8.2 MB/s 11.6 MB/s
qlean_7 0.684 0.975 741.9 MB 963.0 MB 9.5 MB/s 6.5 MB/s
ream_0 0.661 0.957 10.5 GB 14.5 GB 11.3 MB/s 245.2 KB/s
ream_1 0.645 0.820 9.4 GB 13.7 GB 9.5 MB/s 6.5 MB/s
ream_2 0.961 1.478 12.0 GB 14.5 GB 13.2 MB/s 184.3 KB/s
ream_3 0.769 1.131 12.9 GB 14.5 GB 4.6 MB/s 77.3 KB/s
ream_4 0.472 0.805 8.9 GB 11.2 GB 12.1 MB/s 3.4 MB/s
ream_5 0.718 1.017 10.3 GB 11.9 GB 8.1 MB/s 2.9 MB/s
ream_6 0.617 0.852 10.1 GB 11.1 GB 14.6 MB/s 2.2 MB/s
ream_7 0.928 1.681 8.4 GB 10.9 GB 23.5 MB/s 28.1 MB/s
zeam_0 0.275 0.416 2.4 GB 2.5 GB 1.5 MB/s 2.8 MB/s
zeam_1 0.484 1.091 3.1 GB 3.3 GB 22.5 MB/s 15.8 MB/s
zeam_2 0.233 0.370 2.5 GB 2.6 GB 7.9 MB/s 2.8 MB/s
zeam_3 0.290 0.426 3.4 GB 3.6 GB 13.9 MB/s 2.0 MB/s
zeam_4 0.562 1.226 2.1 GB 2.3 GB 23.3 MB/s 28.2 MB/s
zeam_5 0.264 0.419 4.4 GB 4.4 GB 14.6 MB/s 35.0 MB/s
zeam_6 0.633 1.474 4.1 GB 4.8 GB 20.9 MB/s 44.4 MB/s
zeam_7 0.212 0.331 1.8 GB 1.9 GB 27.7 MB/s 40.5 MB/s
Show code
print(f"Devnet: {devnet_id}")
if devnet_info:
    print(f"Duration: {devnet_info['duration_hours']:.1f} hours")
print(f"Containers analyzed: {cpu_df['container'].nunique() if not cpu_df.empty else 0}")
Devnet: pqdevnet-20260517T0859Z
Duration: 0.2 hours
Containers analyzed: 51