Datasets:
| set | portion | config to load | days | size |
|---|---|---|---|---|
processed |
events |
processed_events |
5 | 1.5 GB |
processed |
node_index |
processed_node_index |
5 | 3.0 MB |
processed |
flow_records |
processed_flow_records |
5 | 3.1 GB |
processed |
side_features |
processed_side_features |
5 | 229.2 MB |
model |
flow_embeddings |
model_flow_embeddings |
5 | 3.2 GB |
model |
latents |
model_latents |
5 | 4.6 GB |
NetWatch IDS2018 Events — v1.0.0
| version | released | produced by | contents |
|---|---|---|---|
| v1.0.0 | 2026-09-28 | training run 20260926-2337 |
five CSE-CIC-IDS2018 days as events, node indexes, flow records and side features (set processed); flow embeddings and latents of model v1.0.0 (set model) |
The model set belongs to one model version: it is regenerated with every retrained cascade. Pin a version with
revision="v1.0.0".
CSE-CIC-IDS2018 rebuilt as a continuous-time event stream: one row per network flow, ordered by the microsecond at which it became observable, with every flow cut to the first 10 milliseconds of its life. Time is never binned.
It is published as two sets, chosen independently, so nobody downloads six gigabytes of embeddings to read labels.
Set 1 — processed: model-agnostic
The event stream and the per-flow tables. Useful with any model, including one that has nothing to do with this project.
| portion | config | what it is |
|---|---|---|
events |
processed_events |
the labelled event stream: times, endpoints, per-host history, 20-packet aggregates, labels |
node_index |
processed_node_index |
per day, node_id → ip: names the hosts in every other table and in world-model output |
flow_records |
processed_flow_records |
CICFlowMeter's own 69 columns per event, at the earliest time that record could exist |
side_features |
processed_side_features |
per-event request/response features at the observation time, and who sent which side |
Set 2 — model: produced by this cascade
Learned representations. These are only meaningful with the model that produced them — see the companion model repository.
| portion | config | what it is |
|---|---|---|
flow_embeddings |
model_flow_embeddings |
a 32-wide embedding per flow from its early packets, no network context |
latents |
model_latents |
a 32-wide latent z summarising each event's network context, plus recon_error; the world model's input (the lag tag's) |
When staged from a training run (--bundle), latents are exactly the ones the published world model was trained and
calibrated on. To name its hosts, map sender_node_id / receiver_node_id through that day's node_index (in
processed_node_index).
Every table ships with the JSON manifest that records which checkpoint produced it. Two files whose manifests disagree are on different scales and must not be mixed, however similar their configuration looks.
Loading
Each day is a split, so one day can be loaded without fetching the rest.
from datasets import load_dataset
events = load_dataset("kaustuk000/netwatch-ids2018-events", "processed_events", split="Friday_02_03_2018")
latents = load_dataset("kaustuk000/netwatch-ids2018-events", "model_latents", split="Friday_02_03_2018")
Or read the parquet directly, which suits a table this wide:
import pyarrow.parquet as pq
from huggingface_hub import hf_hub_download
path = hf_hub_download("kaustuk000/netwatch-ids2018-events", "model/latents/Friday-02-03-2018/event_latents.parquet",
repo_type="dataset")
table = pq.read_table(path)
What one row is
One flow, observed for 10 ms from its first packet. The key columns, and the tables that carry them:
| column | meaning | in |
|---|---|---|
event_id |
the row's identity; joins every table in both sets | every table |
t |
the flow's first packet, epoch seconds | events, flow_embeddings, latents |
t_obs |
when the decision had to be made: min(t + 0.010, flow end) |
latents; flow_embeddings as observation_time |
sender_node_id, receiver_node_id |
endpoints, keyed on the flow's first captured packet, not the record's src/dst | side_features, latents (events has the record's src_node_id / dst_node_id) |
observation_population |
early_observation or completed_before_budget — see below |
flow_embeddings, latents |
split |
0 train, 1 validation, 2 test, -1 inside a 120 s gap between splits | latents |
label, attack |
ground truth. Evaluation only | events (label), flow_embeddings (attack), latents (both) |
Set-specific: flow_embeddings adds h, packets_seen and recon_error; latents adds z and recon_error.
Two populations, never pooled
| population | meaning |
|---|---|
early_observation |
the flow was still running when the budget expired, so a decision here is genuinely early |
completed_before_budget |
the flow had already finished; nothing was predicted ahead of time |
Only the first supports any claim about acting early. Pooling them is the most common way to overstate a result on this data, which is why the column exists rather than being dropped after slicing.
Columns that must never be an input
label and attack are ground truth for scoring. So is anything describing a flow's full duration: at 10
milliseconds that information does not exist yet, so using it is leakage rather than a feature. The flow_records
portion is the place to be careful — it carries CICFlowMeter's complete-flow statistics, and it is included so the
10 ms-budget setting can be compared against the conventional one, not so both can be fed to the same model.
Splits interleave in wall-clock time
Train, validation and test are cut inside every attack window and every benign stretch separately, so each split contains attack rows; a whole-day cut leaves validation and test with none.
The consequence has to be understood before using them. Because each segment is cut independently, the splits interleave in real time: on one measured day, 1,677,561 of 1,680,628 test benign rows occur before the latest train attack. That is harmless for detection, which scores a row that is itself an attack. It makes any "will this host attack later" target unsound, because training has already seen that host attacking at a later real-world time. Use cross-day holdout for that question.
Node ids are per day
sender_node_id and receiver_node_id are assigned by first appearance within a single day, so the same host is a
different integer on another day. Do not join them across days, and do not carry per-host state between days without
remapping through each day's node_index.
Licence and attribution
Derived from CSE-CIC-IDS2018, distributed by the Canadian Institute for Cybersecurity, whose terms govern redistribution and require attribution. Keep this repository private, or gated once public, for that reason. Cite the original dataset in any work that uses these files.
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