Datasets:
pretty_name: CAD-MiniBooNe
license: cc-by-4.0
configs:
- config_name: default
data_files: data.csv
language:
- en
task_categories:
- tabular-classification
task_ids:
- tabular-multi-class-classification
size_categories:
- 10K<n<100K
tags:
- anomaly-detection
- continual-learning
- continual-anomaly-detection
- particle-identification
- physics
- tabular
CAD-MiniBooNe
Dataset Summary
CAD-MiniBooNe is a single-source continual anomaly detection benchmark scenario derived from the MiniBooNE Particle Identification dataset. It recasts the dataset's original binary classification task (distinguishing electron-neutrino "signal" events from muon-neutrino "background" events) as an anomaly detection problem and converts the tabular data into a sequence of concept-grouped tasks.
The dataset contains 66,116 samples, 5 tasks, and has a reported 72.47% anomaly ratio in the test set.
Intended Use
This dataset is intended for research on:
- continual anomaly detection;
- continual learning for tabular data;
- robustness under distribution shift;
- task ordering in continual-learning benchmarks;
- forgetting and knowledge transfer across related concepts;
- benchmarking anomaly detectors under sequential task exposure.
The intended use is machine learning research. As a physics benchmark, it carries no dual-use risk.
Dataset Source
- MiniBooNE Particle Identification (UCI ML Repository, ID 199):
https://archive.ics.uci.edu/dataset/199/miniboone+particle+identification
The original dataset originates from the MiniBooNE physics experiment and contains 130,065 events, each described by 50 real-valued particle-identification variables, labeled as electron-neutrino (signal) or muon-neutrino (background) events. Task boundaries in this benchmark are derived via spectral clustering over the original data, used as a proxy for concept drift.
Dataset Files
The repository contains the following files:
| File | Description |
|---|---|
data.csv |
Main tabular dataset file. |
orderings.json |
Predefined task orderings for continual-learning evaluation. |
croissant.json |
Croissant metadata describing the dataset. |
Dataset Structure
The main file is:
data.csv
The dataset contains task metadata, binary labels, and numerical particle-identification features.
Core Columns
| Column | Type | Description |
|---|---|---|
task_id |
integer | Numeric identifier of the continual-learning task. |
task_name |
string | Name of the task, e.g. miniboone_0. |
task_split |
string | Split assignment for the row. |
label |
integer | Binary anomaly label. 0 denotes normal and 1 denotes anomalous. |
Task Identifiers
The dataset contains the following task identifiers:
miniboone_0, miniboone_1, miniboone_2, miniboone_3, miniboone_4
Feature Columns
The remaining columns are the 50 real-valued particle-identification variables from the original MiniBooNE dataset, provided as feature_00 … feature_49.
For the complete schema, see croissant.json.
Task Orderings
The dataset provides six predefined orderings in orderings.json. These orderings define different continual-learning evaluation regimes over the same task set.
| Ordering | Task sequence |
|---|---|
curriculum_asc |
miniboone_2 → miniboone_3 → miniboone_0 → miniboone_4 → miniboone_1 |
curriculum_desc |
miniboone_1 → miniboone_4 → miniboone_0 → miniboone_3 → miniboone_2 |
generalization_desc |
miniboone_2 → miniboone_0 → miniboone_3 → miniboone_4 → miniboone_1 |
generalization_asc |
miniboone_1 → miniboone_4 → miniboone_3 → miniboone_0 → miniboone_2 |
smooth_drift |
miniboone_1 → miniboone_4 → miniboone_0 → miniboone_3 → miniboone_2 |
abrupt_drift |
miniboone_0 → miniboone_1 → miniboone_2 → miniboone_4 → miniboone_3 |
These orderings are intended to expose complementary continual-learning dynamics, including curriculum-like adaptation, generalization-oriented ordering, smooth drift, and abrupt drift.
Dataset Creation
The details of dataset creation can be found in our paper: link
Citation
When using the dataset, please cite:
@article{faber2026towards,
title={Towards Principled Continual Anomaly Detection: A Systematic Framework and Benchmark Scenarios},
author={Faber, Kamil and Smendowski, Mateusz and Corizzo, Roberto},
journal={arXiv preprint arXiv:2607.18289},
year={2026}
}
If you also use the underlying MiniBooNE data, please additionally cite:
Roe, B. (2010). MiniBooNE Particle Identification [Dataset]. UCI Machine Learning Repository. https://doi.org/10.24432/C5QC87