CageDroneRF: A Large-Scale RF Benchmark and Toolkit for Drone Perception

arXiv cs.RO / 3/23/2026

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Key Points

  • CageDroneRF (CDRF) introduces a large-scale RF benchmark and toolkit for drone perception, combining real-world captures with systematically generated synthetic variants.
  • The benchmark features a pipeline that precisely controls Signal-to-Noise Ratio (SNR), injects interfering emitters, and applies frequency shifts with label-consistent bounding-box recomputation for robust detection.
  • The dataset covers a wide range of contemporary drone models not widely available in public datasets and diverse acquisition conditions from a campus and a controlled RF-cage facility.
  • It ships interoperable open-source tools for data generation, preprocessing, augmentation, and evaluation that enable standardized benchmarking across classification, open-set recognition, and object detection, with reproducible pipelines.

Abstract

We present CageDroneRF (CDRF), a large-scale benchmark for Radio-Frequency (RF) drone detection and identification built from real-world captures and systematically generated synthetic variants. CDRF addresses the scarcity and limited diversity of existing RF datasets by coupling extensive raw recordings with a principled augmentation pipeline that (i)~precisely controls Signal-to-Noise Ratio (SNR), (ii)~injects interfering emitters, and (iii)~applies frequency shifts with label-consistent bounding-box recomputation for detection. The dataset spans a wide range of contemporary drone models, many of which are unavailable in current public datasets, and diverse acquisition conditions, derived from data collected at the Rowan University campus and within a controlled RF-cage facility. CDRF is released with interoperable open-source tools for data generation, preprocessing, augmentation, and evaluation that also operate on existing public benchmarks. It enables standardized benchmarking for classification, open-set recognition, and object detection, supporting rigorous comparisons and reproducible pipelines. By releasing this comprehensive benchmark and tooling, we aim to accelerate progress toward robust, generalizable RF perception models.