Overview

Aerial object detection studies how to find and classify objects in images captured from drones, aircraft, and satellites, where targets may be tiny, crowded, rotated, or partly obscured. Common approaches include YOLO-style detectors and DETR transformers, high-resolution feature pyramids and image slicing, oriented bounding boxes, and fusion of RGB with thermal or event-camera data. VisDrone and UAVDT test drone imagery, while DOTA and related benchmarks emphasize large, varied scenes and rotated objects; recent work also explores open-vocabulary recognition, weak supervision, and efficient deployment on edge devices. A central tension is improving small-object accuracy without excessive computation, while performance across weather, sensors, locations, and datasets remains difficult to guarantee.

Latest papers

122 papers8 papers in the last four weeks, down 47% on the four weeks before. 0.0% of all new papers.

Sep 23, 2025

KAMERA: Enhancing Aerial Surveys of Ice-associated Seals in Arctic Environments

We introduce KAMERA: a comprehensive system for multi-camera, multi-spectral synchronization and real-time detection of seals and polar bears. Utilized in aerial surveys for ice-associated seals in the Bering, Chukchi, and Beaufort seas around Alaska, KAMERA provides up to an 80% reduction in dataset processing time over previous methods. Our rigorous calibration and hardware synchronization enable using multiple spectra for object detection. All collected data are annotated with metadata so they can be easily referenced later. All imagery and animal detections from a survey are mapped onto a world plane for accurate surveyed area estimates and quick assessment of survey results. We hope KAMERA will inspire other mapping and detection efforts in the scientific community, with all software, models, and schematics fully open-sourced.
Jun 15, 2025

MGDFIS: Multi-scale Global-detail Feature Integration Strategy for Small Object Detection

Small-object detection in Unmanned Aerial Vehicle (UAV) imagery requires preserving weak local evidence while using broader context to separate tiny foreground targets from cluttered backgrounds. Existing multi-scale fusion methods improve feature aggregation, but they often add computation or blur fine details during repeated cross-scale fusion. The central challenge is to balance low-SNR target preservation, clutter suppression, and efficient cross-scale context exchange. To address this challenge, we propose the Multi-scale Global-detail Feature Integration Strategy (MGDFIS), a neck-level feature-fusion strategy that couples global context exchange, local-detail recovery, and pixel-level foreground-background recalibration. MGDFIS integrates three coordinated modules: FusionLock-TSS Attention for stabilizing spectral-spatial responses, Global-detail Integration for combining long-range mixing with local detail capture, and Dynamic Pixel Attention for reweighting compact foreground regions. On the controlled VisDrone setting, YOLO26m + MGDFIS improves AP50:95 from 25.7 to 30.2 and AP50 from 37.2 to 44.2 over the YOLO26m baseline, with 96.1 GFLOPs. Additional dataset-specific evaluations report 38.9 AP50 and 21.9 AP50:95 on UAVDT and 97.4 AP50 on CARPK. The code is available at: https://github.com/JackBaixue/MGDFIS.