Open Problems

Aerial, Satellite & BEV Perception

Benchmarking and Mitigating UAV Perception Failure Under Rapid Motion Blur, Scale Shifts, and Occlusion

Effect to explainOpen
Strong candidate · 4/5 runs3 papers report this33% from 2025+

Generated automatically from the limitations stated in 3 papers (NeurIPS, CVPR), listed under Evidence. It is not a paper, and it does not come from papers submitted to CSPaper.

The problem

Current perception models deployed on unmanned aerial vehicles achieve low absolute accuracy on standard downstream tasks (e.g., recall under 7.5% in scene understanding, under 40% in action recognition, and under 30% m_vIoU in tracking). These failures are driven by real-world flight conditions—rapid camera motion blur, extreme resolution and altitude shifts, severe occlusion, and small target sizes—that standard benchmarks do not systematically couple. As a consequence, aerial vision pipelines remain brittle and cannot be reliably trusted for autonomous navigation, search-and-rescue, or monitoring in complex flight regimes.

Why it matters

Autonomous UAV systems can maintain reliable perception and tracking across agile flight maneuvers and dynamic altitudes without catastrophic performance collapse.

Ways to approach it

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  1. 1

    Systematic Robustness Evaluation: Collect or synthesize a benchmark across existing UAV datasets (e.g., UAV123, DroneAction, VisDrone) that isolates and quantifies degradation curves across calibrated levels of motion blur, altitude-driven resolution scaling, and occlusion rates, measuring task performance drops against clean baselines.

  2. 2

    Motion- and Scale-Aware Pre-Restoration Adapters: Implement lightweight, task-coupled front-end restoration and scale-adaptation modules conditioned on UAV flight dynamics (IMU/velocity priors or optical flow magnitude) and measure end-to-end downstream mAP, recall, and tracking IoU.

  3. 3

    Multi-Scale Temporal Aggregation: Develop a temporal feature aggregation pipeline that leverages multi-frame redundancy across video streams to recover degraded small objects and blurred visual cues, evaluating performance recovery under aggressive UAV maneuver sequences.

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Why it might fail

If low-level image deblurring and super-resolution front-ends can be trivially plugged into existing off-the-shelf vision models to close the performance gap without requiring aerial-specific domain modeling.

Evidence

Each paper's own statement of the limitation, verbatim.

Nearest existing work

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Aerial, Satellite & BEV Perception

Barrier to removeOpen

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Current cross-view visual geolocalization, 3D scene reconstruction, and BEV perception models strictly depend on dense, spatially calibrated ground-level panoramas paired with satellite imagery or pre-existing 3D city meshes. In rural, sparsely populated, or underdeveloped regions, ground-level street-view coverage is either completely absent or uncalibrated. This reliance on dense ground-level imagery structurally restricts cross-view perception algorithms to major metropolitan areas with dedicated mapping fleets.

Strong candidate · 4/5 runs4 papers report this25% from 2025+

Aerial, Satellite & BEV Perception

Barrier to removePartly addressed

Robustness and Degradation Benchmarking of Map-Conditioned Perception Under Imperfect OpenStreetMap Priors

Contemporary BEV perception, aerial localization, and landmark-guided navigation models increasingly condition their visual representations on OpenStreetMap (OSM) vector geometry and metadata. In practice, OSM data exhibits severe geographic disparities, missing road classes, topological errors, and incomplete landmark tags. Because existing methods assume clean and complete vector maps as an operational precondition, system performance degrades unpredictably in under-mapped or rural areas, preventing deployment outside densely curated metropolitan regions.

Possible candidate · 3/5 runs3 papers report this100% from 2025+
Generated automatically, not curated by hand. Automated prior-work checks catch about a third of existing work, so treat this problem as a lead to investigate.