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Drones Help Drones: A Collaborative Framework for Multi-Drone Object Trajectory Prediction and Beyond

NeurIPS 2024 · Detection and segmentation › 3D detection and driving · approach: Multi-camera BEV detection · 9 citations (OpenAlex)

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Proposes DHD, a multi-drone collaborative trajectory prediction framework with ground-prior BEV generation and sliding-window sparse interaction, plus the simulated Air-Co-Pred dataset built on CARLA.

Problem

Collaborative object trajectory prediction across multiple drones faces inaccurate BEV generation from expansive aerial views (large depth ranges) and excessive inter-drone communication under limited bandwidth.

Approach

Uses the drone's inclined viewing geometry to derive a per-pixel depth upper bound and estimates object height instead of depth (depth = upper bound times (1 - h/H)), and selects features for transmission by sliding-window information volume (feature discrepancy between center and neighbors) with complementary scoring between drones.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use GBG instead of LSS for BEV generationDHD · Air-Co-Pred shortIoU (%): 56.29 -> 61.39Helped
Use GBG instead of LSS for BEV generationDHD · Air-Co-Pred longIoU (%): 51.76 -> 53.95Helped
Add ground-prior-based depth estimation (GBG) (ablation)DHD · Air-Co-Pred shortIoU (%): 57.1 -> 61.8Helped
Add ground-prior-based depth estimation (GBG) (ablation)DHD · Air-Co-Pred longIoU (%): 52.1 -> 54.5Helped
Add sparse interaction via sliding windows (SISW) (ablation)DHD · Air-Co-Pred shortIoU (%): 57.1 -> 56.3Hurt
Add sparse interaction via sliding windows (SISW) (ablation)DHD · Air-Co-Pred longIoU (%): 52.1 -> 51.8Hurt
Add SISW to GBG (ablation)DHD · Air-Co-Pred shortIoU (%): 61.8 -> 61.4Hurt
Add SISW to GBG (ablation)DHD · Air-Co-Pred longIoU (%): 54.5 -> 54.0Hurt
Reduce transmission ratio from 1 to 0.25 with SISW (ablation)DHD · Air-Co-PredIoU (%)No clear effect
Remove height estimation from GBG (ablation)DHD · Air-Co-Pred longDeviation (m): 1.46 -> 1.67Hurt
Remove GRU-based temporal fusion (ablation)UMC · Air-Co-Pred longIoU (%): 52.3 -> 53.2Helped
Use DHD rather than no collaborationDHD · Air-Co-Pred shortIoU (%): 38.1 -> 61.4Helped

Surprising findings

Limitations

Experimental setup

Datasets: Air-Co-Pred CoPerception-UAVs

Benchmarks: Air-Co-Pred CoPerception-UAVs

Metrics: IoU VPQ precision recall position deviation (m) mAP mATE mASE mAOE

Baselines: LSS DVDET No Collaboration Early Collaboration Late Collaboration V2X-ViT V2VNet Who2com When2com Where2comm UMC BEVDet

Builds on: Lift-Splat-Shoot PowerBEV Where2comm BEVDepth EfficientNet

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