DISCO: Diffusion-Based Inter-Agent Swarm Collision-Free Optimization for UAVs

We present a diffusion-based generative model for coordinated trajectory planning in multi-UAV swarms. The proposed method represents each UAV's trajectory in a Bernstein polynomial coefficient space and employs a denoising diffusion process with self-attention layers to generate diverse, feasible motion plans. A safety filter is integrated into the generation pipeline to refine candidate trajectories, enforcing inter-drone collision avoidance and other feasibility constraints. The model is trained offline on a large set of expert demonstration trajectories, eliminating the need for reinforcement learning and manual reward function design. In experiments with a 16-UAV swarm using a dataset of collision-free trajectories, the approach achieved a high success rate in producing safe and smooth flight paths. These results demonstrate that the learned planner can rapidly generate a diverse set of smooth, collision-free trajectories for the swarm.

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Publication Details

Published
2025-06-30
DOI
https://doi.org/10.1109/icca65672.2025.11129710
Primary Topic
Robotic Path Planning Algorithms
Type
article
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article

DISCO: Diffusion-Based Inter-Agent Swarm Collision-Free Optimization for UAVs

Bhanu Teja, K. Madhava Krishna, T. Shilpitha Chowdary, Simon Idoko et al.
Robotic Path Planning Algorithms
article

DISCO: Diffusion-Based Inter-Agent Swarm Collision-Free Optimization for UAVs

Bhanu Teja, K. Madhava Krishna, T. Shilpitha Chowdary, Simon Idoko, Arun Kumar Singh
article en

Abstract

We present a diffusion-based generative model for coordinated trajectory planning in multi-UAV swarms. The proposed method represents each UAV's trajectory in a Bernstein polynomial coefficient space and employs a denoising diffusion process with self-attention layers to generate diverse, feasible motion plans. A safety filter is integrated into the generation pipeline to refine candidate trajectories, enforcing inter-drone collision avoidance and other feasibility constraints. The model is trained offline on a large set of expert demonstration trajectories, eliminating the need for reinforcement learning and manual reward function design. In experiments with a 16-UAV swarm using a dataset of collision-free trajectories, the approach achieved a high success rate in producing safe and smooth flight paths. These results demonstrate that the learned planner can rapidly generate a diverse set of smooth, collision-free trajectories for the swarm.

University of Tartu (EE), Indian Institute of Technology Hyderabad (IN)
Openalex Percentile: Top 78%
Robotic Path Planning Algorithms
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