AirCapRL: Autonomous Aerial Human Motion Capture using Deep Reinforcement Learning
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Abstract (arXiv)
In this letter, we introduce a deep reinforcement learning (RL) based multi-robot formation controller for the task of autonomous aerial human motion capture (MoCap). We focus on vision-based MoCap, where the objective is to estimate the trajectory of body pose and shape of a single moving person using multiple micro aerial vehicles. State-of-the-art solutions to this problem are based on classical control methods, which depend on hand-crafted system and observation models. Such models are difficult to derive and generalize across different systems. Moreover, the non-linearity and non-convexities of these models lead to sub-optimal controls. In our work, we formulate this problem as a sequential decision making task to achieve the vision-based motion capture objectives, and solve it using a deep neural network-based RL method. We leverage proximal policy optimization (PPO) to train a stochastic decentralized control policy for formation control. The neural network is trained in a parallelized setup in synthetic environments. We performed extensive simulation experiments to validate our approach. Finally, real-robot experiments demonstrate that our policies generalize to real world conditions. Video Link: https://bit.ly/38SJfjo Supplementary: https://bit.ly/3evfo1O
Key facts. Cited by 11 papers in the map (data through 7 Oct 2026). First posted on arXiv 13 Jul 2020.
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Citing papers per year: 2021: 2; 2022: 3; 2023: 4; 2024: 1; 2025: 0; 2026: 1.
11 papers.
- 2023BeaverTails: Towards Improved Safety Alignment of LLM via a Human-Preference Datasetcited by 828
- 2023Proactive Multi-Camera Collaboration For 3D Human Pose Estimationcited by 13
- 2022SmartMocap: Joint Estimation of Human and Camera Motion using Uncalibrated RGB Camerascited by 8
- 20213D Human Reconstruction in the Wild with Collaborative Aerial Camerascited by 4
- 2022Learning to Coordinate for a Worker-Station Multi-robot System in Planar Coverage Taskscited by 3
- 2023Greedy Perspectives: Multi-Drone View Planning for Collaborative Perception in Cluttered Environmentscited by 2
- 2021Hybrid Self-Attention NEAT: A novel evolutionary approach to improve the NEAT algorithmcited by 1
- 2022Where Am I Now? Dynamically Finding Optimal Sensor States to Minimize Localization Uncertainty for a Perception-Denied Rovercited by 1
- 2023Personalized Pose Forecastingcited by 0
- 2024When to Localize? A Risk-Constrained Reinforcement Learning Approachcited by 0
- 2026HumanFlow -- Diffusion-Driven MAV Navigation Among Humans via Tightly-Coupled Motion Tracking, Forecasting, and Controlcited by 0
- 2026HumanFlow -- Diffusion-Driven MAV Navigation Among Humans via Tightly-Coupled Motion Tracking, Forecasting, and Control25 May 2026
- 2024When to Localize? A Risk-Constrained Reinforcement Learning Approach5 Nov 2024
- 2023Personalized Pose Forecasting6 Dec 2023
- 2023Greedy Perspectives: Multi-Drone View Planning for Collaborative Perception in Cluttered Environments16 Oct 2023
- 2023BeaverTails: Towards Improved Safety Alignment of LLM via a Human-Preference Dataset10 Jul 2023
- 2023Proactive Multi-Camera Collaboration For 3D Human Pose Estimation7 Mar 2023
- 2022Where Am I Now? Dynamically Finding Optimal Sensor States to Minimize Localization Uncertainty for a Perception-Denied Rover30 Nov 2022
- 2022SmartMocap: Joint Estimation of Human and Camera Motion using Uncalibrated RGB Cameras28 Sep 2022
- 2022Learning to Coordinate for a Worker-Station Multi-robot System in Planar Coverage Tasks5 Aug 2022
- 2021Hybrid Self-Attention NEAT: A novel evolutionary approach to improve the NEAT algorithm7 Dec 2021
- 20213D Human Reconstruction in the Wild with Collaborative Aerial Cameras9 Aug 2021