Seasonal Station-Keeping of Short Duration High Altitude Balloons Using Deep Reinforcement Learning

Station-Keeping short-duration high-altitude balloons (HABs) in a region of interest is a challenging path-planning problem due to partially observable, complex, and dynamic wind flows. Deep reinforcement learning is a popular strategy for solving the station-keeping problem. A custom simulation environment was developed to train and evaluate Deep Q-Learning (DQN) for short-duration HAB agents in the simulation To train the agents on realistic winds, synthetic wind forecasts were generated from aggregated historical radiosonde data to apply horizontal kinematics to simulated agents. The synthetic forecasts were closely correlated with ECWMF ERA5 Reanalysis forecasts, providing a realistic simulated wind field and seasonal and altitudinal variances between the wind models. DQN HAB agents were then trained and evaluated across different seasonal months To highlight differences and trends in months with vastly different wind fields, a Forecast Score algorithm was introduced to independently classify forecasts based on wind diversity, and trends between station-keeping success and the Forecast Score were evaluated across all seasons.

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Publication Details

Published
2025-03-01
DOI
https://doi.org/10.1109/aero63441.2025.11068667
Citations
1
Primary Topic
Aerospace Engineering and Energy Systems
Type
article
Field-Weighted Citation Impact
4.99
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article

Seasonal Station-Keeping of Short Duration High Altitude Balloons Using Deep Reinforcement Learning

Tristan Schuler, Donald Sofge, Chinthan Prasad, Georgiy Kiselev
1 citations
Aerospace Engineering and Energy Systems
4.99
article

Seasonal Station-Keeping of Short Duration High Altitude Balloons Using Deep Reinforcement Learning

Tristan Schuler, Donald Sofge, Chinthan Prasad, Georgiy Kiselev
article en
1 citations

Abstract

Station-Keeping short-duration high-altitude balloons (HABs) in a region of interest is a challenging path-planning problem due to partially observable, complex, and dynamic wind flows. Deep reinforcement learning is a popular strategy for solving the station-keeping problem. A custom simulation environment was developed to train and evaluate Deep Q-Learning (DQN) for short-duration HAB agents in the simulation To train the agents on realistic winds, synthetic wind forecasts were generated from aggregated historical radiosonde data to apply horizontal kinematics to simulated agents. The synthetic forecasts were closely correlated with ECWMF ERA5 Reanalysis forecasts, providing a realistic simulated wind field and seasonal and altitudinal variances between the wind models. DQN HAB agents were then trained and evaluated across different seasonal months To highlight differences and trends in months with vastly different wind fields, a Forecast Score algorithm was introduced to independently classify forecasts based on wind diversity, and trends between station-keeping success and the Forecast Score were evaluated across all seasons.

United States Naval Research Laboratory (US)
Climate action
Openalex Percentile: Top 5%
Aerospace Engineering and Energy Systems
4.99
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