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About this paper
Tristan K. Schuler, Chinthan Prasad, Georgiy Kiselev, Donald Sofge
Researchers at the U.S. Naval Research Laboratory developed a deep reinforcement learning strategy for autonomous station-keeping of short-duration high-altitude balloons. This involved creating a synthetic wind model to introduce realistic atmospheric uncertainties into simulations and a "Forecast Score" algorithm to assess mission viability based on wind diversity, with DRL agents achieving around 50% time within a 50 km radius.
Key insights
- Deep Reinforcement Learning, specifically DQN, can effectively learn and execute station-keeping strategies for short-duration solar high-altitude balloons by exploiting vertical wind diversity.
- Training DRL agents with synthetic wind forecasts that simulate realistic deviations from standard reanalysis data is crucial for developing robust policies capable of handling real-world atmospheric uncertainties.
- The degree of vertical wind diversity, as quantified by the "Forecast Score" algorithm, is a strong indicator of the potential for successful HAB station-keeping and exhibits significant seasonal and regional variations.
Summary by alphaXiv.
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