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; plasmas encountered in planetary magnetospheres; the solar wind and artificially generated charges and fields on spacecraft; micro-meteoroids and non trackable debris; planetary and lunar dust; and
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Mitigation Policy and Requirements were updated in 2023, with a further update planned for 2030. Addressing this global concern requires not only models capable of projecting debris populations over different
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learning, understand their mathematical foundations, and connect them to space-related technologies and missions. The focus is on building rigorous models that explain and predict the behaviour of modern
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modelling, soft robotics, neuro-inspired systems and space exploration. This includes projects on soft-body locomotion and “novelty search” strategies for soft robotic explorers operating on rough planetary
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functionalities that can further improve operational performance, such as the integration of predictive models, orbital dynamics knowledge, or drag-aware optimisation strategies to enhance manoeuvre timing and
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other emerging frameworks that may offer new ways to model, analyse, and optimise complex space systems. You are strongly encouraged to familiarise yourself with the ACT’s research portfolio, in
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. Priorities include novel high-resolution products (precipitation, evaporation, soil moisture), high-resolution hydrological modelling, human impacts in the water cycle, ground water storage, global water cycle
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principles into testable designs, models and algorithms for future missions. Biologists joining the ACT will find an environment where they can bring their expertise in organismal biology, ecology