Power-Aware Inverse-Search Machine Learning for Low Resource Multi-Objective Unmanned Underwater Vehicle Control
@article{Zhou_Geder_Viswanath_Sharma_Lee_2024, title={Power-Aware Inverse-Search Machine Learning for Low Resource Multi-Objective Unmanned Underwater Vehicle Control (Student Abstract)}, volume={38}, url={https://ojs.aaai.org/index.php/AAAI/article/view/30538}, DOI={10.1609/aaai.v38i21.30538}, abstractNote={Flapping-fin unmanned underwater vehicle (UUV) propulsion systems enable high maneuverability for tasks ranging from station-keeping to surveillance but are often constrained by their limited computational power and battery capacity. Previous research has demonstrated that time-series neural network models can accurately predict the thrust and power of certain fin kinematics based on the specified gait coupled with the fin configuration, but can not fit an inverse neural network that takes a thrust request and tunes the kinematics by weighting thrust generation, smooth movement transitions, and power attributes. We study various combinations of the three weights and fin materials to create different 'modes' of movement for a multi-objective UUV, based on controller intent using an inverse neural network. Finally, we implement and validate an enhanced power-aware inverse model by benchmarking on the Raspberry Pi Model 4B system and testing through generated simulated movements.}, number={21}, journal={Proceedings of the AAAI Conference on Artificial Intelligence}, author={Zhou, Brian and Geder, Jason and Viswanath, Kamal and Sharma, Alisha and Lee, Julian}, year={2024}, month={Mar.}, pages={23714-23716} }
Abstract
Flapping-fin unmanned underwater vehicle (UUV) propulsion systems enable high maneuverability for tasks ranging from station-keeping to surveillance but are often constrained by their limited computational power and battery capacity. Previous research has demonstrated that time-series neural network models can accurately predict the thrust and power of certain fin kinematics based on the specified gait coupled with the fin configuration, but can not fit an inverse neural network that takes a thrust request and tunes the kinematics by weighting thrust generation, smooth movement transitions, and power attributes. We study various combinations of the three weights and fin materials to create different 'modes' of movement for a multi-objective UUV, based on controller intent using an inverse neural network. Finally, we implement and validate an enhanced power-aware inverse model by benchmarking on the Raspberry Pi Model 4B system and testing through generated simulated movements.
See also
- Insights into Flexible Bioinspired Fins for Unmanned Underwater Vehicle Systems through Deep LearningBiomimetics; NeurIPS Workshop on Machine Learning and the Physical Sciences, 2024
- Data-Driven Machine Learning Models for a Multi-Objective Flapping Fin Unmanned Underwater Vehicle Control SystemAAAI Conference on Artificial Intelligence, 2023
- Computational Approaches for Modeling Power Consumption on an Underwater Flapping Fin Propulsion SystemAAAI Symposium on Knowledge-Guided Machine Learning, 2022
- Weakening the Voting Rights Act reduces minority representation and electoral competitionPreprint, 2026
- Governance at a Crossroads: Artificial Intelligence and the Future of Innovation in AmericaSSRN, 2025