Comprehensive review of wireless power transfer for autonomous underwater vehicles: technological innovations, challenges, and future prospects

Abishek Pandey Chettri , Narayanamoorthi R
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Abstract

Autonomous Underwater Vehicles (AUVs) are revolutionizing oceanographic research, military surveillance, and offshore energy maintenance but face the constraint of limited battery capacity and recharging difficulties in terms of endurance during operation. Wireless Power Transfer (WPT) appears to be a promising answer in providing remote, contactless charging, thereby extending mission duration. This review covers recent advancements in WPT technologies for AUVs, focusing on resonant inductive coupling, magnetic resonance, and acoustic-based power transfer systems. Among these, resonant inductive and magnetic resonance coupling methods have demonstrated the highest practical suitability for AUV applications due to their efficiency, misalignment tolerance, and compatibility with submerged operational conditions. The specific problem of energy loss with salinity and conductivity from the water, alignment issues, and the use of durable corrosion-resistant materials are analyzed in detail. This paper reviews the key advancements in inductive coupling techniques, coil configurations, as well as hybrid power transfer modes combining electromagnetic, acoustic and optical methods. No sole WPT technology can solely address the variety of underwater power transfer application needs, but hybrid schemes are promising. Hybrid designs can be used to support short-range, high efficiency transfer modes with complementary long-range acoustic or optical transfer techniques for improved performances. Some future research areas include adaptive control systems, metamaterials, and novel energy harvesting innovations, as well as integrated energy storage and management in AUV docking stations. WPT technologies have advanced significantly, but innovation is still needed to optimize AUVs for long-duration underwater missions that are critical to marine resource management and subsea infrastructure monitoring.
自主水下航行器无线传输技术综述:技术创新、挑战和未来展望
自主水下航行器(auv)正在彻底改变海洋研究、军事监视和海上能源维护,但在运行过程中面临电池容量有限和充电困难的限制。无线电力传输(WPT)似乎是一个很有前途的解决方案,提供远程,非接触式充电,从而延长任务持续时间。本文综述了用于auv的WPT技术的最新进展,重点是谐振电感耦合、磁共振和基于声学的功率传输系统。其中,谐振电感和磁共振耦合方法由于其效率、不准直容忍度和与水下操作条件的兼容性,已经证明了AUV应用的最高实际适用性。详细分析了能量损失与水的盐度和电导率、对准问题以及耐用耐腐蚀材料的使用等具体问题。本文综述了电感耦合技术、线圈结构以及结合电磁、声学和光学方法的混合功率传输模式的主要进展。没有一种单一的WPT技术可以单独解决各种水下电力传输应用需求,但混合方案是有前途的。混合设计可用于支持短程、高效率的传输模式,并辅以远程声学或光学传输技术,以提高性能。未来的研究领域包括自适应控制系统、超材料、新型能量收集创新,以及AUV对接站的集成能量存储和管理。WPT技术已经取得了长足的进步,但为了优化auv的长时间水下任务,仍然需要创新,这对海洋资源管理和海底基础设施监测至关重要。
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