IEEE Trans Ultrason Ferroelectr Freq Control. 2024 Jul;71(7):713-729. doi: 10.1109/TUFFC.2023.3327143. Epub 2024 Jul 9.
This perspective article provides a brief overview on materials, fabrications, beamforming, and applications for wearable ultrasound devices, a rapidly growing field with versatile implications. Recent developments in miniaturization and soft electronics have significantly advanced wearable ultrasound devices. Such devices offer distinctive advantages over traditional ultrasound probes, including prolonged usability and operator independence, and have demonstrated their effectiveness in continuous monitoring, noninvasive therapies, and advanced human-machine interfaces. Wearable ultrasound devices can be classified into three main categories: rigid, flexible, and stretchable, each having distinctive properties and fabrication strategies. Key unique strategies in device design, packaging, and beamforming for each type of wearable ultrasound devices are reviewed. Furthermore, we highlight the latest applications enabled by wearable ultrasound technology in various areas. This article concludes by discussing the outstanding challenges within the field and outlines potential pathways for future advancements.
这篇观点文章简要概述了可穿戴超声设备的材料、制造、波束形成以及应用,这是一个快速发展的领域,具有广泛的应用前景。微型化和软电子技术的最新发展极大地推动了可穿戴超声设备的发展。与传统超声探头相比,这些设备具有独特的优势,包括更长的可用性和操作员独立性,并且已经在连续监测、非侵入性治疗和先进的人机界面方面证明了其有效性。可穿戴超声设备可以分为刚性、柔性和可拉伸性三种主要类型,每种类型都具有独特的特性和制造策略。本文回顾了每种类型的可穿戴超声设备在器件设计、封装和波束形成方面的关键独特策略。此外,我们还强调了可穿戴超声技术在各个领域的最新应用。本文最后讨论了该领域的突出挑战,并概述了未来发展的潜在途径。