Baldwin Alex, States Gregory, Pikov Victor, Gunalan Pallavi, Elyahoodayan Sahar, Kilgore Kevin, Meng Ellis
Alfred E. Mann Department of Biomedical Engineering, University of Southern California, USA.
Department of Physical Medicine & Rehabilitation, Case Western Reserve University and The MetroHealth System, Cleveland, OH, USA.
Curr Opin Biomed Eng. 2025 Mar;33. doi: 10.1016/j.cobme.2024.100575. Epub 2024 Dec 20.
Bioelectronic medicine is a growing field which involves directly interfacing with the vagus, sacral, enteric, and other autonomic nerves to treat conditions. Therapies based on bioelectronic medicine could address previously intractable diseases and provide an alternative to pharmaceuticals. However, translating a bioelectronic medicine therapy to the clinic requires overcoming several challenges, including titrating stimulation parameters to an individual's physiology, selectively stimulating target nerves without inducing off-target activation or block, and improving accessibility to clinically approved devices. This review describes recent progress towards solving these problems, including advances in mapping and characterizing the human autonomic nervous system, new sensor technology and signal processing techniques to enable closed-loop therapies, new methods for selectively stimulating autonomic nerves without inducing off-target effects, and efforts to develop open-source implantable devices. Recent commercial successes in bringing bioelectronic medicine therapies to the clinic are highlighted showing how addressing these challenges can lead to novel therapies.
生物电子医学是一个不断发展的领域,它涉及直接与迷走神经、骶神经、肠神经和其他自主神经连接以治疗疾病。基于生物电子医学的疗法可以解决以前难以治疗的疾病,并提供药物治疗的替代方案。然而,将生物电子医学疗法应用于临床需要克服几个挑战,包括根据个体生理状况调整刺激参数、在不引起非靶向激活或阻断的情况下选择性刺激目标神经,以及提高临床批准设备的可及性。这篇综述描述了在解决这些问题方面的最新进展,包括在绘制和表征人类自主神经系统方面的进展、实现闭环疗法的新传感器技术和信号处理技术、在不产生非靶向效应的情况下选择性刺激自主神经的新方法,以及开发开源植入式设备的努力。文中强调了生物电子医学疗法在临床应用方面最近取得的商业成功,展示了应对这些挑战如何能够带来新的疗法。