Oldroyd Poppy, Hadwe Salim El, Barone Damiano G, Malliaras George G
Electrical Engineering Division, Department of Engineering, University of Cambridge, Cambridge, UK.
Department of Clinical Neurosciences, University of Cambridge, Cambridge, UK.
MRS Bull. 2024;49(10):1045-1058. doi: 10.1557/s43577-024-00786-7. Epub 2024 Sep 26.
Bioelectronic medicine offers a revolutionary approach to treating disease by stimulating the body with electricity. While current devices show safety and efficacy, limitations, including bulkiness, invasiveness, and scalability, hinder their wider application. Thin-film implants promise to overcome these limitations. Made using microfabrication technologies, these implants conform better to neural tissues, reduce tissue damage and foreign body response, and provide high-density, multimodal interfaces with the body. This article explores how thin-film implants using organic materials and novel designs may contribute to disease management, intraoperative monitoring, and brain mapping applications. Additionally, the technical challenges to be addressed for this technology to succeed are discussed.
生物电子医学提供了一种通过电刺激身体来治疗疾病的革命性方法。虽然目前的设备显示出安全性和有效性,但包括体积庞大、侵入性和可扩展性在内的局限性阻碍了它们的更广泛应用。薄膜植入物有望克服这些局限性。这些植入物采用微加工技术制造,能更好地贴合神经组织,减少组织损伤和异物反应,并提供与身体的高密度、多模态接口。本文探讨了使用有机材料和新颖设计的薄膜植入物如何有助于疾病管理、术中监测和脑图谱应用。此外,还讨论了该技术要取得成功需要解决的技术挑战。