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Advanced Healthcare Materials Cover Story and 36Kr Highlighted "Brain-Computer Interface": An Ultra-Flexible Neural Electrode with Bioelectromechanical Compatibility and Brain Micromotion Detection, Advanced Healthcare Materials 15, e03101, 2026. (10.1002/adhm.202503101, 10.1002/adhm.70670 Inside front cover)

Press/Media: Press / Media

Description

Brain-Computer Interface

To address the critical challenge of interface mismatch with brain tissue, Lixin Dong and co-workers (DOI: 10.1002/adhm.202503101) develop an ultra-flexible, bioelectromechanically compatible electrode. It moves synchronously with the brain tissue to achieve zero slippage while integrating the dual functions of neural signal recording and micromotion sensing. This Research Article provides a theoretical and technological foundation for constructing next-generation, highly stable invasive brain-computer interfaces.

Period16 Feb 2026 → 15 Apr 2026

Media coverage

2

Media coverage

  • Title脑机接口:人机共融临界点,开启生命与智能融合新纪元
    Degree of recognitionNational
    Media name/outlet36Kr
    Media typeWeb
    PlaceChina
    Date15/04/26
    Description脑机接口打破了传统人机交互的物理边界,推动着人类社会向人机共融的方向逐步迈进。云岫资本针对脑机接口产业的核心逻辑和产业格局进行深度研究,欢迎与我们交流。
    硬件是脑机接口系统的物理载体,更是技术实现的核心基础,电极材料迭代与芯片平台创新构成技术突破的核心驱动力。其技术壁垒高低与国产替代空间大小,共同决定了该领域的核心投资价值,投资布局重点聚焦侵入式、非侵入式两大技术路线的差异化硬件升级方向,为后续数据算法优化、场景落地及新兴技术延伸奠定硬件基础。

    电极材料:柔性化、高适配、长时稳定成为核心研发导向

    侵入式电极领域,重点关注超柔性材料与机电生物相容性的技术突破,聚焦可实现与脑组织零滑移同步运动、集成神经信号记录与微动传感双重功能的研发团队及相关企业,重点布局超柔性微丝电极、皮层表面微电极阵列等核心产品......
    Producer/Author云岫资本: 宋旭文、孙宪明、文昊冉
    URLhttps://www.36kr.com/p/3767663752020744
    PersonsDonglei CHEN, Yu Lu, Shuo Zhang, Wenqi ZHANG, Zejie YU, Shuideng WANG, Zhi QU, Mingxing CHENG, Yiqing YAO, Deheng Wang, Zhan Yang, Lixin DONG
  • TitleBrain-Computer Interface
    Degree of recognitionInternational
    Media name/outletAdvanced Healthcare Materials
    Media typeWeb
    PlaceGermany
    Date16/02/26
    DescriptionTo address the critical challenge of interface mismatch with brain tissue, Lixin Dong and co-workers (DOI: 10.1002/adhm.202503101) develop an ultra-flexible, bioelectromechanically compatible electrode. It moves synchronously with the brain tissue to achieve zero slippage while integrating the dual functions of neural signal recording and micromotion sensing. This Research Article provides a theoretical and technological foundation for constructing next-generation, highly stable invasive brain-computer interfaces.

    URLhttps://advanced.onlinelibrary.wiley.com/doi/10.1002/adhm.70670
    PersonsLixin DONG