A Technology Resource for Polymer Microelectrode Arrays

这项建议的目的是传播聚合物微电极阵列，并促进其 融入神经科学研究实践。这种聚合物神经接口是机械的 顺应性以促进装置-组织界面的稳定性，并且在表面和 可以用同样的技术生产穿透电极阵列。要完成他们的任务 传播和集成，将创建一个资源，提供定制电极的能力 与其他记录和刺激技术兼容的应用程序设计，以及 成像技术。将推出具有高通道数的最先进的聚合物探头 通过指导委员会的意见选定的项目提案选择用户，并向更广泛的 社区作为共享多项目处理运行的原型。重要的是，通过以下途径生产的设备 用户参与度将经过功能测试，并准备植入。多项目晶圆加工运行 将允许在单个掩模组上生产来自多个用户的少量定制设备 这将允许用户调试和执行设计调整，并允许资源高效地利用 晶圆房地产。 该资源还提供测试服务，以验证外部用户制造的电极阵列。这个 接口技术在体内的成功实施依赖于它们的可重复构建 和可靠的性能；这些可能很难在小批量原型中实现，甚至在 商业化生产的设备，因为缺乏测试能力或专业知识。设备测试服务 将确保严密性、可重复性和透明度，以造福于用户社区。测试 方法将是全面的，从材料层面开始，一直到界面， 互联互通和包装。测试将包括检查表面属性、材料 性能、机械性能、电气和电化学性能以及寿命测试。AS 如果需要，测试将根据最终使用要求为每个项目量身定做。测试 方法将得到严格的记录和传播。 为了促进用户采用技术，该资源将提供关于如何 在大鼠体内实施电极阵列。该资源旨在使大脑倡议调查人员和 更广泛的社区实现将影响基础神经科学的大规模记录 治疗多发性神经系统疾病的研究和下一代神经假体平台 和条件。

The purpose of this proposal is to disseminate polymer microelectrode arrays and promote their integrated into neuroscience research practice. Such polymer neural interfaces are mechanically compliant to promote stability of the device-tissue interface and versatile in that both surface and penetrating electrode arrays can be produced with the same technology. To accomplish their dissemination and integration, a resource will be created that offers the ability to customize electrode designs for their applications that are compatible with other recording and stimulation technologies and imaging technologies. The state-of-the-art polymer probes with high channel count will be made available to select users through project proposals selected with the input of a steering committee and to the broader community as prototypes on shared multi-project processing runs. Importantly, devices produced through user engagement will be functionally tested and ready to implant. The multi-project wafer processing runs will allow for small numbers of custom devices from multiple users to be produced on a single mask set which will allow users to debug and perform design adjustments and allow the resource to efficiently utilize wafer real estate. The resource also offers a testing service to validate electrode arrays made by external users. The successful in vivo implementation of interface technologies is dependent of their repeatable construction and reliable performance; these may be difficult to attain in small batch prototypes and even in commercially produced devices because of lack of testing capabilities or expertise. Device testing services will ensure rigor, reproducibility, and transparency for the benefit of the user community. The testing approach will be comprehensive, beginning at the materials level and progressing to the interface, interconnections, and packaging. Testing will include techniques that examine surface properties, material properties, mechanical performance, electrical and electrochemical performance, and lifetime testing. As needed, testing will be tailored for each project as dictated by its end use requirements. The testing methodologies will be rigorously documented and also disseminated. To facilitate adoption of technologies by users, the resource will offer onsite training on how to implement electrode arrays in vivo in rat. The resource seeks to enable BRAIN Initiative investigators and the broader community to achieve large scale recordings that will impact fundamental neuroscience research and next generation neuroprosthetic platforms for the treatment of multiple neurological disorders and conditions.