Titlebook: Neural Interface Engineering; Linking the Physical Liang Guo Book 2020 Springer Nature Switzerland AG 2020 Brain-Machine Interface.Brain-Co

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Peripheral Nerve Electrodes,y have existing designs been re-scrutinized, but several new electrode designs have been developed. Despite several excellent comprehensive review articles on peripheral nerve electrodes, most of them focus on different types of devices but lack a systematic emphasis on the challenges and design mot

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Strategies to Improve Neural Electrode Performance,hnological and biological in nature. Traditionally made of stiff, non-biocompatible materials, electrode insertion initiates the body’s immune response. This response can lead to the formation of scar tissue around the electrode causing degradation of recording and stimulation signal integrity. In o

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3D Cell Culture Systems for the Development of Neural Interfaces,dies have been an integral part of this research and form the basis of regulated preclinical studies. Historically, 2D cell cultures have provided substantial data on neural interfaces; however, these have inherent limitations. Critically, they do not recapitulate essential features of the in vivo e

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Biofluid Barrier Materials and Encapsulation Strategies for Flexible, Chronically Stable Neural Intdamental biomedical research and clinical medicines. A critical challenge for developing advanced bioimplants as interfaces to the brain and other nervous system is the synthesis and deposition of interface materials that can enable long-term and intimate coupling to the biotissues within targeted o

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Passive RF Neural Electrodes,iated with these neurosensing systems. Passive and fully passive wireless implants reduce the risks associated with traditional neural interfaces as implanted batteries are eliminated, perforation of the skull is not needed, and implant complexity is reduced. Passive, wireless implants do not store

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Wireless Soft Microfluidics for Chronic In Vivo Neuropharmacology,to conventional metal cannulas, these soft probes offer minimal invasiveness and excellent biocompatibility while also allowing for compact integration with various other modalities (e.g. optical, electrical, etc.) and wireless modules, thus opening new opportunities for chronic in vivo pharmacology