光遗传学
生物神经网络
体内
光纤
电子线路
纳米技术
生物医学工程
材料科学
微流控
灵活性(工程)
计算机科学
神经科学
生物系统
生物
电信
物理
医学
生物技术
统计
量子力学
数学
作者
Andrés Canales,Xiaoting Jia,Ulrich P. Froriep,Ryan A. Koppes,Christina M. Tringides,Jennifer Selvidge,Chi Lu,Chong Hou,Lei Wei,Yoel Fink,Polina Anikeeva
摘要
Brain function depends on simultaneous electrical, chemical and mechanical signaling at the cellular level. This multiplicity has confounded efforts to simultaneously measure or modulate these diverse signals in vivo. Here we present fiber probes that allow for simultaneous optical stimulation, neural recording and drug delivery in behaving mice with high resolution. These fibers are fabricated from polymers by means of a thermal drawing process that allows for the integration of multiple materials and interrogation modalities into neural probes. Mechanical, electrical, optical and microfluidic measurements revealed high flexibility and functionality of the probes under bending deformation. Long-term in vivo recordings, optogenetic stimulation, drug perturbation and analysis of tissue response confirmed that our probes can form stable brain-machine interfaces for at least 2 months. We expect that our multifunctional fibers will permit more detailed manipulation and analysis of neural circuits deep in the brain of behaving animals than achievable before.
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