应用于神经界面的聚合物纳米复合材料微流控通道的混合制造方法

Youjoung Kim, Natalie N Mueller, William E. Schwartzman, V. Aluri, Amanda Herried, J. Capadona, A. Hess-Dunning
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引用次数: 3

摘要

采用机械自适应聚合物纳米复合材料制备了微流控皮层内神经探针。研究了三种不同的微流体通道制造方法:纯压纹、纯模具和混合模具/压纹方法。用显微镜和轮廓术检查和表征每种方法生产的薄膜。此外,我们研究了每种方法生产具有功能微流体通道的探针的能力。结果表明,混合模压法将通道图案传递到聚合物纳米复合材料的保真度最高,并且最成功地制备了功能微流控探针。这一过程将有助于提高NC神经探针的功能和长期生存能力和可靠性。
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Hybrid Fabrication Method for Microfluidic Channels Within a Polymer Nanocomposite for Neural Interfacing Applications
Microfluidic intracortical neural probes were developed using a mechanically-adaptive polymer nanocomposite. Three different microfluidic channel fabrication methods were explored: Emboss-only, Mold-only, and a hybrid Mold/Emboss method. Films produced from each method were inspected and characterized using microscopy and profilometry. Further, we studied the ability of each approach to produce probes with functional microfluidic channels. The results indicate that the hybrid Mold/Emboss method had the highest fidelity transfer of the channel pattern to the polymer nanocomposite and was most successful in producing functional microfluidic probes. This process will help to increase the functionality and long-term viability and reliability of NC neural probes.
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