分路器
多物理
光刻
计算机科学
材料科学
制作
光功率
光电子学
光学
物理
激光器
医学
热力学
有限元法
病理
替代医学
作者
Parisa Mahmoudi,Hadi Veladi,Firouz Ghaderi Pakdel,Javad Frounchi
出处
期刊:Journal of Micro-nanolithography Mems and Moems
[SPIE]
日期:2019-02-19
卷期号:18 (01): 1-1
标识
DOI:10.1117/1.jmm.18.1.015502
摘要
Background: Optical stimulation of the brain is based on optrodes with integrated optical splitters to excite multiple neurons simultaneously. This requires efficient light delivery systems. Aim: In order to satisfy optical requirements, to reduce the fabrication costs, and to obtain less invasive implantation into the brain, we assess a polymer-based microdevice both in theory and experiments. Approach: In addition to design and evaluation of the device using Multiphysics software, to achieve a feasible implementation, we base our fabrication process on off-the-shelf ultraviolet adhesives as the functional material with fascinating optical and mechanical characteristics all together, easy photolithographic-only curing, and no more steps required for common soft lithographic-based materials. Results: Wideband transmission of optical signals over the visible/near-infrared together with uniform splitting of the input power from different light sources has been observed and recorded using an optical setup with acceptable agreement with the simulation outcomes. Conclusions: Our research proposes a flexible and biocompatible optical splitter to be used as a light delivery system for a wide variety of optical stimulation methods in neuroscience studies with fewer or no changes in the design, dimensions, and even exploited materials. So it is a multipurpose device.
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