Biomimetic apposition compound eye fabricated using microfluidic-assisted 3D printing

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作者
Bo Dai
Liang Zhang
Chenglong Zhao
Hunter Bachman
Ryan Becker
John Mai
Ziao Jiao
Wei Li
Lulu Zheng
Xinjun Wan
Tony Jun Huang
Songlin Zhuang
Dawei Zhang
机构
[1] University of Shanghai for Science and Technology,Engineering Research Center of Optical Instrument and System, the Ministry of Education, Shanghai Key Laboratory of Modern Optical System
[2] University of Dayton,Department of Physics
[3] University of Dayton,Department of Electro
[4] Duke University,Optics and Photonics
[5] Duke University,Department of Mechanical Engineering and Materials Science
[6] University of Southern California,Department of Biomedical Engineering
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摘要
After half a billion years of evolution, arthropods have developed sophisticated compound eyes with extraordinary visual capabilities that have inspired the development of artificial compound eyes. However, the limited 2D nature of most traditional fabrication techniques makes it challenging to directly replicate these natural systems. Here, we present a biomimetic apposition compound eye fabricated using a microfluidic-assisted 3D-printing technique. Each microlens is connected to the bottom planar surface of the eye via intracorporal, zero-crosstalk refractive-index-matched waveguides to mimic the rhabdoms of a natural eye. Full-colour wide-angle panoramic views and position tracking of a point source are realized by placing the fabricated eye directly on top of a commercial imaging sensor. As a biomimetic analogue to naturally occurring compound eyes, the eye’s full-colour 3D to 2D mapping capability has the potential to enable a wide variety of applications from improving endoscopic imaging to enhancing machine vision for facilitating human–robot interactions.
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