Design and fabrication of a low-cost liquid optical waveguide for augmented reality.

Dechuan Sun, Gregory Tanyi, Alan Lee, Chris French, Younger Liang, Christina Lim, Ranjith R Unnithan
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Abstract

The design and production of augmented reality (AR) waveguide combiners face considerable challenges due to the intricate nature of conventional fabrication techniques and the need for high precision. To overcome these obstacles, the field requires rapid prototyping methods that enable researchers and engineers to swiftly explore various designs and configurations, thereby accelerating the development process. Here, we have developed a cost-effective method for fabricating liquid geometric waveguide combiners for AR applications using silicone oil as the medium, leveraging the capabilities of Polyjet 3D printing. During the design phase, we optimized the structure of the waveguide combiner to facilitate easier fabrication. Our proposed method simplifies the production process by removing the need for complicated steps like dicing, layer bonding, and polishing, which are usually involved in traditional manufacturing techniques. We conducted optical simulations and developed a prototype using our patented fabrication method, successfully demonstrating its feasibility for rapid prototyping.

用于增强现实的低成本液体光波导的设计与制造。
由于传统制造技术的复杂性和对高精度的需求,增强现实(AR)波导合成器的设计和生产面临着相当大的挑战。为了克服这些障碍,该领域需要快速原型方法,使研究人员和工程师能够快速探索各种设计和配置,从而加快开发过程。在这里,我们开发了一种具有成本效益的方法,用于制造用于AR应用的液体几何波导合成器,使用硅油作为介质,利用Polyjet 3D打印的能力。在设计阶段,我们优化了波导合成器的结构,以方便制造。我们提出的方法通过消除传统制造技术中通常涉及的切割、层粘合和抛光等复杂步骤,简化了生产过程。我们进行了光学模拟,并使用我们的专利制造方法开发了原型,成功地证明了其快速原型的可行性。
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