InnovavisionSolutions

Experience

• Founder and Design Engineer Innovavision Solutions · Full-time Aug 2023 – Present 1 yrs 4 mos Houston, TX, United States I provide reverse engineering, 2D and 3D CAD, simulation, and animation services tailored for mechanical engineering and industrial applications. My focus is on helping clients find cost-efficient and effective design solutions, reducing production costs by up to 70% compared to their original designs. By collaborating closely with machinists/manufacturers and clients, I ensure that quality standards are met and customer satisfaction is achieved. In addition to these services, I design and prototype in-house bioprinting solutions aimed at bridging the market gap in affordability and multi-ink capabilities.
• Research & Development B.E.S.T. Laboratory · Internship Nov 2023 – Aug 2024 9 mos Houston, TX, United States I have extensive experience in CAD design and mechanical engineering, particularly in biomedical applications. At Dr. Zhengwei Li’s B.E.S.T. Lab, I used AutoCAD to design flexible electrode geometries and photomasks, and Fusion 360 to create complex molds for cell scaffolds. I also employed SLA printing to produce high-precision, cost-effective tissue engineering scaffold molds, saving up to 50% compared to traditional bioprinting methods. In addition, I applied MATLAB and Simulink to conduct electrical and mechanical simulations for flexible biomaterials and bioelectronics, optimizing designs before prototyping. I also utilized COMSOL for CFD simulations to enhance tissue scaffold designs, ensuring optimal mechanical and biological performance.
• Research & Development Ran An Laboratory · Internship Jan 2023 – May 2023 4 mos Houston, TX, United States In my work under Dr. Ran An, I utilized SolidWorks and Autodesk Inventor to design and prototype a mechanical system and protective casing for a microfluidic electrochemical sensing device for sweat analysis. I also redesigned and rapidly prototyped analog systems for syringe pumps and commercial tools to improve the device’s efficiency and significantly reduce production costs, cutting component expenses by over 50% using 3D printing and generic parts. Additionally, I optimized PDMS microfluidic chip designs to maximize gas diffusion and ensure structural integrity under mechanical stress. My engineering work directly contributed to increasing throughput in capillary microfluidic systems and enhancing device performance in the study of Sickle Cell Trait.