Projects

High Pressure Die Cast Machine

Team Size: 4 Members

Designed In: Solidworks 2023

Position: Research & Design 

As part of my role in R&D, I took on the challenge of recreating a High Pressure Die Cast Machine for molten aluminum from scratch. This involved extensive research on the necessary design and calculations, including simulations to optimize the injection process for enhanced porosity control and shot sleeve design. Additionally, I played a crucial role in overseeing the development of detailed drawings, ensuring accuracy and precision in collaboration with the team. Furthermore, I took sole responsibility for creating the 3D models, bringing the design to life with meticulous attention to detail. Working closely with a team of four, we utilized a gantt chart to effectively manage our project timeline and ensure timely completion. I take immense pride in my significant contributions to the successful realization of this innovative technology through a rigorous reconstruction process, which included overseeing drawing development and being the sole creator of the 3D models.

HPDC Machine Comp.mp4

High Die Casting Machine Comonents

Collaborated CAD Drawing Samples

Voxeljet Sand Mold

Team Size: 1 Members

Designed In: AutoDesk Inventor 2020

Through collaboration with Voxeljet, I researched and designed a black sand mold specifically tailored for Voxeljet's High-Speed Sintering technology. The goal was to produce a turtle pattern design with precise thickness specifications. The turtle design required a minimum thickness of 1 inch and a maximum thickness of 4 inches. While successfully addressing challenges related to porosity and voids through the incorporation of mold techniques from injection molding and other manufacturing processes, one remaining obstacle arose. Due to the volume of molten metal involved, preventing a weld line proved challenging. Nonetheless, I managed to optimize the gating and runner system to minimize the impact of the weld line issue. The resulting mold design showcased exceptional quality and fidelity, providing a solid foundation for the production of organic turtle patterns.

Faro Arm Research

Team Size: 1 Members

Affiliated Software(s): 

Cam 2; GeoMagic Design X; FaroArm Manager

Position: Metrology Researcher

Assigned by the engineering faculty, I embarked on the journey of becoming proficient in utilizing the Faro Arm Edge's probe and laser line probe to streamline their usage and enhance operational efficiency. Additionally, I focused on developing expertise in GeoMagic Design X, a dedicated reverse engineering software used for converting scans into editable CAD files. This enabled me to effectively transform scanned data into accurate and editable models within the CAD environment. As part of this process, I am actively engaged in the development of comprehensive documentation and resources, aimed at providing guidance and support to future users of these tools. Through this endeavor, I am equipping myself with the skills and knowledge to contribute to advanced reverse engineering processes and optimize design workflows within the academic community.

Warp Study

Team Size:  3  Members

Software:  CAM  2
Position: Lab Assistant

I assisted in a Warp Study to analyze materials for injection molding. My role involved conducting dimension analysis and collecting data on shrinkage and warp. We compared our results to Altair's advanced prediction technology, integrated into their simulation software. Through this project, I gained valuable experience in simulation techniques, developed my data analysis and project management skills, and gained a deeper understanding of the practical application of engineering principles in a real-world setting.

nTop Optimization

Team Size: 1 Members

Software(s): nTop

This project showcases my experience in leveraging the advance technology in the nTop software to perform a topology optimization for a critical component. The goal was to optimize the part's design to enhance performance and efficiency. Through analysis and design iterations, the project achieved a balance between strength and material minimization, resulting in a lightweight and robust part.