TE Connectivity
AI-based Real-time Molding Ejection Process Video Analysis
Molding processes use heat and pressure to fill a mold with certain materials. The mold can be opened and closed by controlling the two parts of a mold, Mold Base A and Base B. When the molding starts, the mold will be closed, and the materials will be injected. Once the injection is complete, the mold will be opened to eject the molding parts from the cavity. In this project, students will aim to monitor the ejection process through computer vision technologies. One objective this student team will work toward is to track the part ejection process to determine the optimal duration for opening the two bases, thus reducing the cycle time. The second objective is to develop a real-time monitoring functionality that can inform operators when parts are not ejected from cavity successfully. This student team will work to detect accuracy of parts during molding ejection and computational speed. This student team will work to i) train the model for detecting molding parts of different part numbers; ii) mold base opening cycle time optimization; iii) monitor part ejection failure. Several deliverables this student team will work to achieve are: i) an AI model that can detect molding parts of different part numbers in real-time (can be multiple models, to be determined) ii) corresponding training pipeline iii) a pipeline for molding ejection time optimization and related data analysis iv) a software that embeds the AI model and connects to the camera for real-time monitoring of part ejection to allow cycle time recording and alarm operators when ejection failure happens
Faculty Adviser
Jenq-Neng Hwang,
Professor; Co-Director of Cross-Pacific AI Initiative (X-PAI),
Related News

Fri, 09/20/2024 | UW Civil & Environmental Engineering
Smarter irrigation for a greener UW
A new project combines satellite data with ground sensors to conserve water and create a more sustainable campus environment.

Mon, 09/09/2024 | UW Mechanical Engineering
Testing an in-home mobility system
Through innovative capstone projects, engineering students worked with community members on an adaptable mobility system.

Mon, 08/19/2024 | UW Mechanical Engineering
Students strive to ensure accurate AED shock dosage
ShockSafe, developed by students with the help of mentors from Philips and Engineering Innovation in Health (EIH), can distinguish between children and adults during cardiac arrest emergencies.

Wed, 08/07/2024 | Snohomish County News
Snohomish County, University of Washington partnership boosts efficiency in enterprise scanning center
UW Industrial and Systems Engineering Capstone Project set to save Snohomish County over $40,000 annually.