A machine-learning-based solution for optimizing polymer container design using efficient global optimization, enhancing production yield and design efficiency.
This solution leverages machine learning to automate the design process for polymer containers by developing a surrogate model that integrates prior design data. Through efficient global optimization (EGO), feasible design solutions are efficiently identified, retaining design knowledge and applying optimization rules to meet specific requirements. The method has been successfully applied in injection molding gate design and polymer lens assembly, significantly improving production yields.
This solution has reached Technology Readiness Level 8, indicating it has been validated in an operational environment and is ready for full-scale deployment.
The University of Cincinnati is a comprehensive public research university with an applied, urban-serving character and a significant clinical enterprise. Industry engages through one of the nation's largest cooperative education programs, placing students year-round with corporate R&D and operations teams and creating an on-ramp to sponsored research. An innovation district near campus hosts co-located corporate labs, startup space, and shared prototyping facilities, while the university's integration with a major hospital system enables clinical studies and translation. Research is supported by competitive federal funding from agencies such as NIH and NSF, along with state and industry partnerships. A dedicated technology transfer office manages IP, licensing, corporate agreements, and startup formation, providing flexible models for collaboration.