A novel hybrid modeling framework that combines physics-based models with machine learning to simulate and optimize food manufacturing processes, enhancing product quality and reducing trial-and-error.
The holistic hybrid modeling framework is an innovative solution designed to simulate and optimize food manufacturing processes by integrating physics-based models with machine learning corrections. This approach captures the entire food production line, from mixing to drying, enhancing product quality and reducing reliance on trial-and-error experimentation. The framework is practical for implementation in Python, providing a versatile and scalable digital twin that links operating conditions to quality outcomes.
Key features:
The framework is currently at Technology Readiness Level 5, having been developed and validated against published benchmarks and pilot-scale data. Future validation plans include case studies with varying ingredient compositions and equipment settings to ensure practical applicability and scalability across different food systems.
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