A knockoff-based deep learning framework for PET container design that automates variable selection in the two-step stretch blowmolding process. It controls false discovery rates to improve reliability of identified design parameters and reduce spurious correlations. The approach integrates predictive modeling with survival analysis and standard evaluation metrics to streamline design optimization and support manufacturing efficiency improvements.
The knockoff-based deep learning framework provides a data-driven approach to PET container design by automating the selection of critical variables in the two-step stretch blowmolding process. The method is designed to improve on conventional deep learning strategies by rigorously controlling false discovery rates, helping ensure that selected design parameters correspond to true features that influence product quality. The framework prioritizes variables with high confidence to streamline design optimization.
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This technology is currently at TRL 3, indicating it has been demonstrated analytically and experimentally in a laboratory environment. Further validation and development are planned through collaboration with industry experts.
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