Holistic Bioprocess Development Across Scales Using Multi-Fidelity Batch Bayesian Optimization
- URL: http://arxiv.org/abs/2508.10970v1
- Date: Thu, 14 Aug 2025 16:29:34 GMT
- Title: Holistic Bioprocess Development Across Scales Using Multi-Fidelity Batch Bayesian Optimization
- Authors: Adrian Martens, Mathias Neufang, Alessandro Butté, Moritz von Stosch, Antonio del Rio Chanona, Laura Marie Helleckes,
- Abstract summary: We propose a multi-fidelity batch Bayesian optimization framework to accelerate bioprocess development and reduce experimental costs.<n>A custom simulation of a Chinese Hamster Ovary bioprocess, capturing non-linear and coupled scale-up dynamics, is used for benchmarking.<n>Case studies show how the proposed workflow can achieve a reduction in experimental costs and increased yield.
- Score: 37.69303106863453
- License: http://creativecommons.org/licenses/by-nc-nd/4.0/
- Abstract: Bioprocesses are central to modern biotechnology, enabling sustainable production in pharmaceuticals, specialty chemicals, cosmetics, and food. However, developing high-performing processes is costly and complex, requiring iterative, multi-scale experimentation from microtiter plates to pilot reactors. Conventional Design of Experiments (DoE) approaches often struggle to address process scale-up and the joint optimization of reaction conditions and biocatalyst selection. We propose a multi-fidelity batch Bayesian optimization framework to accelerate bioprocess development and reduce experimental costs. The method integrates Gaussian Processes tailored for multi-fidelity modeling and mixed-variable optimization, guiding experiment selection across scales and biocatalysts. A custom simulation of a Chinese Hamster Ovary bioprocess, capturing non-linear and coupled scale-up dynamics, is used for benchmarking against multiple simulated industrial DoE baselines. Multiple case studies show how the proposed workflow can achieve a reduction in experimental costs and increased yield. This work provides a data-efficient strategy for bioprocess optimization and highlights future opportunities in transfer learning and uncertainty-aware design for sustainable biotechnology.
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