持续过程验证 4.0 在上游的应用:在 Pichia pastoris 细胞工厂的缺氧生物过程中通过人工智能管理适应性的实施。

IF 4.3 3区 工程技术 Q1 BIOTECHNOLOGY & APPLIED MICROBIOLOGY Frontiers in Bioengineering and Biotechnology Pub Date : 2024-10-02 eCollection Date: 2024-01-01 DOI:10.3389/fbioe.2024.1439638
Arnau Gasset, Joeri Van Wijngaarden, Ferran Mirabent, Albert Sales-Vallverdú, Xavier Garcia-Ortega, José Luis Montesinos-Seguí, Toni Manzano, Francisco Valero
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引用次数: 0

摘要

本研究开发的实验方法展示了被视为工业 4.0 关键技术的云、物联网(IoT)、边缘计算和人工智能(AI)如何为持续过程验证(CPV)(过程验证(PV)的最后阶段)中的自适应视觉提供预期的前景。在组成型 GAP 启动子的调控下,生产白色念珠菌脂肪酶 1 的 Pichia pastoris 被选为实验性生物工艺。通过基于呼吸商数(RQ)的生理控制,该生物工艺在缺氧条件下的限碳喂料批量培养中运行。在这一新型生物过程中,建立并成功测试了数字孪生(DT)。在线传感器的实施在微生物和人工智能模型之间架起了一座桥梁,提供来自边缘和云端的预测。人工智能模型根据关键工艺参数和可操作因素模拟 Pichia 的新陈代谢,以实现预期的质量属性。这种创新的人工智能辅助自适应比例控制策略(AI-APC)与人工神经网络控制策略(MHC)相比,提高了可重复性,显示出比所测试的布尔逻辑控制器(BLC)更好的性能。以平均相对误差(MRE)表示,AI-APC 的精确度低于 4%,优于 MHC(10%)和 BLC(5%)。此外,在精确度方面,通过比较均方根偏差(RMSD)值也可以观察到相同的趋势,即随着控制器复杂度的增加,精确度也会降低。人工智能模型成功地对生物过程进行自动实时控制,证明了自适应概念带来的 4.0 功能及其在生物制药上游操作中的有效性。
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Continuous Process Verification 4.0 application in upstream: adaptiveness implementation managed by AI in the hypoxic bioprocess of the Pichia pastoris cell factory.

The experimental approach developed in this research demonstrated how the cloud, the Internet of Things (IoT), edge computing, and Artificial Intelligence (AI), considered key technologies in Industry 4.0, provide the expected horizon for adaptive vision in Continued Process Verification (CPV), the final stage of Process Validation (PV). Pichia pastoris producing Candida rugosa lipase 1 under the regulation of the constitutive GAP promoter was selected as an experimental bioprocess. The bioprocess worked under hypoxic conditions in carbon-limited fed-batch cultures through a physiological control based on the respiratory quotient (RQ). In this novel bioprocess, a digital twin (DT) was built and successfully tested. The implementation of online sensors worked as a bridge between the microorganism and AI models, to provide predictions from the edge and the cloud. AI models emulated the metabolism of Pichia based on critical process parameters and actionable factors to achieve the expected quality attributes. This innovative AI-aided Adaptive-Proportional Control strategy (AI-APC) improved the reproducibility comparing to a Manual-Heuristic Control strategy (MHC), showing better performance than the Boolean-Logic-Controller (BLC) tested. The accuracy, indicated by the Mean Relative Error (MRE), was for the AI-APC lower than 4%, better than the obtained for MHC (10%) and BLC (5%). Moreover, in terms of precision, the same trend was observed when comparing the Root Mean Square Deviation (RMSD) values, becoming lower as the complexity of the controller increases. The successful automatic real time control of the bioprocess orchestrated by AI models proved the 4.0 capabilities brought by the adaptive concept and its validity in biopharmaceutical upstream operations.

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来源期刊
Frontiers in Bioengineering and Biotechnology
Frontiers in Bioengineering and Biotechnology Chemical Engineering-Bioengineering
CiteScore
8.30
自引率
5.30%
发文量
2270
审稿时长
12 weeks
期刊介绍: The translation of new discoveries in medicine to clinical routine has never been easy. During the second half of the last century, thanks to the progress in chemistry, biochemistry and pharmacology, we have seen the development and the application of a large number of drugs and devices aimed at the treatment of symptoms, blocking unwanted pathways and, in the case of infectious diseases, fighting the micro-organisms responsible. However, we are facing, today, a dramatic change in the therapeutic approach to pathologies and diseases. Indeed, the challenge of the present and the next decade is to fully restore the physiological status of the diseased organism and to completely regenerate tissue and organs when they are so seriously affected that treatments cannot be limited to the repression of symptoms or to the repair of damage. This is being made possible thanks to the major developments made in basic cell and molecular biology, including stem cell science, growth factor delivery, gene isolation and transfection, the advances in bioengineering and nanotechnology, including development of new biomaterials, biofabrication technologies and use of bioreactors, and the big improvements in diagnostic tools and imaging of cells, tissues and organs. In today`s world, an enhancement of communication between multidisciplinary experts, together with the promotion of joint projects and close collaborations among scientists, engineers, industry people, regulatory agencies and physicians are absolute requirements for the success of any attempt to develop and clinically apply a new biological therapy or an innovative device involving the collective use of biomaterials, cells and/or bioactive molecules. “Frontiers in Bioengineering and Biotechnology” aspires to be a forum for all people involved in the process by bridging the gap too often existing between a discovery in the basic sciences and its clinical application.
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