Bäckel Niklas, Hort Simon, Kis Tamás, Nettleton David F, Egan Joseph R, Jacobs John J L, Grunert Dennis, Schmitt Robert H
Fraunhofer Institute for Production Technology IPT, Aachen, Germany.
Institute for Computer Science and Control, Hungarian Research Network, Budapest, Hungary.
Front Mol Med. 2023 Sep 21;3:1250508. doi: 10.3389/fmmed.2023.1250508. eCollection 2023.
This paper discusses the challenges of producing CAR-T cells for cancer treatment and the potential for Artificial Intelligence (AI) for its improvement. CAR-T cell therapy was approved in 2018 as the first Advanced Therapy Medicinal Product (ATMP) for treating acute leukemia and lymphoma. ATMPs are cell- and gene-based therapies that show great promise for treating various cancers and hereditary diseases. While some new ATMPs have been approved, ongoing clinical trials are expected to lead to the approval of many more. However, the production of CAR-T cells presents a significant challenge due to the high costs associated with the manufacturing process, making the therapy very expensive (approx. $400,000). Furthermore, autologous CAR-T therapy is limited to a make-to-order approach, which makes scaling economical production difficult. First attempts are being made to automate this multi-step manufacturing process, which will not only directly reduce the high manufacturing costs but will also enable comprehensive data collection. AI technologies have the ability to analyze this data and convert it into knowledge and insights. In order to exploit these opportunities, this paper analyses the data potential in the automated CAR-T production process and creates a mapping to the capabilities of AI applications. The paper explores the possible use of AI in analyzing the data generated during the automated process and its capabilities to further improve the efficiency and cost-effectiveness of CAR-T cell production.
本文讨论了生产用于癌症治疗的嵌合抗原受体T细胞(CAR-T细胞)所面临的挑战,以及人工智能(AI)对其进行改进的潜力。CAR-T细胞疗法于2018年获批,成为首个用于治疗急性白血病和淋巴瘤的先进治疗药品(ATMP)。ATMP是基于细胞和基因的疗法,在治疗各种癌症和遗传性疾病方面显示出巨大潜力。虽然一些新的ATMP已获批准,但正在进行的临床试验有望带来更多批准。然而,由于制造过程相关的高成本,CAR-T细胞的生产面临重大挑战,这使得该疗法非常昂贵(约40万美元)。此外,自体CAR-T疗法仅限于定制方式,这使得扩大经济规模生产变得困难。目前正在首次尝试将这一多步骤制造过程自动化,这不仅将直接降低高昂的制造成本,还将实现全面的数据收集。人工智能技术有能力分析这些数据并将其转化为知识和见解。为了利用这些机会,本文分析了自动化CAR-T生产过程中的数据潜力,并创建了与人工智能应用能力的映射关系。本文探讨了人工智能在分析自动化过程中产生的数据方面的可能用途,以及其进一步提高CAR-T细胞生产效率和成本效益的能力。