Piciocchi Alfonso, Cipriani Marta, Messina Monica, Marconi Giovanni, Arena Valentina, Soddu Stefano, Crea Enrico, Feraco Maria Valeria, Ferrante Marco, La Sala Edoardo, Fazi Paola, Buccisano Francesco, Voso Maria Teresa, Martinelli Giovanni, Venditti Adriano, Vignetti Marco
Data Center GIMEMA Foundation Rome Italy.
Department of Statistical Sciences University of Rome La Sapienza Rome Italy.
EJHaem. 2024 Mar 15;5(2):353-359. doi: 10.1002/jha2.873. eCollection 2024 Apr.
Artificial Intelligence has the potential to reshape the landscape of clinical trials through innovative applications, with a notable advancement being the emergence of synthetic patient generation. This process involves simulating cohorts of virtual patients that can either replace or supplement real individuals within trial settings. By leveraging synthetic patients, it becomes possible to eliminate the need for obtaining patient consent and creating control groups that mimic patients in active treatment arms. This method not only streamlines trial processes, reducing time and costs but also fortifies the protection of sensitive participant data. Furthermore, integrating synthetic patients amplifies trial efficiency by expanding the sample size. These straightforward and cost-effective methods also enable the development of personalized subject-specific models, enabling predictions of patient responses to interventions. Synthetic data holds great promise for generating real-world evidence in clinical trials while upholding rigorous confidentiality standards throughout the process. Therefore, this study aims to demonstrate the applicability and performance of these methods in the context of onco-hematological research, breaking through the theoretical and practical barriers associated with the implementation of artificial intelligence in medical trials.
人工智能有潜力通过创新应用重塑临床试验格局,其中一个显著进展是合成患者生成的出现。这一过程涉及模拟虚拟患者队列,这些虚拟患者可以在试验环境中替代或补充真实个体。通过利用合成患者,可以消除获取患者同意的需求,并创建模仿积极治疗组患者的对照组。这种方法不仅简化了试验流程,减少了时间和成本,还加强了对敏感参与者数据的保护。此外,整合合成患者通过扩大样本量提高了试验效率。这些直接且具有成本效益的方法还能够开发个性化的特定受试者模型,从而预测患者对干预措施的反应。合成数据在临床试验中生成真实世界证据方面具有巨大潜力,同时在整个过程中坚持严格的保密标准。因此,本研究旨在证明这些方法在肿瘤血液学研究背景下的适用性和性能,突破与在医学试验中实施人工智能相关的理论和实践障碍。