用深度学习提升临床试验效率,实现精准医疗与患者中心的融合
Advancing clinical trial outcomes using deep learning and predictive modelling: bridging precision medicine and patient-centered care
- 结合CNN与Transformer模型对患者分层、预测不良反应
- 模型在患者分层中达87%准确率,降低试验失败率
- 适合关注临床试验优化与AI辅助医疗的研究者
人工智能在临床试验中的应用已革新药物研发与个性化医疗流程。本研究利用深度学习技术(如卷积神经网络和基于Transformer的模型)进行患者分层、预测不良事件并制定个性化治疗方案。同时,采用生存分析与时间序列预测等方法预判试验结果,提升效率并降低失败率。针对非结构化临床数据(如病历记录、试验方案),引入自然语言处理技术提取可操作信息。构建包含结构化人口统计、基因组数据及非结构化文本的定制数据集用于模型训练与验证。通过精确率、召回率与F1分数评估模型性能,并权衡准确性与计算效率,以确定最适合临床部署的模型。研究证明,基于AI的方法可优化临床试验流程,改善以患者为中心的结果,降低试验成本。成果为预测分析融入精准医疗提供了坚实框架,推动更自适应、高效的临床试验发展。
原文摘要 · Abstract (English)
The integration of artificial intelligence [AI] into clinical trials has revolutionized the process of drug development and personalized medicine. Among these advancements, deep learning and predictive modelling have emerged as transformative tools for optimizing clinical trial design, patient recruitment, and real-time monitoring. This study explores the application of deep learning techniques, such as convolutional neural networks [CNNs] and transformerbased models, to stratify patients, forecast adverse events, and personalize treatment plans. Furthermore, predictive modelling approaches, including survival analysis and time-series forecasting, are employed to predict trial outcomes, enhancing efficiency and reducing trial failure rates. To address challenges in analysing unstructured clinical data, such as patient notes and trial protocols, natural language processing [NLP] techniques are utilized for extracting actionable insights. A custom dataset comprising structured patient demographics, genomic data, and unstructured text is curated for training and validating these models. Key metrics, including precision, recall, and F1 scores, are used to evaluate model performance, while trade-offs between accuracy and computational efficiency are examined to identify the optimal model for clinical deployment. This research underscores the potential of AI-driven methods to streamline clinical trial workflows, improve patient-centric outcomes, and reduce costs associated with trial inefficiencies. The findings provide a robust framework for integrating predictive analytics into precision medicine, paving the way for more adaptive and efficient clinical trials. By bridging the gap between technological innovation and real-world applications, this study contributes to advancing the role of AI in healthcare, particularly in fostering personalized care and improving overall trial success rates.
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