The Algorithmic Transformation of Clinical Research: Integrating Artificial Intelligence, Master Protocols, and Stakeholder-Centric Governance for Global Health Equity
Keywords:
Artificial Intelligence, Clinical Trial Protocols, Health Equity, Machine LearningAbstract
The traditional paradigm of clinical research is undergoing a radical shift facilitated by the convergence of human expertise and artificial intelligence (AI). This research article explores the multifaceted role of AI and machine learning (ML) in optimizing the lifecycle of clinical trials, from initial protocol design and site selection to the real-time adaptation of master protocols. By synthesizing recent advancements in deep learning, such as gender prediction from retinal fundus photographs and automated molecular subgroup identification in oncology, this study highlights the capacity of high-performance medicine to enhance diagnostic precision. Central to this transformation is the emergence of adaptive study governance and platform trial designs that leverage generative AI and large language models (LLMs) to address enduring logistical challenges. Furthermore, this research emphasizes the critical necessity of enhancing equity, diversity, and inclusion (EDI) through AI/ML-based strategies. By examining community-wide interventions, such as salt substitution impacts and gender-affirming HIV care engagement, the paper argues for a participant-centric approach that prioritizes health literacy and stakeholder engagement. The findings suggest that while AI offers unprecedented opportunities for feasibility assessment and protocol optimization, its integration must be guided by robust clinical trial guidelines, such as the SPIRIT-AI extension, to ensure transparency, ethical integrity, and representative research outcomes. This comprehensive framework provides a roadmap for leveraging algorithmic tools to foster a more inclusive and efficient global research ecosystem.
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