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AI-Driven Virtual Control Groups for Faster and More Efficient Clinical Trials

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Priscilla X. Vazquez

Project Timeline

Sep 2024 - Dec-2025

OVERVIEW

This project explores how AI-generated virtual control groups can reduce the cost, duration, and failure rate of Phase III clinical trials. By leveraging multimodal patient data, generative models, and historical clinical trial datasets, our approach simulates individualized control trajectories that replace or reduce the need for real control-arm patients. Focusing on cardiovascular disease trials, we demonstrate significant cost savings, higher statistical power, and scalable implementation potential. Our work evaluates technical feasibility, market dynamics, regulatory pathways, and investment opportunities for bringing AI-driven virtual trials into real-world use.

HighlightS

  1. Built a systems model and cost analysis for AI-driven virtual control groups
  2. Modeled clinical, financial, and statistical impact for Phase III cardiovascular trials
  3. Conducted expert interviews with clinicians, digital twin CEOs, and ML researchers
  4. Evaluated market landscape, regulatory pathways, and investment potential
  5. Compared current industry solutions and identified key innovation gaps

SKILLS

Clinical Trial DesignSystems ModelingCost AnalysisData IntegrationRegulatory AnalysisMarket ResearchTechnology StrategyGenerative AI

Additional Details

Our project investigates the feasibility, impact, and investment potential of AI-driven virtual control groups as a transformational technology in Phase III clinical trials. Traditional clinical trials are slow, expensive, and often fail due to recruitment challenges, high per-patient costs, and insufficient statistical power. We propose replacing or reducing real control-arm participants with simulated control trajectories generated from machine learning models trained on historical trial data, electronic health records, and real-world evidence

Our proposed system focuses initially on cardiology clinical trials, which are long, costly, and data-rich, ideal for model development and impact. By generating individualized control predictions using multimodal patient inputs (demographics, clinical history, genomics, imaging, and wearable data), AI models can simulate realistic disease progression under placebo or standard-of-care conditions. This approach can reduce per-patient control costs from ~$15,000 to ~$2,000, enabling a 30% overall trial cost reduction and enabling sponsors to recruit more treatment-arm patients, increasing statistical power by 10–20%.

We evaluate multiple implementation strategies, including reduced control groups calibrated through real patient outcomes and dual modeling approaches that generate both treatment and control trajectories for internal bias correction. Through expert interviews with clinicians, digital twin companies, and AI researchers, we identify limitations of current industry solutions, such as limited therapeutic focus, outdated modeling architectures, and challenges aligning with current standards of care.

We conclude by mapping regulatory considerations, go-to-market pathways, and investment opportunities. As drug discovery accelerates through AI, late-stage trials risk becoming the bottleneck. Our project demonstrates that AI-powered virtual controls offer a clear, investible opportunity to make clinical trials faster, less expensive, and more likely to succeed. Our final report can be found here.

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