The transformative potential of AI in supporting health economic modeling
Economic modeling has long been a cornerstone of healthcare market access, providing the analytical framework to assess cost-effectiveness, budget impact, and value-based pricing strategies. However, as the healthcare landscape grows increasingly complex, the demand for more agile, transparent, and efficient modeling processes has intensified. Artificial intelligence (AI) emerges as a transformative force in this space, streamlining workflows, accelerating decision-making, and enhancing data quality.1
Understanding the current applications of AI in economic modeling, its challenges and limitations, and future opportunities is key to determining how AI is reshaping health economics, and industry can take advantage of these developments while meeting the rigorous expectations of payers and health technology assessment (HTA) agencies.
Current applications of AI in economic modeling
Accelerating model conceptualization and design
“Having tools that can allow us to very rapidly prototype models enables us to understand the optimal model design for products to identify and support the value story,” said Chris Poole, PhD, a senior health economist at Cencora.
This ability to test diverse model designs early in the process supports the goal of finding the right balance of uncertainty and complexity and ensures that the chosen structure aligns with payer expectations. This is not only time-saving but also a huge cost-savings since the delays in submissions and the risk that agencies will reject complex, poorly justified models can cost companies millions.
Filling data gaps and enhancing data quality
“It’s astonishing that you can take a published KM curve and show that to a genAI tool with access to a Python container to execute the code in, and it will digitize the curve, write the code, and execute it so that it can the simulate individual participant data (IPD) populations that would have given you that curve,” Dr. Poole said, drawing on his experience with AI tools. “It’s extraordinary. The best part is that it’s easy to validate, you just work backwards by using the IPD to generate the KM curve.”
This capability dramatically reduces the time required for statistical analysis, allowing health economists to focus on higher-value tasks. However, ensuring transparency and validity in AI-driven data simulations remains critical.
Streamlining report authoring
The labor-saving potential of AI is noteworthy. Within Cencora, for example, we are building internal AI systems to quickly draft numerous types of reports with the goal of applying these systems to our own economic modeling reports in the near future. It’s not just about creating new reports. Content reuse between different HTA agencies is also ripe for automation.
“A lot of these templates from NICE (National Institute for Health and Care Excellence) or other agencies might be structured or ordered differently, but the information needed to complete them is identical,” said Derek Swiger, PharmD, MS, a digital innovation expert in market access and health economics and outcomes research (HEOR). “We can certainly borrow a page from what folks are doing with AI in the clinical and regulatory spaces with respect to content modularization and reuse. An example is how the drafting of clinical study reports is being automated by AI tools through reuse of content from the underlying documents like the study protocol.”
This shift not only enhances efficiency but also ensures consistency across documents tailored to diverse payer and regulatory requirements.
Challenges and limitations of AI in economic modeling
Paul Turner, PhD, a senior health economist at Cencora, emphasized the importance of human involvement:
“AI can generate the options for you, but there does need to be an element of human involvement to make sure what’s picked is feasible. That oversight is critical.”
This human-in-the-loop approach is essential to maintaining the integrity of economic models and ensuring their suitability for decision-making. HEOR teams must also balance the use of AI to create highly complex models with the risks. While intricate models may meet payer expectations, they often introduce additional parameter uncertainty and raise potential issues with agencies.
“Just because we can use AI to build complex models doesn’t mean we should,” noted Dr. Poole. “For example, the HTA agency might not find the model suitable for decision-making.”
Striking the right balance between complexity and uncertainty is key to maximizing the utility of AI-driven models.
Future trends and opportunities
Another area where we expect AI systems to become instrumental is by analyzing historical HTA submissions and payer feedback to identify risk factors associated with model rejection or inefficiencies.
Dr. Poole made the following prediction:
“For any given disease area, I think we will probably see AI being used to create a database of factors that lead to success in a model being regarded as suitable for decision-making and, crucially, what factors are associated with a model being deemed not suitable. Maybe there are 5 PhDs in that alone with traditional methods, but an AI system could probably support a really good tool to identify those risk factors."
We predict these tools will help manufacturers proactively address potential pitfalls in their submissions, improving the likelihood of successful outcomes.
Conclusion
However, the adoption of AI is not without its challenges. Human oversight, transparency, and strategic decision-making remain critical to ensuring the validity and feasibility of AI-driven models. As we look to the future, the integration of agentic AI systems will unlock new opportunities for evidence generation.
Precizare:
Informațiile furnizate în acest articol nu constituie consultanță juridică. Cencora, Inc. încurajează insistent cititorii să revizuiască informațiile disponibile legate de subiectele discutate și să se bazeze pe propria experiență și expertiză în luarea deciziilor legate de acestea.
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Sources
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2. Depalma S, Poole CD, Turner P, Carlton R. The artificial intelligence era in health economic modeling. Poster presented at: ISPOR Europe 2025; November 9-12. Glasgow, Scotland. EE685. https://www.ispor.org/heor-resources/presentations-database/presentation-cti/ispor-europe-2025/poster-session-5-2/the-artificial-intelligence-era-in-health-economic-modeling
3. Annan A, Mojarad MR, Du J, Xu Y. Automated extraction of Kaplan-Meier survival curves using generative artificial intelligence and computer vision. Presented at: ISPOR 2025; May 13-16; Montréal, Quebec, CA. MSR33. https://www.valueinhealthjournal.com/article/S1098-3015(25)01310-5/fulltext
4. Fleurence RL, Wang X, Bian J, et al; ISPOR Working Group on Generative AI. A taxonomy of generative artificial intelligence in health economics and outcomes research: an ISPOR working group report. Value Health. 2025;28(11):1601-1610. doi:10.1016/j.jval.2025.04.2167
