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Integrating Machine Learning with Computational Fluid Dynamics Models of Orally Inhaled Drug Products (U01) Clinical Trials Not Allowed

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The Food and Drug Administration is seeking to advance the development of generic orally inhaled drug products by integrating machine learning with computational fluid dynamics models to overcome existing limitations in simulating inhaler performance. While CFD has become a valuable tool for bioequivalence assessments, reducing reliance on costly and time-intensive clinical trials, challenges such as computational speed, data resolution, model parameter estimation, and uncertainty quantification continue to hinder its broader application. This initiative aims to create a novel methodology that leverages machine learning to accelerate and enhance the accuracy of CFD simulations, providing a more efficient, scalable, and reliable alternative to traditional benchtop and clinical testing methods. The program, funded under a U01 grant mechanism, explicitly prohibits clinical trials and is focused solely on methodological development within computational modeling. It is part of the Department of Health and Human Services’ effort to modernize regulatory science for inhaled products, enabling faster approval pathways for generic inhalers without compromising safety or efficacy. Interested applicants must address the technical integration of machine learning algorithms with existing CFD frameworks to improve simulation fidelity, reduce computational burden, and facilitate robust uncertainty analysis. All proposals should align with the goal of supporting regulatory decision-making through innovative computational approaches. Inquiries should be directed to Terrin Brown, Grants Management Specialist at the FDA.

General Info

Develop machine learning-enhanced CFD models to accelerate generic inhaler approval without clinical trials.

Agency

Department Of Health And Human Services → Food And Drug Administration

NAICS

541715 - Research and Development in the Physical, Engineering, and Life Sciences (except Nanotechnology and Biotechnology)View NAICS

Place of Performance

Not specified

Set-Aside

NONE

Documents

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Organization & Contact Information

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AgencyDepartment Of Health And Human Services → Food And Drug Administration
Contacts1 person available
OfficeUSA
Organization / Agency
Department Of Health And Human Services → Food And Drug Administration
Office AddressUSA
Contacts
Terrin Brown Grants Management Specialist

Full Description

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Computational fluid dynamics (CFD) has played a crucial role in providing an alternative bioequivalence (BE) approach for generic orally inhaled drug products (OIDPs), in addition to comparative clinical endpoint or pharmacodynamic BE studies, as a relatively cost- and time-efficient complement to benchtop and clinical experiments that has been widely used in developing and assessing generic inhaler devices. However, despite the advances in the power of modern computers, there are still some bottlenecks in using CFD due to computational time, limited grid resolution, pre- and post-processing of large simulation data sets, model parameter estimations, and uncertainty quantifications. Machine learning (ML) has been gaining more attention as a potential tool to alleviate such limitations that arise in CFD. The purpose of this grant is to develop a methodology to integrate ML with CFD models of OIDPs to promote alternative BE studies to enhance and accelerate the development and approval of generic OIDPs. 

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