Sep 2026· Clinical pharmacology and therapy· 0 citations· 48 references
Medicine
TL;DR
By outlining many of the common potential issues, this compilation of common pitfalls and practical safeguard considerations for ML-enabled medical research aims to provide the medical and research community with practical insights to help foster trustworthy ML-enabled medical research.
Abstract
Machine learning (ML) is increasingly utilized in medical research. However, underrecognized methodological pitfalls can result in misleading conclusions, which if acted upon can result in patient mismanagement and harm. As a result, we have provided a compilation of common pitfalls and practical safeguard considerations for ML-enabled medical research. Examples emphasize the importance of integrating clinical/biologic knowledge and statistical/epidemiologic principles, illustrated with key case examples. Topics include (1) Data drift, which can create artificial trends when coding systems or clinical practices change over time; (2) Feature construction that should be clinically grounded, as models may otherwise learn operational proxies rather than true biology; (3) Accidental data leakage, which can inflate apparent model performance and collapse on real-world deployment; (4) Competing risks and differential time-at-risk that can generate spurious associations in safety analyses if not modeled explicitly; (5) Confounding and collider bias, which can distort findings, particularly in EHR-based studies; (6) For rare outcomes, inappropriate evaluation measures can overstate performance and mislead explainability analyses; (7) Finally, pooled multi-trial analyses require careful handling of the intrinsic heterogeneity to avoid extracting study artifacts rather than generalizable signals. By outlining many of the common potential issues, with lessons learned, we aim to provide the medical and research community with practical insights to help foster trustworthy ML-enabled medical research.
The central argument is that the value of clinical artificial intelligence is determined less by model accuracy in isolation than by the quality of the sociotechnical system into which a model is placed: governance, workflow integration, monitoring, and the preservation of meaningful human oversight.
Lucky Ilodigwe· International Journal of Med...· 1 citation
AI Morbidity and Mortality (AI M&M) is intended to complement, rather than replace, model monitoring, patient safety reporting, and regulatory oversight by converting individual AI-in-workflow failures into actionable institutional learning.
Paulius Mui, Dean F. Sittig, Steven Labkoff et al.· 0 citations
Widely reused preprocessing pipelines for electronic health records can encode assumptions about when information became available, what clinical episode a label represents, and what missingness means. These assumptions are rarely audited systematically and may propagate across subsequent studies when preprocessing pip...
Carolin Cissée, Dennis Fast, Raneen Younis et al.· 0 citations
Abstract Artificial intelligence (AI) is rapidly transforming computational biology. However, closer scrutiny reveals that many reported results do not hold under rigorous evaluation. This paper identifies prevalent, recurring issues in the field, including narrow datasets, hidden confounders that make supposedly indep...
T. Khang, Joshua W. K. Ho, Lin Hou et al.· Quantitative Biology· 0 citations
Biomedical Machine Learning (ML) is increasingly evaluated through Independent and Identically Distributed (IID) benchmarks, even when deployment involves irregular observation, missingness, distribution shift, and high failure costs. This position paper argues for a stability-oriented reporting standard for safety-rel...
Z. A. Zainal, O. Kavehei, I. Aguilar et al.· medRxiv· 0 citations
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