This work model the systematic component as coding style $\psi$, a coder- or site-specific policy over what to code and how much to document, and recast coding as $p(\mathrm{code}\mid\mathrm{note},\psi)$, estimating $\psi$ with a 10-dimension rubric.
Abstract
In automated clinical coding, where the label space spans tens of thousands of diagnosis and procedure codes, models are currently evaluated against a single gold annotation, treating any deviation as error. But we find when two teams code the same 110 ACI-Bench encounters, they agree on only 73% of codes (Jaccard similarity) for the same note; even after an independent clinical audit removes erroneous codes, agreement rises only to 77%. Is that gap error or something systematic? We model the systematic component as coding style $\psi$, a coder- or site-specific policy over what to code and how much to document, and recast coding as $p(\mathrm{code}\mid\mathrm{note},\psi)$, estimating $\psi$ with a 10-dimension rubric. If style were noise, conditioning on it would do nothing. Instead, across five datasets a model conditioned with a data-matching style raises ICD F1 by up to 26 points and an extreme mismatched one lowers it by up to 21. Four prompt based coding methods spanning 39-49 F1 converge to 52-56 once style is supplied (All p<0.05). Much of what single-gold evaluation charges to model error is recoverable, unmodeled style.
This work proposes Knowledge-Guided Reasoning over Clinical Evidence with LLMs (KREL), a framework that leverages LLMs for clinical text understanding and reasoning while integrating external ICD coding guidelines as structured knowledge, and enables tight coupling between domain knowledge and LLM reasoning.
Xubin Chen, Yi-Peng Zhou, Wenxin Sun et al.· 0 citations
While models consistently locate error-relevant content, they fail to produce the corresponding correct verdict on the clean counterpart and it is shown that F1 and pairwise accuracy are driven in opposite directions by the same underlying bias, so that ranking models by F1 may systematically promote the weakest discri...
A systematic evaluation framework for procedure-code recommendation is established and practical requirements for future systems that are accurate, review-efficient, and grounded in clinical evidence are identified.
Q. Song, C. Ni, W. Liu et al.· medRxiv· 0 citations
The results are consistent with structured, feedback-derived error memory being useful for adapting clinical coding behavior across cases without weight updates or changes to the underlying workflow.
Meysam Ghaffari, Bhaskar Sen, Nasim Sabetpour et al.· 0 citations
LLMs represent a viable and flexible approach to diagnosis code extraction from unstructured clinical notes that can augment structured diagnoses and provide contextualizing metadata.
H. Razzaghi, Nhat Nguyen, M. Pargi et al.· JAMIA Open· 0 citations
BACKGROUND CONTEXT
Accurate Current Procedural Terminology (CPT) coding is essential for compliant revenue cycle management in spine surgery. However, increasing documentation burdens and the complexity of bundling rules often lead to significant revenue leakage or audit risk.
PURPOSE
To evaluate the baseline efficac...
Christopher J. Fang, J. L. Hii, Matthew Michelberger et al.· The spine journal· 0 citations
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