Using language models to improve a traceable rare-disease diagnosis tool
Combining a language model with an ontology-based ranking tool improves rare-disease diagnosis while keeping the evidence trail.
Ontology-grounded diagnosis and phenotyping that keeps its evidence traceable.
Combining a language model with an ontology-based ranking tool improves rare-disease diagnosis while keeping the evidence trail.
A diagnostic tool needs to know when to commit to its top guess and when to pass the case to a person, and for rare diseases that is hard to get right.
RareArena is a large test built from real case reports, designed to show how well AI language models can spot rare diseases.
A three-stage method that detects, locates and corrects mistakes in radiology reports, using medical knowledge to help language models do it.
Of 62.5 million people in England, 1.7% had one of 406 rare diseases, and they had more recorded COVID-19 infection (32.8% vs 29.0%).
A review of 262 trials in ten rare diseases shows digital tools increasingly used for remote monitoring, treatment and long-term care.
K-Tokeniser builds medical concepts such as drugs and diseases into the way a language model reads text, so it needs less training data.
BioHopR tests whether AI models can chain several facts together to answer biomedical questions with more than one correct answer.
Eight rare diseases carried a clearly higher risk of dying from COVID-19, even after vaccination, in a study covering 331 rare diseases and 58 million people.
Combining dictionary-based language processing with large language models identified rare diseases better than either alone, and found patients missing from structured records.
A three-stage method that detects, locates and corrects errors in radiology reports using internal and external knowledge retrieval.
RadBARTsum retrains a language model with medical-entity masking so it learns radiology knowledge, which improves summaries of radiology reports.
For building a biomedical ontology, we compared in-context learning, fine-tuning and supervised learning on more than 1.8 million facts.
TBLAT borrows ideas from BLAST, the tool for searching DNA sequences, to match misspelt and abbreviated clinical terms to the right concepts.
By combining language technology with a disease ontology, we identified rare disease mentions in health records with over 90% accuracy, with no human annotation of the training data.
A perspective on why coding clinical records is hard to automate, covering seven challenges and why knowledge-based methods should be combined with deep learning.
How knowledge graph technologies help computers read free-text health records, told through real examples from an invited talk.
A quick, jargon-light introduction to knowledge graphs and why they matter for health data science.
Combining language processing with clinical rules on brain scan reports identified bleeding strokes in UK Biobank with high accuracy, improving on coded data alone.
We benchmarked seven network-based gene-ranking methods for cerebral small vessel disease and found one clearly best overall, with an important limit on discovering truly new genes.
A knowledge-driven framework turns a clinical definition of a phenotype into queries that run automatically on different data sources, tested on five Scottish health datasets.
SemEHR is an open-source tool that finds what clinical notes say about patients, cutting recruitment-criteria checking from days to minutes.
A knowledge-graph method predicted unknown adverse drug reactions (AUC 0.92 on known ones), and high-confidence predictions were checked against real hospital records.
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