Learning neuroimaging models from health system-scale data

Fuente: arXiv
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Main Authors: Lyu, Yiwei, Harake, Samir, Chowdury, Asadur, Banerjee, Soumyanil, Gologorsky, Rachel, Liu, Shixuan, Meissner, Anna-Katharina, Rao, Akshay, Zhao, Chenhui, Kondepudi, Akhil, Jiang, Cheng, Hou, Xinhai, Joshi, Rushikesh S., Neuschmelting, Volker, Srinivasan, Ashok, Kleindorfer, Dawn, Athey, Brian, Gulani, Vikas, Pandey, Aditya, Lee, Honglak, Hollon, Todd
Format: Preprint
Published: 2025
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author Lyu, Yiwei
Harake, Samir
Chowdury, Asadur
Banerjee, Soumyanil
Gologorsky, Rachel
Liu, Shixuan
Meissner, Anna-Katharina
Rao, Akshay
Zhao, Chenhui
Kondepudi, Akhil
Jiang, Cheng
Hou, Xinhai
Joshi, Rushikesh S.
Neuschmelting, Volker
Srinivasan, Ashok
Kleindorfer, Dawn
Athey, Brian
Gulani, Vikas
Pandey, Aditya
Lee, Honglak
Hollon, Todd
author_facet Lyu, Yiwei
Harake, Samir
Chowdury, Asadur
Banerjee, Soumyanil
Gologorsky, Rachel
Liu, Shixuan
Meissner, Anna-Katharina
Rao, Akshay
Zhao, Chenhui
Kondepudi, Akhil
Jiang, Cheng
Hou, Xinhai
Joshi, Rushikesh S.
Neuschmelting, Volker
Srinivasan, Ashok
Kleindorfer, Dawn
Athey, Brian
Gulani, Vikas
Pandey, Aditya
Lee, Honglak
Hollon, Todd
contents Neuroimaging is a ubiquitous tool for evaluating patients with neurological diseases. The global demand for magnetic resonance imaging (MRI) studies has risen steadily, placing significant strain on health systems, prolonging turnaround times, and intensifying physician burnout. These challenges disproportionately impact patients in low-resource and rural settings. Here, we utilized a large academic health system as a data engine to develop Prima, the first vision language model (VLM) serving as an AI foundation for neuroimaging that supports real-world, clinical MRI studies as input. Trained on over 220,000 MRI studies, Prima uses a hierarchical vision architecture that provides general and transferable MRI features. Prima was tested in a 1-year health system-wide study that included 30K MRI studies. Across 52 radiologic diagnoses from the major neurologic disorders, including neoplastic, inflammatory, infectious, and developmental lesions, Prima achieved a mean diagnostic area under the ROC curve of 92.0, outperforming other state-of-the-art general and medical AI models. Prima offers explainable differential diagnoses, worklist priority for radiologists, and clinical referral recommendations across diverse patient demographics and MRI systems. Prima demonstrates algorithmic fairness across sensitive groups and can help mitigate health system biases, such as prolonged turnaround times for low-resource populations. These findings highlight the transformative potential of health system-scale VLMs and Prima's role in advancing AI-driven healthcare.
format Preprint
id arxiv_https___arxiv_org_abs_2509_18638
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Learning neuroimaging models from health system-scale data
Lyu, Yiwei
Harake, Samir
Chowdury, Asadur
Banerjee, Soumyanil
Gologorsky, Rachel
Liu, Shixuan
Meissner, Anna-Katharina
Rao, Akshay
Zhao, Chenhui
Kondepudi, Akhil
Jiang, Cheng
Hou, Xinhai
Joshi, Rushikesh S.
Neuschmelting, Volker
Srinivasan, Ashok
Kleindorfer, Dawn
Athey, Brian
Gulani, Vikas
Pandey, Aditya
Lee, Honglak
Hollon, Todd
Computer Vision and Pattern Recognition
Artificial Intelligence
Neuroimaging is a ubiquitous tool for evaluating patients with neurological diseases. The global demand for magnetic resonance imaging (MRI) studies has risen steadily, placing significant strain on health systems, prolonging turnaround times, and intensifying physician burnout. These challenges disproportionately impact patients in low-resource and rural settings. Here, we utilized a large academic health system as a data engine to develop Prima, the first vision language model (VLM) serving as an AI foundation for neuroimaging that supports real-world, clinical MRI studies as input. Trained on over 220,000 MRI studies, Prima uses a hierarchical vision architecture that provides general and transferable MRI features. Prima was tested in a 1-year health system-wide study that included 30K MRI studies. Across 52 radiologic diagnoses from the major neurologic disorders, including neoplastic, inflammatory, infectious, and developmental lesions, Prima achieved a mean diagnostic area under the ROC curve of 92.0, outperforming other state-of-the-art general and medical AI models. Prima offers explainable differential diagnoses, worklist priority for radiologists, and clinical referral recommendations across diverse patient demographics and MRI systems. Prima demonstrates algorithmic fairness across sensitive groups and can help mitigate health system biases, such as prolonged turnaround times for low-resource populations. These findings highlight the transformative potential of health system-scale VLMs and Prima's role in advancing AI-driven healthcare.
title Learning neuroimaging models from health system-scale data
topic Computer Vision and Pattern Recognition
Artificial Intelligence
url https://arxiv.org/abs/2509.18638