Mia's Feed
Medical News & Research

Advancements in AI: Deep-Learning Models Mimic Pathologists in Biopsy Analysis

Advancements in AI: Deep-Learning Models Mimic Pathologists in Biopsy Analysis

Share this article

Innovative AI models trained with eye-tracking technology now emulate expert pathologists in analyzing tissue biopsies, promising enhanced accuracy and reduced workload in medical diagnostics.

2 min read

Researchers have developed innovative deep-learning models capable of analyzing tissue biopsies with a level of expertise comparable to seasoned human pathologists. Traditional AI training for medical image diagnosis often requires meticulous pixel-level annotations, a process demanding significant time and specialized effort from medical professionals. To address this challenge, a team from MedSight AI Research Lab, China Medical University, and the National Joint Engineering Research Center introduced a novel approach utilizing eye-tracking technology during pathological review.

This methodology involves recording eye movements, zooming, and panning behaviors of experienced pathologists as they examine whole-slide images of skin tissue samples. The collected data helps train the Pathology Expertise Acquisition Network (PEAN), a deep learning system that learns to decode the visual patterns and regions of interest identified by experts, thus capturing diagnostic expertise without extensive pixel annotation.

In a recent study published in Nature Communications, the team demonstrated that PEAN could accurately predict suspicious regions within tissue samples, achieving a classification accuracy of 96.3% and an AUC of 0.992 on known datasets. Its performance on new, unseen samples still yielded an impressive accuracy of 93% with an AUC of 0.984, surpassing other AI models. Moreover, when the regions highlighted by PEAN were used to train other diagnostic models, the overall accuracy and diagnostic confidence significantly improved.

This breakthrough holds promise for revolutionizing digital pathology by reducing the workload on expert pathologists, enhancing diagnostic precision, and enabling scalable training of AI models. The researchers envision expanding PEAN’s capabilities to support personalized diagnosis, lesion detection, and large-scale multimodal diagnostic systems, ultimately aiming to create digital replicas of expert pathologists that can operate efficiently across diverse clinical settings.

The approach highlights how integrating eye-tracking technology with deep learning can bridge the gap between human expertise and automated analysis, fostering advancements in medical diagnostics and AI-driven healthcare solutions.

Source: https://medicalxpress.com/news/2025-08-scientists-deep-scrutinize-biopsies-human.html

Stay Updated with Mia's Feed

Get the latest health & wellness insights delivered straight to your inbox.

How often would you like updates?

We respect your privacy. Unsubscribe at any time.

Related Articles

Prenatal Exposure to Climate Disasters May Alter Child Brain Development

Climate-related disasters during pregnancy can have long-term effects on a child's brain development, impacting emotional regulation and mental health. New research highlights the critical need for support and resilience strategies for vulnerable pregnant women.

Enhancing Cancer Outcomes Through Improved Lynch Syndrome Testing: A Cost-Effectiveness Analysis

A comprehensive analysis demonstrates that universal Lynch syndrome testing for colorectal cancer patients significantly enhances early detection and is cost-effective, leading to improved cancer prevention and reduced healthcare costs.

Innovative Therapeutic Approach to Lower Cholesterol Levels

Researchers have developed a new gene therapy using polypurine hairpins to inhibit PCSK9, offering a promising and safer strategy to lower LDL cholesterol and combat cardiovascular disease.

Early Childhood Socioeconomic Disadvantage and Its Impact on Biological Aging

A groundbreaking study reveals that socioeconomic disadvantages in childhood can accelerate biological aging, impacting long-term health and increasing disease risk. Early intervention policies are essential to mitigate these effects.