Mia's Feed
Medical News & Research

Artificial Intelligence Advances Early Detection of Blood Mutations Linked to Cancer and Heart Disease

Artificial Intelligence Advances Early Detection of Blood Mutations Linked to Cancer and Heart Disease

Share this article

A new AI-powered tool from Mayo Clinic improves early detection of blood mutations linked to increased risks of cancer and heart disease, potentially enabling proactive patient care.

2 min read

Researchers at Mayo Clinic have developed an innovative artificial intelligence (AI) tool capable of identifying early blood mutations associated with an increased risk of cancer, particularly leukemia, and cardiovascular diseases. These blood mutations, often present in a slow-growing cluster of mutated blood cells, occur in approximately 20% of older adults and can significantly elevate disease risk without obvious symptoms.

This condition, known as clonal hematopoiesis of indeterminate potential (CHIP), originates in the bone marrow where blood stem cells normally produce cells vital for oxygen transport, immune defense, and organ function. When these stem cells acquire mutations in genes linked to blood cancers, they can multiply abnormally, forming clusters of mutated cells that expand over time. Although CHIP is usually asymptomatic, it has been linked to a higher incidence of death, notably from heart disease, and increases the likelihood of developing leukemia more than tenfold.

To better understand and detect this hidden risk, Mayo Clinic researchers created UNISOM (Unified Somatic Calling and Machine Learning), an advanced tool that pinpoints CHIP-related mutations within standard genetic datasets. Developed under the leadership of Ph.D. scholars Shulan Tian and Eric Klee, UNISOM enables clinicians to identify mutations that traditional methods often miss, especially those present in fewer than 5% of blood cells, by analyzing whole-exome and whole-genome sequencing data.

Detecting these early genetic changes enhances the potential for proactive monitoring and personalized disease prevention strategies. Dr. Klee emphasizes that early molecular detection signifies a major step forward in personalized medicine, translating genomic discoveries into practical clinical tools. Dr. Tian highlights that the tool has already demonstrated high accuracy, identifying nearly 80% of CHIP mutations, and aims to be expanded to larger, more diverse datasets to support wider clinical use.

Understanding and identifying CHIP mutations early may lead to improved management of patients at risk, ultimately reducing the burden of blood cancers and cardiovascular diseases among aging populations.

Source: https://medicalxpress.com/news/2025-08-ai-tool-early-blood-mutations.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

US Sees Highest Measles Cases in 33 Years Driven by Texas Outbreak

The United States reports its highest measles case count in 33 years in 2025, driven largely by an outbreak in Texas. Experts warn that low vaccination rates and vaccine hesitancy threaten to cause further outbreaks nationwide. Learn more about this alarming trend and its implications for public health.

Research Shows Fathers' Environmental Factors Impact Embryonic Development via Epigenetic Signatures

New research uncovers how paternal environmental exposures influence early embryonic development through epigenetic modifications, highlighting the role of fathers in intergenerational health.

Assessing the Accuracy of Racial Minority Representation in US Cancer Registries

This article explores how well US cancer registration systems capture racial minority data and the implications for addressing health disparities. Recent studies highlight improvements and ongoing challenges in accurately classifying multiracial populations to better understand cancer incidence and mortality rates.

Innovative Research Reveals Hidden Factors in Wound Healing and Recurrence

New research uncovers the significance of skin barrier function in wound healing, highlighting the role of invisible wounds measured through TEWL in predicting diabetic foot ulcer recurrence.