How AI and Longevity Biotechnology are Revolutionizing Healthcare for Healthier, Longer Lives

“The integration of artificial intelligence (AI), biomarkers, ageing biology, and longevity medicine stands as a cornerstone for extending human healthy lifespan.”

Imagine a future where we not only live longer but stay healthy throughout those extra years. Thanks to recent breakthroughs in biotechnology and artificial intelligence (AI) in healthcare, this vision is closer to becoming a reality.

Advancements in Aging Research

Aging research has made significant progress in recent years by combining disciplines like biology, technology, and medicine to tackle the challenges of extending healthspans and reducing age-related diseases. While people today live longer than ever before, extending our “healthspan”—the years we stay active and illness-free—remains challenging. AI and health biomarkers (biological indicators of our body’s condition) are now key tools in the pursuit of longer, healthier lives.

In a recent paper, led by corresponding authors Yu-Xuan Lyu from Southern University of Science and Technology Shenzhen; Alex Zhavoronkov from Insilico Medicine AI Limited, Masdar City, Abu Dhabi; Morten Scheibye-Knudsen and Daniela Bakula from the Center for Healthy Aging, University of Copenhagen, along with numerous other collaborators, the transformative potential of AI in aging research was explored. The research paper, titled “Longevity biotechnology: bridging AI, biomarkers, geroscience and clinical applications for healthy longevity,” was published as the cover paper in Aging’s Volume 16, Issue 20.

The Study: A New AI-Powered Approach to Aging

The work summarizes insights from the 2023 Aging Research and Drug Discovery Meeting. Researchers from renowned institutions explored how AI, biomarkers, and clinical applications can work together to enhance longevity. This fusion, termed “longevity biotechnology,” promises to transform healthcare from reactive treatments to proactive, preventive measures focused on staying healthy as we age.

The Challenge: Targeting Multiple Health Conditions with Longevity Biotechnology

Traditional aging research often targets single diseases, but most elderly individuals experience multiple chronic conditions. Addressing this complex challenge requires identifying biological markers that indicate aging and predicting health risks before diseases manifest.

The Breakthrough: AI in Biomarker Discovery for Aging

The study highlights how AI can accelerate the discovery of biomarkers, allowing scientists to understand aging at the cellular level. By using machine learning to identify unique patterns, researchers can estimate biological age, discover potential treatments, and evaluate the impact of lifestyle changes on health. This personalized approach enables healthcare providers to create prevention and treatment plans suited to each person’s unique health needs.

The Future of Healthcare: Preventive, AI-Driven Longevity Treatments

Currently, healthcare often focuses on managing diseases as they arise. However, these AI-driven tools could bring about a shift to preventive healthcare. Instead of waiting for age-related illnesses, clinicians could use AI insights to address aging’s root causes, improving health before issues arise.

While the promise of AI in healthcare is significant, the research team emphasizes that further investment is needed to make these AI-driven approaches accessible and accurate. With continued advancements, longevity biotechnology could become a standard part of healthcare, offering a new way to maintain vitality and well-being as we age.

Conclusion

Longevity biotechnology represents a groundbreaking shift, with AI and biomarkers helping us envision a future of healthier, longer lives. This approach brings us closer to understanding and managing the aging process, making extended healthspans a real possibility.

Click here to read the full research paper in Aging.

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Trending With Impact: Machine Learning Predicts Human Aging

Machine learning and a broad range of biochemical and physiological traits were used to develop a new composite metric as a potential proxy for an underlying whole-body aging mechanism.

Algorithms

The Trending With Impact series highlights Aging (Aging-US) publications that attract higher visibility among readers around the world online, in the news, and on social media—beyond normal readership levels. Look for future science news about the latest trending publications here, and at Aging-US.com.

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Will you age quickly or slowly? Is it possible to predict how long you will live based on your genetics, lifestyle and other traits? In a new study, a team of researchers—from the National Institutes of Health’s National Institute on Aging, University of California San Diego, University of Michigan, Consiglio Nazionale delle Ricerche, Azienda Sanitaria di Firenze, and ViQi, Inc.—sought to answer these questions by developing a novel framework designed to estimate human physiological age and aging rate. Their trending paper was published by Aging (Aging-US) in October 2021, and entitled, “Predicting physiological aging rates from a range of quantitative traits using machine learning”.

“We present machine learning as a promising framework for measuring physiological age from broad-ranging physiological, cognitive, and molecular traits.”

Machine Learning

Machine learning is an important development in computer science that uses artificial intelligence. Algorithms and data (figured and input by human intelligence) are programed to automatically learn and improve through experience and new data. Machine learning approaches allow researchers to build mathematical models onto training data to predict target variables—target variables includinghuman physiological age and rate of aging.

“Here we use a machine learning approach with a broad range of biochemical and physiological traits including blood phenotypes (e.g., high-density lipoprotein), cardiovascular functions (e.g., pulse wave velocity) and psychological traits (e.g., neuroticism) as main groups from the SardiNIA longitudinal study of aging [48, 49] to estimate human physiological age, a metric for phenotypic and functional age progression [7].”

Subjects and Traits

Two very interesting study populations were included in this particular aging model. People living in Sardinia—an island off the coast of Italy and one of the first identified “Blue Zones”—are well-known for their long lives. They are currently contributing to a large longitudinal study on human aging, known as the SardiNIA Project. Data from the SardiNIA Project was used to develop the aging model in the current study. 

“Funded by the National Institute on Aging in 2001, the SardiNIA Project (age range 14.0 to 101.3 years, with a mean of 43.7 years; 57% female) is a longitudinal study of human aging on the island of Sardinia, which is notable for its long-lived population[48, 49].”

The second cohort included in the current study was collected from the InCHIANTI study. Participants in this longitudinal population-based study were predominantly older adults living in Tuscany, Italy. After collecting the initial datasets from both cohorts, the researchers reduced the datasets using a “cleaning” strategy they developed. After cleaning, the number of subjects in the study went from 6165 to 4817, and the number of traits included in the algorithms went from 183 to 148. The researchers then configured the selected subjects and traits using computational algorithms and machine learning. Traits were ranked based on importance and weighted accordingly using algorithms the researchers developed. Study methods and materials were detailed thoroughly in the paper and its supplemental materials.

Supplementary Figure 1. Computational workflow for measuring physiological age and physiological aging rates (PAR) using the machine learning framework.
Supplementary Figure 1. Computational workflow for measuring physiological age and physiological aging rates (PAR) using the machine learning framework.

Conclusion

The team developed a promising new composite metric and was able to closely predict chronological age using their machine learning strategy. After they effectively estimated physiological age and validated their results, the researchers then used the ratio of physiological and chronological age to determine physiological aging rate, or PAR. Interestingly, the researchers observed that PAR was highly correlated with the epigenetic aging rate (EAR), which is a DNA methylation-based measure of aging. In addition, the researchers demonstrated that individuals with lower PARs outlived individuals with higher PARs. PAR may be a new proxy for an underlying whole-body aging mechanism.

“The efficacy of treatments aimed at slowing the aging process has traditionally been evaluated using individual biomarkers or limited collections of related biomarkers. Our current study has shown that PAR is a significant predictor for survival and correlated with epigenetic aging rate, providing evidence for a good measurement of ‘aging’.”

Click here to read the full research paper published by Aging (Aging-US).

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Aging (Aging-US) is an open-access journal that publishes research papers monthly in all fields of aging research and other topics. These papers are available to read at no cost to readers on Aging-us.com. Open-access journals offer information that has the potential to benefit our societies from the inside out and may be shared with friends, neighbors, colleagues, and other researchers, far and wide.

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