Supercentenarian Longevity: How Protective Biology

Medically reviewed | Published: | Evidence level: 1A
Researchers studying supercentenarian Maria Branyas Morera found evidence of advanced biological aging alongside potentially protective metabolic, immune, genetic and microbiome characteristics. The findings offer hypotheses about healthy longevity but cannot establish that any single trait caused her exceptionally long life.
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Reviewed by iMedic Medical Editorial Team
📄 Research

Quick Facts

Lifespan
117 years
Study Design
Single-person case study
Research Method
Integrated multiomics analysis

How Can Extreme Aging and Biological Resilience Occur Together?

Quick answer: Different organs and molecular systems can age at different rates, allowing substantial age-related changes to coexist with protective biological traits.

Maria Branyas Morera lived to 117, making her an exceptionally rare example of human longevity. Researchers used a multiomics approach to examine several layers of her biology, including genomic, epigenetic, metabolic, immune and microbiome features. The analysis identified signs expected in advanced age, but it also found characteristics that may have supported cardiovascular, metabolic and immune resilience.

This apparent contradiction reflects an important principle of geroscience: chronological age does not capture every dimension of biological function. Some molecular measurements may indicate advanced aging while particular pathways, tissues or risk factors remain unusually well preserved. Researchers therefore distinguish exceptional lifespan from healthspan, the period of life spent in relatively good health.

What Can a Multiomics Study Reveal About Longevity?

Quick answer: Multiomics research combines multiple biological datasets to identify interacting pathways that a single blood test or aging clock could miss.

Genomics examines inherited DNA, epigenomics measures chemical regulation of genes, metabolomics profiles small molecules involved in cellular activity, and microbiome analysis characterizes microbial communities. Studying these layers together can reveal whether potentially protective signals converge across different biological systems.

The approach is valuable because aging is not controlled by one gene, biomarker or organ. However, associations within one extraordinary individual cannot prove cause and effect. Some features may have promoted longevity, while others may simply reflect surviving to an extreme age, lifelong habits, medical care or exposures unique to that person.

Can These Findings Help Other People Live Longer?

Quick answer: Not yet, because findings from one supercentenarian must be tested in larger and more diverse populations before they can guide treatment.

The study may help researchers identify biological pathways worth examining in longitudinal cohorts and clinical trials. Comparisons involving supercentenarians, their relatives and people experiencing typical aging could clarify which characteristics predict preserved function rather than merely accompanying extreme survival.

No commercial biological-age test can currently tell an individual exactly how long they will live, and this case does not validate supplements or anti-aging treatments. Established measures such as avoiding tobacco, remaining physically active, receiving preventive care and managing blood pressure, cholesterol and diabetes have much stronger evidence for reducing premature illness and death.

Frequently Asked Questions

A supercentenarian is a person who has reached at least 110 years of age. Verified cases are extremely uncommon.

No. Biological-age measurements estimate selected molecular or physiological patterns, but they cannot reliably predict an individual's lifespan or replace standard clinical risk assessment.

The study does not establish that consumer aging tests improve health outcomes. Results can differ between testing methods and should not be used to change medication or medical care without professional guidance.

References

  1. Cell Reports Medicine. The multiomics blueprint of the individual with the most extreme lifespan. 2025.
  2. ScienceDaily. Scientists find signs of extreme aging and youth in the same 117-year-old.
  3. World Health Organization. Ageing and health. 2024.