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Over the past several decades, human lifespan has steadily increased. However, this progress has also led to a growing proportion of the population suffering from age-related diseases such as cancer, neurodegenerative disorders, and diabetes. Extending both lifespan and healthspan, the period of life spent in good health, requires a deeper understanding of the biological mechanisms that promote healthy aging.

In the natural world, mammalian lifespans vary enormously, ranging from just 1 to 2 years in some rodents to more than a century in species.

A species is a group of living organisms that share a set of common characteristics and are able to breed and produce fertile offspring. The concept of a species is important in biology as it is used to classify and organize the diversity of life. There are different ways to define a species, but the most widely accepted one is the biological species concept, which defines a species as a group of organisms that can interbreed and produce viable offspring in nature. This definition is widely used in evolutionary biology and ecology to identify and classify living organisms.

Extract from “Evolution, Basal Cognition and Regenerative Medicine”, kindly contributed by Michael Levin in SEMF’s 2023 Interdisciplinary Summer School (https://semf.org.es/school2023/). Full talk: • Michael Levin | Evolution, Basal Cogn… TALK ABSTRACT Each of us has made the remarkable journey from a single cell (a quiescent oocyte) to a complex embodied mind. How do cells, which were once independent organisms, work together to pursue the anatomical and physiological goals that enable form and function to reliably self-assemble? In this talk, I will tell the story of the collective intelligence of cellular swarms that embodies William James’ definition of intelligence: same ends by different means. I will describe the amazing competencies of the morphogenetic process that builds bodies and minds, and our discoveries on bioelectricity — the cognitive glue that implements embryogenesis, regeneration, and cancer suppression. I will end with a perspective on how biophysical, informational, and behavioral sciences are coming together to redefine the boundaries of the possible in biomedicine and beyond. MICHAEL LEVIN Department of Biology, Tufts University: https://as.tufts.edu/biology Tufts University profile: https://ase.tufts.edu/biology/labs/le… Institute profile: https://wyss.harvard.edu/team/associa… Wikipedia: https://en.wikipedia.org/wiki/Michael… ) Google Scholar: https://scholar.google.com/citations?… Twitter: / drmichaellevin LinkedIn: / michael-levin-b0983a6 SEMF NETWORKS Website: https://semf.org.es Twitter: / semf_nexus LinkedIn: / semf-nexus Instagram: / semf.nexus Facebook: / semf.nexus

A new study involving over 700 older adults suggests that taking one gram of omega-3 daily may help slow biological aging, with effects visible in molecular markers known as epigenetic clocks.

When combined with vitamin D and regular exercise, the anti-aging benefits became even more pronounced, lowering the risks of frailty and cancer as well.

Omega-3 linked to slower aging in humans.

Stem cell-derived pancreatic islets are being studied as a rich transplantable source for insulin production, a therapeutic for type 1 diabetes that overcomes the need to obtain islet cells from deceased donors.

The first attempts to transplant to treat type 1 diabetes began half a century ago. Doctors then sought the pancreatic tissue of deceased donors from which islet-producing tissue was removed for transplants. The islets produce life-saving insulin. Substantial advancements and increased success rates have led to islet-cell transplants becoming an approved therapy in Canada and Europe. The technique is still considered investigational in the United States.

But in a series of new advances, a team of endocrinologists and regenerative medicine specialists in the Netherlands has developed methods that improve the production of stem cells used to generate insulin-making islets.

Lithium button cells with electrodes made of nickel-manganese-cobalt oxides (NMC) are very powerful. Unfortunately, their capacity decreases over time. Now, for the first time, a team has used a non-destructive method to observe how the elemental composition of the individual layers in a button cell changes during charging cycles.

The study, published in the journal Small, involved teams from the Physikalisch-Technische Bundesanstalt (PTB), the University of Münster, researchers from the SyncLab research group at HZB and the BLiX laboratory at the Technical University of Berlin. Measurements were carried out in the BLiX laboratory and at the BESSY II synchrotron radiation source.

Lithium-ion batteries have become increasingly better. The combination of layered nickel-manganese-cobalt oxides (NMC) with a graphite electrode (anode) has been well established as the in button cells and has been continuously improved. However, even the best batteries do not last forever; they age and lose capacity over time.

Lately, there’s been growing pushback against the idea that AI will transform geroscience in the short term.
When Nobel laureate Demis Hassabis told 60 Minutes that AI could help cure every disease within 5–10 years, many in the longevity and biotech communities scoffed. Leading aging biologists called it wishful thinking — or outright fantasy.
They argue that we still lack crucial biological data to train AI models, and that experiments and clinical trials move too slowly to change the timeline.

Our guest in this episode, Professor Derya Unutmaz, knows these objections well. But he’s firmly on Team Hassabis.
In fact, Unutmaz goes even further. He says we won’t just cure diseases — we’ll solve aging itself within the next 20 years.

And best of all, he offers a surprisingly detailed, concrete explanation of how it will happen:
building virtual cells, modeling entire biological systems in silico, and dramatically accelerating drug discovery — powered by next-generation AI reasoning engines.

🧬 In this wide-ranging conversation, we also cover:

✅ Why biological complexity is no longer an unsolvable barrier.
✅ How digital twins could revolutionize diagnosis and treatment.
✅ Why clinical trials as we know them may soon collapse.
✅ The accelerating timeline toward longevity escape velocity.
✅ How reasoning AIs (like GPT-4o, o1, DeepSeek) are changing scientific research.
✅ Whether AI creativity challenges the idea that only biological minds can create.
✅ Why AI will force a new culture of leisure, curiosity, and human flourishing.
✅ The existential stress that will come as AI outperforms human expertise.
✅ Why “Don’t die” is no longer a joke — it’s real advice.

🎙️ Hosted — as always — by Peter Ottsjö (tech journalist and author of Evigt Ung) and Dr. Patrick Linden (philosopher and author of The Case Against Death).