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He’s backing a new biotech company working on “cellular rejuvenation programming.”


It sure looks like Jeff Bezos has plans to cheat death.

The founder and former CEO of Amazon has reportedly made an investment in the freshly launched Altos Labs, a biotech startup focused on “cellular rejuvenation programming to restore cell health and resilience, with the goal of reversing disease to transform medicine,” according to a January 19 press release. With $3 billion in backing on day one, Altos Labs has hit the ground running with what may be the single largest funding round for a biotech company, according to the Financial Times of London.

Altos Labs has an impressive roster of executives that includes experts formerly of GlaxoSmithKline, a health care company in the United Kingdom that primarily develops pharmaceuticals and vaccines; Genentech, a San Francisco-based biotech firm that created the first targeted antibody for cancer; and the National Cancer Institute. The quest to cheat death is as old as life itself, but this is an especially pedigreed bunch to take on the challenge.

Researchers from Osaka University and Osaka City University synthesize and crystallize a molecule that is otherwise too unstable to fully study in the laboratory, and is a model of a revolutionary class of magnets.

Since the first reported production in 2004, researchers have been hard at work using graphene and similar carbon-based materials to revolutionize electronics, sports, and many other disciplines. Now, researchers from Japan have made a discovery that will advance the long-elusive field of nanographene magnets.

In a study recently published in Journal of the American Chemical Society, researchers from Osaka University and collaborating partners have synthesized a crystalline nanographene with magnetic properties that have been predicted theoretically since the 1950s, but until now have been unconfirmed experimentally except at extremely low temperatures.

Xenotransplantation To Save And Extend Lives — Dr. David K.C. Cooper, MD, PhD, Massachusetts General Hospital, Harvard Medical School


Dr. David K. C. Cooper, MA, PhD, MD, MS, DSc (Med), FRCS, FACS, FACC, FAST, (https://researchers.mgh.harvard.edu/profile/27073950/David-Cooper) is a pioneering heart transplant surgeon and researcher in the field of xenotransplantation, which is defined as any procedure that involves the transplantation, implantation or infusion into a human recipient of live cells, tissues, or organs from a nonhuman animal source.

Dr. Cooper studied medicine in the UK at Guy’s Hospital Medical School (now part of King’s College London), and trained in general and cardiothoracic surgery in Cambridge and London.

Quantum computers could cause unprecedented disruption in both good and bad ways, from cracking the encryption that secures our data to solving some of chemistry’s most intractable puzzles. New research has given us more clarity about when that might happen.

Modern encryption schemes rely on fiendishly difficult math problems that would take even the largest supercomputers centuries to crack. But the unique capabilities of a quantum computer mean that at sufficient size and power these problems become simple, rendering today’s encryption useless.

That’s a big problem for cybersecurity, and it also poses a major challenge for cryptocurrencies, which use cryptographic keys to secure transactions. If someone could crack the underlying encryption scheme used by Bitcoin, for instance, they would be able to falsify these keys and alter transactions to steal coins or carry out other fraudulent activity.

How do you power a super advanced alien civilization? Soak up a star.

We harness the power of the sun using solar panels. What if you were to scale this idea to astronomical proportions? Surround an entire star with solar-collecting structures or satellites to power your sprawling alien galactic empire. Such massive structures are known as megastructures—in this case a “Dyson sphere.” We are already trying to detect possible megastructures in space using the dimming of a star and the glow of megastructure components in infrared light. But recent research provides a new detection method—a Dyson sphere may cause its host star to swell and cool.