Lifeboat Foundation

Researchers develop an app that can estimate the biological age of a rodent from its mug shot, and could give a boost to the science of human aging in the process.

The 107-country Outer Space Treaty signed in 1967 prohibits nuclear, biological, or chemical weapons from being placed in or used from Earth’s orbit.

What they didn’t count on was the US Air Force’s most simple weapon ever: a tungsten rod that could hit a city with the explosive power of an intercontinental ballistic missile.

During the Vietnam War, the US used what it called “Lazy Dog” bombs. These were simply solid-steel pieces, less than 2 inches long, fitted with fins.

Continue reading “The Air Force’s ‘rods from god’ could hit with the force of a nuclear weapon — with no fallout” »

Human health depends on age and evolutionary history. Firstly, adaptation is age-specific, with Hamilton’s forces of natural selection leading to much greater adaptation at earlier ages than later ages. This of course is how evolutionary biologists explain the existence of aging in the first place. Secondly, when environmental conditions change, it takes surprisingly few generations for populations to adapt to such new conditions, at least at early ages when natural selection is intense. Thirdly, at later ages, when the forces of natural selection are weak, natural selection will often fail to produce adaptation to a selective environment that is not evolutionarily ancient. All three of these themes will be illustrated using both explicit mathematical theory and findings from experimental evolution. At the end of the presentation, we will apply these general scientific insights to the case of human evolutionary history, human aging, and optimal human diets.

https://paper.li/e-1437691924#/

Philosopher Peter Sloterdijk provides insight into the upheavals to come.

Water bear. Moss piglet. Tardigrade.

The gentle teddy-bear features of this polyonymic animal belie its hardy nature.

Capable of withstanding dehydration and cosmic radiation and surviving temperatures as low as −450 F and as high as 300 F, this eight-limbed microscopic creature holds the key to one of biology’s greatest secrets — extreme survival.

Continue reading “Could an extremophile hold the secret to treatment of devastating injuries?” »

There is a noble frontier in the making that is growing internationally at speeds yet to be comprehended. And this frontier goes by the name “Transhumanism,” which is the pursuit to overcome aging and all biological limitations via advanced science and technology. What started as nothing more than a fringe concept among futurist circles has now become a global movement consisting of philosophers, political activists, scientists, and technologists.

But when it comes to Transhumanism here in the United States, there was one particular event in mind that helped introduce this movement into the national dialogue. That event is now famously known as the “Immortality Bus tour,” for which was led by then-presidential candidate Zoltan Istvan, representing the U.S. Transhumanist Party.

Continue reading “‘Immortality or Bust’ (Documentary): A Review” »

It’s been almost 10 years since I wrote the first versions of Hamlet’s Transhumanist Dilemma and A Transhumanist Manifesto. And a lot has changed. Including my point of view.

I started with Hamlet. With asking a question: Will technology replace biology?

At the time I felt that this was the contemporary version of Shakespeare’s original human dilemma: to be or not to be.

What if woolly mammoths could walk the planet once again? De-extinction – or the process of creating an organism which is a member of, or closely resembles, an extinct species – was once a sci-fi fantasy only imaginable in films like “Jurassic Park.” But recent biological and technological breakthroughs indicate that reviving extinct creatures could become a reality. Even if advancements get us there, should we do it?

Using a modular construction kit of tailor-made cell systems, the researchers hope to simulate various properties of biological systems in the future. The idea is that cells react to their environment and learn to act independently.

The first applications are already on the horizon: In the long term, artificial cell assemblies can be deployed as mini-factories to produce specific biomolecules, or as tiny micro-robot sensors that process information and adapt to their environments.