Toggle light / dark theme

At one time or another, we’ve all been encouraged to “maximize our potential.” In a recent interview, Academic and Entrepreneur Juan Enriquez said that mankind is making progress toward expanding beyond its potential. And the changes, he believes, could be profound.

To illustrate the process, Enriquez theorized what might happen if we were to bring Charles Darwin back to life and drop him in the middle of Trafalgar Square. As Darwin takes out his notebook and starts observing, Enriquez suggested he would likely see what might appear to be a different species. Since Darwin’s time, humans have grown taller, and with 1.5 billion obese people, larger. Darwin might also notice some other features too that many of us take for granted — there are more senior citizens, more people with all their teeth, a lot fewer wrinkles, and even some 70-year-olds running in marathons.

“There’s a whole series of morphologies that are just different about our bodies, but we don’t notice it. We don’t notice we’ve doubled the lifespan of humans in the last century,” Enriquez said. “We don’t notice how many more informations (sic) come into a brain in a single day versus what used to come in in a lifetime. So, across almost every part of humanity, there have been huge changes.”

Part of the difference that Darwin would see, Enriquez noted, is that natural selection no longer applies as strongly to life and death as it once did. Further, random gene mutations that led to some advantages kept getting passed down to generations and became part of the species. The largest difference, however, is our ongoing move toward intelligent design, he said.

“We’re getting to the stage where we want to tinker with humans. We want to insert this gene so this person doesn’t get a deadly disease. We want to insert this gene so that maybe the person performs better on an 8,000 meter peak climb, or in sports, or in beauty, or in different characteristics,” Enriquez said. “Those are questions we never used to have to face before because there was one way of having sex and now there’s at least 17.”

According to Enriquez, the concept of evolving ourselves is an important one because we are the first and only species on earth that has deliberately taken control over the pattern of evolution of what lives and dies (Science Magazine seems to agree). The technologies we’re developing now towards this goal provide us with an instrument for the a potential longer survival of the species than might otherwise be possible.

Those notions, however, raise a number of moral and ethical questions. “What is humanity…where do we want to take it?” Enriquez poses. While he noted that it’s easy to project that tinkering with humanity will lead to a dystopic future, he remains cautiously optimistic about our potential.

“I think we’ve become a much more domesticated species. We’re far less likely to murder each other than we were 50 years ago, 100 years ago or 200 years ago. We have learned how to live together in absolutely massive cities,” Enriquez said. “I think we have become far more tolerant of other religions (and) other races. There are places where this hasn’t happened but, on the whole, life has gotten a whole lot better in the last two or three hundred years and as you’re looking at that, I think we will have the tolerance for different choices made with these very instruments, and I think that’s a good thing.”

As he looks at the future of evolving humanity, Enriquez sees reasons for a great deal of optimism in the realm of single gene modification, especially in the area of eradicating disease and inherited conditions. The consequences, however, are still an unknown.

“In the UK, there was a question, ‘Do we insert gene code into a fertilized egg to cure a deadly disease?’ That is a real question, because that would keep these babies from dying early from these horrendous diseases,” Enriquez said. “The consequences of that are, for the first time, probably in the next year, you’ll have the first child born to three genetic parents.”

The path toward evolving human intelligence in the near future isn’t as cut and dry, Enriquez said. Once we establish the implications and morality between governments, religious organizations, and the scientific community, there are still plenty of hurdles to clear.

“There have been massive studies in China and we haven’t yet identified genes correlated to intelligence, even though we believe intelligence has significant inherited capacity,” Enriquez said. “I think you have to separate reality from fiction. The ability to insert a gene or two, and really modify the intelligence of human beings, I think, is highly unlikely in the next decade or two decades.”

A Chinese company building a massive animal cloning facility doesn’t want to limit itself to just replicating cattle and pets but hopes to move into the human cloning business in the future. The company, Boyalife Group, possesses the technology to do so, its CEO, Xiaochun Xo, told AFP, but to date has been “self-restrained” because it fears public backlash.


A Chinese company is claiming it has the technology to clone humans but is holding off because it says the public isn’t ready. That’s likely true, experts say, and it’s not likely to change because there isn’t a powerful enough medical reason that could swing public opinion.

Read more

Engineer Robert Grass says that though we believe information is here forever, it’s actually fragile. Hard drives and physical sources of information, like books, decay over time. In a video for the BBC, Grass describes his quest to find a method of preserving information that could be stable for millions of years. The secret is DNA.

In 2012, research showed that you could translate a megabyte (MB) of information into DNA and then read it back again. DNA has a language of its own, and is written in sequences of nucleotides (A, C, T, and G). Think of it as similar to binary, which breaks information down into ones and zeros.

And DNA has the advantage of being able to put an enormous amount of information in a tiny space. Theoretically, one gram of DNA could hold 455 exabytes of information. That’s “enough for all the data held by Google, Facebook and every other major tech company, with room to spare”, according to New Scientist.

Read more

Scientists have developed a way to produce soft, flexible and stretchy electronic circuits and radio antennas by hand, simply by writing on specially designed sheets of material.

This technique could help people draw electronic devices into existence on demand for customized devices, researchers said in a new study describing the method.

Whereas conventional electronics are stiff, new soft electronics are flexible and potentially stretchable and foldable. Researchers around the world are investigating soft electronics for applications such as wearable and implantable devices. [5 Crazy Technologies That Are Revolutionizing Biotech].

Read more

Rollins, who has a Ph.D. in veterinary medicine, took some time to talk about genetic engineering, the future of humanity and the ethical limits of science.

(This Q&A has been edited for length and clarity.)

Live Science: A quote from “The Bone Labyrinth” reads, “Research today has become more about seeing if something can be done versus judging if it should. It’s knowledge for the sake of knowledge, regardless of the impact on the world.” Is that you speaking? Is that what you personally believe?

James Rollins: Yes, I believe that. I think sometimes, the reach of science is faster than its capacity to grasp. Genetic engineering is changing the world so fast right now. The CRISPR-Cas9 technique can allow us to pluck a single DNA unit out and replace it with great precision. And one of the people I interviewed in the research for this book told me that we now have the ability to do germline editing, where anyone with a basic biology degree and familiarity with embryos can alter an embryo pretty easily. And that’s something that’s relatively new. It’s just in the last five to 10 years that that’s been developed.

Read more

3D printing in the medical industry isn’t new. We’ve seen companies 3D print prosthetics and even bones, but now a company in India has claimed to have developed 3D printable liver tissue, which they are hoping that one day will be usable for full-fledged liver transplants, although we suppose there will be quite a bit of legal and regulatory hurdles to overcome.

According to Pandorum Technologies, the company behind the technology, they claim that these 3D printed liver tissues are made of human cells and will allow for inexpensive medical research. This also means that reachers will need to rely less on human and animal trials. The entire process could also save companies millions of dollars which is usually needed in research and development.

Pandorum Technologies’ co-founder Arun Chandru said, “Our 3D bio-printed mini-livers that mimic the human liver will serve as test platforms for discovery and development of drugs with better efficacy, less side effects and at lower costs.” Apart from being used as test platforms, 3D printable liver tissue could also be used for other purposes.

Read more

This came up recently and it occurred I never posted this here. This is a lecture by Robert Bradbury, not not Ray Bradbury. I had the pleasure of exchanging a few emails with him. Unfortunately those emails are lost so I cannot share them. He was an advocate of life extension and he was a big thinker. I’ll post both vids and a link to the M-brain page. He is not with us anymore I regret to say. Ready?


Renown aging expert Robert Bradbury discusses whole genome engineering, evolution and aging and ways to defeat aging. His talk touches on many areas including nanotechnology, biology, and computer science. More information can be found at http://manhattanbeachproject.com Follow updates at http://twitter.com/maxlifeorg

Read more

Tardigrades — known affectionately as water bears or moss piglets — have pretty much got it all. These microscopic invertebrates are capable of surviving the most extreme conditions you could dream up, including prolonged desiccation and near-100 percent water loss, freezing and boiling temperatures, intense ionising radiation, and the vacuum of outer space.

Scientists have discovered that to survive extreme desiccation, tardigardes produce a special type of ‘bioglass’ to hold essential proteins and molecules together until they’re rehydrated back to life. Now they’re figuring out how to use this mechanism to develop drought-resistant crops and longer-lasting vaccines.

Back in September, researchers from the University of Chicago announced that they’d discovered a new type of glass — one produced internally by the tardigrade during desiccation. While they’re yet to figure out exactly how the glass is formed, they concluded that it’s produced as a protective mechanism to ensure that tardigrades can survive losing pretty much all of the water in their cells.

Read more