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One of the greatest ethical debates in science — manipulating the fundamental building blocks of life — is set to heat up once more.

According to scientists behind an ambitious and controversial plan to write the human genome from the ground up, synthesising DNA and incorporating it into mammalian and even human cells could be as little as four to five years away.

Nearly 200 leading researchers in genetics and bioengineering are expected to attend a meeting in New York City next week, to discuss the next stages of what is now called the Genome Project-write (GP-write) plan: a US$100 million venture to research, engineer, and test living systems of model organisms, including the human genome.

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The CellAge project hosted last year with Lifespan.io has now joined up with Michael Greve and Kizoo to develop this technology. Community support for the project has helped move the project foward and will hopefully speed up progress as a result.


April 2017, Edinburgh. CellAge Limited (“CellAge”) has raised a seed round backed by Michael Greve´s Kizoo Technology Capital and a group of angel investors.

CellAge, a privately held synthetic biology start-up aiming to develop tools and therapies for age-related diseases, has successfully completed a seed fundraising round. In this round Kizoo Technology Capital and a number of angel investors have joined the effort to develop synthetic promoters which will make senescent cells identification and removal safer and more efficient. To achieve this, CellAge is planning to analyze transcriptional profiles of a wide range of senescent cell types using proprietary algorithm and construct novel promoters from candidate regulatory elements identified in this screen. The joint expertise in senescence, synthetic biology and bioinformatics gives CellAge a unique angle on improving ways how gene therapies could be targeted to senescent cells.

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A nice new write-up on my governor run: https://humanityplus.wordpress.com/2017/04/24/this-transhuma…alifornia/ #transhumanism


It’s a good time to be a transhumanist politician. As faith in the political establishment declines, new technologies, from gene editing to artificial intelligence, are transforming our lives faster than ever. The transhumanist author and politician Zoltan Istvan agrees. He thinks the time is ripe for pro-science and technology governance, and for leaders who will embrace the technologies that could fundamentally transform our conceptions of what it means to be human.

Istvan is a maverick who appears to thrive in an ‘outsider’ role. He self-published a sci-fi novel, The Transhumanist Wager, in 2013, which became a surprise bestseller on Amazon. In 2016, he made an unlikely run for US president as the leader of the Transhumanist Party. Now, he’s making a bid for Governor of California in the 2018 election under a Libertarian Party ticket.

As a libertarian, Istvan believes in promoting “maximum freedom and personal accountability,” a sentiment that gels well with his championing of human enhancement technologies and robot and cyborg rights.

The most important set of genetic instructions we all get comes from our DNA, passed down through generations. But the environment we live in can make genetic changes, too.

Researchers have now discovered that these kinds of environmental genetic changes can be passed down for a whopping 14 generations in an animal – the largest span ever observed in a creature, in this case being a dynasty of C. elegans nematodes (roundworms).

To study how long the environment can leave a mark on genetic expression, a team led by scientists from the European Molecular Biology Organisation (EMBO) in Spain took genetically engineered nematode worms that carry a transgene for a fluorescent protein. When activated, this gene made the worms glow under ultraviolet light.

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Primarily talking about CRISPR.


Daisy Robinton explores bioengineering and its potential to end ageing.

“The use of gene-editing technology paired with the dropping cost of genome sequencing and analysis is greatly facilitating our ability to understand the functional and mechanistic impact of those genetic mutations on diseases caused by mutations in DNA sequence,” she says.

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  • An advisory council has urged the U.S. to establish a new body that creates plans for national biodefense and to set aside a $2 billion standby fund to address emerging bioterror threats.
  • As gene editing technology advances, the potential for its use as a weapon increases, and preparing for such threats before they happen is of the utmost importance.

Though the technology promises seemingly innumerable ways to positively impact human life, gene editing is truly a double-edged sword, with nearly as many potentially negative consequences as benefits. Now, an advisory council to President Obama is urging the government to start creating countermeasures for the negative use of emerging biotechnologies.

This month, the President’s Council of Advisors on Science and Technology (PCAST) wrote a letter to President Obama recommending measures to address this potential for harm using new technologies. It advocates funding new research into antibiotic and antiviral drugs to combat resistance and having a $250 million fund for the stockpiling of vaccines.

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Oscar Wilde once said that life imitates art, and science and engineering is often no exception to this. Science fiction certainly provides science types with plenty of inspiration for inventions, including holograms, teleportation, and even sonic screwdrivers.

Star Trek’s all-purpose medical device, the Tricorder, has also inspired a fair few people to recreate its near-magical ability to instantly diagnose a patient. As it happens, the non-profit X-Prize Foundation were so keen to get one invented that they started a global competition to see if any mavericks would succeed.

Rather remarkably, one team has emerged victorious in their endeavor. A family-led team from Pennsylvania, appropriately named Final Frontier Medical Devices, have bagged themselves a sum of $2.5 million, with a second-place prize of $1 million going to the Taiwan-based Dynamical Biomarkers Group.

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“These re-engineered organisms will change our lives over the coming years, leading to cheaper drugs, ‘green’ means to fuel our cars and targeted therapies for attacking ‘superbugs’ and diseases, such as cancer,” wrote Drs. Ahmad Khalil and James Collins at Boston University, who were not involved in the study.


Our brains are often compared to computers, but in truth, the billions of cells in our bodies may be a better analogy. The squishy sacks of goop may seem a far cry from rigid chips and bundled wires, but cells are experts at taking inputs, running them through a complicated series of logic gates and producing the desired programmed output.

Take beta cells in the pancreas, which manufacture and store insulin. If they detect a large spike in blood sugar, then they release insulin; else they don’t. Each cell adheres to commands like these, allowing us—the organism—to operate normally.

This circuit-like nature of cellular operations is not just a handy metaphor. About 50 years ago, scientists began wondering: what if we could hijack the machinery behind these algorithms and reprogram the cells to do whatever we want?

Technically, an animal could use RNA editing to change the nature of its proteins without completely altering the underlying DNA instructions. This makes the cephalopods’ ability to do it a very interesting phenomenon, but it’s unclear as to why the species requires this much RNA editing. Many of the edited proteins were found in the animals’ brains, which is why scientists think the editing and their brainpower could be linked.


More than any other species on earth, octopuses are particularly smart—they can solve puzzles, use tools, and communicate using color. Now scientists are saying they’re also capable of editing their RNA.

A team of scientists led by Joshua Rosenthal at the Marine Biological Laboratory and Noa Liscovitch-Braur and Eli Eisenberg at Tel Aviv University have discovered that octopuses and squid are capable of a type of genetic alteration called RNA editing. The process is rare among other species, leading scientists to believe that the cephalopods have evolved to follow a special kind of gene recoding.

Normally, living creatures use the information contained in DNA to make proteins, and RNA is the go-between, simply transmitting the message in the DNA. More than 60 percent of RNA transcripts in squid are recoded by editing, and similar levels of RNA editing were identified in other cephalopod species, including two octopuses and a cuttlefish. This changes the message that gets sent out, which in turn changes the proteins that get produced. In comparison, other species like fruit flies and humans experience recoding events only a fraction of one percent of the time. But exactly how the gene editing mechanics work is a mystery.