Toggle light / dark theme

Thousands of researchers from more than 70 countries are developing a comprehensive map of every kind of cell in the human body, an endeavor that could transform our understanding of diseases and medicine.

#Moonshot #Science #BloombergQuicktake.
——-
Like this video? Subscribe: http://www.youtube.com/Bloomberg?sub_confirmation=1
Become a Quicktake Member for exclusive perks: http://www.youtube.com/bloomberg/join.

QuickTake Originals is Bloomberg’s official premium video channel. We bring you insights and analysis from business, science, and technology experts who are shaping our future. We’re home to Hello World, Giant Leap, Storylines, and the series powering CityLab, Bloomberg Businessweek, Bloomberg Green, and much more.

Subscribe for business news, but not as you’ve known it: exclusive interviews, fascinating profiles, data-driven analysis, and the latest in tech innovation from around the world.

Visit our partner channel QuickTake News for breaking global news and insight in an instant.

Circa 2018


The death-cap mushroom has a long history as a tool of murder and suicide, going back to ancient Roman times. The fungus, Amanita phalloides, produces one of the world’s deadliest toxins: α-amanitin. While it may seem ill-advised, researchers are eager to synthesize the toxin because studies have shown that it could help fight cancer. Scientists now report in the Journal of the American Chemical Society how they overcame obstacles to synthesize the death-cap killer compound.

α-Amanitin achieves its impressive deadliness by acting as a potent inhibitor of RNA polymerase II, the enzyme primarily responsible for transcribing genes into the messenger molecule RNA. Using α-amanitin bound to antibodies against tumor molecules, cancer researchers have reportedly cured mice of pancreatic cancer. These conjugates are currently in human trials; however, the only way to obtain α-amanitin so far has been to harvest mushrooms, which is time-consuming and results in relatively small amounts of the compound. Synthetic production approaches have been hampered by α-amanitin’s unusual bicyclic structure, among other tricky features. David M. Perrin and colleagues decided to take on the challenge to produce the toxin in the laboratory, once and for all.

The researchers had to work through three key obstacles to produce α-amanitin in the laboratory: production of the “oxidatively delicate” 6-hydroxy-tryptathionine, the an enantio-selective synthesis of (2 S, 3 R, 4 R)-4, 5-dihydroxy-isoleucine and a diastereoselective sulfoxidation to favor the (R)-sulfoxide. Due to its toxic nature, the researchers limited production to less than a milligram, but based on their results, they are confident that good yields are can be readily obtained by scaling up the process. The researchers also say that the development of this synthetic route will enable chemists to attenuate the toxicity and potentially improve α-amanitin’s activity against cancer, something that is only made possible by the use of synthetic derivatives.

Circa 2020 o,.o!


Every robot is, at its heart, a computer that can move. That is true from the largest plane-sized flying machines down to the smallest of controllable nanomachines, small enough to someday even navigate through blood vessels.

New research, published August 26 in Nature, shows that it is possible to build legs into robots mere microns in length. When powered by lasers, these tiny machines can move, and some day, they may save lives in operating rooms or even, possibly, on the battlefield.

This project, funded in part by the Army Research Office and the Air Force Office of Scientific Research, demonstrated that, adapting principles from origami, nano-scale legged robots could be printed and then directed.

Calico has made some important discoveries about Yamanaka factors.


In a preprint paper, scientists from Calico, Google’s longevity research behemoth, suggest that contrary to our previous understanding, transient reprogramming of cells using Yamanaka factors involves suppressing cellular identity, which may open the door to carcinogenic mutations. They also propose a milder reprogramming method inspired by limb regeneration in amphibians [1].

Rejuvenation that can give you cancer

In 2006, a group of scientists led by Shinya Yamanaka developed a technique for reprogramming somatic cells back into pluripotent stem cells by transfusing them with a cocktail of transcription factors [2]. These four pluripotency-associated genes, Oct4, Sox2, Klf4, and c-Myc (OSKM), became known as the Yamanaka factors. This breakthrough made it possible to produce patient-specific stem cells from their own somatic cells.

“I didn’t think I would be emotional about this.”


It’s not just humans that use prosthetic limbs—wounded or disabled animals can benefit from them, too. In the past, we’ve reported on cats, dogs, and even an elephant who have been fitted for prosthesis. The latest creature who’s now learning to walk on an artificial foot is an adorable duck named Waddles.

Waddles was born with a deformed leg, but his adoptive owner Ben Weinman wanted to help him live a better life. He contacted Derrick Campana, a Certified Pet Prostheticist at Bionic Pets who made a 3D-printed prosthetic leg and foot.

A clip from the NatGeo Wild series, The Wizard of Paws, was recently shared online, revealing the heartwarming moment when Waddles was fitted with his new leg. At first, he’s not quite sure what to make of it, but after a little encouragement from Weinman and Campana, he starts happily toddling along on both feet.

Discovery in Salamanders by James W. Godwin, Ph.D., brings science closer to the development of regenerative medicine therapies.

Many salamanders can readily regenerate a lost limb, but adult mammals, including humans, cannot. Why this is the case is a scientific mystery that has fascinated observers of the natural world for thousands of years.

Now, a team of scientists led by James Godwin, Ph.D., of the MDI Biological Laboratory in Bar Harbor, Maine, has come a step closer to unraveling that mystery with the discovery of differences in molecular signaling that promote regeneration in the axolotl, a highly regenerative salamander, while blocking it in the adult mouse, which is a mammal with limited regenerative ability.

Bill Gates isn’t going to use it to track you.


Your next doctor’s appointment could soon become much more informative thanks to new microchips the size of dust mites, only visible beneath a microscope.

Picture this: Your surgeon wants to continuously monitor your lungs prior to a procedure to ensure your respiratory system is strong enough to deal with anesthesia. So, a technician uses a hypodermic needle to inject a few small microchips into your body. Then, they use an ultrasound machine to communicate with the chips, which show your lungs are primed for the operation. Your subsequent surgery is a breeze.

This is a vision of the future with the world’s smallest single-chip system, a complete electronic circuit that technicians could one day inject directly into the body to monitor and diagnose certain health conditions.

Google wants to train you to become a UX designer in 6 months — without a college degree. Here’s how to make the most of the certificate program and potentially make $84000 a year.

The US unemployment rate sits at 6.7%. Thanks to COVID-19, millions of Americans are still out there looking for not just a new job but also an entire new career path.

Tech fields like UX design, data analysis, and project management are looking for promising candidates, and Google announced a new career-certificate program to help make them more accessible last summer.

The forthcoming program, called Google Career Certificates, will be taught online by Google staff, take six months to complete, and be treated as the equivalent of a relevant college degree by the search giant, according to Kent Walker, Google’s senior vice president of global affairs.

Experts share their best tips on using bootcamps like Google’s to launch a career in emerging tech fields.

Circa 2011


It sounds like a late-night infomercial: Kill germs and clean surfaces with nothing more than water and a few volts of electricity! Pay pennies a gallon! Strong enough to kill germs but gentle on your skin!

The use of electricity and water to clean and disinfect has been embraced by some food and hospitality businesses looking to save money and go green by swapping out conventional products.

At busy Whole Foods on Manhattan’s Union Square, workers keep battery-operated spray bottles designed to keep surfaces clean with water packing an electrical charge. Also available are electrolyzed oxidizing water products, or EO water, which are cleaning systems that use salt and electricity to create solutions for cleaning kitchens, prison floors and hotel rooms.

When you put these three factors together—the bounty of technological advances, the compressed restructuring timetable due to covid-19, and an economy finally running at full capacity—the ingredients are in place for a productivity boom. This will not only boost living standards directly, but also frees up resources for a more ambitious policy agenda.


AI and other digital technologies have been surprisingly slow to improve economic growth. But that could be about to change.