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Last year, the pharmaceutical company Biogen released a drug called Aduhelm. It was the first new Alzheimer’s drug approved by the FDA in almost 20 years, but its rollout was mired in controversy — vast swaths of experts decried its approval, claiming there simply wasn’t enough evidence to support its efficacy, while the Journal of American Medicine (JAMA) rejected Biogen’s key Aduhelm paper. Shortly thereafter, Medicare chose to limit coverage of the drug.

All that is to say that given last year’s Aduhelm spectacle, you’d be forgiven for doubting what appears to be a promising development in Biogen’s continued Alzheimer’s drug development. And that’s just what it announced with a collaborator, fellow pharmaceutical maker Eisai, on Tuesday. But that being said, initial data suggests that the new drug is actually proving quite successful in late-stage clinical trials — enough so that Biogen might have a redemption arc, after all.

That new drug, lecanemab, is an anti-amyloid medication. An amyloid is a type of protein, and a normal one for brains to produce. An overabundance of amyloids, however, is believed to be caused by a disruption in a healthy brain’s built-in protein disposal system, resulting in a plaque; although our understanding is still fuzzy, brains with Alzheimer’s are shown to have abnormal plaque levels, so the idea is that anti-amyloid lecenameb, administered intravenously, could scrub that plaque away.

Two of the key founders of quantum physics, Einstein and Schrödinger, were deeply sceptical of its implications about uncertainty and the nature of reality. Today, the orthodox reading is that uncertainty is indeed an inherent feature of quantum systems, not a reflection of our own lack of knowledge. But Oxford physicist Tim Palmer now argues that chaos theory shows that quantum uncertainty is in fact down to our own ignorance, not reality itself. This could have far-reaching consequences for our ability to marry quantum mechanics with general relativity.

Many have disparities about the superintelligence being bad but what if it was good? Also what if the superintelligence could be a good superintelligence. Many are agreeing with the fact that AI for good could mean another Era of prosperity.


A Vatican institute and major companies delivered a set of A.I. principles to Pope Francis.

Simple microparticles can beat rhythmically together, generating an oscillating electrical current that could be used to power micro-robotic devices.

MIT is an acronym for the Massachusetts Institute of Technology. It is a prestigious private research university in Cambridge, Massachusetts that was founded in 1861. It is organized into five Schools: architecture and planning; engineering; humanities, arts, and social sciences; management; and science. MIT’s impact includes many scientific breakthroughs and technological advances. Their stated goal is to make a better world through education, research, and innovation.

AI, Ameca, Elon Musk and Boston Dynamics. A big month for AI. Please visit https://brilliant.org/digitalengine — a great place to learn about AI and STEM subjects. You can get started for free and the first 200 people will get 20% off a premium annual subscription.

Thanks to Brilliant for sponsoring this video.

The surprising benefits of curiosity:
https://greatergood.berkeley.edu/article/item/six_surprising…_curiosity.

A path towards autonomous machine intelligence, Yann LeCun.
https://openreview.net/pdf?id=BZ5a1r-kVsf.

The AI is GPT-3, which you can access via OpenAI. If you ask it similar questions, you’ll usually get similar answers (with some variation based on settings and prior conversation).

The human-like avatar is from Synthesia (we created the Tesla robot avatar).

Astronomers around the world are captivated by an unusually bright and long-lasting pulse of high-energy radiation that swept over Earth on Sunday, Oct. 9. The emission came from a gamma-ray burst (GRB)—the most powerful class of explosions in the universe—that ranks among the most luminous events known.

On Sunday morning Eastern time, a wave of X-rays and passed through the solar system, triggering detectors aboard NASA’s Fermi Gamma-ray Space Telescope, Neil Gehrels Swift Observatory, and Wind spacecraft, as well as others. Telescopes around the world turned to the site to study the aftermath, and new observations continue.

Called GRB 221009A, the provided an unexpectedly exciting start to the 10th Fermi Symposium, a gathering of gamma-ray astronomers now underway in Johannesburg, South Africa. “It’s safe to say this meeting really kicked off with a bang—everyone’s talking about this,” said Judy Racusin, a Fermi deputy project scientist at NASA’s Goddard Space Flight Center in Greenbelt, Maryland, who is attending the conference.

On Oct. 16, at 7:04 a.m. EDT, NASA’s Lucy spacecraft, the first mission to the Jupiter Trojan asteroids, will skim the Earth’s atmosphere, passing a mere 220 miles (350 kilometers) above the surface. By swinging past Earth on the first anniversary of its launch, Lucy will gain some of the orbital energy it needs to travel to this never-before-visited population of asteroids.

The Trojan asteroids are trapped in orbits around the sun at the same distance as Jupiter, either far ahead of or behind the giant planet. Lucy is currently one year into a twelve-year voyage. This gravity assist will place Lucy on a new trajectory for a two-year orbit, at which time it will return to Earth for a second gravity assist. This second assist will give Lucy the energy it needs to cross the main asteroid belt, where it will observe asteroid Donaldjohanson, and then travel into the leading Trojan asteroid swarm. There, Lucy will fly past six Trojan asteroids: Eurybates and its satellite Queta, Polymele and its yet unnamed satellite, Leucus, and Orus. Lucy will then return to Earth for a third gravity assist in 2030 to re-target the spacecraft for a rendezvous with the Patroclus-Menoetius binary asteroid pair in the trailing Trojan asteroid swarm.

For this first gravity assist, Lucy will appear to approach Earth from the direction of the sun. While this means that observers on Earth will not be able to see Lucy in the days before the event, Lucy will be able to take images of the nearly full Earth and moon. Mission scientists will use these images to calibrate the instruments.