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OpenAI pitched the White House on building data centers in the US as large as 5GW capacity — for ref, that’s enough to power 3 mil homes.

OAI’s analysis says it could add tens of thousands of jobs, boost GDP, and keep US ahead of China on AI.

Altman has spent much of this year trying to form a…


OpenAI has pitched the Biden administration on the need for massive data centers that could each use as much power as entire cities, framing the unprecedented expansion as necessary to develop more advanced artificial intelligence models and compete with China.

Hi folks, I’d like to invite you to a webinar I will be giving on my research, hosted by the Foresight Institute! It takes place this Friday at 12:00pm CST. You can sign up on the linked page. The donation is optional, so if you don’t want to donate, you can just put $0.00. I hope to see you there!


Biotech and Health Extension sponsored by 100 Plus Capital

Viruses inside vaults: a powerful new gene therapy delivery system

Bio: Logan Thrasher Collins is a synthetic biologist, author, and futurist. He is currently a PhD candidate in biomedical engineering at Washington University in St. Louis. Logan began engaging in scientific research during his sophomore year of high school when he created a new synthetic biology approach for combatting antibiotic resistant infections. Since then, he has led research projects on developing x-ray microscopy techniques for connectomics, using molecular dynamics simulations to study SARS-CoV-2, and inventing novel gene therapy delivery systems. Logan has spoken at TEDxMileHigh and has published peer-reviewed scientific papers on his research. He has also published science fiction and sci-fi poetry and as well as a peer-reviewed philosophy journal article. Logan passionately advocates for applying interdisciplinary solutions to global challenges and leverages both the arts and sciences to help build a bright future.

The first 200 of you will receive the first month of a Planet Wild membership from me for free. Click on this link https://planetwild.com/r/anastasiinte… use the code ANASTASI29 later. You can cancel at any time. If you want to see how Planet Wild works first, check out their latest YouTube video link https://planetwild.com/r/anastasiinte

The video I mentioned about NVIDIA:
➜ • New Nvidia Chip Has a HUGE Problem.

Timestamps:
00:00 Intro.
05:04 Manufacturing.
06:44 Thermals.
09:29 TSMC
09:58 Intel.
11:15 Challenges.

Support me at Patreon ➜ / anastasiintech.

Imagine being one cartwheel away from changing your appearance. One flip, and your brunette locks are platinum blond. That’s not too far from what happens in some prokaryotes, or single-cell organisms, such as bacteria, that undergo something called inversions.

A study led by scientists at Stanford Medicine has shown that inversions, which cause a physical flip of a segment of DNA and change an organism’s genetic identity, can occur within a single gene, challenging a central dogma of biology — that one gene can code for only one protein.

“Bacteria are even cooler than I originally thought, and I’m a microbiologist, so I already thought they were pretty cool,” said Rachael Chanin, PhD, a postdoctoral scholar in hematology. Microbiologists have known for decades that bacteria can flip small sections of their DNA to activate or deactivate genes, Chanin said. To the team’s knowledge, however, those somersaulting pieces have never been found within the confines of a single gene.

How do the characteristics of Neptune-like exoplanets, also known as exo-Neptunes, differ from each other? This is what a recent study published in Astronomy and Astrophysics hopes to address as an international team of researchers investigated a new classification known as the “Neptunian Ridge”. This complements previous classifications of “Neptunian Desert” and “Neptunian Savannah”, with the former identifying exo-Neptunes that are rare in number but orbit very close to their parent stars while the “Neptune Savannah” describes exo-Neptunes that orbit much farther out. This study holds the potential to help astronomers better understand the formation and evolution of exo-Neptunes throughout the cosmos.

For the study, the researchers used confirmed and candidate exoplanets that comprise the Kepler DR25 catalog to ascertain the characteristic variations in exo-Neptunes while providing additional insights into the formation and evolution of exo-Neptunes, as well. In the end, they determined that this “Neptunian Ridge” exists as a middle-ground between the “Neptunian Desert” and “Neptunian Savannah”, with the former hypothesized to have formed from moving inward in their system from high-eccentricity tidal migration and the latter forming from disk-driven migration, which occurs right after planetary formation.

“Our work to observe this new structure in space is highly significant in helping us map the exoplanet landscape,” said Dr. David Armstrong, who is an Associate Professor of Physics at the University of Warwick and a co-author on the study. “As scientists, we’re always striving to understand why planets are in the condition they are in, and how they ended up where they are. The discovery of the Neptunian ridge helps answer these questions, unveiling part of the geography of exoplanets out there, and is a hugely exciting discovery.”