Toggle light / dark theme

PRESS RELEASE: Doomsday Clock set at 90 seconds to midnight

Rachel Bronson, PhD, president and CEO, Bulletin of the Atomic Scientists, said: “We are living in a time of unprecedented danger, and the Doomsday Clock time reflects that reality. 90 seconds to midnight is the closest the Clock has ever been set to midnight, and it’s a decision our experts do not take lightly. The US government, its NATO allies and Ukraine have a multitude of channels for dialogue; we urge leaders to explore all of them to their fullest ability to turn back the Clock.”

The Doomsday Clock’s time is set by the Bulletin of the Atomic Scientists’ Science and Security Board with the support of the Bulletin’s Board of Sponsors, which includes 10 Nobel Laureates. Previously, the Doomsday Clock had been set at 100 seconds to midnight since 2020.

The Doomsday Clock statement explains that “Russia’s war on Ukraine has raised profound questions about how states interact, eroding norms of international conduct that underpin successful responses to a variety of global risks. And worst of all, Russia’s thinly veiled threats to use nuclear weapons remind the world that escalation of the conflict—by accident, intention, or miscalculation—is a terrible risk. The possibility that the conflict could spin out of anyone’s control remains high… Russia has also brought its war to the Chernobyl and Zaporizhzhia nuclear reactor sites, violating international protocols and risking widespread release of radioactive materials. Efforts by the International Atomic Energy Agency to secure these plants so far have been rebuffed.” The statement has been translated into Ukrainian and Russian.

Joelle Elbez-Uzan — Head, Nuclear Safety Office — DEMO Fusion Reactor — EUROfusion

Is the Head, Nuclear Safety Office, overseeing the development of the DEMO Fusion Reactor (https://euro-fusion.org/programme/demo/), at EUROfusion.

DEMO (DEMOnstration Power Plant) refers to a proposed class of nuclear fusion experimental reactors that are intended to demonstrate the net production of electric power from nuclear fusion.

EUROfusion is a consortium of national fusion research institutes located in the European Union, the UK, Switzerland and Ukraine. It was established in 2014 to succeed the European Fusion Development Agreement (EFDA) as the umbrella organization of Europe’s fusion research laboratories.

Prior to this role, Ms. Elbez-Uzan spent over a decade at the ITER Organization as Head of the Division of Nuclear Safety.

ITER (the International Thermonuclear Experimental Reactor) is being built in southern France where upon completion of construction of the main reactor and first plasma, planned for late 2028, it will be the world’s largest magnetic confinement plasma physics experiment and the largest experimental tokamak nuclear fusion reactor.

Prior to this role, Ms. Elbez-Uzan spent several years as Deputy Head of the Nuclear Safety Department, at the French Alternative Energies and Atomic Energy Commission (CEA), a key player in research, development and innovation in four main areas: defense and security, low carbon energies (nuclear and renewable energies), technological research for industry, and fundamental research in the physical sciences and life sciences.

HUGE NEWS!! This NUCLEAR DIAMOND BATTERY Is About To Hit The Market!!

Can a nuclear diamond battery change things as we know it, including what to do with nuclear waste?


Don´t forget to leave your comments below and to support the channel by liking the video and subscribing. Thanks!

Subscribe To The Tesla Domain ➡ https://bit.ly/2ECNiWk.

WATCH NEXT 👇

✅ Nuclear Diamond Batteries Could Be The Final Answer For Energy Storage.

A new way to remove contaminants from nuclear wastewater

I posted about Japan releasing radioactive water, and thought it was a bad idea, because of this MIT revelation.


Nuclear power continues to expand globally, propelled, in part, by the fact that it produces few greenhouse gas emissions while providing steady power output. But along with that expansion comes an increased need for dealing with the large volumes of water used for cooling these plants, which becomes contaminated with radioactive isotopes that require special long-term disposal.

Now, a method developed at MIT provides a way of substantially reducing the volume of contaminated water that needs to be disposed of, instead concentrating the contaminants and allowing the rest of the water to be recycled through the plant’s cooling system. The proposed system is described in the journal Environmental Science and Technology, in a paper by graduate student Mohammad Alkhadra, professor of chemical engineering Martin Bazant, and three others.

The method makes use of a process called shock electrodialysis, which uses an electric field to generate a deionization shockwave in the water. The shockwave pushes the electrically charged particles, or ions, to one side of a tube filled with charged porous material, so that concentrated stream of contaminants can be separated out from the rest of the water. The group discovered that two radionuclide contaminants — isotopes of cobalt and cesium — can be selectively removed from water that also contains boric acid and lithium. After the water stream is cleansed of its cobalt and cesium contaminants, it can be reused in the reactor.

Ripples in fabric of universe may reveal start of time

Scientists have advanced in discovering how to use ripples in space-time known as gravitational waves to peer back to the beginning of everything we know. The researchers say they can better understand the state of the cosmos shortly after the Big Bang by learning how these ripples in the fabric of the universe flow through planets and the gas between the galaxies.

“We can’t see the directly, but maybe we can see it indirectly if we look at how gravitational waves from that time have affected matter and radiation that we can observe today,” said Deepen Garg, lead author of a paper reporting the results in the Journal of Cosmology and Astroparticle Physics. Garg is a graduate student in the Princeton Program in Plasma Physics, which is based at the U.S. Department of Energy’s (DOE) Princeton Plasma Physics Laboratory (PPPL).

Garg and his advisor Ilya Dodin, who is affiliated with both Princeton University and PPPL, adapted this technique from their research into , the process powering the sun and stars that scientists are developing to create electricity on Earth without emitting greenhouse gases or producing long-lived radioactive waste. Fusion scientists calculate how move through plasma, the soup of electrons and that fuels fusion facilities known as tokamaks and stellarators.

The problems with Helion Energy — a response to Real Engineering

I still like Helion… but not for a power plant. Instead, this is an interesting route to a fusion drive.

This is also a very good channel. It is worth watching his other fusion videos first.


A short humorous analysis of challenges with the fusion approach of Helion Energy.

00:00 — Introduction.
01:03 — Low reactivity.
02:55 — Neutrons.
05:33 — Bremsstrahlung.
06:17 — Diagnostics.
06:57 — Conclusion.

References.

New strategy uses ionic liquids to change laser colors with ease

Lasers are intense beams of colored light. Depending on their color and other properties, they can scan your groceries, cut through metal, eradicate tumors, and even trigger nuclear fusion. But not every laser color is available with the right properties for a specific job.

To fix that, scientists have found a variety of ways to convert one color of laser light into another. In a study just published in the journal Physical Review Applied, scientists at the U.S. Department of Energy’s (DOE) Brookhaven National Laboratory demonstrate a new color-shifting strategy that is simple, efficient, and highly customizable.

The new method relies on interactions between the laser and in the chemical bonds of materials called “.” These liquids are made only of positively and negatively charged ions, like ordinary table salt, but they flow like viscous fluids at room temperature. Simply shining a laser through a tube filled with a particular ionic liquid can downshift the laser’s energy and change its color while retaining other important properties of the laser beam.

StrictlyVC in conversation with Sam Altman, part two (OpenAI)

OpenAI cofounder and CEO Sam Altman sat down for a wide-ranging interview with us late last week, answering questions about some of his most ambitious personal investments, as well as about the future of OpenAI.

This second clip is focused exclusively on artificial intelligence, including how much of what OpenAI is developing Altman thinks should be regulated, whether he’s worried about the commodification of AI, his thoughts about Alphabet’s reluctance to release its own powerful AI, and worst-and best-case scenarios as we move toward a future where AI is ever-more central to our lives.

There was much to discuss (and he was generous to stay and talk about it).

You can find the first part our sit-down — focused in part on Helion Energy, a nuclear fusion company that has become Altman’s second-biggest project — here: https://youtu.be/57OU18cogJI

/* */