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Watch June’s edition of Inside SingularityNET, featuring exciting news and insightful updates on our AGI R\&D, decentralized AI platform development, progressive decentralization, and broader ecosystem developments.

00:00 — Intro | AI Twin — Dr. Ben Goertzel.
00:48 — Dr. Matt Iklé | CSO — SingularityNET
04:09 — Sergey Shalyapin | CTO — SingularityNET
08:07 — Vita Potapova | Hyperon Project Manager — SingularityNET
13:19 — Alex Blagirev | SIO — SingularityNET
19:10 — Haley Lowy | Marketing Lead — SingularityNET
24:57 — Jan Horlings | CEO — Deep Funding.
31:23 — Esther Galfalvi | Decentralization Program Lead — SingularityNET
34:11 — Peter Elfrink | Community Lead — SingularityNET
35:52 — Stacey Engle | CEO — Twin Protocol.
39:45 — Jennifer Bourke | Marketing and Community Lead — NuNet.
45:02 — Jerry Hall | Marketing Lead — HyperCycle.
47:21 — Patrik Gudev l CEO — Jam Galaxy.
52:23 — Robin Spottiswoode l CTO — Jam Galaxy.
54:40 — Rebekah Pennington | Partnerships and Community — Yaya Labs.
56:03 — Kennedy Schaal | CEO — Rejuve. BIO

#AI #DecentralizedAI #AGI

MeTTa website: https://metta-lang.dev/
Decentralization website: http://decentralizing.singularitynet.io.
Artificial Superintelligence Alliance: https://superintelligence.io/
Rejuve. Bio Crowdsale: http://bit.ly/rjvbcrowdfund.

Disclaimer: Videos published by SingularityNET are meant for informational purposes only and are not intended to serve as a recommendation to buy or sell any security in a self-directed account and are not an offer or sale of a security. Any investment is not directly managed by SingularityNET or Rejuve. Bio. All investments involve risk, and the past performance of a security or financial product does not guarantee future results or returns. Potential investors should seek professional advice and carefully review all documentation before making any investment decisions.

SingularityNET was founded by Dr. Ben Goertzel with the mission of creating a decentralized, democratic, inclusive, and beneficial Artificial General Intelligence (AGI). An AGI is not dependent on any central entity, is open to anyone, and is not restricted to the narrow goals of a single corporation or even a single country.

Researchers at the Weizmann Institute of Science discovered a new type of vortex formed by photon interactions, which could advance quantum computing.

Vortex Phenomena

Vortices are a widespread natural phenomenon, observable in the swirling formations of galaxies, tornadoes, and hurricanes, as well as in simpler settings like a stirring cup of tea or the water spiraling down a bathtub drain. Typically, vortices arise when a rapidly moving substance such as air or water meets a slower-moving area, creating a circular motion around a fixed axis. Essentially, vortices serve to reconcile the differences in flow speeds between adjoining regions.

“It has been very motivating and inspiring to turn to the notes and drawings of Jupiter and its Permanent Spot made by the great astronomer Jean Dominique Cassini, and to his articles of the second half of the 17th century describing the phenomenon,” said Dr. Agustín Sánchez-Lavega.


Jupiter’s Great Red Spot was first discovered in 1,665 by astronomer Giovanni Domenico Cassini, and both scientists and the public have been awe-stricken by its beauty and the processes that created it. However, a recent study published in Geophysical Research Letters postulates that the famous spot we’ve adored for so long is not the same spot that Cassini observed centuries ago. This study holds the potential to help astronomers better understand the formation and evolution of Jupiter and the massive cyclonic storms that comprise its giant atmosphere.

For the study, the researchers analyzed historical records of both the initial discovery from Cassini, which was dubbed the “Permanent Spot” (PS) and was observed until 1,713, and the Great Red Spot (GRS), which was first observed in 1831. Combining these historical records with computer models, the researchers determined that the size changes and movements over time of PS contrast those of GRS.

A new study reveals that magnesium oxide, a key mineral in planet formation, might be the first to solidify in developing “super-Earth” exoplanets, with its behavior under extreme conditions significantly influencing planetary development.

Scientists have for the first time observed how atoms in magnesium oxide morph and melt under ultra-harsh conditions, providing new insights into this key mineral within Earth’s mantle that is known to influence planet formation.

High-energy laser experiments—which subjected tiny crystals of the mineral to the type of heat and pressure found deep inside a rocky planet’s mantle—suggest the compound could be the earliest mineral to solidify out of magma oceans in forming “super-Earth” exoplanets.

Check out courses about science, computer science, or math on Brilliant! First 30 days are free and 20% off the annual premium subscription when you use our link ➜ https://brilliant.org/sabine.

The universe creates complexity out of simplicity, but despite many attempts at understanding how, scientists still have not figured it out. We do know that complexity relies on the emergence of new features and laws, but then again we don’t understand emergence either. The first step must be to clearly define what we are talking about and to measure it. A group of scientists now put forward a way to do exactly this. Let’s have a look.

Paper here: https://arxiv.org/abs/2402.

Correction to what I say at 04:07 \.

A new analysis of data collected on Venus more than 30 years ago suggests the planet may currently be volcanically active.

A research group from Italy led by David Sulcanese of the Università d’Annunzio in Pescara, Italy, has used data from a radar mapping of Venus’s surface taken in the early 1990s to search for volcanic lava flow, finding it in two regions.

The discovery suggests that volcanic activity may be currently active and more widespread than was previously thought, supporting previous indirect evidence that there is volcanic activity on Venus.