Toggle light / dark theme

Whether we are ready or not, neuro-tech is about to cause a radical social shift that will change our understanding of the mind and our very conception of reality. Telepathy, or even a super humanity based on a symbiotic relationship with artificial intelligence, will no longer be a dream.

This documentary revisits the history of neuroscience and explores the frontiers of this groundbreaking field. It introduces technological advancements that come with catastrophic risks, which is why experts are advocating for the Neuro-Rights — regulations that ensure the privacy of our conscious AND subconscious.
——

Chapters.
▷ 00:00 – Intro.
▷ 03:02 – The enigma of human brain.
▷ 07:36 – Why neuroscience.
▷ 10:27 – Merging with the digital.
▷ 12:53 – Neuro-Revolutions: the 90s to today.
▷ 15:50 – From lab to real world (\.

Can a file be stored on DNA? What would be the advantages of such storage? And what developments can we expect in the future? All these answers in 12 minutes!

0:00 — Introduction.
2:00 — Inspiration from life, DNA
3:24 — Storing files.
7:35 — A technology under development.
10:51 — Conclusion.

Video produced for EchoSciences Sud Provence-Alpes-Côte d’Azur https://www.echosciences-paca.fr with CNRS research director Marc Antonini (I3S — CNRS/UCA). Based on an original idea by Play Azur Prod. Video coordinated by Gulliver https://www.gulliver-sciences.fr and Play Azur Prod: https://playazur-prod.fr/

Calculations and sources of the figures :

The core components of CRISPR-based genome-editing therapies are bacterial proteins called nucleases that can stimulate unwanted immune responses in people, increasing the chances of side effects and making these therapies potentially less effective.

Researchers at the Broad Institute of MIT and Harvard and Cyrus Biotechnology have now engineered two CRISPR nucleases, Cas9 and Cas12, to mask them from the immune system. The team identified protein sequences on each nuclease that trigger the immune system and used computational modeling to design new versions that evade immune recognition. The engineered enzymes had similar gene-editing efficiency and reduced immune responses compared to standard nucleases in mice.

Appearing today in Nature Communications, the findings could help pave the way for safer, more efficient gene therapies. The study was led by Feng Zhang, a core institute member at the Broad and an Investigator at the McGovern Institute for Brain Research at MIT.

A new study by researchers at the Department of Molecular Medicine at SDU sheds light on one of the most severe consequences of stroke: damage to the brain’s “cables”—the so-called nerve fibers—which leads to permanent impairments. The study, published in The Journal of Pathology, which is based on unique tissue samples from Denmark’s Brain Bank located at SDU, may pave the way for new treatments that help the brain repair itself.

A stroke occurs when the to part of the brain is blocked, leading to brain damage. Following an injury, the brain tries to repair the damaged nerve fibers by re-establishing their insulating layer, called myelin. Unfortunately, the often succeeds only partially, meaning many patients experience lasting damage to their physical and mental functions.

According to Professor Kate Lykke Lambertsen, one of the study’s lead authors, the brain has the resources to repair itself, “We need to find ways to help the cells complete their work, even under difficult conditions.”

An automated system could potentially monitor real-time images of coronal loop brightness shifts from the Solar Dynamics Observatory, thus enabling scientists to issue timely alerts.

“We could build on this and come up with a well-tested and, ideally, simpler indicator ready for the leap from research to operations,” said Vadim Uritsky, an expert in space physics at NASA’s Goddard Space Flight Center (GSFC) and Catholic University in Washington D.C.

The discovery of flickering coronal loops as a precursor to solar flares opens up transformative possibilities in both research and technology.

A Massive Star’s Unusual Formation Surprise

Astronomers have uncovered an extraordinary discovery in the formation of stars, observing a colossal young star, MM 1a, forming a smaller companion star, MM 1b, instead of planets. Using the Atacama Large Millimeter/submillimeter Array (ALMA), researchers identified MM 1b on the outskirts of MM 1a’s dense disk of dust and gas, a region traditionally associated with planet formation.