In a pilot study testing psilocybin therapy in Parkinson’s patients, the participants experienced clinically significant improvements in mood, cognition and motor function that lasted for weeks after the drug was out of their systems.
Dr. Bobby Reddy, MD is the Chief Operating Officer and Co-Founder of Pi Health ( https://www.pihealth.ai/ ), a health technology and clinical research compan…
Neil Steinberg and Mark Jonathan Harris are both acclaimed filmmakers and through a partnership with Generation Entertainment, The John A. Hartford Foundatio…
“Developers now can ship more code than ever before,” due to all the automation that is being used, thanks to AI. “But it’s still a very manual process to fix it when things go wrong.”
“My findings in this study fit with the thought that the Universe might work like a giant computer, or our reality is a simulated construct,” Dr. Vopson said.
“Just like computers try to save space and run more efficiently, the Universe might be doing the same.”
“It’s a new way to think about gravity — not just as a pull, but as something that happens when the Universe is trying to stay organized.”
Consciousness cannot be separated from reality. In this profound reflection, physicist Basil Hiley explains why classical physics tried to exclude the subject…
Why do the two most fundamental theories of the universe contradict each other? In this mind-bending segment from Quantum Convergance, we explore how Einstein’s general relativity and quantum mechanics—despite their opposing principles—both point toward one astonishing truth: the universe is not made of separate parts, but of undivided wholeness.
Using powerful metaphors like the whirlpool and grounded scientific insight from David Bohm and Einstein, this video unravels how the illusion of separateness may be the greatest misunderstanding in modern physics. Relativity describes the universe as a smooth, local continuum, while quantum theory insists on jumps, discontinuity, and entanglement.
But what if both are right… and incomplete?
🔹 Narrated by David Bohm.
🔹 From the full documentary: Quantum Convergance.
Learn more — https://www.infinitepotential.com/
*Apply to join Foresight Neurotech program:* https://foresight.org/neurotech-improving-cognition-program/ A group of neuroscience researchers, entrepreneurs,…
In the future, quantum computers could rapidly simulate new materials or help scientists develop faster machine‐learning models, opening the door to many new possibilities.
But these applications will only be possible if quantum computers can perform operations extremely quickly, so scientists can make measurements and perform corrections before compounding error rates reduce their accuracy and reliability.
The efficiency of this measurement process, known as readout, relies on the strength of the coupling between photons, which are particles of light that carry quantum information, and artificial atoms, units of matter that are often used to store information in a quantum computer.
Molecular engineering approach could boost hydrogen evolution reaction activity by up to 50 times in alkaline media
Posted in chemistry, engineering, particle physics | Leave a Comment on Molecular engineering approach could boost hydrogen evolution reaction activity by up to 50 times in alkaline media
Electrolyzers are devices that can split water into hydrogen and oxygen using electricity and via a process known as electrolysis. In the future, these devices could help to produce hydrogen gas from water, which is valuable for a wide range of applications and could also be used to power fuel cells and decarbonize energy systems.
At the core of the water electrolysis process are electrochemical reactions known as hydrogen evolution reactions (HERs). In basic (i.e., alkaline) conditions, these reactions tend to be slow, which in turn hinders the performance of electrolyzers.
In recent years, energy researchers have been trying to design new electrode-aqueous interfaces or identify new catalysts that could speed up HERs and thus enhance the ability of electrolyzers to produce hydrogen. One of the HER catalysts most employed to date is platinum, yet its performance is limited by a process known as hydrogen binding. This process entails the strong adherence of hydrogen atoms to its surface, which can block reaction sites and slow down HERs.