Physicists have recreated the Nobel Prize–winning quantum Hall effect using light, revealing that photons can follow the same strange quantum rules once thought exclusive to electrons.
Category: quantum physics – Page 7
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Experts featured in this video include Demis Hassabis, Tristan Harris, Aza Raskin, Elon Musk, David Deutsch, Michio Kaku, Brian Greene and Nick Bostrom.
Chapter:
0:00 A dangerous truth?
1:29 AI advancement.
3:46 AI pretending not to know.
7:29 Interactive tutoring.
9:37 That’s it from our sponsor!
10:21 The merging of QC and AI
12:03 IBM 100,000 qubits.
14:34 AI wipes out humanity?
16:05 Google Willow.
17:06 The misuse of AI and QC
18:22 Singularity and Turing test.
22:51 Reverse Turing test.
29:39 Quantum-AI consequences.
32:25 The double slit experiment.
36:15 Quantum multiverse.
41:05 Computing history.
46:49 AGI timeline.
51:45 Philosophical consequence.
#AI #quantumcomputing #singularity
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What Happens When Quantum-AI Knows TOO MUCH?
Let’s unravel what happens when AI merges with quantum, and starts knowing EVERYTHING ♾️ Go to https://piavpn.com/beeyondideas to get 83% off from our sponsor Private Internet Access with 4 months free!
Want to support our production? Feel free to join our membership at https://youtu.be/_Z4W6sWDo_4?si=Q8eRZoNFUv7sAd9y Special thanks to our beloved YouTube members this month: Powlin Manuel, Saïd Kadi, Chenxi, Lord, Sudhir Paranjape, Nate Lachae, Alison Rewell, Thomas Lapins, Ahmad Salahudin, Antonio Ferriol Colombram, Anton Nicolas Burger 🚀🚀🚀 Experts featured in this video include Demis Hassabis, Tristan Harris, Aza Raskin, Elon Musk, David Deutsch, Michio Kaku, Brian Greene and Nick Bostrom. Chapter: 0:00 A dangerous truth? 1:29 AI advancement 3:46 AI pretending not to know 7:29 Interactive tutoring 9:37 That’s it from our sponsor! 10:21 The merging of QC and AI 12:03 IBM 100,000 qubits 14:34 AI wipes out humanity? 16:05 Google Willow 17:06 The misuse of AI and QC 18:22 Singularity and Turing test 22:51 Reverse Turing test 29:39 Quantum-AI consequences 32:25 The double slit experiment 36:15 Quantum multiverse 41:05 Computing history 46:49 AGI timeline 51:45 Philosophical consequence #AI #quantumcomputing #singularity.
Special thanks to our beloved YouTube members this month: Powlin Manuel, Saïd Kadi, Chenxi, Lord, Sudhir Paranjape, Nate Lachae, Alison Rewell, Thomas Lapins, Ahmad Salahudin, Antonio Ferriol Colombram, Anton Nicolas Burger 🚀🚀🚀
Experts featured in this video include Demis Hassabis, Tristan Harris, Aza Raskin, Elon Musk, David Deutsch, Michio Kaku, Brian Greene and Nick Bostrom.
Chapter:
0:00 A dangerous truth?
1:29 AI advancement.
3:46 AI pretending not to know.
7:29 Interactive tutoring.
9:37 That’s it from our sponsor!
10:21 The merging of QC and AI
12:03 IBM 100,000 qubits.
14:34 AI wipes out humanity?
16:05 Google Willow.
17:06 The misuse of AI and QC
18:22 Singularity and Turing test.
22:51 Reverse Turing test.
29:39 Quantum-AI consequences.
32:25 The double slit experiment.
36:15 Quantum multiverse.
41:05 Computing history.
46:49 AGI timeline.
51:45 Philosophical consequence.
#AI #quantumcomputing #singularity
Beyond silicon: An indium selenide roadmap for ultra-low-power AI and quantum computing
A research team led by Prof. Seunguk Song from the Department of Energy Science at Sungkyunkwan University (SKKU), in collaboration with the Institute for Basic Science (IBS), the University of Pennsylvania, and the U.S. Air Force Research Laboratory, has developed a comprehensive technical roadmap for two-dimensional (2D) indium selenides (InSe)—a key material for next-generation low-power and quantum computing.
The study, titled “Indium selenides for next-generation electronics and optoelectronics,” was published in Nature Reviews Electrical Engineering. This research provides a deep dive into the physical properties and device applications of 2D quantum semiconductors, which are viewed as a definitive alternative to silicon as it reaches its physical scaling limits.
As current silicon-based semiconductors shrink to the sub-nanometer scale, they face critical hurdles such as surging power consumption, overheating, and leakage current. To address these challenges, Professor Song’s team focused on InSe, an atomically thin material.
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What if void creates matter? this is no longer a philosophical question but an experimental reality. A landmark study published in Nature by the STAR collaboration at the Relativistic Heavy Ion Collider of Brookhaven National Laboratory has, for the first time in history, directly observed virtual particles emerging from the quantum vacuum and becoming real matter. By colliding protons at 99% of the speed of light, scientists excited the quantum vacuum and tracked the precise moment transient quark-antiquark pairs materialized into measurable physical entities.
The experiment revealed something even more profound: particle pairs born from the void carry a measurable spin alignment, a direct signature of quantum entanglement inherited from the vacuum’s chiral condensate. This correlation had no other conceivable explanation than the particles having truly emerged from nothing. The implications extend far beyond particle physics: nearly 99% of the mass of everything that exists, including our own bodies, derives not from the Higgs mechanism, but from the incessant interaction between real quarks and the swarm of virtual particles that populate the quantum vacuum.
what if void creates matter reframes our understanding of reality at its deepest level. The boundary between being and non-being dissolves, revealing that “nothing” is an extraordinarily dense and generative condition. Quantum mechanics remains our most precise but still incomplete map of the universe, yet discoveries like this bring us closer to grasping a cosmos that, starting from the vacuum, generates the infinite.
#quantumvacuum #vacum #science #quantumphysics #entanglement #quantumentanglement #quantumgravity #gravity #generalrelativity #quantummechanics #quantumconsciousness #quantum #quantumweirdness #materialism #awareness #consciuosness #hardproblem #einstein #time #timeisanillusion #retrocausality #doubleslitexperiment #penrose #rogerpenrose #multiverse #manyworlds #paralleluniverse.
TIMESTAMPS
00:00 Introduction: What If Void Creates Matter.
01:16 Heisenberg’s Uncertainty Principle and Quantum Vacuum Fluctuations.
02:12 Virtual Particles and the Casimir Effect.
02:52 The STAR Collaboration Study Published in Nature.
03:27 The Brookhaven Experiment: Exciting the Quantum Vacuum.
04:16 Quantum Entanglement Born Directly from the Void.
05:03 Lambda Hyperons and the Proof of Materialization.
06:10 What It Means That Matter Emerges from Nothing.
06:22 What If Void Creates Matter: The True Origin of Mass.
07:33 Philosophical Implications: Reality, Time, and the Nature of Existence.
⚠️ This video is entirely written, edited, and produced by me in an original way. For practical reasons, I used a synthetic voice, but nothing is automated: every concept comes from my dedication, my research, and a profound passion for science.
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What existed before the Big Bang? Was it nothing… or something far more disturbing?
In this video, we explore seven of the most profound and unsettling theories in modern cosmology. From Conformal Cyclic Cosmology, where the death of a previous universe becomes our beginning, to the idea that our entire cosmos emerged from a quantum fluctuation out of “nothing.” We dive into Loop Quantum Cosmology and the Big Bounce, brane collisions in higher dimensions, eternal inflation creating infinite bubble universes, a CPT-symmetric mirror anti-universe flowing backward in time, and finally the terrifying scale of the String Landscape and the multiverse.
These theories challenge everything we think we know about reality, time, and existence itself. If even one of them is correct, the Big Bang wasn’t the beginning — it was just one event in something far larger, stranger, and possibly eternal.
The universe may not have started. It may have restarted.
Subscribe for more deep space explorations.
#BigBang #Cosmology #Multiverse
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‘Superconducting dome’ hints at high-temperature superconductivity in thin nickelate films
Superconductivity is a quantum state of matter characterized by an electrical resistance of zero and the expulsion of magnetic fields at low temperatures below a critical point. Superconductors, materials in which this state occurs, have proved to be highly advantageous for the development of various technologies, including medical imaging devices, particle accelerators and quantum computers.
While superconductivity typically only occurs at extremely low temperatures, recent studies showed that in some materials it can arise at higher temperatures. These unconventional superconducting materials are referred to as high-temperature (high-Tc) superconductors.
Researchers at the National Laboratory of Solid-State Microstructures and Nanjing University recently gathered hints of high-Tc superconductivity in a thin film nickelate, a material that contains nickel and oxygen arranged in a thin layered crystal structure. Their paper, published in Physical Review Letters, maps the evolution of physical states in these materials under different conditions, unveiling a so-called “superconducting dome” in this phase diagram, which is associated with high-Tc superconductivity.
This new blood test could detect cancer before it shows up on scans
A new CRISPR-powered light sensor can detect the faintest molecular signs of cancer in a drop of blood. A new light-based sensor can spot incredibly tiny amounts of cancer biomarkers in blood, raising the possibility of earlier and simpler cancer detection. The technology merges DNAnanotechnology, CRISPR, and quantumdots to generate a clear signal from just a few molecules. In lung cancer tests, it worked even in real patient serum samples. Researchers hope it could eventually power portable blood tests for cancer and other diseases.
Scientists have designed a powerful light based sensor capable of detecting extremely small amounts of cancer biomarkers in blood. The innovation could eventually allow doctors to identify early warning signs of cancer and other diseases through a routine blood draw.
Biomarkers such as proteins, fragments of DNA, and other molecules can signal whether cancer is present, how it is progressing, or a person’s risk of developing it. The difficulty is that in the earliest stages of disease, these markers exist in extremely low concentrations, making them hard to measure with conventional tools.