MIT Researchers Capture Heat Wave in Superfluid

Whether Quantum Physics will stop Remote Job & Remote Support ? Whether Service provider companies will generate Clone of their Support Staff ? May be in future . In a history-making experiment, scientists have created matter from light, confirming a prediction Albert Einstein made nearly 90 years ago. Using powerful particle accelerators, researchers collided photons at extreme energies, producing electron-positron pairs — matter born from pure light. This process, called the Breit–Wheeler effect, is a direct demonstration of Einstein’s equation E=mc², showing that energy and matter are interchangeable. While the concept was long known, this is the first time it has been achieved in a controlled lab environment. It’s a stunning reminder of how fundamental physics still holds unexplored wonders, and how century-old theories can still rewrite science today. #LightToMatter #EinsteinProvenRight #QuantumPhysics #BreitWheelerEffect #PhysicsHistory #mechanicalengineersrocks

𝐅𝐫𝐚𝐜𝐭𝐢𝐨𝐧𝐚𝐥 𝐄𝐱𝐜𝐢𝐭𝐨𝐧𝐬: 𝐓𝐡𝐞 𝐐𝐮𝐚𝐧𝐭𝐮𝐦 𝐏𝐚𝐫𝐭𝐢𝐜𝐥𝐞𝐬 𝐓𝐡𝐚𝐭 𝐁𝐫𝐞𝐚𝐤 𝐭𝐡𝐞 𝐑𝐮𝐥𝐞𝐬🧬✨   In 2025, physicists at Brown University uncovered something extraordinary: A new class of quantum particles called fractional excitons—entities that carry no overall charge, yet behave in ways that defy classical logic. These particles emerge from the fractional quantum Hall effect, where electrons move in quantized steps under extreme magnetic fields. But here’s the twist: Fractional excitons are formed by pairing quasiparticles with fractional charges. They exist in two-dimensional graphene layers, separated by nanocrystals. They follow non-standard quantum statistics, hinting at entirely new phases of matter. This isn’t just a lab curiosity. It’s a new frontier in quantum science: Could lead to topologically protected quantum states—ideal for fault-tolerant quantum computing. May unlock new quantum phases that go beyond what we thought possible. Offers a fresh lens on how atoms interact in extreme conditions. 💡 The atom was once the smallest unit of matter. Now, we’re discovering subatomic behaviors that rewrite the rules of existence. This is the kind of science that doesn’t just push boundaries—it redraws them. #QuantumFrontiers #FractionalExcitons #AtomicRevolution #QuantumParticles #QuantumHallEffect #GraphenePhysics #QuantumComputing #ScientificBreakthrough #LinkedInScience #PhysicsInnovation #BeyondTheAtom

🇮🇹✨ Italian Scientists Turn Light Solid! A Quantum Leap for Physics! 🌟The magic of science is real: Italian researchers have achieved the unimaginable—turning pure light into a solid, touchable form! 🔬💡 For the very first time, light—a dazzling energy that once danced untouchably before our eyes—can now be stopped, shaped, and even felt like a physical object. 🧪 How did they do it? By using ultra-cold quantum techniques, they created a “supersolid” state of light where photons behave like a crystal—holding their shape, shining, and ready to be touched! 🧊🌠🚀 Why is this a game-changer? ▫️“Solid” light could power futuristic computers, communication, and sensors.It opens doors to new quantum materials, revolutionizing technology and medicine! 🖥️🧬📣 ▫️Imagine a world where light is not just something seen—but something that could be held, crafted, or engineered into any shape, sparking endless innovation! 🤲✨ #SolidLight #QuantumPhysics #ItalianScience #LightInnovation #TouchTheLight #ScientificMiracle #ViralDiscovery #PhotonPower #FutureTech #GlowUp #dailyfacts #factsdaily #viralfacts #amazingfacts #rochakfacts #rochaktathya #everyoneactive #highlightsシ゚ #9ledgequest ✅ Fact Check: Italian scientists in 2025 created a “supersolid state of light” using advanced photonic and quantum techniques. The light flows like a liquid but forms solid-like structures, confirmed by published scientific research and leading news sources.

A major milestone in quantum physics: scientists have successfully teleported a quantum state of light over the internet for the first time. Researchers in the U.S. managed to transmit quantum information through over 30 km (about 18 miles) of fiber-optic cable — even while regular internet traffic flowed through the same line. This process, known as quantum teleportation, doesn’t move the particle itself. Instead, it transfers the state of a quantum object, like a photon, to a distant location where it's recreated, while the original is destroyed — like “copy-paste” with no leftovers. To pull this off, scientists had to develop techniques to reduce interference from everyday internet data, ensuring the fragile quantum state wasn’t lost. They positioned photons strategically in the fiber to avoid scattering and interference from other signals. Research: Jordan M. Thomas et al., “Quantum teleportation coexisting with classical communications in optical fiber,” Optica (2024) #QuantumTeleportation #QuantumInternet #PhysicsBreakthrough #PhotonTeleportation #TechRevolution #Optica2024 #FiberOptics #NextGenInternet #ScienceNews #QuantumLeap #StarTrekIRL #FutureIsNow

⚛️ It's #Physics Time: Sommerfeld Expansion - Unlocking Fermions at Low Temperatures ⚛️ 📜 A Glimpse Back in Time In 1928, Arnold Sommerfeld extended Fermi’s ideas about quantum statistics to better describe the behavior of electrons in metals. His key tool, now known as the Sommerfeld expansion, provided physicists with a way to handle complex integrals involving the Fermi-Dirac distribution at very low temperatures. This breakthrough allowed for precise predictions of heat capacities, conductivities and many other electronic properties in condensed matter physics. 🧩 What It’s All About At the heart of the problem lies the Fermi-Dirac distribution, which governs how fermions (like electrons) occupy energy states. At absolute zero, all states up to the Fermi energy are filled and all above are empty (so it's a Heavyside function). But at low (but finite) temperatures, this step function “smears out.” Directly calculating physical quantities becomes very challenging, because integrals over the distribution are difficult to solve. The Sommerfeld expansion provides an elegant approximation method: it expands the integrals in powers of temperature, capturing the leading corrections beyond the zero-temperature limit. 📸 In the attached photo, you can see the derivation worked out step by step - from the Fermi-Dirac distribution, through Taylor expansions and special functions, to the final compact form of the expansion. ⚙️ Where It Shows Up The Sommerfeld expansion isn’t just a mathematical trick, it’s a powerful tool with wide-ranging applications: 1️⃣ Electron heat capacity: Explains why the electronic contribution to the heat capacity of metals is linear in temperature. 2️⃣ Electrical conductivity: Connects transport properties with the density of states near the Fermi level. 3️⃣ Magnetic susceptibility: Describes how conduction electrons respond to magnetic fields. 4️⃣ Quantum gases: Provides approximations for trapped fermionic atoms in ultracold experiments. 🚀 Looking Ahead The Sommerfeld expansion remains foundational, but new frontiers - from strongly correlated electrons to exotic fermionic matter in astrophysics - push beyond its reach. Understanding these limits and developing generalizations continues to be an active area of research. ✅ In a Nutshell The Sommerfeld expansion is one of those “simple but powerful” methods: a cornerstone of theoretical physics that helps bridge abstract quantum statistics and real-world material properties. #Physics #CondensedMatter #QuantumMechanics #FermiDirac #SommerfeldExpansion #LowTemperaturePhysics

Einstein explored the theoretical underpinnings of this concept nearly a century ago. Today, its potential validation could mark a turning point, not just in quantum computing, but in how we power and scale the next generation of AI infrastructure. If proven viable, this breakthrough could radically redefine energy consumption across high-density compute environments, offering a scalable solution to the mounting energy demands of AI hubs and hyperscale data centers. The convergence of quantum theory and applied energy systems may soon unlock efficiencies that redefine what’s possible in digital infrastructure. Could you or someone share the source or framework you’re referencing regarding superposition, moving beyond theoretical modeling? Has it been validated or applied in a practical context? I’d be keen to collaborate and assess its potential impact on quantum systems and energy optimization.

Scientists Achieve the Impossible: Splitting a Single Photon This is one for the physics history books: scientists just split a single photon. In a groundbreaking experiment at Tampere University, with collaborators in Germany and India, physicists have demonstrated that even a lone photon obeys one of nature’s most fundamental laws—the conservation of angular momentum. When a single photon splits into two, their orbital angular momentum (OAM) values perfectly cancel each other out, confirming that this cornerstone rule holds true at the tiniest scales of quantum reality. Why it’s mind-blowing: only one in a billion photons went through the precise nonlinear optical process needed for this experiment. Detecting it was like finding a single needle in an intergalactic haystack. The implications go far beyond a textbook confirmation. Early signs of quantum entanglement appeared in the split photon pairs, hinting at powerful applications in quantum computing, secure communication, and advanced sensing. With improved techniques, this method could generate increasingly complex multi-dimensional entangled states, pushing the frontier of quantum technologies further than ever before. The universe is proving, once again, that even its tiniest particles play by the rules—but in ways that can revolutionize the way we compute, communicate, and explore reality itself. Full article: https://lnkd.in/eWBf_JZc #QuantumPhysics #PhotonSplit #QuantumEntanglement #QuantumTech #FrontiersOfScience #fblifestyle

🔬 Researchers Unlock New Control Method for Hybrid Quantum Systems Researchers at Te Whai Ao - Dodd-Walls Centre for Photonic and Quantum Technologies and the University of Otago, in collaboration with the Vienna University of Technology, have published a study in Nature Physics introducing a new way to control hybrid magnon-photon systems. Key highlights: → Uses energy loss in cavity magnonic systems as a tool for coherent control → Enables manipulation of magnon-polaritons, hybrid particles combining magnons and photons → Opens potential applications in quantum computing, sensing, and quantum networks → Next step: extending the technique into the quantum regime to prepare quantum states and explore hybridized systems For more details, see the full article via the link in our comments. #QuantumComputing #QuantumSensing #QuantumNetworks #Photonics

Scientists of Kyoto University and Hiroshima University have succeeded in the initial experimental measuring entangled state of the quantum W state, a basic multi-photon entangled state. The concept of quantum entanglement in which the physics of every photon cannot be explained individually is a challenge to classical physics and the basis of technologies of the next generation in quantum technologies. Creating multi-photon entangled states is not the only problem, it is important to locate the state. Traditional quantum tomography is proportional to the exponent of the number of measurements as the number of photons rises, and poses a big data collecting issue. Entangled measurement provides a one-shot model, which had been done before on GHZ states, but not on W states: They were led by Shigeki Takeuchi, who concentrated on the cyclic shift symmetry of the W state and suggested a quantum circuit using photonic quantum circuit based on quantum Fourier transformation of W states of any number of photons. They constructed a three-photon high-stability optical quantum device, which did not require active control to last long. With the help of the insertion of photons with selected polarizations, they identified the various types of three-photon W states, and they measured the fidelity of measurement, which is the likelihood of the correct result to occur in case of the input of a pure W-state. The breakthrough makes quantum teleportation, transfer of multi-photon entangled states, and measurement-based quantum computing possible. The authors intend to extend their approach to more multi-photon systems and build on-chip photonic quantum circuits of entangled measurements. #QuEdX #QuantumLeap #QuantumTechnology #NQM #QuantumValey #Physics #ResearchBreakthrough #Innovation #ScienceAndTech

Key Message of the Post: For the first time, researchers have shown that fluorescent proteins – the same molecules used in biology to make cells glow under a microscope – can act as quantum bits (qubits) inside living mammalian cells. This means qubits are no longer limited to artificial, solid-state systems, but can be genetically encoded directly into biological systems. Why this is so interesting and groundbreaking: • 🔬 Bridging physics and biology: It merges two worlds that were previously separate – quantum information science and life sciences. • 🧬 Genetically programmable qubits: Since fluorescent proteins are genetically encodable, they can be targeted to specific proteins or cell types, enabling living systems to host quantum functions. • ⚛️ First coherent quantum control in cells: Demonstrating spin qubit coherence inside mammalian cells is unprecedented, proving quantum effects can be harnessed in the complex environment of biology. • 🌍 Potential applications: Opens a pathway to nanoscale sensors for magnetic or electric fields, spin-based imaging, and entirely new biomedical diagnostic and research tools. 👉 In short: What was once a tool for seeing cells could now evolve into a tool for measuring and understanding life at the quantum level.