Titan | Disruptive Innovation Center🇨🇭’s Post

Remember the famous Schrödinger’s cat that’s both alive and dead until you look?   Schroedinger used the analogy to demonstrate the limitations of quantum mechanics: an object has the potential to occupy multiple different states at a given moment, while its actual state remains unknown. Very small objects, such as photons or electrons, exhibit this behavior.   This phenomenon is called Superposition.   A research team at the University of Science and Technology of China has achieved a groundbreaking milestone in quantum physics by sustaining atoms in a state of quantum superposition for 23 minutes—breaking records in quantum physics.   If confirmed, it could pave the way for advancements in detecting magnetic forces, exploring new phenomena in physics, and developing extremely stable quantum computer memory. #quantum #quantumphysics #quantumcomputing #schrodingerscat

New research breakthrough visualizes quantum effects in electron waves, providing valuable insights into the interactions between electrons and light. A pivotal moment for quantum physics. #ResearchInnovation #QuantumMechanics https://lnkd.in/e7q62PyZ

New Path in Quantum Topology Unveiled! Researchers have discovered a breakthrough approach to quantum topology, paving the way for advancements in quantum materials and computation. This innovative method reshapes our understanding of quantum states, opening doors to revolutionary applications in technology and physics. 🔬 A quantum leap in science and innovation! https://lnkd.in/dggy4ryx #QuantumComputing #QuantumTopology #Innovation #QuantumScience

Quantum superposition is a fundamental principle of quantum mechanics that describes a situation in which a quantum system can exist in multiple states at the same time. In classical physics, objects are usually in one state or another, but in the quantum world, particles like electrons, atoms, or photons can exist in a combination of multiple states simultaneously. The concept of superposition is often illustrated using the famous thought experiment known as Schrödinger's cat. In this scenario, a cat inside a sealed box is both alive and dead at the same time until someone opens the box and observes the cat, causing the system to collapse into one of the two possible states. The phenomenon of superposition is a key aspect of quantum computers, where qubits can exist in a superposition of states, enabling parallel computation for certain algorithms. Superposition also plays a role in other quantum phenomena, such as interference and entanglement. #quantumphysics #quantumcomputing #superpositions

This week, Assistant Professor Jean-Baptiste Béguin will give a Life in Quantum Seminar. His talk is titled "Controlling the dispersal of information with atom-nanophotonic crystals." Here is the abstract: Even in non-relativistic quantum systems, the speed at which information propagates is bounded and dependent on the localisation length of interactions between qubits. This aspect holds profound implications for various applications in quantum many-body physics, such as quantum simulation and the development of quantum memories involving atoms and photons. In this presentation, I will discuss our nascent progress in establishing a novel experimental platform designed to investigate strong atom-atom interactions mediated by light propagating in nano-photonic crystal waveguides. Leveraging a broad tunability of interactions, our research enables the exploration of dynamic control over Lieb-Robinson velocities, along with the effective suppression of spontaneous emission or undesired light scattering – two major challenges in quantum optics. We meet on Thursday March 21st at 3pm. It's in Auditorium M, and all are welcome. #seminar #lifeinquantum #quantumoptics

Researchers have made significant strides in understanding quantum vortices within supersolid states, offering insights that may lead to new applications in material science and quantum technology. By exploring the unique behaviors of superfluidity and supersolidity, they’re opening doors to future innovations in fundamental physics. Discover the science behind these findings: https://lnkd.in/eA57tU7i #QuantumPhysics #Superfluidity #Innovation

How does 3He disrupt the superfluid state of 4He? This study sheds light on quantum behaviour and offers insights for improving quantum computing systems. -By Oleg Kirichek, Chris Lawson and Rosie de Laune (Davies) ISIS Neutron and Muon Source Research: https://lnkd.in/ejZ3UC-u Communications Physics Nature Portfolio https://lnkd.in/ee66Fc7a #3heand4he #communicationsphysics #computationalfluiddynamics #densityprofile #dilutionrefrigerators #harwellscienceandinnovationcampus #lancasteruniversity #neutronreflectometry #neutronscattering #quantumcomputer #quantumfluidsandsolids #quantumphasetransitions #superfluidhelium #uphillliquidflow #zeroviscosityliquids

Exploring Quantum Frontiers: Helium Bose-Einstein Condensates and Multiplicity Theory The integration of Helium Bose-Einstein Condensates (BECs) with Multiplicity Theory is redefining how we approach macroscopic quantum phenomena and computational frameworks. This synergy bridges foundational quantum mechanics with cutting-edge computational techniques, offering transformative applications in fields such as quantum computing and astrophysical simulations. Key Highlights: Bose-Einstein Condensates: First theorized by Satyendra Nath Bose and Albert Einstein, and experimentally realized in 1995, BECs represent a state of matter where bosons occupy the same quantum ground state, exhibiting coherence and superfluidity. Multiplicity Theory: A paradigm using prime numbers to encode quantum states and model recursive systems. It aligns seamlessly with the stability and coherence properties of Helium BECs. Innovative Insights: Prime-based interaction matrices enable precise modeling of superfluid dynamics and recursive feedback loops. Quantum gates operating on prime-encoded BEC qubits enhance coherence and enable robust error correction for quantum computing. Why It Matters: This interdisciplinary approach offers a framework for: Improving quantum simulations with higher stability and precision. Advancing cryptographic resilience through novel prime-encoded structures. Exploring astrophysical systems, including dynamic modeling of macroscopic quantum phenomena. By marrying quantum physics with advanced computational paradigms, this research not only pushes the boundaries of what is computationally possible but also paves the way for innovations across multiple domains. 🌌 Ready to discuss how these advancements can impact the future of quantum technologies? Let’s connect! #QuantumComputing #MultiplicityTheory #Innovation #BEC #Physics #Technology

Time-Dependent Perturbations in Quantum Physics 🌟 Exploring Time-Dependent Perturbations In the fascinating world of quantum physics, systems often evolve under the influence of external forces that change with time. These time-dependent perturbations are crucial, especially in driving transitions between quantum states and in fields like spectroscopy and quantum optics. 📚 What does this mean? Imagine a quantum system in an initial state described by a wave function. When an external perturbation (like an oscillating electric or magnetic field) is applied, this wave function evolves based on the interaction between the system and the perturbation. This can lead to intriguing phenomena such as: Resonant transitions, where the energy states of the system shift. Nonlinear effects, revealing unexpected material properties. 🔍 Real-World Applications Quantum computing: Controlling qubits with precise time-dependent pulses. Laser physics: Studying electronic transitions under light pulses. Quantum chemistry: Understanding photochemical reactions at the atomic level. 💡 Why does this matter? Mastering these perturbations unlocks the potential for groundbreaking technologies, from clean energy solutions to novel materials. Have you explored the impact of time-dependent perturbations in your field? Let’s share insights! #QuantumPhysics #Science #Research #Innovation #Education

Quantum tunnels allow particles to break the light-speed barrier: In the fascinating realm of quantum physics, particles seem to defy the laws of classical mechanics, exhibiting mind-bending phenomena that challenge our understanding of the universe. One such phenomenon is quantum tunneling. #QuantumTunneling #LightSpeedBarrier #QuantumPhysics #QuantumMechanics #Quantum #QuantumTunnel #QuantumWorld #EarthDotCom #EarthSnap #Earth