Happy World Quantum Day!⚛️ From quantum computing to quantum networking, Oak Ridge National Laboratory researchers are unlocking new ways to solve complex challenges in energy, materials, national security, and beyond. 🔗Decades of Quantum Innovation: https://bit.ly/4tMKcSB #WorldQuantumDay #QuantumComputing

𝐇𝐚𝐩𝐩𝐲 𝐖𝐨𝐫𝐥𝐝 𝐐𝐮𝐚𝐧𝐭𝐮𝐦 𝐃𝐚𝐲! ✨ On this day, AQLAS joins the global quantum community in celebrating #WorldQuantumDay 2026, an annual occasion dedicated to promoting public awareness and understanding of quantum science and technology. It is also no coincidence that World Quantum Day is celebrated today. April 14th 🗓️ references 4.14, an approximation of Planck's constant, which is one of the most fundamental numbers in quantum physics. From events and outreach initiatives to conversations happening across the globe, this occasion is all about making quantum science accessible to everyone. At AQLAS, quantum technology is at the heart of everything we do. Our high-precision laser module ⚡ is being developed specifically to meet the demands of atomic quantum computers, helping to bring the quantum computing revolution one step closer to reality. 👉 Learn more about World Quantum Day at worldquantumday.org #AQLAS #quantum #computing #innovation

Breakthroughs in Quantum Logic: Now Available The future of quantum computing isn’t just about quantity—it’s about stability and control. Quantum Computing Ideas LLC has just released new theoretical frameworks for professionals and tech firms ready to lead the next generation of computing. What’s New: Resonating Qubits: Utilizing "heartbeat" energy bursts and short-wave entanglement. Geometric Phase Regulation: New methods to stabilize circuits and manage time anomalies within qubits. Reverse Resonating Theory: Exploring "anti-atom" equivalents for advanced quantum circuits. From Quantum Internet models to Stable Fusion theories, our decade of research is now typed and ready for your team to implement. Take your research to the next level. 🔗 Explore the full catalog at: quantumcomputingideas.com #QuantumComputing #DeepTech #Physics #Innovation #QuantumInformation

Impossible just became reality: quantum teleportation is now achievable using normal internet cables within a 30km radius. This breakthrough allows quantum information, not matter itself, to be transmitted instantly across conventional fiber-optic networks, leveraging entangled particles for secure communication. Unlike classical data transfer, quantum teleportation uses the principles of entanglement and superposition, ensuring that information is perfectly preserved without copying or interference. Implementing teleportation on standard cables means quantum networks can expand faster and more efficiently, potentially enabling ultra-secure communications and distributed quantum computing on a large scale. This achievement demonstrates how quantum science is moving from lab experiments to real-world infrastructure, bringing futuristic technologies like teleportation closer to practical application than ever before. #quantum #physics #teleportation

Happy #WorldQuantumDay! 🌍 ⚛️ 🌎 ⚛️ 🌏 Q-NEXT is harnessing #quantum entanglement to demonstrate breakthroughs in computing, communication and sensing. Together with our U.S. Department of Energy Office of Science sibling quantum research centers — Co-design Center for Quantum Advantage (C2QA), Quantum Science Center, Quantum Systems Accelerator and SQMS Center — we're advancing science and growing the quantum ecosystem https://q-next.org/ #QuantumQuintet

🌍 Happy World Quantum Day! Quantum computing holds enormous promise, but making it scalable and reliable remains one of the biggest challenges in the field. That’s exactly where our portfolio company QuiX Quantum stands out. QuiX is pioneering photonic quantum computing, using light as the basis for quantum systems. Their approach focuses on one of the key bottlenecks in quantum computing: reducing errors at the hardware level. Recently, the team demonstrated “below-threshold” error mitigation on a photonic quantum computer, a major step toward scalable, fault-tolerant systems. Led by Dr.-Ing. Stefan Hengesbach and his team, QuiX continues to push the boundaries of what’s possible in quantum computing. At PhotonVentures, we believe photonics will play a defining role in making quantum computing practical and we’re proud to back the teams turning that vision into reality. #WorldQuantumDay #QuantumComputing #Photonics #DeepTech #Innovation #PhotonVentures

Happy World Quantum Day! ⚛️ Today, April 14th, we celebrate the incredible advancements in quantum science, and there is no better place to look than right here in Colorado. Did you know that Colorado is officially a quantum tech hub? What makes our state the center of what's next? •Elite Talent: Colorado boasts twice the national average of engineering talent. •Innovation Powerhouse: Our ecosystem is supported by 34 federally funded research labs and six top-ranked research universities. •Manufacturing Leaders: Local companies like Maybell Quantum are already manufacturing the key components needed to build quantum computers. •Diverse Workforce: This progress is fueled by a diverse and highly skilled workforce dedicated to pushing the boundaries of technology. The future of quantum isn't just coming—it’s happening now in Colorado. Learn more with Elevate Quantum at https://lnkd.in/g2at3gqg. #WorldQuantumDay #QuantumTech #ColoradoInnovation

🚀 Day 3 of My Quantum Computing Journey – Phase 2 (WISER Program) Today’s session by Dr. Stefan Seegerer took things to the next level, focusing on multi-qubit systems and the power of entanglement. 📌 Today I learned: • Introduction to two-qubit gates and how they enable interaction between qubits • Understanding the CNOT gate – a fundamental gate for creating entanglement • How entanglement is generated and manipulated using quantum circuits • Concept of GHZ state and its importance in multi-qubit entangled systems • Difference between single-qubit and multi-qubit operations • How entanglement leads to correlations that are not possible in classical systems 💡 What stood out to me is how entanglement scales from 2 qubits to multiple qubits, opening doors to powerful quantum algorithms and complex systems. This session really helped me understand the building blocks behind quantum algorithms and quantum communication. Excited to explore how these concepts are applied in real quantum circuits and algorithms in the coming days 🚀 #QuantumComputing #Entanglement #GHZState #QuantumGates #LearningJourney #WISER #QuantumTech #FutureTechnology

We said we were building production infrastructure. Now, that chapter is coming to life. 🚀🏭 Here, one of the largest quantum labs in Europe, is where we'll turn our cat-qubit prototypes into useful quantum computers. ⚛️ That means testing more chips, faster, so we can build bigger, better systems that are ready for the real world. And, we're building the teams who can run it: engineers who turn physics into process, and research into product. 🧠🔁 🎬 Let Antoine, Jeanne, Tarek, Lilia, Antonio, and Matthieu take you behind the scenes of quantum engineering at Alice & Bob, at the infrastructure scale. ⚙️ Full video here: 👉 https://lnkd.in/e4waGhVc 💡For more on why we built this lab, and where it fits in our journey: 👉https://lnkd.in/dXVSM7RM More to come. Watch this space! #QuantumComputing #QuantumLab #CatQubits

Beyond the Laboratory: The Era of 1000-Qubit Quantum Computing Has Arrived For years, scaling neutral atom quantum computers was limited by a simple but stubborn problem: the vacuum. In standard room-temperature setups, stray gas molecules eventually collide with atoms, knocking them out of their traps and breaking the quantum state. This made reaching the "thousand-atom scale" feel like a distant dream. A groundbreaking new paper, "Defect-free arrays at the thousand-atom scale in a 4-K cryogenic environment" (arXiv:2604.07205), just changed the game. Pasqal CNRS By moving the entire optical tweezer setup into a 4-Kelvin cryogenic environment, researchers achieved a near-perfect vacuum. This extreme cold extends the lifetime of the atoms significantly, allowing enough time to rearrange over 1,000 atoms into perfect, defect-free grids. Why does this matter for the industry? Because quantum error correction requires scale. We are moving away from small-scale experiments toward robust, large-scale Quantum Processing Units (QPUs) capable of solving real-world problems in chemistry, logistics, and cryptography. We are no longer just talking about quantum advantage; we are building the hardware to sustain it. Are we witnessing the definitive move from NISQ to scalable fault-tolerant quantum computing? Share your thoughts below. #QuantumComputing #DeepTech #Innovation #Physics #FutureOfTech #QuantumScaling