New quantum computing method for complex chemical bonds

💻⚛️ What if designing new materials was like building with Lego—but powered by quantum computing? KAIST researchers have used a quantum computer to design multivariate porous materials, overcoming limits of classical computation and unlocking new opportunities for carbon capture, hydrogen storage, and catalysis. . This breakthrough marks the first successful use of quantum computing in porous material design—ushering in a new era of discovery at the intersection of quantum technology and materials science. . Read the full story on Quantum Server Networks: 👉 https://lnkd.in/e8Fz3XKU . #QuantumComputing #PorousMaterials #MaterialsDiscovery #CarbonCapture #EnergyStorage #Catalysis #MachineLearning #QuantumServerNetworks #Nanotechnology #SustainableFuture

What will the MegaQuOp era of quantum computing enable? 🤔 ✨ Our new blog post from staff quantum scientist Nick Blunt explores "Tile Trotterization", a technique developed in collaboration with researchers, including Andreas Juul Bay-Smidt, from NNF Quantum Computing Programme (NQCP) at the University of Copenhagen (Københavns Universitet), which generalises the methodology of Plaquette Trotterization from Earl Campbell. This could significantly extend the applicability of early error-corrected quantum computers to a larger range of materials problems. Learn how Tile Trotterization brings us closer to simulating superconductors and other important states of matter, and how it informs our work at Riverlane to build the tools for the MegaQuOp era of quantum computing: 🔗 https://lnkd.in/eBUk38Kc #quantumcomputing | #quantumerrorcorrection 

Researchers achieve universal control of three Majorana zero modes for robust quantum braiding Researchers demonstrate a method for universally controlling Majorana zero modes, particles with potential applications in robust quantum computing, by manipulating interactions through a lattice defect and precisely modulating their evolution #quantum #quantumcomputing #technology https://lnkd.in/dBDqxrK4

Researchers generate multiqubit states with translationally invariant pairwise connections for scalable quantum computation Researchers successfully demonstrate a method for creating complex, symmetrical quantum states on existing digital computers with limited connections between quantum bits, paving the way for experiments with more complex quantum systems #quantum #quantumcomputing #technology https://lnkd.in/eaHeE-Ar

Researchers generate multiqubit states with translationally invariant pairwise connections for scalable quantum computation Researchers successfully demonstrate a method for creating complex, symmetrical quantum states on existing digital computers with limited connections between quantum bits, paving the way for experiments with more complex quantum systems #quantum #quantumcomputing #technology https://lnkd.in/eaHeE-Ar

Researchers generate multiqubit states with translationally invariant pairwise connections for scalable quantum computation Researchers successfully demonstrate a method for creating complex, symmetrical quantum states on existing digital computers with limited connections between quantum bits, paving the way for experiments with more complex quantum systems #quantum #quantumcomputing #technology https://lnkd.in/eaHeE-Ar

🔬 Quantum Leap: Japan Cracks the W State—A Game Changer for Teleportation & Computing A groundbreaking development from Kyoto and Hiroshima Universities has just solved a decades-old puzzle in quantum physics: the identification of the elusive W state of quantum entanglement. This achievement opens new frontiers in quantum teleportation, multi-photon entanglement, and measurement-based quantum computing. For years, the W state—an entangled multi-photon state—remained experimentally out of reach. Traditional quantum tomography methods struggled with scalability, requiring exponentially increasing measurements as photon numbers grew. Now, researchers have developed a novel method using a photonic quantum circuit that performs quantum Fourier transformation, enabling precise entangled measurements for the W state. This advancement not only deepens our understanding of quantum entanglement but also paves the way for practical applications in quantum communication and computing. Read the full article on https://lnkd.in/eqcWrjXy #QuantamPhysics #Entanglement #QuantumComputing #Innovation #ResearchBreakthrough #KyotoUniversity #ScienceNews

Breaking news: Scientists have just cracked the quantum code hidden within a single atom. This groundbreaking discovery could revolutionize the field of quantum computing. Researchers have realized that manipulating quantum states at the atomic level allows for unprecedented precision and control. This insight opens the door to developing quantum systems that are far more powerful and efficient than what we currently possess. Here's how it happened: Scientists detected unique quantum behaviors within atoms by using advanced spectroscopy techniques, allowing them to isolate and understand intricate quantum states. They also developed a method to control these states, enabling more stable and scalable quantum computing architectures. This achievement marks a significant leap forward in harnessing the power of quantum mechanics for practical technology. The potential applications of this discovery are vast, ranging from solving complex computational problems to advancing secure communications. What do you think is the most exciting application of quantum computing? Share your thoughts and let's explore the possibilities together.

A breakthrough in quantum information science: scientists at Kyoto University & Hiroshima University have succeeded in creating an entangled measurement for the W state in a three-photon system. Previously, W states were theoretically well understood but hadn’t been directly measured in this way. The team leveraged cyclic shift symmetry and quantum Fourier transform in photonic circuits to reliably identify different kinds of three-photon W states with high fidelity. This paves the way for more efficient quantum teleportation, improved quantum communication protocols, and more scalable measurement-based quantum computing. Full story: https://lnkd.in/eqBV43GD

💡 Quantum Computing Just Got a Step Closer A new breakthrough in quantum entanglement has linked the cores of atoms, not just their outer electrons. This development could be a major milestone in building more stable, scalable quantum computers. Why it matters: 🔹 Entanglement is the backbone of quantum communication and computation. 🔹 By entangling the atomic nucleus instead of the outer shell, researchers may achieve longer-lasting and more reliable quantum states. 🔹 This could reduce errors and push quantum computers beyond today’s limitations. Read more about this advance here: 👉 https://lnkd.in/eUNudFhs It’s amazing to see how quantum physics, once purely theoretical, is increasingly shaping the future of computing. #QuantumComputing #Innovation #Technology #Research