Pick the wrong orbital, and your excited-state simulation can miss the physics entirely, meaning a cancer drug candidate that looks promising on paper could fail in practice. A new workflow, AEGISS, systematically identifies the right orbitals, keeping quantum models both accurate and reliable. Every week, I track the quantum research that’s intended for real-world performance, resilience, and utility. These are early steps, but they point toward where quantum may prove its worth. ⚇ AEGISS for quantum chemistry: Researchers from Algorithmiq, Cleveland Clinic, and other collaborators present AEGISS, a Python-based workflow for selecting active orbital spaces. By combining orbital entropy analysis with atomic orbital projections it helps map only the most chemically relevant orbitals onto qubits, making high-accuracy excited-state simulations more systematic and scalable. ⚇ QROCODILE hunts dark matter: The University of Zurich leads the first sub-MeV dark matter search using superconducting nanowire single-photon detectors. With thresholds down to 0.11 eV, QROCODILE sets new global limits on light dark matter interactions, exploring regions of parameter space unreachable by prior experiments. ⚇ Quantum vision for enzymes: Purdue University and North Carolina State University researchers developed a multimodal quantum vision transformer that predicts enzyme function with 85.1% top-1 accuracy. By fusing quantum-derived electronic descriptors with sequence, graph, and image data, the model outperforms prior QML architectures in one of biology’s hardest classification problems. If you want these kinds of insights in your inbox every morning, subscribe to the Daily Qubit and never miss a qubit -- link in the comments. #quantumcomputing #quantumsensing #quantumchemistry
AEGISS: A Python-based workflow for quantum chemistry
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A University of Sydney team has used a quantum computer to simulate molecular chemical dynamics for the first time.Their approach simulated light interacting with molecules, offering insights beyond classical computers. The experiment used a single trapped ion, making it a million times more efficient than traditional quantum methods. Results could help accelerate discoveries in medicine, energy systems, and materials innovation. According to Dr. Tan, accurate simulation tools will speed the discovery of new materials and drugs. Read the full story: #ChemicalProcessing #ChemicalPlants #Consulting #Scale-Up #Commercialization https://lnkd.in/efewmkTm
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Quantum computing may have just taken a leap into the living world. Researchers have shown that enhanced yellow fluorescent protein (EYFP), a staple in biological imaging, can act as a quantum bit, or qubit, not just in purified samples but inside mammalian and bacterial cells. That’s a staggering shift. It means quantum behavior isn’t confined to sterile labs or exotic materials anymore. It’s happening inside the messy, dynamic environment of biology, with implications for sensing, imaging, and computation at the molecular level. What makes EYFP truly remarkable isn’t just its quantum properties, it’s that it can be genetically encoded. Unlike superconducting circuits, EYFP qubits can be inserted into cells using standard genetic engineering techniques, allowing scientists to build quantum systems from the inside out. While these protein-based qubits aren’t ready to replace today’s quantum processors, they offer a radically different path forward. This could be the beginning of hybrid platforms where biology and quantum logic co-evolve. Worth keeping an eye on. #QuantumBiology #BiotechInnovation #QuantumComputing #SyntheticBiology #MolecularEngineering #FutureOfScience #GeneticEngineering
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Unlocking Quantum Potential: A New State to Power Future Tech An innovative discovery in quantum physics is set to redefine technology's future! Researchers at the University of Michigan have identified a "semi-localized" quantum state that could revolutionize quantum computing and more. A Transformative Quantum State Led by Professor Kai Sun, with Kai Zhang and Chang Shu, this study unveils quantum states with power law decays robust, partially localized modes that don’t need precise tuning. Unlike exponential decays, these states excel in multi-dimensional systems, especially near material edges, enabling new ways to manipulate light and quantum entities. Boosting Quantum Computing Picture quantum bits operating in confined modes while transmitting data through power law modes. This dual capability could drive more efficient, reliable quantum systems, transforming data processing and complex problem solving. Why This Matters Published in Physical Review X, this research challenges conventional thinking and introduces innovative design principles. As quantum technology advances, discoveries like this could accelerate advancements in AI, secure communications, and materials science. What’s your take on quantum’s role in shaping tomorrow? Let’s connect and discuss! #QuantumComputing #Physics #Innovation #FutureTech #ScienceBreakthrough
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Researchers Discover Novel Spin Phases in Fractal Rydberg Atom Lattices Researchers demonstrate that arranging interacting atoms in a specific fractal pattern enables unprecedented control over a cascade of phase transitions, potentially advancing technologies for information processing #quantum #quantumcomputing #technology https://lnkd.in/eVnUeksu
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Study Reveals Long-Range k-Party Genuine Multiparty Entanglement in Measurement Induced Phase Transitions Researchers demonstrate that complex quantum systems, created by repeatedly performing measurements and operations, exhibit surprisingly long-range connections between multiple quantum particles, defying expectations and revealing a hierarchical structure of entanglement governed by predictable mathematical relationships #quantum #quantumcomputing #technology https://lnkd.in/eF924cxE
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Researchers at the Niels Bohr Institute, University of Copenhagen crafted an artificial platform that mimics elusive quantum states in superconductors, bypassing detection challenges that have persisted for more than six decades. https://lnkd.in/gMT3SAhB
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In a breakthrough published in Physical Review Letters, Caltech researchers (Bernardi, Luo, et al.) unveil an AI-driven approach that dramatically compresses the complexity of high-order phonon interaction tensors. Using tensor decomposition techniques adapted for symmetry, their method delivers the same accuracy in thermal transport and phonon dynamics predictions 1,000-10,000× faster than traditional supercomputer methods. This advance opens up high-throughput screening of materials and deeper quantum insight into how atomic vibrations control material behavior including heat flow, phase changes, and thermal expansion. Read more: https://lnkd.in/gdykGtFz
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Physicists at the University of Colorado Boulder have created a new kind of time crystal — one that humans can actually see. Using liquid crystals and light, researchers engineered dynamic patterns that move in repeating cycles, visible under a microscope and even to the naked eye. This breakthrough not only validates Frank Wilczek’s visionary concept but also opens doors to applications in anti-counterfeiting, data storage, and advanced materials science. Read the full review on Quantum Server Networks: 👉 https://lnkd.in/e-4meUUQ . #TimeCrystals #CondensedMatter #LiquidCrystals #QuantumPhysics #MaterialsScience #FutureTech #OpticalPhysics #Innovation #QuantumServerNetworks
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✨ Dispersive fluctuations are all around us — and they’re inherently quantum. They help geckos climb walls, influence how drugs bind to proteins, and stabilize everything from molecular crystals to cell membranes. In our new paper, just published in Physical Review Letters (https://lnkd.in/e2GvDssB ), we reinterpret many-body dispersive binding energies through the lens of quantum information sharing. By invoking the principle of monogamy of entanglement, we explain why many-body corrections can emerge as repulsive, attractive, or vanish altogether. 🔗 Read the Oxford Physics web story here: https://lnkd.in/e5C2V-ag
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Researchers Unlock 10x Data with Quantum Phase Researchers demonstrate that controlling a specific geometric phase, known as the Pancharatnam phase, dramatically improves the precision of measurements in quantum systems, boosting information retention tenfold compared to standard techniques and paving the way for more accurate sensing technologies #quantum #quantumcomputing #technology https://lnkd.in/e9R5UiR3
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