DARPA's HARQ program funds 19 research teams to develop quantum systems integrating multiple qubit types, moving beyond single-technology approaches. Two workstreams—MOSAIC software compilers and QSB hardware interconnects—aim to achieve practical quantum applications in mater...
University of Sydney researchers reduced Gaussian displacement noise from σ to σ² in hybrid quantum systems using ancilla-augmented GKP-stabilizer codes, enabling universal gate operations including previously inaccessible non-Gaussian gates—improving state fidelity by >300×.
A magnetic material once thought to be a quantum spin liquid turns out to be a distinct state of matter driven by competing ferromagnetic-antiferromagnetic forces—revealing new complexity in quantum magnetic systems.
#QuantumMaterials #MagneticStates #News
Using 112 qubits on IBM's Torino quantum computer, researchers simulated hadron collision aftermath—a computational feat previously impossible with classical computers, marking progress toward quantum advantage in high-energy physics.
#QuantumSimulation #HighEnergyPhysics #News
IBM and Keyfactor unveil proactive cryptographic resilience strategy using 47-day certificate lifecycles and automation playbooks. This shift toward rapid certificate rotation and zero-trust AI security prepares enterprises for quantum-era threats while strengthening classical...
Physicist Jung Ho Kim leverages RIXS at Argonne's Advanced Photon Source to unlock material behavior at atomic scale, advancing superconductivity and quantum computing research with enhanced precision.
#RIXS #QuantumMaterials #News
BEIT's CovAngelo uses layered QM/QM/MM methodology to accurately model activation barriers in covalent drug discovery, combining quantum chemistry with molecular mechanics for more reliable inhibitor prediction and reduced experimental failures.
#QuantumChemistry #DrugDiscovery #News
Infleqtion's Multistaq compiler integrates multiple qubit types into unified hybrid systems, enabling quantum apps to deploy across diverse hardware platforms. The 24-month DARPA-funded project aims to improve efficiency and accelerate mission-critical quantum deployment.
Researchers achieved 100x improvement in on-chip UV light generation by converting red photons to UV photons using thin-film lithium niobate waveguides. Breakthrough enables practical quantum computing and optical atomic clock applications.
#PhotonicQuantum #QuantumHardware #News
LMU researchers overcame perovskite quantum dot instability using engineered Gemini ligands, achieving sub-unit-cell precision growth control. The breakthrough enables processing in polar solvents while preserving optical properties for quantum light sources and advanced optoe...
Quemix to demonstrate six industrial quantum use cases at Q2B Tokyo (June 4-5, 2026), showcasing real-world implementations on actual quantum hardware in automotive and materials industries, advancing practical quantum advantage adoption.
#QuantumTech #Q2BTokyo #News
Pasqal demonstrated logical qubits in 2025, advancing error-corrected quantum computing toward practical applications. Financial institutions like Crédit Agricole CIB are already exploring quantum solutions for portfolio optimization and risk monitoring.
Classical least action principle accurately replicates quantum behavior including double-slit experiments and tunneling, establishing a unified mathematical framework spanning classical, quantum, and relativistic mechanics.
#QuantumMechanics #QuantumPhysics #News
Researchers at Beijing University demonstrate that quantum neural networks leak information about training data through membership inference attacks, mirroring classical ML vulnerabilities. Study explores quantum machine unlearning solutions for privacy preservation.
#QuantumML #Privacy #News
Patent protection and robust IP portfolios are critical to converting quantum breakthroughs into commercial value. UK and European companies risk falling behind US and China in quantum IP protection despite pioneering research achievements.
#QuantumIP #IPStrategy #News
Researchers demonstrate gate-controlled switching of the nonlinear Hall effect in bilayer materials, enabling transistor-like quantum devices for sensors without magnetic fields. 18 bilayer symmetry groups identified as platforms.
#NonlinearHall #QuantumMaterials #News
Prof. Andrew Dzurak recognized for pioneering silicon quantum processors. Diraq leverages existing semiconductor manufacturing to build utility-scale, energy-efficient quantum systems deployable in data centers.
#QuantumComputing #SiliconQubits #News
Investigates two-parameter families of linear maps on matrix algebras via diagonal perturbations of classical Tomiyama maps, deriving explicit conditions for positivity and k-positivity using Choi matrix and block-positivity techniques.
#QuantumInformation #OperatorTheory #Research
Combined excitonic simulations and UV spectroscopy reveal that microtubule fluorescence can be chemically tuned through targeted tryptophan perturbations, with polymerization and added tryptophan producing measurable quantum yield changes.
#QuantumPhotonics #BiomolecularEngineering #Research
Complete analytical solutions reveal bright-dark decomposition of radical-pair magnetosensing. Key insight: low-field effect arises from phase-locked coherence at exact zero field. Identifies optimal quantum states balancing dark-state phase memory with bright-state readout fo...
Novel quantum ML architecture matches classical deep learning on particle tagging while using 3 orders of magnitude fewer parameters. Demonstrates superior low-data performance and reduced systematic uncertainties, validated on real 3-qubit NMR hardware.
#QuantumML #JetSubstructure #Research
Hybrid quantum-classical neural networks achieved 96.97% accuracy for LUAD/LUSC classification using integrated DNA methylation and RNA-seq data from 824 patients, demonstrating quantum advantage in multi-omics biomarker discovery.
#QuantumML #CancerDiagnostics #Biomarkers
Quantifies strict conditions for detecting classically forbidden quantum signatures (K₃≈1.32) in mesoscopic spin systems using spinor BECs. Achieves 8.8× margin above measurement timescales at experimentally accessible dephasing rates (γ_ϕ≤0.289s⁻¹). Combines parity protection...
Applies quantum open-system dynamics (GKSL master equations) to model human cognitive evolution through decoherence. Introduces 'cognitive beats'—interference patterns of competing deliberative processes—and shows how internal mental logic can escape classical equilibrium pred...
Coherence-gated routing conditions single-photon emission on real-time quantum coherence rather than qubit eigenstates. Enables certified QRNGs with geometry-bounded min-entropy and phase-tracked photon sources for quantum networks with provable security.
Cavity photons strongly coupled to quantum matter generate logarithmic entanglement scaling—a non-critical phenomenon arising from photons resolving a single collective dipole coordinate. This reveals new organizational principles for hybrid light-matter systems distinct from ...
Researchers demonstrate dynamical control of spin interactions in alkali-noble-gas systems using Floquet engineering, enabling tuning of interaction strengths independently of Larmor frequency—opening new possibilities for quantum memories and precision measurements.
Harmoniq introduces a mathematically-grounded quantum data augmentation protocol based on quantum harmonic analysis, achieving quadratic circuit depth and demonstrating effective signal denoising in small-sample regimes.
#QuantumML #DataAugmentation #Research
Novel quantum lattice models maintain order at arbitrarily high temperatures through entropic mechanisms, bypassing Hohenberg-Mermin-Wagner theorems. Achieves continuous symmetry breaking and stable topological orders via coupling to bosonic degrees of freedom.
Disproves recent universality conjecture for globally controlled qubits via explicit 7- and 9-qubit counterexamples. Reveals hidden Hamiltonian symmetries beyond graph automorphisms obstruct universality, fundamentally refining characterization of global quantum control archit...