Scientists at the Weizmann Institute have unveiled the Atomic Single Electron Transistor (Atomic SET), a scanning microscope that uses a single atom as a quantum sensor. The device achieves roughly one‑nanometer spatial resolution—about 100 × better than existing probes—and can detect electrostatic potential changes as small as one‑part‑million of a single‑electron charge. Using the Atomic SET, the team mapped the energy landscape of a graphene/hexagonal‑boron‑nitride moiré superlattice and found potentials nearly twice as strong as theoretical predictions. The breakthrough promises direct visualization of hidden quantum fields that drive exotic material behavior.

Researchers introduced a quantum-inspired reinforcement‑learning framework that optimises AIoT‑driven supply chains while cutting carbon emissions, improving inventory control, and enhancing cybersecurity. By modelling the supply network as a controllable spin‑chain, the system balances fidelity, security, and emissions within a multi‑objective...

Researchers from Shijiazhuang Tiedao University and Shaanxi Normal University have introduced a thermodynamic‑based family of multipartite entanglement measures called ergotropic‑gap concentratable entanglement. The measure satisfies key axioms such as continuity, majorization monotonicity and monogamy, and can reliably distinguish GHZ from...

Researchers introduced a Trojan‑resilient Number Theoretic Transform (NTT) architecture that detects and mitigates control‑flow and timing faults on reconfigurable platforms. Implemented on an Artix‑7 FPGA, the design uses a clock‑cycle counter, control‑status register, and RENO‑based recomputation to correct anomalies. The...

SEALSQ Corp unveiled a "root‑to‑quantum" security platform that embeds a hardware Root of Trust into microcontrollers and TPM‑class devices, pairing it with post‑quantum cryptography and a proprietary quantum highway. The solution promises cryptographic agility, enabling seamless updates as quantum threats...

Haiqu Software announced that Dr. Antonio Mei, a former Microsoft Quantum leader, has joined as Lead Product Manager to develop its quantum operating system. The company claims its software can cut computational costs by a factor of 100 compared with...

Researchers at IIT Bombay and JNCASR introduced a topology‑aware design framework for valley photonic crystals (VPCs). Using a modified particle‑swarm optimisation (PSO) algorithm, they simultaneously maximised the bulk bandgap and the valley Chern number across a six‑dimensional unit‑cell parameter space....

Researchers have introduced a displacement‑controlled AFM nano‑indentation technique that reliably creates gate‑tuneable single‑photon emitters in monolayer WSe₂ on SiO₂/Si substrates. Indentations deeper than 150 nm generate defect‑bound excitons with ultra‑narrow ≈200 µeV linewidths that persist up to ~120 K. Second‑order autocorrelation confirms true...

Researchers at the Max Planck Institute have shown that direct spontaneous four‑wave mixing (SFWM) in a 10 µm‑thick lithium‑niobate layer outperforms the traditionally favored cascaded second‑harmonic generation followed by parametric down‑conversion. Using a 1030 nm femtosecond pump, they observed quadratic scaling of...

Researchers at the University of Pennsylvania and UC Berkeley unveiled TopoLS, a topological compiler that merges ZX‑diagram optimisations with Monte Carlo tree search to streamline lattice‑surgery compilation. Across diverse benchmarks, TopoLS slashes the space‑time volume needed for quantum error correction by...

Multiverse Computing’s 2019 paper "Quantum Computing for Finance: Overview and Prospects" has now exceeded 1,000 academic citations, placing the firm alongside quantum heavyweights such as IBM and D‑Wave. The work emphasized quantum software for finance rather than hardware, establishing a...

Researchers at the Technical University of Munich and the German Aerospace Center introduced a hybrid quantum‑classical neural network, MLTQNN, to classify large‑scale Earth observation data. The model combines multitask learning, a location‑weight module, and quantum convolution operations to streamline data...

Researchers from Beijing Normal University and Tsinghua University introduced a CNN‑BiLSTM hybrid that classifies 3‑ and 4‑qubit multipartite entanglement. Using only 100 training samples, the dimensionality‑transforming Architecture 2 reached over 90 % accuracy, while with a full set of 400 000 samples both...

Researchers used high‑level ab initio coupled‑cluster methods to resolve the mechanism of the nucleophilic substitution of 1‑phenyl‑2‑trimethylsilylacetylene (PTA) with fluoride under vibrational strong coupling (VSC). The calculations confirm a two‑step S_N2 pathway, revealing previously unreported encounter and product complexes and...

Researchers at ETH Zurich introduced Snowball, a digital all‑to‑all Ising machine that combines dual‑mode MCMC spin selection with asynchronous updates. The prototype on an AMD Alveo U250 accelerator achieved an eight‑fold reduction in time‑to‑solution versus state‑of‑the‑art Ising hardware on benchmark...

Researchers showed that aluminium shells on InAs/EuS nanowires become superconducting only when the EuS layer is in a multi‑domain magnetic state. Scanning SQUID magnetometry and low‑temperature transport revealed that a magnetic domain wall can be shifted at roughly 5.5 µm·mT⁻¹ using...

Researchers have broadened belief propagation with quantum messages (BPQM) from binary to symmetric q‑ary pure‑state channels with circulant Gram matrices. They derived closed‑form recursions based on Gram‑matrix eigenvalues, yielding explicit BPQM unitaries and analytic fidelity bounds independent of the underlying...

The Cavendish Laboratory at the University of Cambridge and quantum‑software firm FormationQ have launched a joint applied quantum program powered by IonQ’s trapped‑ion platform. The initiative, backed by a $2.5 million investment from FormationQ, will use IonQ Forte’s 32 algorithmic qubits...

Researchers at IIT Delhi demonstrated that adiabatic rapid passage (ARP) excitation of a negatively charged quantum dot in an elliptical microcavity dramatically lowers multiphoton emission and raises photon indistinguishability. Compared with conventional resonant driving, ARP yields brighter, cleaner single‑photon output....

Researchers at the University of Oslo have unveiled an adaptive post‑quantum cryptography framework designed for 6G vehicle‑to‑everything (V2X) networks. By predicting short‑term mobility, channel conditions, weather, and message urgency, the system dynamically selects lattice, code, or hash‑based PQC schemes. A...

Infleqtion, in partnership with the University of Wisconsin–Madison, has achieved 99.93 % reliable nondestructive measurement of neutral‑atom qubits by combining precise readout with continuous cooling. The technique eliminates measurement‑induced decoherence, enabling faster computation cycles and more robust error correction. Published in...

Researchers at the University of Michigan and The ML.ENERGY Initiative conducted a massive measurement campaign across 46 generative AI models, seven tasks, and 1,858 configurations on NVIDIA H100 and B200 GPUs. They discovered order‑of‑magnitude energy differences, with large‑language‑model (LLM) task...

Researchers Rubboli, Haapasalo, and Tomomichel deliver a complete axiomatic characterisation of conditional entropy, proving it must be an exponential average of Rényi entropies weighted by a probability measure. The framework rests on three core axioms—additivity for independent variables, invariance under...

Researchers from the University of Chicago and the Perimeter Institute have introduced a method to infer logical error channels directly from quantum error‑correction syndrome data using Fourier analysis and compressed‑sensing techniques. They prove necessary and sufficient conditions for learnability and...

Researchers from Kuvempu and Bangalore Universities have introduced Dicke‑superposition probes that achieve near‑Heisenberg scaling (quantum Fisher information ≈ N²) for phase estimation. The study shows these probes retain high precision under one‑ and two‑body interaction Hamiltonians while exhibiting superior robustness to...

MIT researchers introduced a multiparameter quantum‑sensing protocol that uses quantum scrambling and random Clifford circuits to encode many signals into distinct measurement bit‑strings. The method can estimate an exponentially growing number of non‑commuting, time‑dependent parameters while requiring only a logarithmic...

Researchers Azat M. Gainutdinov and Robert Laugwitz introduced “fully exact” module categories, a subclass of exact module categories that remains stable under the relative Deligne product. They proved that this class strictly contains invertible and separable module categories and that...

Researchers at Johns Hopkins introduced QCL‑IDS, a quantum‑centric continual‑learning framework for intrusion detection that balances adaptation to new attacks with retention of historic threat knowledge. The system leverages Quantum Fisher Anchors and privacy‑preserved quantum generative replay to achieve mean Attack‑F1...

Researchers introduced FedGraph‑VASP, a privacy‑preserving federated graph learning framework that enables virtual asset service providers to jointly detect money‑laundering without sharing raw transaction data. The system exchanges compressed graph embeddings secured with Kyber‑512 key encapsulation and AES‑256‑GCM, delivering quantum‑resistant protection....

Researchers at IST Austria have successfully up‑converted single microwave photons generated by a superconducting transmon qubit to telecom‑band optical photons. The electro‑optic transducer, based on a lithium‑niobate whisper‑gallery resonator, achieved an internal conversion efficiency of 1.6 × 10⁻³ and a signal‑to‑noise ratio...

Researchers introduced a hierarchical family of quantum decoders built on the Lasserre Sum‑of‑Squares (SOS) hierarchy, converting the NP‑hard decoding problem into a sequence of semidefinite programs (SDPs). The approach lets users trade decoding speed for accuracy, with lower‑level SDPs delivering...

Researchers demonstrated quantum key distribution (QKD) on IBM's superconducting quantum platform by implementing the BB84 and E91 protocols with SX‑gate operations. Using a 133‑qubit device and 128‑shot runs, they achieved zero error for BB84 and a 0.094 error rate for...

Scientists at QuSoft and CWI have proved that the Bravyi‑König theorem, which limits logical operations in topological stabiliser codes, also holds for Floquet codes constructed from locally conjugate stabiliser groups. They defined these dynamic codes, showed that constant‑depth logical gates...

Researchers have linked the saturation of the quantum Cramér‑Rao bound (QCRB) in multiparameter quantum metrology to a geometric property called simultaneous hollowization of traceless operators. They prove that achieving the ultimate precision limit with single‑copy, rank‑one measurements is equivalent to...

Researchers from Quantinuum have demonstrated universal topological quantum gates on a 54‑qubit H2 processor by implementing the S₃ quantum double model. By treating anyon fusion as a fundamental operation, they achieved a universal gate set comprising an entangling braid and...

Scientists at the University of Stuttgart have demonstrated coherent control of a nuclear spin coupled to a modified divacancy (PL6) center in 4H‑silicon carbide using only microwave pulses. By tilting an external magnetic field they activate hyperfine‑enhanced effects, eliminating the...

Researchers from Oak Ridge National Lab and Single Quantum have mapped how nanoscale disorder affects superconducting nanowire single‑photon detectors (SNSPDs). By using helium‑ion irradiation to introduce controlled disorder, they combined DC transport, dark‑count, and microwave spectroscopy to separate local instability,...

Researchers at Jazan University unveiled a high‑frequency, high‑coherence quantum‑computing architecture featuring an 8‑transmon processor that operates above 10 GHz, with a target frequency of 12 GHz. The design promises average relaxation times of up to 1.9 ms and quality factors reaching 2.75 × 10⁷, leveraging...

Scientists used X‑ray photoelectron spectroscopy to evaluate 17 niobium capping layers for their ability to block oxygen diffusion. The rapid, non‑destructive XPS method identified metal nitrides and zirconium as the most resilient barriers, while 5 nm noble metals proved ineffective. Resonators...

Researchers at Johannes Kepler University introduced HyperRBM, a hypernetwork‑conditioned Restricted Boltzmann Machine that can reconstruct entire families of quantum ground states. The model achieves high‑fidelity tomography on both one‑ and two‑dimensional lattices, accurately mapping phase transitions and pinpointing the critical...

Researchers at NIT Agartala introduced a Szegedy quantum‑walk algorithm for graph community detection, converting classical transition matrices into unitary operators. The method generates a limiting probability distribution that isolates inter‑community edges, enabling accurate partitioning of benchmark networks such as Zachary’s...

Researchers at the University of Science and Technology of China have unveiled an all‑optical 3D imaging technique that fully characterises the spatial, spectral and temporal correlations of biphoton wave packets. By applying cross‑phase modulation in a photonic crystal fiber and...

Researchers Wu, Jiang, Yu, Liu and colleagues examined how a perfectly reflecting boundary influences quantum coherence harvesting using three Unruh‑DeWitt detectors. Their model shows that while proximity to the boundary can suppress coherence, orthogonal detector alignments and identical energy gaps...

Researchers from the Australian National University and La Trobe University introduced a scanning tunnelling spectroscopy (STS) protocol that reliably identifies sp³ dangling bonds on hydrogen‑terminated diamond (H‑C(100)). By pairing high‑resolution STS measurements with density‑functional theory calculations, they mapped defect‑related electronic...

Researchers have demonstrated superradiant, cooperative light emission from quantum emitters embedded in hexagonal boron nitride (hBN) layers at room temperature. By using localized electron‑beam irradiation to form tightly spaced B‑center defect ensembles, they observed a super‑linear increase in photoluminescence intensity...

Quantum Dice wrapped up its first Michaelmas Challenge, drawing 29 student and researcher teams to explore probabilistic computing over eight weeks. The competition awarded £8,000 in cash prizes, with Team Entropica winning for a novel sports‑betting risk‑management model, The Committed...

Diraq, an Australian quantum‑computing startup, secured a $20 million equity investment from the National Reconstruction Fund Corporation to accelerate its utility‑scale quantum computer roadmap. The funding will underpin advanced silicon‑based qubit manufacturing, aiming to deliver a machine with genuine quantum advantage...

Researchers introduced a Grover‑based quantum reinforcement learning (QRL) framework to tackle user scheduling in massive MIMO downlink systems. The quantum‑gate circuit mimics reinforcement‑learning layers, using Grover’s amplitude amplification to locate high‑reward scheduling policies faster than classical methods. Simulations show a...

Lam Research and France’s CEA‑Leti have signed a multi‑year agreement to speed development of next‑generation specialty‑technology devices. The partnership combines Lam’s etch, deposition and its Prestis™ pulsed laser deposition system with CEA‑Leti’s advanced device‑characterization platform to tackle material and integration...

Researchers at Universidade Federal de Pernambuco introduced a thermodynamic framework for linear open quantum walks (OQWs), defining an equilibrium temperature and characterising entropy, Helmholtz free energy, and thermalisation dynamics. They identified a critical environmental parameter that triggers population inversion, where...