Boston University to Apply Machine Learning to Alzheimer’s Biomarker and Cognitive Data
Boston University, leading the AI for Alzheimer’s Disease (AI4AD) consortium, is coordinating 11 research institutes to apply machine learning to massive genomic, biomarker and cognitive datasets. The team is building the PreSiBO database, which tags predictor, signature, biomarker and outcome features to enable scalable AI‑driven drug repurposing and precision‑medicine strategies. With roughly 99 % of Alzheimer’s trials failing since 2003, the effort seeks to dissect disease heterogeneity and identify patient‑specific therapeutic targets. Researchers hope the platform will accelerate discovery of effective, personalized treatments.
University of Eastern Finland Demonstrates 2D-Material Photodetectors on Silicon Nitride Chips
Researchers at the University of Eastern Finland have demonstrated photodetectors built from two‑dimensional semiconductor materials directly on silicon nitride waveguide chips. The work, detailed in a doctoral dissertation, shows that cleanroom nanofabrication can integrate ultrathin 2D absorbers with low‑loss waveguides,...
Quantum Systems: Simple Equations Unlock Exact Solutions for Complex Problems
Researchers at the University of Vienna have derived a concise, fixed‑size equation that provides a necessary and sufficient condition for Matrix Product States (MPS) to exactly represent eigenstates of local Hamiltonians. The local characterisation hinges on how a Hamiltonian term...
Quantum Optimisation Cuts Measurement Needs with New Bayesian Approach
Researchers Siran Zhang and Shuming Cheng at Tongji University introduced a resource‑efficient Quantum Approximate Optimisation Algorithm (QAOA) that targets the cut value of the most probable bitstring and incorporates Bayesian optimisation with adaptive shot allocation. Tested on 3‑regular MaxCut instances,...
PQShield Clears Path for ML-KEM Inclusion in Japan’s National Cryptographic Standard
PQShield has completed an external evaluation of the NIST‑approved ML‑KEM algorithm for Japan’s CRYPTREC body, clearing the way for its inclusion on the national Ciphers List. This milestone accelerates the adoption of quantum‑safe encryption across Japanese government, infrastructure, and technology...
Quantum Data Protection Adapts to Varied Hardware Structures
University of Illinois Chicago researchers Himanshu Dongre and Lane G. Gunderman introduce mixed‑register stabilizer codes that exploit coprime local dimensions. By leveraging qudits and heterogeneous quantum registers, the approach can theoretically slash the number of error‑correction registers by up to...
EPB Joins Southeastern Quantum Collaborative to Expand Regional Innovation
EPB has become a founding member of the Southeastern Quantum Collaborative, leveraging its 2023 launch of the nation’s first commercial quantum network and the upcoming EPB Quantum Center. The network now incorporates an IonQ Forte Enterprise computer, delivering both quantum‑secure...
Infleqtion Validates Picosecond Accuracy in Real-World Timing Demonstration
Infleqtion demonstrated picosecond‑level timing by integrating its Tiqker quantum optical clock with Safran’s White Rabbit and SecureSync systems, outclassing the nanosecond precision of conventional GPS. The real‑world test proves a resilient timing solution for sectors vulnerable to GPS jamming and...
Atomic Quantum Mirror Achieves Super-Heisenberg Measurement Precision
Researchers at Beijing Institute of Technology and Tsinghua University have demonstrated a collectively enhanced quantum mirror (CEAM) that achieves measurement precision scaling as 1/N², surpassing the traditional Heisenberg limit of 1/N. The approach relies on the cooperative optical response of...
Researchers Publish Findings on Practical Blind Quantum Computation
Researchers at Xiangtan University and the University of Oxford have unveiled a new blind quantum computation (BQC) model that operates only on adjacent qubits, removing the need for complex SWAP gates. The approach, built on a parity quantum computing framework,...
H33.ai Introduces HICS to Provide Mathematically Verifiable Software Security Scores
H33.ai unveiled HICS (H33 Independent Code Scoring), a free platform that generates mathematically verifiable software security scores using STARK zero‑knowledge proofs and Dilithium post‑quantum signatures. The tool evaluates code across five dimensions and issues a .h33 certificate containing a SHA3‑256...
Using Quantum Interference to Solve Multi-Armed Bandit Problem
Japanese researchers have created a quantum‑optical system that uses the orbital angular momentum (OAM) of photons to solve the Competitive Multi‑Armed Bandit (CMAB) problem. By encoding each player’s preferences in OAM states and tuning photon phases, the setup guarantees conflict‑free...
Researchers Establish Velocity Limits Within Quantum Systems over Time
Scientists Marius Lemm and Carla Rubiliani have delivered a streamlined proof of Lieb‑Robinson bounds for Bose‑Hubbard Hamiltonians, demonstrating that information propagation is limited by a polynomial function t^{d+ε}, where d is the lattice dimension. Their approach leverages adiabatic space‑time localization...
QuTech Chairs Conference Focused on Scaling Spin Qubit Systems
QuTech will chair Spin Qubit 7, the seventh International Conference on Spin‑Based Quantum Information Processing, held at TU Delft from July 13‑17, 2026. The five‑day event gathers 45 leading speakers and more than 12 sponsors to showcase the latest in semiconductor spin‑qubit...
Volkswagen Group Builds Generative AI Pipeline for Brand-Compliant Vehicle Assets
Volkswagen Group partnered with AWS to build a generative‑AI pipeline that creates photorealistic, brand‑compliant vehicle images for its ten marques. By fine‑tuning the Flux.1‑Dev diffusion model with DreamBooth on proprietary digital‑twin data and deploying it on Amazon SageMaker, the company...
Viewbix’s Nuclear Quantum Progresses to Industry Engagement for Quantum Algorithms
Viewbix Inc., through its Quantum X Labs subsidiary, announced that portfolio company Nuclear Quantum is moving from pure algorithm development to active industry collaboration. The firm will embed its quantum‑based simulation engine into existing nuclear engineering platforms, tackling the long‑standing...
Quantum Gases Recreate Extreme Waves Seen in Oceans and Optics
Researchers at the Okinawa Institute of Science and Technology and Missouri University of Science and Technology have experimentally generated a Peregrine soliton—a prototype rogue wave—in an ultracold Bose‑Einstein condensate. By engineering attractive interactions within a two‑component condensate, they overcame wave...
Quantum Chaos Diminishes Within Ultracold Atomic Systems
Rajat and Doron Cohen at Ben‑Gurion University applied a semiclassical tomographic method to link the many‑body spectrum of Bose‑Hubbard condensates with underlying classical phase‑space structures. Their analysis shows that chaotic dynamics only emerge when more than three lattice sites are...
Space Experiment Refines Gravity Law with Record 2.8e-8 Precision
Chinese researchers aboard the China Space Station have completed the first in‑orbit quantum test of the Weak Equivalence Principle using a dual‑species rubidium atom interferometer. Over 280 days of continuous data they achieved a test uncertainty of 2.8 × 10⁻⁸, a three‑order‑of‑magnitude improvement...
Small Measurement Errors Rapidly Undermine Quantum Data Security
Researchers at Anhui University have shown that a mere 1 % measurement error can collapse the certification of quantum steering, a non‑local correlation essential for secure quantum communication and distributed computing. The sensitivity to errors grows with system dimension, following an...
Quantum Links Weaken over Time in Coupled Oscillators, Study Reveals
Researchers modeled two interacting asymmetric harmonic oscillators using the Kossakowski‑Lindblad master equation and a squeezed vacuum start state, tracking quantum discord, entanglement, and purity over time. They found discord consistently outlasts entanglement, while optimized squeezing extends entanglement lifespans by about...
Boundaries Trap Quantum States in Ordered Materials, Study Reveals
Researchers led by F. Iwase used a one‑dimensional non‑Hermitian quantum walk model to compare periodic, random, and Fibonacci quasiperiodic lattices. They found that periodic systems exhibit strong non‑Hermitian skin effect, while random disorder suppresses it but creates internal localized states....
VRadar Security Achieves Patent-Pending Status for Quantum-Resistant System
Vietnamese engineer Nguyen Xuan Dong has obtained patent‑pending status for VRadar, a cloud‑native Security Operations Center that incorporates NIST‑approved post‑quantum cryptography. Built alone in eight months with AI assistance, the platform processes 1.35 million alerts in 34 days and resolves 91 %...
AI21 Labs Explains How State-Space Models Compress Sequential Data
AI21 Labs details how state‑space models (SSMs) provide a linear‑scaling alternative to traditional transformers for sequential data. By maintaining a compressed hidden state, SSMs avoid the quadratic memory and latency costs that plague long‑context processing. The company’s Mamba architecture adds...
Dichroic Materials Now Generate 12 Distinct Types of Topological Lasers
Researchers at Istanbul University demonstrated that a dichroic Dirac semimetal can produce twelve distinct topological laser types by manipulating its internal axion texture. Using scattering techniques, they mapped spectral singularities in a 120 nm Na₃Bi slab, revealing how gain, wavelength, angle...
Quantum Simulators Harbour Hidden Bugs, New Research Confirms
An empirical study by LSU examined 394 confirmed bugs across twelve open‑source quantum simulators, revealing a far higher defect rate than previously assumed. The research shows that 60 % of failures stem from classical infrastructure such as memory management, while only...
Diamond Sensors Pinpoint Spins with 0.28 Nanometre Precision
Researchers at the University of Science and Technology of China have achieved sub‑nanometer Fourier magnetic imaging, locating nitrogen‑vacancy (NV) centres in diamond with a spatial resolution of 0.28 ± 0.10 nm and a magnetic‑field measurement deviation of just 9 nT. The compact, ambient‑stable platform...
Google Research Reveals AI Intelligence Emerges From Simulated Multi-Agent Interactions
Google researchers have shown that advanced reasoning models such as DeepSeek‑R1 and QwQ‑32B develop internal debates, creating a "society of thought" that improves accuracy on complex tasks. The behavior emerges spontaneously when reinforcement learning rewards accuracy, without explicit programming for...
Quantum Computing Speeds Fluid Dynamics Simulations for Industry Designs
Researchers at Germany's DLR have combined a refined quantum linear system solver—an eigenvalue‑free variant of the Harrow‑Hassidim‑Lloyd algorithm—with Newton's method to tackle nonlinear PDEs such as the Navier‑Stokes equations. The hybrid quantum‑classical approach promises exponential speedups for solving the large...
Quantum Computing Boosts Machine Learning Forecast Efficiency
Researchers at Kazan Federal University introduced a quantum algorithm that leverages Quantum Amplitude Estimation to evaluate Random Forest regression models. The method reduces query complexity from the classical O(n·h) to O(t·h·(ymax‑ymin)), dramatically lowering the number of tree evaluations needed. Initial...
Lithium Tantalate Stabilises Light-Based Chips for Faster Computing
Researchers at Sun Yat‑sen University and partner institutions have built an integrated optical phased array (OPA) from lithium tantalate that eliminates the phase‑drift problem plaguing ferroelectric photonic integrated circuits. The device keeps its far‑field main lobe 8 dB above side lobes...
Quantum Models Now Simulate Complex Processes with Far Simpler Circuits
Researchers at Nanyang Technological University introduced quantum sequence models that use recurrent quantum circuits to generate coherent superpositions of stochastic processes. The new architecture achieves linear scaling of circuit complexity with simulation time, a stark contrast to the exponential growth...
Random Routing Boosts Quantum Network Entanglement Distribution Rates
Scientists at Nanyang Technological University introduced a stochastic multipath routing scheme that randomly distributes entanglement requests across several edge‑disjoint paths in quantum repeater networks. Simulations show the method consistently outperforms single‑path and globally optimised routing, delivering higher end‑to‑end entanglement rates...
Symmetry Rules Limit Complex System Instabilities to Half-Order Branch Points
Researchers at Shiv Nadar Institution of Eminence have introduced a theoretical framework that links the structure of perturbations to the behavior of exceptional points (EPs) in non‑Hermitian systems. By analyzing three‑ and four‑band models with parity, charge‑conjugation, and parity‑time‑reversal (PT)...
Entangled Light Sustains Quantum Links Across Any Distance in New System
Researchers led by Sugar Singh Meena have devised a theoretical protocol that uses spontaneous parametric down‑conversion in circular arrays of nonlinear waveguides to generate multipartite continuous‑variable entanglement. The analytical solution proves full inseparability for any array whose number of waveguides...
Quantum Calculations Become Far Simpler with New Operator Weighting Method
Researchers led by Jialiang Tang introduced a weighted nested‑commutator (WNC) ansatz to approximate adiabatic gauge potentials using only local operators. The method expands the variational space, allowing more efficient optimization than traditional nested‑commutator approaches. Numerical tests showed dramatically faster preparation...
Quantum States Reveal How Disorder Halts Energy Spread Within Materials
Researchers at the International Centre for Theoretical Sciences and the University of Oxford introduced a Krylov‑space based metric to differentiate ergodic and many‑body‑localized (MBL) phases in disordered quantum spin chains. They showed that long‑time Krylov‑spread complexity grows linearly with the...
Matrix Model Boundaries Mapped with High Precision Simulations
Researchers at Universidad de Concepción used high‑precision Monte Carlo simulations to chart the stability boundaries of a broad family of two‑matrix models in the (h,g)‑plane. The numerical estimates locate the critical curve within 0.01, matching known analytical results for the ABAB...
Complex Systems’ Long-Term Behaviour Now Accurately and Efficiently Simulated
Researchers from UC Berkeley, University of Michigan, Flatiron Institute and Lawrence Berkeley National Lab proved that simulating non‑Markovian Gaussian baths scales logarithmically with the inverse error tolerance, not with simulation length. The new bound O(log₂(1/(ω_c ε))) holds for zero‑temperature super‑Ohmic...
IBM Reports High Failure Rate for Generative AI Pilots
IBM cites a 95% failure rate for generative AI pilot programs, echoing a summer 2025 MIT study that found most projects fall short despite billions in investment. The report highlights gaps in observability, data quality, and infrastructure that hinder measurable...
IBM Highlights Difference Between Ethical Language and Moral Competence in AI
IBM is emphasizing the gap between AI that merely sounds ethical and systems that can actually reason morally. Recent studies from Google DeepMind and Anthropic show large language models (LLMs) generate ethical language by statistical prediction, not by understanding. Anthropic’s...
IBM Details Strategies for Navigating Intellectual Property Risks in Generative AI
IBM outlined a comprehensive playbook for firms confronting intellectual‑property (IP) risks tied to generative AI. The guidance stresses rigorous data provenance, licensing verification, and detailed documentation of model development. IBM warns that unlicensed training data can trigger costly litigation and...
Continuous-Variable Quantum Compiler for Optical Phase Learning
Researchers have built a continuous‑variable quantum compiler that learns optical phase operations using two‑mode squeezed light. By digitizing the analog process into a sequence of native gates, the system creates a quantum digital twin that delivers a 5.4‑fold boost in...
Quantum Networks Demonstrate Losses Exceeding 100 Percent Through Spatial-Mode Mixing
Researchers at the University of Hamburg have identified a new phenomenon called hyperloss, where coherent spatial‑mode mixing in quantum‑correlated networks can produce apparent losses exceeding 100 % of the original squeezing. An 8 % mode mismatch was enough to turn a 5.8 dB...
Atoms Linked to Light on a Nanofiber Promise Scalable Quantum Tech
Researchers at Waseda University and NICT have demonstrated a quantum interface that couples photons traveling in a 310 nm optical nanofiber to an array of about 155 individually addressable cesium atoms. The system achieves single‑atom trapping verified by photon‑correlation measurements with...
Neural Networks Simplify Quantum Error Correction, Reducing Decoding Complexity
Researchers at Germany's DLR have introduced a neural belief‑matching decoder for the toric quantum error‑correction code that dramatically lowers decoding complexity. By embedding a convolutional neural network within the belief‑propagation framework, the method reduces calls to the costly minimum‑weight perfect...
NVIDIA Builds Framework to Accelerate Simulation Data for AI
NVIDIA introduced Warp, a new framework that lets developers write high‑performance GPU kernels as ordinary Python functions, automatically compiling them for CUDA GPUs. By providing fine‑grained element‑wise control and native automatic differentiation, Warp speeds up generation of physics‑compliant simulation data...
Anthropic Explores How AI Is Accelerating Pace of Scientific Discovery
Anthropic has launched a dedicated science blog to showcase how its AI models are compressing the timeline of research across disciplines. The company highlights early successes such as AI‑assisted mathematical proofs, gene‑relationship discovery, and long‑running computational workflows. Through its “AI...
Anthropic Demonstrates AI’s Capacity for Frontier Theoretical Physics
Anthropic’s Claude Opus 4.5 AI completed a frontier theoretical‑physics calculation in two weeks, a task that typically takes a year for human researchers. Harvard professor Matthew Schwartz guided the model solely through text prompts, producing a rigorous paper on resumming the...
Quantum Matters: D-Wave Explores Real-World Applications of Quantum Technology In A Podcast
D‑Wave, the pioneer commercial quantum computing firm, has launched the "Quantum Matters" podcast to spotlight real‑world quantum applications. Each episode features researchers, academics, and industry leaders discussing how quantum solutions are solving complex problems in sectors such as automotive manufacturing...
