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‘Shape-shifting’ quantum computer uses light to switch between different tasks - The Brighter Side of News
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‘Shape-shifting’ quantum computer uses light to switch between different tasks - The Brighter Side of News

‘Shape-shifting’ quantum computer uses light to switch between different tasksClavina combines linear and nonlinear quantum operations, advancing light-based quantum computing and error correction. Edited By: Shy Cohen/ICL Writer: Eleanor BarrandPublished Sep 7, 2026 4:07 PM PDTImperial researchers developed Clavina, a modular photonic quantum processor that expands what light-based quantum computers can do. (CREDIT: Shutterstock) Share this storyImperial College London researchers developed a modular photonic processor called Clavina that combines programmable linear optical circuits with nonlinear quantum modules in one reconfigurable architecture.The system demonstrated 100-mode Gaussian boson sampling, quantum correlations across 8,000 time bins, Schrödinger cat states and quasi-deterministic production of error-correction resources called GKP states at roughly 2,000 per second.Clavina is not yet a fault-tolerant quantum computer, but its ability to reuse and swap functional modules could help photonic machines move beyond specialized experiments toward more general-purpose quantum processors.Light may become one of the most powerful tools for future quantum computers. Photons, the tiny particles that make up light, can carry quantum information quickly and with relatively low noise. But they also create a stubborn problem: they do not naturally interact very strongly.That weak interaction has limited many light-based quantum machines. They can perform useful linear operations, but they struggle with the nonlinear steps needed for full quantum computing.Researchers from Imperial College London’s Department of Physics and external collaborators have now developed a new architecture called Clavina, which combines programmable linear optics with specialized nonlinear quantum modules in one system.A Processor Inspired By Modern ComputersTraditional photonic quantum systems often work like custom-built machines. They are designed for one task, and adapting

Sep 7, 2026

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Efficient Quantum Error Correction from Three Dimensional Qubit Control
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Efficient Quantum Error Correction from Three Dimensional Qubit Control

--> Quantum Physics arXiv:2609.04459 (quant-ph) [Submitted on 3 Sep 2026] Title:Efficient Quantum Error Correction from Three Dimensional Qubit Control Authors:Kevin Yipu Wu, Ohik Kwon, Maxwell F. Parsons View a PDF of the paper titled Efficient Quantum Error Correction from Three Dimensional Qubit Control, by Kevin Yipu Wu and 2 other authors View PDF HTML (experimental) Abstract:High-rate quantum low-density parity-check (qLDPC) codes can substantially reduce qubit overhead relative to surface codes, but their advantage depends on efficiently realizing nonlocal syndrome extraction. We study the \([[144,12,12]]\) bivariate bicycle code on a neutral-atom architecture with native three-dimensional (3D) geometry, comparing planar and 3D embeddings while holding the code fixed. We characterize spatial efficiency using the logical-qubit density, defined as the number of encoded logical qubits per unit spatial footprint. Because the optical controller's field of view limits the transverse extent of an array, this metric estimates the number of logical qubits that can be accommodated within a fixed optical field of view. The 3D embedding achieves approximately \(4\times\) greater areal logical-qubit density than the planar layout and \(42\times\) greater than a surface-code baseline. It also reduces the bivariate bicycle syndrome-extraction time by roughly \(2\times\) compared to a planar baseline, with fewer movement operations and substantially shorter atom-transport distance. Native 3D geometry can improve both the packing density and executable realization of nonlocal qLDPC codes, making practical performance depend jointly on code structure, optical geometry, transport scheduling, and hardware-level noise. This motivates further development of control techniques in 3D. Comments: Subjects: Quantum Physics (quant-ph) Cite as: arXiv:2609.04459 [quant-ph]   (or arXiv:2609.04459v1 [quant-ph] for this version)   https://doi.org/10.48550/arXiv.2609.04459 Focus to

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IonQ team to present at Dubai’s quantum innovation eventquantum-computing

IonQ team to present at Dubai’s quantum innovation event

The Quantum Innovation Summit, running September 28-30 at the Grand Hyatt Dubai, signals a shift from theoretical quantum computing to practical implementation concerns. Day one of the summit will convene regulators, financial institutions, and telecom operators for a tabletop exercise simulating a post-quantum cryptography transition. Organizers are addressing how to determine which systems should migrate first, as organizations move beyond acknowledging the need for migration to grappling with its complex logistics. The summit’s published agenda states that an organization delaying this sequencing may discover dependencies when they are most expensive to resolve. IonQ Team Exhibits at Dubai’s Quantum Innovation Summit 2026 IonQ secured a 24 square meter exhibition stand, double the standard size, positioning them prominently among attendees at the third edition of the summit. The event, hosted by the UAE Cyber Security Council and organized by Vernewell Group, is part of a larger Global Quantum Week extending to October 5. Participants will include regulators, telecom operators, financial institutions, and government digital services. Source: https://www.idquantique.com/quantum-innovation-summit/ More like thisQuantum Computing Business NewsSK Telecom & IonQ: Quantum Computing for AI StabilityQuantum ComputingID Quantique Shares Quantum Safe Encryption Strategies for BankingQuantum CryptographyIonQ says orders set 2030 deadline for post-quantum crypto migrationQuantum Computing NewsQuantum Zeitgeist Weekly DigestStay currentSee today’s quantum computing news on Quantum Zeitgeist for the latest breakthroughs in qubits, hardware, algorithms, and industry deals. Tags: Dr. Donovan Dr. Donovan is a futurist and technology writer covering the quantum revolution. Where classical computers manipulate bits that are either on or off, quantum machines exploit superposition and entanglement to process information in ways that classical physics cannot. Dr.

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NEC Discontinues Superconducting Quantum Computer Development to Focus on Annealing and Classical Emulationquantum-computing

NEC Discontinues Superconducting Quantum Computer Development to Focus on Annealing and Classical Emulation

NEC Discontinues Superconducting Quantum Computer Development to Focus on Annealing and Classical Emulation Japanese technology conglomerate NEC Corporation has officially halted its internal research and development program to build a physical gate-based superconducting quantum computer. First reported by Nikkei Asia, the company discontinued direct QPU hardware development at the close of its fiscal year (March 2026), citing extended commercialization timelines and capital investment requirements necessary to generate a near-term return on investment (ROI). [ NEC Strategic Shift & Quantum Portfolio Status ]Discontinued R&D ProgramsContinued Technical OperationsRegional Competitive Landscape• Physical Superconducting Hardware R&D• Simulated Annealing & Quantum-Inspired Algorithms• Fujitsu Active Superconducting R&D (RIKEN Joint Venture)• Gate-Based QPU Fabrication Projects• Commercial Combinatorial Optimization Services• IBM Quantum System Two Deployments in Japan (Kobe/Kawasaki)• Direct Hardware Capital Allocation• Classical Emulation Layer Development• Targeted Public-Private Hardware Competitors (US & China) From Superconducting Pioneer to Software and Annealing Focus NEC holds historical significance in quantum physics as the first entity to demonstrate a controlled solid-state superconducting qubit—achieved at its Tsukuba research laboratories in 1999 using a single-cooper-pair box circuit. The company’s pivot reflects a strategic realigning away from capital-intensive hardware fabrication toward software and optimization workflows: Pivot to Quantum-Inspired Annealing: NEC will concentrate engineering resources on quantum-inspired vector annealing and simulated annealing platforms, targeting high-dimensional combinatorial optimization problems in logistics, financial modeling, and industrial scheduling. Classical Emulation and Services: The company will maintain its software stack and enterprise consulting services, running quantum-insp

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India National Quantum Mission

Explore India's ₹6,003 Crore quantum initiative: 4 thematic hubs, leading startups, and the latest developments in India's quantum ecosystem

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