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Infleqtion Sponsors Quantum Fringe 2026 for UK Ecosystem

Infleqtion (NYSE: INFQ), a quantum computing and sensing company, will be a Gold Sponsor for the Quantum Fringe 2026, demonstrating its support for British technology. The corporation formed this June 2, 2026 strategic partnership to engage with the UK's fast-growing quantum ecosystem. The sponsorship follows the company's announcement of a new Quantum Innovation hub and manufacturing hub in Oxford to boost production, systems integration, and research.

Summer Quantum Innovation in Scotland

Quantum Fringe 2026 will feature a full schedule of quantum computing developments in May and June. Despite its center in Edinburgh, the festival provides activities on Skye and elsewhere in Scotland. Infleqtion's management and technical leadership teams will discuss quantum technology commercialization and deployment with government, corporate, and academic partners as Gold Sponsors.

For Infleqtion, attending the Quantum Software Lab’s (QSL) Third Anniversary celebration at the Informatics Forum in Edinburgh on June 10 is crucial. This event celebrating software development and verification advances is a milestone for the U.K. quantum community. In addition, Infleqtion will attend the TartanQEC Workshop from June 24-26 at the University of Edinburgh School of Informatics, where experts will study quantum error correction. The Quantum Software Alliance Summit, QSL Verification Benchmarking Framework Workshop, and AIMday Quantum Computing are also in the company's calendar.

Growth Strategy: Oxford Innovation Center

Infleqtion's UK growth is linked to Quantum Fringe 2026 support. The recently established Oxford Innovation Center will be the company's UK hub for manufacturing and systems integration. This facility will help Infleqtion extend its neutral-atom solutions to more government and commercial customers. The business intends to create a permanent high-capacity presence in Oxford to work more closely with well-known partners including the National Quantum Computing Center (NQCC) and the British quantum research community.

Full-Stack Quantum Technology

Infleqtion differentiates itself with a “full-stack” strategy that combines modern software platforms with high-performance hardware. Their computing efforts center on Sqale, a fault-tolerant neutral-atom quantum computer that provides nature's “perfect qubits.” This technology uses Infleqtion's patented quantum computing software platform, Superstaq, to speed time-to-value for enterprises using quantum solutions.

High-precision sensing is part of the company’s technological portfolio which goes beyond simple calculation. Important products include the Tiqker Atomic Clock, a next-generation optical clock for critical infrastructure applications, and several inertial sensing instruments for GPS-denied settings. In addition, Infleqtion's Quantum Spectrum technology uses Rydberg atoms to improve RF receiver performance, revolutionizing spectrum sensing. These operational devices, called "Quantum Cores," help researchers and developers speed up quantum experiments.

Global Impact and Real-World Applications

With activities in the US, Europe, and Asia, Infrelation affects the world. NASA, the U.S. Department of War, and the government of the United Kingdom are just a few of the prominent organizations with which the firm has already formed important partnerships. Infleqtion and NVIDIA demonstrated the first materials-science application using logical qubits, advancing quantum advantage.

The technology of Infleqtion is widely used across sectors. National Security and Resilience uses their technologies to improve intelligence and secure communications over land, sea, air, and space. Quantum-powered modeling is anticipated to significantly accelerate the discovery of novel medications and progress illness research in the fields of life sciences and drug discovery. Simulations in Materials Science can cut the time to discover new, more effective materials from decades to months. Energy and finance, where optimization technologies can improve grid management and resource development and quantum insights can improve portfolio performance, will also shift.

Future Quantum Development

Infleqtion's Gold Sponsorship of Quantum Fringe 2026 stresses its quantum technology commercialization goal. With high-level event participation and physical expansion in Oxford, the company is establishing itself at the heart of UK tech revival. Through its neutral-atom technological innovation and ecosystem commitment, Infleqtion is actively constructing a quantum future.

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QTREX Advances Quantum Hardware with AME Technology

The global race for quantum supremacy is highlighting the infrastructure needed to support these systems. A pioneer in Additively Manufactured Electronics (AME), QTREX Quantum Ltd. (Nasdaq: QTEX), announced a big achievement in the search for scalable quantum hardware. The company will unveil its latest functional monolithic AME-based connecting components at Quantum.Boston hosts Tech World 2026.

QTREX's June 25–26, 2026 presentation will show concrete, manufacturable answers to some of the industry's biggest hardware problems. Chief Business Officer Yoav Rozanovich and Chairman of the Board Tal Parnas will represent the company in Boston.

The Quantum Computing ‘Interconnect Bottleneck’

Developers of powerful quantum computers, especially those using superconducting qubits, have challenges in signal management in dilution cryostats. Current systems sometimes struggle with the “wiring challenge” of routing hundreds of high-speed signals into a sub-zero environment without heat or signal loss.

Innovative monolithic connector components from QTREX solve these cryogenic connecting difficulties. Using its proprietary AME platform, the company has created high-density signal routing and dielectric material integration components. These hardware components are actual hardware designed to work under the extreme thermal limits required for quantum coherence.

The Power of AME

QTREX's breakthrough is based on the AME platform, which can create intricate 3D structures that subtractive manufacturing cannot. This expertise is needed to design tiny, efficient hardware for next-generation quantum systems.

QTREX claims to be one of the few firms in the world with the technical competence to additively produce high-spec components. This strategy allows the building of integrated, monolithic structures that may reduce quantum system infrastructure failure spots by merging many electrical operations into a single hardware piece.

Boston Strategic Industry Engagement

The international quantum technology commercialization venue is Quantum.Tech World 2026. The event attracts government agencies, hardware producers, systems integrators, and enterprise adopters.

QTREX will hold invitation-only meetings with key partners and industry leaders at this prominent venue. These sessions will take place in a meeting space near to the conference venue for in-depth technical discussions and collaborative scouting. The company is at the hardware frontier, providing the physical components needed for large-scale quantum computing beyond theoretical scalability.

Wide Range of Technologies: Beyond Quantum

Boston will focus on quantum infrastructure, while QTREX has many technical uses. The company is developing AME solutions for other mission-critical environments, including:

Defense and aerospace: High-density missile and space exploration electronics.

Medical Technology: QTREX develops blood-monitoring and breathing-support technologies to commercialize its medical business. This vast spectrum of experience suggests that quantum computing advances like 3D signal routing and thermal optimization may aid other high-stakes industries.

Market position and prospects

QTREX Quantum Ltd., traded on the Nasdaq as QTEX, has changed significantly. After carefully acquiring the AME platform, Inspira Technologies Oxy B.H.N. Ltd. (NASDAQ: IINN) focused on the quantum industry's “enablement layer”.

Company management regard attendance at the Boston conference as reinforcement of its current direction. QTREX provides the hardware needed for quantum computers to progress from lab trials to large-scale commercial systems, focusing on the enabling layer.

The company says its predictions are subject to market risks and based on management assumptions, like any high-tech initiatives. The company's progress in the rapidly changing quantum world will be assessed by the Boston demonstration of functional monolithic components.

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SEALSQ Quantum Investment Fund Leads Quobly €130M Raise

SEALSQ Quantum Investment Fund

SEALSQ Corp (NASDAQ: LAES), a hardware-anchored security and post-quantum semiconductor expert, is a primary investor in Quobly's €130 million Series A fundraising round, a major development for the deep-tech industry. This historic SEALSQ Quantum Fund investment is one of the largest financing infusions for early-stage quantum computing in European history and marks a major step toward European sovereign quantum infrastructure.

STMicroelectronics, Isalt, and BPI France are among the significant financial and industrial partners backing the financing round. As part of the strategic arrangement, SEALSQ CEO Carlos Moreira will join Quobly's board of directors to bridge theoretical quantum physics with large-scale production.

A Technological Sovereignty Strategy

This investment is driven by the EU's technological sovereignty demand. By creating an ecosystem, Europe hopes to lessen its dependence on international supply chains for advanced semiconductors and quantum processors. “Through the SEAL Quantum Fund, they are not just investing in a company; they are anchoring a foundational pillar of European sovereign infrastructure,” Carlos Moreira stated. This €130 million investment ensures that next-generation computer design and production pipelines remain in Europe in response to this geopolitical requirement. Following tight national security and data privacy laws, the program delivers a stable platform for high-value applications in defense, finance, energy, and critical infrastructure.

Silicon Advantage: FD-SOI Scalability

Quobly uses silicon-based quantum processors, unlike competitors that use exotic materials, trapped ions, or complicated laser arrays, which are difficult to scale. FD-SOI (Fully Depleted Silicon-on-Insulator) manufacturing is standard for laptops and cellphones, hence this solution uses it.

Quobly's technology develops stable qubits by trapping electrons in silicon transistors and changing their spin states. These transistors can be stacked in billions on a chip, making the switch from dozens to millions of qubits a manufacturing optimization problem rather than a physics problem. Scalability is essential for Quobly's early commercial devices and quantum computing industrialization.

Post-Quantum “Root of Trust” Security

In November 2025, SEALSQ and Quobly signed a technical agreement beyond financial cooperation to develop secure-by-design quantum technology. By combining Quobly's processing gear with SEALSQ's QVault TPM and post-quantum semiconductors, the companies are securing qubits.

This integration addresses the quantum-enabled cyberattack concern. Existing encryption methods like RSA and ECC are vulnerable to quantum computers. Additionally, the industry is rushing to protect itself from “Harvest Now, Decrypt Later” techniques, in which malicious actors steal encrypted data today to decrypt it with powerful quantum computers. SEALSQ hardware-anchored security protects sovereign quantum platforms from present and future assaults.

SEALSQ Quantum Fund: $200 Million Vision

SEALSQ invested in Quobly as part of its Quantum Vertical Sovereign Stack strategy. Since February 2025, the SEALSQ Quantum Fund has grown from 20 million to 200 million. The fund aims to accelerate quantum infrastructure development by facilitating targeted investments across the value chain.

Besides Quobly, the fund has given roughly $30 million to several specialist groups, including:

ColibriTD and IC'Alps for quantum apps and chips.

Use EeroQ and Quantix Edge Security for hardware and edge security.

Quantum-secure WISeSat satellite communications. SEALSQ bought a majority share in WeCan Group to develop financial institution AI compliance co-pilots. SEALSQ can manage a strategy from silicon to space with its diverse portfolio, making it a post-quantum leader.

Actual Uses and Industrial Impact

Many sectors will be transformed by silicon-based, fault-tolerant quantum computing. These computers' unprecedented processing capacity will allow European enterprises to:

Pharma: Improve molecular modeling to find new medications fast.

Logistics: Instantly optimize multivariable global networks.

Artificial Intelligence: Complex AI models can be learned faster than supercomputers. Cybersecurity: Allow real-world testing and application of innovative Post-Quantum Cryptography (PQC) techniques.

The Future: Prototypes to Production

With this Series A investment, Quobly will develop its technical teams, industry connections, and first fault-tolerant quantum computing prototypes faster. With operations in France, Singapore, and Canada, CEA-Leti and CNRS spin-off Quobly is ready for full-scale manufacturing.

Maud Vinet, CEO and co-founder of Quobly, said that safe computing environments and trustworthy semiconductor technologies are the foundations of future computing, making the SEALSQ alliance important for practical adoption. The €130 million financing ends European quantum technology's experimental phase and begins a safe, independent future supported by Quobly's silicon-spin architecture and SEALSQ's hardware security.

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Reliance Global Group Advances Post-Quantum Cybersecurity

Reliance Global Group, Inc. (Nasdaq: EZRA) is positioning its strategic investment, ENQUANTUM Ltd., to lead a major infrastructure transition as the digital economy approaches "Q-Day," when quantum computers can break encryption. In a recent operational update, the company revealed a huge technological milestone, signaling that quantum-resilient security is being implemented.

Emerging “Q-Day” Threat

National quantum computer development caused this shift. These massive computers may break many of the encryption methods that protect international banking systems, government communications, and crucial infrastructure. Industry researchers say such a hack might start a multi-billion-dollar cybersecurity upgrade cycle.

ENQUANTUM develops post-quantum security technologies to combat these threats. The company provides secure low-latency networks that can withstand quantum attacks using next-generation encryption in high-performance designs.

Federal Validation and CHIPS Act

The U.S. Department of Commerce recommended roughly $2.013 billion in CHIPS and Science Act incentives this week, emphasizing this technology's strategic relevance. These funding support private and domestic foundry infrastructure and quantum computing efforts.

Reliance Global Group said this federal program shows the need for quantum preparedness is expanding. Government legislation, firm cybersecurity strategy, and large-scale investment are making post-quantum migration a business priority.

An Early Adoption Strategy

Reliance Global Group invested in ENQUANTUM for long-term strategic reasons, not excitement. Ezra Beyman, Reliance's chairman and CEO, said the company took its position before the recent public interest rise.

Beyman remarked, “We are not just chasing market momentum.” He said the organization finds and expands high-impact technology platforms through active operational participation and disciplined resource allocation. The goal is to make quantum-resilient cybersecurity a post-quantum infrastructure requirement.

New Era Infrastructure Encryption

Enquantum's technology is optimized for high-demand environments. Moshe Fishman, Senior Vice President of Strategic Ventures at Reliance, believes post-quantum cryptography is becoming increasingly important as governments and financial organizations analyze their vulnerabilities.

The ENQUANTUM method is for infrastructure-grade encryption that requires scalability and high throughput. Thus, it is particularly relevant for:

Sensitive financial systems need instant transaction security.

AI infrastructure operators face huge pressures. Telecom and other digital networks necessary for the task. Fishman believes the business is only beginning one of the largest cybersecurity infrastructure upgrades in decades.

Reliance Ecosystem Overall

Even though ENQUANTUM represents a big technology investment, Reliance Global Group remains an InsurTech leader. Through platforms like RELI Exchange and 5minuteinsure.com, the firm uses AI and cloud technology to transform insurance broking.

ENQUANTUM is managed by Reliance's strategic growth platform EZRA International Group. This division intends to improve its core insurance business, expand its market reach, and create long-term shareholder value by buying majority shares in fast-growing technology and life sciences enterprises.

Handling Geopolitical Issues

Despite the optimism, significant challenges remain to secure the post-quantum economy. The company acknowledges that ENQUANTUM is in the lab and early validation stages and that these technologies may not be commercially viable or broadly accepted.

Geopolitics pose serious threats. Due to its business and interests in Israel, the corporation must manage the risk of regional instability and violence affecting supply chains, communications, and development. The business also faces fierce competition from cash-rich and government-backed rivals.

Conclusion

As “Q-Day” approaches, the fight to protect digital assets intensifies. Reliance Global Group wants to use ENQUANTUM to exploit a systemic weakness. They are leading a global upgrade that will define post-quantum economy security by focusing on low-latency, high-performance security solutions.

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IBM Funding $10B in Fault-Tolerant Quantum Computing

IBM (NYSE: IBM) launched the industrial quantum age with a $10 billion five-year commitment. This investment injection is designed to advance the company's strategy beyond its current accomplishments by funding the first large-scale, fault-tolerant quantum computers and guaranteeing that quantum leadership remains in the US.

The five-year investment strategy includes R&D, capital spending, manufacturing scale, ecosystem collaborations, and strategic M&A. IBM expects these funding to advance quantum technology beyond commercial systems to solve the world's biggest science and business concerns.

Beginning of Quantum Era

IBM Chairman and CEO Arvind Krishna said technology has changed and the quantum age is here. Krishna says IBM quantum technologies are being used by partners and clients worldwide to do activities that were inconceivable a few years ago. This $10 billion investment aims to enable the next generation of manufacturing, software, and hardware to keep up with rapid innovation.

Toward Fault Tolerance

Starling, Bluejay. This endeavor focuses on fault-tolerant quantum computing, which can execute complex large-scale algorithms. Unlike present systems that are prone to “decoherence” and sensitive to ambient noise, fault-tolerant systems can rapidly detect and rectify errors.

IBM Quantum Starling, the first large-scale, fault-tolerant quantum computer, is expected in 2029. IBM has a clear plan. With 200 qubits, Starling can perform 20,000 times more operations than present systems. This milestone will build IBM Quantum Blue Jay, a huge system with 2,000 qubits and 1 billion quantum operations. These advances should enable quantum computing to solve difficult financial modeling, energy grid optimization, and chemical simulation problems.

Infrastructure and Production at Anderon Foundry

IBM is majorly extending its manufacturing footprint to achieve this. The company revealed plans for Anderon, the first pure-play quantum wafer foundry, with US Department of Commerce support. IBM is contributing $1 billion in cash and its huge intellectual property, material assets, and skilled labor to the endeavor. This foundry will be crucial to securing the quantum supply chain and growing quantum hardware production.

Showing Quantum Advantage 2026

IBM expects to demonstrate quantum advantage in 2026, not 2029. Quantum advantage occurs when a quantum computer performs a valuable task better than a classical one. Recent scientific studies demonstrate this advancement. With the Cleveland Clinic and RIKEN, a 12,635-atom protein was modeled, and national laboratories modeled realistic magnetic materials. By characterizing a new chemical with IBM systems, researchers have proven quantum computers' usefulness.

Global Fleet and Software Leadership

IBM has the largest fleet and the industry's largest quantum foundation with over 90 quantum devices deployed globally via cloud and specialized on-site deployments. Additional York, Germany, Japan, South Korea, Spain, and Quebec have these systems, and Chicago and the Amaravati Quantum Valley in India will have more.

IBM Qiskit, the industry standard, is used by around 70% of quantum developers. Developers have ran over 4 trillion quantum circuits on IBM hardware using this open-source stack. The $10 billion investment will fund networked quantum system research, the quantum computing internet, and this software.

Ecosystem Scaling

The funding also supports the IBM Quantum Network, which includes over 340 academic, healthcare, and financial institutions. Clients researching quantum applications have paid IBM around $1.1 billion since 2017. This network pursues algorithmic trading, medical research, and portfolio optimization while doing real-world tasks.

As it grows these algorithms and applications, IBM remains committed to accountability, transparency, and trust. Developers and corporations wishing to enter the market can access more than 100 qubit systems and top-expert education through the IBM Quantum Platform.

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Microsoft Majorana 2 Chip Targets 2029 Quantum Future

Microsoft Majorana 2 Chip

Microsoft announced the Majorana 2 processor, its next-generation quantum technology, shocking the computing world. Re-engineering qubits and using AI, the company claims stability benchmarks thought decades away. Microsoft has cut its commercial timeframe in half and plans to construct a scalable, fault-tolerant quantum computer by 2029 thanks to this engineering feat.

From Aluminum to Lead: AI-Driven Material Swap

In the global quantum supremacy race, Google and IBM have focused on trapped ions or superconducting loops. Microsoft supports the “topological” approach, which “weaves” quantum data over physical structures to protect it from external disturbance.

The key challenge to this method has been creating Majorana Zero Modes (MZMs) at ultra-thin superconducting nanowire extremities. Majorana 1, Microsoft's previous hardware, featured an aluminum-based superconductor stack. Majorana 2 was a scientific breakthrough, but its quantum states were fragile.

Microsoft engineers employed AI discovery agents to simulate and test hundreds of thousands of material combinations to overcome these limits. The material stack was completely reworked using AI-assisted research to replace aluminum with lead. In addition, the semiconductor active region received a complex composite quantum well of indium arsenide and antimonite.

Qubit Reliability Jumps 1,000x

This transformation in substance has been revolutionary. By directly coating the unique composite quantum well with lead, the team more than doubled the "topological gap"—the energy barrier that shields quantum information from thermal and magnetic noise

The impact on real-world performance is remarkable. In the aluminum-based Majorana 1 architecture, qubit lifespans were limited to 1-12 milliseconds. Lead-based Majorana 2 qubits last 20 seconds on average, while certain test configurations last over a minute.

This improves hardware dependability 1,000-fold. Durability is critical for quantum calculations since qubits must stay coherent for millions of logic operations. Microsoft increased the lifetime of quantum error correction (QEC) from milliseconds to tens of seconds, removing the fundamental barrier to commercial scale.

Multi-Tetron Scalable Architecture

Majorana 2 will be a complete multi-qubit array, not merely a lab experiment. The processor architecture relies on "tetrons" topological qubits made of two superconducting nanowires with MZMs at their ends.

Digital data is stored via electron parity, which defines whether a topological conductor wire has even or odd electrons. Microsoft employs measurement-based control to protect these sensitive qubits. Digital pulses, not energy pulses, connect and separate microscopic “quantum dots” from nanowires.

The device can read electron parity in a “single shot” by reflecting microwaves off quantum dots. Because calculations are separated into sequences of non-destructive parity measurements, the Majorana 2 architecture is designed for quantum error correction, which is essential for real-world computers.

DARPA Validation and Utility Path

DARPA has thoroughly studied Microsoft's strategy's technological feasibility. In DARPA's Underexplored Systems for Utility-Scale Quantum Computing (US2QC) program and Quantum Benchmarking Initiative, a select group of national lab experts, including Los Alamos and Lawrence Berkeley, analyzed Microsoft's designs.

After Microsoft's topological architecture proved it could create a utility-scale computer in a reasonable period, DARPA and Microsoft agreed to build a fully functional, fault-tolerant prototype. Microsoft is one of two companies to pass DARPA's rigorous final examination.

Future: 2029 and Beyond

Creating a scalable quantum computer by 2029 is important. A device with “quantum utility” might optimize industrial carbon footprints, recreate life-saving chemical reactions, and open new clean energy sectors.

“We proved it was possible by overcoming the physics obstacles in Majorana 1,” said Microsoft's Corporate Vice President of Quantum Hardware and Technical Fellow Chetan Nayak. “We solved the huge engineering hurdle of producing topological qubits with Majorana 2.

Majorana 2 proves that quantum usefulness is possible in this decade despite the engineering challenges of developing a revolutionary, fault-tolerant quantum computer. The AI-accelerated, lead-based jump by Microsoft signifies a real and historically significant shift in the timescale of human discovery in a field with many “years, not decades” promises that rarely come true.

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CEA and TGCC Lead Europe’s Quantum Technology Future

The CEA's Very Large Computing Center (TGCC) hosted the European Forum on Quantum Computing and Semiconductor Technologies, marking a new technical independence age. Beyond government leaders, the Prime Minister, President of the Republic, and others attended. Academics, business leaders, and public and commercial partners accelerate European technical sovereignty.

A Symbolic Global Innovation Fortress

This forum was hosted at the TGCC for symbolic and tactical reasons. One of the continent's largest HPC infrastructures links basic research and industry applications. France and its partners seek to compete with world superpowers by bridging laboratory breakthroughs and autonomous industry skills.

The President of the Republic stressed in his introductory remarks that the TGCC's quantum processors and exascale supercomputers are no longer academic pursuits. He called them the “bedrock of future national security and economic vitality.” He also noted that the CEA site demonstrates a unique French ability to seamlessly combine military and civilian areas, ensuring that progress in one area benefits the other.

Importance of “Scaling Up” Geopolitics

Geopolitical urgency characterized summit roundtable sessions. Given the US and China's unrelenting surge in crucial digital industries, European authorities concluded that relying on external suppliers for essential digital components poses an existential threat to European sovereignty.

“Scaling up” was the forum reaction. The President called for a major investment boost and a stronger “European preference” in crucial areas, changing Europe's attitude to critical technologies. This thesis states that Europe must control, compute, and create the “bits and atoms” of the future to sustain long-term independence.

Future Reinvestment: Billion Euros

With the France 2030 plan, the French government will invest 1 billion euros on this goal. This capital infusion aims to “supercharge” national strategies by accelerating the semiconductor and quantum sectors worldwide.

This financing expands the 2021 1.8 billion euro national quantum technology strategy. Since its start, such momentum has spawned a fast developing ecosystem with high-growth enterprises, PhD research, and specialized training programs. France is supporting the Advanced Semiconductor Technologies PIIEC (Important Project of Common European Interest) with 550 million euros. Many European countries are participating.

Bridge the “Valley of Death”

European struggles to move from lab to market were discussed throughout the debate. Michel Devoret's 2025 Nobel Prize in Physics shows that the continent has struggled during industrialization despite its leadership in basic science. Many promising firms fail to shift from prototype to mass production in the "valley of death."

To address this, the CEA is improving its collaborative facilitation. The CEA is coordinating the interests of multinational corporations, venture-backed startups, and doctoral researchers to create a coherent innovation pipeline. This ecosystem strategy provides a direct, secure road to European and international markets for photonic quantum computing and nanoscale semiconductor breakthroughs.

Physical Milestones: “Lucy” to “Alice Recoque”

European conditions are already seeing the effects of this unified strategy. Recently, France has made significant technical advances, as the summit noted:

The “Lucy” Delivery: Quandela brought the world's most photonic quantum computer to the TGCC for GENCI and EuroHPC.

The continent's computational toolset has expanded with the advent of the Jade and Ruby quantum computers.

Eviden will develop “Alice Recoque,” the new European Exascale supercomputer, for the Jules Verne consortium and EuroHPC JU.

Semiconductor Pilot Lines: The FAMES pilot line opened in early 2026, connecting industrial testing and semiconductor development.

These infrastructures form the heart of a self-sustaining innovation chain that reduces hardware dependence. The CEA manages them.

The New Doctrine: “European Preference”

The forum showed a shift toward stronger economic diplomacy. The President stressed prioritizing indigenous solutions in important industries and public procurement in his speech. This “European preference” discourages heavily subsidized foreign competitors from outcompeting domestic firms to ensure that European tax euros directly fund the European digital ecosystem.

The event reinforced the idea that digital independence is important for global political relevance by treating computing and semiconductor capabilities as strategic priorities like energy and military.

In conclusion

As the European Forum on Computing, Quantum, and Semiconductor Technologies ended, Bruyères-le-Châtel stressed that technical sovereignty is the power to develop at the global border. CEA and Very Large Computing Center achieve this. Late May investments are the latest step in a long-term commitment to autonomous, robust, and high-quality European technology. TGCC leaders believe Europe must establish its own digital future to secure its future.

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Q BIOMED Inc News Advances Quantum Innovation in Healthcare

Q BIOMED Inc News

The Chancellor announced a major quantum technology investment, ushering in a new age in healthcare innovation and a milestone for UK science and medicine. Q-BIOMED received £902,000 from the Engineering and Physical Sciences Research Council (EPSRC) as part of a £13.8 million package for the five National Quantum Research Hubs. The Accelerating Capability Fund funds the government's National Quantum Strategy to accelerate quantum research from lab to clinic.

The Q-BIOMED Hub seeks to fund six focused work packages with five university partners. These efforts aim to boost the Hub's ability to supply clinically targeted quantum technologies that answer the most pressing healthcare needs.

Shortening the Gap: Clinical Needs Q-BIOMED's strategy goal is to stimulate technological innovation by real, high-value clinical requirements, not technical potential. To do this, this contract supports a comprehensive clinical needs mapping exercise with UCLPartners.

The study seeks to discover areas where current diagnostic and monitoring technologies fail patients and healthcare providers. A “clinically grounded view” of quantum sensing's potential will be developed by the Hub by identifying areas where more accurate or sensitive measurements could improve clinical decision-making. This plan promotes patient outcomes and NHS efficiency through funding and research. Front-line medical staff benefit from Q-BIOMED's early emphasis on real-world adoption.

Quantum biotechnology and singlet oxygen detection

New quantum sensing and biotechnology partnerships with Glasgow University are another development driver. World-class photon counting technology, time-resolved singlet oxygen luminescence detection (TSOLD), benefits this relationship.

Reactive singlet oxygen is essential to many biological processes. Glasgow and Heriot-Watt University academics will collaborate with Q-BIOMED to study singlet oxygen production in innovative organic photosensitizers in various biological media. This project will provide a library of singlet oxygen lifetimes for complex dosimetry in chemical synthesis, laser therapy, and water treatment. TSOLD can also be integrated with other quantum modalities such NV diamond nanoparticles.

Transforming Sleep Medicine and Neurophysiology

Additionally, quantum sensing could change sleep research and treatment. UCL researchers have used EEG data and contrastive learning to accurately differentiate sleep stages like NREM vs REM. A new cooperation with Sussex University will add an optically pumped magnetometer (OPM) platform to the Hub to establish a “minimal-hardware pathway” for sleep neurophysiology.

The first proof-of-concept research will identify and explain sleep signals using a few OPM sensors. Quantum technology's improved bandwidth and sensor optimization may reveal new biomarkers, experts say. Future clinical study on neurodegenerative diseases like Parkinson's and Alzheimer's, where sleep habits often predict disease progression.

Enhancing UHF MRI

Clinical researchers interested in disease origins desire greater brain imaging resolution. Sub-millimeter visibility is achievable with ultra-high-field 7 Tesla (7T) MRI, however magnetic field distortions sometimes degrade image quality.

Q-BIOMED and Cambridge are implementing OPM-based field-probe scanning based on Copenhagen proof-of-concept work. While scanning, these probes may compensate for aberrations by providing a genuine gradient reading. Most importantly, the Hub is making this technology fully open-source so that all UK ultra-high-field MRI facilities can benefit. This effort should lay the groundwork for the next National 11.7T MRI system.

SuperMultiplex Diagnostics

In diagnostics, overlapping symptoms require speedy, tailored treatment, which the Hub is addressing. Current quantum-enhanced lateral flow investigations using diamond NV centers have shown 1,000–100,000-fold detection limits increases over gold nanoparticles. However, employing nanodiamonds to create “multiplexed” diagnostics tests that identify multiple biomarkers is difficult.

Molecular nanoparticles are used in a new Glasgow University cooperation to bypass this constraint. These systems' "intrinsic chemical tunability" allows them to identify several biomarkers in one sample. This could reduce patient samples, save staff time, and speed up diagnosis.

Understanding Cells using Quantum Reporters

The money also creates quantum reporters for organoid morphology in an innovative Oxford University research initiative with Professor Harrison Steel. Traditional organoid imaging uses intrusive fluorescence microscopy, which may not be ideal for long-term research.

Magnetically triggered reporter proteins will enable non-invasive real-time cellular process assessment in live systems with these unique sensors. Temperature, mechanical strain, and reactive oxygen species can help scientists understand tissue change and disease development in complicated biological contexts.

A Strategic UK Healthcare Prospect

These six interdisciplinary work packages reinforce Q-BIOMED's strategic commitment to clinically-driven technical innovation. This latest round of funding strengthens imaging, diagnostics, and biological reporting to keep the UK at the forefront of quantum biomedical research. These initiatives aim to make quantum-enabled care possible for the NHS and improve health.

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Liangkun Technology Raises Major Quantum AI Funding

Quantum computing and AI pioneer Liangkun Technology completed hundreds of millions of RMB in angel and angel+ rounds of investment. This crucial investment round was led by Inno Angel Fund and included Guoqi Investment, Beigong Investment, BV Baidu Ventures, Tsinghua Alumni Fund, and Mingshi Venture Capital. Light Source Capital was the sole financial adviser for this fundraising series.

The investment shows that the IT community recognizes quantum computing's importance for AI for Science. AI is strong at spotting patterns, but data "resolution" sometimes restricts its possibilities. If the data is inaccurate, AI models in complicated fields like chemistry, medicine, and materials science will be severely hampered. Quantum computing is ideal for modeling molecular structures and chemical interactions because its high-precision solver follows physics.

An Academic and Industrial Founder

André Dingshun oversees Liangkun Technology since its January 2026 foundation. He has advanced research and industrial application experience. Prior to founding Liangkun, Rodríguez directed quantum computing research at ByteDance's AI4S Lab and Huawei for seven years. He was one of the first quantum computing Ph.D. candidates at Tsinghua University and developed ion-trap quantum computer devices.

The tagline “software first when hardware is insufficient” encapsulates Rodríguez's approach. He feels a heterogeneous intelligent computing platform is most useful right now, even though quantum hardware is still emerging and its technological path is unclear. The application layer's limited quantum computing resources are optimized by this platform's HPC, AI, and quantum technologies.

Overcoming the Divide with Quantum OS

Quantum Liangkun Technology sees itself as the missing piece. Despite many enterprises focusing on technology and customers seeking scientific answers, algorithms and software tools to integrate the two are scarce. Liangkun aims to be the quantum computing OS.

The “intermediate layer” is about architectural survival, not merely programming. Due to errors, quantum computing algorithms must be short and effective. In quantum computing, an inefficient algorithm may not execute, but in GPUs, it may cost more. Rodriguez's team aims to develop scientific agents by combining industry procedures, AI models, and quantum algorithms.

Challenge “Quantum Supremacy” and reach SOTA

Finding solutions to “big” difficulties defines Dingshun's journey. His Huawei team spent a year modeling a Google-reported 10,000-year job on a classical computer with standard GPUs. They debunked Google's “quantum supremacy” claims by showing that algorithm optimization could finish the assignment in months or days.

However, applying neural networks to the Hubbard model and attaining SOTA (State-of-the-Art) high-temperature superconductivity interested him more. While past research suffered at the fourth decimal point, his approach worked at the second. This method solves the Schrödinger equation using the “variational principle” and can be used for chemical and material challenges.

Commercialization and “Fourth Model++” Three key client groups are handled by Liangkun Technology:

Institutions and state enterprises: Quantum skill development and algorithm refinement.

Industrial Customers: Semiconductor and pharmaceutical R&D companies that value results and cost over computing power. Hardware manufacturers: Companies that make hardware and need professionals to design their operating systems and application ecosystems. Standardized scientific discovery cloud service platforms, high-precision data synthesis, and CRO-style solutions are used in the flexible delivery method. According to Rodríguez, users will be able to schedule quantum "skills" and interact with complex systems using natural-language agents in the future, without understanding the hardware or algorithms.

Rodríguez calls the current era “Fourth Model++ Science”. Even as quantum hardware advances, breaching the accuracy ceiling with quantum computing and changing efficiency boundaries with AI is the immediate path forward.

Building a Motivated Team

About 40 high-performance computer, AI, and quantum physics experts work for Liangkun. This includes “genius teenagers” from Tsinghua University and talented national competition training squad members. Rodríguez emphasizes the need for a strong, flawless team for quantum computing, a "systematic project." His top recommendation for this premium talent pool is high morale, as they are ready to fight “tough battles” with Google and IBM.

[govindhtech]

Pusan National University Wins Global Quantum AI Challenge

Pusan National University Beats Top Universities in Denmark Quantum AI Challenge

South Korean technology and academia reached a milestone when PNU's research team won the Global Quantum Innovation Challenge, the world's top quantum AI competition. The May 27, 2026 Copenhagen triumph changed the pharmaceutical and life sciences quantum dominance competition worldwide.

A Struggle to the Top

The July 2025 competition used quantum computing and quantum-inspired algorithms to solve biopharmaceutical industry difficulties. The challenge attracted top worldwide minds over almost a year as it went through three challenging rounds.

Last November, Team PNU was named one of the top five global finalists along with esteemed research groups from the US, Germany, the UK, and India. The team was invited to present their findings at the European Quantum Technologies Conference (EQTC 2025), Europe's largest bilateral quantum technology academic conference, confirming their skills.

In the last round, Pusan National University, UCLA, and Imperial College London fought hard. PNU won the most points for its completeness, quantum computing's real-world practicality, and the model's direct applicability to life sciences and pharmaceuticals.

Transforming Drug Development with Quantum AI

Team PNU tackled a major pharmaceutical industry bottleneck: anticipating safe and effective medicine doses under Professor Hwang Won-joo of the Department of Information and Computer Engineering. Doctor Jeong Sun-geun helped significantly. The authors focused on Phase 1 clinical trials, where determining the right human dose is notoriously challenging.

The team won with a Quantum AI Hybrid Model. This complicated system combines quantum computing with classical neural networks. This hybrid technique allows the AI to learn and grasp deep nonlinear relationships between medicine concentrations and physiological reactions that conventional statistical methods cannot capture.

Industry experts say the PNU model is good at capturing inter-individual variability, a major clinical safety issue that relates to how different people react to the same medication. Team PNU shown that quantum computing may transform clinical trials by using quantum technology to address pharmaceutical concerns.

A New Regional R&D Collaboration Model

Beyond technical achievement, Busan's global research cooperation agenda applauds this success. A robust support network from the Danish Embassy's Innovation Center (ICDK), Pusan National University Anchor (formerly RISE) Project Group, and Busan Metropolitan Government helped Team PNU succeed.

Busan began creating global networks in 2024, first in smart city technology and then in quantum. This victory shows Busan's global quantum AI research leadership, according to Acting Mayor Kim Kyung-deok. By developing a "quantum technology ecosystem," the local government alerted localized researchers of global contests and gave them the resources to participate. He added the city will encourage cooperative research with top international universities to help locals thrive and conduct top research.

Future prospects and global impact

PNU took home more than a trophy at the Global Quantum Innovation Challenge. Success lets the team work with Pharma giants like Novo Nordisk, a competition host, and use top supercomputers.

Professor Hwang Won-joo thanked the Danish Embassy and Busan for their help, adding “strong international cooperation” was necessary for these international accomplishments.

Pusan National University shows that South Korean provincial universities are becoming more competitive in high-tech fields. PNU's win suggests that South Korea, especially Busan, can lead the next wave of digital and biotechnological innovation as nations rush to construct quantum AI for industrial dominance.

[govindhtech]

NSF Leads U.S Quantum Internet Infrastructure Development

Quantum Internet Infrastructure

For years, the internet has been founded on the idea that information is binary. This conventional framework has enabled cloud computing, instantaneous communication, and international trade, propelling the digital age. But a major model change is coming. New interconnectedness is driven by quantum physics' complex, paradoxical rules, not bits. National Science Foundation (NSF) is leading a large-scale national infrastructure program to transfer quantum networks from remote physics facilities into the commercial sector. By combining powerful quantum computers with sensitive quantum sensors, these networks promise to unlock technical powers hitherto only seen in science fiction.

Beyond the Binary: What Defines a Quantum Network?

Quantum networks are revolutionary, thus data storage and transport must be examined. A bit is always 0 or 1 whether transmitted over Wi-Fi or fiber-optic in the traditional internet. However, quantum networks use “qubits.” Since quantum physics controls qubits, superposition and entanglement are extraordinary.

Allowing qubits to be 0, 1, or any mathematical combination of both enhances data capacity. Einstein called entanglement “spooky action at a distance” when two or more particles become coupled. A state change in one entangled qubit affects the other instantly, regardless of distance. These events speed up data transmission and change data behavior in quantum networks, offering unmatched cryptographic security and computing synchronization.

A Revolution's Foundation

Fifty years of basic physics research underpins the scalable quantum internet project. John Clauser, Alain Aspect, and Anton Zeilinger's 2022 Nobel Prize in Physics discovery of quantum entanglement changed everything. Quantum communication was enabled by long-distance particle transmission.

The 1982 No-Cloning Theorem states that one cannot duplicate an unknown quantum state. Because quantum information cannot be copied or intercepted without change, quantum networks are secure. In the mid-1980s, macroscopic superconducting circuits showed quantum activity, suggesting enormous artificial systems may behave like quantum objects. Today's quantum memory hardware nodes were inspired by his 2025 Nobel Prize in Physics discovery. Quantum teleportation and Bose-Einstein condensates, which collect sensitive data without collapsing, are other key innovations.

Actual Effects: Computing and Sensing

This technology is employed in advanced research, logistics, and public safety. One of the most anticipated developments is quantum sensing. If connected via a quantum network, quantum sensors can work in perfect synchronization regardless of location. This combination enhances Earth's gravitational and magnetic field measurements.

This provides GPS-free, exact position. First responders, military personnel, and deep-sea explorers might navigate satellite-dark zones like undersea settings, tight urban canyons, and collapsed tunnels utilizing the planet's local gravitational fingerprints. Quantum networks will let discrete quantum computers share computational power. By using several quantum computers, scientists can recreate complex chemical reactions quickly. This might speed up materials science to generate next-generation solar cells and reduce drug development time from decades to days.

Solving the Distance Issue

Despite these successes, developing a national network presents new problems. Quantum states are fragile and can be destroyed by “decoherence,” induced by minute temperature or vibration changes. Quantum signals degrade quickly in fiber-optic cables or the open air.

Electronic amplifiers simplify traditional network signal enhancement. Since the No-Cloning Theorem prevents quantum data cloning, conventional amplifiers cannot be employed. Researchers are developing “quantum repeaters” to close this gap. Quantum memories, these intricate relay stations capture, store, and retransmit delicate quantum states across vast distances without deleting data. The NSF is investing heavily in these repeaters to integrate satellite-based quantum links and eliminate ground-level fiber impediments.

Ecosystem and Job Growth

From academic cleanrooms to municipal infrastructures is the last quantum revolution frontier. Existing regional test beds demonstrate this. The “QuantumGrid” project involves testing quantum signals in subsurface fiber-optic cables near Chattanooga, Tennessee, to improve the electricity grid. By testing a real quantum network using urban fiber infrastructure, New York scientists verified entanglement dispersion in a metropolitan scenario.

As infrastructure develops, skilled workers are needed. Training programs are growing fast at NSF Quantum Leap Challenge Institutes and other initiatives. The Hybrid Quantum Architectures and Networks (HQAN) hub has trained over 150 professionals and thousands of K–12 students to develop a talent pipeline. The University of Tennessee at Chattanooga developed the first US quantum pre-apprenticeship program for IT and logistics personnel.

Federal policies democratize access to avoid financial and geographic monopolies. The $100 million National Quantum and Nanotechnology Infrastructure (NQNI) network gives entrepreneurs open-access manufacturing facilities, while the National Quantum Virtual Laboratory lets researchers nationwide operate remotely. These incentives and the $1.5 billion NSF X-Labs project enable independent entrepreneurs to create quantum devices. The quantum internet is becoming reality with new infrastructure.

[govindhtech]

EuroQCS-Spain Launch: MareNostrum 5 Meets Quantum Computing

EuroQCS-Spain

EuroQCS-Spain, a hybrid quantum-HPC system, fosters European quantum computing autonomy and competition.

New infrastructure will be hosted by BSC-CNS under EuroHPC JU. One of Europe's most advanced hybrid computing environments combines supercomputers and quantum computing.

Spain intends to dominate the European quantum ecosystem and reduce its reliance on non-European technologies, as evidenced by the launch.

MariNostrum 5: Hybrid Computing's Future

MareNostrum 5, Spain's flagship supercomputer and Europe's most powerful HPC system, is connected to EuroQCS-Spain. Integrating workloads across conventional and quantum processing environments lets companies and academia execute more complicated simulations.

The system enhances BSC-CNS's digital quantum technologies with analog quantum encoding. According to Spanish government authorities, MareNostrum 5 is one of the first supercomputing infrastructures to integrate classical, digital quantum, and analog quantum computing.

Industry executives think hybrid quantum-classical systems are best for near-term commercial quantum applications. Instead of replacing classical supercomputers, quantum systems are being created as specialized accelerators that solve computational problems faster.

Europe-backed €9.8 million investment

The European Commission and Spanish government committed €9.8 million in EuroQCS-Spain. The Spanish Ministry for Digital Transformation and Public Service donated €4.8 million to the initiative.

The initiative emphasizes European technology sovereignty. The quantum processor and software were solely built in Spain by Qilimanjaro Quantum Tech in Barcelona. European authorities said the research is a major step toward building a European quantum computing supply chain.

The Barcelona Supercomputing Center, one of Europe's top technological research institutions, is housed in the Torre Girona church.

Developing Europe's Quantum Network

EuroQCS-Spain is part of the pan-European EuroQCS network, which links quantum computing equipment in Germany, France, Italy, Poland, and the Czech Republic.

We want to create a networked European quantum infrastructure so public institutions, corporations, and researchers may use computers anywhere.

EuroHPC executives say the project will integrate quantum system testing into academic and business platforms to minimize barriers.

This strategy reflects a broader European technology policy shift. European governments are investing heavily on domestic infrastructure and sovereign semiconductor technologies instead of Chinese or American quantum computing platforms.

Emerging Quantum Ecosystem in Spain

The EuroQCS-Spain debut is not unique. Spain has invested much in quantum technologies in the previous two years.

Spain said earlier this year that it will invest €9.75 million in a Nu Quantum affiliate. The project recruits top IT talent to build safe, scalable quantum communication networks.

The Spanish government has spent €22 million in Quantum Spain to improve quantum infrastructure and give companies and researchers unlimited access. For that, BSC attached a 35-qubit processor to a quantum system.

CESGA, IQM, and Telefónica agreed to install two quantum computers, including a 54-qubit IQM Radiance machine in 2026.

Spanish efforts reveal their intention to lead Southern Europe in quantum computing.

Impact on Business and Industry

The adoption of EuroQCS-Spain affects more than academic research. Healthcare, climate research, materials engineering, logistics, cybersecurity, and AI are relying on hybrid quantum systems.

Industrial simulation, computational chemistry, climate modeling, and AI model optimization could benefit from the new platform.

Quantum accelerators may solve optimization issues supercomputers cannot. Companies are curious. Energy grid balancing, supply chain management, financial modeling, and advanced manufacturing simulations are included.

China and the US are investing considerably in quantum technology, so the deployment helps Europe compete. European governments prioritize infrastructure over Google, IBM, and IonQ to reduce technological dependence.

Competition for Technological Dominance European leaders say quantum computing might shape economic and geopolitical power. Recent EuroHPC mandate extensions make quantum technology one of the EU's top digital ambitions.

That ambition is shown by Spain's rising participation. Integrating quantum systems with HPC infrastructure is creating an environment for research advancement and corporate commercialization.

Analysts say EuroQCS-Spain's hybrid model could inspire global quantum deployments. Instead of waiting for fault-tolerant quantum computers, governments and corporations are integrating quantum accelerators into present computing systems.

Spain is introducing EuroQCS-Spain for more than technical reasons. It reflects the nation's desire to become a long-term strategic player in Europe's quantum economy.

[govindhtech]

University of Hawaiʻi News: $600K NSF Quantum Project Grant

University of Hawaiʻi News

The University of Hawaii in Mānoa received a $600,000 NSF grant for quantum technology research. This three-year program from June 2026 to May 2029 will shape the state's worldwide innovation leadership. The effort to apply quantum mechanics to the Pacific region's and the world's biggest issues is led by Electrical and Computer Engineering Assistant Professor Bo-Han Wu.

Science of Smarter Sensor Networks

Creating smarter quantum sensor networks is the focus of this research. Quantum sensors can detect minute changes in temperature, light, and electromagnetic activity more accurately than conventional technologies. However, quantum signals are fragile and easily affected by outside “noise” or environmental influence, making this field difficult.

Dr. Wu's group is using machine learning and AI in sensor networks to solve these problems. The project uses quantum science and advanced algorithms to create more stable, reliable, and condition-adaptive systems. The NSF's Foundations of Emerging Technologies program prioritizes cutting-edge research with long-term national significance, and Professor Hyeongrak Choi of Stony Brook University is involved in this cooperative endeavor.

A “Living Laboratory” for Resilience in Hawaiʻi

The research is more than academic for Hawaii people. Remoteness, extreme weather, and geological activity make the state a live laboratory for resilient infrastructure testing. Scientists say these delicate sensor arrays could revolutionize planet health and safety monitoring.

These sensors can detect early, minute changes in ocean temperatures and chemical composition, providing unprecedented data to combat climate change in ocean and climate studies. Natural catastrophe early warning systems may depend on them. These networks notify people to tsunamis and volcanic eruptions by detecting tectonic movements or ocean pressure waves before conventional sensors.

Healthcare and Global Communications Transformation The NSF award affects telecommunications and healthcare as well as environmental monitoring. Improved quantum sensing should boost medical imaging precision and resolution. This greater accuracy could improve patient outcomes by helping doctors detect early diseases.

Satellite and wireless networks will be prepared during the study. Quantum-enabled communication links are secure and jam-resistant, so critical infrastructure will work amid extreme weather or local emergencies. With the importance of being connected in Hawaiʻi, perseverance is essential rather than a luxury.

Workforce Development for the 21st Century

The $600,000 investment aims to help Hawaiʻi's economic future beyond scientific achievements. The project aims to create a skilled local tech workforce by establishing UH Mānoa as a quantum engineering hub.

The award will sponsor educational activities like:

Specialized university courses to teach quantum science to more students.

The global distribution of open-source software to academics and students.

Community involvement programs to teach local youth challenging arithmetic and machine learning.

The University of Hawaii hopes to inspire a new generation of leaders in an industry that will likely define the global economy of the mid-21st century by introducing students to quantum phenomena early in their academic careers.

Consumer to Architect

Through NSF-funded research, Hawaiʻi is not just a consumer but also an active architect of new technology, as the tech industry advances towards quantum computing and sensing. Over the next three years, UH Mānoa labs aim to bridge the gap between global environmental challenges and quantum physics.

Dr. Wu stated that the effort aims to turn these technologies from “theory into tools.” The islands' "Quantum Resilience" will set a new international innovation standard with the National Science Foundation's help and the UH engineering department's cooperation.

[govindhtech]

QuDef Launches SQOUT for Advanced Quantum Threat Detection

Quantum communication technology is moving from research labs to national infrastructures and worldwide satellite networks, posing security challenges. QuDef, a Delft-based quantum security business, launched SQOUT, the first Quantum Threat Intelligence and Security Assessment platform, today.

The platform's release fills a “critical gap” in the deployment cycle, marking a turning point for quantum key distribution (QKD) and quantum communication systems. Although quantum protocols such as BB84 and MDI-QKD are praised for their theoretical security, practical implementations have repeatedly proven susceptible to complex physical and protocol-level attacks.

Contradictions between theory and reality

QKD's promise has long been based on physics, which theoretically detects any attempt to eavesdrop on quantum communications. QuDef's internal data reflects a more complex operational reality. The company says that SQOUT detected undiscovered or uncontrolled vulnerabilities in 100% of QuDef's QKD systems.

Because they were designed for bit-based networks, conventional cybersecurity tools are oblivious of quantum technology's flaws. Trojan horse, detector blinding, side-channel, and assumption violations are examples. “Quantum communication has moved out of the lab,” said QuDef CEO Bob Dirks. The EuroQCI effort, Eagle-1 quantum satellite, and enterprise networks handling some of the world's most sensitive data are using it.

Dirks said the technology is ready for application, but CISOs, regulators, and red teams don't have a method to treat quantum security as a continuous risk-management process instead of a static research challenge.

A Platform for Unified Intelligence

SQOUT is intended to provide a unified operational interface for a variety of stakeholders to model evaluate and defend these developing networks. Specialized modules cover security lifecycle stages on the platform:

QBuilder: Architectural quantum communication network modeling.

QAnalyser: To find implementation risks and exploitable flaws.

QKill: Simulations and attacks.

Future Roadmap: QuDef will add QNetwork, QAssessment, and QCompliance for long-term auditing and regulatory workflows.

These technologies enable engineering and security teams to model intricate architectures including optical electrical and protocol-level components, and convert detected attack vectors into prioritized workable mitigations. This lets companies focus on “operational reality” rather than theoretical security when safeguarding hardware from new attack vectors.

Helping the Quantum Ecosystem

Introduction of SQOUT targets a wide range of the emerging quantum market. It helps security teams and CISOs confidently acquire and operate QKD infrastructure. It helps national authorities and certifying organizations set strict critical infrastructure assurance criteria.

Furthermore, QKD providers and integrators may utilize the platform to harden their products before they go on sale, and red and blue teams may broaden the scope of their traditional cybersecurity to include the physical layer of quantum systems.

To enable wider adoption and industry transparency, QuDef has launched a free open-access version of the platform at sqout.qudef.com that previews its basic capabilities.

Independence and Deployment

Due to the sensitivity of quantum data, QuDef offers SQOUT through multiple deployment strategies. QuDef's secure online infrastructure provides SaaS for typical company needs.

However, QuDef offers an On-premises Virtual Machine deployment for classified and sovereign situations where air-gapped security and data residency are critical. For clients who need additional understanding, QuDef offers “SQOUT as a Service,” where its personnel audit and appraise.

Protecting the Quantum Frontier

After QuDef won a major project for the German Bundestag's (TAB) Office of Technology Assessment, the government's interest in verifiable quantum security has grown.

As we transition to a “quantum-safe” future, experts agree that theoretical security is insufficient. QuDef connects abstract principles to the actual need to protect commercial and national data. The company's SQOUT project aims to provide the knowledge and resources needed to secure quantum communication infrastructure.

[govindhtech]

SEALSQ Acquires Miraex SA to Build Quantum Internet Stack

Miraex SA, SEALSQ

SEALSQ Corp (NASDAQ: LAES)'s 100% acquisition of Miraex SA, a leader in post-quantum semiconductors and cybersecurity, changes the global quantum computing business. This strategic acquisition, undertaken by SEALSQ's Quantum Fund (SEALQUANTUM.com), completes the Quantum Sovereign Vertical Stack. This creates an unprecedented “Root-to-Qubit” architecture from semiconductor security to orbital space infrastructure.

Missing Link in Quantum Communication

The acquisition of Miraex, a deep-tech pioneer based at Switzerland's EPFL Innovation Park, provides the quantum connecting layer, the “missing link” in quantum scaling. Miraex's Photonic Integrated Circuits (PICs) use Thin Film Lithium Tantalate (TFLT), a proprietary platform for high-efficiency quantum information conversion.

This technology is crucial for long-distance quantum communication between optical frequencies, the principal channel, and microwave frequencies, the realm of superconducting and semiconductor spin quantum processors. Without this, distributed quantum architectures cannot operate globally. The transition from lab testing to implementation requires Miraex's expertise.

A Complete “Root-to-Qubit” Architecture

With Miraex, SEALSQ has a fully integrated sovereign quantum stack. With this approach, which covers all quantum technologies, hardware, semiconductors, communication networks, and satellites are shielded from quantum-level attacks.

The deal strengthens three SEALSQ vertical domains:

Distributed Quantum Computing (DQC): By connecting disparate quantum processors, distributed quantum computing (DQC) enables the achievement of collective computing power that is greatly beyond the capabilities of any one machine.

Quantum sensing: Photon entanglement yields highly accurate sensing in military, geophysics, navigation, and national infrastructure surveillance.

Quantum Networking: Quantum networking helps build the Quantum Internet and enable global end-to-end Quantum Key Distribution.

Quantum Orbital Space Cloud Enhancement Quantum Orbital Space Cloud (QOSC) impact is one of the acquisition's most ambitious elements. Space's harsh circumstances suit Miraex's TFLT-based photonic circuits. They are compact, energy-efficient, and most importantly radiation-resistant.

These properties are necessary for CubeSat and nanosatellite deployment. After mastering these photonic layers, SEALSQ can provide space-grade quantum connectivity, including orbital quantum sensing-driven early warning systems and large-scale QKD for unbreakable satellite communications.

Strategic Role of Quantum Fund

SEALQUANTUM.com, a board-approved 200 million capital pool project, funded Miraex's acquisition. More than €65 million has been spent on a strong cryptographic and quantum asset portfolio.

SEALSQ's vertical stack includes many strategic entities:

Miraex SA: Quantum communications and photonics.

Integrating post-quantum cryptography and designing ASICs.

EeroQ: Superfluid helium single-electron quantum computing.

Quantum semiconductor production optimization at ColibriTD.

WISeSat.Space: Post-quantum secure LEO satellite constellations.

Quantix Edge Security collaborates on post-quantum semiconductor testing and customization.

Swiss blockchain technology from WeCan Group SA ensures compliance and sovereignty.

These resources create an end-to-end value chain between full-scale quantum processors with chip-level post-quantum cryptography.

Theory to Roadmap: Leadership Vision

SEALSQ President and CEO Carlos Moreira called the Miraex transaction a “historic turning point”. Moreira claims the organization has spent years assembling a sovereign architecture. “The Quantum Internet is no longer a theoretical concept,” Moreira stated. It gives SEALSQ a plan we can implement with partners, clients, and governments.

Miraex CEO and co-founder Daniel Brau called joining SEALSQ the “natural next step” for the company. He noted that SEALSQ's global semiconductor and satellite infrastructure would enable planetary deployment of this notion, and that Miraex's TFLT PIC platform would serve as the quantum ecosystem's “connective tissue”.

Secure Post-Quantum Future

SEALSQ's objective is vital because quantum computers are rapidly developing and threaten RSA and ECC. SEALSQ is developing post-quantum semiconductors for long-term data protection in smart energy, defense, healthcare, and automobiles.

The acquisition of Miraex keeps SEALSQ at the vanguard of this technological transition as the world approaches the "quantum advantage," providing the infrastructure for a safe, connected, and independent quantum future.

[govindhtech]

SEALSQ Buys Wecan Group for Quantum Compliance Major Share

SEALSQ Buys Wecan Group Majority to Accelerate Global Financial Institutions' Post-Quantum AI Compliance Co-Pilot

SEALSQ Corp (NASDAQ: LAES), a leading semiconductor and PKI developer, announced the purchase of a majority stake in Swiss technology business Wecan Group. This strategic commitment follows SEALSQ's 28% investment a year ago and advances the company's efforts to defend the global financial sector from quantum computing dangers.

CHF 5 Million Strategic Commitment

SEALSQ will invest CHF 5 million in this majority purchase to accelerate Wecan Group's next-generation compliance solutions. SEALSQ's internal strategic investment project, the Quantum Fund (SEALQUANTUM.com), uses this money. The fund seeks a fully integrated Quantum Vertical Sovereign Stack by investing in carefully selected European and US cybersecurity and quantum computing enterprises. SEALSQ wants a controlling interest to strengthen its ability to supply post-quantum finance infrastructure and safe, AI-powered compliance tools worldwide.

Reliable Private Banking Partner: Wecan Group

Since Dr. Vincent Pignon created Wecan Group in 2015, it has become a key technology supplier to private banks and financial institutions globally. Notable clients include Pictet, Lombard Odier, Edmond de Rothschild, Syz, and Barclays. The company's main purpose is to help these regulated firms safely streamline their compliance procedures by coordinating the handling of private customer data among over 100 financial institutions in five countries.

Wecan's platform standardizes customer onboarding, “change-of-circumstance” updates, and review procedures. Wecan handles KYC and AML analysis, contract preparation, and account openings for financial intermediaries and fintechs to ensure regulatory compliance with a full audit trail.

AI-Powered Compliance Copilot

With majority support, SEALSQ and Wecan Group intend to deliver an AI-powered Compliance Copilot faster. This technology uses secure post-quantum infrastructure to protect financial ecosystems. Advanced PQC, quantum-resistant HSMs, and safe digital identity frameworks will be incorporated.

We want to give financial institutions and wealth managers a dependable platform that improves sensitive data processing throughout the client lifecycle. Specific technological advancements include:

Digital banking with quantum-resistant signatures and authentication.

Explainable algorithms for trusted AI governance and controlled scenarios.

Homomorphic encryption and secure semiconductors enable data processing and AI confidentiality. Hardware Root of Trust protects financial applications.

WISeKey ecosystem integration

The solid partnership with SEALSQ's parent business, WISeKey International Holding Ltd. (SIX: WIHN; NASDAQ: WKEY), is crucial to this arrangement. The companies will integrate WISeID into digital asset and financial services platforms. This alliance aims to provide sovereign, post-quantum-secure identification solutions for banking and blockchain applications, including digital signatures, identity verification, and safe customer authentication.

WISeID would enable cross-border institutional ecosystem interoperability, secure identity wallets for banking and digital assets, and post-quantum-safe financial client identity verification. WISeKey's Root of Trust architecture and SEALSQ's secure semiconductors ensure hardware-backed authentication.

Meeting the Quantum Threat in Finance

While quantum computers are rendering RSA and ECC more vulnerable, the activity takes place. Many private banks maintain client and transaction data, which is strategically important.

Carlos Moreira, SEALSQ CEO, says financial institutions must combine cybersecurity, compliance automation, and trustworthy AI. “Our majority investment in Wecan Group represents a significant step in SEALSQ’s strategy to bring post-quantum security to the most sensitive sectors of the global economy,” Moreira added. He stressed that blockchain infrastructure must become quantum resilient to retain long-term confidence in the tokenized economy.

Vincent Pignon, Wecan Group's founder and CEO, said SEALSQ is a vital technological partner and majority stakeholder as the company expands. Wecan will provide banks “future-ready solutions” to satisfy the complex client lifecycle through this relationship.

Business outlook and innovation

This transaction improves SEALSQ's position at the intersection of digital identification, regulated financial infrastructure, and post-quantum cybersecurity. SEALSQ pioneers future-proof post-quantum semiconductors for defense, healthcare, automotive, and industrial automation.

SEALSQ, a part of WISeKey, secures the “Internet of Everything,” enabling an ecosystem that has deployed over 1.6 billion microchips in IoT applications. SEALSQ's purchase of Wecan Group shows its commitment to meeting the strictest security and compliance standards of the global financial sector and the tokenized finance market. Visit SEALSQ and Wecan Group's websites to learn more about post-quantum security solutions.

[govindhtech]

Amazon Braket Quantum Starts Rigetti Cepheus-1-108Q Update

Amazon Braket Quantum

On June 1, 2026, Amazon Web Services (AWS) announced a quantum hardware advancement through the AWS Quantum Technologies Blog, written by Zia Mohammad, Charunethran Panchalam Govindarajan, Mike Piech, Rebecca Malamud, Scott Smart, and Yuvraj Mohan. The announcement focused on Rigetti Computing's Cepheus-1-108Q, a 108-qubit superconducting quantum processing unit (QPU). The first gate-based quantum gadget with more than 100 qubits on Amazon Braket is historic.

Amazon Marketplace Rigetti Development

The Cepheus-1-108Q, the third-generation Rigetti hardware hosted on the service, replaced the Ankaa-3. The gadget became widely available on April 7, 2026, although the June update included technical deployment and developer requirements. From the 36-qubit Cepheus-1-36Q machine to this 108-qubit behemoth, quantum technology has scaled quickly.

A Modular Technical Architecture

The Cepheus-1-108Q uses Rigetti's proprietary multi-chip architecture for scalability. The processor is not a single chip, but a 3x4 array of 12 superconducting 9-qubit chiplets tiled into a coherent system. Modularity allowed Rigetti to increase the number of qubits in its earlier models while preserving production control.

IMCs and adjustable couplers connect this multi-chip processor. A transmon qubit square lattice underpins each chiplet. The configuration of each qubit allows it to connect to up to four of its closest neighbors, enabling complex quantum computations.

Strategically Mitigating Errors Using CZ Gates

The Cepheus generation's gate set change is a technological hallmark. Cepheus-1-108Q uses CZ (controlled-phase) gates for two-qubit entangling, unlike earlier Rigetti QPUs like Ankaa-2 and Ankaa-3, which used iSWAP gates.

The industry's future depends on this transformation. Even though iSWAP gates had strong expressivity for the Noisy Intermediate-Scale Quantum (NISQ) period, CZ gates are better for parity-check circuits, which are the foundation of quantum error correction. Rigetti improved performance with an adiabatic CZ gate. This gate solution reduces incoherent and leakage faults, allowing developers to run longer, more intricate circuits with less accumulated error.

High-performance benchmarks

The Cepheus-1-108Q performed well at launch with a median two-qubit gate integrity of 99.1% at gate speeds of 60 nanoseconds. Due to manufacturing variances and environmental noise, superconducting quantum devices often behave differently across qubits, so users should monitor the system's condition.

Amazon Braket supports this with the latest calibration data for each qubit and qubit pair on the device. This data includes readout error rates, single- and two-qubit gate fidelities. Examining this data helps researchers find the algorithm's highest-fidelity qubit subset. Show how a subgraph isomorphism technique selected a high-fidelity 50-qubit chain from the 108-qubit lattice.

Global Access and Availability Models

The hardware is in the US and accessible via AWS's US West (N. California) Region. The device provides 20 hours of quantum job processing per day for global clients.

The Cepheus-1-108Q comes in three categories for different research needs:

On-Demand Access: Regular quantum experiments and activities.

Variational quantum algorithms, which need frequent communication between classical and quantum hardware, are prioritized by Amazon Braket Hybrid Jobs. For uninterrupted hardware time, Braket Direct offers hourly reservations.

Developer Experience and Advanced Research Tools It fits the quantum programming ecosystem. Braket SDK, CUDA-Q, PennyLane, and Qiskit let developers build, test, and run programs.

Complex researchers that need more than high-level gate access can use Braket Pulse. This utility lets users alter qubit analog control signals for pulse-level control. This may aid those studying noise, designing gate sets, or developing error-mitigation methods.

Console Use and Documentation

To begin, use the Amazon Braket Management Console's Cepheus-1-108Q device page to store characterisation data, such as coherence times and connection maps. Users can query these attributes programmatically with Braket Python SDK.

In conclusion, the Rigetti Cepheus-1-108Q on Amazon Braket is a critical step toward gate-based quantum computing at scale. AWS's modular 108-qubit system with error-correction gates is enabling quantum research and development.