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Luxembourg <b>Quantum Computing</b> Companies 2026: Complete Vendor Guide

The leading luxembourg quantum computing companies and institutions in 2026 form an infrastructure-led ecosystem, organised around national computing and communication infrastructure rather than around startups. Luxembourg is small, but it is building serious quantum infrastructure: a national quantum computer, a leading role in European satellite quantum communication, and a national quantum-communication network. Ten organisations define the luxembourg quantum computing companies landscape in this guide: SES, LuxProvide, MeluXina-Q, the University of Luxembourg, SnT, LIST, LuxQCI, LuxTrust, itrust consulting, and LuxConnect. Why Luxembourg’s quantum ecosystem is infrastructure-led Luxembourg’s quantum landscape is infrastructure-led, and it is important to be clear about that. The country does not have a set of homegrown venture-funded quantum-hardware or quantum-software startups. The luxembourg quantum computing companies landscape is built instead from national infrastructure: a national high-performance-computing operator, a satellite company, a national quantum-communication programme, and the research institutions and trust providers around them. What makes Luxembourg distinctive is the scale and ambition of that infrastructure relative to the country’s size. Luxembourg is hosting a national quantum computer through the European high-performance-computing initiative, the Luxembourg satellite operator SES is leading Europe’s first quantum-communication satellite project, and the country has a national quantum-communication network on the ground. The luxembourg quantum computing companies landscape is therefore a small but well-resourced, infrastructure-led ecosystem, using national assets to build quantum capability quickly. A national quantum computer and a satellite Two pieces of infrastructure define the luxembourg quantum computing companies ecosystem. The first is MeluXina-Q, Luxembourg’s first quantum computer, a machine selected under the European high-performance-computing initiative and planned to be hosted by the national computing operator LuxProvide from 2026. It is reported to begin as a small silicon-spin-qubit processor, integrated with the MeluXina supercomputer so that researchers can run hybrid quantum-classical workloads. The second is EAGLE-1, a project led by the Luxembourg satellite

CIO Advisors &amp; Keynote Speakers | Consultant Scott Steinberg

18 Jul CIO ADVISORS, SPEAKERS & CONSULTANTS: TOP CHIEF INFORMATION OFFICER CONSULTANTS Top CIO advisors, keynote speakers and consulting experts point out that AI, IT and data have become the foundation of nearly every modern organization. From cloud computing and cybersecurity to artificial intelligence, enterprise applications, data analytics, and digital transformation, the best CIO advisors point out that technology now influences virtually every aspect of business performance. As a result, the job of the Chief Information Officer has evolved from managing IT infrastructure to becoming a strategic business leader responsible for innovation, operational excellence, governance, and enterprise-wide transformation. To address such increasingly difficult responsibilities, organizations book and hire celebrity CIO advisors. Such experienced professionals provide strategic guidance to execs, CEOs, boards of directors, executive leadership teams, investors, and government agencies. Their expertise helps organizations make informed technology decisions, improve IT operations, reduce risk, and align information technology with broader business objectives. Famous CIO advisors work as keynote speakers, executive consultants, board advisors, fractional CIOs, digital transformation leaders, technology strategists, and executive coaches. All pair technical knowledge with executive leadership experience to help organizations build technology capabilities that support long-term growth and resilience. What Is a CIO Advisor? A futurist CIO advisor is a senior technology executive or consultant who provides strategic advice on information technology, digital transformation, governance, cybersecurity, enterprise architecture, and business technology alignment. Unlike an IT implementation consultant focused on deploying a particular system, a CIO advisor works with executive leadership to shape long-term technology strategy and improve organizational performance. Areas of expertise commonly include: - IT strategy - Enterprise architecture - Digital transformation - Cloud computing - Cybersecurity - Data governance - Artificial intelligence - Technology governance - Vendor management - IT operating models - Business continuity - Innovation strategy Many CIO advisors have previously served as

Is Five Below's (FIVE) 2000th Store Milestone Reframing Its Community-Driven Growth Narrative?

- United States - / - Specialty Stores - / - NasdaqGS:FIVE Is Five Below’s (FIVE) 2,000th Store Milestone Reframing Its Community-Driven Growth Narrative? - Five Below recently marked a major milestone by celebrating the grand opening of its 2,000th store at 299 Commerce Avenue in LaGrange, Georgia, featuring giveaways, games and a limited-edition Neon Squishy Dumpling for the first 200 customers. - The company’s partnership with several metro-Atlanta Boys & Girls Clubs underscores how its rapid store expansion is being paired with local community investment aimed at enhancing kid-focused spaces. - We’ll now examine how this 2,000th store milestone, alongside the Boys & Girls Clubs partnership, may influence Five Below’s existing investment narrative. This technology could replace computers: discover 26 stocks that are working to make quantum computing a reality. Five Below Investment Narrative Recap To own Five Below, you need to believe its value-focused, kid-centric brand can support continued profitable store growth while managing cost and margin pressures. The 2,000th store opening and Boys & Girls Clubs partnership reinforce the expansion story and brand goodwill, but they do not materially change the near term focus on execution quality of new stores as a key catalyst or the risk that rapid growth could dilute new store productivity. The news ties most closely to Five Below’s ongoing store growth and the wider roll out that supported FY2025 sales of US$4,764.2 million and FY2026 sales guidance of US$5,400.0 to US$5,480.0 million. The LaGrange opening highlights how each incremental store adds to that top line target, but it also sits against concerns about potential saturation and cannibalization if new locations do not sustain strong traffic and sales per store over time. But while store number 2,000 is a feel good milestone, investors should also be aware of... Read the full narrative on

Intel's Former CEO Gelsinger Admits Firm 'Scoffed' at NVIDIA's GPUs While Riding High on ...

Former Intel CEO Patrick Gelsinger revealed that his company used to scoff at NVIDIA's GPU when Intel was dominating the industry and CPUs were the mainstay of computing. Gelsinger discussed Intel before his return, his time at the company when it was working with Apple and the impact that hostilities in Taiwan can have on the global economy. The former CEO, who currently has a close relationship with quantum computing company PsiQuantum, also believes that quantum computing can reshape a host of industries before the end of this decade. Intel CEO Patrick Gelsinger Discusses How Apple Founder Steve Jobs Was Farsighted The conversation started out with the former Intel CEO and the All-In podcast's host discussing the state of Intel before Gelsinger took over, and when the firm was working with Apple. Gelsinger criticized Intel's strategy of paying a hundred billion dollars as dividends and remarked that the move was driven by managers with a business background instead of a technical background. "In the five six years before I came back, Intel gave a hundred billion dollars to shareholders," he said. "What I wouldn't have done for another hundred billion dollars on the balance sheet," he added. "It [Intel] hadn't built a new factory in a decade when I got there. It's like you know, how can you not be building? How can you not be buying EUV machines?" said Gelsinger. According to him, only a technologist would have understood the need to buy the new machines and build the factories since the economics behind them were unfavorable. He also recalled working with Apple's co-founder Steve Jobs, whom he called "incredible" and "ruthless." Apple shifted to Intel's processors for its computers in 2005, and Gelsinger used the change to highlight Jobs' foresight. He revealed that Jobs had already been working

Explore NVIDIA CUDA-Q Applications Hub and Academic Library with Amazon Braket

AWS Quantum Technologies Blog Explore NVIDIA CUDA-Q Applications Hub and Academic Library with Amazon Braket Amazon Braket managed notebook instances (NBIs) now include NVIDIA CUDA-Q Applications Hub and CUDA-Q Academic Library launch notebooks, bringing peer-reviewed quantum research examples and structured learning resources directly into your Braket environment and making it simple to explore and develop hybrid quantum-classical applications. Braket NBIs support a range of Amazon Elastic Compute Cloud (Amazon EC2) instances so you can match your applications to the right compute resources. Deploy a low-cost general-purpose ml.t3.medium instance for light applications or the ml.p4de.24xlarge instance with 8 NVIDIA A100 GPUs and 640 GB of memory when working with GPU-accelerated applications that require parallel compute and high memory. In this blog post we walk you through the process of launching the new notebooks and enabling the CUDA-Q Application Hub and CUDA-Q Academic Library on an Amazon Braket NBI. What are the CUDA-Q Applications Hub and CUDA-Q Academic Library? NVIDIA CUDA-Q is an open-source platform for hybrid quantum-classical computing. It enables seamless integration of accelerated computing with quantum processors and supports scaling complex hybrid algorithms across simulators and real quantum hardware. NVIDIA maintains two curated repositories that make CUDA-Q capabilities accessible to researchers and students: - CUDA-Q Applications Hub: Industry-driven use cases including diffusion models for quantum compilation, molecule generation with transformers, and domain-specific research. - CUDA-Q Academic library: Structured learning resources covering quantum programming fundamentals, hybrid workflows, error correction, and HPC and AI integration techniques. Prerequisites To follow along, you need: - An AWS account. - Access to Amazon Braket in a supported AWS Region. - An Amazon Braket managed notebook instance. To create one, see Create an Amazon Braket notebook instance in the Amazon Braket Developer Guide. To access the CUDA-Q Applications Hub - Open your Amazon Braket managed notebook

ESA Installs <b>Quantum Computer</b> in Data Center, but Satellite Advantage Is Decades Out

The European Space Agency installed its first quantum computer last week at its ESRIN satellite data center outside Rome — a six-qubit silicon machine from Irish startup Equal1 that fits in a standard server rack, runs on about 1.6 kilowatts of power, and cools itself without a dilution refrigerator, according to the ESA's official announcement. The milestone is real. So is the caveat: ESA's own research concluded three years ago that quantum advantage for full-scale satellite data processing is at minimum 15 years away, a conclusion documented in the agency's QC4EO study. What arrived at ESRIN on July 15, 2026, is not a production upgrade to ESA's satellite processing pipeline. It is a precision instrument for learning what quantum hardware can and cannot do with real Earth observation data — while quantum computing is still too early-stage to answer that question definitively. The milestone itself is architecturally significant: Bell-1 is the first quantum processor to run inside an operational space-agency data center without any dedicated facility preparation, demonstrating for the first time that a quantum computer can be deployed as straightforwardly as a new server. What Bell-1 Is and Why It Fits in a Server Room Equal1's Bell-1 is a six-qubit silicon spin qubit system built using CMOS manufacturing — the same foundry process that produces the chips inside smartphones and laptops, as detailed in Equal1's November 2025 agreement announcement. That manufacturing heritage is the entire point of the machine's practical advantage. Competing quantum computing platforms from IBM and Google use superconducting circuits cooled to roughly 15 millikelvin — about 20 times colder than Bell-1's operating temperature of 0.3 kelvin, as documented in technical reviews of superconducting quantum systems. That temperature gap requires dilution refrigerators: bespoke, building-scale cryogenic systems that consume 10 to 25 kilowatts for their cooling plant alone

<b>Quantum</b> Machine Learning Assesses Post-<b>Quantum</b> Protocol Resilience

Institute of Theoretical and Applied Informatics, Polish Academy of Sciences is applying quantum machine learning in a new way: not creating new cryptography, but proactively testing the defenses of existing protocols. The work details the successful demonstration of loading the probability distribution of hash-based digital signatures into quantum computer memory using Quantum Generative Adversarial Networks, or QGANs. This represents a concrete step toward utilizing quantum computing to actively attack these signatures, even with the limitations of near-term hybrid quantum-classical methods. The team views this approach as a first step in the workflow for utilizing quantum computing to attack post-quantum cryptographic primitives, moving beyond simply designing algorithms resistant to known quantum threats like Shor’s and Grover’s algorithms. Post-Quantum Cryptography & Quantum Threat Landscape Quantum Generative Adversarial Networks (QGANs) are now being directed toward proactively testing the defenses of post-quantum cryptography, rather than solely focusing on creating new cryptographic methods. This shift signifies a growing recognition that current quantum computers can reveal vulnerabilities in algorithms designed to withstand future, more powerful machines. Researchers are no longer solely concerned with building unbreakable codes; they are actively probing for weaknesses in those already proposed as quantum-resistant. This achievement isn’t about breaking the signatures now, but about establishing the capability to do so, and understanding how near-term quantum devices can be leveraged for attack. The work confirms that “near-term hybrid quantum-classical methods possess capabilities required for this purpose,” indicating that even current technology can be used to analyze and potentially compromise post-quantum schemes. This is a departure from simply theorizing about the future threat posed by cryptographically relevant quantum computers (CRQCs), which require a large number of qubits, long coherence times, and high-fidelity quantum gates. The researchers present an example application of QGANs for hash-based digital signatures, utilizing them to model their underlying probability distributions.

Haiqu Adds IBM <b>Quantum</b>, IonQ Veteran To Commercialize Agentic OS

Haiqu has appointed Denise Ruffner as Vice President of Business Development and Commercial Operations Worldwide, bringing on board a leader with a proven history of initiating commercial relationships for emerging quantum hardware companies. Ruffner previously secured initial customers for both IonQ and Atom Computing, and as the first Chief Business Officer at Cambridge Quantum Computing, now Quantinuum, landed JPMorgan Chase as a major enterprise client. At IBM Quantum, she developed the Quantum Ambassador Program and Startup Program, training over 350 global ambassadors who annually educated hundreds of customers on IBM’s quantum efforts. “Since the inception of commercial quantum computing, I’ve had the privilege of helping bring many of our industry’s breakthrough technologies to market,” said Ruffner, who will focus on expanding adoption of Haiqu’s Agentic Operating System, designed to accelerate quantum research and reduce development costs. Ruffner’s appointment signals Haiqu’s commitment to translating research and development into practical applications, particularly through its newly launched Agentic OS. The system combines agentic AI with proprietary middleware, aiming to expedite quantum research and reduce associated costs for scientific teams. She expressed enthusiasm for Haiqu’s Agentic OS, and Haiqu’s CEO, Richard Givhan, highlighted the importance of Ruffner’s expertise in accelerating the company’s reach, noting that her leadership will be “critical to helping us reach the right partners and end-users so that research teams do not have to wait until 2030 to achieve commercially useful results.” Beyond commercial pursuits, Ruffner’s dedication to inclusivity is evident through her founding of Women in Quantum, a global community exceeding 10,000 members, and her co-founding of DiviQ, an organization focused on fostering a diverse quantum workforce. See today’s quantum computing news on Quantum Zeitgeist for the latest breakthroughs in qubits, hardware, algorithms, and industry deals.

NatWest signs up to <b>quantum</b> trial for fraud detection | <b>Computer</b> Weekly

Shawn - stock.adobe.com NatWest signs up to quantum trial for fraud detection The retail bank is one of 11 organisations testing quantum technologies as part of Digital Catapult’s quantum technology access programme Eleven organisations, including NatWest, have joined Digital Catapult’s Quantum Technology Access Programme (QTAP), delivered in collaboration with the National Quantum Computing Centre’s (NQCC) SparQ programme. QTAP provides UK-based companies with a guided pathway to understand quantum technologies, assess their sector-specific value and move from concept to practical application through expert guidance and experimentation. This latest cohort of businesses are focusing on combinatorial optimisation and quantum machine learning. Simon Plant, deputy director for innovation at NQCC, said: “Through SparQ, we’re helping organisations move towards practical exploration of quantum computing. This cohort demonstrates growing confidence in quantum computing across UK industry, building the expertise, evidence and partnerships needed to accelerate responsible adoption and strengthen the UK’s quantum capabilities.” Digital Catapult said the focus on financial services reflects growing demand for quantum innovation and its role in building the UK’s sovereign capability while identifying new practical use cases for the technology. NatWest plans to explore how quantum can be deployed to help detect fraud and illicit activity across large transaction networks, while CTA Fintech Solutions is assessing the use of quantum technologies for cross-system optimisation of legacy-to-cloud transaction flows to improve cost efficiency and strengthen resilience in highly regulated environments. Other firms participating in the QTAP programme include the Rail Safety and Standards Board (RSSB), and Health Innovation North West Coast, part of the UK’s Health Innovation Network. In healthcare, through QTAP, quantum computing is being used to improve diagnostic modelling, treatment pathways and outcome forecasting for thrombotic thrombocytopenic purpura (TTP), a rare and life-threatening blood disorder considered a medical emergency. Through its participation, Health Innovation North West Coast aims to

<b>Quantum Computing</b> Stocks Drop 35% as Federal Mandate Reshapes Investment Case

Three weeks after President Donald Trump signed two executive orders that sent quantum computing stocks surging 30% or more in a single session, the same shares have given back roughly a third of that gain. IonQ, the sector's revenue leader, was trading near $39 on July 13 — down from the $60-plus level it reached at its post-signing peak — and fell a further 8% that day as macro risk-off selling swept through speculative tech names. D-Wave, Rigetti, and Quantum Computing Inc. dropped in unison. There was no company-specific news behind the decline: the market was simply repricing what federal investment actually buys, and what it does not. The federal commitment is real. The social media narrative that followed it — quantum computing as the "next Nvidia," a treasure map for retail investors — was something else entirely. Understanding the difference, and specifically why the 2031 encryption deadline embedded in one of the June 22 orders creates genuine urgency starting now rather than years from now, is the most useful thing a reader can take from this moment. What Trump Actually Signed The two orders are distinct in purpose but designed to reinforce each other. The first, titled "Ushering in the Next Frontier of Quantum Innovation," establishes the Quantum Computer for Application Development and Discovery Science initiative, known as QC-ADDS. It coordinates the Department of Energy, Commerce, and the Intelligence Community to deliver a quantum computer capable of scientific calculations beyond what classical computers can achieve to a Department of Energy facility. Michael Kratsios, director of the White House Office of Science and Technology Policy, told reporters the administration believed this "can happen by 2028." Steven Girvin, a quantum physicist at Yale who has spent decades studying these systems, assessed that timeline directly when the program was announced and called

<b>Quantum Computers</b>!

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Why telcos are viewing <b>quantum</b> safety as a question of trust and business resilience

Why telcos are viewing quantum safety as a question of trust and business resilience If communications service providers (CSPs) are to protect their businesses from future quantum security threats, then they will have to identify and deal with data security vulnerabilities beyond their networks. “We do not only need to look at our networks. We also need to look at all our administration and backend systems, the orchestration systems,” according to Frank de Jong, speaking during an RCR Wireless' Quantum Safe Networks Forum 2026. “Because … with all the technology we [can] have very nice pipes. But if we make our management systems vulnerable to a quantum attack, then everything's still open. And I think that's one of the other elements that everybody needs to look at, but that the CSP really needs to look at,” emphasized De Jong. Singtel's Chief Customer Officer, Enterprise, Keith Leong, also stressed the importance of examining the wider security risk of quantum computing in larger terms. “It really requires lots of coordination across network engineering, cyber security, the cloud, the product, the enterprise architecture.” Quantum computers are a double-edged sword. They promise to solve in a few minutes an equation that would take a classical computer many thousands of years to crack. Within the telecoms sector this would make them useful for computationally intense applications such as as network optimisation. The flip side is that the same computational power would allow malicious actors to decode the cryptography that protects today’s networks and IT systems, which gives hackers an incentive to “harvest now, decrypt later”. As Orange Business’ de Jong points out, “the proper bad actors will not let you know that they are harvesting your data. In all reality, you should just assume it's happening, and it has already happened.” For this reason, he

Colorado gunning for another <b>quantum computing</b> center

Colorado may be close to scoring another big win in quantum computing, an emerging technology that promises to multiply processing power several-fold as it moves into commercial development. The Colorado Economic Development Commission on Thursday approved $4.43 million in Job Growth Incentive Tax Credits for a company using the code name “Project Laser.” That incentive is tied to the creation of 225 net new jobs paying an average annual wage of $232,021. That wage is twice the average in Broomfield County, which has the highest average pay in the state and is often used as a benchmark. Although the company’s name was not disclosed, the limited information provided — including the executive who spoke on behalf of Project Laser — points to Atom Computing. Project Laser will most likely be located in Boulder, which is home to the country’s biggest concentration of quantum computing companies, said Dan Salvetti, semiconductor industry manager with the Colorado Office of Economic Development and International Trade. But the company is also considering Chicago, which has become Boulder’s chief rival for quantum dominance. The company plans to invest $158 million in a new research and development center with 80,000 to 100,000 square feet of space. In a sign of the importance the state places on the new R&D facility, the company has also received approval for an additional $10.3 million in Enterprise Zone tax credits, for a combined $14.7 million in refundable credits. Because startup companies are often unprofitable and lack state income tax liability, the commission approved converting $9 million of those credits into a direct cash refund under the state’s CHIPS Refundable Tax Credit Program. Awards under the program are capped at $15 million a year through fiscal year 2028. Given the high demand, the award approved Thursday will dip into what remains of

<b>Quantum computing</b> moves from physics problem to manufacturing problem

Quantum computing moves from physics problem to manufacturing problem For years, the quantum computing race was told as a physics story: More qubits, higher fidelity, and so on. This framing was clear enough, but the real contest has now moved to the fab. The question is whether we can make thousands of qubits over and over again, with the same result, on a wafer or by other means, using a supply chain we actually control. This is, in many ways, a normal manufacturing story for a young technology, with a front-end, packaging, assembly and test, and it sits at the heart of Yole Group's knowledge, which will be detailed in the coming report, Quantum Technologies 2026. Every qubit has its own recipe Quantum is not like a standard complementary metal-oxide semiconductor (CMOS), and there is no single quantum process flow. Each way of building a qubit comes with its own machine, its own control chain, and its own headaches (see figure). Every modality has its own challenges. Superconducting qubits live or die by the Josephson junction, a tunnel barrier only a few atoms thick. It has long been made by double-angle shadow evaporation and lift-off, which is really more of a laboratory trick than a fab process. Junction uniformity sets how repeatable the qubit frequency is, and a spread of just a few percent can ruin a multi-qubit processor. In addition, two-level-system defects within the oxides and at the interfaces slowly drain coherence. Getting the process right here means ultraclean superconducting metals, meticulous attention to oxidation, and lift-off-free junction methods that can be replicated by industrial tools. Silicon spin qubits are the closest cousins to CMOS and already run on 300-mm lines at imec, CEA-Leti, and Intel. But close is not the same as CMOS. They need silicon enriched in

Neural atom <b>quantum computing</b> roadmap — how laser-cooled trapped atoms could pave ...

Neural atom quantum computing roadmap — how laser-cooled trapped atoms could pave the path beyond physical qubit counts A look at the players and roadmaps around neutral atom quantum computing In this installment of our ongoing quantum computing roadmaps, we turn to the area that has arguably made the most significant technical strides in 2025 and early 2026: neutral atom quantum computing. Be sure to familiarize yourself with part one, which covered superconducting qubits – through IBM and Google – and trapped-ion qubits, through IonQ and Quantinuum. Part two examined quantum photonics through Xanadu's continuous-variable approach and PsiQuantum's silicon-photonic architecture. Like its predecessors, this is a technology and roadmap analysis rather than a technical deep-dive. We'll give you enough context to understand why neutral atoms have recently captured the attention of both the scientific community and major industry players, then look at what three of its key companies – QuEra, Atom Computing, and Pasqal – are building and planning. What is Neutral Atom Quantum Computing? Where superconducting qubits build their quantum systems from engineered Josephson junctions on chips, and trapped ions use electromagnetic fields to suspend individual atoms in vacuum, neutral atom quantum computing uses tightly focused laser beams – called optical tweezers – to trap individual neutral atoms in precisely controlled spatial arrangements. Each trapped atom acts as a qubit: information is encoded in the atom's internal electronic states, and operations between qubits are performed by briefly exciting atoms into what are known as Rydberg states (the neutral atom mechanism for two-qubit logic gates). These are high-energy orbitals where electrons sit far from the nucleus, enabling long-range interactions between neighboring atoms when triggered. Switching a Rydberg excitation on and off is, in functional terms, the quantum analog of a logic gate – laser on, interaction happens; laser off, atoms

University Of Strathclyde Tests Wireless Control Of <b>Quantum</b> Readout

Researchers from the University of Strathclyde, the University of Glasgow, and the National Physical Laboratory have demonstrated wireless communication with a superconducting microwave resonator at millikelvin temperatures, a challenging feat given the extreme cold required for most quantum hardware. The work directly addresses the limitations imposed by the dense network of electrical interconnects that currently hinder the scalability of quantum computers, moving beyond simply reducing wires to tackling the problem within dilution refrigerators. By comparing wired and wireless operation within the same cryogenic environment, the team revealed parasitic electromagnetic pathways arising from stray radiation within the cryostat enclosure. These results establish a framework for co-designing wireless interconnects with cryogenic packaging and superconducting quantum hardware, potentially easing a key bottleneck in building more powerful quantum processors. Scalable Quantum Computing Interconnect Bottlenecks The escalating demands of quantum computation are rapidly exposing limitations not in qubit technology itself, but in the infrastructure supporting it; specifically, the physical connections between quantum processors and control systems are becoming a critical bottleneck. This collaborative effort, uniting researchers from the University of Strathclyde, the University of Glasgow, and the National Physical Laboratory, demonstrates the wireless excitation of a superconducting microwave resonator, a core component in qubit readout, at millikelvin temperatures. This is not merely a demonstration of wireless technology, but a feat of engineering given the extreme cryogenic environment where conventional wireless communication struggles. The researchers found that wireless coupling preserves the intrinsic resonator response but also exposes parasitic electromagnetic pathways arising from reflections within the refrigerator’s metallic enclosure. These stray signals, though mitigated by the use of radiation absorbers, still present a design challenge. The experimental setup, detailed in their recent publication, involved a transmitter/receiver module designed to beam microwave radiation through a dedicated 6 cm aperture in the dilution refrigerator. The receiver module incorporates a

Microsoft Doubles Down On Topological Qubits With Majorana 2 Chip

The new Majorana 2 quantum chip is an embodiment of Microsoft’s particular approach to quantum computing, which differs in important ways from those of IBM, Google, IonQ and other industry players. If everything goes according to plan, Majorana 2’s topological architecture could help Microsoft achieve the Holy Grail of fault-tolerant quantum computing in the next three years or so. But even today, Majorana 2’s functionality may serve as a rebuttal to scientific critics who questioned the validity of the company’s earlier quantum research and the first-generation Majorana chip. Microsoft has also used the debut of Majorana 2 as a major proof point for the capabilities of its agentic AI platform, Microsoft Discovery, which I wrote about in a recent article. Both Majorana 2 and Microsoft Discovery were announced at the company’s Build 2026 conference in June. (Note: Microsoft is an advisory client of my firm, Moor Insights & Strategy.) Majorana 2’s Improvements Over Majorana 1 Microsoft published its first quantum roadmap at the same time it announced Majorana 1 in February 2025. The experimental processor was built on an aluminum and indium arsenide material stack, and Microsoft created that chip with the primary goal of proving that hardware-protected topological qubits were possible. (I’ll go into more detail on topological architecture below.) Majorana 2 includes major changes in both architecture and components. After determining that aluminum was a major cause of quantum decoherence in Majorana 1, Microsoft replaced the aluminum superconductor with one made of lead in Majorana 2. Lead also provides Majorana 2 with better protection from external interference. Besides keeping quantum data from being corrupted by heat or noise, lead provides superior resilience against strong magnetic fields and helps maintain the topological phase, according to Microsoft. Microsoft also replaced Majorana 1’s semiconductor with a compound of indium arsenide and

Hamilton County Schools to introduce <b>quantum</b> education in fall | Chattanooga Times Free Press

A quantum education curriculum will be piloted in Hamilton County Schools starting in fall 2026. TN QuantumWorks, the quantum technology and career awareness initiative that will be implemented in classrooms from kindergarten through high school, was announced Thursday at a press conference at EPB headquarters. The initiative was developed by wife and husband Sheila Boyington and Dane Boyington of Thinking Media, an education technology company based in Chattanooga. "They'll learn what quantum computing is, why it's important, how it'll change industries and how they can become part of an emerging workforce," Sheila Boyington said. Chattanooga has a growing quantum ecosystem, with the EPB Quantum Center that includes an IonQ Forte Enterprise quantum computer, and the coming plans for a joint venture between EPB and Vanderbilt University for the Institute for Quantum Innovation. Boyington said the new initiative will allow local students to work on EPB's IonQ computer. (SIGN UP: Get our weekly education newsletter by going to timesfreepress.com/education) By investing in students today, Tennessee is positioning itself as a leader in quantum, education, workforce and technology, Sheila Boyington said. The initiative is led by the Chattanooga Quantum Collaborative with partners Thinking Media, the University of Tennessee at Chattanooga, Hamilton County Schools, EPB and the Tennessee Department of Labor and Workforce Development. Eventually, the program will expand beyond Hamilton County Schools across Tennessee. "How we give people power is by giving them education and giving them opportunities, evidenced by this pilot, which I don't believe will be a pilot for long. Can we just say that?" said Deniece Thomas, commissioner of the Tennessee Department of Labor and Workforce Development. "I think this will be really the flagship of what's to come." The Chattanooga Quantum Collaborative has several programs locally that are already emphasizing quantum concepts, including adding quantum security courses to

Board members receive share incentives at IQM <b>Quantum Computers</b> (IQMX)

Board members receive share incentives at IQM Quantum Computers (IQMX) Filing Impact Filing Sentiment Form Type 6-K Rhea-AI Filing Summary IQM Quantum Computers Oyj reported manager transactions involving share-based incentives granted to three board members. On 9 July 2026, Barbara Venneman and Hannu Martola each received 11383 ordinary shares, and Sierk Pötting received 20489 shares, all granted outside a trading venue at a unit price of 0 EUR. The notifications classify these as initial disclosures of managers’ transactions in IQM Quantum Computers shares, reflecting equity-based compensation for members of the board of directors. Positive - None. Negative - None. Key Figures Transaction date: 2026-07-09 Shares granted to Barbara Venneman: 11383 shares Shares granted to Hannu Martola: 11383 shares +2 more 5 metrics Transaction date 2026-07-09 Date of managers’ share-based incentive grants to board members Shares granted to Barbara Venneman 11383 shares Volume of share-based incentive received on 9 July 2026 Shares granted to Hannu Martola 11383 shares Volume of share-based incentive received on 9 July 2026 Shares granted to Sierk Pötting 20489 shares Volume of share-based incentive received on 9 July 2026 Incentive grant price 0 EUR Unit price per share for the reported share-based incentive grants Key Terms share-based incentive, Managers’ Transactions, Outside a trading venue, LEI 4 terms Managers’ Transactions regulatory "IQM Quantum Computers Plc – Managers’ Transactions – Barbara Venneman" Outside a trading venue market "Transaction date: 2026-07-09 Outside a trading venue" LEI regulatory "Issuer: IQM Quantum Computers Oyj LEI: 743700MUXIBO64XQUT02" A Legal Entity Identifier (LEI) is a unique 20-character code assigned to a company or organization that participates in financial markets, like a corporate passport number. It helps investors and regulators unambiguously identify counterparties across databases and transactions, reducing confusion much like using a vehicle identification number to track a car’s history; clearer identification improves transparency,