Quantum Education & Workforce: Training & Skills Development
Quantum education news: workforce development, quantum literacy, quantum computing courses. Skills gap & quantum training programs.
The quantum computing industry faces a severe talent shortage, with estimated global demand for 100,000+ professionals by 2030 against current workforce of 20,000-30,000.
India's Quantum Education and Workforce Development
India's National Quantum Mission includes human resource development as a core component, targeting training for quantum professionals through various programs. The mission involves 152 researchers from 43 institutions across 17 states and 2 Union Territories.
Academic Programs: IISc Bengaluru: Centre for Continuing Education offers Certificate Programme in Quantum Computing and Artificial Intelligence; planned MTech and research programs; IIT Bombay: Quantum technology courses and research opportunities through Qmet Tech Foundation; IIT Delhi: Certification in Quantum Computing and Machine Learning in collaboration with TimesPro; IIT Madras: Quantum information and communication programs through CQuICC.
Corporate Training: TCS: Quantum algorithm development training, partnerships with IBM Quantum Learning; Infosys: Quantum Living Labs (QLL) training programs; IBM Quantum Learning: Qiskit certification programs available to Indian developers.
Startups and Ecosystem: The I-HUB Quantum Technology Foundation at IISER Pune supports quantum startups with incubation, mentoring, and industry connections. Selected NQM startups receive infrastructure access and funding support.
Workforce Targets: While specific NQM workforce targets are not quantified in public documents, the mission emphasizes developing "a vibrant and innovative ecosystem" with skilled human resources across quantum technology domains. The quantum fabrication facilities aim to train hardware engineers in indigenous quantum device fabrication. The extensive network of 43 participating institutions under NQM provides the foundation for scaling India's quantum workforce to meet domestic needs and global opportunities.
quantum-computingWhite House Quantum Summit Details Over $2.2 Billion in Support for 2028 Fault-Tolerant Computing
The White House hosted the Summit on American Quantum Innovation on July 7, 2026, to begin implementing President Trump’s June 22 Executive Orders on quantum technologies. Federal agencies announced significant funding, including over $2 billion in Commerce Department incentives and up to $200 million from the Defense Innovation Unit for quantum sensing. The Department of Energy is tasked with delivering a fault-tolerant, scientifically relevant quantum computer by 2028, supported by initiatives from the NSF, NSA, and NIST focused on research, supply chains, and manufacturing. These efforts aim to build a resilient US quantum industrial base through public-private partnerships and workforce development. The post White House Quantum Summit Details Over $2.2 Billion in Support for 2028 Fault-Tolerant Computing appeared first on The Qubit Report.
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quantum-computingFractional Fermi Sea: Physicists Discover a New Phase of Matter Beyond Established Theory
Physics Fractional Fermi Sea: Physicists Discover a New Phase of Matter Beyond Established TheoryBy University of InnsbruckJuly 8, 20264 Mins Read Facebook Twitter Pinterest Telegram LinkedIn WhatsApp Email Reddit Share Facebook Twitter LinkedIn Pinterest Telegram Email Reddit Ultracold cesium atoms locked into a hidden, ordered state after being cycled between repulsive and attractive interactions. Credit: University of InnsbruckScientists have engineered a never-before-seen quantum state, uncovering a new phase of matter with hidden order beyond conventional theory.Researchers have shown that an unusual quantum state known as a “fractional Fermi sea” can be deliberately created, opening the door to a previously unknown phase of matter. The work, published in Physical Review Letters, was carried out by the Nägerl group together with theoretical collaborator Alvise Bastianello of the CNRS and Université Paris-Dauphine. The study provides the theoretical foundation for recent experimental work led by Hans-Christoph Nägerl’s group in the Department of Experimental Physics.Creating a New Quantum StateThe team focused on ultracold Cesium atoms confined to a single dimension. By repeatedly changing how strongly the atoms interacted, cycling them between strong repulsion and strong attraction, they pushed the system far from its normal equilibrium state. Rather than behaving according to the well-established Tomonaga-Luttinger liquid theory, the atoms entered an entirely new critical phase of matter.This newly predicted phase arises through a process called quantum engineering, showing that carefully controlled interaction cycles can produce forms of quantum matter that do not occur naturally under ordinary conditions.What Is a Fractional Fermi Sea?At extremely low temperatures, quantum particles normally arrange themselves according to well-defined rules. As Alvise Bastianello explains: “Fermions, for instance, stack neatly into the available energy states to form the so
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quantum-computingArgonne’s Office of Community Engagement convenes regional leaders to explore the future of quantum economics
Nearly 100 leaders from across business, government, and academia convened in May for the inaugural Quantum Prairie Economic Symposium hosted by Argonne National Laboratory, signaling growing interest in the economic potential of quantum science. The laboratory underscored its long-standing role in the field, revealing that an Argonne scientist first proposed a theoretical framework for a quantum computer, predating much of the current attention. In 2023, Argonne expanded its commitment by launching both the Argonne Quantum Foundry and the Argonne Quantum Institute. “Our commitment is to help support the building of a quantum economy that advances science and delivers positive regional impact, supports economic growth and creates pathways for meaningful participation throughout Illinois and beyond,” said Robyn Wheeler Grange, director of Argonne’s Office of Community Engagement, as the lab aims to translate scientific discovery into economic opportunity. The symposium, held at Hyde Park Labs in Chicago, served as a platform to examine how advances in quantum science can drive innovation and workforce development. Kearns emphasized the breadth of Argonne’s work, stating that the laboratory’s commitment extends beyond scientific advancement to actively shaping a regional quantum economy. This collaborative approach is exemplified by partnerships with institutions like the Chicago Quantum Exchange and the Illinois Quantum and Microelectronics Park, aiming to ensure broad participation in the emerging quantum landscape, even for those without specialized physics backgrounds. As Harley Johnson, CEO of IQMP, noted, “People also need to be reassured they don’t have to be a quantum physicist to benefit from or participate in this ecosystem.” Our commitment is to help support the building of a quantum economy that advances science and delivers positive regional impact, supports economic growth and creates pathways for meaningful participation throughout Illinois and beyond.
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quantum-computingArgonne Brings Together Leaders to Discuss Quantum Technology Opportunities
Insider Brief The U.S. Department of Energy’s Argonne National Laboratory convened leaders from business, government, academia and nonprofit organizations in May for the inaugural Quantum Prairie Economic Symposium, bringing together nearly 100 participants to examine how advances in quantum science could drive regional economic growth, workforce development and technological innovation. Held at Hyde Park Labs […]
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quantum-computingAlfred University and Classiq Launch Joint Academic Quantum Computing Initiative
Alfred University and Classiq Launch Joint Academic Quantum Computing Initiative Alfred University, the New York State College of Ceramics, and quantum development firm Classiq have announced a joint quantum computing initiative designed to integrate functional hardware-portable software modeling into engineering curricula and energy systems research. The academic collaboration deploys Classiq’s high-level synthesis platform to bypass manual, gate-level quantum circuit construction, allowing students and researchers to engineer functional algorithms without deep low-level compilation skills. The curriculum expansion is intended to support workforce development and applied energy optimization models across the State University of New York (SUNY) network. [ Alfred University - Classiq Framework ] Software Engine ──► Classiq high-level functional synthesis platform using agentic compilation workflows. Research Focus ──► Power system unit commitment optimization and ceramic/glass materials discovery. Academic Integration──► Inamori School of Engineering curricula, expanding across CUNY and SUNY networks. The instructional integration is led by Junpeng Zhan, Assistant Professor of Renewable Energy Engineering at the Inamori School of Engineering, who has embedded the platform into active courses. Zhan’s core research focuses on power systems optimization, specifically the “unit commitment problem”—a multi-variable calculation where electric grid operators determine the most cost-effective generation schedules to meet fluctuating regional energy demands. The joint initiative builds upon Zhan’s previous National Science Foundation (NSF)-funded computational grants and a 2024 collaborative research program with the Rochester Institute of Technology and ISO-New England to explore quantum optimization paths for wholesale electrical grids. Concurrently, the initiative expands into solid-state physics and advanced materials modeling under S. K. Sundaram, Inamori Professor of Ma
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quantum-computingGovernments Face a New Quantum Reality as IBM Report Urges Broader Strategy Beyond Computing
Insider Brief Governments that focus narrowly on quantum computing risk falling behind in a technology race that increasingly encompasses communications, sensing, cybersecurity and international partnerships, according to a new report from the IBM Center for The Business of Government. The report concludes that maintaining leadership in quantum technology will require sustained investment, workforce development, stronger […]
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quantum-computingAlfred University and Classiq Launch Quantum Computing Initiative - GlobeNewswire
ALFRED, N.Y., July 07, 2026 (GLOBE NEWSWIRE) -- Alfred University, the State University of New York College of Ceramics at Alfred University, and Classiq today announced a joint quantum computing initiative using Classiq’s quantum software engineering platform to support engineering education, applied energy systems research and preparation for the emerging quantum workforce. The initiative brings together Alfred University’s applied engineering, ceramic, glass, and materials engineering, and energy systems expertise with Classiq’s high-level quantum software platform, enabling students and researchers to build quantum programs without starting from gate-level circuit design. With Classiq’s platform, Alfred University is making this powerful technology accessible to students and researchers without requiring deep coding expertise, accelerating the bridge between theory and real-world application. A Media Snippet accompanying this announcement is available by clicking on this link. Quantum computing is an advanced field of computing that uses the principles of quantum physics to solve highly complex problems by processing information exponentially faster than classical supercomputers. Unlike traditional computers that process information linearly using 0s and 1s, quantum computers can analyze vast numbers of possibilities simultaneously. This allows them to solve complex engineering, energy grid and materials science problems that are far beyond the reach of standard computation. Its industry applications include the energy, pharmaceutical and financial sectors; materials science and battery development; and artificial intelligence (AI) and machine learning. At Alfred University, Junpeng Zhan, assistant professor of renewable energy engineering in the Inamori School of Engineering, is introducing students to quantum computing through tools that help them focus on concepts, algorithms, and engineering problems. “I introduced the Classiq platform (as an instructional t
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quantum-computingWhite House to host quantum tech summit with industry Tuesday - Nextgov/FCW
Stay Connected By Alexandra Kelley,Staff Correspondent, Nextgov/FCW By Alexandra Kelley | July 6, 2026 05:39 PM ET The closed-door event will focus on supply chain, workforce development and private sector insights into the emerging technology. The White House will host a summit with industry on Tuesday dedicated to innovation in quantum information sciences and technologies, featuring remarks from tech policy and agency leadership within the Trump administration, according to two people familiar with the matter.The White House Summit on Quantum Innovation will begin at 11 a.m. on July 7 in the Eisenhower Executive Office Building, per a document obtained by Nextgov/FCW. White House Office of Science and Technology Policy Director Michael Kratsios and National Quantum Coordination Office Director Brad Blakestand are slated to deliver a keynote that provides updates on the administration’s quantum agenda and on research and development.Leaders from relevant government agencies — including Department of Commerce Deputy Secretary Paul Dabbar, Department of Defense Under Secretary for Research Emil Michael, Department of Energy Under Secretary Darío Gil, National Science Foundation Acting Director Brian Stone and U.S. Chief Technology Officer Ethan Klein — are scheduled to discuss how their departments are delivering on commitments to quantum innovation. Other panelists who will cover industry insights, supply chain and the workforce are listed “TBA” as of late Monday afternoon.Attendees will primarily represent the U.S. quantum information science and technology industry.The summit follows President Donald Trump’s two recent executive orders aimed at strengthening the U.S. quantum technology research and development ecosystem and spurring the migration of critical networks to a post-quantum cryptographic standard. Share This: NEXT STORY: IBM, Oak Ridge and Cleveland Clinic unveil quantum-powered novel fusion energy research
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quantum-computingPodcast with Corey O’Meara, Chief Quantum Scientist at E.ON Digital Technology
Yuval Boger interviews Corey O’Meara, Chief Quantum Scientist at E.ON Digital Technology. They discuss how E.ON’s five-person quantum team works with business units to find high-value use cases, especially where classical methods may hit bottlenecks in optimization and machine learning. Corey describes the company’s work on peer-to-peer energy trading and other grid-related applications, and shares his perspective on cloud access, hybrid deployment, and the accelerating progress toward fault-tolerant quantum computing. Key Takeaways E.ON’s five-person quantum team only takes on optimization problems that are proven to scale exponentially with classical solvers like Gurobi; complexity, not data volume, is the deciding factor. A peer-to-peer energy trading coalition formation project, done with Aqarios, LMU Munich, University of Oxford and DFKI, showed evidence of quantum scaling advantage on a D-Wave annealer, which the team considers one of the first business-relevant demonstrations of its kind. Optimization runs on today’s hardware take minutes, not hours, and E.ON expects cloud access to quantum computers to remain sufficient for decades unless real-time grid balancing applications eventually require dedicated, owned hardware with SLAs. The team is all physics and quantum computing PhDs who learn the energy domain after joining, and they believe five years ago was already late to start building this kind of internal quantum capability. Transcript Corey: Hello, Corey, and thank you for joining me today. Thanks for having me. Yuval: So who are you and what do you do? Corey: Yeah, so my name is Corey and I’m chief quantum scientist at E.on Digital Technology. And there I’m technically leading the applied quantum computing program at one of Europe’s largest utility companies. Yuval: E.on, as you mentioned, is a very large company. How large is the Quantum team and when did it get started? Corey: Yeah, great question. So we’re a pretty modest t
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quantum-computingShanghai Expands Quantum Foothold with Xuhui Cultivation Zone and Zhangjiang Quantum Bay Dual Hubs
Shanghai Expands Quantum Foothold with Xuhui Cultivation Zone and Zhangjiang Quantum Bay Dual Hubs The municipal government of Shanghai has accelerated its multi-district industrial layout by executing sequential rollouts of two primary quantum infrastructure developments: the newly unveiled “Zhangjiang Quantum Bay” in the Pudong New Area on June 27, 2026, followed by the launch of the Shanghai Quantum Computing Future Industry Incubation Zone in Xuhui District on June 30, 2026. Formally integrated into the municipal roadmap during the 2026 Quantum Computing Technology and Industry Ecosystem Conference, this coordinated expansion increases Shanghai’s specialized corporate ecosystem to over 60 quantum-related enterprises spanning the entire technology chain from upstream raw material synthesis to midstream hardware assemblies and downstream software development platforms. [ Shanghai Quantum Incubation Layout ] Initial Cohort ──► 26 founding quantum firms; base layer of nearly 30 firms valued at 20B+ Yuan. Core Innovation Fund──► 100 Million Yuan (US$14.73M) allocated for foundational R&D platforms. Commercial Subsidies──► Up to 20 Million Yuan per company to clear first-product validation costs. [ Chinese Regional Quantum Hubs ] Shanghai (Xuhui) ──► Target of 100+ firms in 3 years; convergence of quantum infrastructure and AI. Hefei (Anhui) ──► Home to 90+ companies (1/3 of national total) anchored by USTC research assets. Shenzhen (Guangdong)──► Strategic industry track; hosts SpinQ, the sector's latest 1B Yuan unicorn. The localized industrial policy specifically targets the neutral atom quantum computing modality as its primary technical roadmap, positioning the Yangtze River Delta’s supply chain to build out scalable post-classical computing blocks. Academician and USTC Professor Lu Chaoyang emphasized that fault-tolerant computing and logical qubit validation are the essential cornerstones for commercial deployment over the next decade. Highlighting this tra
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quantum-computingIBM to Commission One of India’s First Physical Quantum Computers in Amaravati by September 2026
IBM to Commission One of India’s First Physical Quantum Computers in Amaravati by September 2026 IBM Chairman and Chief Executive Officer Arvind Krishna has confirmed that the greenfield city of Amaravati will host one of the first two physical IBM quantum computers deployed on-shore in India. Targeted for full operational commissioning by September 2026, the hardware deployment represents a key anchor transaction for the state of Andhra Pradesh’s Quantum Valley initiative. The on-premises installation aims to position the regional capital as the country’s primary deep-tech innovation hub, shifting India’s role in the sector from purely a remote consumer of cloud-routed compute blocks to a localized sovereign developer of physical quantum hardware. [ Amaravati Quantum Valley Deployment ] Target Hardware ──► IBM Quantum System Two architecture configured with a Heron processor. Processing Density ──► 156-qubit layout optimized for low-gate error rates and high fidelity. Deployment Timeline ──► Fully commissioned and integrated into the local tech park by September 2026. The upcoming hardware pipeline follows a trilateral memorandum of understanding (MoU) executed between the Government of Andhra Pradesh, IBM, and Tata Consultancy Services (TCS). Subject to standard international export licensing frameworks and definitive technical agreements, the site is planned to house an IBM Quantum System Two configured with a 156-qubit Heron quantum processor. According to Krishna, the commercial realization of quantum computing across pharmaceuticals, advanced AI, financial fraud analysis, and materials science is roughly two to three years away from delivering market advantages, making early infrastructure ownership critical for developing localized intellectual property. The structural development at the Quantum Valley Tech Park in Uddandarayunipalem complements the state’s recently launched Amaravati Quantum Reference Facility (AQRF). Backed by India’s ₹6,000-crore National
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quantum-computing$4M NSF Award Develops Ohio State Quantum Sensing Platform
The Ohio State University has secured a $4 million, two-year award from the National Science Foundation to advance quantum sensing technologies as part of the National Quantum Virtual Laboratory program. Leading a national consortium that includes the Massachusetts Institute of Technology, University of Chicago, and University of California, Santa Barbara, Ohio State will focus on the “Distributed-Entanglement Quantum Sensing of Chemical Properties” (DQS-CP) project, developing a platform to analyze materials and molecules with increased precision. “This award reflects how Ohio State is emerging as a national leader in quantum research,” said John M. Horack, vice president for Research at Ohio State. The project aims to build a shared testbed for researchers and students, translating quantum capabilities into practical applications and fostering a skilled workforce in the rapidly growing field. NSF Award Advances Ohio State’s Quantum Sensing Leadership A $4 million investment from the National Science Foundation is supporting Ohio State University’s quantum sensing research, funding a two-year project designed to translate theoretical advances into practical applications. This funding demonstrates a substantial commitment to developing a shared testbed for researchers and students, fostering collaboration and accelerating innovation in the field. Ezekiel Johnston-Halperin, professor of Physics and lead principal investigator on the DQS-CP award at Ohio State, explained, “Our goal is to clearly demonstrate when and how quantum sensing can offer real advantages.” The project centers on a sensing platform comprised of the target molecule, a spin-relay layer, and a quantum readout system, aiming to surpass the limitations of conventional measurement techniques through entanglement. Beyond technical advancements, the initiative prioritizes workforce development; students will gain interdisciplinary experience spanning physics, chemistry, and engineering. “This project re
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quantum-computingHow to Start a Career in Quantum Computing in 2026
Insider Brief For years, quantum was something most people encountered in documentaries, or late-night debates about Schrödinger’s cat. Today, it’s also becoming a career. Companies are hiring now, salaries are rising, and the roles are becoming more defined. According to QED-C’s State of the Global Quantum Industry 2026 report, the global pure-play quantum workforce reached […]
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quantum-computingLegacy, Labs And Leadership: A Look at The University of Texas’s Quantum Ecosystem
Insider Brief The University of Texas at Austin is expanding its quantum research capabilities with new laboratories, state-backed infrastructure and a roster of scientists whose work has helped shape modern quantum science, positioning the university as one of the nation’s most established quantum research hubs. According to an article in UT News, the latest additions […]
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quantum-computingNSA & DEVCOM Launch QuantumEAGLe to Grow US Ecosystem
The Laboratory for Physical Sciences at the National Security Agency, in collaboration with the U.S. Army Combat Capabilities Development Command Army Research Office, has launched the Quantum Ecosystem Advancement, Growth & Leadership initiative, QuantumEAGLe, formalizing a direct partnership between intelligence and defense agencies to bolster quantum computing. This new program focuses on five key areas: Industry Engagement, Commercial Roadmaps, Supply Chain Advancement, Algorithmic Applications, and error correction, demonstrating a multi-pronged approach to strengthening the U.S. quantum industry. The initiative directly supports the President’s Quantum Executive Order, aiming to accelerate the U.S. quantum computing ecosystem and ensure national and economic security. QuantumEAGLe Initiative: Industry & Commercial Focus Army Combat Capabilities Development Command (DEVCOM) Army Research Office signals a formalized commitment to bolstering the domestic quantum industry beyond fundamental research. A core tenet of QuantumEAGLe is direct collaboration with industry partners, aiming to align research with real-world needs and accelerate the development of viable quantum technologies. The initiative intends to address critical supply chain vulnerabilities by focusing on the performance and availability of specialized components essential for quantum computer construction, ensuring a robust U.S. supply chain. Michael Metcalfe, NSA chief of Quantum Information Science, emphasized that “by working closely with the quantum industry, we aim to enhance our supply chain, develop cutting-edge algorithms, and overcome fundamental research challenges.” This focus extends to the development of novel algorithms promising a quantum advantage, alongside crucial error correction techniques necessary for building fault-tolerant computers. Liji Samuel, NSA chief for Physical Sciences, described QuantumEAGLe as a significant expansion of NSA’s quantum computing efforts, buil
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quantum-computingNSA and Army Research Office Launch Joint QuantumEAGLe Initiative to Secure Sovereign Hardware Supply Chains
NSA and Army Research Office Launch Joint QuantumEAGLe Initiative to Secure Sovereign Hardware Supply Chains The Laboratory for Physical Sciences (LPS) at the National Security Agency (NSA), in coordination with the U.S. Army Combat Capabilities Development Command (DEVCOM) Army Research Office (ARO), has announced the launch of the Quantum Ecosystem Advancement, Growth & Leadership (QuantumEAGLe) initiative. Formulated in response to the latest Presidential Quantum Executive Order, the defense program establishes an inter-agency framework to accelerate the domestic manufacturing base for quantum systems. The Army Contracting Command has formally published the QuantumEAGLe Special Notice on the federal procurement registry SAM.gov, signaling the deployment of flexible contracting authorities to directly align dual-use military and intelligence research vectors with commercial quantum industry roadmaps. ┌──► Supply Chain Advancement (Volume fabrication of specialized parts) ├──► Algorithmic Applications (Fault-tolerant QEC & quantum advantage codes) [ QuantumEAGLe ] ─┼──► Foundational Research (Qubit lifetime testing & physics-based simulation) ├──► Commercial Roadmaps (Cross-vendor industrial standardization) └──► Industry Engagement (Allied multi-tenant cooperative development) The joint defense initiative allocates resources across five critical operational thrusts designed to systematically eliminate systemic supply chain vulnerabilities. Under NSA Chief of Quantum Information Science Dr. Michael Metcalfe, near-term capital deployments prioritize Supply Chain Advancement to scale up the local manufacturing, quality control, and commercial availability of critical enabling hardware components—such as low-noise microwave control lines, cryogenic switches, and advanced optical isolators—reducing reliance on foreign electronics stacks. Concurrently, the Algorithmic Applications and Foundational Research pillars will fund collaborative university-industry
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quantum-computingIra Wolfson to Lead Quantum X Labs’ Scalable Engineering Efforts
Quantum X Labs (Nasdaq: QXL) is strengthening its efforts to build practical quantum technologies with the appointment of Dr. Ira Wolfson to its leadership team, tasked with integrating advanced scientific research with scalable engineering. The company intends for Wolfson’s decades of experience to accelerate the commercialization of its portfolio, with a key focus on developing a fault tolerant computer, a difficult goal in the field. This move signals a shift for Quantum X Labs toward not only theoretical advancement, but also the practical application of quantum computing, sensing, and cybersecurity solutions. Dr. Ira Wolfson Joins Quantum X Labs to Advance Quantum Technologies Quantum X Labs’ ambitions have received a boost with the appointment of Dr. Ira Wolfson, a physicist and engineer who will accelerate the development of practical quantum technologies. The publicly traded company, listed on Nasdaq as QXL, signaled its intent to move beyond theoretical research by bringing on Wolfson to integrate advanced scientific findings with scalable engineering processes. This is a deliberate step toward commercializing quantum capabilities in computing, sensing, and related systems. Wolfson’s arrival is noteworthy given the difficult challenge of building a fault tolerant computer, a key focus of his work and now, Quantum X Labs. Nir Sharon, Chief Quantum Technology Officer of Quantum X Labs, highlighted Wolfson’s expertise, stating, “We believe that his extensive scientific background, leadership experience, and ability to bridge fundamental physics with real-world engineering make him an exceptional addition to Quantum X Labs.” The company’s strategy extends beyond fault tolerance, encompassing quantum algorithms, quantum sensing technologies, and photonic technologies, all intended to address critical gaps in the emerging quantum ecosystem. The appointment reflects a broader trend within Quantum X Labs to build a multidisciplinary team capable of translating comp
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quantum-computingNSA Introduces QuantumEAGLe Program to Advance U.S. Quantum Computing
Insider Brief Press release – The Laboratory for Physical Sciences (LPS) at the National Security Agency (NSA), in close collaboration with the U.S. Army Combat Capabilities Development Command (DEVCOM) Army Research Office (ARO), announces the launch of the Quantum Ecosystem Advancement, Growth & Leadership (QuantumEAGLe) initiative in support of the President’s Quantum Executive Order. This new […]
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quantum-computingJohn Preskill
Quantum PeopleJohn PreskillThe Caltech theorist who named two eras of the field, coining quantum supremacy and the term NISQ, and who helped turn quantum error correction into a working science.Quantum supremacyNISQCaltech IQIMQuantum error correctionIn this articleThe physicist who named the fieldFrom particle physics to quantum informationEducation and the road into quantum informationCoining quantum supremacyThe NISQ eraQuantum error correction and fault toleranceWhere quantum information meets gravityA teacher, an adviser, and a public voiceMentor to a generation of quantum scientistsQuantum Frontiers and a public voice onlineBeyond NISQ, toward useful machinesA voice in national quantum policyHonors, lectureships, and a career of recognitionWhy John Preskill matters in quantum computingFrequently asked questionsJohn Preskill at a glanceBorn1953, United StatesRoleRichard P. Feynman Professor of Theoretical Physics, CaltechCoinedQuantum supremacy, in 2012CoinedNISQ, noisy intermediate-scale quantum, in 2018LeadsThe Institute for Quantum Information and Matter at CaltechEarly careerParticle physics and cosmology before quantum informationPhDHarvard University, 1980, advised by Steven WeinbergRecognitionNational Academy of Sciences member since 2014Famous betWon a 1997 wager with Stephen Hawking on the black hole information paradoxHonourAwarded the 2024 John Stewart Bell PrizeThe physicist who named the fieldJohn Preskill is the American theoretical physicist who has done more than almost anyone to give quantum computing its language. From his base at Caltech he coined both quantum supremacy and the term NISQ, two phrases that now organise how researchers, companies, and journalists talk about progress.Naming things well is an underrated power in science, because a sharp term can focus a whole community on the right question. Preskill has supplied that clarity twice, and in doing so he has shaped the goals the field sets for itself.Behind the vocabulary sits a ser
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quantum-computingD-Wave Wins $1.5M NSF Grant for Fault-Tolerant Quantum Computing
Yale University is leading an initiative to advance fault-tolerant quantum computing, supported by a $1,566,250 grant from the National Science Foundation’s National Quantum Virtual Laboratory program. D-Wave Quantum Inc. will contribute its superconducting dual-rail gate-model quantum computing resources to the ERASE project, collaborating with researchers from multiple academic institutions and industry organizations. This funding demonstrates the NSF’s commitment to scalable quantum technologies and builds on existing U.S. government support for D-Wave’s innovations. “NSF’s continued support for the ERASE project highlights the national importance of accelerating progress toward scalable, fault-tolerant quantum computing,” said Dr. Alan Baratz, CEO of D-Wave, emphasizing the project’s role in strengthening U.S. leadership in the field. NSF Grant Supports ERASE Project for Fault-Tolerant Computing D-Wave Quantum Inc. will contribute its dual-rail gate-model quantum computing technology to the initiative, providing researchers with a platform for exploring fault tolerance strategies. This funding, awarded through the NQVL program, specifically supports access to D-Wave’s superconducting gate-model resources via its subsidiary, Quantum Circuits, LLC, located in New Haven, Connecticut. This second phase of NQVL funding demonstrates sustained confidence in the project’s approach to achieving scalable, fault-tolerant systems. Researchers will utilize selected development interfaces and APIs to test novel software, compiler designs, and error-correction methods on D-Wave’s hardware, accelerating the development of technologies needed to scale gate-model quantum computing beyond current limitations. The project extends beyond technological advancement, prioritizing workforce development through collaborations with academic and industrial partners to cultivate a skilled quantum talent pipeline. NSF’s continued support for the ERASE project highlights the national importan
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