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Quantum Education & Workforce: Training & Skills Development

Quantum education news: workforce development, quantum literacy, quantum computing courses. Skills gap & quantum training programs.

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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.

Enabling Hybrid HPCQC Workflows with a Heterogeneous Software Stackquantum-computing

Enabling Hybrid HPCQC Workflows with a Heterogeneous Software Stack

--> Quantum Physics arXiv:2608.14827 (quant-ph) [Submitted on 14 Aug 2026] Title:Enabling Hybrid HPCQC Workflows with a Heterogeneous Software Stack Authors:Muhammad Nufail Farooqi, Minh Chung, Burak Mete, Eric Mansfield, Bernd Hoffmann, Teemu Mattsson, Laura Schulz, Jorge Echavarria View a PDF of the paper titled Enabling Hybrid HPCQC Workflows with a Heterogeneous Software Stack, by Muhammad Nufail Farooqi and 7 other authors View PDF HTML (experimental) Abstract:In this work, we demonstrate hybrid High Performance Computing-Quantum Computing (HPCQC) workflows on a production petascale system. The demonstration combines three components: the SuperMUC-NG supercomputer at the Leibniz Supercomputing Centre (LRZ), a 20-qubit superconducting quantum processor provided by IQM Quantum Computers (IQM), and Munich Quantum Valley (MQV)'s Munich Quantum Software Stack (MQSS). Integrating quantum processors into High Performance Computing (HPC) systems requires a heterogeneous software stack capable of orchestrating classical and quantum resources within established supercomputing workflows. MQSS treats Quantum Processing Units (QPUs) as scheduler-managed accelerators and it performs resource coordination following a two-level scheduling scheme. Slurm performs system-level allocation by exposing QPUs as Generic RESources (GRES), while the MQSS Quantum Resource Manager & Compiler Infrastructure (QRM&CI) performs just-in-time compilation and subsequent dispatch of quantum circuits. To integrate with existing HPC operations without modifying the scheduler core, MQSS introduces an open-source SLURM Plugin Suite based on Prolog/Epilog scripts and SPANK modules. Experimental results show that hybrid HPCQC workflows can be executed without significant latency overhead compared to conventional workloads. The presented architecture provides a portable integration model for quantum accelerators on large-scale HPC systems and is directly applicable to next-generation Hewlett Pac

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Infleqtion: A Brilliant Science Project, But A Highly Risky Public Stockquantum-computing

Infleqtion: A Brilliant Science Project, But A Highly Risky Public Stock

Elina Selianska895 FollowersFollowSummaryInfleqtion, Inc. operates as an applied quantum engineering firm, not a traditional IT or semiconductor company.INFQ’s revenue is driven by state grants and defense contracts for experimental quantum devices, not scalable commercial demand.Classic valuation metrics are inapplicable; the company trades at a $2.9B cap with negligible, unpredictable sales and deep losses.I assign a Sell rating for standard portfolios due to extreme uncertainty, dilution risk, and the inability to model future profitability. Just_Super/iStock via Getty Images The company Infleqtion, Inc. (INFQ) trades on the open market with a capitalization approaching the mark of $2.9 billion. But the classic templates of valuation are absolutely inapplicable to this company. We cannot useThis article was written byElina Selianska895 FollowersFollowI am a private investor with 10 years of experience in the stock market. My approach to fundamental analysis probably differs from the classical method. I am firmly convinced: first, you must understand the business, and only after that look at the figures. For me, investing is an attempt to understand the place of a company or an asset in the future. Financial reports reflect only the past and the present. Therefore, my analysis always begins with an attempt to thoroughly understand the essence of the company itself. On what is this business really built? What value does it create today? And, most importantly, how will this business be integrated into the economy of tomorrow? I evaluate ideas through the prism of a long-term perspective. Before opening a trade, I must clearly see the place of this company in the world in 5–10 years. I am interested in what management is doing right now in order to capture the markets of the future. Multipliers, balances, and charts are secondary — they should only confirm the fundamental idea, not dictate it. I write on Seeking Alpha to share exactly this approach: helping readers s

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The Rise of Superconducting Erasure Qubits – an Industry Perspectivequantum-computing

The Rise of Superconducting Erasure Qubits – an Industry Perspective

TECHNICAL BLOG The Rise of Superconducting Erasure Qubits – an Industry Perspective Building a commercially useful quantum computer requires more than increasing qubit numbers. The real challenge is reducing errors to the point where quantum processors can reliably outperform classical systems on meaningful problems. Maria Violaris DEVELOPER ADVOCATE Maria has a hybrid role at OQC of quantum error correction research towards building a fault-tolerant quantum computer, and technical science communication. She has a PhD in theoretical quantum information from the University of Oxford, alongside which she interned with IBM Quantum making the “Quantum Paradoxes” YouTube series. She has spearheaded multiple new initiatives in the quantum community, including the “Quantum on the Clock” Schools Video Competition; Oxford Quantum Information Society; and quantum computing workshops. She has also written for Physics World magazine; published quantum education research; and hosts a Quantum Foundations Podcast on her YouTube channel, amongst other quantum content. Today’s superconducting qubits have made remarkable progress, but error rates remain too high for large-scale, fault-tolerant quantum computing. That’s why quantum error correction (QEC) is one of the defining engineering challenges for the industry. At OQC, we are taking a hardware-first approach to solving it. Our latest Perspective article, Developments in superconducting erasure-qubits for hardware-efficient quantum error correction, explores one of the most promising directions in the field: superconducting erasure qubits. It also explains how our newly developed OQC Dimon architecture fits within the rapidly evolving research landscape. Engineering qubits that reveal their own errors Traditional quantum error correction assumes errors occur silently, requiring significant overhead to detect and correct them. Erasure qubits however, change that assumption. An erasure error occurs when a qubit leaves its computati

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Quantinuum to Partner with the Singapore Institute of Technology to Help Develop Singapore’s Future Quantum Workforce.quantum-computing

Quantinuum to Partner with the Singapore Institute of Technology to Help Develop Singapore’s Future Quantum Workforce.

Quantinuum to Partner with the Singapore Institute of Technology to Help Develop Singapore’s Future Quantum Workforce. Quantinuum has signed a Memorandum of Understanding (MoU) with the Singapore Institute of Technology (SIT) to train and expand Singapore’s quantum workforce. Building on Quantinuum’s existing R&D footprint and the planned deployment of its Helios quantum processor in Singapore, the collaboration aims to prepare an industry-ready workforce across engineering, systems development, and applied technologies. Key Initiatives of the Partnership Practical Curriculum: Joint development of hands-on training modules tailored for both undergraduate students and working professionals. Tool Access: Direct access to Quantinuum’s suite of quantum software, development tools, and simulators for educational use. Community Engagement: Hosting regular workshops, seminars, and campus events to build local interest and technical literacy in quantum computing. This strategic alignment addresses the growing commercial demand for skilled talent, ensuring local developers and engineers gain direct exposure to state-of-the-art quantum hardware and software environments. Additional information can be found in a LinkedIn post here. August 15, 2026 dougfinke2026-08-15T20:43:39-07:00 Leave A Comment Cancel replyComment Type in the text displayed above Δ This site uses Akismet to reduce spam. Learn how your comment data is processed.

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Columbia hosted a workshop to connect quantum research with industryquantum-computing

Columbia hosted a workshop to connect quantum research with industry

Columbia University hosted its first Quantum Industry and Investor Workshop on August 10, indicating a new effort to translate a century of quantum research into practical applications. The event brought together industry leaders and 37 Columbia faculty members comprising the Columbia Quantum Initiative, experts in areas from quantum materials to networking. “These discussions are critical, especially now,” said Sharon Sputz, associate vice president of research initiatives and development at Columbia Research, emphasizing the need to combine university innovation with industry to advance quantum technologies. Participants explored collaborations focused on quantum networking, security, and sensing, and plans for continued conversations are already underway. Columbia Quantum Initiative Showcases Research & Industry Alignment Columbia University’s Quantum Initiative comprises 37 faculty members, a broad internal base of expertise spanning quantum materials, photonics, computing, networking, and sensing. The event was not simply a presentation of findings; it signaled a proactive effort to forge partnerships crucial for advancing the field, according to university leaders. Attendees explored potential collaborations focused on quantum networking, security protocols, and advanced sensing technologies, areas where current classical systems are reaching their limits. Roundtable discussions centered on practical implementation, including shared laboratory models and streamlined technology transfer processes, reflecting a focus on overcoming hurdles to market entry. Participants also voiced interest in post-quantum cryptography, a critical area for safeguarding data against future quantum-powered attacks. “This workshop was a phenomenal opportunity to receive input from industry leaders that will help shape Columbia’s quantum research projects, inform our quantum education priorities, and expedite the development and adoption of new quantum technologies for real-world

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EPFL Integrates Quantinuum Trapped-Ion Cloud Access into SCITAS HPC Platformquantum-computing

EPFL Integrates Quantinuum Trapped-Ion Cloud Access into SCITAS HPC Platform

EPFL Integrates Quantinuum Trapped-Ion Cloud Access into SCITAS HPC Platform The EPFL Center for Quantum Science and Engineering (QSE), in collaboration with EPFL’s SCITAS high-performance computing (HPC) platform, has partnered with Quantinuum to provide cloud-based access to Quantinuum’s trapped-ion quantum computers. The agreement establishes EPFL as the first Swiss academic institution to natively integrate commercial QPU access directly into its institutional supercomputing infrastructure. [ EPFL SCITAS Hybrid Quantum-HPC Platform ] │ ┌─────────────────────────────────┴─────────────────────────────────┐ ▼ ▼ SCITAS HPC Infrastructure Interface Quantinuum Cloud QPU Hardware • Unified Academic Queue & Auth Workflow. • High-Fidelity Trapped-Ion Processors. • Integrated Digital Quantum Simulations. • Low Decoherence & High Gate Fidelity. • Native Integration for EPFL Researchers. • Digital Quantum & Many-Body Simulations. The partnership allows EPFL research groups to execute quantum algorithms, digital quantum simulations, and many-body physics calculations without navigating separate external management workflows: Research Applications: EPFL groups led by Prof. Giuseppe Carleo (Computational Quantum Science Laboratory) and Prof. Zoë Holmes (Quantum Information and Computing Group) are deploying the hardware to explore complex many-body quantum simulations and evaluate practical quantum algorithmic limits. SCITAS Integration: Developed alongside SCITAS Operational Director Gilles Fourestey, the integration allows researchers to submit hybrid classical-quantum jobs directly through familiar HPC batch job interfaces. Workforce & Academic Curriculum: Led by QSE Academic Director Prof. Vincenzo Savona and Master’s Program Co-Director Prof. Nicolas Macris, EPFL plans to extend hardware access to students enrolled in its Master’s program in Quantum Science and Engineering for hands-on circuit design and QPU execution. Review the official announcement on E

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University of Guelph and Xanadu Sign MOU to Advance Quantum Education and Talent Developmentquantum-computing

University of Guelph and Xanadu Sign MOU to Advance Quantum Education and Talent Development

University of Guelph and Xanadu Sign MOU to Advance Quantum Education and Talent Development The University of Guelph (U of G) and photonic quantum computing developer Xanadu Quantum Technologies (NASDAQ/TSX: XNDU) have signed a Memorandum of Understanding (MOU) to collaborate on quantum computing education, curriculum integration, and workforce development. Extending through 2028, the partnership aligns U of G’s College of Computational, Mathematical, and Physical Sciences (CCMPS) with Xanadu’s technical stack to train the next generation of quantum software developers and researchers. The agreement addresses a key objective of Canada’s National Quantum Strategy: bridging the gap between academic physics/computer science programs and commercial quantum engineering requirements. As part of the collaboration, U of G will integrate practical quantum programming frameworks—centered on Xanadu’s open-source PennyLane software—into undergraduate and graduate coursework. [ U of G & Xanadu Workforce Pipeline Framework ] │ ┌───────────────────────────────────┼───────────────────────────────────┐ ▼ ▼ ▼ Academic Curriculum Integration PennyLane Software Training Industry Skill Readiness • Quantum Information Science. • Open-Source Quantum Framework. • Direct Workforce Pipeline. • Practical Algorithmic Labs. • Photonic Circuit Simulation. • Hands-On Quantum Hardware. • Interdisciplinary Research. • Hybrid Classical-QPU Models. • Industry-Academic Co-Design. Key objectives of the MOU include: Curriculum Co-Development: Creating hands-on educational modules that introduce students to practical quantum algorithms and photonic quantum computing paradigms. PennyLane Integration: Utilizing Xanadu’s open-source software stack as a primary instructional tool for quantum circuit design, optimization, and quantum machine learning. Workforce Development: Establishing collaborative research pathways and practical training opportunities to supply Canada’s expanding commercial quantum ec

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BLOQ Quantum Partners with Srirama Engineering College to Drive Quantum Education in Andhra Pradeshquantum-computing

BLOQ Quantum Partners with Srirama Engineering College to Drive Quantum Education in Andhra Pradesh

BLOQ Quantum Partners with Srirama Engineering College to Drive Quantum Education in Andhra Pradesh Kerala-based quantum technology developer BLOQ Quantum Pvt Ltd has signed a Memorandum of Understanding (MoU) with Srirama Engineering College (Sree Rama Engineering College) in Tirupati, Andhra Pradesh. The partnership marks the first dedicated institutional quantum computing initiative in the Tirupati region, aiming to build regional capacity in quantum software development, workforce training, and research. Under the agreement, Srirama Engineering College will integrate the cloud-based BLOQ Quantum Computing Platform into its curriculum and research workflows. The platform provides faculty and engineering students with hands-on exposure to quantum circuit programming, algorithm design, and simulation environments, with a specific focus on Quantum Machine Learning (QML) applications. [ BLOQ Quantum & Srirama Engineering College MoU Framework ] │ ┌───────────────────────────────────────┴───────────────────────────────────────┐ ▼ ▼ Academic Curriculum & Hands-On Access Research & Innovation Objectives • Integration of BLOQ Quantum Cloud Platform. • Applied Quantum Machine Learning (QML). • Hands-On Quantum Circuit Programming & Workflows. • Joint Patent Development & Industry Publications. • Practical Training in Quantum Algorithm Design. • Regional Deep-Tech Skill Workforce Training. Led by Sreekuttan L S, CEO of BLOQ Quantum, and institutional leaders including Chairman Mannem Ramireddy and Principal Dr. K. Jayachandra, the collaboration establishes a framework for joint academic research, technical workshops, patent filings, and industry-tailored skill development. The initiative supports broader national efforts under India’s National Quantum Mission (NQM) to expand quantum education and technical expertise across tier-2 and tier-3 academic hubs. Review the announcement on the BLOQ Quantum Blog here. August 12, 2026 Mohamed Abdel-Kareem2026-08-

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Pasqal and Swiss Quantum Initiative sponsor CERN’s quantum skills trainingquantum-computing

Pasqal and Swiss Quantum Initiative sponsor CERN’s quantum skills training

Thirty-four students from over 30 nationalities recently converged at CERN for the Quantum Materials Hackathon, applying quantum computing to challenges similar to those faced by large-scale scientific infrastructure. The event, hosted by CERN and the Open Quantum Institute, tasked participants with solving real-world problems using quantum hardware and simulators, guided by experts from both industry and research. Quantum materials were the focus, given their critical role in technologies like the superconducting magnets and sensors essential to CERN’s particle accelerators. “Quantum hackathons allow students to apply quantum computing to solve real-world problems,” said Julia Thiele, an Open Quantum Initiative Advisory Committee member, emphasizing the need for a skilled workforce to utilize increasingly accessible quantum resources. Participants moved beyond theoretical exercises, directly applying quantum computing resources to challenges proposed by industry and research partners; this hands-on approach distinguishes the event from more conventional academic training. Each team tackled a specific problem, receiving mentorship throughout the process from experts at organizations like Pasqal and the University of Geneva, fostering a direct link between emerging talent and established quantum technology developers. Funding for the hackathon came from both Pasqal and the Swiss Quantum Initiative, demonstrating investment in practical quantum education beyond basic research. The selection of quantum materials as the central focus reflects CERN’s own reliance on these technologies; superconducting magnets and advanced sensors integral to the laboratory’s particle accelerators depend on their unique properties, suggesting a strategic alignment between skills development and infrastructure improvement. This focus extends beyond fundamental physics, with challenges also addressing applications in areas like clean energy, pharmaceutical development, and responsible sourc

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A Quantum-Enhanced Feedback Oscillatorquantum-computing

A Quantum-Enhanced Feedback Oscillator

--> Quantum Physics arXiv:2608.07753 (quant-ph) [Submitted on 7 Aug 2026] Title:A Quantum-Enhanced Feedback Oscillator Authors:Hudson A. Loughlin, Daniel M. DeSantis, Nergis Mavalvala, Vivishek Sudhir View a PDF of the paper titled A Quantum-Enhanced Feedback Oscillator, by Hudson A. Loughlin and Daniel M. DeSantis and Nergis Mavalvala and Vivishek Sudhir View PDF Abstract:Feedback oscillators, such as lasers and masers, serve as time references in modern computing, communication, and measurement. Quantum fluctuations ultimately limit their phase stability and ability to keep time precisely; in the absence of quantum engineering, their phase stability is bounded by a standard quantum limit (SQL). Techniques to improve the frequency stability of feedback oscillators beyond the SQL have been theorized, but have not yet been demonstrated. We demonstrate an opto-electronic oscillator (OEO), a type of feedback oscillator, with phase stability approaching the SQL. We then engineer the OEO's quantum state to improve its phase stability, thereby demonstrating the essential principle quantum-enhancement of feedback oscillators. Similar techniques may be employed to evade the SQL in other feedback oscillators such as masers and lasers. Comments: Subjects: Quantum Physics (quant-ph); Optics (physics.optics) Cite as: arXiv:2608.07753 [quant-ph]   (or arXiv:2608.07753v1 [quant-ph] for this version)   https://doi.org/10.48550/arXiv.2608.07753 Focus to learn more arXiv-issued DOI via DataCite (pending registration) Submission history From: Hudson Loughlin [view email] [v1] Fri, 7 Aug 2026 20:36:37 UTC (7,953 KB) Full-text links: Access Paper: View a PDF of the paper titled A Quantum-Enhanced Feedback Oscillator, by Hudson A. Loughlin and Daniel M. DeSantis and Nergis Mavalvala and Vivishek SudhirView PDFTeX Source view license Current browse context: quant-ph < prev   |   next > new | recent | 2026-08 Change to browse by: physics physics.optics

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Utah Governor Spencer Cox Signs Executive Order Launching Statewide Quantum Initiativequantum-computing

Utah Governor Spencer Cox Signs Executive Order Launching Statewide Quantum Initiative

Utah Governor Spencer Cox Signs Executive Order Launching Statewide Quantum Initiative Utah Governor Spencer J. Cox has signed Executive Order 2026-06, formally launching the Utah Quantum Initiative to establish the state as a regional and national hub for quantum research, advanced manufacturing, and commercialization. Led by the Governor’s Office of Economic Development (GOED) in partnership with the Nucleus Institute, the initiative integrates quantum technology into Utah’s long-term economic development strategy and establishes a statewide Quantum Coordination Council to align policy, capital, and academic research. The executive order aligns Utah’s regional assets with federal priorities outlined in Executive Order 14413 (Ushering in the Next Frontier of Quantum Innovation). Capitalizing on the state’s existing strengths in photonics, quantum materials, semiconductor fabrication, and high-performance computing (HPC) simulation, Utah aims to position itself as a specialized center for quantum hardware integration—including cryogenic control electronics, advanced packaging, and interconnect fabrication. [ Utah Quantum Initiative Strategic Alignment ] │ ┌─────────────────────────────────────┼─────────────────────────────────────┐ ▼ ▼ ▼ Hardware Integration & HPC Defense & Testing Ecosystem Commercial Life Sciences • Semiconductor & Photonics Base. • Hill AFB & Dugway Proving Ground. • Quantum Molecular Simulation. • Cryogenic Control Electronics. • Quantum Sensing & Timing Testbeds. • Drug Discovery Applications. • High-Performance Quantum Sim. • Secure Quantum Communications. • Biotech Enterprise Acceleration. The initiative outlines six core strategic priorities: Hardware Integration Leadership: Leveraging academic research in quantum sensing, materials, and photonics alongside Utah’s semiconductor manufacturing and HPC infrastructure to advance classical-quantum hybrid workflows. Workforce Development: Collaborating with Talent Ready Utah to

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Lithuania Quantum Computing Companies, The Complete Vendor Guidequantum-computing

Lithuania Quantum Computing Companies, The Complete Vendor Guide

The leading lithuania quantum computing companies and institutions in 2026 form a photonics-led ecosystem, built on the country’s internationally competitive laser industry and a research base strong in quantum optics. Lithuania has few pure quantum-computing startups, but it has something most small countries do not: a genuine, globally competitive laser-and-photonics industry that feeds directly into quantum technology. Nine organisations define the lithuania quantum computing companies landscape in this guide: Vilnius University, FTMC, KTU, VILNIUS TECH, Light Conversion, EKSPLA, Integrated Optics, LitQCI, and the national Quantum Lithuania effort. Why Lithuania’s quantum ecosystem is photonics-led Lithuania’s quantum landscape is photonics-led, and that is its defining feature. The country does not have a set of venture-funded quantum-computing-hardware startups building processors. What it has instead is one of the strongest laser-and-photonics industries in Europe relative to its size, and that industry connects directly to quantum technology. Quantum systems based on atoms, ions, and photons are prepared, controlled, and measured using precisely tuned light, so lasers and photonics instruments are core quantum-technology tools. The lithuania quantum computing companies landscape is built from this base: globally competitive laser manufacturers, a research base strong in laser physics and quantum optics, and a national quantum-communication programme. The ecosystem is best understood not as a quantum-computing-startup scene but as a photonics industry and research base positioned to supply and support the wider quantum field. The laser industry behind Lithuanian quantum Lithuania’s laser industry is the foundation of its quantum story. The country is home to laser manufacturers whose instruments are sold to research laboratories and industry worldwide, and Lithuanian-made lasers account for a notable share of the global scientific-laser market. Light Conversio

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TuringQ Planning to IPO and In Race to Become China’s First Public Quantum Firmquantum-computing

TuringQ Planning to IPO and In Race to Become China’s First Public Quantum Firm

TuringQ Planning to IPO and In Race to Become China’s First Public Quantum Firm Shanghai-based photonic quantum firm TuringQ has officially initiated pre-IPO tutoring with the Shanghai branch of the China Securities Regulatory Commission, positioning itself as a leading contender in the race to become China’s first publicly listed quantum computing company. Advised by Guotai Haitong Securities, the move reflects both a broader rush among Chinese hard-tech enterprises to tap public capital markets and a pivotal transition for the domestic quantum ecosystem from early-stage venture funding toward commercialization. Founded in February 2021 by legal representative Jin Xianmin and controlled by Shanghai Siliang Quantum Technology, TuringQ has distinguished itself by focusing on photonic quantum architectures rather than the more common superconducting or trapped-ion routes. Photonic approach benefits include room-temperature operation, high scalability, and direct compatibility with existing optical communications infrastructure. The company’s commercialization efforts reached a significant milestone in June 2025, when a pilot production facility in Wuxi, Jiangsu Province, began operating to produce thin-film lithium niobate photonic chips. This facility enabled wafer-scale manufacturing with thousands of optical components integrated on a single chip, marking a crucial step in translating laboratory prototypes into industrial-scale production. TuringQ’s financial momentum has accelerated sharply, with the firm securing nearly 1 billion yuan ($148 million USD) in 2026 alone. A Series C funding round in April pushed the company’s valuation past 7 billion yuan ($1.04 billion USD). Capital from these rounds is earmarked for advancing practical photonic quantum computers, cultivating a broader quantum algorithm ecosystem, and expanding quantum-powered intelligent computing infrastructure. The listing ambition comes amid broader structural support from Chinese regulators. In

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Quantum employers will meet talent at Chicago’s mHUB in Decemberquantum-computing

Quantum employers will meet talent at Chicago’s mHUB in December

Hundreds of student and postdoctoral researchers will connect with quantum employers at the Chicago Quantum Recruiting Forum on December 7, an event now strategically positioned to launch the larger Q2B26 x Chicago Quantum Summit. The expanded job event, hosted by the Chicago Quantum Exchange and the University of Chicago’s Office of Career Advancement, will be held at mHUB, a hardtech innovation center in Chicago’s West Loop. “With the tremendous quantum ecosystem growth across Illinois, Wisconsin, and Indiana, we’re thrilled to expand the Quantum Recruiting Forum and align with Q2B x Chicago Quantum Summit,” said Emily Easton, the CQE’s director of education and workforce development, emphasizing the effort to link talent with industry. December 7th Forum Launches Q2B26 x Chicago Quantum Summit This shift from a spring event positions the forum as a key talent pipeline for the broader quantum industry gathering, hosted by QC Ware and the Chicago Quantum Exchange from December 8-10. The move underscores a concentrated effort to connect emerging quantum professionals with potential employers immediately before a major collaborative summit. This year’s forum anticipates engaging hundreds of students and postdoctoral researchers with quantum companies, offering both one-on-one meetings with recruiters and a dedicated career fair. mHUB, a hardtech and manufacturing innovation center, provides specialized laboratory space for quantum technology companies and serves as an On-Ramp facility for the Illinois Quantum and Microelectronics Park. Last year’s event drew 600 attendees, and organizers expect the expanded format to further support the development of a skilled quantum workforce in the Illinois-Wisconsin-Indiana region, which is projected to require tens of thousands of workers over the next decade. The Chicago Quantum Exchange has also recently launched initiatives to bolster quantum talent development, including the Q-Ready professional development program and the

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Florida Atlantic University Launches Executive Certificate in Quantum Computing Strategyquantum-computing

Florida Atlantic University Launches Executive Certificate in Quantum Computing Strategy

Florida Atlantic University Launches Executive Certificate in Quantum Computing Strategy The Executive Education program in the College of Business at Florida Atlantic University (FAU) has launched a new professional certificate course titled “Quantum Computing: Business and Sourcing Strategy.” Designed for non-technical enterprise leaders, technology executives, procurement directors, and strategists, the eight-week program focuses on evaluating, sourcing, and deploying quantum capabilities across commercial and public sector organizations. Scheduled to run from August 24 to October 12, 2026, the 24-hour course ($2,700 tuition) is offered both on-campus at FAU’s Boca Raton campus and via live virtual sessions. Led by Dr. Mehran Basiratmand, Director of Innovation and Programs, alongside College of Business Dean Dr. Daniel Gropper, the curriculum covers four primary areas: enterprise information systems and software licensing agreements, quantum ecosystem evaluation (spanning IBM Quantum, Google Quantum AI, D-Wave, IonQ, Quantinuum, AWS Braket, and Azure Quantum), Quantum-as-a-Service (QaaS) procurement strategies, post-quantum cryptography risk management, and hands-on laboratory exercises. The educational initiative follows FAU’s landmark $20 million agreement with D-Wave Quantum Inc. to install an on-site, 4,400+ qubit Advantage2™ annealing quantum computer at its Boca Raton campus. The installation makes FAU the first university in Florida to host a dedicated, on-premises quantum system, positioning South Florida as an emerging regional hub for hybrid quantum computing research, defense application development, and workforce training. Review the official announcement on the FAU Newsdesk here, and explore curriculum details on the FAU Executive Education Portal here. August 7, 2026 Mohamed Abdel-Kareem2026-08-07T10:38:17-07:00 Leave A Comment Cancel replyComment Type in the text displayed above Δ This site uses Akismet to reduce spam. Learn how your comment data

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SEALSQ adds CMOS quantum paths with Quobly, EeroQquantum-computing

SEALSQ adds CMOS quantum paths with Quobly, EeroQ

SEALSQ will begin the second phase of its $200 million SEALQuantum.com initiative in September, extending its quantum ecosystem into areas including satellite and space-based infrastructure. Building on over $65 million already deployed, the company has earmarked an additional $100 million for investment through the end of 2027. SEALSQ’s SEALQuantum Sovereign Quantum Vertical Stack interconnects partners like Quobly and EeroQ, aiming to create a scalable quantum platform. “With the Quantum Vertical Sovereign Stack, our objective is to build a scalable, sovereign quantum platform that can translate today’s capital deployment into tomorrow’s recurring revenue and strategic moat,” said Carlos Moreira, Chairman and CEO of SEALSQ. SEALSQ’s $200 million initiative enters the second phase of deployment, signaling a sustained, multi-stage financial commitment to quantum technology development. The Stack interconnects a growing number of partners and portfolio companies, aiming to create a fully integrated quantum ecosystem. The company’s strategy centers on an architecture linking layers from secure semiconductors to orbital infrastructure, and is designed to be interoperable; portfolio companies like EeroQ and Quobly are being integrated into this framework, each contributing a unique technological layer. At the foundation of this Stack is SEALSQ’s secure-semiconductor and Public Key Infrastructure (PKI) base, developed in collaboration with GlobalFoundries under a strategic Memorandum of Understanding covering secure semiconductor platforms and post-quantum cryptography. This partnership provides a trusted, high-volume manufacturing base for the entire system. Quobly’s silicon spin-qubit architecture and EeroQ’s electrons-on-helium (eHe) architecture both utilize CMOS-compatible fabrication, allowing them to leverage the same secure manufacturing base developed with GlobalFoundries. This dual-processor approach provides SEALSQ with two complementary, industrially scalable

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Norway Quantum Computing Companies, The Complete Vendor Guidequantum-computing

Norway Quantum Computing Companies, The Complete Vendor Guide

The leading norway quantum computing companies and institutions in 2026 form a research-led ecosystem rather than a crowded commercial market, and that distinction matters for understanding how quantum technology works in Norway. The country has very few dedicated quantum startups, but it has strong research institutions, a major industrial group active in quantum sensing, and a new national programme worth roughly 1.1 billion Norwegian kroner. Ten organisations define the norway quantum computing companies landscape in this guide: SINTEF, Simula Research Laboratory, Kongsberg Gruppen, the University of Oslo, NTNU, the OsloMet Quantum Hub, the University of Bergen, Sigma2, the Research Council of Norway, and NorQSoft with the national quantum research centres. Why Norway has a research-led quantum ecosystem Norway’s quantum landscape looks different from those of Germany, Finland, or the Netherlands, and it is important to be honest about that difference. Norway does not have a large set of venture-funded quantum-hardware or quantum-software startups. Its only dedicated pure-play quantum company, the Nordic Quantum Computing Group, ceased operations in December 2024, and it had cited the absence of a national quantum strategy as one reason. The norway quantum computing companies story is therefore mostly a story of research institutions rather than commercial vendors. That research base, however, is genuinely strong. Norway has good university physics and chemistry groups, a large applied-research organisation in SINTEF, a focused software-research institution in Simula, and a major industrial group, Kongsberg, that has made quantum sensing a strategic priority. What Norway lacked until recently was national coordination and funding, and the 2025 national quantum programme was designed to address exactly that. The norway quantum computing companies ecosystem is best understood as a research-led one that is now being given commercial and strategic direction. The nati

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