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AMD joins IBM and ORNL to advance quantum computing

The collaboration will integrate IBM quantum processors with an AMD-powered HPC system to explore quantum error correction at scale. The future of quantum computing will depend on bringing quantum and classical computing together at unprecedented scale. IBM brings quantum computing technology, ORNL brings its scientific research and computing environment, and AMD brings the classical computing technologies and open software to connect quantum processing with scientific workloads. The first deployment brings together IBM quantum computers, including the 120-qubit IBM Quantum Nighthawk, and the Umbra HPC system, powered by AMD EPYC CPUs and AMD Instinct GPUs, in a colocated environment. For AMD, the work reflects a foundational principle: Advances in quantum computing depend on progress in classical computing.

Quantum Computers are becoming a scarce commodity. IonQ has sold out its entire 2027 capacity

IonQ is beginning to turn quantum computing development into an increasingly substantial business. They are increasingly willing to pay for access to specific systems and reserve computing capacity well in advance. IonQ Platform, which includes the company's quantum computing solutions, generated $90.3 million in revenue, representing 127% growth year over year. Superion 256 is expected to become the first quantum computer installed at Nvidia's Accelerated Quantum Research Center, where it will be connected to the company's supercomputing infrastructure. Beyond quantum computers, IonQ is developing quantum networking, sensing and cybersecurity solutions.

ORNL partners with IBM and AMD launching quantum computing platform - Vietnam Investment Review

To address this challenge, IBM has launched a co-design platform for quantum error correction with the Quantum Science Center at Oak Ridge National Laboratory and AMD as its initial partners. The AMD compute provides the classical computing foundation for research into quantum error correction, decoding optimization, and software orchestration. This co-design platform will allow researchers to evaluate the tight integration of classical and quantum computing to fuel momentum in quantum error correction research. This co-design platform is an important step toward building the scalable, efficient computing infrastructure needed to make fault-tolerant quantum computing a reality." The new co-design platform for quantum error correction builds on IBM's existing collaborations with ORNL and AMD.

Chicago’s bid to lead the country in quantum computing

As part of that project, the state established the National Quantum Algorithm Center (NQAC), a Chicago-based collaborative initiative focused on advancing quantum algorithms and applications to support the emerging quantum computing industry. To support the algorithm center and surrounding quantum ecosystem, IBM has unveiled a newly installed IBM Quantum System Two with an IBM Quantum Nighthawk r2 processor at UChicago’s Hyde Park Labs. She said that the arrival of the IBM Quantum System Two will accelerate the work and increase the excitement for quantum computing that’s already taken root in the region. The IBM Quantum System Two is new, but Illinois’ quantum momentum isn’t Paik compared the coalition driving quantum computing in Illinois to “the Avengers”—super-heroes working together to achieve great collective goals. A promising future for quantum computing in Illinois Illinois sits at the center of a longstanding hub of engineering and scientific talent.

IQM Quantum Computers Reports Q3 2026 Results: Backlog Expands to €102.5M, Q3 Revenue Up 51%, and FY 2026 Guidance Reaffirmed

IQM Quantum Computers Plc (Nasdaq: IQMX; Nasdaq Helsinki: IQMX.HE) has reported its financial results for the third quarter and first nine months ended September 30, 2026. Consistent with reporting standards, operating expenses exclude impairment losses/reversals and other operating income. *Note on Operating Expenses: In accordance with standard reporting methodology, operating expenses sum Selling, G&A, R&D, and Other Operating Expenses while excluding other operating grant income (€5.14M in Q3’26) and net impairment reversals (€0.13M in Q3’26). If this listing charge is included, Q3 2026 Operating Expenses total €180.66M ($202.70M USD). Resources and Further Reading Additional details can be found in the IQM Q3 2026 Interim Report here and the Q3 2026 Earnings Presentation here.

Quantum computers are speeding towards cryptographic relevancy: The time to prepare is now.

Quantum hardware and algorithms are maturing, shrinking the projected quantum computing power required to break today’s standard encryption and putting the cryptographic systems that protect sensitive data today on a finite clock. Quantum risk will materialize asymmetrically, meaning some cryptographic systems will fail earlier than others, depending on algorithm design and key size. Unlike Y2K, there won’t be a single moment when everything breaks at once; rather, quantum risk will be realized over time, spanning multiple years as different cryptographic systems become vulnerable at different times. IBM’s contributions extend beyond individual enterprises to shaping multiple government national post‑quantum cryptography (PQC) strategies and convening industry consortia to accelerate large‑scale PQC transformation. Remediate: Migrate current cryptography, legacy cryptography, applications and data to post-quantum cryptography, where available, and minimize impact where remediation isn’t possible.

Guest Post — Commercial Diplomacy: Building The Quantum Ecosystem

A Roadmap for Tomorrow’s Quantum Market Ford, Edison, and IBM all understood that the challenge did not end with the innovation itself. McKinsey reports $12.6 billion in investment in quantum technology startups in 2025. While partnering with government is a well-trodden path for emerging technology development, some paths are more well-trodden than others. Quantum computing can address complex optimization problems with potential applications in industries ranging from finance to cybersecurity to logistics. A “commercial diplomat,” she translates complex science and emerging regulatory frameworks for startups, multinationals, and policymakers as technologies move from the lab to commercial reality.

Study Maps 24 Problems Where Quantum Computers Could Gain an Edge

Insider Brief Researchers identified 24 computational problems with potential for substantial quantum speedups and outlined the conditions needed to achieve them. The study covers areas including chemistry, optimization and data analysis, connecting theoretical quantum methods with possible practical applications. Quantum computers could deliver substantial speedups on 24 computational problems, but a new study also reveals the challenging conditions that would make those gains useful. From Candidate Problems to Useful Work The researchers group the 24 computational problems identified in the study into two stages based on how much is known about their potential quantum advantage. The guide is aimed at scientists and other specialists who understand computing but may not know how to apply quantum methods to their work.

IBM unveils its first quantum computer in Illinois at Hyde Park Labs

IBM unveiled its first quantum computer in Illinois Friday at Hyde Park Labs, ushering in an era of potentially transformative technological advancement, with Chicago at the center of development. “It’s a huge deal, and we’re very excited about IBM’s Quantum System Two,” Johnson told the Tribune Friday. The computer giant offered its first look Friday at its most advanced quantum computer at Hyde Park Labs, with Gov. The quantum computer system is kept at a temperature colder than outer space. But the IBM Quantum System Two will probably have a few more years at Hyde Park Labs before its new home is ready at the former South Works site.

Quantinuum Unveils Nexus Roadmap to Deliver the First Developer Platform Designed for the Fault-Tolerant Quantum Era

Quantinuum is combining its hardware, error-correction architecture, and full-stack software platform into an integrated system for fault-tolerant quantum computing. Read the full research here: quantinuum.com/fault-tolerance-by-2029‍ About Quantinuum Quantinuum is a leading quantum computing company offering a full-stack platform designed to make quantum computing deployable in real-world environments. Words such as "aim," "anticipate," "believe," "confidence,” "could," "expect," "explore," "intend," "may," “path,” "plan," "potential," "seek," “suggest,” "will," "would" and similar expressions identify forward-looking statements, although not all forward-looking statements contain these words. About Quantinuum Quantinuum is a leading quantum computing company offering a full-stack platform designed to make quantum computing deployable in real-world environments. Words such as "aim," "anticipate," "believe," "could," "expect," "explore," "intend," "may," "plan," "potential," "seek," "will," "would" and similar expressions identify forward-looking statements, although not all forward-looking statements contain these words.

Quantum computers pose imminent threat to digital locks at banks

RSA-2048, the high-end encryption protecting your bank accounts and data online, can be cracked with a quantum computer with 23,000 qubits. With a quantum computer, though, the situation changes completely, and breaking the encryption can be relatively easy and cost-effective. The only hurdle is that this algorithm needs a quantum computer that is large enough and accurate enough to run it. In 2019, Google Quantum AI researchers predicted that a quantum computer with 20 million physical qubits would be needed to break RSA-2048. So, a quantum computer with 610,530 cat qubits could do the same job in just 1.5 hours.

ORNL, IBM, AMD launch co-design platform for QEC | IBM Quantum Computing Blog

Oak Ridge National Laboratory (ORNL), IBM, and AMD have launched a co-design platform for quantum error correction to help researchers define and accelerate the classical and quantum workflows for scientifically relevant quantum computing. A co-design platform for quantum error correction This platform builds on IBM and AMD's existing collaboration, including using AMD GPUs to accelerate sample-based quantum diagonalization and demonstrating efficient quantum error decoding on AMD hardware. How the co-design platform will advance quantum computing research Qubits, the fundamental units of quantum computation, make errors. The algorithms that will make quantum computing scientifically useful need substantial classical computing resources working in step with quantum processors. All this work will inform the development of IBM Quantum Starling, the fault-tolerant quantum computer IBM plans to deliver by 2029.

Oak Ridge teams up with IBM, AMD to launch quantum error correction platform

Oak Ridge National Laboratory, IBM and AMD unveiled a co-design platform for quantum error correction Thursday with the Department of Energy’s Quantum Genesis Mission in mind. The Quantum Genesis Mission is an initiative that launched in June and is designed to accelerate quantum system development, advance high-impact, scientific use cases and build a supercomputing facility for engineers to access emerging capabilities. “This doesn’t solve everything, but it’s a really important first step in terms of trying to accelerate quantum error correction research.” The codesign platform will connect to the Oak Ridge Leadership Computing Facility in Tennessee. “Solving the challenges of quantum error correction is essential to making quantum computing a practical tool for scientific discovery, which is a priority for Oak Ridge National Laboratory,” Travis Humble, director of the Quantum Science Center at ORNL, said in a statement.

IBM, AMD and Oak Ridge join forces to launch quantum computing error-correction platform

IBM Corp., Advanced Micro Devices Inc. and the Quantum Science Center at Oak Ridge National Laboratory today announced a new quantum error-correction platform that integrates quantum and high-performance computing. Gaining high performance and correctness in quantum computing requires protecting quantum information from noise. In many cases, researchers have paired quantum computers with classical computers to achieve superior performance for running industry-relevant problems. The challenge today is scaling up these advances with classical computing. “With Umbra, we will now test new ideas, evaluate approaches at scale, and build the foundation for more reliable quantum computers.”

Oak Ridge National Laboratory, IBM And AMD Launch New Co-Design Platform for Quantum Error Correction

Insider Brief IBM, Oak Ridge National Laboratory’s Quantum Science Center and AMD unveiled a joint platform integrating quantum and high-performance computing to advance quantum error correction. PRESS RELEASE — IBM (NYSE: IBM), the U.S. Department of Energy-funded Quantum Science Center (QSC) at Oak Ridge National Laboratory (ORNL), and AMD (NASDAQ: AMD) today unveiled a new co-design platform for quantum error correction, integrating quantum and high-performance computing. To address this challenge, IBM has launched a co-design platform for quantum error correction with the Quantum Science Center at Oak Ridge National Laboratory and AMD as its initial partners. This co-design platform will allow researchers to evaluate the tight integration of classical and quantum computing to fuel momentum in quantum error correction research. IBM and ORNL already work together through the Quantum Science Center, the ORNL-led DOE National Quantum Information Science Research Center established under the National Quantum Initiative.

Why waiting for quantum computers to arrive could leave your security exposed

An organisation that understands its cryptographic dependencies is better prepared to respond when standards change, algorithms are retired or vulnerabilities emerge. Post-quantum cryptography is exposing a broader resilience issue: organisations need to become better at changing cryptography. Post-quantum algorithms have moved beyond academic research into published standards and real implementations. The mathematics behind post-quantum cryptography is different from the mathematics underpinning established approaches such as RSA and elliptic curve cryptography. We still cannot say when a quantum computer capable of breaking today’s cryptography will arrive.

Run utility-scale quantum dynamics simulations with the new Dynamics Simulator Qiskit Function

Today, we're putting that capability in the hands of the IBM Quantum Qiskit community. High-fidelity circuit execution is the foundation for everything the Dynamics Simulator Qiskit Function delivers. Get speed and accuracy on IBM quantum computers, all in a single function call With the Dynamics Simulator Qiskit Function, you don't have to trade accuracy for speed. As a PhD candidate applying Krylov methods at Mizzou’s Quantum Innovation Center, I’m eager to use Q-CTRL’s Dynamics Simulator Function in my research. Dynamics Simulator is available now to IBM Quantum Platform Premium and Flex Plan users.

Caltech and the New California Quantum Ecosystem

The breakthroughs accelerating the growth of California's quantum innovation ecosystem depend on fundamental science and engineering from Caltech and other academic institutions, according to Caltech leaders and researchers who spoke at the statewide Quantum California Convening last month. Quantum California is a partnership between the California Governor's Office of Business and Economic Development (GO-Biz) and the University of California Office of the President (UCOP). The initiative was launched in November 2025 to align academia, researchers, national labs, industry, investors, and government partners around a shared ecosystem for quantum innovation and job creation. "For California, this creates opportunities to bring more skilled people into the region and connect university research with industrial development," Ooguri said. "Our focus at JPL is leaning toward quantum sensing, but we also contribute to quantum computing, such as MKIDs for qubit readout and quantum communication such as Deep Space Optimal Communications.

A tiny squeeze dramatically changes the magnetism of exotic materials

This ability could provide a straightforward way to control materials being investigated for advanced electronic technologies. A Simple Squeeze Reveals Surprising Magnetic Changes To investigate how pressure affects these materials, the ORNL team placed tiny crystals of manganese telluride and iron sulfide between a pair of titanium plates and gently compressed them. Using neutron diffraction at ORNL's Spallation Neutron Source, the scientists examined what happened to the magnetic structures inside the crystals. The strain also altered an electrical phenomenon called the anomalous Hall effect, providing evidence that the mechanical squeeze influenced the materials' electrical behavior. The findings highlight how a relatively simple experiment can uncover new ways to manipulate magnetic materials, potentially helping researchers develop the building blocks for future spintronic devices.

Unraveling the Pentagon’s quantum problem

Post-quantum cryptography, or the mathematical algorithms needed to secure networks and systems from attacks using quantum computers, is a challenge each military service must tackle. Securing systems for a post-quantum threat becomes more complicated when the platforms that need to be upgraded don’t stay in one place for long. And part of the Pentagon and military services upgrading their high-value systems to withstand a quantum attack will be making sure individuals are aware of the quantum threat. The Pentagon released a post-quantum cryptography strategy earlier this year. And its implementation “could be added to the Pentagon’s existing network modernization,” O’Donoghue said.