Quantum computing news usually picks up near the end of the year, as companies try to provide evidence that they are hitting benchmarks on time. However, there have been interesting announcements as the summer starts this year, from incremental progress to attention-grabbing promises. As we did earlier this month, Ars has a rundown of some of the most significant announcements. These include a promise of useful, error-corrected quantum computing as soon as 2028, details on an updated trapped ion processor, and a case in which claims of quantum supremacy have been cut back a bit thanks to advances in more traditional algorithms. 2028 is remarkably soon Many people in the field expect that useful quantum computers are still about five to 10 years away. While there may be a few useful algorithms that can be run on existing error-prone hardware, almost all of the interesting problems that quantum computing can be applied to will require some form of error correction enabled by linking a small collection of hardware qubits together into what’s called a logical qubit. Logical qubits include the redundant storage of information along with neighboring qubits that can be measured to determine when errors occur and how to fix them. To do useful computations, you need a healthy number of logical qubits—roughly 100 to provide a complete model of the behavior of some simple chemicals, to tens of thousands to perform complicated algorithms like the one that can break encryption. (So, any definition of “useful” comes with the important caveat “for whom?”) That means, at a minimum, we’re going to need thousands of high-quality hardware qubits to build a useful error-corrected machine. At the moment, existing qubit technologies offer either high quality or lots of qubits. There are roadmaps from here to where we want to be, but
Jun 17, 2026 · via arstechnica.com
DeSantis, who is the company’s senior vice president, foundational AI models, custom silicon, quantum computing, told CNBC that once those computers appear, they will get bigger every year and tackle increasingly important problems. According to the CNBC report, the executive’s prediction is the first such forecast delivered by Amazon about quantum computers, and it lands about in the middle of other experts’ predictions, which range from five to 15 years. DeSantis said in the report that problems around things such as chemistry and material science are likely to be the first ones to be tackled by quantum computers. “These are the problems where today we cannot run high enough fidelity simulations in a classic computer, and once we have a quantum computer, we’re going to find some real progress,” DeSantis said, per the report. DeSantis, who has been with Amazon for 27 years, was appointed to lead the company’s new organization formed in December 2025 that brought together its AI models, silicon development and quantum computing. He reports directly to Amazon CEO Andy Jassy. Advertisement: Scroll to Continue PYMNTS reported in February 2025 that quantum computing harnesses the properties of quantum mechanics to perform complex calculations at unprecedented speeds. The report said this capability could be particularly valuable in the financial sector, where traditional process optimization can require massive computational power. In May, the Department of Commerce said it planned to provide $2.013 billion in federal incentives to nine companies to support and accelerate their development of quantum computing. The Department said at the time in a press release that the incentives are designed to strengthen America’s position in quantum computing, a frontier technology that has significant implications for national security and technological resilience. In April, IBM announced new hubs in Chicago and Cambridge, Massachusetts, at which it will work
Jun 17, 2026 · via pymnts.com
New plasma trick could unlock smaller, more powerful computer chips A clever chemical trick may help unlock the next era of tiny, high-performance computer chips by peeling away atoms with unprecedented precision. - Date: - June 17, 2026 - Source: - Princeton University - Summary: - A new technique could solve one of the biggest challenges in making future computer chips from ultrathin materials. Researchers found that coating molybdenum disulfide with oxygen or fluorine lets manufacturers remove just the top layer of atoms much more safely during plasma processing. The result is a cleaner, more controlled path toward smaller and more capable electronics. - Share: Silicon has powered computer chips for decades, but engineers are increasingly running into the material's physical limits. To keep making electronics smaller and more powerful, researchers are investigating ways to combine silicon with new ultrathin materials. One promising group of materials is known as transition metal dichalcogenides (TMD). Among the leading candidates is molybdenum disulfide, a material just three atoms thick, consisting of a layer of molybdenum between two layers of sulfur. Removing a Single Atomic Layer For future transistors that combine silicon and TMD materials, manufacturers may need to selectively remove atoms from only the upper sulfur layer while leaving the underlying layers untouched. One common way to remove surface atoms involves plasma, the energetic state of matter found in the Sun and other stars. Plasma research has also been a major focus at the U.S. Department of Energy's (DOE) Princeton Plasma Physics Laboratory (PPPL) for the past 75 years. Under carefully controlled conditions, particles within a plasma can strike the surface of a TMD material and knock atoms loose. The challenge is achieving enough energy to remove sulfur atoms from the top layer without harming the molybdenum layer beneath. Because the difference between
Jun 17, 2026 · via sciencedaily.com
US startup starts work on ‘first utility-scale quantum computer’ in Australia PsiQuantum breaks ground on an Australian site planned to host a utility-scale quantum computer. American startup PsiQuantum has begun construction on a facility in Moreton Bay, Australia, where it plans to build and deploy what it calls the world’s first utility-scale, fault-tolerant quantum computer. The California-based quantum computing company broke ground on the site alongside representatives from the Australian government, the Queensland government, and local officials. The project is expected to become a key part of Australia’s push to establish itself as a hub for advanced computing technologies. The facility will be developed in multiple phases and will house the infrastructure needed to support PsiQuantum’s photonic quantum computing architecture. One of the first major components arriving at the site will be a large cryogenic plant designed to cool the quantum system. PsiQuantum said the cryoplant, being built by Linde Engineering, is expected to be delivered in the second half of 2027. The company ordered the system in late 2024 and described it as one of the largest cryogenic cooling plants ever built for a quantum computing application. Race toward utility The cooling system will be followed by cryogenic cabinets that will contain photonic quantum chips. These cabinets will be connected using conventional optical fiber, forming the foundation of the company’s planned utility-scale machine. Unlike many quantum computing efforts that remain focused on laboratory-scale systems, PsiQuantum is pursuing a photonics-based approach designed to scale using existing semiconductor manufacturing processes and optical networking technologies. “Building a quantum computer that solves real world problems is one of the great engineering challenges of our time. For decades, quantum computing has held the promise of transforming what humanity can achieve through computation, and today in Australia we are beginning to turn that promise into
Jun 17, 2026 · via interestingengineering.com
Quantum Pulse Does Industrial Light Magic To Deliver Massive Boost In Qubits Israeli quantum startup Quantum Pulse Ventures has unwrapped a manufacturing line tweak that it says promises a ten times boost in quantum computer performance. The company unwrapped its QP2.0 platform at a conference in Edinburgh this week, and said its “composite pulse approach improves operational fidelity and robustness against fabrication variability.” The platform centers on a redesigned universal directional coupler that it claims delivers “an order-of-magnitude improvement in operational fidelity.” The company likens its directional coupler to a “transistor for optical computing, allowing two qubits to interact in a photonic circuit. Variations and inaccuracies in manufacturing of photonic circuits cause a cascade of problems that make errors more likely. This is one of the reasons that quantum computer designs must allow for a vast number of physical qubits and extensive error correction in order to deliver one logical qubit, meaning quantum computers, for now, are massive both in size and cost. Quantum Pulse’s design uses composite wave guides, rather than traditional one segment uniform wave guides, to reduce physical errors and noise in the circuits of these gates. The design is also more resistant to fabrication errors, it claims. The company said this can be used in a broad class of photonic integrated circuits. And it can be adopted across a range of current silicon photonics, silicon nitride, thin-film lithium niobate, and related integrated photonics manufacturing processes. Here are the components of its stack: Ofer Shapiro, co-founder and chief executive officer the Israeli company, said the coupler allowed light to jump from one wave guide to another, similar to a transistor in a traditional CMOS circuit. The wave guides themselves are “very, very small, they are less than one micrometer in size, and the distance between them has
Jun 17, 2026 · via nextplatform.com
Quantum computing stocks have become one of the most desirable and volatile prospects for investors and speculators. Operating far from the spotlight, in the Ness Ziona Science Park, Quantum Art is the only Israeli company building an end-to-end quantum computer. The company plans to launch a powerful computer next year with a performance outstripping that of Nvidia's strongest supercomputers. Just two months ago, Quantum Art acquired a new backer: US investment fund Bedford Ridge Capital, which led a $140 million financing round by the Israeli company. Tomorrow's quantum computers will be extraordinarily powerful, taking only seconds or minutes for calculations that existing computers take weeks or years to perform. They will accomplish this through a tiny processing unit in quantum computers called a "qubit." If the Quantum Art founders' plans work out, the quantum computer to be launched late next year will contain a microchip of up to 100 logical qubits - double the maximum computing power of the current strongest supercomputers of Nvidia and HP. Efficient technology The lively interest that Quantum Art is arousing in the quantum industry, especially among technology investors, is a result of its uniqueness in the sector. While trapped ions move around inside its competitors' computer, Quantum Art's technology cuts down on this flux, thereby enhancing the stability and precision of the computations. Laser beams "strum" the various ions and move them according to the calculation command "like a guitar is strummed," says Quantum Art cofounder and CEO Tal David. At the same time, the ions method also has disadvantages. First of all, the technology is more expensive, which complicates the transition from a small prototype to an industrial computer as big as a printer. Another difficulty lies in the processing speed and the engineering difficulty of greatly multiplying the number of qubits, but
Jun 17, 2026 · via en.globes.co.il
By harnessing the unique properties of quantum mechanics, scientists and engineers worldwide seek to enable systems with extraordinary capabilities. Many of them are working on the highly anticipated development of quantum computers capable of completing complex calculations at unprecedented speeds. These computers could meet the growing computational demands of both scientific research and data-intensive industries like finance, cybersecurity, and medicine. Necessary for quantum system development is an environment in which the fragile nature of quantum bits (qubits) is stabilized and the thermal noise (fluctuations in current/voltage) inherent in superconducting electronics is dampened. That environment requires cryogenic temperatures, those ranging from 5 to 10 millikelvins, colder than the extreme temperatures encountered in space. Dilution refrigerators create this needed cryogenic condition. Dilution refrigerators used for quantum R&D need a wiring system that can operate in cryogenic temperatures, maintain a power-efficient direct current, and support high-speed data transmission. Researchers at MIT Lincoln Laboratory prototyped flexible, ribbon-like, low-frequency (LF) cables that not only meet these demands, but also are compatible with commercial circuit-board manufacturing processes. Maybell Quantum, a Colorado-based company supplying hardware for developing quantum systems, licensed the design for these cables and is adapting them for use in their dilution refrigerators. "We’re planning to integrate Maybell LF CryoTrace, the ribbon wiring system transferred from MIT Lincoln Laboratory, across all thermal stages of our dilution refrigerators. Initially, the cables will be used for LF services, such as thermometry, heaters, and sensors, with feasibility studies planned for additional functions," says Lasse Nielsen, strategy and operations lead at Maybell Quantum. "After qualification testing, LF CryoTrace is planned for the next iteration of our internal wiring across the Maybell product family." Motivation for invention To support government initiatives in quantum computing, the Lincoln Laboratory research team investigated alternatives to conventional coaxial cables for use in hardware like
Jun 17, 2026 · via news.mit.edu
The world's first nuclear clock just ticked on — and it could help detect a fifth fundamental force of physics By using a rare thorium nucleus as a timekeeper, physicists have demonstrated the first working nuclear clock, a device that could lead to even more precise clocks and new ways to search for dark matter. For decades, physicists have pursued a goal that sounds nearly impossible: to build a clock that keeps time using an atom's nucleus rather than the electrons orbiting it. Now, researchers have demonstrated the first functioning nuclear clock — an advancement that could eventually lead to more robust timekeeping devices and new ways to search for dark matter and physics beyond the Standard Model. "Having worked in this field for more than 15 years, it is just beautiful, how a very 'wild' idea such as manipulating an atomic nucleus with a laser has turned into reality," Thorsten Schumm, a professor of quantum metrology at the Vienna University of Technology and a member of the research team, told Live Science via email. How is a nuclear clock different from an atomic clock? Today's most accurate clocks are optical atomic clocks, which measure the frequency of electrons jumping between different energy levels inside atoms. These clocks are so precise that they would lose less than a second over a 100 million years. A nuclear clock works similarly, but it uses a transition within the nucleus itself, where the nucleus jumps between energy levels. Because the nucleus sits deep inside the atom, it's far less affected by external disturbances from things like electric or magnetic fields. According to Schumm, the nuclear transition can be 1,000 to 10,000 times less sensitive to environmental noise than atomic transitions are. "This means that it would be easier to stabilize a nuclear clock
Jun 17, 2026 · via livescience.com
UK quantum computing firm Orca has deployed one of its systems in Japan. The company this week announced the successful deployment of its PT Series photonic quantum computer to a major enterprise customer in Japan, in partnership with Toyota Tsusho Corporation. The quantum computer was deployed in less than one week into a live enterprise environment. The PT-2 system will be integrated into cloud services supporting the enterprise’s global operations. The system will be upgraded to Orca’s new PT-3 platform later this year, delivering increased processing capability. “Toyota Tsusho is proud to support the introduction of this quantum computing capability into the Japanese enterprise market,” said Norihito Ohigashi, the manager of the digital infrastructure department at Toyota Tsusho. “This collaboration reflects our commitment to enabling advanced technologies that will help shape the future of manufacturing and intelligent infrastructure.” “This endeavor demonstrates how quickly quantum computing can move from concept to real-world operation,” added Richard Murray, co-founder and CEO of Orca Computing. “Installing Orca’s PT-2 quantum system within an enterprise environment in under one week highlights the maturity of Orca’s photonic quantum technology. Together with Toyota Tsusho, we are laying the foundation for commercial quantum advantage in industrial AI applications.” Founded in 2019 as a spin-out from Oxford University, Orca Computing is a UK-based photonic quantum computing company. It launched its PT-2 system, which is able to fit into industry-standard data center racks, in 2024. The company has deployed around 11 quantum computers on-premises, with customers including Montana State University and the UK's National Quantum Computing Centre. An Orca PT-2 system has always been deployed at Digital Realty's new liquid cooling lab in London. Toyota Tsusho Corporation is part of the Toyota Group, and can trace its roots back to the 1930s. Its operations span automotive, mobility, supply chains, metals, green
Jun 16, 2026 · via datacenterdynamics.com
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Amazon Web Services (AWS) is expanding its quantum computing partnership with QuEra. The companies announced an expanded strategic collaboration this week to bring Libra, the company's first fault-tolerant quantum computer capable of tackling scientifically relevant problems, to Amazon’s Braket quantum cloud platform. By 2028, Amazon will make QuEra’s Libra, a “Megaquop-scale” device, capable of executing one million quantum operations over hundreds of logical qubits, available to its customers. “This is a very special moment - for the first time, a dream of realizing useful, fault-tolerant quantum computers is in our direct line of sight. Designed to enable quantum computation at an unprecedented scale, these systems should realize truly unique applications. We are proud to significantly expand our collaboration with AWS to bring these unique capabilities to the broader community of scientific users,” said Prof. Mikhail Lukin, chief science officer, QuEra Computing. Eric Kessler, general manager for Amazon Braket, at AWS, added: "We believe fault-tolerant quantum computing will become a foundational part of how customers solve their hardest computational problems on AWS. QuEra's technology has demonstrated a clear path to that future. By bringing these capabilities to customers through Amazon Braket, they can combine QuEra's fault-tolerant quantum processors with the scalable AWS HPC and AI services they already rely on." Braket launched in the US in 2020, allowing customers to book time on quantum computers from a number of different hardware providers. The quantum systems are not housed in AWS data centers; instead, they are hosted by their respective providers and connect to AWS’ cloud via APIs. As well as offering access to its own quantum simulators, quantum companies with systems available through Braket include IonQ, IQM, Rigetti, AQT, and QuEra. Founded in 2019 by Harvard and MIT alumni, Boston-based QuEra Computing Inc. offers neutral-atom-based quantum computing, which is based on
Jun 16, 2026 · via datacenterdynamics.com
Atom Computing announced that it has raised more than $300 million to accelerate the development and deployment of commercial-scale fault-tolerant quantum computers. The funding includes a $100 million Series C round led by Third Point Ventures, with participation from DCVC, Cisco Investments, and other investors. The total also includes a signed letter of intent with the U.S. Department of Commerce for an additional $100 million. To date, the company has raised more than $300 million. Atom Computing has emerged as a leader in neutral-atom quantum computing. The company recently demonstrated quantum error correction on its systems, becoming one of only two companies in the industry to achieve the milestone and the first to do so using neutral-atom technology. The company surpassed the 1,000-qubit threshold for a universal gate-based quantum system in 2023 and is currently participating in Stage B of the Defense Advanced Research Projects Agency’s Quantum Benchmarking Initiative. Atom is also collaborating with Microsoft on the world’s first commercial quantum computer featuring logical qubits and maintains strategic partnerships with Cisco and NVIDIA. Atom plans to use the funding to scale next-generation systems with higher qubit counts and improved fidelity, enhance software and error-correction capabilities, expand global deployments of on-premises systems for enterprise and government customers, and grow its engineering, research, and commercial teams. The company said its approach, based on arrays of optically trapped neutral atoms, is designed to support practical applications across industries such as pharmaceuticals, materials science, energy, logistics, cybersecurity, defense, and financial modeling. KEY QUOTES: “Quantum computing is entering a new phase where technical breakthroughs are translating into real-world systems and global adoption, fueled by our neutral-atom technology. We have strong momentum, and we are accelerating the development of utility-scale quantum computers and expanding access to our technology for customers solving some of the world’s most
Jun 16, 2026 · via pulse2.com
IQM Deploys Its First U.S. Quantum Computer at Oak Ridge National Laboratory Published Tuesday, June 16, 2026 | 11:53 a.m. Updated Tuesday, June 16, 2026 | 11:53 a.m. OAK RIDGE, Tenn. & ESPOO, Finland--(BUSINESS WIRE)--Jun 16, 2026-- The Department of Energy's Oak Ridge National Laboratory (ORNL) today launched Pathfinder, the first commercially procured quantum computer at ORNL, built and deployed by IQM Quantum Computers. The 20-qubit IQM Radiance system marks IQM's first quantum computer installation in the United States. This press release features multimedia. View the full release here: https://www.businesswire.com/news/home/20260616373175/en/ IQM's first U.S. quantum computer is live — at DoE Oak Ridge National Laboratory. The deployment comes ahead of IQM's planned listing on the Nasdaq Global Select Market through its business combination with Real Asset Acquisition Corp. (Nasdaq: RAAQ), expected to close in mid-2026. ORNL is home to Frontier, the world's most powerful supercomputer for open science, and to one of the most consequential high-performance computing environments anywhere. Pathfinder now sits inside that environment, connected to HPC systems in the National Center for Computational Sciences Technology Integration Group's test bed, where ORNL researchers will develop the methods and tools for a hybrid quantum-HPC ecosystem. "Our first U.S. system now sits on Oak Ridge campus, connected to their HPC environment, owned and operated by their teams,” said Jan Goetz, CEO and Co-founder of IQM. “Quantum becomes useful when it works inside real computing infrastructure, and there is no better place to prove that. Oak Ridge is a place where serious computing is done.” ORNL owns and operates Pathfinder directly, rather than accessing quantum capability remotely through the cloud. This is the model behind every IQM deployment: customers take direct ownership and control of their quantum infrastructure, including the intellectual property they build on it. It is the reason national laboratories, HPC
Jun 16, 2026 · via lasvegassun.com
QuEra CEO: Quantum moves beyond science project to engineering challenge QuEra CEO Andy Ory said enterprises need to get ready for quantum computing and it will launch its Libra quantum computer via AWS Braket in 2028. Ory added that scalable quantum computing has moved from a science challenge to an engineering one. Speaking at AWS' Analyst Summit in New York, Ory said "we really believe that we are going to be measured as an industry based on utility." AWS said it will work with QuEra to bring the first fault-tolerant quantum computers to the cloud via Amazon Braket. In a blog post, AWS said it will collaborate with QuEra to bring its upcoming Libra quantum computer to Braket, which added QuEra's Acquila system to Braket in 2022. Ory added that utility will be based on scalable machines that have thousands and tens of thousands of logical error corrected qubits. QuEra currently offers its Aquila, a 256-qubit analog neutral-atom system, and Gemini-Class quantum systems which have 260-qubits, but has a system called Libra on its roadmap. "We're really excited about Libra. The science is not done yet, but what's really changed is that we see the end in sight. This is increasingly becoming an engineering challenge, not a scientific challenge, to get to utility scale." QuEra focuses on neutral atom quantum computing, which Ory argued has scalability advantages. For instance, superconducting quantum systems require a chip bathed in a 10 or 15 millikelvin refrigerator. "That refrigerator costs more than our entire machine," said Ory. "It's cold. It's unwieldy. And it's error prone." Eric Kessler, General Manager of Amazon Braket, said neutral-atom quantum computing has matured rapidly and the key components are in place for scale. Kessler said there’s a lot of work ahead for quantum computing, but the goal is to
Jun 16, 2026 · via constellationr.com
QuEra’s Libra Fault-Tolerant Quantum System Heading To Amazon Braket Service The rapidly evolving quantum computing industry has quickly spun through two critical stages and now has solidly moved into a third one, according to Yuval Boger, chief commercial officer at QuEra. The first stage was showing that a quantum system – even one with as few as five qubits – could be built. Once that was proven, the next question facing system makers was whether they could correct errors, a crucial test because a quantum system that produces a lot of errors isn’t useful. As we’ve written, there have been significant advances in error correction, such that companies ranging from Microsoft and Google to QuEra and others now say they can. “The third and exciting phase is, 'Can you scale it up? Can you get to a large enough number of qubits that can run useful problems?’” Boger told The Next Platform. “For an end customer, the question has always been, ‘How far is it away from something really useful? What's the gap between where I am and where I need to be?’ That gap has been very, very rapidly narrowed in terms of the time to true use.” Quantum systems continue to evolve with more logical and physical qubits and roadmaps being laid out that stretch into the next decade and preview the coming era of fault-tolerant, scalable commercial computers. QuEra this week is making its next step public, announcing a new quantum system – Libra – that will be hosted on the Braket service at Amazon Web Services, a fully managed cloud service that serves as a unified platform that developers and researchers can use to build and run quantum algorithms across multiple modalities, from superconducting and trapped ions to neutral atoms. Libra, a neutral-atom system, will be
Jun 16, 2026 · via nextplatform.com
Waterloo, Ontario--(Newsfile Corp. - June 16, 2026) - QuantumCore Ltd. (CSE: QNCR) (FSE: K1Y) ("QuantumCore" or the "Company") is pleased to announce a significant technical breakthrough in the development of its kinetic inductance traveling wave parametric amplifier ("KI-TWPA") platform, achieving performance levels that approach rival existing semiconductor-based amplification technologies. As a result of the recent technical achievements, QuantumCore is accelerating its commercialization timeline. The Company expects to begin shipping evaluation units to select customers under non-disclosure agreements in the coming weeks, enabling integration testing and performance validation within leading quantum computing programs. The breakthrough addresses one of the most critical infrastructure bottlenecks facing the quantum computing industry as systems scale beyond 1,000 qubits, a milestone expected to be reached across multiple quantum computing architectures beginning in 2027. Quantum computers operate at temperatures approaching absolute zero, where even small amounts of heat can dramatically impact performance, scalability, and operating costs. Conventional semiconductor amplifiers introduce heat into the cryogenic environment, requiring additional cooling capacity and limiting system density. QuantumCore's superconducting KI-TWPA technology provides high-performance signal amplification while dissipating a fraction of the power consumed by semiconductor alternatives. "This breakthrough marks a major milestone for QuantumCore and validates our strategy of building the critical infrastructure required to scale quantum computing," said Eugene Profis, Chairman and Chief Executive Officer of QuantumCore. "As quantum processors move beyond 1,000 qubits and toward fault-tolerant systems, heat management and physical space inside cryogenic environments become increasingly important challenges. We believe our KI-TWPA platform is uniquely positioned to address both." The successful demonstration of the technology also enables QuantumCore to begin formal engagement with foundry partners for future volume manufacturing. Discussions are expected to focus on establishing scalable fabrication processes capable of supporting growing demand from quantum computing companies as the industry transitions from research-scale systems to commercial deployment.
Jun 16, 2026 · via newsfilecorp.com
China has achieved mass production of ultra-pure silicon, according to the state-owned China National Nuclear Corporation (CNNC) — an essential material for building silicon-based quantum computers. The breakthrough builds on a government push to sharpen its...
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Jun 16, 2026 · via digitimes.com
Off the Wire Press Releases As practical quantum computing edges closer, global leaders begin making plans to demonstrate its advantages June 15, 2026 — With the first practical quantum computers expected to arrive in about two years’ time, global quantum computing leaders are thinking about how these systems should first be deployed for the largest scientific impact. This spring, the Department of Energy’s Pacific Northwest National Laboratory (PNNL) brought together quantum computing leaders for the second annual Quantum Computing for Chemistry workshop, organized by the PNNL Quantum Algorithms and Architecture for Domain Science (QuAADS) initiative. Karol Kowalski, director of QuAADs and an expert in advanced computational chemistry, opened the event with a challenge to the assembled group: identify scalable and adaptive algorithms capable of operating across varying system sizes and qubit counts to solve practical problems. Participants explored how near-term quantum computing and hybrid quantum-classical computing can deliver early demonstrations of utility for solving complex chemistry and materials science problems. Bindu Nair, Associate Director of DOE’s Office of Science Basic Energy Sciences program, addressed the role of DOE in supporting quantum computing and driving its advancement globally. Quoting DOE Undersecretary for Science Dario Gil, she said that “we are at an inflection point in computing and because of that we are going to be able to do science in ways that have never been done before.” “The charge to you,” she added, “is to come up with what the parameters need to be to make a quantum computer useful to this community so that you can demonstrate something useful in quantum chemistry.” DOE has made a large investment in quantum computing through the National Quantum Initiative and its Quantum Centers, she added. Now that it is coming close to paying off, the hard part begins. Up Next for Quantum Chemistry
Jun 16, 2026 · via hpcwire.com
Cybersecurity firm DigitalXForce Corporation has announced the immediate commercial availability of its Enterprise TRiSCM™ (Trust, Risk, and Security Management) platform, a unified operating layer designed to manage multi-tenant compliance, automated governance, and systems resilience. Moving beyond traditional Governance, Risk, and Compliance (GRC) frameworks that rely on periodic, point-in-time assessments, the platform introduces continuous control assurance mechanisms optimized to handle the infrastructure fragmentation caused by Generative AI, agentic workflows, and cloud-to-edge environments. The platform’s release introduces specialized modules tailored to automate compliance tracking and operationalize security monitoring under a single risk intelligence framework. Cryptographic Discovery and the Quantum Risk Operations Center A central component of the new architecture is Q-ROC™ (Quantum Risk Operations Center), a specialized dashboard designed to track organizational exposure to upcoming cryptographic vulnerabilities. The operations hub automates the generation of a continuous cryptographic inventory, cataloging legacy public-key algorithms across corporate networks that are vulnerable to decryption by cryptographically relevant quantum computers. By evaluating system data lines and cloud boundaries, Q-ROC scores infrastructure readiness against “harvest-now, decrypt-later” (HNDL) data collection strategies. The module provides continuous post-quantum readiness benchmarking and executive trust reporting, allowing risk management teams to track compliance as they transition toward post-quantum cryptography (PQC) standards. AI-SPM and Continuous Runtime Monitoring Operations In parallel with its quantum-readiness sub-systems, the platform incorporates an AI TRiSCM module to govern large language models (LLMs) and distributed machine learning supply chains. This module combines shadow AI detection algorithms with AI Security Posture Management (AI-SPM) hooks to monitor enterprise data flows and detect unauthorized AI integrations in real time. The automated control layer applies risk-quantification metrics to AI processing environments, ensuring that model deployment configurations comply with evolving global data-privacy mandates. This structural monitoring links directly into DigitalXForce’s broader Enterprise Security & Risk Posture Management (ESRPM) architecture, which leverages intelligent agents to autonomously
Jun 16, 2026 · via quantumcomputingreport.com