A new screening tool ranks diet-relevant particles by exposure likelihood and toxicological concern, helping researchers focus on the nanoparticles and micro/nanoplastics most in need of deeper safety evaluation. Study: Ranking of potential hazards from engineered nanoparticles and micro/nano-plastics in food systems In a recent research article published in the journal Environment International, researchers developed a semi-quantitative probability-impact framework to rank potential human health hazards of engineered nanoparticles and micro/nanoplastics in agri-food systems, integrating exposure potential and toxicological data to prioritize particles for screening-level risk assessment. Nano-Exposure in Food Systems The increasing presence of engineered nanoparticles (ENPs) and micro- and nanoplastics in agricultural and food systems has sparked growing concerns about oral exposure and potential health hazards. ENPs such as nanosilver (Ag), titanium dioxide (TiO2), and zinc oxide (ZnO) are widely used in food-contact materials, agriculture, and consumer products, leading to their release into soils, water, and crops. ENPs differ greatly in their physicochemical properties, production volumes, applications, environmental persistence, and toxicological profiles, making hazard ranking challenging. For example, commonly produced nanomaterials, such as nano-SiO2 or nano-TiO2, are manufactured in large quantities, whereas specialty nanoparticles, such as fullerenes or quantum dots, are produced in smaller volumes. Micro- and nanoplastics further complicate this landscape due to their diverse polymer chemistries and variable environmental behaviors. The fragmented data and heterogeneous evidence on production, exposure, and toxicity across nano- and microplastic types hinder straightforward comparisons and risk assessments. Existing approaches to nanomaterial risk prioritization include multi-criteria decision analysis and grouping strategies, but they often cannot fully capture the combined effects of production, exposure, and toxicity. The authors emphasize a semi-quantitative probability-impact matrix framework as an effective architecture that separately integrates exposure likelihood and hazard severity, accommodates multiple evidence types, and quantifies uncertainty through probabilistic modeling. Framework for Hazard Ranking Meng and Nag developed a
Jun 1, 2026 · via azonano.com
King’s College London gains access to Google Quantum AI’s Willow processor The National Quantum Computing Centre and Google Quantum AI have selected a King’s-led research project to use Willow for work connecting quantum computing and computational neuroscience. King’s College London has been awarded access to Google Quantum AI’s Willow processor through a joint initiative with the National Quantum Computing Centre, giving a UK-led university research team access to quantum hardware for work on neural systems and quantum dynamics. The project is led by Dr Eleanor Crane, Quantum Computing Lecturer at King’s College London, and Dr Alexander Schuckert from ENS Paris. The team will work with Dr Chris Timmermann, Co-Director of the UCL Centre for Consciousness Research, to study quantum analogues of neurons using the Willow processor. The National Quantum Computing Centre (NQCC) and Google Quantum AI announced the award on 28 May 2026. The call for proposals was launched in December 2025 to support UK researchers and research consortia working on applications that could accelerate progress toward useful quantum advantage. Useful quantum advantage is the point at which quantum computers can solve certain problems of practical relevance faster than today’s most powerful classical systems. According to the NQCC press release, this is the first time Google has partnered with a British government institution to provide access to the Willow processor. The King’s College London team will now work with experts from Google Quantum AI to design and run experiments on Willow, while the NQCC will provide technical support throughout the project. King’s project selected for Willow access The selected project will investigate quantum analogues of neurons and explore how quantum computing techniques could support the study of complex quantum dynamics inspired by neural systems. Crane and Schuckert also co-lead a finalist team in the Google XPRIZE Quantum Applications challenge. King’s
May 31, 2026 · via edtechinnovationhub.com
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May 31, 2026 · via moomoo.com
When most investors think about quantum computing, they picture labs in California or glossy slides at CES, or most recently, the Trump Administration's massive investment in the space. Quantum computing conversations tend to veer toward roadmaps, qubit counts, and charts that all end with "2030+." What they rarely picture is something far more concrete: governments already wiring quantum systems into their national security infrastructure. That is the version of quantum IonQ (IONQ +2.75%) is building. NYSE: IONQ Key Data Points The country-scale networks hiding in plain sight Start in Romania. In February 2026, IonQ announced that its technology powers the Romanian National Quantum Communication Infrastructure (RoNaQCI) -- one of the largest terrestrial quantum key distribution networks in Europe. This is a nationwide backbone that links government ministries, critical infrastructure, hospitals, and research institutions with quantum-secure links built on IonQ's commercial quantum key distribution (QKD) systems. A few months earlier, IonQ had already done something similar in Slovakia, deploying the country's first national quantum communication network in partnership with the Slovak Academy of Sciences. That project strengthens the country's defense posture and data sovereignty, and it ties directly into the broader EuroQCI initiative -- Europe's push to build a continentwide quantum-safe communications layer. These are government contracts embedded in national infrastructure. They come with long timelines, wide moats, and a kind of stickiness that does not show up in a simple quantum computing label. The sovereign angle: Who is really the customer? Look at who pays for these networks. RoNaQCI is backed by European Union and national Romanian funding, channeled through a consortium that includes research institutes, telecom providers, and IonQ's subsidiary ID Quantique, which supplied all QKD systems for the project. Slovakia's network follows a similar pattern, with public money underwriting the build-out of a secure backbone that sits alongside
May 31, 2026 · via fool.com
This strange new phase of matter could transform quantum technology - Date: - May 30, 2026 - Source: - Brown University - Summary: - By stacking custom-designed silver nanoparticles like nanoscale LEGO bricks, scientists stabilized a mysterious crystal phase that had never been observed before. The material not only solves a longstanding puzzle in materials science but also exhibits promising quantum properties at room temperature. - Share: Researchers from Brown University and the University of Michigan have achieved something that scientists had only imagined until now. By carefully arranging tiny particles of silver into custom-built structures, they created and stabilized a previously elusive state of matter that had existed only in theoretical models. The work, published in Science, captures an intermediate structural state that appears during a transformation between two common crystal arrangements found in metals. In addition to revealing new details about how these transformations occur, the newly created material displays unusual optical behavior that could eventually be useful for quantum computing and other quantum information technologies. More broadly, the research demonstrates a new strategy for designing materials from the bottom up by assembling specially engineered nanoparticles into entirely new structures with customized properties. "Our work is a little bit like kids playing with LEGO blocks," said Ou Chen, an associate professor of chemistry at Brown and a corresponding author of the research. "We synthesize unique nanoscale building blocks and stack them into interesting structures. In this case, we were able to stabilize these theorized transitional structures and demonstrate important quantum optical properties." Capturing a Missing Step in Crystal Transformations Many metallic materials naturally organize their atoms into one of two crystal arrangements known as face-centered cubic (FCC) and body-centered cubic (BCC). In an FCC structure, particles are packed as tightly as possible. They occupy each corner of a
May 30, 2026 · via sciencedaily.com
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May 30, 2026 · via youtube.com
Could Quantum Computers Crack Crypto Sooner Than Expected? Let's uncover why the Quantum Threat could challenge crypto security by 2030 and what it means for investors and blockchain networks. Quick Take Summary is AI generated, newsroom reviewed. Quantus believes advances from Google and IBM may bring quantum crypto risks closer to 2030. Quantum computers could eventually challenge public-key cryptography used across major blockchains. Researchers increasingly support Post-Quantum Cryptography as the primary defense strategy. Crypto developers have time to prepare, but experts urge action before quantum capabilities mature. The cryptocurrency industry has spent years defending itself against hackers, scams, and cyberattacks. However, a new concern now sits at the center of industry discussions. Researchers increasingly believe quantum computers could eventually challenge the cryptographic systems that protect digital assets worldwide. A recent report from Quantus has intensified those concerns. The report argues that rapid progress from Google and IBM has significantly shortened the timeline for a potential breakthrough. Previous estimates suggested cryptocurrencies had decades before facing serious quantum risks. Quantus now believes the window may be much smaller, with meaningful threats potentially emerging around 2030. The warning arrives at a critical time for the blockchain sector. Institutional investors continue entering the market, governments explore digital currencies, and billions of dollars remain secured through public-key cryptography. If the report proves accurate, developers may need to accelerate efforts to strengthen crypto infrastructure before quantum technology reaches a dangerous threshold. Why Researchers Are Sounding The Alarm For years, experts viewed practical quantum attacks as a distant possibility. Quantum machines showed promise but lacked the stability and scale needed to threaten modern encryption systems. Recent developments, however, have shifted that perception. Technology leaders continue reporting significant advances in error correction, qubit stability, and computational efficiency. Google and IBM have invested heavily in pushing the boundaries of
May 30, 2026 · via coinfomania.com
SEALSQ announced an additional strategic investment in quantum computing company EeroQ and will serve as the lead investor in EeroQ’s upcoming financing round, strengthening its commitment to developing scalable quantum computing technologies and expanding its broader Quantum Highway strategy. The investment builds on SEALSQ’s previous investments in EeroQ in December 2025 and February 2026. The funding comes through SEALSQ’s Quantum Fund, an internal investment initiative focused on accelerating the development of a sovereign quantum technology ecosystem through investments in quantum computing startups across the United States and Europe. EeroQ is developing a patented quantum computing architecture based on electrons on helium (eHe), a technology designed to be fully compatible with existing CMOS semiconductor manufacturing processes. The company believes this approach can enable more efficient scaling compared with many other quantum computing platforms. The latest investment follows ongoing collaboration between the two companies on an integrated Quantum Security Vertical Stack. The project aims to combine SEALSQ’s secure semiconductor hardware, post-quantum cryptography, and public key infrastructure services with EeroQ’s quantum processor architecture. The proof of concept is expected to be demonstrated at SEALSQ’s Quantum Center of Excellence in Geneva, pending regulatory approvals. SEALSQ cited several recent developments at EeroQ as factors behind its increased commitment, including progress on a control architecture designed to manage up to one million qubits using fewer than 50 physical control lines. The company also highlighted EeroQ’s collaboration with Conductor Quantum involving NVIDIA Ising models as part of an autonomous quantum computing laboratory proof of concept. Under the new agreement, SEALSQ has subscribed to an additional investment in EeroQ and committed to anchor EeroQ’s next priced financing round. As lead investor, SEALSQ plans to support participation from strategic and institutional investors aligned with EeroQ’s U.S.-focused quantum technology roadmap. The expanded role gives SEALSQ a greater stake in EeroQ’s
May 30, 2026 · via pulse2.com
A research team from Kingâs College London has become the first academic group in the UK to gain access to Googleâs highly advanced new quantum computer chip, named âWillow.â The opportunity is part of a joint initiative launched last year by Google Quantum AI and the National Quantum Computing Centre (NQCC), Britain's national quantum laboratory, which invited top UK scientists to pitch projects for the chance to work with the cutting-edge hardware, according to BBC. Quantum computers operate on the laws of quantum mechanics, and they they process information fundamentally differently than everyday tech. Quantum computers can theoretically solve complex problems that are entirely impossible for traditional computers. To put Willow's power into perspective, Google claims the chip can solve a specific theoretical math problem in just five minutes. For the world's current fastest supercomputer to finish that exact same task, it would take 10 septillion years â that is a 10 followed by 24 zeros. Why this matters for the real world While these numbers sound like science fiction, the Kingâs College London team plans to use this extreme processing power to tackle real-world challenges. According to Dr. Eleanor Crane, who is co-leading the research team alongside Dr. Alexander Schuckert from ENS Paris, using Willow will âlight a torchâ for studying the building blocks of life. Currently, standard supercomputers fail when trying to simulate how multiple fundamental particles interact in nature. With Willow, the team hopes to model natural systems, like photosynthesis (how plants turn sunlight into energy), and answer questions that have eluded scientists for generations. According to Dr. Crane, unlocking these secrets could completely transform everyday society by helping scientists not only create significantly better, more efficient solar cells but also build power grids that transport electricity with almost zero wasted energy, and even discover brand-new life-saving
May 30, 2026 · via timesofindia.indiatimes.com
New 3D silicon chip breakthrough could extend Mooreâs Law for years - Date: - May 30, 2026 - Source: - University of Illinois Grainger College of Engineering - Summary: - As traditional chip miniaturization slows, researchers have found a way to pack more computing power into the same space by stacking silicon circuits in multiple layers. The new process uses ultra-thin silicon membranes and low-temperature manufacturing techniques to overcome a major obstacle that has long blocked the production of true 3D chips. - Share: For decades, the computing industry has followed a simple formula: make transistors smaller and pack more of them onto a chip. That strategy fueled the extraordinary rise in computing power predicted by Moore's law. But as components approach atomic scales, engineers are increasingly running into the physical limits of silicon and the effects of quantum mechanics. Many researchers believe the next major advance will come not from shrinking devices further, but from building upward. A team led by University of Illinois Grainger College of Engineering materials science and engineering professor Qing Cao has demonstrated a new method for stacking multiple layers of silicon electronics directly on top of one another. The approach could dramatically increase computing density, improve performance, and reduce energy consumption while extending the progress that has driven the semiconductor industry for more than half a century. "Take something as simple as static random-access memory, which is universal in CPUs and GPUs. Today it takes six microelectronic devices called transistors on a single plane to store one bit of information. With vertical integration, you can distribute them across multiple layers. It's like replacing a sprawling suburb with high-rises: you get the same functionality, but the spatial footprint is reduced while making communication between layers faster and more efficient," Cao explained. The researchers report that
May 30, 2026 · via sciencedaily.com
With a large concentration of research institutions, software and hardware companies, and startups, Karnataka, and in particular Bengaluru, is key to India’s quantum ambitions. After the Union Cabinet approved the National Quantum Mission (NQM) in 2023 to build capabilities in quantum technologies, Indian Institute of Science (IISc) was selected as one of the hubs under the mission. Bengaluru is also home to most of the startups backed by the mission. Ajai Chowdhry, Chairman of the Mission Governing Board of the National Quantum Mission of India, speaks to The Hindu about achievements from the State in the quantum sector, progress made by the mission so far, the importance of sovereign technology and expected breakthroughs in the coming days. Is NQM on track in terms of achieving its targets? National Quantum Mission (NQM) is a mission-mode project based on the concept of ‘lab to market.’ We were given ₹4,000 crore for this project. ₹2,000 crore, in addition, is sitting with four other institutions, including the Department of Defence, Department of Space and Atomic Energy, Ministry of Electronics and Information Technology of India and Department of Telecom, which are also working in parallel on quantum technologies. We started in earnest in January 2024. We created four hubs — IISc for quantum computing, IIT Madras for quantum communication, IIT Bombay for quantum sensing, and IIT Delhi for quantum devices and materials. In the quantum communication area, we have made very good progress. We have four or five good startups, one of which has tested 500 kilometres of quantum-secure network. This is a Bengaluru-based startup named QNu, backed by NQM. We are the second country in the world to do this. Why is it necessary for the country? If a powerful quantum computer appears in China, it can easily break our cybersecurity. So, we need
May 30, 2026 · via thehindu.com
As quantum computing progress accelerates these days, it carries a profound implication for cybersecurity. It’s widely known that today’s public-key cryptography will eventually fail. Algorithms such as RSA and elliptic-curve cryptography (ECC) can be broken by operational quantum computers, and this has accelerated global investment in quantum-resistant algorithms built to protect against both classical and quantum attacks. However, organizations are challenged both to find algorithms that are secure, and also deploy them at global scale without disrupting current systems. As a result, three broad approaches have been explored to address this post-quantum threat. Each offers valuable insights, but comes with significant limitations that prevent it from serving as a universal solution. Buyer beware. Asymmetric Encryption Helps Secure the Internet To date, the asymmetric cryptographic pattern that underpins today’s internet is both scalable and resilient. Public-key cryptography enables secure key exchange, identity verification, and trust establishment across billions of devices. As quantum threats emerge, the challenge is migrating to quantum-resistant algorithms while preserving this operational model. This means adopting approved, standardized post-quantum primitives within familiar asymmetric workflows, rather than abandoning the model entirely. Before examining why other approaches fail, it’s important to understand what a practical solution looks like – and why asymmetric post-quantum cryptography is not just theoretically sound, but operationally viable today. ML-KEM (Module-Lattice-Based Key Encapsulation Mechanism) represents one such approach. ML-KEM: A Practical Foundation for Post-Quantum Security ML-KEM is a post-quantum asymmetric key exchange algorithm based on lattice cryptography, which has been selected through extensive public scrutiny for global post-quantum standardization. Validation of its practical relevance includes being part of the Commercial National Security Algorithm (NSA) Suite 2.0 (CNSA 2.0) – the NSA’s set of quantum-resistant algorithms for National Security Systems. CNSA 2.0 lists ML-KEM as the quantum-secure mechanism for key establishment in general-purpose cryptographic use cases. Why
May 30, 2026 · via cybersecurity-insiders.com
Quantum Computing Poses Bigger Threat to Financial Infrastructure Than Wallets
Summary
- Commercialized quantum computing could put the financial system at greater risk than individual wallets.
- Andrew Gault, chief executive officer of Zerotier, said the most dangerous vulnerability in the financial system is not stored data but data moving between institutions.
- He said hackers are collecting interbank messages, payment authentication records and digital signature data to decrypt them later with quantum computers.
Forecast Trend Report by Period
Quantum computers, once commercialized, could pose a greater threat to the financial system than to individual wallets, CoinDesk reported on May 30.
Andrew Gault, chief executive officer of Zerotier, said the financial system's most dangerous vulnerability is not stored data but data moving between institutions.
Gault said hackers are already collecting encrypted financial data and storing it for future decryption once quantum computers become powerful enough. The data being gathered includes interbank messages, payment authentication records and digital signature data.
"Attackers do not need to read the data right away," he said. "They can store it now and wait for quantum computing technology to reach a tipping point."
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May 30, 2026 · via en.bloomingbit.io
Researchers in Japan have succeeded in measuring the temperature inside living cells with high precision using a new class of biocompatible quantum nanosensor – something that has been difficult to do until now even. If improved, the nanosensor could be used to characterize a wide range of biological phenomena and so help in disease diagnosis, they say. Recent years have seen the advent of a new generation of nanoscale quantum sensors that can detect the tiny magnetic fields of biological systems. Some of these sensors rely on photons and others on electrons or spin defects – typically diamond specially engineered with nitrogen–vacancy (NV) defects. This material is made by removing two carbon atoms from the diamond lattice and replacing one with a nitrogen atom. The other “hole” is left empty, thereby creating a vacancy or defect. The spin state of the defect is influenced by the local magnetic field that can be “read out” from the way it fluoresces. While a powerful tool, and biocompatible, this type of quantum sensor does suffer from certain limits. For one, it can be structurally inhomogeneous, which affects how it detects temperature and other physical or chemical parameters inside biological cells. A more homogenous structure Even though the new molecular quantum nanosensor (MoQN) works in the same way as these conventional devices, it does not suffer from this problem, explain Nobuhiro Yanai of the University of Tokyo and Hitoshi Ishiwata of the National Institutes for Quantum Science and Technology (QST), who led this research effort. This is because it has a more homogenous structure and does not contain any defects. Instead, it is made by embedding molecular spin qubits, in this case fabricated from pentacene, in nanocrystals of para-terphenyl. This design makes the structure uniform on a molecular scale and preserves the quantum coherence
May 30, 2026 · via physicsworld.com
Europe bets on quantum computing, with France leading the way France enters a new phase of the global race for advanced computing technologies, after French President Emmanuel Macron announced a new investment package worth 1.5 billion euros to support the quantum computing and microelectronics sectors. In this article: France enters a new phase of the global race for advanced computing technologies, after French President Emmanuel Macron announced a new investment package worth 1.5 billion euros to support the quantum computing and microelectronics sectors, a step reflecting the growing importance of these technologies among the priorities of countries seeking to bolster their digital sovereignty and technological capabilities. The plan includes allocating 1 billion euros to develop the French quantum computing strategy, along with 550 million euros to support the microelectronics sector, as part of an approach aimed at building a technology ecosystem capable of competing globally in the coming years. Global race for the next generation The French move comes at a time when competition among major economic powers is intensifying to own the infrastructure for future technologies, particularly in the fields of artificial intelligence, advanced computing, and electronic chips. Recent months have seen accelerated moves by the United States to strengthen its presence in the sector, with the administration of US President Donald Trump unveiling plans to acquire stakes worth 2 billion dollars in nine companies specializing in quantum computing, as part of efforts to cement American leadership in this strategic field. This trend reflects a growing recognition that quantum computing could become one of the most influential technologies in the global economy over the coming decades. Technology reshaping industries Experts believe that quantum computing has the potential to bring about fundamental transformations in a large number of economic and scientific sectors, due to its ability to process complex problems
May 30, 2026 · via jawlah.co
Bitcoin’s biggest quantum risk may not be wallet keys. An early investor fears something bigger Andrew Gault, the venture capitalist who funded the quantum hardware labs now threatening bitcoin, says the industry is looking in the wrong place. Google's own security team moved in the same direction in March. What to know: - Security experts warn that the most urgent quantum threat to bitcoin and the broader financial system is not wallet keys but the encrypted authentication data already moving between institutions and being quietly harvested today. - Adversaries are pursuing a “harvest now, decrypt later” strategy, stockpiling encrypted interbank messages, payment records and digital signatures to unlock once quantum computers become powerful enough, a risk Google and Citi have both begun modeling on aggressive timelines. - While Ethereum has begun a coordinated post-quantum migration and Google is targeting 2029 for its own transition, Bitcoin and major crypto exchanges and custodians have yet to commit publicly to similar protections for their wire-level signing infrastructure. A venture capitalist who has spent a decade backing deep-tech and quantum hardware startups says the bitcoin “The financial system's most dangerous vulnerability isn't stored data, it's the data moving between institutions right now," Andrew Gault, CEO of networking firm ZeroTier, told CoinDesk in a recent chat. Gault is CEO of networking firm ZeroTier and a founding partner of 7percent Ventures, a London- and San Francisco-based deep-tech firm whose portfolio includes British quantum-computing startup Universal Quantum. "Every interbank message, every payment authentication record, and every digital signature traveling across a network today is being collected by sophisticated adversaries who don't need to read it yet," he noted. "CISOs and security teams have been trained to protect data at rest. What nobody wants to say out loud is that the adversary's strategy has changed. They're patient, they
May 30, 2026 · via coindesk.com
Stanford quantum computing breakthrough uses twisted light to work without extreme cooling - Date: - May 30, 2026 - Source: - Stanford University - Summary: - A new room-temperature quantum device uses twisted light to entangle photons and electrons, overcoming one of the biggest hurdles in quantum technology. The breakthrough could pave the way for smaller, cheaper quantum systems with applications ranging from secure communications to future AI and computing platforms. - Share: Quantum computers today are notoriously difficult and expensive to operate. Most require temperatures near absolute zero, about -459 degrees Fahrenheit, to maintain the fragile quantum states needed for computation and communication. Now, researchers at Stanford University have developed a nanoscale optical device that functions at room temperature while linking the quantum properties of light and electrons. The advance could help pave the way for smaller, lower-cost quantum technologies capable of transmitting information across long distances. The new device enables entanglement between photons, the particles that make up light, and electrons. This quantum connection is considered a fundamental requirement for future quantum communication systems. "The material in question is not really new, but the way we use it is," says Jennifer Dionne, a professor of materials science and engineering at Stanford and senior author of the study published in Nature Communications. "It provides a very versatile, stable spin connection between electrons and photons that is the theoretical basis of quantum communication. Typically, however, the electrons lose their spin too quickly to be useful." Twisted Light and Quantum Spin The device combines a thin patterned layer of molybdenum diselenide (MoSe2) with a nanopatterned silicon substrate. Molybdenum diselenide belongs to a family of materials known as transition metal dichalcogenides (TMDCs), which are valued for their unique optical and quantum properties. According to the researchers, the silicon nanostructures play a critical
May 30, 2026 · via sciencedaily.com
Quantum Computing Inc.: A Sudden Jump in Revenue Quantum Computing Inc. (QUBT 2.53%) primarily generates revenue by providing specialized software tools and application accelerators for quantum computers, focusing heavily on serving large commercial and government entities through its quantum optics and integrated photonics technology. While it completed the acquisition of NuCrypt and introduced its new deployment-ready computing architecture, it reported a net income margin of negative 110% for the quarter ended March 31, 2026. IonQ: Steadily Climbing Revenue IonQ (IONQ +2.75%) primarily develops general-purpose quantum computing systems and generates revenue by selling computational access through major cloud platforms and proprietary networks using ion-based technology. It commercially launched new Earth monitoring capabilities and secured an advanced defense research contract, and it reported a gross margin of about 24% for the quarter ended March 31, 2026. Why Revenue Matters for Retail Investors Revenue represents the total amount of money a business brings in from its core operations before any expenses are subtracted, serving as a fundamental baseline measure of overall consumer demand and business growth. Image source: The Motley Fool. Quarterly Revenue for Quantum Computing and IonQ | Quarter (Period End) | Quantum Computing Revenue | IonQ Revenue | |---|---|---| | Q2 2024 (June 2024) | $183.0K | $11.4 million | | Q3 2024 (Sept. 2024) | $101.0K | $12.4 million | | Q4 2024 (Dec. 2024) | $62.0K | $11.7 million | | Q1 2025 (March 2025) | $39.0K | $7.6 million | | Q2 2025 (June 2025) | $61.0K | $20.7 million | | Q3 2025 (Sept. 2025) | $384.0K | $39.9 million | | Q4 2025 (Dec. 2025) | $198.0K | $61.9 million | | Q1 2026 (March 2026) | $3.7 million | $64.7 million | Data source: Company filings. Data as of May 28, 2026. Foolish Take Examining
May 30, 2026 · via fool.com
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May 30, 2026 · via youtube.com
AI-powered infrastructure software is key to unlocking the potential of quantum computers, enabling impact for military operations in 2027. LOS ANGELES, CA, UNITED STATES, May 29, 2026 /EINPresswire.com/ — Q-CTRL, the global leader in quantum infrastructure software, today released a white paper demonstrating the near-term capability for quantum computers, powered by its industry-leading performance-management software, to solve complex computational problems for the military. Q-CTRL projects quantum advantage for certain high-value defense logistics applications to arrive as soon as 2027, signaling a strategic edge for defense leaders who prioritize integrating quantum into their C4ISR roadmaps. Modern defense systems must seize every capability across logistics and operational planning to ensure battlefield dominance. Designated as a critical technology by the U.S. Department of War, quantum technologies represent the next frontier in this domain. Through a series of detailed case studies, Q-CTRL describes how embracing quantum technology now can deliver operational resilience, strengthened defense posture, and tactical overmatch for the warfighter. “In today’s threat environment, operators are facing coordinated unmanned systems, cruise missiles, and ballistic threats arriving simultaneously from multiple vectors,” said James Otten, JICO, Flight Test Execution, U.S. Missile Defense Agency. “By integrating quantum optimization into active defense architectures, we can compress the decision cycle between C5ISR sensing, tactical decision making, and interceptor employment. The result is a faster, more adaptive defensive posture that maximizes limited assets, expands defended battlespace coverage, and gives commanders a measurable operational advantage in highly contested environments.” The case studies, supported by executions on IBM quantum computing hardware, outline four high-impact applications for defense, providing first-movers with an asymmetric battlefield advantage through the adoption of quantum computing. Each application provides estimated timelines for quantum advantage, projected to arrive between 2027 and 2029 in alignment with IBM’s published quantum roadmap: – Convoy routing: Validates the applicability of quantum computing
May 30, 2026 · via desmoinesregister.com