#dwavequantum

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Qubits 2026: D-Wave Shows Quantum Impact and Future Plans

D-Wave Announces Qubits 2026 Quantum Computing User Conference

Quantum computing equipment, software, and services leader D-Wave Quantum Inc. (NYSE: QBTS) will hold its annual Qubits user conference in Boca Raton, Florida, on January 27 and 28, 2026. The first commercial quantum computing company is D-Wave.

The event highlights client success stories and D-Wave's award-winning quantum technology's capacity to solve problems beyond classical computing. Participants will hear from scientists, industry leaders, D-Wave executives, and customers.

At Qubits 2026, the company will unveil its latest product roadmap and advances in hybrid-quantum solvers, quantum AI, annealing, and gate-model quantum computing. The symposium will highlight the company's energy-efficient annealing quantum computers and hybrid-quantum solvers' demonstrable impact. D-Wave is the sole gate-model and annealing quantum computer developer.

D-Wave CEO Dr. Alan Baratz says the company 'continues to set the pace in quantum computing, delivering tangible effect for customers today while pushing technologies that will define the future'. He said Qubits 2026 will bring together the company's inventors and problem-solvers to highlight how “quantum’s promise is starting to transform the world”.

Program highlights and topics

One of the year's biggest quantum computing conferences, Qubits 2026, will bring together experts from around the world to discuss the fast-growing field. Case studies, live demos, and in-depth seminars will be supplemented by technical and business tracks.

Important topics will be covered:

D-Wave's strategy to outperform conventional systems and provide long-term and short-term customer value with scalable annealing, gate-model, and hybrid-quantum computing technologies. The company's superconducting quantum technology is famous. Hybrid-quantum technology's potential as an energy-efficient AI workflow accelerator.

Customer use cases showing how D-Wave technology solves computationally difficult problems in various industries. Supply chain, manufacturing, aerospace, life sciences, and AI are examples.

Applications in government and defence, emphasising quantum's role in radar detection, resource deployment, and logistics optimisation.

In modern HPC facilities, on-site quantum computing is becoming more important. D-Wave's Leap quantum cloud service or on-site quantum computers are the world's largest. Practical advise on launching quantum projects, including starting today with the D-Wave Launch program and its professional services staff. Customers use the company's quantum systems to tackle research, AI, and optimisation problems with over 200 million issues filed. Ocean SDK users can use the Ocean collection of open-source tools to construct quantum systems quickly. D-Wave Launch helps businesses implement quantum computing.

Important Speakers

Notable companies expected to present include Davidson Technologies, Lighthouse DIG, North Wales Police, Anduril, AT&T, and Unissant. Experts from Florida Atlantic University, Los Alamos National Laboratory, and Jülich Supercomputing Centre will also present.

Jeffrey “Skunk” Baxter, a Rock & Roll Hall of Famer and US government defence expert, will give the conference's keynote address. Baxter will discuss national security, technology, and music innovation.

Non-attendees can watch the first day's sessions online for free at D-Wave.

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Wall Street Journal Trump Administration Hits Quantum Firms

Explaining AI-QAN

Scientists have closed the gap between accurate prediction models and essential model interpretability, advancing astrophysical machine learning. This unique technology, the Explainable AI-enhanced Quantum Adversarial Network (XAI-QAN), combines XAI and classical deep learning with quantum-inspired neural networks.

The study, led by Sathwik Narkedimilli from Télécom Paris and Institut Polytechnique de Paris, aims to model galactic velocity dispersion (logσ e). Collaborators include Oracle Financial Services Software Ltd., the Indian Institute of Information Technology Dharwad, and others. Using complex MaNGA survey data.

The Astrophysics Interpretability Imperative

Velocity dispersion shows galaxies' history, mass distribution, and dynamics. Predicting this quantity is necessary to characterise the complex interplay between a galaxy's structure and dynamic activity. The 11 variables of the MaNGA dataset—morphological categorisation, effective radius (logR e), and gradients in star age and metallicity—provide a solid framework for this analysis.

However, Convolutional Neural Networks (CNNs) and Bayesian Neural Networks (BNNs) used in this sector are often 'black boxes'. The physical importance of these models' predictions is difficult to interpret, therefore there is a research gap despite their accuracy. XAI-QAN shrinks this gap using transparent and effective solutions. Cybersecurity, finance, and healthcare require precision and interpretability, thus this combination helps.

XAI-QAN increases quantum adversarial network An Evaluator Model and a Hybrid Quantum Neural Network (QNN) form the "Vanilla Model," the system's core.

Model 1: The Hybrid QNN uses quantum computing and deep learning to improve feature extraction. Initially, several completely connected layers preprocess the input data. This processed data is transmitted into a quantum layer using parameterised quantum circuits and R y and R x rotations on a 4-qubit system to determine the expected values of a Hamiltonian. Final prediction (y^) is obtained by running the quantum output via a sigmoid activation function. The model uses CUDA-Quantum on A800 NVIDIA GPUs and the parameter-shift algorithm for gradient propagation.

Adversarial Evaluator (Model 2) and LIME Integration: The Evaluator Model, an adversarial feedback feedforward neural network, complements the QNN. Importantly, the Evaluator's input vector (x ′) combines the original features (x), QNN's prediction (y^), and matching LIME explanations (E(x)). Local explanations from LIME explain how input properties affect prediction. In addition to calculating a feedback loss term, the Evaluator Model evaluates this combined output. Optimise it with a combined loss function (LQNN) that includes the QNN's direct prediction error (LM1).

MSE weighted by evaluator feedback loss (α⋅Levaluator). This ongoing adversarial loop ensures that the forecast and XAI-generated explanation match the target (y) for performance and interpretability consistency. The Adam optimiser and Mean Squared Error (MSE) loss are used to train the QNN and Evaluator across 10 epochs with a feedback weighting coefficient (α) of 0.5.

Experimental Results Support XAI-QAN Robustness

Empirical tests showed the Vanilla model was most accurate. It had a R 2 of 0.59, MAE of 0.21, MSE of 0.071, and RMSE of 0.27. This performance was comparable or better than the Quantum Self-Supervised, Q-GAN-1, and Q-GAN-2 models.

The training loss curves show that the adversarial guidance mechanism works: the QNN's MSE loss converged between 0.075 and 0.071, while the Evaluator Model's MSE loss steadily decreased from 0.28 to 0.20 over 10 epochs, demonstrating its improved ability to evaluate and direct the primary QNN model.

The Vanilla model had the lowest ECE of 0.015 and ACE of 0.012, indicating great calibration and dependability. Research showed that the model's prediction intervals were somewhat lower than necessary, resulting in a slight uncertainty estimate undercoverage, but this shows that the model's predictions are properly calibrated.

Interpretable Findings and Resource Efficiency

An advantage of XAI integration is the ability to appropriately comprehend feature contributions. According to the virial relation, feature perturbation analysis demonstrated that log M1/2 (enclosed mass) dominates all models' predictive capacity, accounting for 83–87% of predictions. Metallicity ([Z/H]) and half-light radius (log Re) were secondary factors at 5–7%, although star population gradients had little effect.

Total design efficiency is very low with 46,723 trainable parameters (0.18 MB). With the lowest inference latency (1.8 ms/sample) and energy consumption (0.027 J/sample), the Vanilla model showed its hybrid structure is efficient. Resource profiling showed that raising the qubit count from 1 to 4 improved performance across all models, confirming the benefit of deeper quantum feature spaces for expressive data representations.

Future Prospects and Limits

Quantum-inspired and deep learning methods can create competitive and interpretable predictive models, according to the study. It shows that evaluator feedback, classical layers, and the quantum layer are all necessary for top performance because removing one substantially reduced performance.

However, the researchers note that the slight performance differences between the recommended models and conventional baselines show that quantum advances need more optimisation to considerably outperform conventional procedures. Future study will improve quantum components using sophisticated adversarial strategies and investigate more scalable quantum architectures to test the model's generalisability for more complex real-world challenges.

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Alphabet Quantum Computing Stock Innovations & Investment

Alphabet Stock: Hidden Giant to Dominate Quantum Computing.

Alphabet quantum computing stock

Quantum computing Once “all the rage on Wall Street,” stocks have lost significant value as investors reconsider whether this technology will compete with conventional computing. Quantum computing is changing technology and investing, even with current market correction.

Pure-play businesses like D-Wave Quantum, Rigetti Computing, and IonQ dominate this market. Niche enterprises are risky and may fail. Investors should focus on quantum leader Alphabet, not these competitors.

Alphabet, the fourth-largest firm by market valuation, is ignored in quantum computing. Investors seeking quantum exposure are considering Alphabet due to its reputable technology leadership, strong financial base, and exposure without the risk of smaller companies.

Technology Leadership: Quantum Advantage Verified

Alphabet disclosed verifiable Willow quantum computing hardware results, contradicting the premise that pure-play quantum companies are the industry leaders. Google said on October 22 that its Willow chip quantum computer executed a confirmed algorithm. This operation was performed on the 105-qubit system, one of the most powerful systems available.

Data showed that the speed was over 13,000 times faster than a regular supercomputer running the same program. This achievement is called a “verifiable quantum advantage” by analysts because another quantum processor can validate it. This transforms the discourse from “quantum supremacy”—outperforming classical machines—to establishing something substantial and verifiable.

Due to their Willow chip breakthrough, Alphabet has a distinct advantage in quantum hardware at a time when many smaller startups are still struggling to prove themselves. Rigetti Computing, another big startup, made headlines when two businesses bought its Novera quantum computing system, which includes four sets of nine qubits.

Technical disclosures suggest the Willow's 105 qubits use superconducting circuits, demonstrating Alphabet's leadership. Importantly, the system can perform complex sequences coherently for long periods and possesses 99.9% single-qubit fidelities. Alphabet acknowledges that error correction and high quality are still big problems, legitimising its vision.

As seen by its performance, Alphabet is an industry leader, and some believe it may “wipe the floor” with its competitors. This suggests that Alphabet's quantum program is lowering its technical risk barrier, which may attract academic institutions, cloud partners, and industry customers.

Unmatched Financial Power for Quantum Goals Quantum computing is expensive and requires multi-year funding for research, hardware development, error-correction, and commercial integration before it becomes viable. Alphabet's massive financial power offers it a significant, unique advantage over its competitors.

Alphabet has practically unlimited resources for quantum computing. The corporation has $66 billion in free cash flow last year. Mid-2025 trailing-twelve-month free cash flow was $66.73 billion, down from $72.76 billion in 2024. Although much of this money is being used to expand AI data centres, it might be used to fund quantum dreams.

Alphabet's large cash reserve allows it to maintain crucial relationships, invest in its quantum hardware roadmap, and weather setbacks without jeopardising the firm. However, many smaller pure-play quantum enterprises are still pre-revenue or early-revenue and rely on grants and equity capital. IonQ has $20.7 million in Q2 sales and just over half a billion dollars in cash and short-term investments.

Pure plays may not have the funds to compete with industry giants due to this financial difference. Alphabet has a competitive advantage that pure-plays may not match.

Not a Sure Bet

Investment in quantum hardware startups requires patience due to their long development cycles and volatile market demand. The rise of quantum computing represents a risk for quantum pure-play investors. If these enterprises collapse, the investment may be worthless. Some quantum-specific stocks “could fall by as much as 62% if optimism falters”, market commentary says.

The alphabet is distinct. Its broad, diversified business base reduces investment risk. Alphabet's cloud computing and Google advertising capabilities keep its core business profitable and powerful.

Quantum commercialisation taking longer than expected or Alphabet being exceeded by a rival won't hurt the business. These flexibility ensure that Alphabet's value is not just based on future quantum breakthroughs. Alphabet allows investors to benefit from quantum computing without the downside risk of speculative extremes.

Conclusion: Risks and Wisdom

Alphabet's investment thesis relies on verifiable technology supremacy, robust financial support, and a broad business model that reduces downside risk.

But dangers remain. First, scaling from a single algorithm demonstration to commercial use cases like error-corrected systems and real-world applications will take years, making the timescale unclear. Researchers note that scaling and error-correction remain difficult. Second, huge firms and startups are actively pursuing alternative quantum architectures, causing competition and disruption.

In conclusion, Alphabet is a good choice for investors who wish to bet in quantum computing without risking everything. As technical advances like the Willow chip make headlines, investors may benefit from acting after such verifiable findings.

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Trump Stargate Quantum Computing Stocks For Quantum Firms

The Trump Administration Is Considering Purchasing Significant Businesses in Quantum Computing.

Trump Stargate Quantum Computing Stocks

The Trump administration has begun extensive negotiations to purchase stock in many prominent U.S. quantum computing firms. A significant step may be taken if the US government decides to directly fund and influence a vital field of emerging technology through these talks. The U.S. government is presently negotiating to purchase these shares in companies that concentrate on advancements in quantum computing, according to the first story published by the Wall Street Journal (WSJ).

Reports of these discussions surfaced in late October 2025. Numerous financial news outlets reported that the Trump administration was in negotiations to purchase stock in a number of high-tech companies. The government's desire to collaborate with the crucial quantum industry is demonstrated by the administration's vigorous investigation of this prospect. Negotiating specific investments often referred to as "equity stakes" in general is the action.

Information about the Suggested Government Investments

At the centre of the negotiations is the purchase of equity, which would provide the government with a direct financial position and potentially power within these businesses. These discussions are reportedly being held by the Trump administration in order to make strategic investments. Instead than only discussing buying stock in these quantum computing startups, these are actual conversations. In its attempt to establish a presence in a technology that is widely regarded as critical to future national security and economic competitiveness, the government is adopting a focused approach.

The administration was negotiating to purchase these stakes, according to a number of financial newswires, which instantly raised public awareness of the quantum computing sector. Instead than merely offering contracts or subsidies, the administration's discussions involved buying shares, indicating a greater potential level of government involvement in these businesses' organisational structures.

The administration is still investigating possible investment opportunities. Given that the goal of acquiring equity shares differs greatly from traditional forms of governmental involvement, investors and market experts are closely examining the implications for company governance and the trajectory of technological development in the US.

Important Quantum Computing Firms Engaged in Discussions

Particular companies operating in the quantum computing space have been named in connection with the Trump administration's negotiations. These consist of IonQ, Rigetti Computing, and D-Wave Quantum.

The Trump government is considering purchasing stock in Rigetti Computing and IonQ. The interest in these companies demonstrates their position at the forefront of quantum technology development in the United States. Quantum computer company D-Wave Quantum also discussed government action.

IonQ, Rigetti, and D-Wave's involvement suggests the administration's policy targets well-known or publicly traded quantum industry enterprises.

These companies were cited in publications about the Trump administration's planned stake purchase, making them closely involved in the negotiations. The administration is considering investing in companies like Rigetti and IonQ as part of this broader endeavour.

More General Background and Consequences for the Technology Industry

On major trading platforms, the administration's inquiry into purchasing these stock shares was widely publicised.

For example, the Trump administration was negotiating to purchase stock in these companies, according to allegations based on the initial WSJ study. The stocks of quantum computing businesses and their market success were a major focus of these discussions, which took place in or around October 2025.

The current administration has made quantum computing a strategic priority, as seen by its initiatives to promote equity instead of merely funding grants. Financial modelling, medicine development, materials research, and cryptography are just a few of the fields that are expected to undergo significant change as a result of quantum computing technology. By pursuing ownership stakes, the U.S. government may be attempting to ensure that the development and eventual use of this technology remain firmly rooted in American interests and domestic control.

According to the official reports, the Trump administration was actively negotiating and looking into potential projects. This study is restricted to businesses involved in the field of quantum computing. High-level commercial and political discussions over the terms and scope of the proposed equity holdings are part of the complex discussions.

As of the late 2025 reports, the U.S. government was still negotiating to purchase these stakes. The ongoing negotiations show that the administration is committed to making these significant commitments. Investors that follow quantum computing-related stocks, such IonQ and Rigetti, are quite interested in the revelation. More details regarding the completion or scope of these negotiated stakes are anticipated as the negotiations proceed.

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D-Wave Quantum Annealers With Landau-Zener Transitions

Landau-Zener Transitions and Domain-Wall Kinetics Explain Quantum Annealer Hysteresis Quantum annealers, which aim to solve difficult problems efficiently, are thought to avoid persistent memory effects seen in conventional computational methods. However, recent experiments have revealed real hysteresis in these quantum systems, a surprising result. This discovery challenges the current understanding of memory creation in physical systems and opens up new avenues for quantum computing research.

Unexpected Memory Effect in Quantum Systems

Hysteresis occurs when a material's reaction, such as magnetisation, lags after the applied external field, demonstrating a form of memory based on earlier exposure. Despite using quantum tunnelling, quantum annealers show magnetisation lagging behind an applied field.

Scientists from Q-MAFIA at Los Alamos National Laboratory, including Frank Barrows, Elijah Pelofske, and Pratik Sathe, and Francesco Caravelli from the Universit~a di Pisa and Scuola Normale Superiore, developed a theoretical framework to explain this unusual behaviour. Their key research indicates that this substantial hysteresis is caused by the complicated interaction between discrete quantum transitions and the continual domain wall movement inside the annealer. In essence, this interaction provides quantum system memory.

Connecting Quantum and Classical Dynamics

The researchers use quantum and conventional physics to explain the observed behaviours. The model incorporates semiclassical domain-wall kinetics and Landau-Zener transitions. Landau-Zener transitions govern system evolution's discrete quantum transitions. Connecting these underlying quantum processes with domain border movement allowed researchers to mimic complex hysteretic activity in investigations. Quantum annealers may imitate and repeat observable behaviour, making them useful for studying programmable quantum hysteresis. This theoretical approach's main strength is its ability to replicate experimental data from numerous annealers and model quantum system behaviour. Importantly, the model helps researchers identify memory effects like temporary negative susceptibilities. This identification proves the annealers are documenting their former status.

Experimental D-Wave Annealers Validation

The study employed D-Wave quantum annealers to simulate magnetic hysteresis in depth to validate their approach. These studies used a quantum annealer with 4,906 qubits to test the model. The ubiquitous Ising model explained the spin-interacting systems under study. An external magnetic field was used to measure the systems' response. On D-Wave quantum annealers, hundreds of qubits were carefully used to form two-dimensional lattices and one-dimensional magnetic chains. Extremely reproducible hysteretic loops were found after carefully adjusting the applied field and measuring the magnetisation. Loops were observed in classical physics contexts where memory effects would not be expected. The simulation findings show that the system's dimensionality and, most crucially, annealing length affect simulation quality. Researchers evaluated how annealing time—the time the D-Wave machine spends finding the lowest energy state—affected results across short and long durations. Two-dimensional simulations yielded smoother and more stable hysteresis loops than one-dimensional simulations, which were more unexpected. The study highlighted how low-dimensional systems' increased noise sensitivity makes simulation harder. Longer annealing times created smoother loops with smaller areas, according to simulations. This makes sense because more time helps the system reach its lowest energy state. The researchers accurately mapped the problem configuration onto D-Wave circuitry using antiferromagnetic gauge transformations. These adjustments made transferring the Ising model to quantum annealing technology practical and efficient.

Relevance and Future Plans

The developed framework accurately predicted how the hysteresis loop will change as the applied field speed varies and replicated complex hysteretic behaviour, including non-monotonic magnetisation reversals and observed variations in the loop's area. The model also replicates local entanglement signs. These findings suggest that programmable annealers are ideal for studying complex, non-equilibrium dynamics in many-body systems. The study establishes these devices as powerful experimental platforms for studying complex quantum phenomena by confirming memory effects. They enable memory-behaving system research. D-Wave quantum annealers can study more complex magnetic systems, which may help us understand magnetism. This study has improved our understanding of quantum memory and its potential uses in quantum technology.

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Comcast Quantum Starts Quantum Lab with D-Wave and Classiq

Comcast Quantum Comcast Launches Classiq and D-Wave in Quantum Lab to Meet Network Demands

Comcast quantum launched a quantum lab today to prepare its internet network for exponential data growth. The company is conducting industry-first trials with quantum computing companies D-Wave Quantum Inc. and Classiq to see how quantum systems might improve network infrastructure management. Modern internet consumption strains broadband networks, so the project aims to reduce that strain. Elad Nafshi, Comcast's Chief Network Officer for Connectivity and Platforms, noted that data consumption is rising at an unprecedented rate. Nafshi stated, “The demands on the network are growing exponentially,” noting several issues. In 2025, 40% more major sporting events will be live-streamed, and live streaming is rising at 25% each year. Online gamers are downloading games that weigh over 100 gigabytes and playing more complicated and dynamic games. Most notably, ChatGPT data traffic has virtually tripled for Comcast since May. These trends make incremental network increases insufficient, according to Comcast. The company is turning to quantum computing, which can solve complex problems better than classical machines, for novel solutions to stay ahead.

Future Trials: Quantum and Network Management

Comcast's trials will focus on customer-focused solutions, not exploratory research. The goal is to optimise network traffic and create a predictive problem-solving system using quantum computing. Comcast aspires to construct a faster, smarter, and stronger network by anticipating and addressing faults before they affect customers. Despite using artificial intelligence to manage network performance, the company believes quantum technology might be a “step-change” in capabilities. Collaborations with D-Wave and Classiq, which apply specialised knowledge to networking difficulties, are crucial. Classiq develops quantum software, while D-Wave Quantum Inc. sells quantum annealing devices. Together, they will help Comcast assess quantum algorithms' ability to optimise large-scale networks. A lot of people are new to quantum computing, but it's no longer just a concept; it's become a tool for tackling real-world problems, Nafshi added. Comcast stated its want to “dig in and understand the potential for one of the most critical infrastructures of the time”. On an Innovative Foundation Comcast's quantum computing venture is part of its long-term network transformation strategy. This programme is based on Project Genesis, a multi-year attempt to virtualise its network by transitioning from hardware-based operations to software-driven architecture. With real-time telemetry and pre-existing AI systems, this virtualisation prepares for quantum application testing and integration. Comcast displays this quantum lab as part of its broadband invention “history of firsts”. The company emphasises its low-latency DOCSIS rollout to reduce lag for gamers and video conferencing users and its revolutionary DOCSIS 4.0 deployment, which delivers multi-gigabit symmetrical speeds over existing cable infrastructure. Its virtualised architecture won an Emmy for Technology and Engineering. Octave and the Xfinity Meter for Fibre are smart-network technologies that detect and fix service issues. Quantum experiments aim to keep the network ahead of user expectations. Future Network Building Comcast's investment shows a proactive approach to future problems, even though quantum computing is still in its infancy and not yet a commercial mainstay. The firm will share its trial results to further quantum technology's employment in critical real-world systems.

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SuperQ Quantum Signs First revenue Deal with D-Wave & Verge

SuperQ Quantum

The world leader in quantum and supercomputing, SuperQ Quantum Computing (“SuperQ Quantum”), signed its first revenue contract. A groundbreaking relationship with D-Wave Quantum Inc. (“D-Wave”) and Verge Ag (“Verge”) on an agricultural quantum optimisation program led to this financial milestone. SuperQ Quantum's declaration from Calgary, Alberta, on Thursday, July 24, 2025, signals a shift from research and development to commercialisation.

This landmark deal was funded by Verge, a global precision agriculture company. The project focused on quantum project creation to improve Verge's “Launch Pad” platform using advanced quantum annealing technology. This inventive concept aimed to efficiently move agricultural robots across thousands of fields.

D-Wave successfully used this quantum ingredient with SuperQ Quantum to optimise autonomous farm vehicles. At the time of execution, SuperQ Quantum operated through Statue, its precursor organisation.

The foundation for this groundbreaking relationship was created at Qubits UAE 2024 in Dubai. Doctor Alan Baratz, CEO of D-Wave, and Dr. Muhammad Khan, CEO of SuperQ Quantum representing Statue, inked a partnership agreement there. This partnership was specifically designed to promote annealing quantum computing technology worldwide and in the Middle East.

Before SuperQ Quantum was created and went public, Staque ran the core operations team, its quantum services business, and the unique Super platform. SuperQ Quantum's largest stakeholder is Staque, giving it a significant position. Staque rendered and invoiced the services for which revenue has been recognised, and SuperQ Quantum has incorporated these financials into its financial statements and operations, marking its first revenue as a publicly traded company.

SuperQ Quantum CEO and board chair Dr. Muhammad Khan stressed the achievement. “This first revenue is more than a financial milestone; it validates strategy to deliver real-world quantum solutions,” he said. Dr. Khan said, “They work with a global leader like D-Wave demonstrates the tangible value quantum computing can bring to critical industries like agriculture and elevate innovative companies like Verge.”

His perspective on SuperQ Quantum's strategy in the developing quantum sector was: “Our R&D is rooted in commercialisation, whereas most quantum computing companies are content in the lab.” This declaration emphasises SuperQ Quantum's commitment to create usable, relevant quantum solutions with immediate and quantifiable commercial impact.

The initiative is well-known and garnered industry attention. D-Wave's February 2025 project announcement was carefully covered by top trade newspaper Quantum Insider. Dr. Khan has presented cooperative discoveries at renowned international conferences, confirming the project's advanced nature and real advantages. Qubits 2025, D-Wave's flagship conference, and FIRA World 2025, the leading agri-robotics conference, are examples.

Through its Commercialisation of Canadian Quantum Solutions program, DIGITAL, Canada's Global Innovation Cluster for digital technologies, co-invested heavily in the project. DIGITAL calls it “the world’s first customer-facing, real-world product powered by quantum computing.” Unlike most commercial quantum computing applications, which are normally built for internal use, this product was created particularly for Verge and is used by Verge's clients.

Explaining SuperQ Quantum Computing Inc. SuperQ Quantum leads enterprise transformation's next phase. The company intends to become a multinational corporation's crucial partner to give immediate ROI from quantum and supercomputing capabilities that were previously unattainable. In several industries, SuperQ Quantum is becoming a pioneer in employing quantum and supercomputing to address complex optimisation and problem-solving difficulties.

Its flagship Super platform aims to give “The ChatGPT Moment of Quantum Computing,” making the most advanced processing power accessible to a wide variety of users. SuperQ Quantum's platform lets top government agencies, academic institutions, and Fortune 500 leaders realise instant commercial impact across sectors.

These include logistics, defence, healthcare, and finance. The company uses its in-house AI Autopilots to turn complex problems into executive-ready results with one-click deployment and productisation. SuperQ Quantum is headquartered in Canada, but it is rapidly expanding into the US, the Middle East, and Asia, where it is establishing "Super Hubs" in key places.

In other business developments, SuperQ Quantum extended 1,199,400 common share purchase warrants (the “Warrants”) until their expiration dates. These warrants cost $1.50 to exercise. This amendment extends the expiration date to February 16, 2026, six months later. Warrants were exercisable at $0.15 when granted on August 16, 2023, as part of the Company's private placement. The exercise price was reduced to $1.50 after the Company's common shares were merged ten for one.

Future-looking information warning: This press release contains forward-looking statements concerning the issuer's operations, capital, or company under Canadian securities regulations. This information is uncertain and often described by terms like “may,” “should,” “anticipate,” “will,” “estimates,” and others. Market conditions and general economic, competitive, political, and social uncertainties are just a few variables, assumptions, and risks beyond SuperQ's control that could significantly affect results.

SuperQ does not promise to updating or changing this material unless required by securities regulations. It should not be overused by investors.

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Inflection Quantum Coming Sooner Says NVIDIA CEO

Quantum Inflection

NVIDIA CEO: Quantum Is Approaching a "Inflection Point," Signalling a Change in Attitude

NVIDIA CEO Jensen Huang said quantum computing is approaching a “critical inflection point,” which would transform its immediate practical use. Huang's keynote talk at NVIDIA's GTC Paris developer conference on June 12, 2025, was far more optimistic than his previous views on the technology's timeline. His latest study shows that quantum computers are “within reach” and may soon address difficult real-world problems.

Huang's recent bullishness differs from his earlier forecasts. Before, he estimated 15 to 20 years for quantum computation to become feasible. D-Wave Quantum, IonQ, and Rigetti Computing stock prices plummeted after these early, gloomy comments had a “chilling effect” on the market.

Huang later acknowledged that his former ideas “came out wrong” and may have been “misunderstood.” The massive market reaction also surprised him. Pre-market increases for Rigetti and IonQ after his recent comments illustrate that industry experts' perspectives positively connect with quantum equities' success, making his more optimistic outlook crucial.

Several factors explain this industry attitude shift and the prospect of a turning point. Improved quantum computing industry confidence and investment are key. IonQ has acquired UK trapped-ion quantum processor specialist Oxford Ionics for $1.1 billion. This large investment shows quantum technology's potential and commercial viability. Huang also credits the expanding European quantum computing sector, citing his recent interactions with Pasqal, a French neutral atom startup. European and global companies are investing and cooperating more, boosting sector innovation.

Even without financial investment, concrete technological advances, especially in error correction approaches, are accelerating the timescale for useable quantum computing. When heat or cosmic rays contaminate qubits' fragile quantum states, decoherence occurs, making quantum systems prone to errors.

Effective error correction is needed to maintain quantum computation integrity and accuracy. Google introduced its Willow chip, which it claims corrects errors. Due to IBM's error correction work, fault-tolerant quantum computers that can control and mitigate environmental defects are now expected to be developed by 2029. These advancements overcome a major barrier to stable and scalable quantum systems.

Quantum computers should be useful due to their fundamentally distinct operations. Traditional computers store data in 0 or 1 bits. Quantum computers use “qubits.” Due to quantum mechanical superposition, qubits can represent 0 and 1. Quantum computers may solve complex issues that traditional machines cannot due to their unique capabilities.

They can process greater datasets and perhaps investigate numerous answers. These problems drive AI, finance, materials science, medical, and drug development research and business investment. One of the most promising technologies of the moment, quantum computing, can change industries and solve previously unsolvable issues by doing complicated computations tenfold quicker than ordinary computers.

In addition to acknowledging this transformation, NVIDIA is creating solutions that combine classical and quantum capabilities. Their major product in this industry is the hybrid quantum-classical computing CUDA-Q platform. This cutting-edge technology lets developers quickly integrate quantum algorithms into their traditional processes by combining the benefits of both computer paradigms.

The CUDA-Q platform, strategically built to support a variety of back-end quantum systems, allows NVIDIA to profit from quantum computing's growth without being tied to one particular architecture or technology. With its flexible foundation for future quantum advances, this technique acknowledges the hardware limits of today.

The industry appears to concur that quantum computing is expanding swiftly, as seen by Huang's more upbeat perspective, error correction advances, and increased spending. The technique is becoming practical. With quantum computing moving from experimental research to addressing “interesting problems in the coming years,” the scientific community is experiencing a “really exciting time”.