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D-Wave Systems

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Canadian quantum-computing company specializing in superconducting quantum-annealing systems, hybrid solvers, and cloud access to quantum hardware.

Last updated August 21, 2026

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Overview

D-Wave Systems is a Canadian quantum-computing company founded in 1999 by Haig Farris, Geordie Rose, Bob Wiens, and Alexandre Zagoskin. The company grew out of a research environment associated with the University of British Columbia and developed a distinctive approach to quantum computing based on superconducting flux qubits and quantum annealing. Unlike gate-model systems intended to execute a broad range of quantum algorithms, D-Wave machines are specialized processors designed primarily for discrete optimization and related sampling problems. The company’s name refers to early qubit designs based on d-wave superconductors. D-Wave’s commercial strategy has centered on making quantum hardware available for practical experimentation rather than waiting for a fully general-purpose quantum computer. Its systems combine cryogenic superconducting processors with classical control and software layers. Customers and research partners have included Lockheed Martin, the University of Southern California, Google, NASA, the Universities Space Research Association, and Los Alamos National Laboratory. Applications explored with the technology have included scheduling, logistics, machine learning, materials research, protein-structure problems, financial modeling, and other optimization tasks. The company attracted attention with its Orion prototype, publicly demonstrated in 2007, and with the D-Wave One, announced in 2011 as a commercially available quantum-computing system. Subsequent generations increased the number of qubits and changed the connectivity architecture, including D-Wave Two, D-Wave 2X, D-Wave 2000Q, Advantage, and the later Advantage2 development program. D-Wave also developed software tools, including the open-source Qbsolv hybrid solver, and launched Leap in 2018 to provide cloud-based access to its quantum systems and development environment. D-Wave’s claims have generated sustained scientific debate. Researchers have reported evidence that its processors exhibit quantum effects, while other studies have questioned whether particular benchmarks demonstrate a useful quantum speedup over well-optimized classical algorithms. The company therefore occupies a distinctive position in the industry: it is an early commercial quantum-computing vendor with deployed hardware, but its systems are specialized and their economic value depends on whether customers can obtain meaningful advantages on suitable real-world workloads. D-Wave became a publicly traded company under the ticker QBTS after completing a business-combination transaction with a special-purpose acquisition company in 2022. It continues to offer quantum-annealing hardware, hybrid quantum-classical services, professional services, and cloud access from operations in Canada and the United States, while pursuing research and commercial partnerships internationally.

History

D-Wave was established in 1999 by Haig Farris, Geordie Rose, Bob Wiens, and Alexandre Zagoskin in British Columbia. Its early development was connected to the University of British Columbia, where the founders and associated researchers pursued ideas involving superconducting circuits, quantum annealing, and adiabatic approaches to computation. The company maintained links with academic and laboratory partners while moving through locations in Vancouver and later to Burnaby. The company’s engineering goal was not to build a universal quantum computer based on quantum gates. Instead, D-Wave designed specialized superconducting processors that map certain optimization problems onto interacting flux qubits and use quantum annealing to search for low-energy solutions. This architecture made the systems potentially useful as accelerators for selected computational tasks, while also limiting the class of problems they could address directly. D-Wave publicly demonstrated the Orion prototype in 2007 at the Computer History Museum. The 16-qubit system was shown on pattern matching, event seating, and Sudoku-style examples. In 2009, a Google research team used a D-Wave processor for a binary image-classification experiment, helping raise the company’s profile among technology companies and researchers. In 2011, D-Wave announced the D-Wave One, a 128-qubit system described by the company as the first commercially available quantum computer. Lockheed Martin became an early customer through a multiyear arrangement covering hardware, maintenance, and professional services. The company’s commercial claims were accompanied by debate over whether its processors produced a quantum speedup. Independent studies found evidence of quantum annealing behavior but did not establish a generally useful advantage over classical methods for the tested workloads. D-Wave Two followed with a 512-qubit processor and entered production use in 2013. That year, NASA, Google, and USRA launched a Quantum Artificial Intelligence Lab using D-Wave hardware for machine-learning research. Academic and industry work also examined protein-folding models, optimization benchmarks, entanglement, and the physical behavior of the processors. These efforts expanded the research ecosystem around quantum annealing but did not eliminate questions about benchmarking methodology and practical advantage. The D-Wave 2X became generally available in 2015. It used a larger Chimera-connected processor and was followed by the D-Wave 2000Q, introduced in 2017, with additional qubits and software improvements. D-Wave also released Qbsolv, an open-source tool for solving quadratic unconstrained binary optimization problems through combinations of classical computation and D-Wave quantum processing. In 2018, the company launched Leap, a cloud service that allowed users to submit problems to D-Wave systems remotely and develop applications through software interfaces. In 2019, D-Wave announced the Advantage generation, which introduced the Pegasus connectivity architecture and was delivered in 2020. The company promoted Advantage as a substantial improvement in scale, connectivity, and time-to-solution for appropriate workloads. D-Wave announced the next-generation Advantage2 architecture in 2021. The program was designed around the Zephyr topology, greater connectivity, and a larger processor. The company later reported general availability of a system with more than 4,400 usable qubits in 2025. That year, D-Wave also announced the sale of an Advantage system to Forschungszentrum Jülich in Germany. Research conducted on the system included simulation of false-vacuum-decay dynamics, while a separate publication described a magnetic-material simulation that D-Wave presented as much faster than a comparable classical calculation. D-Wave’s public profile has continued to combine technological milestones with criticism. Skeptics have argued that some performance demonstrations use carefully selected problems, that classical algorithms can improve rapidly, and that quantum annealing does not by itself provide a universal route to quantum computing. In 2022, D-Wave became publicly traded under the ticker QBTS following a SPAC transaction. The company remains focused on quantum annealing, hybrid solvers, cloud access, and commercial applications while the broader quantum-computing market evaluates which architectures can produce durable economic benefits.

  • 2025

    Advantage system installed at Forschungszentrum Jülich

    [1]

    D-Wave announces the sale and installation of an Advantage system at the Jülich Supercomputing Centre.

  • 2022

    D-Wave becomes publicly traded

    [1]

    The company completes a SPAC transaction and trades under the ticker QBTS.

  • 2020

    Advantage system delivered

    [1]

    D-Wave delivers the Advantage generation, based on the Pegasus topology.

  • 2018

    Leap launches

    [1]

    D-Wave launches a cloud service for remote access to quantum processors and development tools.

  • 2017

    D-Wave 2000Q and Qbsolv introduced

    [1]

    The company introduces the D-Wave 2000Q generation and publishes the open-source Qbsolv optimization tool.

  • 2015

    D-Wave 2X becomes generally available

    [1]

    D-Wave releases a larger processor using the Chimera connectivity architecture.

  • 2013

    D-Wave Two enters production use

    [1]

    A 512-qubit system is launched, and NASA, Google, and USRA establish a research laboratory using it.

  • 2011

    D-Wave One announced

    [1]

    The company introduces a 128-qubit system marketed as the first commercially available quantum computer.

  • 2009

    Google uses D-Wave hardware for image classification

    [1]

    A Google research team applies a D-Wave processor to train a binary image classifier.

  • 2007

    Orion prototype demonstrated

    [1]

    D-Wave publicly demonstrates a 16-qubit quantum-annealing prototype at the Computer History Museum.

Products and positioning

A pioneer of commercially deployed quantum annealing, focused on practical optimization workloads and hybrid quantum-classical applications rather than universal gate-model computing.

  • Quantum-annealing prototype · 2007

    Orion

    Orion was an early D-Wave prototype publicly demonstrated in 2007. Its 16-qubit superconducting processor was designed as a specialized accelerator for optimization-related calculations. Demonstrations included molecular pattern matching, event seating, and Sudoku-style problems. Orion helped communicate D-Wave’s architecture to the public, although it was a prototype rather than a broadly deployed commercial platform.

  • Quantum-annealing system · 2011

    D-Wave One

    Announced in 2011, D-Wave One used a 128-qubit superconducting processor and was marketed as the first commercially available quantum-computing system. It performed quantum annealing for discrete optimization rather than universal gate-model computation. Lockheed Martin acquired a system and related services, making the platform an important early example of commercial quantum-hardware deployment.

  • Quantum-annealing system · 2013

    D-Wave Two

    D-Wave Two expanded the processor to 512 qubits and became a production system in 2013. It was used by the NASA–Google–USRA Quantum Artificial Intelligence Lab for research into machine learning and other problems. The generation contributed to continuing investigation of D-Wave’s hardware, including its quantum behavior, benchmark performance, and suitability for specialized optimization.

  • Quantum-annealing system · 2015

    D-Wave 2X

    The D-Wave 2X became generally available in 2015. Its processor used the Chimera connectivity architecture and was designed to provide more qubits and improved performance for suitable optimization problems. D-Wave’s published comparisons emphasized time-to-solution and constant-factor performance, while acknowledging that the results did not by themselves settle the question of general quantum speedup.

  • Quantum-annealing system · 2017

    D-Wave 2000Q

    Introduced in 2017, the D-Wave 2000Q was a later Chimera-based generation with a larger nominal processor than the D-Wave 2X. It supported quantum-annealing workloads and was accompanied by software developments intended to make hybrid quantum-classical optimization more accessible. The platform has since been superseded by newer D-Wave architectures.

  • Quantum cloud service · 2018

    Leap

    Leap is D-Wave’s cloud-access and developer service, launched in 2018. It enables users to submit optimization problems to available D-Wave quantum processors and use software tools for constructing, embedding, and evaluating applications. Leap supports the company’s strategy of making quantum hardware available to organizations that do not operate their own cryogenic quantum-computing facilities.

  • Quantum-annealing system · 2020

    D-Wave Advantage

    Advantage is a D-Wave system generation delivered in 2020. It introduced the Pegasus connectivity topology, with more connections per qubit than the earlier Chimera design, and was designed to improve embedding and solution times for certain optimization problems. D-Wave positioned Advantage as a platform for production-oriented experimentation across logistics, scheduling, machine learning, materials, and other application areas.

  • Quantum-annealing system · 2021

    D-Wave Advantage2

    Advantage2 is D-Wave’s next-generation quantum-annealing architecture. Announced in 2021, it is designed around the Zephyr topology, higher connectivity, and a larger processor than the original Advantage generation. D-Wave reported a generally available system with more than 4,400 qubits in 2025, while the broader Advantage2 program continued to represent the company’s forward hardware roadmap.

Marketing campaigns

  • 2018Leap quantum cloud access

    Global

    D-Wave launched Leap to let developers and researchers access quantum systems through the cloud.

    Outcome. Lowered the infrastructure barrier for experimentation and application development.

  • 2013Quantum Artificial Intelligence Lab

    United States

    D-Wave hardware was placed at a research laboratory created by NASA, Google, and USRA for quantum machine-learning and related research.

    Outcome. Established a high-profile research use case and expanded public and academic attention to quantum annealing.

Brand decisions

  • 2021

    Develop the Advantage2 architectureGeneration change

    Background

    D-Wave sought to improve processor scale and connectivity for embedded optimization problems.

    Action taken

    The company announced a next-generation design using the Zephyr topology and higher per-qubit connectivity.

    Aftermath

    The program became the company’s principal hardware roadmap beyond Advantage and led to a reported 4,400-plus-qubit generally available system in 2025.

  • 2018

    Expand access through LeapStrategy

    Background

    Operating dedicated quantum hardware is expensive and technically demanding for most potential users.

    Action taken

    D-Wave introduced a cloud service that provided remote access to its processors and development environment.

    Aftermath

    The service broadened participation in D-Wave’s ecosystem and supported a software-led route to adoption.

  • 2011

    Commercialize the D-Wave OneProduct launch

    Background

    D-Wave chose to commercialize a specialized quantum-annealing system before the existence of a universal, fault-tolerant quantum computer.

    Action taken

    It announced the D-Wave One as a 128-qubit commercial system for discrete optimization.

    Aftermath

    The launch established D-Wave as an early commercial quantum-computing vendor but also intensified debate over quantum speedup and practical utility.

Recent events

  • D-Wave announces merger agreement with DPCM Capital[4]

    D-Wave announced that it had entered into a definitive transaction agreement with publicly listed special purpose acquisition company DPCM Capital. The transaction was expected to close in the second quarter of 2022, subject to customary closing conditions.

  • Unconfirmed

    D-Wave Advantage system becomes available through Leap[5]

    D-Wave said its Advantage quantum-computing system had become available through the D-Wave Leap quantum cloud service. The system has 5,000 qubits, twice the capacity of the previous-generation D-Wave 2000Q system, according to the article.

  • Reported

    D-Wave launches Advantage quantum computers[6]

    D-Wave announced the launch of its Advantage quantum computers, with more than 5,000 qubits and 15-way qubit connectivity, available through its Leap cloud computing platform.

  • Reported

    D-Wave launches Leap 2 quantum cloud service[7]

    D-Wave announced Leap 2, the latest version of its quantum cloud service, featuring a hybrid solver and a new IDE for its hybrid system.

  • Unconfirmed

    AWS partners with quantum computing companies for Braket[8]

    AWS partnered with D-Wave, IonQ and Rigetti to provide their quantum computing systems through AWS cloud as part of the Braket service.

  • Reported

    AWS announces preview release of Braket quantum computing service[9]

    Amazon Web Services announced the preview release of Braket, a quantum computing service that provides access through AWS cloud to quantum computing systems from D-Wave, IonQ and Rigetti.

  • Reported

    AWS announces preview launch of Braket quantum computing service[10]

    AWS announced the preview launch of Braket, a quantum computing service that lets developers build quantum algorithms and test them in simulations and on partner-provided quantum hardware.

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