IBM Quantum Computing Development and Partnerships

Developing StoryLast updated APR 26
SUMMARY

IBM and Cisco announced a collaboration on April 26, 2026, to develop a networked quantum computer system within five years and a fully functional network by the early 2030s, alongside the inauguration of IBM's first European Quantum Data Center in Ehningen, Germany, in October 2024. As of April 26, 2026, IBM is targeting the end of 2026 to demonstrate scientific quantum advantage and a fault-tolerant module using its Nighthawk processor, with future iterations expected to deliver up to 7,500 gates by late 2026 and over 1,000 connected qubits by 2028. The company is expanding its quantum facilities in Poughkeepsie, New York, and has achieved a 10x speedup in quantum error correction decoding, a year ahead of schedule. IBM also updated its Qiskit software, increasing accuracy by 24% and decreasing cost by over 100-fold, while Algorithmiq, in collaboration with Cleveland Clinic and IBM, won a $2 million Q4Bio prize for quantum algorithms. These developments support IBM's roadmap towards achieving quantum advantage by the end of 2026 and full-scale fault-tolerant quantum computing by 2029.

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April 2026 — 10 developments

  1. IBM and Cisco are collaborating to develop a networked quantum computer system within five years and a fully functional network by the early 2030s.

    IBM and Cisco are collaborating to develop a networked quantum computer system within five years and a fully functional network by the early 2030s. IBM also inaugurated its first European Quantum Data Center in Ehningen, Germany, in October 2024 to support European companies in exploring quantum computing use cases.

  2. IBM is targeting the end of 2026 to demonstrate scientific quantum advantage and a fault-tolerant module, utilizing its Nighthawk processor and IBM Quantum Platform.

    IBM is targeting the end of 2026 to demonstrate scientific quantum advantage and a fault-tolerant module, utilizing its Nighthawk processor and IBM Quantum Platform. Future iterations of Nighthawk are expected to deliver up to 7,500 gates by the end of 2026 and up to 10,000 gates in 2027, with systems potentially supporting over 1,000 connected qubits by 2028.

  3. IBM is expanding its quantum computing facilities in Poughkeepsie, New York, with new buildings to s…

    IBM is expanding its quantum computing facilities in Poughkeepsie, New York, with new buildings to support increased quantum operations and establish the campus as a leader in quantum technology development and manufacturing. This expansion supports the company's broader goals, including achieving quantum advantage by 2026 and fault-tolerant quantum computing by 2029.

  4. IBM Quantum researchers have proposed using gauge theory concepts to potentially improve the efficie…

    IBM Quantum researchers have proposed using gauge theory concepts to potentially improve the efficiency of fault-tolerant quantum computation, reducing qubit requirements for certain operations. This research aligns with IBM's roadmap towards achieving quantum advantage by the end of 2026.

  5. Algorithmiq, in collaboration with Cleveland Clinic and IBM, has won a $2 million Q4Bio prize for developing scalable quantum algorithms.

    Algorithmiq, in collaboration with Cleveland Clinic and IBM, has won a $2 million Q4Bio prize for developing scalable quantum algorithms. This award highlights the potential of quantum computing applications in the healthcare sector.

  6. IBM has updated its Qiskit software stack, achieving a 24% increase in accuracy for quantum circuits and over a 100-fold decrease in the cost of extracting accurate results.

    IBM has updated its Qiskit software stack, achieving a 24% increase in accuracy for quantum circuits and over a 100-fold decrease in the cost of extracting accurate results. The IBM Quantum Nighthawk processor, slated for delivery to users by the end of 2025, boasts 120 qubits with 218 tunable couplers, enabling circuits with 30% greater complexity and up to 5,000 two-qubit gates.

  7. IBM has joined the Shared AI License Foundation, signaling a push to be at the center of open, enterprise-grade AI and quantum infrastructure.

    IBM has joined the Shared AI License Foundation, signaling a push to be at the center of open, enterprise-grade AI and quantum infrastructure. This move complements IBM's ongoing efforts to expand its quantum chip portfolio and its collaboration with Arm to develop dual-architecture hardware.

  8. IBM has demonstrated a 10x speedup in quantum error correction decoding, achieving this milestone a year ahead of schedule.

    IBM has demonstrated a 10x speedup in quantum error correction decoding, achieving this milestone a year ahead of schedule. The company continues to advance its quantum roadmap, aiming for quantum advantage by the end of 2026 and full-scale fault-tolerant quantum computing by 2029.

  9. Scientists have successfully loaded a complete human genome onto an IBM quantum computer, marking a significant step for quantum bioinformatics.

    Scientists have successfully loaded a complete human genome onto an IBM quantum computer, marking a significant step for quantum bioinformatics. IBM is also enhancing its Qiskit software stack to increase accuracy and reduce error mitigation costs, supporting its goal of quantum advantage by 2026.

  10. IBM has collaborated with Lloyds Banking Group to explore the use of quantum computing for identifying money mules, demonstrating its potential for financial crime detection.

    IBM has collaborated with Lloyds Banking Group to explore the use of quantum computing for identifying money mules, demonstrating its potential for financial crime detection. This practical application complements IBM's ongoing hardware advancements and its target of achieving quantum advantage by the end of 2026.

March 2026 — 7 developments

  1. IBM has unveiled its 120-qubit "Nighthawk" processor, featuring a 2D lattice architecture that enhances qubit connectivity by 60% for more complex circuits.

    IBM has unveiled its 120-qubit "Nighthawk" processor, featuring a 2D lattice architecture that enhances qubit connectivity by 60% for more complex circuits. This processor is crucial for IBM's pursuit of quantum advantage, a goal set for the end of 2026. IBM has also released the industry's first published quantum-centric supercomputing reference architecture.

  2. IBM is transitioning its quantum processor fabrication to a 300mm wafer facility to accelerate its roadmap and increase the complexity of its quantum chips.

    IBM is transitioning its quantum processor fabrication to a 300mm wafer facility to accelerate its roadmap and increase the complexity of its quantum chips. This move supports their commitment to achieving "quantum advantage" by 2026 and fault-tolerant quantum computing by 2029.

  3. The fault-tolerant foundation era for quantum computing is expected to begin in 2026, signaling a move towards more stable quantum computers.

    The fault-tolerant foundation era for quantum computing is expected to begin in 2026, signaling a move towards more stable quantum computers. This advancement heightens concerns about quantum-resistant cryptography, as current encryption methods may become vulnerable to future fault-tolerant quantum computers. Organizations like Google and IBM are actively developing and advocating for post-quantum cryptography (PQC) migration to secure data against these future threats.

  4. IBM's quantum computer has successfully simulated real magnetic materials, matching experimental data and demonstrating potential for scientific discovery.

    IBM's quantum computer has successfully simulated real magnetic materials, matching experimental data and demonstrating potential for scientific discovery. The company is also developing a "quantum-centric supercomputing" architecture integrating quantum and classical resources to tackle complex challenges.

  5. IBM and ETH Zurich have launched a 10-year collaboration to develop foundational algorithms for the …

    IBM and ETH Zurich have launched a 10-year collaboration to develop foundational algorithms for the AI and quantum era, focusing on optimization, differential equations, and complex system modeling. This initiative aims to advance capabilities for future quantum and AI applications.

  6. As of today, IBM continues to refine its quantum computing roadmap, focusing on the iterative development of hardware, software, and algorithms to meet its ambitious goals.

    As of today, IBM continues to refine its quantum computing roadmap, focusing on the iterative development of hardware, software, and algorithms to meet its ambitious goals. The company is actively working with its IBM Quantum Network partners to explore new applications and use cases for its growing fleet of quantum processors. Ongoing efforts include enhancing Qiskit, improving processor performance, and advancing error mitigation techniques, all aimed at achieving quantum advantage and fault tolerance in the coming years.

  7. IBM continues to progress towards its ambitious quantum roadmap goals, with ongoing research and dev…

    IBM continues to progress towards its ambitious quantum roadmap goals, with ongoing research and development in processor technology, error correction, and modular system architectures. The company remains on track to demonstrate quantum advantage by the end of 2026, aiming to solve problems beyond the reach of classical computers. Furthermore, IBM is actively working towards delivering its first large-scale, fault-tolerant quantum computer, the IBM Quantum Starling, by 2029.

November 2025 — 3 developments

  1. IBM announced significant advancements, including the unveiling of the IBM Quantum Nighthawk processor and the IBM Quantum Loon system.

    IBM announced significant advancements, including the unveiling of the IBM Quantum Nighthawk processor and the IBM Quantum Loon system. These developments, alongside new software and algorithm breakthroughs, are critical steps on IBM's path to achieving quantum advantage and fault tolerance. The Nighthawk processor focuses on improved performance, while Loon explores new error correction techniques, pushing the boundaries of quantum hardware and software integration.

  2. IBM announced significant advancements in its quantum computing portfolio, including the unveiling o…

    IBM announced significant advancements in its quantum computing portfolio, including the unveiling of the IBM Quantum Nighthawk processor and the experimental IBM Quantum Loon system. These developments were accompanied by breakthroughs in quantum software and algorithms, particularly in error correction and mitigation. The company reaffirmed its ambitious roadmap, targeting quantum advantage by the end of 2026 and fault-tolerant quantum computing by 2029 with the future IBM Quantum Starling system, demonstrating continuous progress towards these goals.

  3. IBM unveiled the Nighthawk processor and the experimental Loon system, along with significant breakthroughs in software and algorithm development.

    IBM unveiled the Nighthawk processor and the experimental Loon system, along with significant breakthroughs in software and algorithm development. This announcement reinforced IBM's path to achieving quantum advantage by the end of 2026 and fault-tolerant quantum computing by 2029. The Nighthawk processor represents continued hardware innovation, while the Loon system explores new architectural approaches for future quantum systems.

July 2025 — 1 developments

  1. IBM demonstrated improved coherence times and significantly reduced error rates on its latest generation of quantum processors.

    IBM demonstrated improved coherence times and significantly reduced error rates on its latest generation of quantum processors. These technical advancements are crucial for enhancing the reliability and performance of quantum computations. Longer coherence times allow qubits to maintain their quantum state for longer, while lower error rates lead to more accurate results, both vital for scaling quantum systems.

March 2025 — 2 developments

  1. IBM provided an update on its progress in integrating quantum and classical computing workflows, emp…

    IBM provided an update on its progress in integrating quantum and classical computing workflows, emphasizing the development of hybrid algorithms that leverage the strengths of both paradigms. This integration is essential for practical quantum advantage, as many real-world problems will require a combination of quantum and classical processing. The company highlighted advancements in Qiskit Runtime that facilitate seamless interaction between quantum processors and classical supercomputers.

  2. IBM outlined specific benchmarks and criteria for achieving quantum advantage by the end of 2026, providing a clearer roadmap for its progress.

    IBM outlined specific benchmarks and criteria for achieving quantum advantage by the end of 2026, providing a clearer roadmap for its progress. These benchmarks involved demonstrating that quantum computers could solve certain problems more efficiently than classical supercomputers. The detailed plan aimed to guide research and development efforts towards practical quantum applications.

October 2024 — 1 developments

  1. Qiskit 1.0 was released, marking a major milestone for IBM's open-source quantum software developmen…

    Qiskit 1.0 was released, marking a major milestone for IBM's open-source quantum software development kit. This version focused on stability, performance, and a streamlined user experience, providing a robust platform for quantum application development. The release underscored IBM's commitment to building a mature and reliable software ecosystem for quantum computing.

June 2024 — 2 developments

  1. IBM announced new breakthroughs in quantum error correction techniques, a crucial area for achieving fault-tolerant quantum computing.

    IBM announced new breakthroughs in quantum error correction techniques, a crucial area for achieving fault-tolerant quantum computing. These advancements focused on improving the fidelity of quantum operations and reducing the impact of noise on quantum computations. The progress in error correction is vital for building reliable quantum computers that can perform complex calculations without being overwhelmed by errors, moving closer to practical applications.

  2. IBM announced new partnerships and expanded access to its quantum systems for research institutions and universities worldwide.

    IBM announced new partnerships and expanded access to its quantum systems for research institutions and universities worldwide. These collaborations aimed to accelerate quantum research and foster the development of new quantum applications. By broadening access, IBM sought to empower a wider community of scientists and engineers to explore the potential of quantum computing.

February 2024 — 1 developments

  1. IBM detailed significant advancements in quantum error correction, a critical step towards achieving fault-tolerant quantum computing.

    IBM detailed significant advancements in quantum error correction, a critical step towards achieving fault-tolerant quantum computing. These breakthroughs focused on improving the accuracy and efficiency of detecting and correcting errors in quantum computations. Effective error correction is essential for building reliable quantum computers capable of running complex algorithms without being overwhelmed by noise.

January 2024 — 1 developments

  1. Throughout 2024, IBM continued to enhance its Qiskit software development kit, adding new modules for error mitigation, quantum machine learning, and optimization.

    Throughout 2024, IBM continued to enhance its Qiskit software development kit, adding new modules for error mitigation, quantum machine learning, and optimization. The Qiskit ecosystem also saw further expansion with new tutorials, community contributions, and integrations with other scientific computing tools. This ongoing development solidified Qiskit's role as a leading platform for quantum programming and research.

December 2023 — 4 developments

  1. IBM introduced the 'Heron' processor, a 133-qubit chip that is the first in a new series designed for modularity and improved error rates.

    IBM introduced the 'Heron' processor, a 133-qubit chip that is the first in a new series designed for modularity and improved error rates. Unlike previous chips focused solely on increasing qubit count, Heron prioritizes performance and error correction capabilities, making it a crucial step towards fault-tolerant quantum computing. It also marked the debut of IBM Quantum System Two, demonstrating a new era of quantum system integration.

  2. IBM unveiled IBM Quantum System Two, its next-generation modular quantum computer, designed to house multiple quantum processors and supporting infrastructure.

    IBM unveiled IBM Quantum System Two, its next-generation modular quantum computer, designed to house multiple quantum processors and supporting infrastructure. This system represented a significant architectural shift, moving towards a flexible and scalable design capable of accommodating future generations of quantum chips. System Two is intended to be the foundation for IBM's fault-tolerant quantum computing efforts, providing the necessary environment for complex quantum operations.

  3. IBM unveiled its new Heron processor, designed with a modular architecture, marking a critical step towards building larger, more scalable quantum systems.

    IBM unveiled its new Heron processor, designed with a modular architecture, marking a critical step towards building larger, more scalable quantum systems. Simultaneously, IBM also introduced Condor, a 1121-qubit processor, which was the largest quantum chip ever built at the time. These advancements demonstrated IBM's dual strategy of increasing qubit count while also developing modular designs for future expansion and error correction.

  4. IBM unveiled the 133-qubit Heron processor, designed for high-fidelity operations and modular scalability, alongside the 1121-qubit Condor processor.

    IBM unveiled the 133-qubit Heron processor, designed for high-fidelity operations and modular scalability, alongside the 1121-qubit Condor processor. Heron is particularly significant as it is designed to be the first in a new series of utility-scale quantum processors, focusing on performance and error reduction. Condor, while larger, demonstrated the limits of monolithic scaling and paved the way for modular designs.

September 2023 — 2 developments

  1. IBM announced new quantum-safe cryptography services, designed to help organizations protect their data from potential future attacks by powerful quantum computers.

    IBM announced new quantum-safe cryptography services, designed to help organizations protect their data from potential future attacks by powerful quantum computers. This initiative highlighted IBM's proactive approach to cybersecurity in the quantum era. The services aimed to provide robust encryption methods that are resistant to both classical and quantum-based decryption techniques.

  2. IBM revealed its vision for quantum-centric supercomputing, outlining how quantum processors would i…

    IBM revealed its vision for quantum-centric supercomputing, outlining how quantum processors would integrate with classical computing resources to tackle previously intractable problems. This architecture emphasized hybrid workflows and the development of specialized software to manage the interplay between quantum and classical components. It laid the groundwork for future high-performance computing, combining the strengths of both paradigms.

May 2023 — 1 developments

  1. IBM announced significant updates to its quantum software stack, including new capabilities for Qiskit and enhancements to Qiskit Runtime.

    IBM announced significant updates to its quantum software stack, including new capabilities for Qiskit and enhancements to Qiskit Runtime. These updates aimed to improve the efficiency and ease of programming quantum computers, allowing developers to build and execute quantum programs more effectively. The focus was on making quantum computing more accessible and powerful for a wider range of users, accelerating the development of quantum applications.

March 2023 — 1 developments

  1. IBM unveiled IBM Quantum System Two, its next-generation modular quantum computing system, designed to be the foundation for future fault-tolerant quantum computers.

    IBM unveiled IBM Quantum System Two, its next-generation modular quantum computing system, designed to be the foundation for future fault-tolerant quantum computers. This system introduced a flexible and scalable architecture, allowing for the connection of multiple quantum processors. System Two is crucial for enabling the expansion of quantum computing capabilities and integrating advanced error correction techniques.

November 2022 — 1 developments

  1. IBM unveiled the 433-qubit Osprey processor, which at the time was the largest quantum processor ever built.

    IBM unveiled the 433-qubit Osprey processor, which at the time was the largest quantum processor ever built. This achievement demonstrated IBM's continued ability to scale its quantum hardware, significantly increasing the number of qubits available. Osprey was a key milestone on the path towards more powerful quantum systems, enabling researchers to explore more complex quantum circuits.

May 2022 — 1 developments

  1. IBM announced new quantum software capabilities, including significant updates to Qiskit Runtime, designed to accelerate the execution of quantum programs.

    IBM announced new quantum software capabilities, including significant updates to Qiskit Runtime, designed to accelerate the execution of quantum programs. These enhancements aimed to make quantum computing more accessible and efficient for developers and researchers. The focus was on reducing latency and improving the overall user experience when interacting with IBM's quantum systems.

January 2022 — 1 developments

  1. IBM announced plans for IBM Quantum System Two, its next-generation quantum computing system designed to be modular and scalable.

    IBM announced plans for IBM Quantum System Two, its next-generation quantum computing system designed to be modular and scalable. This system was envisioned as the foundational infrastructure for future fault-tolerant quantum computers, capable of housing multiple quantum processors and cryogenic infrastructure. It represented a strategic move towards building large-scale quantum data centers and advancing the physical architecture of quantum computing.

November 2021 — 3 developments

  1. IBM introduced the 'Eagle' processor, the first quantum chip with more than 100 qubits, specifically 127 qubits.

    IBM introduced the 'Eagle' processor, the first quantum chip with more than 100 qubits, specifically 127 qubits. This achievement was a major milestone in quantum hardware development, pushing the boundaries of what was previously thought possible. The 'Eagle' processor utilized a new 3D packaging technology to increase qubit density and performance, setting a new standard for quantum chip design.

  2. IBM introduced the 127-qubit Eagle quantum processor, breaking the 100-qubit barrier and representing a significant leap in hardware capability.

    IBM introduced the 127-qubit Eagle quantum processor, breaking the 100-qubit barrier and representing a significant leap in hardware capability. This processor was made available to select members of the IBM Quantum Network, allowing them to explore more complex quantum circuits. Eagle's design incorporated advanced packaging techniques to manage the increased number of qubits, marking a crucial step towards larger-scale quantum systems.

  3. IBM unveiled the Eagle processor, a 127-qubit quantum chip, marking a significant breakthrough as the first processor to use a new 3D packaging technology.

    IBM unveiled the Eagle processor, a 127-qubit quantum chip, marking a significant breakthrough as the first processor to use a new 3D packaging technology. This innovative design allowed for a higher density of qubits and improved performance. Eagle represented a crucial step towards building larger and more powerful quantum computers, moving beyond the limitations of previous architectures.

February 2021 — 2 developments

  1. IBM announced new quantum-safe cryptography services, designed to help businesses prepare for the po…

    IBM announced new quantum-safe cryptography services, designed to help businesses prepare for the potential threat that future quantum computers pose to current encryption standards. These services aimed to integrate quantum-safe algorithms into existing security infrastructures, providing a proactive approach to protecting sensitive data. This initiative highlighted IBM's broader commitment to the quantum ecosystem, extending beyond hardware to include critical security considerations.

  2. IBM announced its intention to build a 1,000+ qubit quantum processor by 2023, further solidifying its long-term vision for quantum computing.

    IBM announced its intention to build a 1,000+ qubit quantum processor by 2023, further solidifying its long-term vision for quantum computing. This ambitious goal was part of IBM's strategy to push the boundaries of quantum hardware development. The announcement reinforced the company's commitment to scaling quantum systems to address increasingly complex problems.

December 2020 — 1 developments

  1. IBM detailed its ambitious quantum development roadmap, outlining plans to build a 1,000+ qubit processor, 'Condor', by 2023.

    IBM detailed its ambitious quantum development roadmap, outlining plans to build a 1,000+ qubit processor, 'Condor', by 2023. This roadmap also included intermediate processors and significant advancements in quantum software and error mitigation techniques. It provided a clear vision for scaling quantum computing towards practical applications and achieving quantum advantage in the near future.

September 2020 — 4 developments

  1. IBM announced the 'Hummingbird' processor, featuring 65 operational qubits, further advancing its quantum hardware capabilities.

    IBM announced the 'Hummingbird' processor, featuring 65 operational qubits, further advancing its quantum hardware capabilities. This processor was designed with improved connectivity and reduced error rates, enabling more complex quantum circuits to be executed. It represented a significant step towards larger and more reliable quantum systems, pushing the boundaries of quantum computation.

  2. As part of its roadmap announcement, IBM introduced the 'Hummingbird' quantum processor, featuring 65 operational qubits.

    As part of its roadmap announcement, IBM introduced the 'Hummingbird' quantum processor, featuring 65 operational qubits. This represented a significant increase in qubit count compared to previous generations, demonstrating IBM's continuous progress in scaling its quantum hardware. The Hummingbird processor was designed to enable more complex quantum experiments and further advance the development of quantum algorithms.

  3. IBM unveiled an ambitious quantum computing roadmap, outlining its plans to scale quantum processors to over 1,000 qubits by 2023.

    IBM unveiled an ambitious quantum computing roadmap, outlining its plans to scale quantum processors to over 1,000 qubits by 2023. This roadmap detailed a clear path for hardware development, including advancements in superconducting transmon qubits and cryogenic infrastructure. The announcement provided a long-term vision for achieving quantum advantage and underscored IBM's commitment to systematic progress in quantum hardware.

  4. IBM published an updated quantum roadmap, detailing its ambitious plans for scaling quantum technology over the coming years.

    IBM published an updated quantum roadmap, detailing its ambitious plans for scaling quantum technology over the coming years. The roadmap projected the release of the 127-qubit Eagle processor in 2021, the 433-qubit Osprey processor in 2022, and the 1,121-qubit Condor processor by the end of 2023. This strategic outline highlighted IBM's commitment to significantly increasing qubit counts and improving error correction capabilities.

May 2020 — 1 developments

  1. IBM announced that it had achieved its highest Quantum Volume to date, demonstrating a consistent doubling of quantum performance annually since 2017.

    IBM announced that it had achieved its highest Quantum Volume to date, demonstrating a consistent doubling of quantum performance annually since 2017. Quantum Volume serves as a comprehensive metric, evaluating a quantum computer's overall power by considering factors such as qubit count, error rates, coherence times, and connectivity. This milestone underscored IBM's continuous efforts to enhance the quality and capabilities of its quantum systems.

September 2019 — 2 developments

  1. IBM introduced its 53-qubit 'Raleigh' processor, which was at the time the largest universal quantum computer available to external users.

    IBM introduced its 53-qubit 'Raleigh' processor, which was at the time the largest universal quantum computer available to external users. This processor was a key component of the IBM Q System One, offering increased computational power for exploring complex quantum algorithms. Its release demonstrated IBM's rapid progress in scaling quantum hardware and expanding access to advanced quantum systems.

  2. IBM announced plans to establish its first European Quantum Computation Center in Ehningen, Germany, in partnership with Fraunhofer-Gesellschaft.

    IBM announced plans to establish its first European Quantum Computation Center in Ehningen, Germany, in partnership with Fraunhofer-Gesellschaft. This move aimed to expand access to IBM's quantum technology for European researchers and businesses, fostering regional quantum innovation. The center would house an IBM Q System One, providing dedicated quantum computing resources and expertise to advance quantum research and application development across the continent.

May 2019 — 1 developments

  1. IBM revamped its Quantum Experience platform, integrating web-hosted Jupyter notebooks and a more intuitive interface.

    IBM revamped its Quantum Experience platform, integrating web-hosted Jupyter notebooks and a more intuitive interface. This update made it easier for users to write, run, and analyze quantum programs directly in the cloud, enhancing the overall user experience. The improved platform aimed to facilitate broader adoption of quantum programming and accelerate quantum research.

January 2019 — 3 developments

  1. IBM unveiled IBM Q System One, touted as the world's first integrated commercial quantum computing system.

    IBM unveiled IBM Q System One, touted as the world's first integrated commercial quantum computing system. This system featured a 20-qubit transmon processor housed in an airtight, controlled environment, marking a step towards making quantum computing available for business and scientific applications beyond research labs. It was designed for commercial clients, and later that year, IBM planned to open its first IBM Q Quantum Computation Center in Poughkeepsie, New York, signifying a move towards commercial deployment.

  2. IBM unveiled IBM Q System One, positioning it as the world's first integrated quantum computing system for commercial use.

    IBM unveiled IBM Q System One, positioning it as the world's first integrated quantum computing system for commercial use. This system featured a 20-qubit processor encased in a sophisticated, airtight glass cube designed to maintain a stable and controlled quantum environment. The launch aimed to transition quantum computing from purely research-oriented labs to practical applications for businesses and scientific institutions.

  3. IBM significantly expanded its IBM Quantum Network, bringing in new partners from industry, academia, and national labs.

    IBM significantly expanded its IBM Quantum Network, bringing in new partners from industry, academia, and national labs. This network provides members with access to IBM's quantum systems and expertise, fostering collaboration and accelerating quantum application development. The expansion aimed to build a robust global quantum ecosystem, facilitating research and commercialization efforts.

January 2018 — 3 developments

  1. IBM Q System One was unveiled at CES, marking the world's first integrated quantum computing system designed for commercial use.

    IBM Q System One was unveiled at CES, marking the world's first integrated quantum computing system designed for commercial use. This system represented a significant step towards making quantum computing more robust and accessible outside of pure lab environments. It combined quantum hardware with classical control electronics in a single, aesthetically designed unit, emphasizing reliability and stability.

  2. IBM officially launched the IBM Q Network, a global community of Fortune 500 companies, academic ins…

    IBM officially launched the IBM Q Network, a global community of Fortune 500 companies, academic institutions, startups, and national research labs working with IBM to advance quantum computing. This network provided members with cloud-based access to IBM's most advanced quantum systems and expertise. The initiative aimed to accelerate the development of practical quantum applications and foster a collaborative ecosystem for quantum innovation.

  3. IBM launched the IBM Q Network, a global community of Fortune 500 companies, startups, academic inst…

    IBM launched the IBM Q Network, a global community of Fortune 500 companies, startups, academic institutions, and national research labs working with IBM to advance quantum computing. This network aimed to accelerate quantum discovery and application development across various industries. It provided members with cloud access to IBM's most advanced quantum systems and expertise, fostering collaborative innovation.

November 2017 — 2 developments

  1. IBM launched the IBM Q 20 Austin, a 20-qubit quantum computer, significantly increasing the qubit count available to users.

    IBM launched the IBM Q 20 Austin, a 20-qubit quantum computer, significantly increasing the qubit count available to users. This development demonstrated IBM's continuous progress in scaling its quantum hardware. The introduction of more qubits allowed for the exploration of more complex quantum circuits and algorithms.

  2. IBM announced a significant leap in its quantum hardware capabilities by unveiling a 20-qubit quantum processor that was made available to clients via the IBM Cloud.

    IBM announced a significant leap in its quantum hardware capabilities by unveiling a 20-qubit quantum processor that was made available to clients via the IBM Cloud. Concurrently, the company also revealed a 50-qubit prototype processor, demonstrating rapid progress in scaling up qubit counts. These advancements underscored IBM's commitment to pushing the boundaries of quantum hardware and providing increasingly powerful systems for research and development.

May 2017 — 1 developments

  1. IBM announced the development of a 17-qubit prototype processor and a 50-qubit prototype, demonstrating rapid progress in scaling its quantum hardware.

    IBM announced the development of a 17-qubit prototype processor and a 50-qubit prototype, demonstrating rapid progress in scaling its quantum hardware. These advancements showcased IBM's commitment to increasing qubit counts and improving the underlying technology. The prototypes were crucial steps towards building more powerful quantum systems capable of tackling complex computational problems.

March 2017 — 3 developments

  1. IBM released Qiskit, an open-source quantum software development kit, to enable users to more easily write code and run experiments on its quantum processors and simulators.

    IBM released Qiskit, an open-source quantum software development kit, to enable users to more easily write code and run experiments on its quantum processors and simulators. Qiskit quickly became a foundational tool for quantum programming, providing a framework for composing quantum programs and accessing IBM's quantum hardware. This software initiative significantly expanded the accessibility and utility of quantum computing.

  2. IBM released Qiskit, an open-source software development kit designed to enable users to more easily write code and conduct experiments on quantum processors and simulators.

    IBM released Qiskit, an open-source software development kit designed to enable users to more easily write code and conduct experiments on quantum processors and simulators. This release significantly lowered the barrier to entry for quantum programming and fostered a growing community of developers. Qiskit became a foundational tool for quantum software development within the IBM ecosystem and beyond, providing a unified framework for quantum computation.

  3. IBM released Qiskit, an open-source quantum software development kit (SDK), designed to simplify the…

    IBM released Qiskit, an open-source quantum software development kit (SDK), designed to simplify the process of writing code and running experiments on IBM's quantum processors and simulators. Qiskit's introduction was crucial for building a robust ecosystem around quantum programming, enabling a wider range of users to engage with quantum computing. This software facilitated advancements in quantum algorithm research and application development.

May 2016 — 3 developments

  1. IBM launched the IBM Quantum Experience, providing public cloud access to a 5-qubit quantum processor.

    IBM launched the IBM Quantum Experience, providing public cloud access to a 5-qubit quantum processor. This unprecedented move democratized quantum computing, allowing students, researchers, and developers worldwide to run quantum algorithms on a real machine. It fostered a global community and marked a foundational step toward quantum education and experimentation.

  2. IBM launched the IBM Quantum Experience, making a 5-qubit quantum processor and a simulator accessible to the public via the cloud.

    IBM launched the IBM Quantum Experience, making a 5-qubit quantum processor and a simulator accessible to the public via the cloud. This initiative marked a pivotal moment in quantum computing, democratizing access to quantum hardware for researchers and developers worldwide. The platform quickly garnered significant interest, with thousands of users registering in its initial weeks, fostering a burgeoning global quantum community.

  3. IBM launched the IBM Quantum Experience, making a 5-qubit quantum processor publicly accessible via the cloud for the first time.

    IBM launched the IBM Quantum Experience, making a 5-qubit quantum processor publicly accessible via the cloud for the first time. This initiative, which included processors like IBM Q 5 Tenerife and IBM Q 5 Yorktown, allowed researchers, students, and developers worldwide to run quantum algorithms on real hardware. The platform quickly gained traction, with thousands of users registering within weeks, demonstrating a strong demand for quantum computing access and democratizing access to this nascent technology.

January 2003 — 1 developments

  1. IBM constructed its first experimental quantum computing system, known as Blue Gene/Q, marking a sig…

    IBM constructed its first experimental quantum computing system, known as Blue Gene/Q, marking a significant transition from purely theoretical research to tangible hardware development. This early machine was capable of performing basic quantum calculations, demonstrating the feasibility of building such systems. This development was a crucial step in IBM's long-term commitment to quantum technology, moving beyond simulations to physical implementation.

January 1994 — 1 developments

  1. IBM scientists made significant theoretical contributions to quantum computing, including the develo…

    IBM scientists made significant theoretical contributions to quantum computing, including the development and analysis of Shor's algorithm, which demonstrated the potential for quantum computers to factor large integers exponentially faster than classical systems. They also worked on quantum error correction, a crucial area for the practical realization of quantum computers. This early research laid the groundwork for IBM's future quantum hardware and software initiatives.