A Decade of Quantum: How the Science Sector Became a Global Industry After Ten Years on the Cloud
IBM Quantum News
A significant milestone in the history of technology will be reached on May 4, 2026: the tenth anniversary of the first quantum computer being deployed on the cloud. Over the past ten years, what started out as a daring, experimental move by IBM has democratized access to quantum information science, given rise to a multibillion dollar business, and radically changed the course of contemporary computing.
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2016’s watershed moment
Ten years ago, quantum computing was mostly limited to well funded research labs and institutes. On May 4, 2016, IBM made actual quantum hardware available to a worldwide community over the cloud. The choice was a “absolute stroke of brilliance” that indicated a desire for global access to quantum systems, according to Jamie Garcia, Director of Growth & Strategic Partnerships at IBM Quantum.
Many people still remember that day, including Dr. Álvaro Nodar, who is currently an advocate for the Basque Quantum (BasQ) program. Nodar remembers his lecturers announcing the release when he was a master’s student. Nodar described the transition from pen and paper theory to actual hardware as “mind-blowing,” saying, “That same afternoon I started running the circuits I had been working on in exercises, projects, and exams.”
A Revolution in Accessibility
A new paradigm for scientific exploration was brought forth by this democratization. The widespread access made possible by the cloud has raised community morale, according to Travis Humble, Director of Oak Ridge National Laboratory’s Quantum Science Center. The public today expects quantum systems to be easily accessible for research and development, turning what was once a “bold experiment” into a vital resource.
The influence went beyond academics. Cloud access enabled a whole new class of software businesses to develop quickly, according to Michael Biercuk, CEO and founder of Q-CTRL. Access was previously limited to those who manufactured the devices; IBM’s action created a whole new sector of the quantum business.
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Hardware and Software Evolution
Over the past 10 years, technological advancements have outpaced even the first, audacious forecasts. Only five qubits were included in the first cloud-accessible CPU in 2016. IBM predicted at the time that 100-qubit devices will be available by 2026.
That objective has been surpassed today. More than 100 qubits are currently included in every IBM quantum computer. With 156 qubits and a median two-qubit error rate of 1.17E-3, the current IBM Quantum Heron r3 is more than an order of magnitude lower than the first devices. Additionally, IBM has pushed the boundaries of what was previously thought to be “unimaginable” by successfully demonstrating devices with up to 1,121 qubits.
The software stack’s maturity increases in tandem with hardware advancements. Ten years ago, users “dragged and dropped” circuits in a visual composer, according to Scott Crowder, Vice President of Adoption at IBM Quantum. These days, researchers just need to write a few lines of code to create these systems, which are backed by a wealth of instructional resources and reliable documentation. “Flying a paper plane and suddenly finding yourself piloting a jet at full speed” is how Álvaro Nodar describes this change.
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Impact on Industry and Science in the Real World
In industrial applications, the transition from “novelty” to “utility” is most noticeable. The CEO of Kipu Quantum, Enrique Solano, notes that whereas employing a few qubits ten years ago seemed like a gimmick, his company now uses all 156 qubits of the IBM Quantum Heron to address industrial-scale challenges.
Alongside the technologies, big businesses have also developed. For the past seven years, Boeing has used cloud access to uncover innovative methods and high-value use cases with real business implications. In the meantime, the Cleveland Clinic is using an IBM quantum computer deployed on-site in 2023 to explore advances in drug development and medical care. By combining on-premises systems with high-performance computing (HPC) to optimize potential, Japan’s national research facility RIKEN has emerged as a leader in quantum-centric supercomputing.
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The Human Legacy: The Quantum Developer’s Ascent
The emergence of a new profession is arguably the greatest enduring effect of the past ten years. “There was no such thing as a quantum developer 10 years ago,” notes Scott Crowder. These days, groups like as the Unitary Foundation conduct yearly polls for a worldwide community of quantum developers.
The inventors, developers, and leaders influencing the future of the industry are the same students who initially experimented with the 5-qubit system in 2016. The focus is now on the next ten years of the IBM Quantum Platform, an enterprise-grade service designed for realistic, industrial-scale application, as IBM’s annual Think conference gets underway.
In addition to launching a platform, the decision on May 4, 2016, also ushered in a new era of computers and a worldwide community. The groundwork established by ten years of cloud-accessible quantum computing continues to be the cornerstone of future innovation as the industry looks to 2036.
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