Quanta Computer and Quantinuum have signed a joint development agreement to prepare the infrastructure, systems engineering, and manufacturing capabilities needed for next-generation quantum computers. The partnership addresses a growing challenge as this technology advances: moving from building highly specialized quantum machines to producing modular, repeatable, and commercially deployable systems at a larger scale.
The key points of the Quanta-Quantinuum alliance in 20 seconds
- Quanta and Quantinuum will jointly develop infrastructure for future generations of quantum computers.
- The engineering work has already begun and aims to enhance modularity, manufacturing, and scalability.
- Quanta brings industrial experience in advanced systems, while Quantinuum provides its trapped-ion quantum architecture.
- Quantinuum’s Helios is available now, with plans for Sol in 2027 and Apollo in 2029.
- The agreement does not disclose public financial figures.
This collaboration is particularly interesting because it shifts part of the quantum conversation away from qubits and lab records toward much more industrial issues: how to manufacture the machines, integrate their subsystems, organize suppliers, and turn advanced prototypes into platforms that can be installed and maintained repeatedly.
Quantinuum argues that quantum computing needs its industrial capacity to advance alongside the technology. Quanta contributes expertise in scaling complex computing systems for manufacturing.
The next quantum challenge may lie outside the processor itself
A quantum computer is not just a quantum processor inside a box.
Surrounding the qubits is substantial electronic, optical, control, power, and classical computing infrastructure. Depending on the technology used, the physical requirements to maintain and control the system also vary significantly.
Quantinuum employs trapped ions and a architecture called Quantum Charge-Coupled Device (QCCD). Its commercial platform Helios features 98 physical qubits and has been available since November 2025, according to the company’s technical documentation.
The company is now working on increasingly larger systems. Its public roadmap includes Sol in 2027 and Apollo in 2029. Sol aims to scale up to hundreds of physical qubits, while Apollo is Quantinuum’s goal for achieving a universal, fault-tolerant machine. These are roadmapped objectives and should not be interpreted as current capabilities.
This is where the industrial aspect of the Quanta agreement becomes especially relevant.
Increasing the number of qubits while maintaining low error rates doesn’t automatically solve all manufacturing challenges for a complete computer. They also need to scale control electronics, interconnects, optics, auxiliary components, assembly, testing, integration with traditional IT infrastructure, and supply chains.
Rajeeb Hazra, CEO of Quantinuum, summarizes the company’s goal: it’s time to shift some effort from physics research in labs toward manufacturing systems that can be deployed and operated at scale.
Quanta brings a different kind of experience to quantum computing
Choosing Quanta Computer makes sense because of what the Taiwanese company has been doing for decades outside quantum computing.
Quanta is one of the world’s largest manufacturers of computing systems, with extensive experience in industrializing complex hardware and producing high-volume IT infrastructure.
This does not mean Quanta will immediately start mass-manufacturing Quantinuum’s quantum computers. The announced agreement focuses on co-developing critical infrastructure, systems engineering, and manufacturing capabilities for future generations.
Both companies state that joint engineering work has already begun.
The goal is to design the next generation of hardware infrastructure so that future quantum computers can be more modular, manufacturable, and scalable.
This distinction is important. The industry is still far from producing fault-tolerant quantum computers like conventional servers today. Quanta and Quantinuum aim to proactively prepare part of the engineering needed so that manufacturing doesn’t turn into a bottleneck as quantum tech progresses.
This scenario is familiar in other tech industries. A device can be technically functional yet still be extraordinarily challenging to produce repeatedly, maintain, deploy, and manufacture at reasonable costs.
Manufacturing becomes part of the technological challenge itself.
Quantinuum is also planning where these machines will operate
The partnership with Quanta is not isolated.
Quantinuum has been expanding agreements for bringing its technology into real-world enterprise and scientific environments. In May, it extended its collaboration with BMW to work on related applications, including materials. In July, it announced a project with Rolls-Royce, Riverlane, and the University of Edinburgh to explore industrial applications involving complex simulations.
It also maintains collaborations with SoftBank to explore use cases and the potential integration of quantum computing, AI, and high-performance computing (HPC) within new infrastructures.
This week, Quantinuum and Oracle announced a partnership to bring quantum capacity to Oracle Cloud Infrastructure. Reuters reported that the deal envisions integrating Quantinuum’s technology into Oracle’s cloud infrastructure.
All of this helps explain why manufacturing is becoming a part of the equation.
If quantum computers eventually integrate with supercomputing centers, cloud infrastructure, or specialized data centers, building processors alone won’t suffice. Fully functional systems that can be installed, connected, and operated within real IT environments will be necessary.
Quantinuum already has Helios commercially available and collaborates with universities and companies to test algorithms, error correction, and applications on real hardware. Its documentation currently lists three generations: H1 (retired globally), H2 with 56 qubits, and Helios with 98 qubits.
From qubits to a new industrial supply chain
This partnership also offers a new perspective for the quantum market.
For years, much of the competition has been measured by qubit counts, fidelity, error correction, or different technologies. While these parameters remain important, a future quantum industry will likely need something more akin to a full IT supply chain.
This includes component manufacturers, electronics, optical control Systems, integration companies, traditional infrastructure providers, software, networks, data centers, and maintenance services.
Quanta and Quantinuum haven’t detailed which specific components will be co-produced, what industrial capacity they plan to develop, or how much they will invest. They haven’t announced production targets or volumes.
Therefore, it is premature to see this agreement as the start of mass manufacturing of quantum computers.
Instead, it marks a significant shift: Quantinuum is preparing for industrialization while continuing to develop its future machines, rather than waiting to have a fault-tolerant computer before considering production strategies.
Their timeline underscores the urgency. Helios is part of the current commercial wave. Sol is planned for 2027, and Apollo for 2029. Quantinuum aims to realize universal, fault-tolerant quantum computing before the end of the decade.
If this technological evolution occurs as planned, the ability to reliably manufacture systems will no longer be a secondary issue.
Quanta is precisely involved in this part of the equation.
Frequently Asked Questions
What have Quanta Computer and Quantinuum agreed upon?
Both companies signed an agreement to jointly develop hardware infrastructure, systems engineering, and manufacturing capabilities for future generations of quantum computers.
Will Quanta manufacture Quantinuum’s quantum computers?
The announcement does not currently specify mass production or manufacturing volumes. It focuses on co-developing infrastructure to make future systems more modular, manufacturable, and scalable.
What is Quantinuum’s current quantum computer?
Its latest commercial system is Helios, a 98-qubit trapped-ion system. Its roadmap includes Sol in 2027 and Apollo in 2029.
Why is manufacturing important for quantum computing?
Because scaling qubits alone is insufficient. Future systems will need electronics, control systems, interconnects, physical infrastructure, integration with classical computing, and supply chains capable of producing complete machines repeatedly.
