they also rely on highly specialized systems to keep those processors operating in an environment that is stable, protected, and colder than the furthest reaches of outer space. As quantum computers scale, the infrastructure that houses, cools, and operates them must advance as well—delivering systems that are easier to maintain, upgrade, and link with other systems.
In this episode of The Coherence Times, we’re joined by IBM’s Matt Hollister and Allie Lindler to dive deeper into the advanced cooling technology that makes superconducting quantum computing possible. Together, they discuss why cryogenic hardware matters, what goes into engineering refrigeration systems for the for modular quantum systems of the future, and how a new modular platform could help support the next generation quantum processors and systems.
The opinions expressed in this podcast are solely those of the participants and do not necessarily reflect the views of IBM or any other organization or entity.
The opinions expressed in this podcast are solely the views of the participants and do not necessarily reflect the views of IBM or any other organization or entity.
- Learn more about the modular architecture for cooling future generations of quantum computers.
- Read more about IBM’s new modular architecture for cryogenic systems
- Explore tools, workflows, and other resources that will enable the next generation of quantum systems supported by this new architecture: IBM Quantum Platform
Topics we discussed during the episode
Modular approach to housing and cooling quantum processors clears a path for interconnected, fault-tolerant systems.
New cryogenic quantum fridges designed to link hundreds of quantum chips. Cooled to below 15 millikelvin, more than 180 times colder than deep space, the build out marks a step forward in the engineering required for future quantum computers.
Quantum computing is an emergent field of computer science and engineering that harnesses the unique qualities of quantum mechanics to solve problems beyond the ability of even the most powerful classical computers.
