Maybell Quantum has unveiled ColdCloud, a scalable cryogenic cooling platform designed to overcome limitations hindering the widespread adoption of quantum computing. The system promises to deliver over ten times the energy efficiency of existing technologies, reducing cooldown times from days to hours and offering the modularity needed for datacenter integration. Unlike conventional dilution refrigerators, ColdCloud centralizes cooling power and distributes it to independent nodes configurable for various quantum applications, potentially replacing entire rooms of equipment. “Maybell’s mission to build the world’s quantum infrastructure has always been about the ColdCloud,” said Corban Tillemann-Dick, Founder and CEO of Maybell Quantum, adding that the company filed initial patents for the platform shortly after its founding. This new approach aims to move quantum computing from a research environment to practical, commercial viability.
ColdCloud Platform: Scalable Cryogenic Cooling for Quantum Computing
Maybell Quantum’s ColdCloud platform addresses a critical bottleneck in quantum computing: cryogenic cooling. These nodes can be tailored to reach temperatures below 10 millikelvin for superconducting qubits or adjusted for other quantum modalities, offering a unified platform to replace sprawling, inefficient refrigerator rooms.
Existing cryogenic technology faces limitations; scaling to a million qubits using traditional methods would require thousands of individual refrigerators, consuming megawatts of power and offering a projected mean time between failures of less than two weeks. “The dilution refrigerator took quantum computing from impossible to possible.” A core innovation is the Maybell-cycle, a novel cryogenic cycle that brings liquefaction efficiency to a scale suitable for research labs and industrial applications, dramatically expanding the reach beyond industrial gas facilities. This approach yields substantial resource savings; Maybell claims ColdCloud uses 90% less electricity, 90% less cooling water, and up to 80% less Helium-3 per qubit compared to legacy systems. “ColdCloud isn’t one breakthrough. It’s hundreds of engineering problems solved the right way over years of research,” explained Tyler Plant, Principal Research Engineer. The first ColdCloud system is slated to come online later this year, with further deployments anticipated in 2027, signaling a shift toward practical, scalable quantum computation.
Maybell-Cycle Innovation: Enhanced Liquefaction Efficiency & Helium Reduction
Current quantum computing relies heavily on dilution refrigerators to achieve the extremely low temperatures necessary for qubit operation, but these systems present significant limitations as the field scales. Maybell Quantum addresses these challenges with ColdCloud, a platform that centralizes cryogenic cooling and distributes it to independent nodes, offering a different approach to cryogenics. This modularity extends to helium usage, a critical resource for maintaining ultra-low temperatures. Tyler Plant, Principal Research Engineer, said, “ColdCloud isn’t one breakthrough.” Maybell asserts that the Maybell-cycle achieves 90% less electricity and cooling water consumption than traditional methods. This efficiency stems from separating pre-cooling from the sub-Kelvin stage and centralizing the former at a facility level, improving thermodynamic efficiency at the 4-Kelvin stage by approximately 16x.
Since we exited stealth, Maybell has set the standard for innovation in ultra-low temperature cryogenics.
Kyle Thompson, Co-Founder and CTO of Maybell Quantum
Maybell Quantum is addressing a critical bottleneck in quantum computing development with its ColdCloud architecture, moving beyond incremental improvements in existing cryogenic systems. The company states that this modularity represents a significant departure from the current landscape of rooms filled with standalone refrigerators and associated infrastructure.
From day one, our team refused to accept that yesterday’s cryogenics could support tomorrow’s quantum computers.
Tyler Plant, Principal Research Engineer
