Exploring the future of cooling in AI infrastructure
As artificial intelligence (AI) technology advances, it is increasingly reliant on powerful computing systems that generate significant amounts of heat. This heat not only poses a challenge for maintaining ideal operating conditions but also drives up energy consumption, further straining resources. Data centres, which host the servers and hardware powering AI, require substantial energy to ensure optimal temperatures. This presents a critical issue as the demand for AI-driven applications grows, necessitating innovative cooling solutions to enhance efficiency while minimizing environmental impact.
Emergence Quantum, a pioneering deep-tech company from Australia, is tackling this challenge head-on. By exploring cryogenic cooling solutions, the company aims to develop a more efficient approach to managing heat in data centres. Cryogenic technology uses extremely low temperatures to potentially improve computing performance while also reducing energy and water requirements. This shift could redefine how we think about infrastructure in the age of AI, opening new avenues for sustainable technology.
Cryogenic computing refers to the application of extremely low temperatures to enhance the efficiency of computing systems. This approach relies on cooling components to near absolute zero, which can significantly reduce electrical resistance and improve overall performance. As a result, cryogenic technology holds the potential to enable faster processing speeds and greater data handling capabilities. By operating at these low temperatures, data centres can alleviate some of the heat generated by AI workloads, thus addressing the growing demands for cooling solutions.
The partnership between Emergence Quantum and AirTrunk represents a promising step towards integrating cryogenic cooling into future data centre designs. Their collaboration seeks to explore how this innovative cooling method can be effectively utilized alongside the latest advancements in quantum computing. The successful implementation of cryogenic technologies may not only lead to improved performance metrics but also contribute to a more sustainable and environmentally friendly approach to data centre operations.
Emergence Quantum, a spin-out from the University of Sydney established in 2025, has been at the forefront of research in quantum and cryogenic technologies. Their recent partnership with AirTrunk, announced on September 15, 2026, reflects the growing collaboration between academia and industry to tackle real-world problems. By translating laboratory innovations into practical applications for data centres, these companies are positioning themselves as leaders in the next generation of infrastructure development.
With AirTrunk's plans for significant digital infrastructure investments across the Asia-Pacific region, including expansions in India and Malaysia, the potential for cryogenic cooling technologies to play a pivotal role in this growth is substantial. As data centres look to scale up operations, innovative cooling solutions will be essential to maintaining efficiency and performance while reducing resource consumption.
Facts & Insights
- Emergence Quantum is a University of Sydney spin-out established in 2025 and is focused on quantum and cryogenic technologies.
- AirTrunk and Emergence Quantum announced their partnership on 15 September 2026 to explore cryogenic cooling for next-generation data centres.
- The companies are exploring technology intended to improve computing efficiency while reducing the energy and water requirements associated with data-centre cooling.
2025
Spin-Out Year
2026
Partnership
2
Technology Companies
2
Core Goals: Energy + Water Efficiency
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The future of computing may depend as much on temperature as transistor density.
— Editorial framing
The infrastructure race behind artificial intelligence is increasingly becoming a race to solve physical constraints. Computing power requires electricity, electricity generates heat, and cooling that heat requires additional resources. Cryogenic technology offers an unconventional response to that chain of problems, potentially linking advances in quantum computing with the practical requirements of hyperscale data centres. Whether the technology becomes mainstream remains to be seen, but the direction of research is significant: the next generation of digital infrastructure may be defined not only by how powerful computers become but by how intelligently they manage the physical environment around them.