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Nidec at Data Center World Asia 2026
From September 29-30, in Singapore, Nidec presents precision liquid thermal management solutions designed to address extreme heat dissipation in high-density generative artificial intelligence facilities.
www.nidec.com
Nidec Corporation is deploying liquid cooling infrastructure engineered to resolve server heat dissipation challenges in next-generation computing facilities. The systems target high-density server installations and facilities supporting generative AI workloads across Southeast Asia and global enterprise computing hubs.
Thermal Management Challenges in High-Density Computing
The rapid deployment of compute-intensive artificial intelligence hardware has significantly increased server power density, rendering conventional air cooling insufficient for operational reliability. Facilities require advanced heat removal architectures to maintain operating temperatures, prevent thermal throttling, and improve overall facility energy efficiency. To manage these elevated thermal loads, infrastructure providers are shifting toward direct liquid-to-liquid and liquid-to-air cooling distribution architectures.
Technical Specifications and Distribution Infrastructure
The deployed cooling systems utilize precision engineering adapted from high-tolerance motor manufacturing to manage fluid distribution and heat transfer:
- In-Rack Coolant Distribution Units: Built in a 4U form factor, these units deliver up to 300 kW of heat dissipation capacity directly inside server racks. The integration of compact internal pumping and heat exchange mechanisms resolves localized thermal loads in dense computing nodes. Over 12,000 units are operating globally.
- In-Row Coolant Distribution Units: Configured for row-level thermal management, each module provides up to 2 MW of cooling capacity. The chassis includes redundant critical components, such as secondary pumps, and hot-swappable sub-assemblies to allow maintenance without interrupting computing operations.
- Fluid Transfer Components: Distribution circuits employ proprietary quick disconnect couplings designed with zero-drip internal valves to prevent liquid leakage during maintenance cycles. Cooling distribution manifolds are routed with balanced internal fluid dynamics, lowering overall loop pressure drops to maximize flow rates across cold plates.
Implementation and Regional Deployment
The architecture integrates directly with both newly constructed hyperscale facilities and retrofitted modular or containerized data center topologies. Nidec Corporation is demonstrating the functional implementation of these systems at Data Center World Asia, held from September 29 to September 30, 2026, at the Marina Bay Sands Expo and Convention Centre in Singapore. Technical support covers end-to-end implementation, ranging from fluid circuit design to mechanical component balancing across server rows.
Operational Impact
Direct liquid thermal management stabilizes fluid loop operating temperatures and reduces the parasitic energy consumption typically drawn by mechanical air chillers and high-speed chassis fans. The integration of hot-swappable components and low-pressure fluid manifolds ensures continuous thermal regulation, preventing hardware degradation and supporting continuous uptime in high-power digital infrastructure.
Edited by Evgeny Churilov, Induportals Media - Adapted by AI.
www.nidec.com
The architecture integrates directly with both newly constructed hyperscale facilities and retrofitted modular or containerized data center topologies. Nidec Corporation is demonstrating the functional implementation of these systems at Data Center World Asia, held from September 29 to September 30, 2026, at the Marina Bay Sands Expo and Convention Centre in Singapore. Technical support covers end-to-end implementation, ranging from fluid circuit design to mechanical component balancing across server rows.
Operational Impact
Direct liquid thermal management stabilizes fluid loop operating temperatures and reduces the parasitic energy consumption typically drawn by mechanical air chillers and high-speed chassis fans. The integration of hot-swappable components and low-pressure fluid manifolds ensures continuous thermal regulation, preventing hardware degradation and supporting continuous uptime in high-power digital infrastructure.
Edited by Evgeny Churilov, Induportals Media - Adapted by AI.
www.nidec.com
