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Green Refrigerant-Based Compact Hybrid System for Ultra-Efficient and Sustainable HPCs Cooling
Data centers, constituting approximately 2% of total U.S. electricity consumption and experiencing rapid growth, urgently require energy-efficient strategies. The cooling infrastructure, responsible for up to 40% of a data center's energy consumption, emerges as a critical area for improvement....
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Published in: | ASHRAE transactions 2024-01, Vol.130, p.315-324 |
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creator | Heydari, Ali Manaserh, Yaman Shahi, Pardeep Tradat, Mohammad Eslami, Bahareh Radmard, Vahideh Chowdhury, Uschas Miyamura, Harold Mehrabi, Mehdi Al-Zu'bi, Omar Nemati, Kourosh Rodriguez, Jeremy Sammakia, Bahgat Ortega, Alfonso |
description | Data centers, constituting approximately 2% of total U.S. electricity consumption and experiencing rapid growth, urgently require energy-efficient strategies. The cooling infrastructure, responsible for up to 40% of a data center's energy consumption, emerges as a critical area for improvement. Addressing this need, our paper introduces a pioneering cooling approach-the Hybrid Direct-to-Chip (D2C) Pumped Two-Phase and Single-Phase Immersion System. This system is meticulously designed to harness the strengths of two distinct cooling technologies. The innovative system seamlessly integrates the superior thermal performance of D2C pumped two-phase technology, specifically tailored for high-power components like CPUs and GPUs. Simultaneously, single-phase immersion cooling systems, while facing thermal constraints, prove optimal for discrete, low-power sources. The hybrid system targets the elimination of energy-intensive air cooling, yielding substantial energy savings, potentially achieving PUE < 1.05. Additionally, it aims to maximize operational efficiency by allowing operation in extreme climatic conditions without the need for chillers-an essential feature in reducing overall energy consumption. To ensure sustainability, our system replaces R134a with a green refrigerant replacement boasting a GWP < 1. In summary, the proposed Hybrid D2C Pumped Two-Phase and Single-Phase Immersion Cooling System not only presents a comprehensive solution to the challenges of individual cooling technologies but also serves as an innovative approach that improves thermal performance, enhances energy efficiency, and contributes to the sustainability and effectiveness of server cooling system |
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The cooling infrastructure, responsible for up to 40% of a data center's energy consumption, emerges as a critical area for improvement. Addressing this need, our paper introduces a pioneering cooling approach-the Hybrid Direct-to-Chip (D2C) Pumped Two-Phase and Single-Phase Immersion System. This system is meticulously designed to harness the strengths of two distinct cooling technologies. The innovative system seamlessly integrates the superior thermal performance of D2C pumped two-phase technology, specifically tailored for high-power components like CPUs and GPUs. Simultaneously, single-phase immersion cooling systems, while facing thermal constraints, prove optimal for discrete, low-power sources. The hybrid system targets the elimination of energy-intensive air cooling, yielding substantial energy savings, potentially achieving PUE < 1.05. Additionally, it aims to maximize operational efficiency by allowing operation in extreme climatic conditions without the need for chillers-an essential feature in reducing overall energy consumption. To ensure sustainability, our system replaces R134a with a green refrigerant replacement boasting a GWP < 1. In summary, the proposed Hybrid D2C Pumped Two-Phase and Single-Phase Immersion Cooling System not only presents a comprehensive solution to the challenges of individual cooling technologies but also serves as an innovative approach that improves thermal performance, enhances energy efficiency, and contributes to the sustainability and effectiveness of server cooling system</abstract><cop>Atlanta</cop><pub>American Society of Heating, Refrigeration and Air Conditioning Engineers, Inc</pub></addata></record> |
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subjects | Air cooling Clean energy Cold Computer centers Cooling Cooling systems Cost control Data centers Electricity consumption Electronics Energy consumption Energy efficiency Heat transfer Hybrid systems Immersion cooling Power sources Refrigerants Renewable energy Sustainability Technology |
title | Green Refrigerant-Based Compact Hybrid System for Ultra-Efficient and Sustainable HPCs Cooling |
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