Accueil » Projets » Data Centers – DC15.1 & DC15.2 – External
EOLIOS has applied its technical know-how to analyze and represent data centers’ external heat and air flows.
EOLIOS ingénierie, one of Europe’s leading providers of CFD modeling services for data centers, has lent its expertise to the project. technical expertise in understanding and modeling exchanges thermal and aeraulic external data center in France in relation to the heat release of generators via CFD studies.
In the very large-scale datacenter environment, cooling system standards capable of meeting the evolving needs of the IT industry are required due to the increasing density of IT equipment (over 10 kW / rack). Cooling to remove heat from high-density IT equipment is a key consideration for data centers. These calories are evacuated by a series of systems placed in high concentration on the roof.
This analysis examines the exhaust plume from a series of generators for a data center. The aim of the process is to determine whether thermal exhaust from these systems can contaminate the supply air through looping.
To achieve this, our EOLIOS engineers used CFD numerical calculations to simulate the thermo-aerodynamic behavior of the various phenomena taking place outside the model.
A multitude of parameters were taken into account by our experts; radiant wall temperatures, the thermal draught from manufacturing processes, the pressure the wind, internal resistance to vertical airflow ; location and the characteristics of flow resistance of envelope openings the local land and the immediate impact of the building structure on the wind; as well as the presence of mechanical systems stirring air around the processes.
We will verify the design of a system to improve the air mixing of air coolers located on the roof of technical rooms occupied by generators.
The digital twin of the data center studied in CFD includes air volumes, all generator sets, external air coolers and walls in contact with the exterior. All HVAC systems are modeled. The digital twin also includes the surrounding buildings, which have been carefully modeled in order to obtain the most accurate thermal plume evolution for different wind directions, and thus quickly identify potential thermal problems. By analyzing these results from a global or local perspective, we can propose solutions tailored to the various problems identified.
All the generators were CFD-modeled using the digital twin. Motors, stacks, heat extraction fans, chimneys, equipment systems and electrical cabinets are all taken into account in the study. The refinement of the CFD resolution provides a complex temperature distribution that is representative of reality. Some specific phenomena were identified during the study, which led to design work to resolve these issues.
Initial simulations have enabled us to capture the main thermal phenomena involved in datacenter studies, as well as the various phenomena inherent in cooling systems. Capturing these phenomena enabled us to quickly start looking for solutions to the problems identified. The use of 3D models during the research phase enabled us to study and design the various solutions envisaged.
CFD simulations have made it possible to represent high-temperature zones at all points in space. This property has enabled us to precisely identify the looping zones between the air expelled by the air coolers and the air they suck back in. The results obtained led us to conclude that the thermo-aerodynamic dynamics of the original design could lead to overheating of the cooling system. The results obtained enabled us to review the original design and implement appropriate solutions.
By using a CFD study, it is possible to analyze, check and correct, if necessary, potential errors during the design. This fast, precise method reduces design time and ensures concrete and reliable results. Integrating a CFD study during its design stage means calling on professionals to ensure that no problems arise in the future.
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