| Article | |
| Title | Cryogenic thermosiphon used for indirect cooling of superconducting magnets |
| Author(s) | Głuchowska, Weronika (CERN ; Wroclaw Tech. U.) ; Banaszkiewicz, Tomasz (Wroclaw Tech. U.) ; Mentink, Matthias (CERN) ; Cure, Benoit (CERN) ; Dudarev, Alexey (CERN) ; Singh, Shuvay (CERN) |
| Publication | 2024 |
| Number of pages | 10 |
| In: | Cryogenics 143 (2024) 103951 |
| DOI | 10.1016/j.cryogenics.2024.103951 (publication) |
| Subject category | Condensed Matter |
| Abstract | A thermosiphon is a thermodynamic phenomenon that facilitates the circulation of cryogen within a cooling system, relying solely on gravitational forces and phase change. This mechanism leverages the variations in the density of the cryogenic fluid throughout the entire cooling loop, creating a pressure gradient. This gradient serves as the primary driving force for the circulation of the cryogen. To negate the necessity of a circulation pump, it is crucial to determine the geometry of the cooling loop, the configuration of the thermosiphon, its height, and the vertical placement of the cryogen phase separator. This paper introduces a simplified computational model and the geometric calculations of the cryogenic thermosiphon for two distinct configurations of the indirect cooling loop for superconducting magnets. |
| Copyright/License | publication: © 2024-2025 The Authors (License: CC BY 4.0) |
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Record created 2024-10-08, last modified 2025-04-07
