Abstract
A one-dimensional gas mixture flow model was developed and implemented in the heat pipe code Sockeye to model the effects of noncondensable gases. Additionally, a startup model based on the dusty gas model was implemented to model the transition from rarefied gas dynamics to continuum flow, which occurs during the frozen startup of high-temperature heat pipes. Multiple startup and noncondensable gas models were tested against experimental data for sodium heat pipes, showing excellent agreement. Additionally, the newly developed gas mixture model for modeling noncondensable gas is further tested with a theoretical case study with arbitrary heating configurations. Finally, several recommendations and conclusions are made from the studies in this work to guide future heat pipe modeling efforts.
| Original language | English |
|---|---|
| Article number | 106331 |
| Number of pages | 19 |
| Journal | Progress in Nuclear Energy |
| Volume | 196 |
| Early online date | Mar 11 2026 |
| DOIs | |
| State | Published - Jun 2026 |
Keywords
- Heat pipe
- MOOSE
- Noncondensable gas
- Sockeye
INL Publication Number
- INL/JOU-25-88574
- 211970
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