기계적 물성 평가를 위한 초저온 냉각시스템 개발에 관한 연구
Development of an Cryogenic Temperature Cooling System for Mechanical Property Evaluation
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초록
This study focuses on the technology for manufacturing a cooling chamber designed to evaluate the fundamental properties of materials under ultra-low temperature conditions. A tensile test was conducted using the developed ultra-low temperature cooling chamber, which employed a heat transfer method to cool only the test specimen within a high-vacuum environment. Compared to traditional methods of cooling using refrigerants, this approach enabled precise temperature control in a relatively short cooling time. Additionally, the ultra-low temperature cooling chamber was capable of managing temperature increases caused by heat generation during plastic deformation in the test. It is anticipated that this ultra-low temperature cooling chamber can be effectively utilized for evaluating the basic properties of materials, particularly in the context of liquid hydrogen applications. Liquid hydrogen is gaining attention as an eco-friendly fuel in the push for carbon neutrality, a topic that has recently garnered significant interest.
Abstract
This study focuses on the technology for manufacturing a cooling chamber designed to evaluate the fundamental properties of materials under ultra-low temperature conditions. A tensile test was conducted using the developed ultra-low temperature cooling chamber, which employed a heat transfer method to cool only the test specimen within a high-vacuum environment. Compared to traditional methods of cooling using refrigerants, this approach enabled precise temperature control in a relatively short cooling time. Additionally, the ultra-low temperature cooling chamber was capable of managing temperature increases caused by heat generation during plastic deformation in the test. It is anticipated that this ultra-low temperature cooling chamber can be effectively utilized for evaluating the basic properties of materials, particularly in the context of liquid hydrogen applications. Liquid hydrogen is gaining attention as an eco-friendly fuel in the push for carbon neutrality, a topic that has recently garnered significant interest.
참고문헌 (24)
- Zhang, T., , Renewable and Sustainable Energy Reviews, 176, pp.113204~ (2023)
- Bu, T., , Renewable and Sustainable Energy Reviews, 55, pp.890~899 (2022)
- Ren, X., , International Journal of Hydrogen Energy, 59, pp.34326~34345 (2020)
- Correa-Jullian, C., , Journal of Renewable and Sustainable Energy, 50, pp.4222~4235 (2022)
- Petitpas, G., , Energy &Environmental Science, 38(19), pp.8190~8198 (2013)
- Faraday, M., , Quarterly Journal of Science, 15, pp.203~223 (1823)
- Cailletet, L. P., , Comptes Rendus, 85, pp.1213~1214 (1877)
- Pictet, R., , Comptes Rendus, 85, pp.1214~1216 (1877)
- "The Evolution and Applications of Cryogenic Technology", Journal of Cryogenics, 23(4), pp.45~62 (2015)
- Brown, T. R., "Advancements in Cryogenic Cooling Systems for Aerospace Applications", International Journal of Aerospace Engineering, 14(2), pp.112~138 (2018)
- Patel, S., "Comparative Study of Cryogenic Cooling Pumps: Performance and Reliability", Cryogenic Engineering Journal, 37(1), pp.55~79 (2020)
- Davis, R., "Design and Material Considerations for Effective Cryogenic Chambers", Materials Science and Engineering A, 29(3), pp.90~115 (2017)
- Zhang, H., "Technical Challenges and Innovations in Cryogenic Cooling Systems", Journal of Thermal Analysis and Calorimetry, 75(6), pp.142~165 (2019)
- Wright, P., "Recent Developments in Cryogenic Insulation Materials: A Review", Advanced Materials Research, 41(2), pp.28~53 (2021)
- Green, A., "A Comprehensive Review of Cooling Technologies in Cryogenics", Journal of Applied Physics, 32(5), pp.200~226 (2016)
- Anderson, K. M., "The Role of Cryogenic Fluids in Modern Cooling Systems", Journal of Low Temperature Physics, 18(4), pp.77~104 (2019)
- Thompson, R. L., "Advances in Cryo-Pump Technologies for Industrial Applications", International Journal of Refrigeration, 43(3), pp.215~239 (2020)
- Lee, Y. J., "Challenges in Designing Cryogenic Cooling Chambers for Superconducting Applications", Superconductor Science and Technology, 15(7), pp.300~320 (2018)
- Evans, C. T., "Thermal Management Strategies in Cryogenic Systems", Cryogenics, 24(2), pp.45~67 (2017)
- Kim, S. H., "Material Selection for Cryogenic Applications: A Comparative Study", Materials Science and Engineering B, 62(1), pp.120~148 (2019)
- Jackson, P. R., "Cryogenic Cooling Methods in Space Exploration: A Review", Journal of Spacecraft and Rockets, 28(3), pp.89~113 (2021)
- White, E. L., "Innovations in Cryogenic Technology for Energy Applications", Energy Procedia, 35(6), pp.58~82 (2020)
- Dieringa, H., "Influence of Cryogenic Temperatures on the Microstructure and Mechanical Properties of Magnesium Alloys: A Review", metals, 7(2), pp.1~16 (2017)
- Cryo H & I, "Cryogenics introduction for education in Cryo H & I company", ~ (2020)