1 권혁빈, "열차풍에 의한 고속선 자갈비산현상 연구" 한국철도학회 8 (8): 6-14, 2005
2 윤한빛, "눈 특성에 따른 열차 대차부 눈 부착률 추정에 대한 연구" 한국전산유체공학회 24 (24): 43-53, 2019
3 권혁빈, "고속열차 하부 착설에 의한 유리창 파손과 기상조건의 관계에 대한 연구" 한국철도학회 23 (23): 135-142, 2020
4 Bettez, M., "Winter Technologies for High Speed Rail"
5 Tominaga, Y., "Turbulent Schmidt numbers for CFD analysis with various types of flowfield" 41 (41): 8091-8099, 2007
6 Uematsu, T., "Three-dimensional numerical simulation ofsnowdrift" (20) : 65-73, 1991
7 Langleben, M. P., "The terminal velocity of snowflakes" 80 : 174-181, 1954
8 White, B.R., "Soil Transport by Winds on Mars" 84 (84): 4643-4651, 1979
9 Cheng, N. S., "Simplified Settling Velocity Formula for Sediment Particle" 123 (123): 149-152, 1997
10 Pomeroy, J., "Saltation of snow" 26 (26): 1583-1594, 1990
1 권혁빈, "열차풍에 의한 고속선 자갈비산현상 연구" 한국철도학회 8 (8): 6-14, 2005
2 윤한빛, "눈 특성에 따른 열차 대차부 눈 부착률 추정에 대한 연구" 한국전산유체공학회 24 (24): 43-53, 2019
3 권혁빈, "고속열차 하부 착설에 의한 유리창 파손과 기상조건의 관계에 대한 연구" 한국철도학회 23 (23): 135-142, 2020
4 Bettez, M., "Winter Technologies for High Speed Rail"
5 Tominaga, Y., "Turbulent Schmidt numbers for CFD analysis with various types of flowfield" 41 (41): 8091-8099, 2007
6 Uematsu, T., "Three-dimensional numerical simulation ofsnowdrift" (20) : 65-73, 1991
7 Langleben, M. P., "The terminal velocity of snowflakes" 80 : 174-181, 1954
8 White, B.R., "Soil Transport by Winds on Mars" 84 (84): 4643-4651, 1979
9 Cheng, N. S., "Simplified Settling Velocity Formula for Sediment Particle" 123 (123): 149-152, 1997
10 Pomeroy, J., "Saltation of snow" 26 (26): 1583-1594, 1990
11 Kwon, H., "Railway damage status and prevention technology in winter" 18 (18): 26-43, 2015
12 OpenFOAM, "Open-source Field Operation and Manipulation, Software Package, Ver.2.2.0"
13 Oikawa, S., "One-day observations of snowdrifts around a model cube" 15 (15): 3-11, 1999
14 Sundsbø, P.A., "Numerical modelling and simulation of snow drift" The Norwegian University Science and Technology 1997
15 Beyers, J., "Numerical modeling of snow flow characteristics surrounding SANAE IV Research Station, Antarctica" University of Stellenbosch 2004
16 Wang, W., "Lagrange stochastic model to simulate snow distribution in roofs" 31 (31): 428-434, 2014
17 Trenker, M., "Investigation of Snow Particle Transportation and Accretion on Vehicles" 3648-, 2006
18 Phillips, C., "Eulerian simulation of the fluid dynamics of helicopter brownout" 46 (46): 1416-1429, 2009
19 "EN 14067-6. Railway Applications - Aerodynamics - Part 6: Requirements and test procedures for cross wind assessment"
20 Tominaga, Y, "Comparison of various revised k-e models and LES applied to flow around a high-rise building model with 1 : 1 : 2 shape placed within the surface boundary layer" 96 : 389-411, 2008
21 Tominaga, Y., "CFD prediction of snowdrift around a cubic building model" 941-944, 2006
22 Tominaga, Y., "CFD prediction of flowfield and snowdrift around a building complex in a snowy region" (81) : 273-282, 1999
23 Longo, R., "CFD dispersion study based on a variable Schmidt formulation for flows around different configurations of ground-mounted buildings" 154 : 336-347, 2019
24 Tominaga, Y., "CFD Modeling of Snowdrift around a Building : An Overview of Models and Evaluation of a New Approach" 46 (46): 899-910, 2011
25 Philippe, D., "Applications of "snowind"engineering-climatic wind tunnel methods"
26 Tominaga, Y., "AIJ guidelines for practical applications of CFD to pedestrian wind environment around buildings" 96 : 1749-1761, 2008
27 Wang, J., "A study of snow accumulating on the bogie and the effects of deflectors on the de-icing performance in the bogie region of a high-speed train" 148 : 121-130, 2018
28 Thiis, K., "A comparison of numerical simulations and full-scale measurements of snowdrifts around buildings" 3 (3): 73-81, 2000