References
1. Chi, S.W., Heat Pipe Theory and Practice: a Sourcebook
(Series in Thermal and Fluids Engineering),
McGraw-Hill Inc., USA (1976).
2. Peterson, G.P., An Introduction to Heat Pipes: Modeling,
Testing, and Applications, John Wiley & Sons,
Inc., New York (1994).
3. Chung, W.B., Hwang, S.H., Park, C.M., Kim, Y.S.
and Kim, S.S., Development of Loop Heat Pipes with
c Using Cold Isostatic Press Method, Joint 18th IHPC
and 12th IHPS, Jeju, Korea, June 12-16 (2016).
4. Byon, C. and Kim, S.J. \Permeability of mono- and
bi-dispersed porous media", EPJ Web of Conferences,
45, 01018 (2013).
5. Yang, X., Lu, T.J. and Kim, T. \An analytical model
for permeability of isotropic porous media", Physics
Letters A., 378(30-31), pp. 2308-2311 (2014).
6. Tang, Y., Hu, Z., Qing, J., Xie, Z., Fu, T., and Chen,
W. \Experimental investigation on isothermal performance
of the micro-grooved heat pipe", Experimental
Thermal and Fluid Science, 47, pp. 143-149, (2013).
7. Lefevre, F., Conrardy, J.B., Raynaud, M., and Bonjour,
J. \Experimental investigations of
at plate heat
pipes with screen meshes or grooves covered with
screen meshes as capillary structure", Applied Thermal
Engineering, 37, pp. 95-102, (2012).
8. Kempers, R., Ewing, D., and Ching, C.Y. \Eect of
number of mesh layers and
uid loading on the performance
of screen mesh wicked heat pipes", Applied
Thermal Engineering, 26(5-6), pp. 589-595 (2006).
9. Jiang, L., Ling, J., Jiang, L., Tang, Y., Li, Y.,
Zhou, W., and Gao, J. \Thermal performance of a
novel porous crack composite wick heat pipe", Energy
Conversion and Management, 81, pp. 10-18 (2014).
10. Hsieh, J.C., Huang, H.J., and Shen, S.C. \Experimental
study of micro rectangular groove structure covered
with multi mesh layers on performance of
at plate
heat pipe for LED lighting module", Microelectronics
Reliability, 52(6), pp. 1071-1079 (2012).
11. Dai, X., Famouri, M., Abdulagatov, A.E., Yang, R.,
Lee, Y.C., George, S.M., and Li, C. \Capillary evaporation
on micro membrane-enhanced microchannel
wicks with atomic layer deposited silica", Applied
Physics Letters, 103(15), p. 151602 (2013).
12. Huang, G., Abdulshaheed, A., Chang, W., and Li,
C. \An evaluation of hybrid wick design on high
performance copper-ethanol heat pipes", Joint 18th
IHPC and 12th IHPS, Jeju, Korea, June 12-16 (2016).
13. Reilly, S., and Catton, I. \Utilization of pore-size
distributions to predict thermophysical properties and
performance of biporous wick evaporators", Journal of
Heat Transfer, ASME, 136(6), 061501, (2014).
14. Carey, V.P. Liquid-Vapor Phase-Change Phenomena,
Hemisphere, New York (1992).
15. Ren, C., Wu, Q.S., and Hu, M.B. \Heat transfer with
ow and evaporation in loop heat pipe's wick at low
or moderate heat
uxes", Int. J. of Heat Mass Trans.,
Elsevier, 50(11-12), pp. 2296-2308 (2007).