Capillary Flow in Different Cells of Ginkgo Biloba, Diospyros Kaki and Ailanthus Altissima

은행나무, 감나무, 가중나무 세포내강의 액체이동

  • Chun, Su Kyoung (Department of Forest Biomaterials Engineering, Kangwon National University)
  • 전수경 (강원대학교 산림바이오소재공학과)
  • Received : 2015.03.15
  • Accepted : 2015.04.15
  • Published : 2015.04.25

Abstract

A study was carried out to observe the 1% aqueous safranine solution flow speed in longitudinal and radial directions of softwood G. biloba, ring-porous wood A. altissima, and diffuse- porouswood D. kaki. In radial direction, ray cells and in longitudinal direction tracheids, vessel and wood fiber were considered for the measurement of liquid penetration speed at less than 12% moisture contents (MC). The length, lumen diameter, pit diameter, end wall pit diameter and the numbers of end wall pits determined for the flow rate. The liquid flow in the those cells was captured via video and the capillary flow rate in the ones were measured. Vessel in hardwood species and tracheids in softwood was found to facilitate prime role in longitudinal penetration. Radial flow speed was found highest in ray parenchyma of G. biloba. Anatomical features like the length and diameter, end-wall pit numbers of ray parenchyma were found also responsible fluid flow differences. On the other hand, vessel and fiber structure affected the longitudinal flow of liquids. Therefore, the average liquid penetration depth in longitudinal tracheids of G. biloba was found the highest among all cells considered in D. kaki and A. altissima.

Keywords

References

  1. Ahmed, S. A. and S. K. Chun, 2009. Observation of liquid permeability related to anatomical characteristics in Samaneasaman. Turk. J. Agric. For. 33: 155-163.
  2. Ahmed, S. A., S. H. Chong, S. K. Chun, B. S. Park. 2006. Ray parenchyma and ray tracheid structure of four Korean pine wood species. J. Kora furniture Soc. 17(4): 101-107.
  3. Banks, W. B. 1970. Some factors affecting the permeability of Scots Pine and Norway Spruce. Wood Sci. 5(1): 10-17.
  4. Bolton, A. J. 1988. A reexamination of some deviations from Darcy's Law in coniferous wood. Wood Sci. Technol. 22: 311-322. https://doi.org/10.1007/BF00353321
  5. Erickson, H. D. and J. J. Balatinecz, 1964. Liquid flow paths into wood using plymerization techniques: Douglas-fir and styrene. FRo. Prod. 14: 293-299.
  6. Erickson, H. D. 1970. Permeability of Southem Pine wood-a review. Wood Science. 2(3): 149-158.
  7. Flynn, K. A. 1995. A review of the permeability, fluid flow, and anatomy of spruce(Picedaspp.). Wood Fiber Sci. 27: 278-284.
  8. Fujii, T., S. J. Lee, N. Kuroda, and Y. Suzuki, 2001. Conductive function of inter vessel pits through a growth ring boundary of Machilus thunbergii. IAWA J. 22(1): 1-14. https://doi.org/10.1163/22941932-90000264
  9. Hansmann, C., W. Gindl, R. Wimmer, and A. Teischinger. 2002. Permeability of wood-a review. Wood Res. 47(4): 1-16.
  10. Kamke, F. A. and J. N. Lee. 2007. Adhesive penetration in wood-a review. Wood fiber Sci. 39: 205-220.
  11. Keith, C. T. and G. Chauret. 1998. Anatomical studies of CCA penetration associated with conventional (tooth) and with micro (needle) incising. Wood Feber Sci. 20: 197-208.
  12. Kitin, P., T. Fujii, H. Abe, and K. Takata. 2009 Anatomical features that facilitate radial flow across growth rings and from xylem to cambium in Cryptomeria japonica. Ann. Bot. 103: 1145-1157. https://doi.org/10.1093/aob/mcp050
  13. Leal, S., V. B. Sousa, and H. Pereira. 2007. Radial variation of vessel size and distrivution in cork oak wood (Quercus suber L.). Wood Sci. 41: 339-350. https://doi.org/10.1007/s00226-006-0112-7
  14. Liese, W. and J. Bauch. 1967. On anatomical causes of the refractory behaviour of spruce and Douglas fir. Wood Sci. 4(1): 3-14.
  15. Lihra, T., A. Cloutier, S. Y. Zhang 2000. Longitudinal and transverse permeability of Balsam fir wetwood and normal heartwood. Wood Fiber Sci. 32(2): 164-178.
  16. Olsson, T., M. Megnis, and J. Varna. 2001. Study of the transverse liquid flow paths in pine and spruce using scanning electron microscopy. Wood Sci. 47: 282-288. https://doi.org/10.1007/BF00766714
  17. Owoyemi, J. M. and J. O. Kayode. 2008. Effect of incision on preservative capacity of Gmelina arborea wood. Biotech. 7: 351-353. https://doi.org/10.3923/biotech.2008.351.353
  18. Petty, J. A. 1970. Permeability and structure of the wood of Sitka spruce. Proc. Roy. Soc. Lond. B 175: 149-166. https://doi.org/10.1098/rspb.1970.0016
  19. Siau, J. F. 1984. Transport processes in wood. Springer, Berlin, New York.
  20. Siau, J. F. 1995. Wood: Influence of moisture on physical properties. Dept. of wood Science and Forest Products, Virginia Polytechnic Institute and State University, Blacksburg, Virginia. pp. 227.
  21. Thomas, R. J. 1976. Anatomical features affecting liquid permeability in three hardwood species. Wood Fiber Sci. 7(4): 256-263.
  22. Trenard, T. and P. Gueneau. 1984. Penetration pathways of liquid gallium in wood seen by scanning electron microscopy. Wood Fiber Sci. 16: 403-410.
  23. Wardrop, A. B. and G. W. Davies. 1961. Morphological factors relating to the penetration of liquids into wood. Holzforchung. 15: 130-141.
  24. Watnanabe, U., Y. Imamura, and Iida. 1998. Liquid penertration of precompressed wood VI: Anatomical characterization of pit fractures. J. Wood Sci. 44: 158-162. https://doi.org/10.1007/BF00526263