The use of soft rot fungi for determining the microfibrillar orientation in the S2 layer of pine tracheids

Holz als Roh - und Werkstoff

Volumn 58, Issue 6, 2001, Pages 439-447

  Khalili, S ^a   Nilsson, T ^a   Daniel, G ^a  

^a SWEDISH UNIVERSITY OF AGRICULTURAL SCIENCES   (Sweden)

Author keywords

[No Author keywords available]

Indexed keywords

CELLS; CELLULOSE; DECAY (ORGANIC); FUNGI;

MICROFIBRILLAR ORIENTATION;

WOOD;

PINUS;

EID: 0035241374     PISSN: 00183768     EISSN: None     Source Type: Trade Journal    
DOI: 10.1007/s001070050458     Document Type: Article

References (50)

1. Aaron JR, Wilson K (1955) Soft-rotting fungi in timber. Wood 30: 186-189
2. Abe H, Funada R, Ohtani J, Fukazawa K (1997) Changes in the arrangement of cellulose microfibrils associated with the cessation of cell expansion in tracheids. Trees 11: 328-332
3. Bailey IW, Vestal MR (1937a) The orientation of cellulose in the secondary wall of tracheary cells. J Arnold Arbo 18: 185-195
4. Bailey IW, Vestal MR (1937b) The significance of certain wood-destroying fungi in the study of the enzymatic hydrolysis of cellulose. J Arnold Arbo 18: 196-205
5. Bendtsen BA, Senft J (1986) Mechanical and anatomical properties in individual growth rings of plantation-grown eastern cottonwood and loblolly pine. Wood Fibre Sci 18: 23-38
6. Butterfield BG (1998) Microfibril angle in wood. New Zealand: Westport
7. Cave I, Robinson W (1998) Measuring microfibril angle distribution in the cell wall by means of x-ray diffraction. In: Butterfield BG (ed). Microfibril angle in wood, pp. 94-108. New Zealand: Westport
8. Cave ID (1966) X-ray measurement of microfibril angle. Forest Prod J 16: 37-42
9. Cave ID, Walker JCF (1994) Stiffness of wood in fast-grown plantation softwoods: the influence of microfibril angle. Forest Prod J 44: 43-48
10. Cockrell RA (1974) A comparison of latewood pits, fibril orientation, and shrinkage of normal and compression wood of Giant Sequoia. Wood Sci. Technol 8: 197-206
11. Cowling EB (1964) Microorganisms and microbial enzyme systems as selective tools in wood anatomy. In: Côté JR, Wilfred A (ed) Cellular ultrastructure of woody plants, pp. 341-367. Syracuse New York
12. Cown DJ (1992) Corewood (juvenile wood) in Pinus radiata-should we be concerned? New Zealand Journal of Forestry Science 22: 87-95
13. 2 layer of Pinus silvestris. The Swedish University of Agricultural Sciences. Department of Forest Products. Report no. 154
14. Daniel G, Nilsson T (1994) Polylaminate concentric cell wall layering in fibres of Homalium foetium and its effect on degradation by soft rot fungi. In: Donalson LA, Singh AP, Butterfield BG (eds) Recent Advances in Wood Anatomy, pp. 369-373 Whitehouse
15. Donaldson LA (1991) The use of pit apertures as windows to measure microfibril angle in chemical pulp fibres. Wood and Fibre 23: 290-295
16. Donaldson LA (1992) Within- and between-tree variation in microfibril angle in Pinus radiata. New Zealand Journal of Forestry Science 22: 77-86
17. Dunning CE (1969) Cell-wall morphology of longleaf pine late-wood. Wood Science 1: 65-76
18. Emerton HW (1957) The outer secondary cell wall of tracheids and fibres: Its papermaking significance and its structure. Tappi 40: 542-547
19. Emerton HW, Goldsmith V (1956) The structure of the outer secondary wall of pine tracheids from kraft pulps. British Paper and Board Industry Research. 108-115
20. Evans R, Stuart S, Vandertouw J (1996) Microfibril angle scanning of increment cores by X-ray diffractometry. Appita 96: 879-882
21. Hale M, Eaton R (1985) The ultrastructure of soft rot fungi. Fine hyphae in wood cell walls. Mycologia 77: 277-288
22. Harada H (1965) Ultrastructure and organization of gymnosperm cell walls. In Côté WA (ed) Cellular Ultrastructure of Woody Plants, pp. 215-233. Syracuse New York
23. Harada H, Côté JR (1985) Structure of wood. In: Higuchi T (ed). Biosynthesis and biodegradation of wood components, pp. 1-41. Academic Press
24. Huang CL (1995) Revealing fibril angle in wood sections by - ultrasonic treatment. Wood and Fibre 27: 49-54
25. Hägglund B, Lundmark J (1982) Handledning i bonitering med Skoghögskolans boniteringssystem, National Board of Forestry, Jönköping, 123 pp.13-7. (In Swedish)
26. Jayme C, Fengel D (1961) Beitrag zur Kenntnis des Feinbaus der Frühholztracheiden. Beobachtung an Ultradünnschnitten von Fichtenholz. Holz Roh-Werkstoff 19: 50-55
27. Jurbergs KA (1960) Morphological properties of cotton and wood fibres. II. Slash pine. Tappi 43: 561-568
28. Kataoka Y, Saiki H, Fujita M (1992) Arrangement and superimposition of cellulose microfibrils in the secondary walls of coniferous tracheids. Mokuzai Gakkaishi 38: 327-335
29. Khalili S (1999) Comparing pit aperture and soft rot cavity orientation for determining the microfibrillar angle of tracheids in several softwoods. Manuscript
30. Lawrence L (1981) A technique for measuring fibril angle using polarized light. Wood and Fibre 13: 13-16
31. Megraw R, Leaf G, Bremer D (1998) Longitudinal shrinkage and microfibril angle in Loblolly pine. In: Butterfield BG (ed) Microfibril angle in wood, pp. 27-62. New Zealand: Westport
32. Meylan BA (1966) Measurement of microfibril angle by X-ray diffraction. Forest Prod J 17: 51-58
33. Navi P (1998) The influence of microfibril angle on wood mechanical properties, experimental and numerical study. In: Butterfield BG (ed) Microfibril angle in wood, pp. 62-81. New Zealand: Westport
34. Nilsson T (1974a) Formation of soft rot cavities in various cellulose fibres by Humicola alopallonella Meyers&Moore. Studia Forestalia Suecica, Nr 112
35. Nilsson T (1974b) Microscopic studies on the degradation of cellophane and various cellulosic fibres by wood-attacking microfungi. Studia Forestalia Suecica, Nr 117
36. Nilsson T (1976) Soft rot fungi-decay patterns and enzyme production. Material und Organismen, Suppl. 3: 103-112
37. Nilsson T (1981) Helical orientation of the microfibrils in fibres of Mastixiodendron pachyclados (K. Schum.) Melch. IAWA Bulletin n.s. 2, p. 186
38. Nilsson T, Daniel G (1983) Formation of soft rot cavities in relation to concentric layers in wood fibre walls. Internat. Res. Group on Wood Pres Doc no. IRG/WP/1185
39. Page DH (1969) A method for determining the fibrillar angle in wood tracheids. Microscopy J 90: 137-143
40. Preston RD (1934) The organization of the cell wall of the conifer tracheid (Part III). Trans. Roy. Soc. London Ser. B 224: 131-171
41. 2-layer of wood fibres as determined by X-ray diffraction analysis. Wood Sci Technol 31: 77-86
42. Savory JG (1956) Break down of timber by Ascomycetes and Fungi Imperfecti. Ann. Appl. Bio. 41, 336-347
43. Schacht H (1850) Über eigentümliche bisher noch nicht beobachtete Erscheinungen in den Verdickungsschichten gewisser Holzzellen. Botanische Zeitung, 8: 697-702, 713-719
44. Schacht H (1863) Über die Veränderungen durch Pilze in abstorbenen Pflanzenzellen Jahrbücher für Wissenschaftliche Botanik 3: 442-483
45. Senft JF, Bendtsen BA (1985) Measuring microfibrillar angles using light microscopy. Wood and Fibre 17: 564-567
46. Shumway RS, Kutscha NP, Shottafer JE (1971) The relationship of fibril angle to certain factors in plantation-grown red pine. Life Sci and Agr Exp Sta Tech Bull 47, Univ. Maine, Orono, Maine
47. Suliman O, Murphy RJ (1995) Ultrastructure of soft rot decay in bamboo cell walls. Material und Organismen 17: 241-251
48. Wardrop AB, Harada H (1963) The formation and structure of the cell wall in fibre and tracheides. J Exp Bot 16: 356-371
49. Watson AJ, Dadswell HE (1964) Influence of fibre morphology on paper properties. Appita 17: 151-156
50. Ye C, Sundström O (1997) Determination of S2-fibril-angle and fiber-wall thickness by microscopic transmission ellipsometry. Tappi 80: 181-190