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Assessing the wood quality of interior spruce (Picea glauca × P. engelmannii): variation in strength, relative density, microfibril angle, and fiber length

  • Shawn D. Mansfield EMAIL logo , Roberta Parish , Peter K. Ott , James F. Hart and James W. Goudie
Published/Copyright: July 4, 2015
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Abstract

A dynamic interrelationship exists among wood density and fiber traits (tracheid length and microfibril angel, MFA) and the ultimate wood strength properties. Moreover, many of the basic fundamental wood attributes are heavily influenced by crown size and architecture. In an attempt to examine this interplay, we thoroughly characterized 60 interior spruce (Picea glauca × P. engelmannii) trees sampled in three age classes from four sites in central British Columbia. Breast height discs were taken, and relative wood density was measured along two radii. Tracheid length was assessed on isolated 5 years increments from pith to bark at breast height for each tree, as was MFA. Segmented regression was used to identify the “juvenile to mature wood” transition point, which revealed transition ages of 9.4 and 15.1 years for wood density and MFA, respectively, while fiber length continued to elongate until near 60 years of age. The flexural properties, modulus of elasticity (MoE) and modulus of rupture (MoR), were also quantified in the 60 individuals and found to be best predicted by VFV, a measure of tree vigor, and not the basic wood attributes. These findings imply that long crowns carrying large amounts of foliage, VFV, negatively impact wood strength in interior spruce.


Corresponding author: Shawn D. Mansfield, Department of Wood Science, University of British Columbia, Vancouver, BC V6T 1Z4, Canada, Phone: +604-822-0196, Fax: +604-822-9104, e-mail:

References

Alteyrac, J., Cloutier, A., Ung, C.-H., Zhang, S.Y. (2006) Mechanical properties in relation to selected wood characteristics of black spruce. Wood Fib. Sci. 38:229–237.Search in Google Scholar

BC Ministry of Forests, Mines and Lands. The State of British Columbia’s Forests, 3rd ed. Forest Practices and Investment Branch, Victoria, BC, 2010. www.for.gov.bc.ca/hfp/sof/index.htm#2010_report.Search in Google Scholar

Burnham, K.P., Anderson, D.R. Model Selection and Inference. A Practical Information-Theoretical Approach. Springer, New York, 2002. p. 488.Search in Google Scholar

Chalk, L. (1930) Tracheid length with special reference to Sitka spruce (Picea sitchensis Carr.). Forestry 4:7–14.10.1093/oxfordjournals.forestry.a063185Search in Google Scholar

Cown, D.J., Herbert, J., Ball, R. (1999) Modelling Pinus radiata lumber characteristics. Part 1. Mechanical properties of small clears. N. Z. J. For. Sci. 29:203–213.Search in Google Scholar

Dinwoodie, J.M. (1961) Tracheid and fibre length in timber; a review of the literature. Forestry 34:125–144.10.1093/forestry/34.2.125Search in Google Scholar

Dutilleul, P., Herman, M., Avella-Shaw, T. (1998) Growth rate effects on correlations among ring width, wood density, and mean tracheid length in Norway Spruce (Picea abies). Can. J. For. Res. 28:56–68.10.1139/x97-189Search in Google Scholar

Ericson, B. (1966) Effect of thinning on the basic density and content of latewood and heartwood in Scots pine and Norway spruce. Royal College of Forestry, Department of Forest Yield Res. Res. Notes No. 10. (In Swedish with English summary).Search in Google Scholar

Helander, A.B. (1933) Variations in tracheid length of pine and spruce. Found. Forest. Prod. Res. Finland, Publ. No. 14, p. 75 (In Finnish with English summary).Search in Google Scholar

Jaakkola, T., Mäkinen, H. Saranpää, P. (2005a) Wood density in Norway spruce: changes with thinning intensity and tree age. Can. J. For. Res. 35:1767–1778.10.1139/x05-118Search in Google Scholar

Jaakkola, T., Mäkinen, H., Sarén, M.-P., Saranpää, P. (2005b) Does thinning intensity affect the tracheid dimensions of Norway spruce? Can. J. For. Res. 35:2685–2697.10.1139/x05-182Search in Google Scholar

Janas, P. S. Brand, D. G. (1988) Comparative growth and development of planted and natural stands of jack pine. Forest. Chron. 64:320–328.10.5558/tfc64320-4Search in Google Scholar

Jozsa, L.A., Kellogg, R.M. An Exploratory Study of the Density and Annual Ring Weight Trends in Fast Growth Coniferous Woods in British Columbia. Forintek Can. Corp., Vancouver, BC, 1986. p. 1v.Search in Google Scholar

Jyske, T., Kaakinen, S., Nilsson, U., Saranpää, P., Vapaavuori, E. (2010) Effects of timing and intensity of thinning on wood structure and chemistry in Norway spruce. Holzforschung 64:81–91.10.1515/hf.2010.013Search in Google Scholar

Kang, K.-Y., Zhang, S.Y., Mansfield, S.D. (2004) The effects of initial spacing on wood density, fibre and pulp properties in Jack pine (Pinus banksiana Lamb.) Holzforschung 58:455–463.10.1515/HF.2004.069Search in Google Scholar

Kliger, I.R., Perstorper, M., Johansson, G., Pellicane, P.J. (1995) Quality of timber products from Norway spruce. Part 3. Influence of spatial position and growth characteristics on bending stiffness and strength. Wood Sci. Technol. 29:397–410.10.1007/BF00204581Search in Google Scholar

Kliger, I.R., Perstorper, M., Johansson, G. (1998) Bending properties of Norway spruce timber. Comparison between fast- and slow-grown stands and influence of radial position of sawn timber. Ann. Sci. For. 55:349–358.10.1051/forest:19980306Search in Google Scholar

Larson, P.R. (1969) Wood formation and the concept of wood quality. Yale University, School Forestry Bulletin 74 New Haven, CT. pp 54.Search in Google Scholar

Lenz, P., Cloutier, A., MacKay, J., Beaulieu, J. (2010) Genetic control of wood properties in Picea glauca – an analysis of trends with cambial age. Can. J. For. Res. 40:703–715.10.1139/X10-014Search in Google Scholar

Liu, C., Zhang, S.Y., Cloutier, A., Rycabel, T. (2007) Modeling lumber bending stiffness and strength in natural black spruce stands using stand and tree characteristics. For. Ecol. Manage. 242:648–655.10.1016/j.foreco.2007.01.077Search in Google Scholar

Mäkinen, H., Saranpää, P., Linder S. (2002) Wood-density variation of Norway spruce in relation to nutrient optimization and fibre dimensions. Can. J. For. Res. 32:185–194.10.1139/x01-186Search in Google Scholar

Mansfield, S.D., Parish, R., Goudie, J.W., Kang, K.-Y., Ott, P. (2007) The effects of crown ratio on the transition from juvenile to mature wood in lodgepole pine in western Canada. Can. J. For. Res. 37:1450–1499.10.1139/X06-299Search in Google Scholar

Mansfield, S.D., Parish, R., Di Lucca, C.M., Goudie, J.W., Kang, K-Y., Ott, P.K. (2009) Revisiting the transition between juvenile and mature wood: a comparison of fibre length, microfibril angle and relative wood density in lodgepole pine. Holzforschung 63:449–456.10.1515/HF.2009.069Search in Google Scholar

Middleton, G.R. Munro, B.D. Wood Density of Alberta White Spruce – Implications for Silvicultural Practices. Prepared for Manning Diversified Forest Products Research, Forintek Canada Corp., Vancouver, BC, 2002. p. 23.Search in Google Scholar

Middleton, G.R. Munro, B.D. Wood Attributes of Short-Rotation Interior Spruce in British Columbia: A First Appreciation of Product Potential. FPInnovations, Vancouver, BC, 2012. p. 59.Search in Google Scholar

Middleton, G.R. Munro, B.D. Wood Attributes of BC Central Interior Spruce Related to Rotation Age. FPInnovations, Vancouver, BC, 2013. p. 29.Search in Google Scholar

Middleton, G.R., Munro, B.D., Sadlish, J. Influence of Growth Rate on Strength and Related Wood Properties of Boreal White Spruce. Forest Renewal BC. Forintek Canada Corp., Vancouver, BC, 2000. p. 66.Search in Google Scholar

Neter, J., Wasserman, W., M.H. Kunter. Applied Linear Statistical Models. Regression, Analysis of Variance, and Experimental Designs, 3rd ed. Irwin. Burr Ridge, Illinois, 1990. p. 1181.Search in Google Scholar

Pape, R. (1999) Effects of thinning regime on the wood properties and stem quality of Picea abies. Scand. J. For. Res. 14:38–50.10.1080/02827589908540807Search in Google Scholar

Petty, J.A., Macmillan, D.C., Steward, C.M. (1990) Variation of density and growth ring width in stems of Sitka and Norway spruce. Forestry 63:39–49.10.1093/forestry/63.1.39Search in Google Scholar

Schabenberger, O. Pierce, F.J. Contemporary Statistical Models for the Plant and Soil Sciences. CRC Press, New York, 2002.10.1201/9781420040197Search in Google Scholar

Sirviö, J. Kärenlampi, P. (2000) Two scales of variation in Norway spruce tracheid properties. Wood Fibre Sci. 32:311–331.Search in Google Scholar

Sjolte-Jorgensen, J. (1967) The influence of spacing on the growth and development of coniferous plantations. Int. Rev. For. Res. 2:43–94.10.1016/B978-1-4831-9976-4.50008-XSearch in Google Scholar

Taylor, F.W., Wang, E.I.C., Yanchuk, A., Micko, M.M. (1982) Specific gravity and tracheid length variation of white spruce in Alberta. Can. J. For. Res. 12:61–566.10.1139/x82-087Search in Google Scholar

Ukrainetz, N.K., Ritland, K., Mansfield, S.M. (2008) Identification of quantitative trait loci for wood quality and growth across eight full-sib coastal Douglas-fir families. Tree Gen. Genome 4:159–170.10.1007/s11295-007-0097-xSearch in Google Scholar

Vasiljevic, S. (1955) Tracheid length within growth ring. University of Belgrade, Bulletin of the College of Forestry, 10:161–190. (English summary).Search in Google Scholar

Vezina, P.E. (1964) An analysis of measures of density in even-aged balsam fir and jack pine stands. Forest. Chron. 40:474–481.10.5558/tfc40474-4Search in Google Scholar

Wang, H.H., Drummond, J.G., Reath, S.M., Hunt, K., Watson, P.A. (2001) An improved fibril angle measurement method for wood fibres. Wood Sci. Tech. 34:493–503.10.1007/s002260000068Search in Google Scholar

Watt, M.S., Moore, J.R., Façon, J.P., Downes, G.M., Clinton, P.W., Coker, G., Davis, M.R., Simcock, R., Parfit, R.L., Dando, J., Mason, E.G., Brown, H.E. (2006) Modelling the influence of stand structural, edaphic and climatic influences on juvenile Pinus radiata dynamic modulus of elasticity. For. Ecol. Manage. 229:136–144.10.1016/j.foreco.2006.03.016Search in Google Scholar

Wood, S.N. Generalized Additive Models and Introduction with R. Chapman & Hall/CRC, Boca Raton, Florida, 2006. p. 392.Search in Google Scholar

Yang, K.-C. (2002) Impact of spacing on juvenile wood and mature wood properties of white spruce (Picea glauca). Taiwan J. For. Sci. 17:13–29.Search in Google Scholar

Zubizarreta Gerendiain, A., Pelota, H., Pulkkinen, P., Ikonen, V.-P., Jaatinen, R. (2008) Differences in growth and wood properties between narrow and normal crowned types of Norway spruce grown at narrow spacing in Southern Finland. Silva Fenn. 42:423–437.10.14214/sf.247Search in Google Scholar

Received: 2015-1-8
Accepted: 2015-6-3
Published Online: 2015-7-4
Published in Print: 2016-3-1

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