木材多尺度结构的干缩湿胀研究进展

doi:10.11707/j.1001-7488.LYKX20210727

Abstract

Abstract:

Shrinkage and swelling of wood are critical characteristics that impact its processing and utilization. This is closely link to the dimensions and stability of wood products. The complexities of shrinkage and swelling are closely correlated with the multi-scale hierarchical structure of wood, varying from macro- to micro-scales. The shrinkage and swelling behavior of wood is investigated across macro-, meso-, and micro-scales to establish an organic relationship between them. This contributes significantly to a better understanding of the occurrence and evolution mechanism and has important theoretical and practical implications for in-depth comprehension of wood properties and its rational utilization. In this paper, the wood shrinkage/swelling behavior and its hysteresis phenomena under macroscopic scale (clear wood sample), mesoscopic scale (growth ring) and microscopic scale (wood cells) were reviewed. This paper summarized the occurrence and evolution of the shrinkage and swelling behavior of wood at three scales, as well as the test methods and technical means employed to measure these phenomena in wood with multi-scale structures. Meanwhile, some suggestions for future research about the shrinkage and swelling behavior of wood with multi-scale structures are proposed: 1) To conduct a systematic investigation into the shrinkage and swelling behavior of softwood and hardwood at the meso- and micro-scales, utilizing growth rings and wood cells, in order to establish the structure-activity relationship between multi-scale structures and their shrinkage and swelling performance. 2) To reveal the differential responsive law and interaction mechanisms of the shrinkage/swelling behavior of wood induced by anisotropy, heterogeneity, and the diversity of cell types. 3) To illuminate the time hysteresis and strain hysteresis phenomena of the shrinkage and swelling behavior. 4) To introduce the related theoretical models, such as the application of finite element method, with the aims to build a visual element finite of the free shrinkage and swelling of wood with multi-scale structures.

Key words: wood, multi-scale structures, shrinkage and swelling, hysteresis phenomena

CLC Number:

S781

Fangyu Yin,Bai Ouyang,Jiali Jiang,Zhu Li,Jianxiong Lü. Research Development of Shrinkage and Swelling of Wood with Multi-Scale Structures[J]. Scientia Silvae Sinicae, 2023, 59(7): 145-154.

Figures/Tables 7

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Table 1

Comparison of common test method for wood shrinkage and swelling"

测试方法 Test method	应用尺度 Application of scale	优点 Advantages	缺点 Disadvantages	测量结果主要影响因素 Main effect factors on results
游标卡尺 Vernier caliper	宏观尺度 Macroscale	①操作简单Test operation is sample ②易获得Easy to get	①多次测量取平均Multiple measurements are averaged ②精准度低 Precision low	使用者 User
吸附测试系统Sorption test system(SPS)	宏观尺度 Macroscale	①11个样品可同时测定Eleven samples can be measured simultaneously in one experiment ②任意相对湿度条件下含水率与干缩湿胀应变量的同步测定Simultaneous determination of moisture content and shrinkage and swelling strain under arbitrary relative humidity ③分辨率较高：2 046×2 046 High resolution：2 046×2 046	①试样中心需钻孔 Sample center needs to be drilled ②相机无放大倍数 Camera has no magnification ③样品无法二次使用 Sample cannot be reused	图像分析 Image analysis
数字图像相关 Digital image correlation(DIC)	介观尺度 Mesoscale	①操作简单Test operation is simple ②成本低Cost is low ③可与多种显微设备配合使用提高分辨率 Can be used with a variety of microscopic equipment to improve resolution	①试样表面需标记处理 Surface of the sample shall be marked ②产生伪应变Generating pseudo-strains ③无法同步获取含水率，需设置对照组Unable to obtain moisture content synchronously，a control group needs to be set up	①样品制备 Sample preparation ②图像分析 Image analysis
共聚焦激光扫描显微镜 Confocal laser scanning microscopy(CLSM)	介观尺度 Mesoscale	①操作简单Test operation is simple ②可任意角度旋转，观察细胞Rotate at any angle to observe the cells	①无法同步获取含水率，需设置对照组Unable to obtain moisture content synchronously，a control group needs to be set up ②成像范围小，分辨率低：640×480 Small imaging range and low resolution：640×480	①样品制备 Sample preparation ②图像分析 Image analysis
动态水分吸附分析仪 Dynamic vapor sorption(DVS)	介观尺度 Mesoscale	①任意相对湿度条件下含水率与干缩湿胀应变量的同步测定Simultaneous determination of moisture content and shrinkage and swelling strain under arbitrary relative humidity ②多种视野大小可供选择Multiple view sizes available	分辨率有待提高：1 280×960 Resolution to be improved：1 280×960	①样品表面平整度Surface smoothness of sample ②图像分析 Image analysis
X射线断层扫描显微镜 X-ray tomographic microscopy	介观尺度/ 微观尺度 Mesoscale/ Microscale	①三维可视化3D visualization ②可建立模型Sample model can be established	①无法同步获取含水率，需设置对照组Unable to obtain moisture content synchronously，a control group needs to be set up ②试验周期长Long test period ③成本高High cost	数据分析Date analysis
落射光显微镜联用CCD相机 Epi-illumination microscopy equipped with a CCD	微观尺度 Microscale	①操作简单Test operation is simple ②可观察荧光现象Fluorescence can be observed	①无法同步获取含水率，需设置对照组Unable to obtain moisture content synchronously，a control group needs to be set up ②分辨率有待提高：1 280×1 000 Resolution to be improved 1 280×1 000	①样品表面平整度Surface smoothness of sample ②图像分析 Image analysis
环境扫描电子显微镜Environmental scanning electron microscope(ESEM)	微观尺度 Microscale	① 分辨率极高：6 144×4 096 Extremely high resolution：6 144×4 096 ②拍摄图像无伪影Image is taken without artifacts	①无法同步获取含水率，需设置对照组Unable to obtain moisture content synchronously，a control group needs to be set up ②电子束会对细胞壁造成损伤Electron beam causes damage to the cell wall	①试验条件和材料Experimental conditions and materials ②图像分析Image analysis

Table 1

References 0

	吕建雄, 林志远, 赵有科, 等. 杉木和I-72杨人工林木材干缩性质的研究. 林业科学, 2005, 41 (5): 127- 131. doi: 10.11707/j.1001-7488.20050523
	Lü J X, Lin Z Y, Zhao Y K, et al. Studies on the shrinkage properties of Chinese fir and I-72 poplar plantation wood. Scientia Silvae Sinicae, 2005, 41 (5): 127- 131. doi: 10.11707/j.1001-7488.20050523
	欧阳白. 2020. 楸木生长轮内早材与晚材干缩/湿胀行为研究. 北京: 中国林业科学研究院.
	Ouyang B. 2020. A study on the shrinkage/swelling behavior in earlywood and latewood of the same growth ring of Catalpa bungei. Beijing: Chinese Academy of Forestry.［in Chinese］
	欧阳白, 李　珠, 蒋佳荔. 楸木早/晚材水分吸着与湿胀行为. 林业科学, 2021, 57 (5): 176- 183.
	Ouyang B, Li Z, Jiang J L. Hygroscopicity and swelling behavior of Catalpa bungei earlywood and latewood . Scientia Silvae Sinicae, 2021, 57 (5): 176- 183.
	石传喜, 于英良, 朱莹琦, 等. 6个杨树无性系木材密度及干缩性能差异. 林业工程学报, 2020, 5 (5): 57- 62.
	Shi C X, Yu Y L, Zhu Y Q, et al. The difference of density and shrinkage properties of six cloned poplar trees. Journal of Forestry Engineering, 2020, 5 (5): 57- 62.
	杨甜甜, 马尔妮. 水分周期性作用下木材的动态吸着和干缩湿胀. 功能材料, 2013, 44 (24): 3576- 3580.
	Yang T T, Ma E N. Dynamic sorption and hygroexpansion of wood by humidity cyclically changing effect. Journal of Functional Materials, 2013, 44 (24): 3576- 3580.
	Abe K, Yamamoto H. Behavior of the cellulose microfibril in shrinking woods. Journal of Wood Science, 2006, 52 (1): 15- 19. doi: 10.1007/s10086-005-0715-x
	Arévalo R, Hernández R E. Influence of moisture sorption on swelling of mahogany (Swietenia macrophylla King) wood . Holzforschung, 2001, 55 (6): 590- 594. doi: 10.1515/HF.2001.096
	Arzola-Villegas X, Lakes R, Plaza N Z, et al. Wood moisture-induced swelling at the cellular scale—ab intra. Forests, 2019, 10 (11): 996- 1015. doi: 10.3390/f10110996
	Badel E, Perré P. The shrinkage of oak predicted from its anatomical pattern: validation of a cognitive model. Trees-Structure and Function, 2007, 51 (1): 111- 120.
	Bertaud F, Holmbom B. Chemical composition of earlywood and latewood in Norway spruce heartwood, sapwood and transition zone wood. Wood Science and Technology, 2004, 38 (4): 245- 256.
	Bonarski J T, Kifetew G, Olek W. Effects of cell wall ultrastructure on the transverse shrinkage anisotropy of Scots pine wood. Holzforschung, 2015, 69 (4): 501- 507. doi: 10.1515/hf-2014-0075
	Chauhan S S, Aggarwal P. Effect of moisture sorption state on transverse dimensional changes in wood. Holz Als Roh-Und Werkstoff, 2004, 62 (1): 50- 55. doi: 10.1007/s00107-003-0437-y
	de Mil T, Tarelkin Y, Hahn S, et al. Wood density profiles and their corresponding tissue fractions in tropical angiosperm trees. Forests, 2018, 9 (12): 763- 776. doi: 10.3390/f9120763
	Derome D, Griffa M, Koebel M, et al. Hysteretic swelling of wood at cellular scale probed by phase-contrast X-ray tomography. Journal of Structural Biology, 2011, 173 (1): 180- 190. doi: 10.1016/j.jsb.2010.08.011
	Duong D, Matsumura J. Transverse shrinkage variations within tree stems of Melia azedarach planted in northern Vietnam . Journal of Wood Science, 2018, 64 (6): 720- 729. doi: 10.1007/s10086-018-1756-2
	Donaldson L. Within- and between-tree variation in microfibril angle in Pinus radiata . New Zealand Journal of Forestry Science, 1992, 22 (1): 77- 86.
	Donaldson L. Microfibril angle: measurement, variation and relationships – a review. IAWA Journal, 2008, 29 (4): 345- 386. doi: 10.1163/22941932-90000192
	Dong F, Olsson A M, Salmén L. Fibre morphological effects on mechano-sorptive creep. Wood Science and Technology, 2010, 44 (3): 475- 483. doi: 10.1007/s00226-009-0300-3
	Garcia R A, Rosero-Alvarado J, Hernández R E. Full-field moisture-induced strains of the different tissues of tamarack and red oak woods assessed by 3D digital image correlation. Wood Science and Technology, 2019, 54 (1): 139- 159.
	Harrington J. 2002. Hierarchical modelling of softwood hygro-elastic properties. New Zealand: PhD thesis of Universität Christchurch.
	Hernández R E. Influence of moisture sorption history on the swelling of sugar maple wood and some tropical hardwoods. Wood Science and Technology, 1993, 27 (5): 337- 345.
	Hernández R E. Swelling properties of hardwoods as affected by their extraneous substances, wood density and interlocked grain. Wood and Fiber Science, 2009, 39 (5): 146- 158.
	Herritsch A. 2007. Investigations on wood stability and related properties of radiata pine. Christchurch: University of Canterbury.
	Hunt D G. Longitudinal shrinkage-moisture relations in softwood. Journal of Materials Science, 1990, 25 (8): 3671- 3676. doi: 10.1007/BF00575403
	Ivković M, Gapare W J, Abarquez A, et al. Prediction of wood stiffness, strength, and shrinkage in juvenile wood of radiata pine. Wood Science and Technology, 2009, 43 (3/4): 237- 257.
	Joffre T, Isaksson P, Dumont P J, et al. A method to measure moisture induced swelling properties of a single wood cell. Experimental Mechanics, 2016, 56 (5): 723- 733. doi: 10.1007/s11340-015-0119-9
	Kifetew G, Lindberg H, Wiklund M. Tangential and radial deformation field measurements on wood during drying. Wood Science and Technology, 1997, 31 (1): 35- 44. doi: 10.1007/BF00705698
	Kliger R, Johansson M, Perstorper M, et al. Distortion of Norway spruce timber, part 3: modeling bow and spring. Europen Journal of Wood & Wood Products, 2003, 61 (4): 241- 250.
	Kosiachevskyi D, Hachem C E I, Abahri K, et al. Biomaterials heterogeneous displacement, strain and swelling under hydric sorption/desorption: 2D image correlation on spruce wood. Construction and Building Materials, 2021, 286, 122997. doi: 10.1016/j.conbuildmat.2021.122997
	Lanvermann C, Wittel F K, Niemz P. Full-field moisture induced deformation in Norway spruce: intra-ring variation of transverse swelling. European Journal of Wood and Wood Products, 2014, 72 (1): 43- 52. doi: 10.1007/s00107-013-0746-8
	Lee S S, Jeong G Y. Effects of sample size on swelling and shrinkage of Larix kaempferi and Cryptomeria japonica as determined by digital caliper, image analysis, and digital image correlation(DIC) . Holzforschung, 2018, 72 (6): 477- 488. doi: 10.1515/hf-2017-0120
	Leonardon M, Altaner C M, Vihermaa L, et al. Wood shrinkage: influence of anatomy, cell wall architecture, chemical composition and cambial age. European Journal of Wood and Wood Products, 2010, 68 (1): 87- 94. doi: 10.1007/s00107-009-0355-8
	Ma Q, Rudolph V. Dimensional change behavior of Caribbean pine using an environmental scanning electron microscope. Drying Technology, 2006, 24 (11): 1397- 1403. doi: 10.1080/07373930600952743
	Ma E, Nakao T, Zhao G J, et al. Relation between moisture sorption and hygroexpansion of sitka spruce during adsorption processes. Wood and Fiber Science, 2010, 42 (3): 304- 309.
	Meier H. 1985. Localization of polysaccharides in wood cell walls//Biosynthesis and Biodegradation of Wood Components. Amsterdam: Elsevier, 43-50.
	Murata K, Masuda M. Observation of the swelling behavior of coniferous cells using a confocal scanning laser microscope and a digital image correlation method. Materials Science Research International, 2001a, 7 (3): 200- 205.
	Murata K, Masuda M. Observation of microscopic swelling behavior of the cell wall. Journal of Wood Science, 2001b, 47 (6): 507- 509. doi: 10.1007/BF00767907
	Murata K, Masuda M. Microscopic observation of transverse swelling of latewood tracheid: effect of macroscopic/mesoscopic structure. Journal of the Society of Materials Science Japan, 2006, 50 (9): 200- 205.
	Nopens M, Riegler M, Hansmann C, et al. Simultaneous change of wood mass and dimension caused by moisture dynamics. Scientific Reports, 2019, 9 (1): 10309. doi: 10.1038/s41598-019-46381-8
	Ożyhar T. 2013. Moisture and time-dependent orthotropic mechanical characterization of beech wood. Switzerland: ETH Zürich.
	Pang S S, Herritsch A. 2005. Physical properties of earlywood and latewood of Pinus radiata D. Don: Anisotropic shrinkage, equilibrium moisture content and fibre saturation point. Holzforschung, 59(6): 654-661.
	Patera A, Derome D, Griffa M, et al. Hysteresis in swelling and in sorption of wood tissue. Journal of Structural Biology, 2013, 182 (3): 226- 234. doi: 10.1016/j.jsb.2013.03.003
	Patera A, Van den Bulcke J, Boone M N, et al. Swelling interactions of earlywood and latewood across a growth ring: global and local deformations. Wood Science and Technology, 2018, 52 (1): 91- 114. doi: 10.1007/s00226-017-0960-3
	Peng M K, Ho Y C, Wang W C, et al. Measurement of wood shrinkage in jack pine using three dimensional digital image correlation(DIC). Holzforschung, 2012, 66 (5): 639- 643. doi: 10.1515/hf-2011-0124
	Rafsanjani A, Derome D, Wittel F K, et al. Computational up-scaling of anisotropic swelling and mechanical behavior of hierarchical cellular materials. Composites Science and Technology, 2012a, 72 (6): 744- 751. doi: 10.1016/j.compscitech.2012.02.001
	Rafsanjani A, Derome D, Carmeliet J. The role of geometrical disorder on swelling anisotropy of cellular solids. Mechanics of Materials, 2012b, 55 (1): 49- 59.
	Sakagami H, Matsumura J, Oda K. Shrinkage of tracheid cells with desorption visualized by confocal laser scanning microscopy. IAWA Journal, 2007, 28 (1): 29- 37. doi: 10.1163/22941932-90001615
	Schulgasser K, Witztum A. How the relationship between density and shrinkage of wood depends on its microstructure. Wood Science and Technology, 2015, 49 (2): 389- 401. doi: 10.1007/s00226-015-0699-7
	Silva C, Branco J M, Camoes A, et al. Dimensional variation of three softwood due to hygroscopic behavior. Construction and Building Materials, 2014, 59, 25- 31. doi: 10.1016/j.conbuildmat.2014.02.037
	Skaar C. 1988. Wood-water relations. Berlin Heidelberg: Springer, 122-176.
	Spear M, Walker J C F. 2006. Dimensional instability in timber. Berlin Heidelberg: Springer, 95-120.
	Stöhr H P. Shrinkage differential as a measure for drying stress determination. Wood Science and Technology, 1988, 22 (2): 121- 128. doi: 10.1007/BF00355848
	Taguchi A, Murata K, Nakano T. Observation of cell shapes in wood cross-sections during water adsorption by confocal laser-scanning microscopy (CLSM). Holzforschung, 2010, 64 (2): 627- 631.
	Taguchi A, Murata K, Nakamura M, et al. Scale effect in the anisotropic deformation change of tracheid cells during water adsorption. Holzforschung, 2011, 65 (2): 253- 256.
	Taylor A, Plank B, Standfest G, et al. Beech wood shrinkage observed at the microscale by a tione series of X-ray computed tomographs (μXCT). Holzforschung, 2013, 67 (2): 201- 205. doi: 10.1515/hf-2012-0100
	Walker J C F. Primary wood processing: principles and practice. International Forestry Review, 2006, 9 (1): 97- 98.
	Wang E, Chen T, Pang S, et al. Variation in anisotropic shrinkage of plantation crown Pinus radiata wood . Maderas-Ciencia Y Tecnlogía, 2008, 10 (3): 243- 249.
	Yamashita K, Hirakawa Y, Nakatani H, et al. Longitudinal shrinkage variations within trees of sugi (Cryptomeria japonica) cultivars . Journal of Wood Science, 2009a, 55 (1): 1- 7. doi: 10.1007/s10086-008-0987-z
	Yamashita K, Hirakawa Y, Nakatani H, et al. Tangential and radial shrinkage variation within trees in sugi (Cryptomeria japonica) cultivars . Journal of Wood Science, 2009b, 55 (3): 161- 168. doi: 10.1007/s10086-008-1012-2
	Zhan T Y, Lyu J X, Eder M. In situ observation of shrinking and swelling of normal and compression Chinese fir wood at the tissue, cell and cell wall level. Wood Science and Technology, 2021, 55 (5): 1359- 1377. doi: 10.1007/s00226-021-01321-6
	Zhang M, Smith B, McArdle B, et al. Dimensional changes of tracheids during drying of radiata pine (Pinus radiata) compression woods: a study using variable-pressure scanning electron microscopy (VP-SEM) . Plants, 2018, 7 (1): 14- 32. doi: 10.3390/plants7010014
	Zhang S Y, Ren H Q, Jiang Z H. Wood density and wood shrinkage in relation to initial spacing and tree growth in black spruce (Picea mariana) . Journal of Wood Science, 2021, 67 (1): 1- 10. doi: 10.1186/s10086-020-01935-7

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Research Development of Shrinkage and Swelling of Wood with Multi-Scale Structures

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