Structural Characteristics of Reaction Tissue in Plants

To maintain or adjust posture under the challenges of gravity and increased self-weight, or the effects of light, snow, and slope, plants have the ability to develop a special type of tissue called reaction tissue. The formation of reaction tissue is a result of plant evolution and adaptation. The identification and study of plant reaction tissue are of great significance for understanding the systematics and evolution of plants, the processing and utilization of plant-based materials, and the exploration of new biomimetic materials and biological templates. Trees’ reaction tissues have been studied for many years, and recently, many new findings regarding these tissues have been reported. However, reaction tissue requires further detailed exploration, particularly due to their complex and diverse nature. Moreover, the reaction tissues in gymnosperms, vines, herbs, etc., which display unique biomechanical behavior, have also garnered the attention of research. After summarizing the existing literature, this paper provides an outline of the reaction tissues in woody plants and non-woody plants, and lays emphasis on alternations in the cell wall structure of the xylem in softwood and hardwood. The purpose of this paper is to provide a reference for the further exploration and study of reaction tissues with great diversity.

[1]  J. Gril,et al.  Tree growth stresses, in situ measurement and properties of normal and reaction woods , 2020 .

[2]  T. Gorshkova,et al.  Evidence and quantitative evaluation of tensile maturation strain in flax phloem through longitudinal splitting , 2020, Botany.

[3]  J. Engel,et al.  Diversity of anatomical structure of tension wood among 242 tropical tree species , 2019, IAWA Journal.

[4]  Jacques Beauchêne,et al.  Mechanical contribution of secondary phloem to postural control in trees: the bark side of the force. , 2018, The New phytologist.

[5]  T. Chernova,et al.  Plant 'muscles': fibers with a tertiary cell wall. , 2018, The New phytologist.

[6]  Hiroyuki Yamamoto,et al.  Tree growth stress and related problems , 2017, Journal of Wood Science.

[7]  Bruno Clair,et al.  Diversity in the organisation and lignification of tension wood fibre walls – A review , 2017 .

[8]  É. Nicolini,et al.  Multilayered structure of tension wood cell walls in Salicaceae sensu lato and its taxonomic significance , 2016 .

[9]  T. Alméras,et al.  Critical review on the mechanisms of maturation stress generation in trees , 2016, Journal of The Royal Society Interface.

[10]  C. Remenyi Altes und Neues , 2016 .

[11]  J. Bossu Potentiel de Bagassa guianensis et Cordia alliodora pour la plantation en zone tropicale. , 2015 .

[12]  V. Salnikov,et al.  Aspen Tension Wood Fibers Contain β-(1→4)-Galactans and Acidic Arabinogalactans Retained by Cellulose Microfibrils in Gelatinous Walls1[OPEN] , 2015, Plant Physiology.

[13]  P. Shewry,et al.  G-fibre cell wall development in willow stems during tension wood induction , 2015, Journal of experimental botany.

[14]  F. Quignard,et al.  Mesoporosity changes from cambium to mature tension wood: a new step toward the understanding of maturation stress generation in trees. , 2015, The New phytologist.

[15]  F. Ishiguri,et al.  Anatomy and chemical composition of liriodendron tulipifera stems inclined at different angles , 2014 .

[16]  K. Rajput,et al.  Distribution of tension wood like gelatinous fibres in the roots of Acacia nilotica (Lam.) Willd , 2014, Planta.

[17]  P. Tomlinson,et al.  Root contraction in Cycas and Zamia (Cycadales) determined by gelatinous fibers. , 2014, American journal of botany.

[18]  J. Fisher,et al.  Gelatinous fibers and variant secondary growth related to stem undulation and contraction in a monkey ladder vine, Bauhinia glabra (Fabaceae). , 2014, American journal of botany.

[19]  T. Alméras,et al.  Patterns of longitudinal and tangential maturation stresses in Eucalyptus nitens plantation trees , 2013, Annals of Forest Science.

[20]  C. Loup,et al.  Relationship between tree morphology and growth stress in mature European beech stands , 2013, Annals of Forest Science.

[21]  G. Pilate,et al.  Lignification in poplar tension wood lignified cell wall layers. , 2012, Tree physiology.

[22]  B. Chabbert,et al.  Plant Fiber Formation: State of the Art, Recent and Expected Progress, and Open Questions , 2012 .

[23]  F. Renzo,et al.  SOLVENT POLARITY AND INTERNAL STRESSES CONTROL THE SWELLING BEHAVIOUR OF GREEN WOOD DURING DEHYDRATION IN ORGANIC SOLUTION , 2012 .

[24]  V. Salnikov,et al.  Specific type of secondary cell wall formed by plant fibers , 2010, Russian Journal of Plant Physiology.

[25]  C. Neinhuis,et al.  G-fibres in storage roots of Trifolium pratense (Fabaceae): tensile stress generators for contraction. , 2010, The Plant journal : for cell and molecular biology.

[26]  F. Quignard,et al.  Mesoporosity as a new parameter for understanding tension stress generation in trees. , 2009, Journal of experimental botany.

[27]  F. Quignard,et al.  Deformation induced by ethanol substitution in normal and tension wood of chestnut (Castanea sativa Mill.) and simarouba (Simarouba amara Aubl.) , 2009, Wood Science and Technology.

[28]  A. Bowling,et al.  Gelatinous fibers are widespread in coiling tendrils and twining vines. , 2009, American journal of botany.

[29]  Changhua Fang,et al.  Relationships between growth stress and wood properties in poplar I-69 (Populus deltoides Bartr. cv. “Lux” ex I-69/55) , 2008, Annals of Forest Science.

[30]  Hiroyuki Yamamoto,et al.  ROWTH STRESSES AND CELLULOSE STRUCTURAL PARAMETERS IN TENSION AND NORMAL WOOD FROM THREE TROPICAL RAINFOREST ANGIOSPERM SPECIES , 2007 .

[31]  Changhua Fang,et al.  Transverse shrinkage in G-fibers as a function of cell wall layering and growth strain , 2007, Wood Science and Technology.

[32]  Bernard Thibaut,et al.  Comparison of physical and mechanical properties of tension and opposite wood from ten tropical rainforest trees from different species , 2007, Annals of Forest Science.

[33]  N. Yoshizawa,et al.  Some Structural and Evolutionary Aspects of Compression Wood Tracheids , 2007 .

[34]  F. Yamamoto,et al.  An Overview of the Biology of Reaction Wood Formation , 2007 .

[35]  T. Teeri,et al.  Morphological and chemical characterisation of the G-layer in tension wood fibres of Populus tremula and Betula verrucosa: Labelling with cellulose-binding module CBM1 Hj Cel7A and fluorescence and FE-SEM microscopy , 2006 .

[36]  Frank W Telewski,et al.  A unified hypothesis of mechanoperception in plants. , 2006, American journal of botany.

[37]  K. Vaughn,et al.  A cortical band of gelatinous fibers causes the coiling of redvine tendrils: a model based upon cytochemical and immunocytochemical studies , 2006, Planta.

[38]  M. Burghammer,et al.  Direct investigation of the structural properties of tension wood cellulose microfibrils using microbeam X-ray fibre diffraction , 2006 .

[39]  Notburga Gierlinger,et al.  Chemical Imaging of Poplar Wood Cell Walls by Confocal Raman Microscopy , 2006, Plant Physiology.

[40]  Anne Thibaut,et al.  Effect of circumferential heterogeneity of wood maturation strain, modulus of elasticity and radial growth on the regulation of stem orientation in trees , 2005, Trees.

[41]  Hiroyuki Yamamoto,et al.  Tensile growth stress and lignin distribution in the cell walls of yellow poplar, Liriodendron tulipifera Linn. , 2002, Trees.

[42]  P. Nobel,et al.  Cladode Junction Regions and Their Biomechanics for Arborescent Platyopuntias , 2002, International Journal of Plant Sciences.

[43]  Masato Yoshida,et al.  Tension wood and growth stress induced by artificial inclination in Liriodendron tulipifera Linn. and Prunus spachiana Kitamura f. ascendens Kitamura , 2000 .

[44]  F. Ishiguri,et al.  Anatomy and lignin distribution of reaction wood in two Magnolia species , 2000, Wood Science and Technology.

[45]  P. Tomlinson,et al.  Systematic and functional anatomy of seedlings in mangrove Rhizophoraceae: vivipary explained? , 2000 .

[46]  T. E. Timell Compression Wood in Gymnosperms , 1986 .

[47]  K. Fukazawa,et al.  Studies on the Formation and Structure of the Compression Wood Cells Induced by Artificial Inclination in Young Trees of Picea glauca:IV. Gradation of the Severity of Compression Wood Tracheids , 1983 .

[48]  F. Tanaka,et al.  Characterization of cellulose in compression and opposite woods of a Pinus densiflora tree grown under the influence of strong wind , 1981, Wood Science and Technology.

[49]  D. Grosser,et al.  Über das Vorkommen von anomalem Gewebe in der Sproßachse von Monokotyledonen , 1971, Holz als Roh- und Werkstoff.

[50]  P. B. Tomlinson,et al.  Tension wood in aerial roots of ficus benjamina L. , 1968, Wood Science and Technology.

[51]  S. Lundqvist,et al.  Reaction wood formation during stem gravitropic response of young Picea Abies (L.) Karst. trees , 2016 .

[52]  Zhang Sheng-lon Morphological characteristics of cells and main metabolic components in xylem of Cunninghamia lanceolata compression wood , 2015 .

[53]  B. Gardiner,et al.  The Biology of Reaction Wood , 2014, Springer Series in Wood Science.

[54]  B. Gardiner,et al.  Commercial Implications of Reaction Wood and the Influence of Forest Management , 2014 .

[55]  L. Salmén,et al.  Deposition and organisation of cell wall polymers during maturation of poplar tension wood by FTIR microspectroscopy , 2013, Planta.

[56]  F. Quignard,et al.  Pore structure characterization of poplar tension wood by nitrogen adsorption-desorption method , 2011 .

[57]  K. Willis,et al.  Climate Change, Ecology and Systematics: Long-term fluctuations in atmospheric CO2 concentration influence plant speciation rates , 2011 .

[58]  Changhua Fang,et al.  GROWTH STRESSES ARE HIGHLY CONTROLLED BY THE AMOUNT OF G-LAYER IN POPLAR TENSION WOOD. , 2008 .

[59]  M. Fournier,et al.  Tension wood and opposite wood in 21 tropical rain forest species : occurence and efficiency of the G.-Layer , 2006 .

[60]  M. Fournier,et al.  Tension wood and opposite wood in 21 tropical rain forest species. 2. Comparison of some anatomical and ultrastructural criteria , 2006 .

[61]  Wang Rong,et al.  Recent Developments in the Biomechanics Studies of Plant Cells , 2005 .

[62]  G. Downes,et al.  WITHIN-TREE VARIATION IN ANATOMICAL PROPERTIES OF COMPRESSION WOOD IN RADIATA PINE , 2004 .

[63]  Dr. Robert R. Archer,et al.  Growth Stresses and Strains in Trees , 1987, Springer Series in Wood Science.

[64]  T. Itoh,et al.  Variation in features of compression wood among gymnosperms. , 1982 .

[65]  A. J. Panshin,et al.  Textbook of wood technology : structure, identification, properties, and uses of the commercial woods of the United States and Canada , 1980 .

[66]  P. J. Ollinmaa Koivun vetopuun anatomisesta rakenteesta ja ominaisuuksista. , 1955 .

[67]  J. Boyd Tree Growth Stresses , 1950 .

[68]  E. Münch Weitere Untersuchungen über Druckholz und Zugholz , 1939 .