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Hormonal Control of Wound-Induced Responses

  • H. Imaseki
Part of the Encyclopedia of Plant Physiology book series (PLANT, volume 11)

Abstract

Wounding is a frequent, but irregular event imposed on plant life by the natural environment. Since higher plants are unable to move to better environments to escape from animal browsing or severe winds, mechanisms that overcome the wound effect are essential to survival of the individual, and the species as well. Wounding is defined herein as a mechanical process which destroys cells in a specific area of tissue. It thus breaks cell to cell continuity in a multicellular plant so that cells, or at least one side of cells which were previously in contact with other cells, are now exposed. In most cases, this will include loss of part of a tissue or organ. The reactions which occur in response to wounding are so diverse that we presently cannot integrate all of these reactions into a cogent series of physiological processes. However, the fundamental physiological outcome of the wound response is regeneration of part or all of the functions which were previously shared by the damaged or lost cells, tissues or organs (Lipetz 1970). This does not necessarily mean regeneration of the complete lost structure, however (Lipetz 1970). Thus, formation of protective materials in cells near the cut surface, initiation of cell proliferation, regeneration of vascular elements, or rooting at the base of shoot cuttings are common physiological responses to wounding. In a broad sense, one may also include in the wound response the lateral bud growth which occurs when the apical portion of the central axis is removed or damaged, a phenomenon well-known as the breaking of apical dominance.

Keywords

Potato Tuber Adventitious Root Ethylene Production Ethylene Biosynthesis Adventitious Root Formation 
These keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.

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References

  1. Abeles AL, Abeles FB (1972) Biochemical pathway of stress-induced ethylene. Plant Physiol 50: 496–498PubMedGoogle Scholar
  2. Abeles FB (1972) Biosynthesis and mechanism of action of ethylene. Ann Rev Plant Physiol 23: 259–29Google Scholar
  3. Abeles FB (1973) Ethylene in plant biology. Academic Press, New York London, pp 87–108Google Scholar
  4. Adams DO, Yang SF (1979) Ethylene biosynthesis: identification of 1-aminocyclopro- pane-l-carboxylic acid as an intermediate in the conversion of methionine to ethylene. Proc Nat Acad Sci USA 76: 170–174PubMedGoogle Scholar
  5. Adams PB, Rowan KS (1970) Glycolytic control of respiration during aging of carrot root tissue. Plant Physiol 45: 490–494PubMedGoogle Scholar
  6. Adamson D (1962) Expansion and division in auxin-treated plant cells. Can J Botany 40: 719–744Google Scholar
  7. Aloni R (1976) Polarity of induction an pattern of primary phloem fiber differentiation in Coleus. Am J Botany 63: 877–889Google Scholar
  8. Aloni R (1979) Role of auxin and gibberellin in differentiation of primary phloem fibers. Plant Physiol 63: 609–614PubMedGoogle Scholar
  9. Aloni R, Jacobs WP (1977) Polarity of tracheary regeneration in young internodes of Coleus ( Labiatae ). Am J Botany 64: 395–403Google Scholar
  10. Amrhein N, Schneebeck D, Skorupka H, Tophof S, Stockigt J (1981) Identification of a major metabolite of the ethylene precursor, 1-aminocyclopropane-l-carboxylic acid in higher plants. Naturwiss 68: 619–620Google Scholar
  11. Amrhein N, Breuing F, Eberle J, Skorupka H, Tophof S (1982) The metabolism of 1-aminocyclopropane-l-carboxylic acid. In: Wareing PF (ed) Plant growth substances 1982. Academic Press, pp 249–258Google Scholar
  12. Anderson JD, Lieberman M, Stewart RN (1979) Ethylene production by apple protoplasts. Plant Physiol 63: 931–935PubMedGoogle Scholar
  13. Anzai T, Shibaoka H, Shimokoriyama M (1971) Increases in the number of adventitious roots caused by 2-thiouracil and 5-bromodeoxyuridine in Phaseolus mungo cuttings. Plant Cell Physiol (Tokyo) 12: 695–700Google Scholar
  14. Apelbaum A, Yang SF (1981) Biosynthesis of stress ethylene induced by water deficit. Plant Physiol 68: 594–596PubMedGoogle Scholar
  15. apRees T (1966) Evidence for the widespread occurrence of induced respiration in slices of plant tissue. Australian J Biol Sci 19: 981–990Google Scholar
  16. Bacon JSD, MacDonald IR, Knight AH (1965) The development of invertase activity in slices of the root of Beta vulgaris L. washed under aseptic conditions. Biochem J 94: 175–182PubMedGoogle Scholar
  17. Balls AK, Ryan CA (1963) Concerning a chymotryptic inhibitor from potatos and its binding capacity for the enzyme. J Biol Chem 238: 2976–2982PubMedGoogle Scholar
  18. Behnke H-D, Schulz A (1980) Fine structure, pattern of division, and course of wound phloem in Coleus blumei. Planta 150: 357–365Google Scholar
  19. Benayoun J, Aloni R, Sachs T (1975) Regeneration around wounds and the control of vascular differentiation. Ann Botany (London) 39: 447–454Google Scholar
  20. Boiler T, Herner RC, Kende H (1979) Enzymatic formation of an ethylene precursor, 1-aminocyclopropane-l-carboxylic acid. Planta 145: 293–303Google Scholar
  21. Borchert R (1978) Time course and spatial distribution of phenylalanine ammonia-lyase and peroxidase activity in wounded potato tuber tissue. Plant Physiol. 62: 789–793PubMedGoogle Scholar
  22. Borchert R, McChesney JD (1973) Time course and localization of DNA synthesis during wound healing of potato tuber tissue. Develop Biol 35: 293–301PubMedGoogle Scholar
  23. Bradford KJ, Yang SF (1980) Xylem transport of 1-aminocyclopropane-l-carboxylic 505 acid, an ethylene precursor in waterlogged tomato plants. Plant Physiol 65: 322–326PubMedGoogle Scholar
  24. Breadshaw MJ, Edelman J (1969) Enzyme formation in higher plant tissue: The production of a gibberellin preceding invertase synthesis in aged tissue. J Exp Botany 20: 87–93Google Scholar
  25. Burg SP, Clagett CO (1967) Conversion of methionine to ethylene in vegetative tissue and fruits. Biochem Biophys Res Commun 27: 125–130PubMedGoogle Scholar
  26. Byrne H, Setterfleld G (1977) Activation of ribosomal and messenger RNA synthesis in excised Jerusalem artichoke tuber slices. Planta 136: 203–210Google Scholar
  27. Cameron AC, Fenton CAK, Yu Y, Adams DO, Yang SF (1979) Increased production of ethylene by plant tissues treated with 1-aminocyclopropane-l-carboxylic acid. Hort Sci 14: 178–180Google Scholar
  28. Cherry JH (1968) Regulation of invertase in washed sugar beet tissue. In: Wightman F, Setterfield G (eds) Biochemistry and physiology of plant growth substances. The Runge Press, Ottawa, pp 417–431Google Scholar
  29. Clegg MD, Rappaport L (1970) Regulation of bud rest in tuber of potato, Solanum tuberosum L. VI Biochemical changes induced in excised potato buds by gibberellic acid. Plant Physiol 45: 8–13Google Scholar
  30. Click RE, Hackett DP (1963) The role of protein and nucleic acid synthesis in the development of respiration in potato tuber slices. Proc Nat Acad Sci US 50: 243–250Google Scholar
  31. Clutter M (1960) Hormonal induction of vascular tissue in tobacco pith in vitro. Science 132: 548–549PubMedGoogle Scholar
  32. Comer AE (1978) Pattern of cell division and wound vessel member differentiation in Coleus pith explants. Plant Physiol 62: 354–359PubMedGoogle Scholar
  33. Cooper WC (1938) Hormones and root formation. Botan Gaz 99: 599–614Google Scholar
  34. Dalessandro G (1973) Hormonal control of xylogenesis in pith parenchyma explants of Lactuca. Ann Botany (London) 37: 375–382Google Scholar
  35. Dalenssandro G, Roberts LW (1971) Induction of xylogenesis in pith parenchyma ex- plants of Lactuca. Am J Botany 58: 378–385Google Scholar
  36. Davies E, Schuster A (1981) Intercellular communication in plants: Evidence for a rapidly generated, bidirectional transmitted wound signal. Proc Natl Acad Sci 78: 2422–2426Google Scholar
  37. Dean BB, Kolattukudy PE (1976) Synthesis of suberin during wound-healing in jade leaves, tomato fruit, and bean pods. Plant Physiol 58: 411–416PubMedGoogle Scholar
  38. Duda CT, Cherry JH (1971) Chromatin- and nuclei-directed ribonucleic acid synthesis in sugar beet root. Plant Physiol 47: 262–268PubMedGoogle Scholar
  39. Edelman J, Hall MA (1964) Effect of growth hormones on the development of invertase associated with cell walls. Nature 201: 296–297PubMedGoogle Scholar
  40. Edelman J, Hall MA (1965) Enzyme formation in higher plant tissues. Development of invertase and ascorbate oxidase activities in mature storage tissue of Helianthus tuberosus L. Biochem J 95: 403–410Google Scholar
  41. Ellis RJ, MacDonald IR (1967) Activation of protein synthesis by microsomes from aging beet disks. Plant Physiol 42: 1297–1302PubMedGoogle Scholar
  42. English J Jr, Bonner J, Haagen-Smit AJ (1939) The wound hormones of plants. II. The isolation of a crystalline active substance. Proc Natl Acad Sci USA 25: 323–329Google Scholar
  43. Fosket DE, Roberts LW (1964) Induction of wound-vessel differentiation in isolated Coleus stem segments in vitro. Am J Bot 51: 19–25Google Scholar
  44. Fosket DE, Torrey JG (1969) Hormonal control of cell proliferation and xylem differentiation in cultured tissues of Glycine max var. Biloxi. Plant Physiol 44: 871–880Google Scholar
  45. Gahagan HE, Holm RE, Abeles FB (1968) Effect of ethylene on peroxidase activity. Physiol Plant 21: 1270–1279Google Scholar
  46. Gayler KR, Glasziou KT (1964) Plant enzyme synthesis: Hormonal regulation of invertase and peroxidase synthesis in sugar cane. Planta 84: 185–194Google Scholar
  47. Gersan, Lips, Sachs T (1980) Effects of wounding on transport in phloem. J Exp Bot 31: 783–789Google Scholar
  48. Glasziou KT (1969) Control of enzyme formation and inactivation in plants. Annu Rev Plant Physiol 20: 63–88Google Scholar
  49. Glasziou KT, Gayler KR, Waldron JC (1968) Effects of auxin and gibberellic acid on the regulation of enzyme synthesis in sugarcane stem tissue. In: Wightman F, Setterfield G (eds) Biochemistry and physiology of plant growth substances. Runge, Ottawa, pp 433–442Google Scholar
  50. Green TR, Ryan CA (1972) Wound-induced proteinase inhibitor in plant leaves: A possible defense mechanism against insects. Science 175: 776–777Google Scholar
  51. Green TR, Ryan CA (1973) Wound-induced proteinase inhibitor in tomato leaves. Some effects of light and temperature on the wound response. Plant Physiol 51: 19–21Google Scholar
  52. Gustafson G, Ryan CA (1976) Specificity of protein turnover in tomato leaves. Accumula-tion of proteinase inhibitors, induced with the wound hormone, PIIF. J Biol Chem 251: 7004—7010Google Scholar
  53. Haberlandt G (1921) Wundhormone als Erreger von Zellteilungen. Beitr Allg Bot 2: 1–53Google Scholar
  54. Hackett WP (1970) The influence of auxin, catechol, and methanolic tissue extracts on root initiation in aseptically cultured shoot apices of juvenile and adult forms of Hedera helix. J Am Hortic Sci 95: 398–402Google Scholar
  55. Hanson AD, Kende H (1975) Ethylene-enhanced ion and sucrose efflux in morning glory flower tissue. Plant Physiol 55: 663–669PubMedGoogle Scholar
  56. Hanson AE, Kende H (1976) Methionine metabolism and ethylene biosynthesis in senescent flower tissue of morning glory. Plant Physiol 57: 528–537PubMedGoogle Scholar
  57. Hanson AE, Kende H (1976) Biosynthesis of wound ethylene in morning glory flower tissue. Plant Physiol 57: 538–541PubMedGoogle Scholar
  58. Hatanaka A, Kajiwara T, Sekiya J, Kido Y (1977) Formation of 12-oxo-trans–10-dodece- noic acid in chloroplasts from Thea sinensis leaves. Phytochemistry 16: 1827–1829Google Scholar
  59. Hoffman NE, Yang SF, McKeon T (1982) Identification of l-(malonyl-amino)cyclopro- pane-l-carboxylic acid, an ethylene precursor in higher plants. Biochem Biophys Res Commun 104: 765–770PubMedGoogle Scholar
  60. Hyodo H (1977 a) Ethylene production and respiration of Satsuma mandarin (Citrus unshiu Marc.) fruit harvested at different stages of development. J Jpn Soc Hortic Sci 45:427–432Google Scholar
  61. Hyodo H (1977 b) Ethylene production by albedo tissue of Satsuma mandarin (Citrus unshiu Marc.) fruit. Plant Physiol 59:111–113Google Scholar
  62. Hyodo H (1978) Ethylene production by wounded tissue of citrus fruit. Plant Cell Physiol 19: 545–551Google Scholar
  63. Hyodo H, Nishino T (1981) Wound-induced ethylene formation in albedo tissue of citrus fruit. Planta Physiol 67: 421–423Google Scholar
  64. Hyodo H, Yang SF (1971) Ethylene-enhanced synthesis of phenylalanine ammonia-lyase in pea seedlings. Plant Physiol 47: 765–770PubMedGoogle Scholar
  65. Hyodo H, Yang SF (1974) The effect of ethylene on the development of phenylalanine ammonia-lyase in potato tuber disks. Z Naturforsch 71: 76–79Google Scholar
  66. Hyodo H, Tanaka K, Watanabe K (1983) Wound-induced ethylene production and 1-aminocyclopropane-l-carboxylic acid synthase in winter squash fruit. Plant Cell Physiol 24: 963–969Google Scholar
  67. Imaseki H (1970) Induction of peroxidase activity by ethylene in sweet potato. Plant Physiol 46: 172–174PubMedGoogle Scholar
  68. Imaseki H, Watanabe A (1978) Inhibition of ethylene production by osmotic shock. Further evidence for membrane control of ethylene production. Plant Cell Physiol (Tokyo) 19: 345–348Google Scholar
  69. Imaseki H, Asahi T, Uritani I ( 1968 a) Investigations on the possible inducers of metabolic changes in injured plant tissues. In: Hirai T, Hidaka Z, Uritani I (eds) Biochemical regulation in diseased plants and injury. Phytopathol Soc Jpn, Tokyo, pp 189–201Google Scholar
  70. Imaseki H, Teranishi T, Uritani I (1968 b) Production of ethylene by sweet potato roots infected by the black rot fungus. Plant Cell Physiol 9: 769–781Google Scholar
  71. Imaseki H, Uritani I, Stahmann MA (1968c) Production of ethylene by injured sweet potato root tissue. Plant Cell Physiol 9: 757–768Google Scholar
  72. Imaseki H, Uchiyama M, Uritani I (1968 d) Effect of ethylene on the inductive increase in metabolic activities in sliced sweet potato roots. Agric Biol Chem 32: 387–389Google Scholar
  73. Imaseki H, Yoshii H, Todaka I (1982) Regulation of auxin-induced ethylene biosynthesis in plants. In: Wareing PF (ed) Plant growth substances 1982. Academic Press, London, pp 259–268Google Scholar
  74. Ishizuka M, Sato T, Watanabe A, Imaseki H (1981) Alteration of coding properties of polysome-associated messenger RNA in potato tuber slices during aging. Plant Physiol 68: 154–157PubMedGoogle Scholar
  75. Jackson MB, Campbell DJ (1976) Production of ethylene by excised segments of plant tissue prior to the effect of wounding. Planta 129: 273–274Google Scholar
  76. Jacobs WP (1952) The role of auxin in differentiation of xylem around a wound. Am J Botany 39: 301–309Google Scholar
  77. Jacobs WP (1956) Internal factors controlling cell differentiation in the flowering plants. Am Naturalist 90: 163–169Google Scholar
  78. Jacobs WP (1970) Regulation and differentiation of sieve tube elements. Intern Rev Cytol 28: 239–273Google Scholar
  79. Jacobs WP, MacCready CC (1967) Polar transport of growth regulators in pith and vascular tissues of Coleus stems. Am J Botany 54: 1035–1040Google Scholar
  80. Jeffs RA, Northcote DH (1967) The influence of indol–3-ylacetic acid and sugar on the pattern of induced differentiation in plant tissue culture. J Cell Sci 2: 77–78PubMedGoogle Scholar
  81. Jones JF, Kende H (1979) Auxin-induced ethylene biosynthesis in subapical stem sections of etiolated seedlings of Pisum sativum L. Planta 146: 649–656Google Scholar
  82. Kahl G (1971) Synthesis of rRNA, tRNA and other RNA-species concomitant with polyribosome formation in aging potato tuber slices. Z Naturforsch 26 b: 1058–1064Google Scholar
  83. Kahl G (1971) Activation of protein synthesis in aging potato tuber slices. Z Naturforsch 26 b: 1064–1067Google Scholar
  84. Kahl G (1973) Genetic and metabolic regulation in differentiating plant storage tissue cells. Botan Rev 39: 274–299Google Scholar
  85. Kahl G (1974) Metabolism in plant storage tissue slices. Botan Rev 40: 263–314Google Scholar
  86. Kahl G (1978) Biochemistry of wounded plant tissues. De Gruyter, New York, p 680 Kamisaka S, Sakurai N, Masuda Y (1973) Auxin-induced growth of tuber tissue of Jerusalem artichoke VIII. Role of cyclic AMP in the action of auxin, cytokinin and gibberellic acid. Plant Cell Physiol (Tokyo) 14:183–193 Kende H, Boiler T (1981) Wound ethylene and 1-aminocyclopropane-l-carboxylate synthase in ripening tomato fruit. Planta 151: 476–481Google Scholar
  87. Kende H, Hanson AD (1976) Relationship between ethylene evolution and senescence in morning glory flower tissue. Plant Physiol 57: 523–527PubMedGoogle Scholar
  88. Kolattukudy PE, Kronman K, Poulose AJ (1975) Determination of structure and composition of suberin from the roots of carrot, parsnip, rutabaga, turnip, red beet, and sweet potato by combined gas-liquid chromatography and mass spectrometry. Plant Physiol 55: 567–573PubMedGoogle Scholar
  89. Komamine A, Sato M, Shimokoriyama M (1963) Physiological studies on the outgrowth of the epicotyl in Stizolobium hassjoo I. Properties of the outgrowth. Botan Mag (Tokyo) 76: 130–137Google Scholar
  90. Konze JR, Kwiatkowski MK (1981) Rapidly induced ethylene formation after wounding is controlled by the regulation of 1-aminocyclopropane-l-carboxylic acid synthesis. Planta 151: 327–330Google Scholar
  91. Koopowitz H, Dhys R, Fosket DE (1975) Cell membrane potentials of higher plants: Changes induced by wounding. J Exp Botany 26: 131–137Google Scholar
  92. Lamotte CE, Jacobs WP (1963) A role of auxin in phloem regeneration in Coleus interno- des. Develop Biol 8: 80–98Google Scholar
  93. Lange H, Rosenstock G, Kahl G (1970) Induktionsbedingungen der Suberinsynthese und Zellproliferation bei Parenchymfragmenten der Kartoffelknolle. Planta 90: 109–118Google Scholar
  94. Laties GG (1962) Controlling influence of thickness on development and type of respiratory activity in potato slices. Plant Physiol 37: 679–690PubMedGoogle Scholar
  95. Leaver CJ, Key JL (1967) Polyribosome formation and RNA synthesis during aging of carrot-root tissue. Proc Nat Acad Sci US 57: 1338–1344Google Scholar
  96. Lieberman M (1979) Biosynthesis and action of ethylene. Ann Rev Plant Physiol 30: 533–591Google Scholar
  97. Lieberman M, Kunishi AT, Mapson LW, Wardale DA (1965) Ethylene production from methionine. Biochem J 97: 449–459PubMedGoogle Scholar
  98. Lieberman M, Kunishi A, Mapson LW, Wardale DA (1966) Stimulation of ethylene production in apple tissue slices by methionine. Plant Physiol 41: 376–382PubMedGoogle Scholar
  99. Lipetz J (1970) Wound-healing in higher plants. Intern Rev Cytol 27: 1–28Google Scholar
  100. Lurssen K, Naumann K, Schroder R (1979) 1-Aminocyclopropane-l-carboxylic acid - a new intermediate of ethylene biosynthesis in higher plants. Z Pflanzenphysiol 92: 285–294Google Scholar
  101. Mader M, Amberg-Fischer V (1982) Role of peroxidase in lignification of tobacco cells. I. Oxidation of nicotinamide adenine dinucleotide and formation of hydrogen peroxide by cell wall peroxidases. Plant Physiol 70: 1128–1131Google Scholar
  102. Mader M, Fiissl R (1982) Role of peroxidase in lignification of tobacco cells. II. Regulation by phenolic compounds. Plant Physiol 70: 1132–1134Google Scholar
  103. Masuda Y (1965) Auxin-induced growth of tuber tissue of Jerusalem artichoke. I. Cell physiological studies on the expansion growth. Botan Mag (Tokyo) 78: 417–423Google Scholar
  104. Masuda Y (1966) Auxin-induced growth of tuber tissue Jerusalem artichoke. II. The relation to protein and nucleic acid metabolism. Plant Cell Physiol (Tokyo) 7: 75–91Google Scholar
  105. Mattoo AK, Lieberman M (1977) Localization of the ethylene-synthesizing system in apple tissue. Plant Physiol 60: 794–799PubMedGoogle Scholar
  106. Mattoo AK, Baker JE, Chalutz E, Lieberman M (1977) Effect of temperature on the ethylene-synthesizing systems in apple, tomato and Penicillium digitatum. Plant Cell Physiol 18: 715–719Google Scholar
  107. McKeon TA, Hoffman NE, Yang SF (1982) The effect of plant-hormone pretreatments on ethylene production and synthesis of 1-aminocyclopropane-l-carboxylic acid in water-stressed wheat leaves. Planta 155: 437–447Google Scholar
  108. Mitsuhashi M, Shibaoka H, Shimokoriyama M (1969) Morphological and physiological characterization of IAA-less-sensitive and IAA-sensitive phases in rooting of Azukia cuttings. Plant Cell Physiol 10: 867–874Google Scholar
  109. Mitsuhashi-Kato M, Shibaoka H, Shimokoriyama M (1978 a) Anatomical and physiological aspects of developmental processes of adventitious root formation in Azukia cuttings. Plant Cell Physiol 19: 393–400Google Scholar
  110. Mitsuhashi-Kato M, Shibaoka H, Shimokoriyama M (1978 b) The nature of the dual effect of auxin on root formation in Azukia cutting. Plant Cell Physiol 19: 1535–1542Google Scholar
  111. Mizuno K, Komamine A, Shimokoriyama M (1971) Vessel element formation in cultured carrot-root phloem slices. Plant Cell Physiol 12: 823–830Google Scholar
  112. Morohashi Y, Komamine A, Shimokoriyama M (1969) Physiological studies on the outgrowth of the epicotyl in Stizolobium hassjoo VI. Changes in the IAA content and the activity of IAA destruction in the decapitated epicotyls of etiolated Stizolobium and Vicia seedlings. Bot Mag (Tokyo) 82: 110–120Google Scholar
  113. Odawara S, Watanabe A, Imaseki H (1977) Involvement of cellular membrane in regulation of ethylene production. Plant Cell Physiol 18: 567–575Google Scholar
  114. Palmer JM (1968) The effect of some plant growth substances on the induction of enzymic activities in thin slices of plant tubers. In: Wightman F, Setterfield G (eds) Biochemistry and physiology of plant growth substances. Runge, Ottawa, pp 401–415Google Scholar
  115. Palmer JM (1970 a) The influence of growth-regulating substances on the development of enhanced metabolic rates in thin slices of beetroot storage tissue. Plant Physiol 41:1173–1178Google Scholar
  116. Palmer JM (1970 b) The induction of phosphatase activity in thin slices of Jerusalem artichoke tissue by treatment with indoleacetic acid. Planta 93:53–59Google Scholar
  117. Patau K, Das ND, Skoog F (1957) Induction of DNA synthesis by kinetin and indoleacetic acid in excised tobacco pith tissue. Physiol Plant 10: 949–966Google Scholar
  118. Rains DW (1969) Sodium and potassium absorption by bean stem tissues. Plant physiol 44: 547–554PubMedGoogle Scholar
  119. Rana MA, Gahan PB (1983) A quantitative cytochemical study of determination for xylem element formation in response to wounding in roots of Pisum sativum. Planta 157: 307–316Google Scholar
  120. Rappaport L, Sachs M (1967) Wound-induced gibberellins. Nature 214: 1149–1150Google Scholar
  121. Rhodes MJC, Wooltorton LSC (1971) The effect of ethylene on the respiration and on the activity of phenylalanine ammonia-lyase in swede and parsnip root tissue. Phytochemistry 10: 1989–1997Google Scholar
  122. Rhodes MJC, Wooltorton LSC (1973) Stimulation of phenolic acid and lignin biosynthesis in swede root tissue by ethylene. Phytochemistry 12: 107–118Google Scholar
  123. Riov J, Yang SF (1982) Autoinhibition of ethylene production in citrus peel discs. Plant Physiol 69: 687–690PubMedGoogle Scholar
  124. Riov J, Monselise SP, Kahan RS (1969) Ethylene-controlled induction of phenylalanine ammonia-lyase in Citrus fruit peel. Plant Physiol 44: 631–635PubMedGoogle Scholar
  125. Roberts LW (1969) The initiation of xylem differentiation. Botan Rev 35: 201–250Google Scholar
  126. Roberts LW, Fosket DE (1966) Interaction of gibberellic acid and indoleacetic acid in the differentiation of wound vessel members. New Phytologist 65: 5–8Google Scholar
  127. Robbertse PJ, McCully M (1979) Regeneration of vascular tissue in wounded pea roots. Planta 145: 167–773Google Scholar
  128. Rutherford PP (1971) Inhibition by actinomycin D of water uptake and invertase and hydrolase activities induced in Jerusalem artichoke tuber tissue discs by treatment with 2,4-dichlorophenoxyacetic acid. Phytochem 10: 1469–1473Google Scholar
  129. Ryan CA (1974) Assay and biochemical properties of the proteinase inhibitor-inducing factor, a wound hormone. Plant Physiol 54: 328–332PubMedGoogle Scholar
  130. Ryan CA (1978) Proteinase inhibitors in plant leaves: A biochemical model for pest- induced natural plant protection. Trends Biochem Sci July, 148–150Google Scholar
  131. Ryan CA, Bishop P, Pearce G, Darvill AG, McNeil M, Albersheim P (1981) A sycamore cell wall polysaccharide and a chemically related tomato leaf polysaccharide possess similar proteinase inhibitor-inducing activities. Plant Physiol 68: 616 — 618PubMedGoogle Scholar
  132. Sachs T (1968 a) The role of the root in the induction of xylem differentiation in peas. Ann Botany (London) 32:389–399Google Scholar
  133. Sachs T (1968 b) On the determination of the pattern of vascular tissue in peas. Ann Botany (London) 32:781–790Google Scholar
  134. Sachs T (1969) Polarity and the induction of organized vascular tissues. Ann. Botany (London) 33, 263–275Google Scholar
  135. Sachs T, Cohen D (1982) Circular vessels and the control of vascular differentiation in plants. Differentiation 21: 22–26Google Scholar
  136. Sakai S, Imaseki H (1972) Ethylene biosynthesis: Methionine as an in vivo precursor of ethylene in auxin-treated mung bean hypocotyl segments. Planta 105: 165–173Google Scholar
  137. Saltveit ME Jr, Dilley DR (1978) Rapidly induced wound ethylene from excised segments of etiolated Pisum sativum L. cv. Alaska I. Characterization of the response. Plant Physiol 61: 447–450Google Scholar
  138. Saltveit ME Jr, Dilley DR (1978) Rapidly induced wound ethylene from excised segments of etiolated Pisum sativum L. cv. Alaska II. Oxygen and temperature dependency. Plant Physiol 61: 675–679Google Scholar
  139. Sato T, Watanabe A, Imaseki H (1976) Effect of ethylene on DNA synthesis in potato tuber slices. Plant Cell Physiol 17: 1255–1262Google Scholar
  140. Sato T, Ishizuka M, Watanabe A, Imaseki H (1980) Synthesis and properties of polysomal RNA of potato tuber slices in the early stage of aging. Plant Cell Physiol 21: 137–147Google Scholar
  141. Setterfield G (1963) Growth regulation in excised slices of Jerusalem artichoke tuber tissue. Cell differentiation. Symp Soc Exp Biol 17:98–12, Univ Press, CambridgeGoogle Scholar
  142. Shibaoka H, Anzai T, Mitsuhashi M, Shimokoriyama M (1967) Interaction between heliangine and pyrimidines in adventitious root formation of Phaseolus cutting. Plant Cell Physiol 8: 647–656Google Scholar
  143. Shumway LK, Rancour JM, Ryan CA (1970) Vacuolar protein bodies in tomato leaf cells and their relationship to storage of chymotrypsin inhibitor I protein. Planta 93: 1–14Google Scholar
  144. Shumway KK, Yang V, Ryan CA (1976) Evidence for the presence of proteinase inhibitor I in vacuolar protein bodies of plant cells. Planta 129: 151–165Google Scholar
  145. Skoog F, Schmitz RY (1972) Cytokinins. In: Steward FC (ed) Plant physiology vol VIB. Academic Press, New York London, pp 181–213Google Scholar
  146. Soekarjo R (1965) On the formation of adventitious roots in cuttings of Coleus in relation to the effect of indoleacetic acid on the epinastic curvature of isolated petioles. Acta Bot Neerl 14: 373–399Google Scholar
  147. Soliday DL, Dean BB, Kolattukudy PE (1978) Suberization: Inhibition by washing and stimulation by abscisic acid in potato disks and tissue culture. Plant Physiol 61: 170–174Google Scholar
  148. Sperling E, Laties GG (1963) The dependence of auxin-induced growth on auxin-independent metabolic changes in slices of storage tissue. Plant Physiol 38: 546–550PubMedGoogle Scholar
  149. Stafford HA (1965) Factors controlling the synthesis of natural and induced lignins in Phleum and Elodea. Plant Physiol 40: 844–851PubMedGoogle Scholar
  150. Stahmann MA, Clare BG, Woodbury W (1976) Increased disease resistance and enzyme activity induced by ethylene and ethylene production by black rot-infected sweet potato tissue. Plant Physiol 41: 1505–1512Google Scholar
  151. Steward FC, Ammirato PV, Mapes MO (1970) Growth and development of totipotent cells. Some problems, procedures and perspectives. Ann Bot 34: 761–787Google Scholar
  152. Tanaka Y, Uritani I (1977) Polarity of production of polyphenols and development of various enzyme activities in cut-injured sweet potato root tissue. Plant Physiol 60: 563–566PubMedGoogle Scholar
  153. Tanaka Y, Uritani I (1979) Polar transport and content of 1–3-AA in wounded sweat potato root tissues. Plant Cell Physiol 20: 1087–1096Google Scholar
  154. Theologis A, Laties GG (1981) Wound-induced membrane lipid breakdown in potato tuber. Plant Physiol 68: 530–538Google Scholar
  155. Thimann KV (1972) The natural plant hormones. In: Steward FC (ed) Plant physiology. Academic Press, New York London, pp 95–100Google Scholar
  156. Thimann KV (1977) Hormone action in the whole life of plants. Univ Massachusetts Press, Amherst, pp 188–203Google Scholar
  157. Thimann KV, Koepfli JB (1935) Identity of the growth-promoting and root-forming substances of plants. Nature 135: 101Google Scholar
  158. Thomas B, Hall MA (1975) The effect of growth regulators on wound-stimulated callose formation in Salix viminalis. Plant Sci Lett 4: 9–15Google Scholar
  159. Thompson NP (1966) Vascular regeneration and long-distance transport of indole–3- acetic acid in Coleus stems. Plant Physiol 41: 1106–1112PubMedGoogle Scholar
  160. Thompson NP, Jacobs WP (1966) Polarity of IAA effect on sieve-tube and xylem regeneration in Coleus and tomato stems. Plant Physiol 41: 673–682PubMedGoogle Scholar
  161. Tomaszewski M (1963) The mechabism of synergistic effects between auxin and some natural phenolic substances. In: Régulateurs naturels de la croissance végétale. CNRS, Paris, pp 335–351Google Scholar
  162. Treshow M (1955 a) Physiology and anatomical development of tomato fruit tumor. Am J Botany 42:198–202Google Scholar
  163. Treshow M (1955 b) The etiology, development, and control of tomato fruit tumor. Phytopathol 45:132–137Google Scholar
  164. Uritani I (1961) The role of plant phenolics in disease resistance and immunity. In: Johnson G, Geissman TA (eds) Proceedings of symposium on biochemistry of plant phenolic substances. Colorado State UniversityGoogle Scholar
  165. Uritani I (1971) Protein changes in diseased plants. Ann Rev Phytopathol 9: 211–234Google Scholar
  166. Uritani I (1976) Protein metabolism. In: Heitefuss R, Williams PH (eds) Encyclopedia of plant physiology, New Series, vol 4. Springer, Berlin Heidelberg New York, pp 509 - 525Google Scholar
  167. Van Overbeek J, Gregory LE (1945) A physiological separation of two factors necessary for the formation of roots on cuttings. Am J Botany 32: 336–341Google Scholar
  168. Van Steveninck RFM (1961) The “lag-phase” in salt uptake of storage tissue. Nature 190: 1072–1075Google Scholar
  169. Van Steveninck RFM (1972) Inhibition of the development of a cation accumulatory system and of Tris-induced uptake in storage tissues by N6-benzyladenine and kinetin. Plant Physiol 27: 43–47Google Scholar
  170. Van Steveninck RFM (1975) The “washing” or “aging” phenomenon in plant tissues. Ann Rev Plant Physiol 26: 237–258Google Scholar
  171. Walker-Simmons M, Ryan CA (1979 a) Immunological identification of proteinase inhibitors I and II in isolated tomato leaf vacuoles. Plant Physiol 60: 61–63Google Scholar
  172. Walker-Simmons M, Ryan CA ( 1979 b) Wound-induced accumulation of trypsin inhibitor activities in plant leaves. Survey of several plant genera. Plant Physiol 59: 437-439Google Scholar
  173. Wardrop AB (1971) Occurrence and formation in plants. In: Sarkanen KV, Ludwig CH (eds) Lignins, occurrence, formation structure and reactions. Wiley-Interscience, New York, pp 19–41Google Scholar
  174. 13.
    Hormonal Control of Wound-Induced Responses Wareing PF (1958) Interaction between indole acetic acid and gibberellic acid in cambial activity. Nature 181: 1744–1745Google Scholar
  175. Warmke HE, Warmke GL (1950) Role of auxin in differentiation of root and shoot of Taraxacum and Cichorium. Am. J Bot 37: 272–280Google Scholar
  176. Watanabe A, Imaseki H (1973) Induction of deoxyribonucleic acid synthesis in potato tuber tissue by cutting. Plant Physiol 51: 772–776PubMedGoogle Scholar
  177. Watanabe A, Imaseki H (1976) Induction of deoxyribonucleic acid synthesis in potato tuber slices. Role of protein synthesis. Plant Physiol 57: 568–571Google Scholar
  178. Went FW (1936) The dual effect of auxin on root formation. Am J Bot 26: 24–29Google Scholar
  179. Went FW (1938) Specific factors other than auxin affecting growth and root formation. Plant Physiol 13: 55–80PubMedGoogle Scholar
  180. Wielgat B, Kahl G (1979 a) Enhancement of polyribosome formation and RNA synthesis of gibberellic acid in wounded potato tuber tissue. Plant Physiol 64: 863–866Google Scholar
  181. Wielgat B, Kahl G (1979 b) Gibberellic acid activates chromatin-bound DNA-dependent RNA polymerase in wounded potato tuber tissue. Plant Physiol 64: 867–871Google Scholar
  182. Williamson CE (1950) Ethylene, a metabolic product of diseased or injured plants. Phytopathology 40: 205–208Google Scholar
  183. Wright STC (1978) Phytohormones and stress phenomena. In: Letham DS, Goodwin PB, Higgins TVJ (eds) Phytohormones and related compounds - a comprehensive treatise, vol II. Elsevier/North-Holland Biomedical Press, Amsterdam New York, pp 495–536Google Scholar
  184. Wright STC (1979) The effect of plant growth-regulator treatments on the levels of ethylene emanation from excised turgid and wilted wheat leaves. Planta 144: 177–188Google Scholar
  185. Yang SF (1983) Mechanism and regulation of ethylene biosynthesis. In: Akazawa T, Asahi T, Imaseki H (eds) The new frontiers in plant biochemistry. Jpn Sci Soc Press and Nijhoff/Junk, pp 133–151Google Scholar
  186. Yang SF, Hoffman NE, Nckeon T, Riov J, Kao CH, Yung KH (1982) Mechanism and regulation of ethylene biosynthesis. In: Wareing PF (ed) Plant growth substances 1982. Academic Press, London New York, pp 239–248Google Scholar
  187. Yeoman MM (1970) Early development in callus cultures. Int Rev Cytol 29: 383–409Google Scholar
  188. Yeoman MM, Evans PK (1967) Growth and differentiation of plant tissue cultures II. Synchronous cell divisions in developing callus cultures. Ann Bot 31: 323–332Google Scholar
  189. Yeoman MM, Dyer AF, Roberson AI (1965) Growth and differentiation of plant tissue cultures I. Changes accompanying the growth of explants from Helianthus tuberosus tubers. Ann Bot 29: 265–276Google Scholar
  190. Yeoman MM, Naik GG, Robertson AI (1968) Growth and differentiation of plant tissue cultures III. The initiation and pattern of cell division in developing callus cultures. Ann Bot 32: 301–313Google Scholar
  191. Yoshii H, Imaseki H (1981) Biosynthesis of auxin-induced ethylene. Effects of indole–3- acetic acid, benzyladenine and abscisic acid on endogenous levels of 1-aminocyclopro- pane–1 -carboxylic acid ( ACC) and ACC synthase. Plant Cell Physiol 22: 369–379Google Scholar
  192. Yoshii H, Imaseki H (1982) Regulation of auxin-induced ethylene biosynthesis. Repression of inductive formation of 1-amino-cyclopropane–1-carboxylate synthase by ethylene. Plant Cell Physiol 23: 639–649Google Scholar
  193. Yoshii H, Watanabe A, Imaseki H (1980) Biosynthesis of auxin-induced ethylene in mung bean hypocotyls. Plant Cell Physiol 21: 279–291Google Scholar
  194. Yu Y, Yang SF (1979) Auxin-induced ethylene production and its inhibition by amino- ethoxyvinylglycine and cobalt ion. Plant Physiol 64: 1074–1077PubMedGoogle Scholar
  195. Yu Y, Yang SF (1980) Biosynthesis of wound ethylene. Plant Physiol 66: 281–285PubMedGoogle Scholar
  196. Yu Y, Adams DO, Yang SF (1979) Regulation of auxin-induced ethylene production in mung bean hypocotyls. Role of 1-aminocyclopropane-l-carboxylic acid. Plant Physiol 63: 589–590PubMedGoogle Scholar
  197. Yu Y, Adams DO, Yang SF (1979) 1-Aminocyclopropane-l-carboxylate synthase, a key enzyme in ethylene biosynthesis. Arch Biochem Biophys 198: 280–286Google Scholar
  198. Zimmerman DC, Coudron CA (1979) Identification of traumatin, a wound hormone, as 12-oxo-trans–10-dodecenoic acid. Plant Physiol 63: 536–541PubMedGoogle Scholar

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© Springer-Verlag Berlin · Heidelberg 1985

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  • H. Imaseki

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