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Plant Peptides

  • C. F. Higgins
  • J. W. Payne
Part of the Encyclopedia of Plant Physiology book series (PLANT, volume 14 / A)

Abstract

Despite many early reports of peptide-like compounds in plant tissues (for reviews of these early studies see, Bricas and Fromageot 1953, Synge 1959, 1968, Waley 1966), this class of compounds has received little attention in recent years. Indeed, the most recent review of the subject was published over 10 years ago (SYNGE 1968). The information pertaining to plant peptides is widely scattered in the literature and an exhaustive coverage will not be attempted here. Rather, a general survey will be made to illustrate the types of peptide found in plant tissues and to allow consideration of their possible functions. In addition, some speculations will be offered on possible roles which peptides might serve in plant cells, in the hope of stimulating greater consideration of this relatively neglected group of compounds.

Keywords

Glutathione Reductase Peptide Transport Peptide Pool Barley Grain Free Amino Acid Pool 
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. Andreae WA, Good NE (1955) The formation of indole-acetylaspartic acid in pea seedings. Plant Physiol 30: 380–382PubMedGoogle Scholar
  2. Backman PA, deVay JE (1971) Studies on the mode of action and biogenesis of the phytotoxin syringomycin. Physiol Plant Pathology 1: 215–233Google Scholar
  3. Bagdasarian M, Matheson NA, Synge RLM, Youngson MA (1964) New procedures for isolating polypeptides and proteins from plant tissues. Biochem J 91: 91–105PubMedGoogle Scholar
  4. Becker WM, Leaver CJ, Weir EM, Riezman H (1978) Regulation of glyoxysomal enzymes during germination of cucumber I. Plant Physiol 62: 542–549PubMedGoogle Scholar
  5. Beevers L, Guernsey FS (1966) Changes in some nitrogenous components during the germination of pea seeds. Plant Physiol 41: 1455–1458PubMedGoogle Scholar
  6. Bieber L, Clagett CO (1956) Determination of the amino acid sequence in a durum wheat peptide. Proc ND Acad Sci 10: 31–35Google Scholar
  7. Bishop CT, Anet EFLJ, Gorham PR (1959) Isolation and identification of the fast-death factor in Microcystis aeruginosa NRC-1. Can J Biochem Physiol 37: 453–471PubMedGoogle Scholar
  8. Bodanszky M, Stahl G (1974) The structure and synthesis of malformin. Proc Natl Acad Sci USA 71: 2791–2794PubMedGoogle Scholar
  9. Bollard EG (1957) Nitrogenous compounds in tracheal sap of woody members of the family Rosaceae. Aust J Biol Sci 10: 288–291Google Scholar
  10. Bollard EG (1966) A comparative study of the ability of organic nitrogenous compounds to serve as sole sources of nitrogen for the growth of plants. Plant Soil 25:153–166Google Scholar
  11. Boulter D, Barber JT (1963) Amino acid metabolism in germinating seeds ofVicia faba L. in relation to their biology. New Phytol 62: 301–316Google Scholar
  12. Bricas E, Fromageot C (1953) Naturally occurring peptides. Adv Protein Chem 8: 1–125PubMedGoogle Scholar
  13. Buchanan BB, Cranford NA, Wolosiuk RA (1979) Activation of plant acid phosphatases by oxidized glutathione and dehydroascorbate. Plant Sci Lett 14: 245–249Google Scholar
  14. Butler GW, Bathurst NO (1958) Free and bound amino acids in legume root nodules: bound y–aminobutyric acid in the genus Trifolium. Aust J Biol Sci 11: 529–537Google Scholar
  15. Butt WR (1975) Hormone chemistry, Vol. 1, 2nd edn. Ellis Horwood, ChichesterGoogle Scholar
  16. Carnegie PR (1961) Bound amino acids of ryegrass: the isolation of amphoteric peptide-like substances of low molecular weight. Biochem J 78: 697–707PubMedGoogle Scholar
  17. Carnegie PR (1963) Isolation of a homologue of glutathione and other acidic peptides from seedlings ofPhaseolus aureus. Biochem J 89: 459–471PubMedGoogle Scholar
  18. Chang CC, Lin BY (1977) Accumulation of a simple peptide and some Pauly-positive compounds in crown-gall tumours induced byAgrobacterium tumefaciens strains IIBV7 and 181. Bot Bull Acad Sin 18: 82–87Google Scholar
  19. Chang CC, Lin BY, Hu S-P (1975) Observations on some simple peptides and two unknown Pauly-positive components in normal plants, crown gall tumors, and tomato nematode gall. Bot Bull Acad Sin 16: 101–114Google Scholar
  20. Channing DM, Young GT (1953) Amino acids and peptides. X. The nitrogenous constituents of some marine algae. J Chem Soc: 2481–2491Google Scholar
  21. Collins WT, Salisbury FB, Ross CW (1963) Growth regulators and flowering III. Antimetabolites. Planta 60: 131–144Google Scholar
  22. Conn EE, Vennesland B (1951) Glutathione reductase of wheat germ. J Biol Chem 192: 17–28PubMedGoogle Scholar
  23. Curi J, Grega B, Jendzelovsky J, Adam J (1973) Presence of ninhydrin positive substances in the ethanolic extract of the celery root. Pol’nohospodarstvo 19: 328–336Google Scholar
  24. Dekker CA, Stone D, Fruton JS (1949) A peptide from a marine alga. J Biol Chem 181: 719–729PubMedGoogle Scholar
  25. Dhawan AK, Singh H (1976) Free pools of amino acids and sugars in Leptadinia pyrotechnica F. Curr Sci 45: 198Google Scholar
  26. Duke SH, Schrader LE, Miller MG, Niece RL (1978) Low temperature effects on soybean (Glycine max L. Merr. cv. Wells). Free amino acid pools during germination. Plant Physiol 62: 642–647Google Scholar
  27. Esterbauer H, Grill D (1978) Seasonal variations of glutathione and glutathione reductase in needles of Picea abies. Plant Physiol 61: 119–121PubMedGoogle Scholar
  28. Fejer D, Konya E (1958) Occurrence of two additional peptides in the fine sap of corn. Naturwissenschaften 45: 387–388Google Scholar
  29. Flohe L, Menzel H (1971) The influence of glutathione upon light-induced high-amplitude swelling and liquid peroxide formation of spinach chloroplasts. Plant Cell Physiol 12: 325–333Google Scholar
  30. Fogg GE (1952) The production of extracellular nitrogenous substances by a blue-green alga. Proc R Soc London Ser B 139: 372–397Google Scholar
  31. Folkes BF, Yemm EW (1958) The respiration of barley plants X. Respiration and the metabolism of amino-acids and proteins in germinating grain. New Phytol 57: 106–131Google Scholar
  32. Fowden L (1964) The chemistry and metabolism of recently isolated amino acids. Annu Rev Biochem 33: 173–204PubMedGoogle Scholar
  33. Foyer CH, Halliwell B (1976) The presence of glutathione and glutathione reductase in chloroplasts: a proposed role in ascorbic acid metabolism. Planta 133: 21–25Google Scholar
  34. Gerasimenko LM, Goryunova SV (1978) Effect of sulfur-containing nucleotide-peptides on morphology and nucleic acid content of Anabaena cylindrica. Microbiology 47: 709–712Google Scholar
  35. Goore MY, Thompson JF (1967) γ-Glutamyl transpeptidase from kidney bean fruit. Biochim Biophys Acta 132:15–26Google Scholar
  36. Goryunova SV, Gerasimenko LM, Pusheva MA (1974) Comparative study of the action of a polynucleotide-peptide complex and colchicine on cells of a synchronous culture of Hydrodictyon reticulatum Lagerh. Microbiology 43: 224–227Google Scholar
  37. Goryunova SV, Gerasimenko LM, Khoreva SL (1977) Effect of a sulfur-containing nucleo- tide-peptide complex on the growth and development of different algal species. Mikrobiologiya 46: 1082–1086Google Scholar
  38. Grant DR, Wang CC (1972) Dialysable components resulting from proteolytic activity in extracts of wheat flour. Cereal Chem 49: 201–207Google Scholar
  39. Griffith OW, Meister A (1979) Glutathione: Interorgan-translocation, turnover, and metabolism. Proc Natl Acad Sci USA 76: 5606–5610Google Scholar
  40. Halliwell B, Foyer CH (1978) Properties and physiological function of glutathione reductase purified from spinach leaves by affinity chromatography. Planta 139: 9–17Google Scholar
  41. Hatanaka S-L, Kaneko S (1978) γ-Glutamyl-L-lathyrene from Lathyrus japonicus. Phytochemistry 17:2027Google Scholar
  42. Hendry GAF, Stobart AK (1977) Metabolism of protein, peptides, and amino acids in ageing etiolated barley leaves. Phytochemistry 16: 1339 — 1346Google Scholar
  43. Higgins CF (1979) Peptide transport by embryos of germinating barley (Hordeum vulgare). PhD Thesis, Univ DurhamGoogle Scholar
  44. Higgins CF, Payne JW (1977 a) Peptide transport by germinating barley embryos. Planta 134:205–206Google Scholar
  45. Higgins CF, Payne JW (1977 b) Characterization of active peptide transport by germinating barley embryos: effects of pH and metabolic inhibitors. Planta 136:71–76Google Scholar
  46. Higgins CF, Payne JW (1978a) Peptide transport by germinating barley embryos: uptake of physiological di- and oligopeptides. Planta 138: 211–215Google Scholar
  47. Higgins CF, Payne JW (1978b) Peptide transport by germinating barley embryos: evidence for a single common carrier for di- and oligopeptides. Planta 138: 217–221Google Scholar
  48. Higgins CF, Payne JW (1978 c) Stereospecificity of peptide transport by germinating barley embryos. Planta 142:299–305Google Scholar
  49. Higgins CF, Payne JW (1980) The uptake and utilization of amino acids and peptides by higher plants. In: Payne JW (ed) Microorganisms and nitrogen sources. Wiley, Chichester New York, pp 609–639Google Scholar
  50. Higgins CF, Payne JW (1981) The peptide pools of germinating barley grains: relation to hydrolysis and transport of storage proteins. Plant Physiol submitted for publicationGoogle Scholar
  51. Hirota A, Suzuki A, Tamura S (1973) Characterization of four amino acid constituting Cyl-2, a metabolite from Cylindrocladium scoparium. Agric Biol Chem (Tokyo) 37: 1185–1189Google Scholar
  52. Huffaker RC, Peterson LW (1974) Protein turnover in plants and possible means of its regulation. Annu Rev Plant Physiol 25: 363–392Google Scholar
  53. Ingle J, Beevers L, Hageman RH (1964) Metabolic changes associated with the germination of corn. Plant Physiol 39: 735–740PubMedGoogle Scholar
  54. International Union of Biochemistry: Biochemical Nomenclature and Related Documents (1978), Spottiswood Ballantyne, London, pp 64–84Google Scholar
  55. Jankevicius K, Budriene S, Baranauskiene A, Lubianskiene V, Jankaviciute G, Kiselyte T, Biveinis J (1972) Free amino acids in freshwater plankton and its medium. Liet TSR Mokslu Akad Darb Ser C: 3–17Google Scholar
  56. Jerchel D, Staab-Müller R (1954) Analytical characteristics and growth activity of homologues and peptides of indole-acetic acid. Z Naturforsch 9b: 411–415Google Scholar
  57. Jones K, Stewart WDP (1969) Nitrogen turnover in marine and brackish habitats III. The production of extracellular nitrogen by Calothrix scopulorum. Mar Biol Assoc UK 49: 475–488Google Scholar
  58. Kanazawa T (1964) Changes of amino acid composition of Chlorella during their life cycle. Plant Cell Physiol 5: 333–354Google Scholar
  59. Kanazawa T, Kanazawa K, Morimura Y (1965) New arginine-containing peptides isolated from Chlorella cells. Plant Cell Physiol 6: 631–643Google Scholar
  60. Kaneko T, Shiba T, Watarai S, Imai S, Shimada T, Ueno K (1957) Synthesis of eisenine. Chem Ind (London): 986–987Google Scholar
  61. Kaufmann HP, Tobschirbel A (1959) An oligopeptide from linseed. Chem Ber 92: 2805–2809Google Scholar
  62. Khachidze OT (1975) Peptides in the vegetative organs and berries of grape plants and their formation path. In: Oparin Al (ed) Vopr Biokhim Vinograda Vina, Tr Uses Konf 2nd. Moscow, USSR, pp 118–122Google Scholar
  63. King EE, Leffler HR (1979) Nature and patterns of proteins during cotton seed development. Plant Physiol 63: 260–263PubMedGoogle Scholar
  64. Klambt HD (1960) Indole-3-acetylaspartic acid, a naturally occurring indole derivative. Naturwissenschaften 47: 398Google Scholar
  65. Kaneko T, Shiba T, Watarai S, Imai S, Shimada T, Ueno K (1957) Synthesis of eisenine. Chem Ind (London): 986–987Google Scholar
  66. Ku HS, Leopold AC (1970) Ethylene formation from peptides of methionine. Biochem Biophys Res Commun 41: 1155–1160PubMedGoogle Scholar
  67. Kurelec B, Rijavec M, Britvic S, Miiller WEG, Zahn RK (1977) Phytoplankton: presence of γ-glutamyl cycle enzymes. Comp Biochem Physiol 56B: 415–419Google Scholar
  68. Law HD, Millar IT, Springall HD, Birch AJ (1958) The structure of evolidine. Proc Chem Soc London 198 Lawrence JM, Day KM, Stephenson JE (1959) Nitrogen metabolism in pea seedlings. Plant Physiol 34: 668–674Google Scholar
  69. Leaf G, Gardner IC, Bond G (1958) Observations on the composition and metabolism of the nitrogen-fixing root nodules of Alnus. J Exp Bot 9: 320–331Google Scholar
  70. Lee TY, Kwon TW, Lee CY (1962) The presence of a new peptide in the brown alga, mUndaria pinnatifida. J Korean Chem Soc 6: 84–87Google Scholar
  71. Levitt J (1972) Responses of plants to environmental stress. Academic Press, New York Luedemann G, Charney W, Woyciesjes A, Petterson E, Peckham WD, Gentles MJ, Marshall H, Herzog HL (1961) Microbiological transformation of steroids. IX. J Org Chem 26: 4128–4130Google Scholar
  72. Makisumi S (1959) Occurrence of arginylglutamine in green alga, Cladophora species. J Biochem 46: 63–71Google Scholar
  73. Mapson LW, Isherwood FA (1963) Glutathione reductase from germinated peas. Biochem J 86: 173–191PubMedGoogle Scholar
  74. Matile P (1978) Biochemistry and function of vacuoles. Annu Rev Plant Physiol 29: 193–213Google Scholar
  75. Matthews DM (1975) Intestinal absorption of peptides. Physiol Rev 55: 537–608PubMedGoogle Scholar
  76. Matthews DM, Payne JW (1975) Occurrence and biological activities of peptides. In: Matthews DM, Payne JW (eds) Peptide transport in protein nutrition. North–Holland/ Elsevier, Amsterdam Oxford New York, pp 392–464Google Scholar
  77. Matthews DM, Payne JW (1980) Transmembrane transport of small peptides. Curr Top Membr Transp 14: 331–425Google Scholar
  78. Mazelis M, Creveling RK (1978) 5-Oxoprolinase ( L-pyroglutamate hydrolase) in higher plants. Plant Physiol 62: 798–801Google Scholar
  79. Meister A (1965) Biochemistry of the amino acids, 2nd edn. Academic Press, New York LondonGoogle Scholar
  80. Meister A (1975) Biochemistry of glutathione. In: Greenberg DM (ed) Metabolic pathways, 3rd edn., Vol 7. Academic Press, New York London, pp 101–188Google Scholar
  81. Meister A (1980) Possible relation of the γ–glutamyl cycle to amino acid and peptide transport in microorganisms. In: Payne JW (ed) Microorganisms and nitrogen sources. Wiley, Chichester, New York, pp 493–509Google Scholar
  82. Meister A, Tate SS (1976) Glutathione and related γ-glutamyl compounds: biosynthesis and utilization. Annu Rev Biochem 45: 559–604PubMedGoogle Scholar
  83. Messer M, Ottesen M (1965) Isolation and properties of glutamine cyclotransferase of dried papaya latex. Carlsberg Res Commun 35: 1–24Google Scholar
  84. Miettinen JK (1959) Assimilation of amino acids in higher plants. Symp Soc Exp Biol 13: 210–229Google Scholar
  85. Millbank JW (1974) Nitrogen metabolism in lichens V. The forms of nitrogen released by the blue-green phycobiont in Peltigera spp. New Phytol 73: 1171–1181Google Scholar
  86. Millbank JW (1976) Aspects of nitrogen metabolism in lichens. In: Brown DH, Hawksworth DL, Bailey RH (eds) Lichenology: progress and problems. Academic Press, London New YorkGoogle Scholar
  87. Mitchell RE (1976) Isolation and structure of a chlorosis-inducing toxin of Pseudomonasm phaseolicola. Phytochemistry 15: 1941–1947Google Scholar
  88. Miyazawa K, Ito K (1974) Isolation of a new peptide L-citrullinyl-L-arginine from a red alga Gratoloupia turuturu. Bull Jpn Soc Sci Fisher 40: 815–818Google Scholar
  89. Miyazawa K, Ito K, Matsumoto F (1976) Amino acids and peptides in seven species of green marine algae. Hiroshima Daigaku Sui-Chikusangakubu Kiyo 15: 161–169Google Scholar
  90. Mohr W, Landschreiber E, Severin T (1976) Specificity of cocoa aroma. Fette Seifen Anstrichm 78: 88–95Google Scholar
  91. Mooz ED (1979) Association of glutathione synthetase deficiency and diminished amino acid transport in yeast. Biochem Biophys Res Commun 90: 1221–1226PubMedGoogle Scholar
  92. Morgan C, Reith WS (1954) The compositions and quantitative relations of protein and related fractions in developing root cells. J Exp Bot 5: 119–135Google Scholar
  93. Morita M (1955) Sapid components of Laminariae (brown seaweeds) III. Nippon Kagaku Zasshi76: 692–694Google Scholar
  94. Moureaux T (1979) Protein breakdown and protease properties of germinating maize endosperm. Phytochemistry 18: 1113–1117Google Scholar
  95. Nadeau R, Rappaport I (1974) An amphotoeric conjugate of tritiated gibberellin-Ai from barley aleurone layers. Plant Physiol 54: 809–812PubMedGoogle Scholar
  96. North BB (1975) Primary amines in California coastal waters: utilization by phytoplankton. Limnol Oceanogr 20: 20–27Google Scholar
  97. Oaks A, Beevers H (1964) The requirement for organic nitrogen in Zea mays embryos. Plant Physiol 39: 37–43PubMedGoogle Scholar
  98. Oka S, Nagata K (1974) Isolation and characterization of acidic peptides in soy sauce. Agric Biol Chem (Tokyo) 38: 1185–1194Google Scholar
  99. Osuji GO (1979) Glutathione turnover and amino acid uptake in yeast. FEBS Lett 105: 283–285PubMedGoogle Scholar
  100. Pate JS (1965) Roots as organs of assimilation of sulphate. Science 149: 547–548PubMedGoogle Scholar
  101. Pate JS (1976a) Nutrients and metabolites of fluids recovered from xylem and phloem: significance in relation to long-distance transport in plants. In: Wardlaw IF, Passioura JB (eds) Transport and transfer processes in plants. Academic Press, New York London, pp 253–281Google Scholar
  102. Pate JS (1976b) Transport in symbiotic systems fixing nitrogen. In: Liittge U, Pitman MG (eds) Encyclopedia of plant physiology, New Series, Vol 2B. Springer, Berlin Heidelberg New York, pp 278–303Google Scholar
  103. Payne JW (ed) (1980) Microorganisms and nitrogen sources. Wiley, Chichester New York Penninckx M, Jaspers C, Wiame JM (1980) Glutathione metabolism in relation to the amino-acid permeation system of Saccharomyces cerevisiae. Eur J Biochem 104:119–123Google Scholar
  104. Plummer GL, Kethley JB (1964) Foliar absorption of amino acids, peptides and other nutrients by the pitcher plant, Sarracenia flava. Bot Gaz (Chicago) 125: 245–260Google Scholar
  105. Pollard JK, Sproston T (1954) Nitrogenous constituents of sap exuded from the sapwood of Acer saccharum. Plant Physiol 29: 360–364PubMedGoogle Scholar
  106. Prikhod’ko LS (1979) Effect of medium salting with NaCl on peptide composition of cotton plant roots. Fiziol Biok 11: 373–378Google Scholar
  107. Prikhod’ko LS, Klyshev LK, Amirzhanova GM (1975) Effect of salinization of the medium on synthesis and qualitative composition of peptides in pea plants. Sov Plant Physiol 22: 470–475Google Scholar
  108. Prikhod’ko LS, Frantsev AP, Klyshev LK (1979) Study of the peptide pool in Salicornia. Sov Plant Physiol 26: 63–70Google Scholar
  109. Pringle RB (1971) Amino acid composition of the host-specific toxin of Helminthosporium carbonum. Plant Physiol 48: 756–759PubMedGoogle Scholar
  110. Pringle RB, Braun AC (1958) Constitution of the toxin of Helminthosporium victoriae. Nature (London) 181: 1205–1206Google Scholar
  111. Pringle RB, Schaffer RP (1966) Amino acid composition of a crystalline host-specific toxin. Phytopathology 56: 1149–1151Google Scholar
  112. Prusiner S, Doak CW, Kirk G (1976) Novel mechanism for group-translocation: substrate- product reutilization by γ-glutamyl transpeptidase in peptide and amino acid transport. J Cell Physiol 89: 853–864PubMedGoogle Scholar
  113. Pusheva MA, Khoreva SL (1977) Amino acid composition of polynucleotide-peptide complexes isolated from algae. Microbiology 46: 49–52Google Scholar
  114. Raake ID (1951) Protein synthesis in ripening pea seeds. Biochem J 66: 101–110Google Scholar
  115. Reindel F, Bienenfeld W (1956) Differences in the qualitative composition of the proteins and peptides from the leaf juice of healthy and leafroll infected potato plants. Hoppe- Seyler’s Z Physiol Chem 303: 262–271Google Scholar
  116. Rennenberg H (1976) Glutathione in conditioned media of tobacco suspension cultures. Phytochemistry 15: 1433–1434Google Scholar
  117. Rennenberg H (1978) Influence of glutathione on duration of growth of cytokinin dependent soybean callus tissue. Z Pflanzenphysiol 88: 273–277Google Scholar
  118. Rennenberg H, Bergmann L (1979) Influences of ammonia and sulfate on the production of glutathione in suspension cultures of Nicotiana tabacum. Z Pflanzenphysiol 92: 133–142Google Scholar
  119. Rennenberg H, Schmitz K, Bergmann L (1979) Long-distance transport of sulfur in Nicotiana tabacum. Planta 147: 57–62Google Scholar
  120. Rennenberg H, Steinkamp R, Polle A (1980) Evidence for the participation of a 5-Oxo- prolinase in degradation of glutathione in Nicotiana tabacum. Z Naturforsch 35c: 708–712Google Scholar
  121. Robert M, Barbier M, Lederer E, Roux L, Biemann K, Vetter W (1962) Two new natural phytotoxins: aspergillomarasmine A and B, and their relation to lycomarismine and its derivatives. Bull Soc Chim Fr: 187–188Google Scholar
  122. Salonen M-L, Simola LK (1977) Dipeptides and amino acids as nitrogen sources for the callus of Atropa belladonna. Physiol Plant 41: 55–58Google Scholar
  123. Schaedle M, Bassham JA (1977) Chloroplast glutathione reductase. Plant Physiol 59: 1011–1012PubMedGoogle Scholar
  124. Schantz R, Schantz ML, Duranton H (1975) Changes in amino acid and peptide composition of Euglena gracilis cells during chloroplast development. Plant Sci Lett 5: 313–324Google Scholar
  125. Schilling ED, Strong FM (1955) Isolation, structure and synthesis of a Lathyrus factor from L. odoratus. J Am Chem Soc 77: 2843–2845Google Scholar
  126. Sembdner G (1974) Conjugates of plant hormones. In: Schreiber K, Schiitte H, Sembdner G (eds) Biochemistry and chemistry of plant growth regulators. Inst Plant Biochem, Halle, pp 283–302Google Scholar
  127. Sembdner G, Borgmann E, Schneider G, Liebisch HW, Miersch O, Adam G, Lischewski M, Schreiber K (1976) Biological activity of some conjugated gibberellins. Planta 132: 249–257Google Scholar
  128. Shevyakova NI, Loshadkina AP (1965) Variation of the sulfhydryl group content in plants under conditions of salinization. Sov Plant Physiol 12: 280–286Google Scholar
  129. Shimokomaki M, Abdala C, Franca JF, Draetta IS, Figueiredo IB, Angelucci E (1975) Comparative studies between hearts of sweet palm (Euterpe edulis and E. oleracea) and the bitter species ( Syagrus oleracea ). Colet Inst Tecnol Aliment 6: 69–80Google Scholar
  130. Simola LK (1978) Dipeptides as nitrogen sources for Drosera rotundifolia in aseptic culture. Physiol Plant 44: 315–318Google Scholar
  131. Smith DC (1974) Transport from symbiotic algae and symbiotic chloroplasts to host cells. Symp Soc Exp Biol 28: 485–520PubMedGoogle Scholar
  132. Soldal T, Nissen P (1978) Multiphasic uptake of amino acids by barley roots. Physiol Plant 43: 181–188Google Scholar
  133. Sopanen T (1979) Development of peptide transport activity in barley scutellum during germination. Plant Physiol 64: 570–574PubMedGoogle Scholar
  134. Sopanen T, Burston D, Matthews DM (1977) Uptake of small peptides by the scutellum of germinating barley. FEBS Lett 79: 4–7PubMedGoogle Scholar
  135. Sopanen T, Burston D, Taylor E, Matthews DM (1978) Uptake of glycylglycine by the scutellum of germinating barley grain. Plant Physiol 61: 630–633PubMedGoogle Scholar
  136. Staskawicz BJ, Panopoulos NJ (1980) Phaseolotoxin transport in Escherichia coli and Salmonella typhimurium via the oligopeptide permease. J Bacteriol 142: 474–179PubMedGoogle Scholar
  137. Stewart CR, Beevers H (1967) Gluconeogenesis from amino acids in germinating castor bean endosperm and its role in transport to the embryo. Plant Physiol 42: 1587–1595PubMedGoogle Scholar
  138. Stewart WDP (1980) Transport and utilization of nitrogen sources by algae. In: Payne JW (ed) Microorganisms and nitrogen sources. John Wiley Chichester, New York, pp 577–607Google Scholar
  139. Stewart WDP, Rogers GA (1977) The cyanophyte–hepatic symbiosis. New Phytol 78: 459–471Google Scholar
  140. Synge RLM (1951) Non-protein nitrogenous constituents of rye grass: ionophoretic fractionation and isolation of a ‘bound amino acid’ fraction. Biochem J 49: 642–650PubMedGoogle Scholar
  141. Synge RLM (1959) Non-protein chemically bound forms of amino acids in plants. Symp Soc Exp Biol 13: 345–352Google Scholar
  142. Synge RLM (1968) Occurrence in plants of amino acid residues chemically bound otherwise than in proteins. Annu Rev Plant Physiol 19: 113–136Google Scholar
  143. Synge RLM, Wood JC (1958) Bound amino acids in protein–free extracts of Italian ryegrass. Biochem J 70: 321–329PubMedGoogle Scholar
  144. Takagi M, Iida A, Murayama H, Soma S (1973) Isolation and some chemical properties of a new peptide, analipine, from a brown alga, Analipis japonicus. Bull Jpn Soc Sci Fisher 39: 961–967Google Scholar
  145. Taylor PA, Schnoes HK, Durbin RD (1972) Characterization of chlorosis-inducing toxins from a plant pathogenic Pseudomonas sp. Biochim Biophys Acta 286: 107–117PubMedGoogle Scholar
  146. Thurmann DA, Street HE (1962) Metabolism of some indole auxins in excised tomato roots. J Exp Bot 13: 369–377Google Scholar
  147. Tkachuk R (1970) L-crysteinylglycine: its occurrence and identification. Can J Biochem 48: 1029–1036PubMedGoogle Scholar
  148. Tsang ML-S, Schiff JA (1978) Studies of sulfate utilization by algae. 18. Plant Sci Lett 11: 177–183Google Scholar
  149. Tsumura A, Komamura M, Kobayashi H (1977) Existence of a free peptide, alanylglycine, in wild and cultivated rice plants. Nippon Dojo-Hiryogaku Zasshi 48: 101–102Google Scholar
  150. Ueno T, Nakashima T, Uemoto M, Fukami H, Less N, Izumiya N (1977) Mass spectrometry of Alternaria mali toxins and related cyclodepsipeptides. Biomed Mass Spectrometry 4: 134–142Google Scholar
  151. Vancura V, Hanzlikova A (1972) Root exudates of plants. IV. Plant Soil 36: 271–282Google Scholar
  152. Volodin BB (1975) Participation of sulfur in processes of multiplication of certain blue-green algae. Sov Plant Physiol 22: 255–258Google Scholar
  153. von Holt C, Leppla W, Kronar B, von Holt L (1956) The chemical characteristics of the hypoglycines. Naturwissenschaften 43: 279Google Scholar
  154. Waley SG (1966) Naturally occurring peptides. Adv Protein Chem 21: 1–112PubMedGoogle Scholar
  155. Walsby AE (1974) The extracellular products of Anabaena cylindrica Lemm. II. Br Phycol J 9: 383–391Google Scholar
  156. Watson R, Fowden L (1975) The uptake of phenylalanine and tyrosine by seedling root tips. Phytochemistry 14: 1181–1186Google Scholar
  157. Webster GC (1953) Peptide-bond synthesis in higher plants. I. The synthesis of glutathione. Arch Biochem Biophys 47: 241–250PubMedGoogle Scholar
  158. Whitaker JR (1976) Development of flavor, odor and pungency in onion and garlic. Adv Food Res 22: 73–133Google Scholar
  159. Winter A, Street HE (1963) A new natural auxin isolated from ‘staled’ root culture medium. Nature (London) 198: 1283–1288Google Scholar
  160. Winter A, Thimann KV (1966) Bound indoleacetic acid in Avena coleoptiles. Plant Physiol 41: 335–342PubMedGoogle Scholar
  161. Wirth E, Latzko E (1978) Partial purification and properties of spinach leaf glutathione reductase. Z Pflanzenphysiol 89: 69–75Google Scholar
  162. Wolffgang H, Mothes K (1953) Papierchromatographische Untersuchungen in pflanzlichen Blutungssaften. Naturwissenschaften 40: 606Google Scholar
  163. Wolosiuk RA, Buchanan BB (1977) Thioredoxin and glutathione regulate photosynthesis in chloroplasts. Nature (London) 266: 565–567Google Scholar
  164. Wright DE (1962) Amino acid uptake by plant roots. Arch Biochem Biophys 97: 174–180PubMedGoogle Scholar
  165. Yamauchi M, Ohashi J, Ohira K (1979) Occurrence of D-alanylglycine in rice leaf blades. Plant Cell Phys 20: 671–673Google Scholar
  166. Young EG, Smith DG (1958) Amino acids, peptides and proteins of Irish Moss, Chondruscrispus. J Biol Chem 233: 406–410Google Scholar
  167. Young LCT, Conn EE (1956) The reduction and oxidation of glutathione by plant mitochondria. Plant Physiol 31: 205–211PubMedGoogle Scholar
  168. Yuldashev AK, Tuichev AV, Ibragimov AP (1970) Isolation and separation of cottonseed peptides on ion-exchange resins. Vop Med Khim Biokhim Gorm Deistviya Foziol Aktiv Veshchestv Radiats 111–113Google Scholar
  169. Zacharius RM, Morris CJ, Thompson JF (1959) The isolation and characterization of y-L-glutamyl-S-methyl-L-cysteine from kidney beans ( Phaseolus vulgaris ). Arch Biochem Biophys 80: 199–209Google Scholar

Copyright information

© Springer-Verlag Berlin Heidelberg 1982

Authors and Affiliations

  • C. F. Higgins
  • J. W. Payne

There are no affiliations available

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