Hydrogen Sulphide: Emission and Utilization by Plants

  • K. C. Lakkineni
  • A. Ahmad
  • Y. P. Abrol

Abstract

Plants take up sulphur from both pedospheric and atmospheric sources. Both excessive and deficient conditions of sulphur level in plants causes imbalances in physiological processes, and thus, negatively affect the plant growth. To adapt to these conditions, plants possess physiological plasticity and developed different strategies, viz. avoidance, compartmentation and volatilization. Emission of volatile sulphur by plants appears to be responsible for maximum amount of sulphur that are thought to enter the atmosphere by natural process, and hydrogen sulphide is the major volatile sulphur-containing compound emitted by cells of higher plants. In case of sulphur deficient condition, which is prevalent in most agricultural soils world over, plants are also able to utilize atmospheric H2S for growth. H2S can, to a considerable extent, replace pedospheric sulphate as a source of sulphur. Thus, plants have potential for both synthesis and consumption of hydrogen sulphide. In this chapter, we will describe in detail the mechanism of H2S emission and utilization by plants that will help to develop strategies for usefulness of the channeling of extra sulphur into specific sulphur pool in order to improve crop quality by using molecular biology tools.

Keywords

Hydrogen Sulphide Sulphur Metabolism Backhuys Publisher Sulfur Nutrition Cucurbit Plant 
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.

Preview

Unable to display preview. Download preview PDF.

Unable to display preview. Download preview PDF.

References

  1. Bacci E, Gaggi C, Lanzillotti E, Ferrozzi S and Valli L (2000) Geothermal power plants at Mt. Amiata (Tuscany-Italy): Mercury and hydrogen sulphide deposition revealed by vegetation. Chemosphere 40: 907–911PubMedCrossRefGoogle Scholar
  2. Bartuli C, Botre C, Botre F and Peccie G (1997) Atmospheric pllution originating from the interaction of different gaseous effluents. J Environ Pathol Toxicol Oncol 16: 245–252PubMedGoogle Scholar
  3. Beauchamp Jr RO, Bus JS, Popp JA, Boreiko CJ and Andjelkovich DA (1983) A critical review of the literature on hydrogen sulphide toxicity. CRR Critical Rev Toxicol 13: 25–97CrossRefGoogle Scholar
  4. Bisswanmder H (1981) Substrate specificity of the pyruvate dehydrogenase complex from Escherchia coli. J Biol Chem 256: 815–822Google Scholar
  5. Bonas H, Schmitz K, Rennenberg H and Bergmann L (1982) Phloem transport of sulphur in Ricinus. Planta 155: 82–88CrossRefGoogle Scholar
  6. Bosma W, Kamminga G and De Kok U (1990) H2S-induced accumulation of sulfhydryl-compounds in the leaves of plants under field and laboratory exposure. In: Rennenberg H, Brunold CH, De Kok Li and Stulen I (eds), Sulfur Nutrition and Sulfur Assimilation in Higher Plants: Fundamental, Environmental and Agricultural Aspects, pp 173–175. SPB Academic Publishing, The HagueGoogle Scholar
  7. Boukhris M and Lossaint P (1970) Sur La teneur en soufre de quelques.plantes gypsophile de Tunisie. Oecol Plant 5: 345–354Google Scholar
  8. Boukhris M and Lossaint L (1975) Aspects écologiques de la nutrition minérale des plantes gypsicoles de Tunisie. Rev Ecol Biol Sol 12: 329–248Google Scholar
  9. Brunold C (1993) Regulatory interactions between sulphate and nitrate assimilation. In: Renneberg H, Brunold C, De Kok LJ and Stulen I (eds) Sulfur Nutrition and Sulfur Assimilation in Higher Plants: Regulatory, Agricultural and Environmental Aspects, pp 61–75. SPB Academic Publishing, The HagueGoogle Scholar
  10. Buwalda F, De Kok LJ and Stulen I (1992) The flux of atmospheric H2S to spinach leaves can be affected by the supply of O-acetylserine. Phyton 32: 15–18Google Scholar
  11. Buwalda F, De Kok LJ and Stulen I (1993) Effects of atmospheric H2S on thiol composition of crop plants. J Plant Physiol 142: 281–285CrossRefGoogle Scholar
  12. Carlson Jr PR and Forrest J (1982) Uptake of dissolved sulfide by Spartina alterniflora: Evidence from natural sulfur isotopes abundance ratios. Science 216: 633–635PubMedCrossRefGoogle Scholar
  13. Cope DM and Spedding DJ (1982) Hydrogen sulphide uptake by vegetation. Atoms Environ 16: 349–353CrossRefGoogle Scholar
  14. De Cormis L (1968) Degagement d’hydrogene sulfure par des plantes soumises a une atmosphere contenant de l’anhydride sulfureux. CR Acad Sci 266D: 683–685Google Scholar
  15. De Kok LJ (1989) Responses of sulfur metabolism in plants to atmospheric hydrogen sulfide. Phyton 29: 189–201Google Scholar
  16. De Kok Li, Stahl K and Rennenberg H (1989) Fluxes of atmospheric hydrogen sulfide to plant shoots. New Phytol 112: 533–542CrossRefGoogle Scholar
  17. De Kok Li, Rennenberg H and Kuiper PJC (1991) The internal resistance in spinach shoots to atmospheric H2S deposition is determined by metabolism processes. Plant Physiol Biochem 29: 463–470Google Scholar
  18. De Kok LJ, Stuiver CE, Rubbing M, Westerman S and Grill D (1997) Impact of atmospheric sulfur deposition on sulfur metabolism in plants: H2S as sulfur source for sulphur deprived Brassica oleracea L. Bot Acta 110: 411–419Google Scholar
  19. De Kok LJ, Stuiver CEE and Stulen I (1998) The impact of elevated levels of atmospheric H2S on plants. In: De Kok LJ and Stulen I (eds), Responses of Plant Metabolism to Air Pollution and Global Change, pp 51–63. Backhuys Publishers, LeidenGoogle Scholar
  20. De Kok LJ, Stuiver CEE, Westerman S and Stulen I (2000a) Atmospheric H2S pollution- Deposition and impact on sulphur metabolism in plants. In: Yunus M, Singh N and De Kok LJ (eds), Environmental Stress: Indication, Mitigation, and Eco-conservation, pp 135–141. Kluwer Academic Publishers, DordrechtCrossRefGoogle Scholar
  21. De Kok LI, Westerman S, Stuiver CEE and Stulen I (2000b) Atmospheric H2S as plant sulfur source: interaction with pedospheric sulfur nutrition–a case study with Brassica oleracea L. In: Brunold C, Rennenberg H, De Kok LJ, Stulen I and Davidian JC (eds), Sulfur Nutrition and Sulfur assimilation in Higher Plants: Molecular, Biochemical and Physiological Aspects, pp 41–55. Paul Haupt, BernGoogle Scholar
  22. Ernst WHO (1990) Ecological aspects of sulphur metabolism. In: Rennenberg H, Brunold CH, De Kok LJ and Stulen I (eds), Sulphur Nutrition and Sulphur Assimilation in Higher Plants: Fundamental, Environmental and Agricultural Aspects, pp 131–144. SPB Academic Publishing, The HagueGoogle Scholar
  23. Ernst WHO (1998) Ecotypic variation and environmental adaptation to air pollution and global change. In: De Kok LJ and Stulen I (eds), Responses of Plant Metabolism to Air Pollution and Global Change, pp 217–232. Backhyus Publishers, LeidenGoogle Scholar
  24. Filner P, Rennenberg H, Sekiya J, Bressan RA, Wilson LG, LeCureux L and Shimei T (1984) Biosynthesis and emission of hydrogen sulphide by higher plants. In: Koziol MJ and Whatley FR (eds), Gaseous Air Pollutants and Plant Metabolism, pp 291–312. Butterworth, LondonGoogle Scholar
  25. Garsed SG and Read DJ (1977) Sulphur dioxide metabolism in soybean, Glycine max var. Biloxi. II. Biochemical distribution of 35S02 products. New Phytol 79: 583–592CrossRefGoogle Scholar
  26. Gotor C, Cejudo FJ, Barroso C and Vega JM (1997) Tissue specific expression of ATCYS-3A, a gene encoding the cytosolic isoform of O-acetylseine(thiol)lyase in Arabidopsis. In: Cram WJ, De Kok LJ, Stulen I, Brunold and C and Rennenberg H (eds) Sulphur Metabolism in Higher Plants: Molecular, Ecophysiological and Nutritional Aspects, pp 285–288. Backhuys Publishers, LeidenGoogle Scholar
  27. Hallgren JE and Fredriksson SA (1982) Emission of hydrogen sulfide from sulfur dioxide fumigated pine trees. Plant Physiol 70: 456–459PubMedCrossRefGoogle Scholar
  28. Harrington HM and Smith IK (1980) Cysteine metabolism in cultured tobacco cells. Plant Physiol 65: 151–155Google Scholar
  29. Hell R (1997) Molecular physiology of plant sulfur metabolism. Planta 202: 138–148PubMedCrossRefGoogle Scholar
  30. Herschbach C, De Kok U and Rennenberg H (1995) Net uptake of sulfate and its transport to the shoot in tobacco plants fumigated with H2S or SO2. Plant Soil 175: 75–84CrossRefGoogle Scholar
  31. Herschbach C, van der Zalm E, Schneider A, Jouanin L, De Kok U and Rennenberg H (2000) Regulation of the uptake and transport of sulphate in wildtype and transgenic poplar trees overexpressing yglutamylcysteine synthetase as affected by atmospheric H2S. Plant Physiol 124: 461–473PubMedCrossRefGoogle Scholar
  32. Heses H, Lipke J, Altman T and Hofgen R (1997) Expression analysis and subcellular localization of cysteine synthase isoforms from Arabidopsis thaliana. In: Cram WJ, De Kok LJ, Stulen I, Brunold and C and Rennenberg H (eds) Sulphur Metabolism in Higher Plants: Molecular, Ecophysiological and Nutritional Aspects, pp 227–230. Backhuys Publishers, LeidenGoogle Scholar
  33. Lakkineni KC, Nair TVR and Abrol YP (1990) S and N interaction in relation to H2S emission in some crop species. In: Rennenberg H, Brunold C, De Kok U amd Stulen I (eds) Sulphur Nutrition and Sulphur Assimilation in Higher Plants: Fundamental, Environmental and Agricultural Aspects, pp 213–216. SPB Academic Publishing, The HagueGoogle Scholar
  34. Maas FM, De Kok U, Peters JL and Kuiper PJC (1987) A comparative study on the effects of H2S and SO2 fumigation on the growth and accumulation of sulfate and sulfhydryl compounds in Trifolium pratense L., Glycine max Merr. and Phaseolus vulgaris L. JExp Bot 38: 1459–1469CrossRefGoogle Scholar
  35. Matema J (1966). Die Ausscheidung des durch die Fichtennadeln absorbiertes Schwefeldioxids. Arch Forstwesen 15: 691–692Google Scholar
  36. Miller JM and Conn EE (1980) Metabolism of hydrogen cyanide by higher plants. Plant Physiol 65: 1199–1202Google Scholar
  37. Poortinga AM and De Kok U (1997) Uptake of atmospheric H2S by Spinacia oleracea L. and consequences for thiol content and composition in shoots and roots. In: Cram WJ, De Kok U, Stulen I, Brunold and C and Rennenberg H (eds) Sulphur Metabolism in Higher Plants: Molecular, Ecophysiological and Nutritional Aspects, pp 280–285. Backhuys Publishers, LeidenGoogle Scholar
  38. Rennenberg H (1982) Glutathione metabolism and possible biological roles in higher plants. Phytochemistry 21: 2771–2781CrossRefGoogle Scholar
  39. Rennenberg H (1983) The role of 0-acetylserine in hydrogen sulphide emission from pumpkin leaves in response to sulfate. Plant Physiol 73: 560–565PubMedCrossRefGoogle Scholar
  40. Rennenberg H (1984) The fate of excess sulfur in higher plants. Annu Rev Plant Physiol 35: 121–153CrossRefGoogle Scholar
  41. Rennenberg H (1997) Molecular approaches to glutathione biosynthesis. In: Cram WJ, De Kok LJ, Stulen I, Brunold and C and Rennenberg H (eds) Sulphur Metabolism in Higher Plants; Molecular, Ecophysiological and Nutritional Aspects, pp 59–70. Backhuys Publishers, LeidenGoogle Scholar
  42. Rennenberg H and Filner P (1983) Developmental changes in the potential for H2S emission in cucurbit plant Plant Physiol 71: 269–275.Google Scholar
  43. Rennenberg H, Schmitz K and Bergmann L (1979) Long-distance transport of sulfur in Nicotiana tabacum. Planta 23: 667–672Google Scholar
  44. Rennenderg H (1991) The significance of higher plants in the emission of sulfur compounds from terrestrial ecosystems. In: Sharkey TD, Holland EA and Mooney HA (eds) Trace Gas Emission by Plants, pp 217–260, Academic Press, San DiegoCrossRefGoogle Scholar
  45. Schütz B, De Kok U and Rennenberg H (1991) Thiol accumulation and cysteine desulfhydrase activity in H2S-fumigated leaves and leaf homogenates of cucurbit plants. Plant Cell Physiol 32: 733–736Google Scholar
  46. Sekiya J, Wilson LG and Filner P (1982) Resistance to unjury by sufur dioxide. Plant Physiol 70: 437–441PubMedCrossRefGoogle Scholar
  47. Spaleny J (1977) Sulphate transformation to hydrogen sulphide in spruce seedlings. Plant Soil 48: 557–563CrossRefGoogle Scholar
  48. Stuiver CEE and De Kok U (1997) Atmospheric H2S as sulphur source for sulphur deprived Brassica oleracea L. and Hordeum vulgare L. In: Cram WJ, De Kok U, Stulen I, Brunold and C and Rennenberg H (eds), Sulphur Metabolism in Higher Plants; Molecular, Ecophysiological and Nutritional Aspects, pp 293–294. Backuys Publishers, LeidenGoogle Scholar
  49. Stuiver CEE and De Kok U (2001) Atmospheric H2S as sulfur source for plant growth: Kinetics of H2S uptake and activity of O-acetylserine(thiol)lyase as affected by sulfur nutrition. Env Exp Bot 46: 29–36CrossRefGoogle Scholar
  50. Stulen I, Posthumus FS, Amancio S and De Kok U (1990) Why is H2S not phytotoxic in monocots? Physiol Plant 79: Al23Google Scholar
  51. Takemoto BK, Noble RD and Harrington HM (1986) Differential sensitivity of duckweeds (Lemnaceae) to sulphite. II. Thiol production and hydrogen sulphide emission as factors influencing sulphite phytotoxicity under low and high irradiance. New Phytol 103: 541–548CrossRefGoogle Scholar
  52. Tausz M, van der Kooij TAW, Müller M, De Kok U and Grill D (1998) Uptake and metabolism of oxidized and reduced sulfur pollutants by spruce trees. In: De Kok U and Stulen I (eds), Responses of Plant Metabolism to Air Pollution and Global Change, pp 457–460. Backhuys Publishers, LeidenGoogle Scholar
  53. Taylor GE Jr and Tingey DT (1983) Sulphur dioxide flux into leaves of Geranium carolinianum L.Evidence of non-stomal and residual resistance. Plant Physiol 72: 237–244PubMedCrossRefGoogle Scholar
  54. Taylor GE, McLaughlin SB, Shriner DS and Selvidge WJ (1983) The flux of sulphur containing gases in to vegetation. Atmos Environ 17: 789–796CrossRefGoogle Scholar
  55. van der Kooij TAW and De Kok LJ (1998) Kinetics of deposition of SO2 and H2S to shoots of Arabidopsis thaliana L. In: De Kok LJ and Stulen I (eds.), Responses of Plant Metabolism to Air Pollution and Global Change, pp 479–481. Backhuys Publishers, LeidenGoogle Scholar
  56. van Diggelen J (1988) A comparative study on the ecophysiology of salt marsh halophytes. Ph.D. Thesis. Free University, AmsterdamGoogle Scholar
  57. Westerman S, De Kok LJ and Stolen I (2000) Interaction between metabolism of atmospheric H2S in the shoot and sulfate uptake by the roots of curly kale (Brassica oleracea L.). Physiol Plant 109: 443–449CrossRefGoogle Scholar
  58. Westerman S, De Kok LJ, Stuiver CEE and Stolen I. (2001a) Sulfate uptake and utilization by two varieties of Brassica oleracea with different sulfur need as affected by atmospheric H2S. Phyton 41: 49–62Google Scholar
  59. Westerman S, Stolen I, Stuter M, Brunold C and De Kok LJ (200lb) Atmospheric H2S as sulfur source for Brassica oleracea: consequences for the activity of the enzymes of the assimilatory sulfate reduction pathway. Plant Physiol Biochem 39: 425–432Google Scholar
  60. Wilson LG, Bressan RH and Filner P (1978). Light dependent emission of hydrogen sulphide from plants. Plant Physiol 61: 184–189PubMedCrossRefGoogle Scholar
  61. Winner WE, Smith CL, Koch GW, Mooney HA, Bewley JD and Krouse HR (1981) Rates of emission of H2S from plants and patterns of stable sulphur isotope fractionation. Nature 289: 672–673CrossRefGoogle Scholar

Copyright information

© Springer Science+Business Media Dordrecht 2003

Authors and Affiliations

  • K. C. Lakkineni
    • 1
  • A. Ahmad
    • 2
  • Y. P. Abrol
    • 2
  1. 1.St-Laurent, MontrealCanada
  2. 2.Department of Environmental BotanyHamdard UniversityNew DelhiIndia

Personalised recommendations