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Physiological Effects of Air Pollutants on Western Trees

  • A. Bytnerowicz
  • N. E. Grulke
Part of the Ecological Studies book series (ECOLSTUD, volume 97)

Abstract

General physiological responses of forest trees to atmospheric pollution are well-documented (Smith 1974, Heath 1980, Guderian 1985, McLaughlin 1985, Wellburn 1988, Darrall 1989). Trees have a higher threshold of tolerance to air pollutants than do herbaceous species (Darrall 1989). Physiological responses of forest trees to air pollution in western North America have many similarities to the responses observed in eastern North America and in Europe. However, the combination of unique air pollution signatures compounded with high concentrations at some sites may result in unique physiological responses in the West. The objective of this chapter is to review recent knowledge on the effects of atmospheric pollutants on Western trees, with a focus on conifers.

Keywords

Stomatal Conductance Sulfur Dioxide Nitrogen Dioxide Ozone Exposure Simulated Acid Rain 
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. Aber JD, Nadelhoffer KJ, Steudler P, Melillo JM (1989) Nitrogen saturation in a northern forest ecosystem. Bioscience39: 378–386Google Scholar
  2. Adams MB, Edwards NT, Taylor GE Jr, Skaggs BL (1990) Whole-plant 14C-photosynthate allocation in Pinus taeda: Seasonal patterns at ambient and elevated ozone levels. Canadian Journal of Forest Research20: 152–158Google Scholar
  3. Aitken WM, Jacobi WR, Staley JM (1984) Ozone effects on seedlings of Rocky Mountain ponderosa pine. Plant Disease68: 398–100Google Scholar
  4. Amundson RG, Maclean DC (1982) Influence of oxides of nitrogen on crop growth and yield: An overview. In: Schneider T, Grant L (eds) Air Pollution by Nitrogen Oxides. Elsevier, pp 501–510Google Scholar
  5. Amundson RG, Walker RB, Legge AH (1986) Sulphur gas emissions in the boreal forest: The West Whitecourt case study. VII: Pine tree physiology. Water, Air, and Soil Pollution29: 129–147Google Scholar
  6. Andersen CP, Hogsett WE, Wessling R, Plocher M (1991) Ozone decreases spring root growth and root carbohydrate content in ponderosa pine the year following exposure. Canadian Journal of Forest Research21: 1288–1291Google Scholar
  7. Anderson PD, Houpis JLJ (1991) Foliar nutrient status of Pinus ponderosaexposed to ozone and acid rain. Supplement to Plant Physiology96: 173Google Scholar
  8. Barnes RL (1972) Effects of chronic exposure to ozone on photosynthesis and respiration of pines. Environmental Pollution3: 133 – 138Google Scholar
  9. Basabe FA, Edmonds RL, Chang WL, Larson TV (1989) Fog and cloud chemistry in western Washington. In: Olson RK, Lefohn AS (eds) Effects of Air Pollution on Western Forests. Transactions Series, No. 16, Air & Waste Management Association, Pittsburgh, pp 33–49Google Scholar
  10. Becker KH, Brockman KJ, Bechara J (1990) Production of hydrogen peroxide in forest air by reaction of ozone with terpenes. Nature346: 256–258Google Scholar
  11. Beyers JL, Riechers GH, Temple PJ (1991) Photosynthetic capacity of ponderosa pine seedlings exposed to different levels of atmospheric ozone and drought stress. Ecological Society of America Bulletin 72(2) (Supplement):69Google Scholar
  12. Brewer RL, Gordon LS, Shepard LS, Ellis EC (1983) Chemistry of mist and fog from the Los Angeles urban area. Atmosphere and Environment17: 2267–2270Google Scholar
  13. Bytnerowicz A, Molski B (1978) Metabolism siarki w roslinach. Wiadomosci Botaniczne22: 17–29Google Scholar
  14. Bytnerowicz A, Takemoto BK (1989) Effects of photochemical smog on the growth and physiology of ponderosa pine seedlings grown under nitrogen and magnesium deficiencies. In: Olson RK, Lefohn AS (eds) Effects of Air Pollution on Western Forests. Transactions Series, No. 16, Air & Waste Management Association, Pittsburgh, pp 455–167Google Scholar
  15. Bytnerowicz A, Dmuchowski W, Molski B (1980) The air pollution accumulation capabilities of some tree species in the vicinity of the chemical plant in Torun. Rocznik Dendrologiczny33: 15–28Google Scholar
  16. Bytnerowicz A, Dmuchowski W, Molski B (1981/1982) Effects of needle harvest time, age of needles and age of Scots pine (Pinus silvestris L.) trees on the accumulation of total sulphur. Rocznik Dendrologiczny 34:51–68Google Scholar
  17. Bytnerowicz A, Miller PR, Olszyk DM, Dawson PJ, Fox CA (1987) Gaseous and particulate air pollution in the San Gabriel Mountains of southern California. Atmospheric Environment21: 1805–1814Google Scholar
  18. Bytnerowicz A, Olszyk DM, Huttunen S, Takemoto BK (1989) Effects of photochemical smog on growth, injury, and gas exchange of pine seedlings. Canadian Journal of Botany67: 2175–2181Google Scholar
  19. Bytnerowicz A, Poth M, Takemoto BK (1990) Effects of photochemical smog and mineral nutrition on ponderosa pine seedlings. Environmental Pollution67: 233–248PubMedGoogle Scholar
  20. Bytnerowicz A, Dawson PJ, Morrison CL (1991) Physiological and growth responses of ponderosa pine seedlings to ambient and elevated ozone concentrations in southern Sierra Nevada. Proceedings of the 84th Annual Meeting, Air and Waste Management Association, 16–21 July 1991, Vancouver, British Columbia, AMWA, Pittsburgh, PAGoogle Scholar
  21. Cape JN, Fowler D (1981) Changes in epicuticular wax of Pinus sylvestrisexposed to polluted air. Silva Fennica15: 457–458Google Scholar
  22. Chevonne BI, Anderson JV, Hess JL (1991) Seasonal changes in components of the antioxidant system in eastern white pine and ozone effects on antioxidant metabolism. Proceedings of the 84th Annual Meeting, Air and Waste Management Association, 16–21 July 1991, Vancouver, British Columbia, AMWA, Pittsburgh, PAGoogle Scholar
  23. Cleland R (1971) Cell wall extension. Annual Review of Plant Physiology22: 192–222Google Scholar
  24. Coyne PI, Bingham GE (1981) Comparative ozone dose response of gas exchange in a ponderosa pine stand exposed to long-term fumigations. Journal of the Air Pollution Control Association31: 38–41Google Scholar
  25. Darrall NM (1989) The effect of air pollutants on physiological processes in plants. Plant, Cell, and Environment12: 1–30Google Scholar
  26. Dmuchowski W, Bytnerowicz A, Molski B (1981/1982) The influence of boreal sites on the accumulation of total sulphur in Scots pine (Pinus silvestris L.) needles. Rocznik Dendrologiczny 34:69–77Google Scholar
  27. Durisco DM, Stolte KW (1989) Photochemical oxidant injury to ponderosa (Pinus ponderosaLaws.) and Jeffrey pine (Pinus JeffreyiiGrev. and Balf.) in the national parks of the Sierra Nevada of California. In: Olson RK, Lefohn AS (eds) Effects of Air Pollution on Western Forests. Transactions Series, No. 16, Air & Waste Management Association, Pittsburgh, pp 261–278Google Scholar
  28. Durmishidze SV, Nutshubidze NN (1976) Absorption and conversion of nitrogen dioxide by higher plants. Doklardie Biochemie227: 104–107Google Scholar
  29. Eamus D, Fowler D (1990) Photosynthetic and stomatal conductance responses to acid mist of red spruce seedlings. Plant, Cell and Environment13: 349–357Google Scholar
  30. Edwards GS, Edwards NT, Kelly JM, Mays PA (1991) Ozone, acidic precipitation, and soil Mg effects on growth and nutrition of loblolly pine seedlings. Environmental and Experimental Botany31 (1): 67–78Google Scholar
  31. Edwards NT, Taylor GE Jr, Adams MB, Simmons GL, Kelly JM (1990) Ozone, acidic rain, and soil magnesium effects on growth and foliar pigments of Pinus taeda L. Tree Physiology6: 95–104PubMedGoogle Scholar
  32. Ennis CA, Lazrus AL, Zimmerman PR (1990) Flux determinations and physiological response in the exposure of red spruce to gaseous hydrogen peroxide, ozone, and sulphur dioxide. Tellus42B: 183–199Google Scholar
  33. Ernst WHO, Tonnejick AEC, Pasman FJM (1985) Ecotypic response of Silene cucubalus to air pollutants (SO2/ O3). Journal of Plant Physiology188: 439–450Google Scholar
  34. Evans LS (1982) Biological effects of acidity in precipitation on vegetation: A review. Environmental Experimental Botany22: 135–169Google Scholar
  35. Evans LS, Miller PR (1972a) Comparative needle anatomy and relative ozone sensitivity of four pine species. Canadian Journal of Botany50: 1067–1071Google Scholar
  36. Evans LS, Miller PR (1972b) Ozone damage to ponderosa pine: A histological and histochemical appraisal. American Journal of Botany59: 297–304Google Scholar
  37. Evans LS, Miller PR (1975) Histological comparison of single and additive O3 and SO2 injuries to elongating ponderosa pine needles. American Journal of Botany62: 416–421Google Scholar
  38. Fangmeier A, Kress LW, Lepper P, Heck WW (1990) Ozone effects on the fatty acid composition of loblolly pine needles (Pinus taeda). New Phytologist115: 639–647Google Scholar
  39. Farquhar GD, Wetselaar R, Firth PU (1979) Ammonia volatilization from senescing leaves of maize. Science203: 1257–1258PubMedGoogle Scholar
  40. Fenn ME, Dunn PH (1989) Litter decomposition across an air-pollution gradient in the San Bernardino Mountains. Soil Science Society of America Journal53: 1560–1567Google Scholar
  41. Filner P, Rennenberg H, Sekiya J, Bressan RA, Wilson LG, LeCureux L, Shimei T (1984) Biosynthesis and emission of hydrogen sulfide by higher plants. In: Koziol MJ, Whatley FR (eds) Gaseous Air Pollutants and Plant Metabolism. Butterworths, London, pp 291–312Google Scholar
  42. Fowler D, Cape JN, Nicholson IA, Kinnaird JW, Paterson IS (1980) The influence of a polluted atmosphere on cuticle degradation in Scots pine (Pinus silvestris). In: Drablos D, Tollan A (eds) Proceedings: ″Ecological Impacts of Acidic Precipitation″SNSF Project, NHL, Sandefjord, Norway, March 11–14, pp 14Google Scholar
  43. Freer-Smith PH (1985) The influence of SO2 and NO2 on the growth development and gas exchange of Betula pendulaRoth. New Phytologist99: 417–430Google Scholar
  44. Freer-Smith PH, Dobson MC (1989) Ozone flux to Picea sitchensis(Bong) Carr and Picea abies(L.) Karst during short episodes and the effects of these on transpiration and photosynthesis. Environmental Pollution59: 161–176PubMedGoogle Scholar
  45. Fuhrer G, Dunkl M, Knoppik D, Selinger H, Blank LW, Payer HD, Lange OL (1990) Effects of low-level long-term ozone fumigation and acid mist on photosynthesis and stomata of clonal Norway spruce (Picea abies(L.) Karst.) Environmental Pollution64: 279–293PubMedGoogle Scholar
  46. Garrec JP, Berteigne M (1987) Effects of organic micropollutants on vegetation. In: Direct Effects of Dry and Wet Deposition on Forest Ecosystems—in Particular Canopy Interactions. CEC-Air Pollution Research Report 4, pp 236–244Google Scholar
  47. Garten CT Jr, Hanson PJ (1990) Foliar retention of 15N-nitrate and 15N- ammonium by red maple (Acer rubrum) and white oak (Quercus alba) leaves from simulated rain. Environmental Experimental Botany30: 333–342Google Scholar
  48. Gietko NV (1976) Osobiennosti nakopleniia siernistyh i azotistih soiedinienii v listiah niekotoryh vidov topolia v usloviiah zadymlieniia atmosfiernogo vozduha dvuokisiu siery. Rastieniia i Promyshliennaia Srieda, Naukova Dumka, Kiev, 63–64Google Scholar
  49. Godzik S (1976) External needle waxes of Pinus silvestris and their modification by air pollution. In: Abstracts of Papers, 3rd International Congress of Plant Pathology, Munich. 16–23 August, 1978, Berlin, pp 349Google Scholar
  50. Greitner CS, Winner WE (1989) Effects of O3 on alder photosynthesis and symbiosis with Frankia. New Phytologist111: 647–656Google Scholar
  51. Grulke NE, Miller PR, Wilborn RD, Hahn S (1989) Photosynthetic response of giant sequoia seedlings and rooted branchlets of mature foliage to ozone fumigation. In: Olson RK, Lefohn AS (eds) Effects of Air Pollution on Western Forests. Transactions Series, No. 16, Air & Waste Management Association, Pittsburgh, pp 429–442Google Scholar
  52. Guderian R (1977) Air pollution, phytotoxicity of acidic gases and its significance in air pollution control. Ecological Studies 22, Springer-Verlag, BerlinGoogle Scholar
  53. Guderian R (ed) (1985) Air pollution by photochemical oxidants. Ecological Studies 52, Springer-Verlag, Berlin, 296 pGoogle Scholar
  54. Hallgren J-E (1978) Physiological and biochemical effects of sulfur dioxide on plants. In: Nriagu (ed) Sulfur in the Environment, Part II: Ecological Impacts. John Wiley and Sons, New York, pp 163–209Google Scholar
  55. Hallgren J-E, Fredriksson S-A (1982) Emission of hydrogen sulfide from sulfur dioxide-fumigated pine trees. Plant Physiology70: 456–59PubMedCentralPubMedGoogle Scholar
  56. Hanson PJ, McLaughlin SB, Edwards NT (1988) Net CO2 exchange of Pinus taedashoots exposed to variable ozone levels and rain chemistries in field and laboratory settings. Physiologia Plantarum74: 635–642Google Scholar
  57. Hanson PJ, Rott K, Taylor GE Jr, Gunderson CA, Lindberg SE, Ross-Todd BM (1989) N02 deposition to elements representative of a forest landscape. Atmospheric Environment23: 1783–1794Google Scholar
  58. Heath RL (1975) Ozone. In: Mudd JB, Kozlowski TT (eds) Responses of Plants to Air Pollution. Academic Press, New York, pp 23–55Google Scholar
  59. Heath RL (1979) Breakdown of ozone and formation of hydrogen peroxide in aqueous solutions of amine buffers exposed to ozone. Toxicological Letters4: 449–453Google Scholar
  60. Heath RL (1980) Initial events in injury to plants by air pollutants. Annual Review of Plant Physiology31: 395–431Google Scholar
  61. Heath RL (1987) The biochemistry of ozone attack on the plasma membrane of plant cells. Recent Advances in Phytochemistry21: 29–54Google Scholar
  62. Heath RL (1988) Biochemical mechanism of pollutant stress In: Heck WW, Taylor OC, Tingey DT (eds) Assessment of Crop Loss form Air Pollutants. Elsevier Applied SciencesGoogle Scholar
  63. Helmig D, Array J (1992) Organic chemicals in the air at Whitaker′sForest/Sierra Nevada Mountains, California. Science of the Total Environment (in press)Google Scholar
  64. Hewitt CN, Lucas P, Wellburn AR, Fall R (1990) Chemistry of ozone damage to plants. Chemistry & Industry15: 478–481Google Scholar
  65. Hill AC (1971) Vegetation, a sink for atmospheric pollutants. Journal of Air Pollution Control Association21: 341–346Google Scholar
  66. Hogsett WE, Plocher M, Wildman V, Tingey DT, Bennett JP (1985) Growth reponse of two varieties of slash pine to chronic ozone exposures. Canadian Journal of Botany63: 2369–2376Google Scholar
  67. Hogsett WE, Tingey DT, Hendricks C, Rossi D (1989) Sensitivity of western conifers to S02 and seasonal interactions of acid fog and ozone. In: Olson RK, Lefohn AS (eds) Effects of Air Pollution on Western Forests. Transactions Series, No. 16, Air & Waste Management Association, Pittsburgh, pp 469–492Google Scholar
  68. Horn JL, Riechers GH (1991) Carbon assimilation, allocation, and nutrient use efficiency of ponderosa pine as a compensatory response to ozone fumigation and water stress. Ecological Society of America Bulletin 72(2) (Supplement): 144Google Scholar
  69. Houpis JLJ (1989) Seasonal Effects of Sulfur Dioxide on the Physiology and Morphology ofPinus ponderosa Seedlings. PhD dissertation, University of California, Berkeley, 256 pGoogle Scholar
  70. Huttunen S (1984) Interactions of disease and other stress factors with atmospheric pollution. In: Treshow M (ed) Air Pollution and Plant Life. John Wiley & Sons, Ltd, New York, pp 321 – 356Google Scholar
  71. Huttunen S, Laine K (1983) Effects of air-borne pollutants on the surface wax structure of Pinus sylvestrisneedles. Annals Bot. Fennici20: 79–86Google Scholar
  72. Huttunen S, Laine K, Torvela H (1985) Seasonal sulphur contents of pine needles as indices of air pollution. Annals Bot. Fennici22: 343–359Google Scholar
  73. Jacobson JS, Lassoie JP, Osmeloski J, Yamada K (1989) Changes in foliar elements in red spruce seedlings after exposure to sulfuric and nitric acid mist. Water, Air and Soil Pollution48: 141–159Google Scholar
  74. Jones T, Mansfield TA (1982) Studies on dry matter partitioning and distribution of 14C-labelled assimilates of Phleum pratenseexposed to SO2pollution. Environmental Pollution Series A28: 199–207Google Scholar
  75. Karenlampi L (1986) Relationship between macroscopic symptoms of injury and cell structural changes in needles of ponderosa pine exposed to air pollution in California. Annals Bot. Fennici23: 255–264Google Scholar
  76. Karenlampi L (1987) Visible symptoms and mesophyll cell structural responses to air pollution in two lowland pines (Pinus radiataand P. halepensis) in southern California. Savonia9: 1–12Google Scholar
  77. Karenlampi L, Soikkeli S (1980) Morphological and fine structural effects of different pollutants on plants: Development and problems of research. In: Effects of Airborne Pollution on Vegetation Symposium. United Nations, Warsaw, Poland, pp 92–99Google Scholar
  78. Karolewski P (1985) The role of free proline in the sensitivity of poplar (Populus″Robusta″) plants to the action of SO2. European Journal of Forest Pathology 15: 199–206Google Scholar
  79. Keane DT, Manning WJ (1988) Effects of ozone and simulated acid rain on birch seedlings growth and formation of ectomycorrihizae. Environmental Pollution53: 55–65Google Scholar
  80. Keeling CD, Bacastow RB, Bainbridge AE, Ekdahl CA Jr, Guenther PR, Waterman LS, Chin JFS (1976) Atmospheric carbon dioxide variations at Mauna Loa Observatory, Hawaii. Tellus28: 779–788Google Scholar
  81. Keller T, Hasler R (1987) Some effects of long-term ozone fumigation on Norway spruce, I: Gas-exchange and stomatal response. Trees1: 129–133Google Scholar
  82. Knudson LL, Tibbits TW, Edwards GE (1977) Measurement of ozone injury by determination of leaf chlorophyll concentrations. Plant Physiology60: 606–608PubMedCentralPubMedGoogle Scholar
  83. Kohut RJ, Laurence JA, Amundson RG, Raba RM, Melkonian JJ (1990) Effects of ozone and acidic precipitation on the growth and photosynthesis of red spruce after two years of exposure. Water, Air, and Soil Pollution51: 227–286Google Scholar
  84. de Konig H, Jagier Z (1970) Effects of aldehydes on photosynthesis and respiration of Euglena gracilis. Archives of Environmental Health20: 720–722Google Scholar
  85. Kozlowski TT, Constantinedou HA (1986) Responses of woody plants to environmental pollution. Forestry Abstracts47: 1–51Google Scholar
  86. Kramer PJ, Kozlowski TT (1979) Physiology of Woody Plants. Academic Press, Inc, Orlando, 811 pGoogle Scholar
  87. Kress LW, Skelly JM (1982) Response of eastern forest tree species to chronic doses of ozone and nitrogen dioxide. Plant Diesease66: 1149–1152Google Scholar
  88. Krupa SV, Manning WJ (1988) Atmospheric ozone: Formation and effects on vegetation. Environmental Pollution50: 101–137PubMedGoogle Scholar
  89. Legge AH, Bogner JC, Krupa SV (1988) Foliar sulphur species in pine: A new indicator of a forest ecosystem under air pollution stress. Environmental Pollution55: 15–27PubMedGoogle Scholar
  90. L′Hirondelle SJ, Addison PA (1985) Effects of SO2 on leaf conductance, xylem tension, fructose and sulphur levels of Jack pine seedlings. Environmental Pollution39: 373–386Google Scholar
  91. Malhotra SS (1977) Effects of aqueous sulphur dioxide on chlorophyll destruction in Pinus contorta. New Phytologist78: 101–109Google Scholar
  92. Malhotra SS, Khan AA (1978) Effects of sulfur dioxide fumigation on lipid biosynthesis in pine needles. Phytochemistry17: 241–244Google Scholar
  93. Mansfield TA, Majernik O (1970) Can stomata play a part in protecting plants against air pollutants? Environmental Pollution1: 149–154Google Scholar
  94. Marshall JD, Cadle SH (1989) Evidence for trans-cuticular uptake of HNO3 vapor by foliage of eastern white pine (Pinus strobusL.). Environmental Pollution60: 15–28PubMedGoogle Scholar
  95. Masuch G, Kettrup A, Mallant RKAM, Slanina J (1986) Effects of H2O2 - containing acidic fog on young trees. International Journal of Environmental and Analytical Chemistry27: 183–213Google Scholar
  96. Mayo JM, Hartgerink AP, Legge AH (1986) Sulphur gas emissions in the boreal forest: The West WTiitecourt case study, VI: Woody plant water stress. Water, Air, and Soil Pollution29: 113–127Google Scholar
  97. McLaughlin SB (1985) Effects of air pollution on forests: A critical review. Journal of Air Pollution Control Association35: 512–534Google Scholar
  98. McLaughlin SB, McConathy RK (1983) Effects of SO2 and O2 on allocation of 14C-labeled photosynthate in Phaseolus vulgaris. Plant Physiology73: 630–635PubMedCentralPubMedGoogle Scholar
  99. Mehlhorn H, Wellburn AR (1987) Stress ethylene formation determines plant sensitivity to ozone. Nature327: 417–418Google Scholar
  100. Mehlhorn H, Seufert G, Schmidt A, Kunert KJ (1986) Effects of SO2 and O3 on production of antioxidants in conifers. Plant Physiology82: 336–338PubMedCentralPubMedGoogle Scholar
  101. Mehlhorn H, Cottam DA, Lucas PW, Wellburn AR (1987) Induction of ascorbate peroxidase and glutathione reductase activities by interactions of mixtures of air pollutants. Free Radical Research Communications3: 1–5Google Scholar
  102. Mehlhorn H, O′Shea JM, Wellburn AR (1991) Atmospheric ozone interacts with stress ethylene formation by plants to cause visible plant injury. Journal of Experimental Botany42: 17–24Google Scholar
  103. Miller JE, Xerikos PB (1979) Residence time of sulfite in SO2 ″sensitive″ and ″tolerant″ soybean cultivars. Environmental Pollution18: 259–264Google Scholar
  104. Miller PR (1983) Ozone effects in the San Bernardino National Forest. In: Air Pollution and the Productivity of the Forest, Symposium Proceedings. Pennsylvania State University Press, State College, PA, pp 161– 197Google Scholar
  105. Miller PR, McBride JR (1975) Effects of air pollutants on forests. In: Mudd JB, Kozlowski TT (eds) Responses of Plants to Air Pollution. Academic Press, New York, pp 196–235Google Scholar
  106. Miller PR, Millecan AA (1971) Extent of oxidant air pollution damage to some pines and other conifers in California. Plant Disease Report55: 555–559Google Scholar
  107. Miller PR, Parmeter JR Jr, Taylor OC, Cardiff EA (1963) Ozone injury to the foliage of Pinus ponderosa. Phytopathology53: 1072–1076Google Scholar
  108. Miller PR, Parmeter JR Jr, Flick BH, Martinez CW (1969) Ozone dosage response of ponderosa pine seedlings. Journal of Air Pollution Control Association19: 435–438Google Scholar
  109. Molski B, Bytnerowicz A, Dmuchowski W (1983) Mapping air pollution of forests and agricultural areas of Poland by sulfur accumulation in pine (Pinus sylvestrisL.) needles. Aquilo Seria Botanica19: 326–331Google Scholar
  110. Mudd JB (1982) Effects of oxidants on metabolic function. In: Unsworth MH, Ormrod DP (eds) Effects of Gaseous Air Pollution in Agriculture and Horticulture. Butterworth, London, pp 189–203Google Scholar
  111. Mudd JB, Kozlowski TT (1975) Responses of Plants to Air Pollution. Academic Press, NYGoogle Scholar
  112. Mudd JB, Banerjee SK, Dooley MM, Knight KL (1984) Pollutants and plant cells: Effects on membranes. In: MJ Koziol, FR Whatley (eds) Gaseous Pollutants and Plant Metabolism. Butterworth, London, pp 105–116Google Scholar
  113. National Academy of Sciences (1977) Nitrogen Oxides. Committee on Medical and Biological Effects of Environmental Pollutants Washington, DC, 333 pGoogle Scholar
  114. Neuman LE, Houpis LJL, Anderson PD (1991) Trends in Pinus ponderosa foliar pigment concentration due to chronic exposure of ozone and acid rain. Supplement to Plant Physiology96: 172Google Scholar
  115. Nikolaevskii VC, Kaziekina LP, Vidiakina OA (1976) Traslokacija siery rastieniiami pri pogloschcheni siernistogo gasa listiami. Rastieniia i Promyschliennaia Srieda, Naukova Dumka, Kiev, 112–114Google Scholar
  116. Norby RJ, Weeresurija Y, Hanson PJ (1989) Induction of nitrate reductase activity in red spruce needles by NO2 and HNO3 vapor. Canadian Journal of Forest Research19: 889–896Google Scholar
  117. Oquist G, Wass R (1988) A portable microprocessor instrument for measuring chlorophyll fluorescence kinetics in stress physiology. Physiologia Plantarum73: 211–217Google Scholar
  118. Papageorgiu G (1975) Chlorophyll fluorescence: An intrinsic probe of photosynthesis. In: Govindjee R (ed) Bioenergetics of Photosynthesis. Academic Press, New York, pp 319–371Google Scholar
  119. Parry MAJ, Whittingham CP (1984) Effects of gaseous air pollutants on stromal reactions. In: Koziol MJ, Whatley FR (eds) Gaseous Air Pollutants and Plant Metabolism. Buttersworth, London, pp 161–168Google Scholar
  120. Patterson MT, Rundel PW (1989) Seasonal physiological responses of ozone stressed Jeffrey pine in Sequoia National Park, California. In: Olson RK, Lefohn AS (eds) Effects of Air Pollution on Western Forests. Transactions Series, No. 16, Air & Waste Management Association, Pittsburgh, pp 419–428Google Scholar
  121. Peterson DL, Arbaugh MJ, Robinson LJ (1988) The effects of ozone stress on tree growth and vigor in the Sierra Nevada of California, USA. In: Bucher JB, Bucher-Wallin I (eds) Air Pollution and Forest Decline. IUFRO P2.05, Interlaken, Switzerland, pp 289–294Google Scholar
  122. Rabinowitz HD, Fridowich J (1983) Superoxide radicals, superoxide dismutases and oxygen toxicity in plants. Photochemical Photobiology37: 679–690Google Scholar
  123. Reich PB, Schoettle AW, Stroo HF, Troiano J, Amundson RG (1987) Effects of ozone and acid rain on white pine (Pinus strobus) seedlings grown in five soils, I: Net photosynthesis and growth. Canadian Journal of Botany65: 977–987Google Scholar
  124. Reich PB, Schoettle AW, Stroo HF, Troiano J, Amundson RG (1988) Effects of ozone and acid rain on white pine (Pinus strobus) seedlings grown in five soils, III: Nutrient relations. Canadian Journal of Botany66: 1517–1531Google Scholar
  125. Reinert RA, Heagle AS, Heck WW (1975) Plant responses to pollutant combinations. In: Mudd JB, Kozlowski TT (eds) Responses of Plants to Air Pollution. Academic Press, New York, pp 159–187Google Scholar
  126. Rennenberg H (1982) Glutathione metabolism and possible biological roles in higher plants. Biochemistry21: 2771–2781Google Scholar
  127. Rennenberg H (1984) The fate of excess sulfur in higher plants. Annual Review of Plant Physiology35: 121–153Google Scholar
  128. Rennenberg H, Polle A (1989) Effects of photooxidants on plants. In: Georgii H-W (ed) Mechanisms and Effects of Pollutant-Transfer into Forests. Kluwer Academic Publishers, pp 251–258Google Scholar
  129. Rennenberg H, Huber B, Schroder P, Stahl K, Haunold W, Georgii H-W, Slovik S, Pfanz H (1990) Emission of volatile sulfur compounds from spruce trees. Plant Physiology92: 560–564PubMedCentralPubMedGoogle Scholar
  130. Richards BL Sr, Taylor OC, Edmunds GF Jr (1968) Ozone needle mottle of pine in southern California. Journal of Air Pollution Control Association 18-73–77Google Scholar
  131. Rinallo C, Raddi P, diLondardo V (1986) Effects of simulated acid deposition on the surface structure of Norway spruce and silver fir needles. European Journal of Forest Pathology16: 440–446Google Scholar
  132. Roberts BR (1976) The response of field-grown white pine seedlings to different sulphur dioxide environments. Environmental Pollution11: 175–180Google Scholar
  133. Robinson DC, Wellburn AR (1983) Light-induced changes in the quenching of 9-amino-acridine fluorescence by photosynthetic membranes due to atmospheric pollutants and their products. Environmental Pollution32: 109–120Google Scholar
  134. Roehm JN, Hadley JG, Menzel DB (1971) Oxidation of unsaturated fatty acids by ozone and nitrogen dioxide. Archives of Environmental Health23: 142–148PubMedGoogle Scholar
  135. Sabaratnam S, Gupta G, Mulchi C (1988) Effects of nitrogen dioxide on leaf chlorophyll and nitrogen content of soybean. Environmental Pollution51: 113–120PubMedGoogle Scholar
  136. Sandhu R, Gupta G (1989) Effects of nitrogen dioxide on growth and yield of black turtle bean (Phaseolus vulgarisL.) cv Domino. Environmental Pollution59: 337–344PubMedGoogle Scholar
  137. Sasek TW, Richardson CJ (1989) Effects of chronic doses of ozone on loblolly pine: Photosynthetic characteristics in the third growing season. Forest Science35 (3): 745–755Google Scholar
  138. Sauter JJ, Voss U (1986) SEM-observations on the structural degradation of epistomatal waxes in Picea abiesL. Karst. —and its possible role in the ″Fichtensterben.″ European Journal of Forest Pathology16: 408–423Google Scholar
  139. Scherbatskoy T, Klein RM (1983) Response of spruce and birch foliage to leaching by acidic mists. Journal of Environmental Quality12: 189–195Google Scholar
  140. Schmidt W, Neubauer C, Kolbowski J, Schreiber U, Urbach W (1990) Comparison of effects of air pollutants (SO2, O3, NO2) on intact leaves by measurements of chlorophyll fluorescence and P700 absorbance changes. Photosynthetic Research25: 241–248Google Scholar
  141. Schreiber U, Vidaver W, Runeckles VC, Rosen P (1978) Chlorophyll fluorescence assay for ozone injury in intact plants. Plant Physiology61: 80–84PubMedCentralPubMedGoogle Scholar
  142. Sekiya J, Wilson LG, Filner P (1982) Resistance to injury by sulfur dioxide. Plant Physiology70: 437–441PubMedCentralPubMedGoogle Scholar
  143. Shafer SR, Heagle AS (1989) Growth responses of field-grown loblolly pine to chronic doses of ozone during multiple growing seasons. Canadian Journal of Forest Research19: 821–831Google Scholar
  144. Shriner DS, Heck WW, McLaughlin SB, Johnson DW, Irving PM, Joslin JD, Peterson CW (1990) Response of vegetation to atmospheric deposition and air pollution. NAPAP SOS/T Report 18. In: Acidic Deposition: State of Science and Technology, Volume III, National Acid Precipitation Assessment Program, 722 Jackson Place NW, Washington, DC 20503Google Scholar
  145. Skeffington RA, Roberts TM (1985) The effects of ozone and acid mist on Scots pine saplings. Oecologia65: 201–206Google Scholar
  146. Smith WH (1974) Forest and air quality. Journal of Foresty83: 82–92Google Scholar
  147. Soikkeli S (1980) infrastructure of the mesophyll in Scots pine and Norway spruce: Seasonal variation and molarity of the fixative buffer. Protoplasma 103:241–252Google Scholar
  148. Solomon PA, Fall T, Salmon L, Lin P, Vasquez F, Cass GR (1989) Acquisition of Acid Vapor and Aerosol Concentrations Data for Use in Dry Deposition Studies in the South Coast Air Basin. Report to the California Air Resources Board, Contract No. A4-144-32Google Scholar
  149. Spaleny J (1977) Sulphate transformation to hydrogen sulphide in spruce seedlings. Plant Soil48: 557–563Google Scholar
  150. Sugahara K (1984) Effects of air pollutants on light reactions in chloroplasts. In: Koziol MF, Whatley FR (eds) Gaseous Air Pollutants and Plant Metabolism. Buttersworth, London, pp 169–180Google Scholar
  151. Sugahara K (1984) Effects of air pollutants on light reactions in chloroplasts. In: Koziol MF, Whatley FR (eds) Gaseous Air Pollutants and Plant Metabolism. Buttersworth, London, pp 169–180Google Scholar
  152. Tanaka K, Sugahara K (1980) Role of superoxide dismutase in the defense against SO2 toxicity and induction of superoxide dismutase with SO2 fumigations. In: Studies on the Effects of Air Pollutants on Plants and Mechanisms of Phytotoxicity. Research Report National Institute Environmental Studies No. 11, pp 155–179Google Scholar
  153. Taylor GE Jr (1978) Genetic analysis of ecotypic differentiation within an annual plant species, Geranium carolinianumL., in response to sulfur dioxide. Botanical Gazette139: 326–368Google Scholar
  154. Taylor GE Jr, Norby RJ, McLaughlin SB, Johnson AH, Turner RS (1986) Carbon dioxide assimilation and growth of red spruce (Picea rubensSarg.) seedlings in response to ozone, precipitation chemistry, and soil type. Oecologia70: 163–171Google Scholar
  155. Taylor GE Jr, Hanson PJ, Baldocchi DD (1989) Pollutant deposition to individual leaves and plant canopies: Sites of regulation and relationship to injury. In: Heck WW, Taylor OC, Tingey DT (eds) Assessment of Crop Loss from Air Pollutants. Elsevier Applied Sciences, LondonGoogle Scholar
  156. Taylor OC (1984) Organismal responses of higher plants to atmospheric pollutants: Photochemical and other. In: Treshow M (ed) Air Pollution and Plant Life. John Wiley & Sons Ltd, pp 215 – 238Google Scholar
  157. Temple PJ (1988) Injury and growth of Jeffrey pine and giant sequoia in response to ozone and acidic mist. Environmental Experimental Botany28: 323–333Google Scholar
  158. Teskey RO, Bongarten BC, Cregg BM, Dougherty PM, Hennessey TC (1986) Stomatal and non-stomatal limitations to net photosynthesis in Pinus taedaL. under different environmental conditions. Tree Physiology3: 41–61Google Scholar
  159. Tingey DT, Olszyk D (1982) Intraspecific variability in metabolic responses to S02. In: Winner WE, Mooney HA, Goldstein R (eds) Sulfur Dioxide and Vegetation: Physiology, Ecology, and Policy Issues. Stanford University Press, Stanford, CAGoogle Scholar
  160. Tingey DT, Rodecap KD, Lee EH, Moser TJ, Hogsett WE (1986) Ozone alters the concentrations of nutrients in bean tissue. Angew. Botanik60: 481–493Google Scholar
  161. Tolley LC, Strain BR (1985) Effects of CO2 enrichment and water stress on gas exchagne of Liquidambar styracifluaand Pinus taedaseedlings grown under different irradiance levels. Oecologia65: 166–172Google Scholar
  162. Tseng EC, Seiler JR, Chevone BI (1988) Effects of ozone and water stress on greenhouse-grown Fraser fir seedling growth and physiology. Environmental Experimental Botany28 (1): 37–41Google Scholar
  163. Turner DP, Tingey DT (1990) Foliar leaching and root uptake of Ca, Mg and K in relation to acid fog effects on Douglas-fir. Water, Air, and Soil Pollution49: 205–214Google Scholar
  164. Turner DP, Tingey DT, Hogsett WE (1989) Acid fog effects on conifer seedlings. In: Bucher JB, Bucher-Wallin I (eds) Air Pollution and Forest Decline, Proceedings of the 14th International Meeting for Specialists in Air Pollution Effects on Forest Ecosystems. IUFRO P2.05, Interlaken, Switzerland, October 2–8,1988, Birmensdorf, pp 125–129Google Scholar
  165. Turunen M, Huttunen S (1990) A review of the response of epicuticular wax of conifer needles to air pollution. Journal of Environmental Quality19: 35–45Google Scholar
  166. Turunen M, Huttunen S (1991) Effects of simulated acid rain on the epicuticular wax of Scots pine needles under northerly conditions. Canadian Journal of Botany69: 412–419Google Scholar
  167. Unsworth MH, Bisce PV, Pinckney HR (1972) Stomatal responses to SO2. Nature239: 458Google Scholar
  168. Waldman JM, Munger JW, Jacob DJ, Flagan RC, Morgan JJ, Hoffman MR (1982) Chemical composition of acid fog. Science218: 677–680PubMedGoogle Scholar
  169. Waldman JM, Munger JW, Jacob DJ, Hoffman MR (1985) Chemical characterization of stratus cloudwater and its role as a vector for pollutant deposition in a Los Angeles pine forest. Tellus37B: 91–108Google Scholar
  170. Wallick K (1990) Basil chlorosis: a physiological disorder in CO2-enriched atmospheres. Plant Disease74: 171–173Google Scholar
  171. Weigel HJ, Halbwachs G, Jager HJ (1989)The effects of air pollutants on forest trees from a plant physiological view. Journal of Plant Disease Protection 96:203–217Google Scholar
  172. Wellburn AR (1988) Air Pollution and Acid Rain: The Biological Impact. Longman Scientific & Technical, Burnt Mill, EnglandGoogle Scholar
  173. Wellburn AR (1990) Tansley Review No. 24. Why are atmospheric oxides of nitrogen usually phytotoxic and not alternative fertilizers? New Phytology115: 395–429Google Scholar
  174. Westman WE, Temple PJ (1989) Acid mist and ozone effects on the leaf chemistry of two western conifer species. Environmental Pollution57: 9–26PubMedGoogle Scholar
  175. Wilson LG, Bressan RA, Fielner P (1978) Light-dependent emission of hydrogen sulfide from plants. Plant Physiology61: 184–189PubMedCentralPubMedGoogle Scholar
  176. Wingsle G, Nasholm T, Lundmark T, Ericsson A (1987) Induction of nitrate reductase in needles of Scots pine by NOx and NO3 -. Physiologia Plantarum70: 399–403Google Scholar
  177. Winner WE, Cotter IS, Powers HR, Skelly JM (1987) Screening loblolly pine seedling responses to SO2 and O3: Analysis of families differing in resistance to fusiform rust disease. Environmental Pollution47: 205–220PubMedGoogle Scholar
  178. Yoneyama T, Sasakawa H (1979) Transformation of atmospheric NO2 absorbed by spinach leaves. Plant and Cell Physiology20: 263–266Google Scholar
  179. Yoshida S, Vemura M (1984) Protein and lipid compositions of isolated plasma membranes from orchard grass (Dactylis glomerataL.) and changes during cold acclimation. Plant Physiology75: 31–37PubMedCentralPubMedGoogle Scholar
  180. Zeevaart AJ (1976) Some effects of fumigating plants for short periods with NO2. Environmental Pollution11: 97–108Google Scholar
  181. Zielke HR, Filner P (1971) Synthesis and turnover of nitrate reductase induced by nitrate in cultured tobacco cells. Journal of Biological Chemistry246: 1772–1779PubMedGoogle Scholar
  182. Ziegler (1973) The effects of air-polluting gases on plant metabolism. Environmental Quality Safety2: 182–208Google Scholar

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© Springer Science+Business Media New York 1992

Authors and Affiliations

  • A. Bytnerowicz
  • N. E. Grulke

There are no affiliations available

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