Abstract
Lichens are extremely efficient accumulators of chemical elements which are taken up from substrate solutions, deposited aerosols and rain; their thalli, particularly those with soralia or isidia, provide effective surfaces for uptake. In some cases, lichens can be severely affected by heavy metals, the latter’s presence in all probability exacerbating the damaging effects of sulphur dioxide pollution [25, 26, 44], and strong correlations between pollution level, lichen distribution and chemical uptake are often observed. To what extent many of these elements are usefully employed in the lichen thallus is as yet unknown [76]; many lichens certainly show a resilience to heavy metal uptake, and high concentrations have been determined in species growing on metal-enriched soils [61, 68].
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References
Aakrog, A. (1988) The radiological impact of the Chernobyl debris compared with that from nuclear weapons fallout, Journal of Environmental Radioactivity 6, 151–162.
Akcay, H. (1995) Deposition of fission product radionuclides in lichens and coniferous plants in Turkey, Journal of Radioanalytical and Nuclear Chemistry, Letters 200, 147–158.
Akcay, H. and Ardisson, G. (1988) Radioactive pollution of Turkish biotas one year after the Chernobyl accident, Journal of Radioanalytical and Nuclear Chemistry 128, 273–281.
Akcay, H. and Kesercioglu, T. (1990) A systematic study on the West Anatolia lichens related to the Chernobyl fallout, Doga-Tr, Journal of Engineering and Environmental Science 14, 28–38.
Baeza, A., Miro, C., Paniagua, J.M., Navarro, E., Rodriguez, M.J., and Sanchez, F. (1994) Natural and artificial radioactivity levels in Livingston Island (Antarctic regions), Bulletin of Environmental Contamination and Toxicology 52, 117–124.
Barci, G., Dalmasso, J., and Ardisson, G. (1988) Chernobyl fallout measurements in some Mediterranean biotas, The Science of the Total Environment 70, 373–387.
Bartok, K. and Mocsy, I. (1990) Studies upon lichen radioactivity, Revue Roumaine de Biologie, Biol. Veget. 35, 61–65.
Bartok, K., Mocsy, I., Bolyos, A., and Dezso, Z. (1998) Studies on 137Cs content in lichens in mountain regions of Romania, Sauteria 9, 249–256.
Baskaran, M., Kelley, J.J., Naidu, A.S., and Holleman, D.F. (1991) Environmental radiocesium in subarctic and arctic Alaska following Chernobyl, Arctic 44, 346–350.
Biazrov, L.G. (1993) Lichens as indicators of radioactive contamination, Journal of Radioecology 1, 15–20.
Biazrov, L.G. (1994) The radionuclides in lichen thalli in Chernobyl and east Urals areas after nuclear accidents, Phyton 34, 85–94.
Biazrov, L.G., Desmet, G., Janssens, A., and Melin, J. (1994) Radionuclide content in lichen thallus in the forest adjacent to the Chernobyl atomic power plant, The Science of the Total Environment 157, 25–28.
Bretten, S., Gaare, E., Skogland, T., and Steinnes, E. (1992) Investigations of radiocaesium in the natural terrestrial environment in Norway following the Chernobyl accident, Analyst 117, 501–503.
Chant, L.A., Andrews, H.R., Comett, R.J., Koslowsky, V., Milton, J.C.D., van den Berg, G.J., Verbürg, T.G., and Wolterbeek, H.T. (1996) 129I and 36C1 concentrations in lichens collected in 1990 from three regions around Chernobyl, Applied Radiation Isotopes 47, 933–937.
Chibowski, S., Solecki, Y., and Bystrek, J. (1998) The examination of gamma-emitter contamination level of the lichens from eastern and south-eastern Poland, collected in the years 1949-1996, Journal of Radioanalytical and Nuclear Chemistry 230, 319–322.
Eckl, P., Hofmann, W., and Türk, R. (1986) Uptake of natural and man-made radionuclides by lichens and mushrooms, Radiation and Environmental Biophysics 25, 43–54.
Eckl, P., Türk, R., and Hofmann, W. (1984) Natural and man-made radionuclide concentrations in lichens at several locations in Austria, Nordic Journal of Botany 4, 521–524.
Elkin, B.T., and Bethke, R.W. (1995) Environmental contaminants in caribou in the Northwest Territories, Canada, The Science of the Total Environment 160/161, 307–321.
Ellis, K.M. and Smith, J.N. (1987) Dynamic model for radionuclide uptake in lichen, Journal of Environmental Radioactivity 5, 185–208.
Feige, G.B., Niemann, L., and Jahnke, S. (1990) Lichens and mosses — silent chronists of the Chernobyl accident, Bibliotheca Lichenologica 38, 63–77.
Gaare, E. (1987) The Chernobyl accident: can lichens be used to characterize a radiocesium contaminated range?, Rangifer 7, 46–50.
Gaare, E. (1990) Lichen content of radiocesium after the Chernobyl accident in mountains in southern Norway, in G. Desmet, P. Nassimbeni and M. Belli (eds.), Transfer of Radionuclides in Natural and Semi-natural Environments, Elsevier, London, 492, 501.
Godoy, J.M., Schuch, L.A., Nordemann, D.J.R., Reis, V.R.G., Ramalho, M., Recio, J.C., Brito, R.R.A., and Olech, M.A. (1998) 137Cs, 226,228Ra, 210Pb and 40K concentrations in Antarctic soil, sediment and selected moss and lichen samples, Journal of Environmental Radioactivity 41, 33–45.
Gorham, E. (1959) A comparison of lower and higher plants as accumulators of radioactive fall-out, Canadian Journal of Botany 37, 327–329.
Goyal, R. and Seaward, M.R.D. (1982) Metal uptake in terricolous lichens. II. Effects on the morphology of Peltigera canina and Peltigera rufescens, New Phytologist 90, 73–84.
Goyal, R. and Seaward, M.R.D. (1981) Metal uptake in terricolous lichens. I. Metal localization within the thallus, New Phytologist 89, 631–645.
Hanson, W.C. (1967) Caesium-137 in Alaskan lichens, caribou, and eskimos, Health Physics 13, 383–389.
Heinrich, G. and Remele, K. (1996) 137Cs, 90Sr, K+, and Ca++ in lichens, mosses and vascular plants of a mountain area in Styria, Austria, Mitteilungen der Österreichischen Bodenkundl. Gesellschaft 53, 243–250.
Heinrich, G., Muller, H.J., Oswald, K., and Gries, A. (1989) Natural and artificial radionuclides in selected Styrian soils and plants before and after the reactor accident in Chernobyl, Biochemie und Physiologie der Pflanzen 185, 55–67.
Heinrich, G., Muller H.J., Oswald, K., and Wolkinger, F. (1989) Natürliche und Tschernobylverursachte Radionuklide in einigen Wasser-und Landpflanzen in Steiermark und Kärnten, Phyton 29, 61–68.
Holleman, D.F., Whire, R.G., and Allaye-Chan, A.C. (1990) Modelling of radiocesium transfer in the lichen-reindeer/caribou-wolf food chain, Rangifer, Special Issue 3, 39–42.
Holm, E., and Persson, B.R.R. (1975) Fall-out plutonium in Swedish reindeer lichen, Health Physics 29, 43–51
Holm, E. and Rioseco, J. (1987) 99Tc in the sub-arctic food chain lichen-reindeer-man, Journal of Environmental Radioactivity 5, 343–357.
Jacquiot, L. and Daillant, O. (1999) Bio-accumulation des radioelements par les lichens: revue bibliographique, Bulletin de l’Obervatoire Mycologique. 16, 2–23.
Jones, B.-E.V., Eriksson, O., and Nordkvist, M. (1989) Radiocesium uptake in reindeer pasture, The Science of the Total Environment 85, 207–212.
Kondratyuk, S.Y., Navrotska, I.L., Brun, G.O., Beznis, N.G., Gizbullina, V.K., Izotova, N.V., and Lyugin, V.O. (1994) Study of radionuclide accumulation by lichens in the Ukraine, Ukrayinskyi Botanischnyi Zhurnal 51, 46–52, (in Ukrainian).
Kwapulinski, J., Seaward, M.R.D., and Bylinska, E.A. (1985) 137Caesium content of Umbilicaria species, with particular reference to altitude, The Science of the Total Environment 41, 125–133.
Kwapulinski, J., Seaward, M.R.D., and Bylinska, E.A. (1985) Uptake of 226Radium and 228Radium by the lichen genus Umbilicaria, The Science of the Total Environment 41, 135–141.
Lawrey, J.D. and Hale, M.E. (1981) Retrospective study of lead accumulation in the northeastern United States, The Bryologist 84, 449–456.
Mable, T. (1987) Sytuacja w Polsce w Zakresie Skazen Promieniotworczych po Awarii Radiologicznej w Czarnobylu, Chemiczne Zagrozenia Srodowiska w Polsce, Uniwersytet Marii Curie-Sklodowskiej, Lublin.
Martin, L., Nifontova, M., and Martin, J. (1991) Radionuclides variation in macrolichens in Estonia after the Chernobyl accident, Proceedings of the Estonian Academy of Science, Ecol. 1, 42–51.
Mattsson, L.J.S. (1972) Sodium-22 in the foodchain: lichen-reindeer-man, Health Physics 23, 223–230.
Mattsson, L.J.S. (1975) 137Cs in the reindeer lichen Cladonia alpestris: desposition, retention and internal distribution, 1961-1970, Health Physics 28, 233–248.
Nieboer, E., Ahmed, H.M., Puckett, K.J., and Richardson, D.H.S. (1972) Heavy metal content of lichens in relation to distance from a nickel smelter in Sudbury, Ontario, Lichenologist 5, 292–304.
Nifontova, M.G. (1998) Concentrations of long-lived artificial radionuclides in the moss-lichen cover of terrestrial ecosystems in the Ural-Siberian region, Russian Journal of Ecology 29, 196–200.
Nifontova, M.G. and Alexashenko, V.N. (1992) Content of 90Sr and 134,137Cs in fungi, lichens, and mosses in the vicinity of the Chernobyl nuclear power plant, Soviet Journal of Ecology 23, 152–155.
Nifontova, M.G. and Kulikov, N.V. (1981) 90Sr and 137Cs accumultion by some lower plants in the vicinity of Beloyarsk nuclear power station in the Urals, Ekologiya 12, 94–97 (in Russian).
Nifontova, M.G., Lebedeva, A.V., and Kulikov, N.V. (1979) Accumulation of 90Sr and 137Cs in live and dead lichens, Ekologiya 10, 94–97 (in Russian).
Nimis, P.L. (1996) Radiocesium in Plants of Forest Ecosystems, Studia Geobotanica 15, 3–49.
Paatero, J. and Jaakkola, T. (1994) Determination of the 241Pu deposition in Finland after the Chernobyl accident, Radiochimica Acta 64, 139–144.
Paatero, J., Jaakkola, T., and Kulmala, S. (1998) Lichen (sp. Cladonia) as a deposition indicator for transuranium elements investigated with the Chernobyl accident, Journal of Environmental Radioactivity 38, 223–247.
Papastefanou, C., Manolopoulou, M., and Charalambous, S. (1988) Radiation measurements and radioecological aspects of fallout from the Chernobyl reactor accident, Journal of Environmental Radioactivity 7, 49–64.
Richardson, D.H.S. (1992) Pollution Monitoring with Lichens, Richmond Publishing, Slough.
Rissanen, K. (1992) Lichens and plants obtained from permanent study plots in northern Finland as bioindicators for radioactive fallout, in E. Tikkanen, M. Varmola and T. Katermaa (eds.), Symposium on the State of the Environment and Environmental Monitoring in Northern Fennoscandia and the Kola Peninsula, University of Lapland Arctic Centre, Rovaniemi, pp. 320–322.
Rissanen, K. and Rahola, T. (1989) Cs-137 concentration in reindeer and its fodder plants, The Science of the Total Environment 85, 199–206.
Rissanen, K. and Rahola, T. (1990) Radiocesium in lichens and reindeer after the Chernobyl accident, Rangifer Special Issue 3, 55–61.
Roos, P., Holm, E., Persson, R.B.R., Aarkrog, A., and Nielsen, S.P. (1994) Deposition of 210Pb, 137Cs, 239+240Pu, 238Pu, and 241Am in the Antarctic Peninsula area, Journal of Environmental Radioactivity 24, 235–251.
Roos, P., Samuelson, C., and Mattsson, S. (1991) 137Cs in the lichen Cladina stellaris before and after the Chernobyl accident, in L. Moberg (ed.), The Chernobyl Fallout in Sweden, Swedish Radiation Protection Institute, Stockholm, pp. 389–400.
Saka, A.Z., Cevik, U., Bacaksuz, E., Kopya, A.I., and Tirasoglu, E. (1997) Levels of cesium radionuclides in lichens and mosses from the province of Ordu in the eastern Black Sea area of Turkey, Journal of Radioanalytical and Nuclear Chemistry 222, 87–92.
Sawidis, T. (1988) Uptake of radionuclides by plants after the Chernobyl accident, Environmental Pollution 50, 317–324.
Seaward, M.R.D. (1973) Lichen ecology of Scunthorpe heathlands. I. Mineral accumulation, Lichenologist 5, 423–433.
Seaward, M.R.D. (1991) Biomonitoring radionuclides in eastern Europe, pre-and post-Chernobyl, in Z. Ayvaz (ed.), Environmental Pollution and Control, Ege University, Izmir, pp 80–89.
Seaward, M.R.D. (1992) Lichens, Silent Witnesses of the Chernobyl Disaster, Inaugural lecture, University of Bradford, Bradford.
Seaward, M.R.D. (1994) Measuring up to disaster: the necessity for valid baseline data, Disaster Prevention Management 3 (4), 17–26.
Seaward, M.R.D. (1995) Use and abuse of heavy metal bioassays in environmental monitoring, The Science of the Total Environment 176, 129–134.
Seaward, M.R.D., Bylinska, E.A., and Goyal, R. (1981) Heavy metal content of Umbilicaria species from the Sudety region of S.W. Poland, Oikos 36, 107–113.
Seaward, M.R.D., Heslop, J.A., Green, D., and Bylinska, E.A. (1988) Recent levels of radionuclides in lichens from southwest Poland with particular reference to 134Cs and 137Cs, Journal of Environmental Radioactivity 7, 123–129.
Shimwell, D.W. and Laurie, A.E. (1972) Lead and zinc contamination of vegetation in the southern Pennines, Environmental Pollution 3, 291–301.
Sloof, J.E. and Wolterbeek, B.T. (1992) Lichens as biomonitors for radiocaesium following the Chernobyl accident, Journal of Environmental Radioactivity 16, 229–242.
Smith, D.C., and Molesworth, S. (1973) Lichen physiology. XIII. Effects of rewetting dry lichens, New Phytologist 72, 525–533.
Smith, F.B. and Clark, M.J. (1986) Radionuclide deposition from the Chernobyl cloud, Nature (London) 322, 690–691.
Smith, J.N. and Ellis, K.M. (1990) Time dependent transport of Chernobyl radioactivity between atmospheric and lichen phases in eastern Canada, Journal of Environmental Radioactivity 11, 151–168.
Strandberg, M. (1997) Distribution of 137Cs in a low arctic ecosystem in West Greenland, Arctic 50, 216–223.
Taylor, H.W., Svoboda, J., Henry, G.H.R., and Wein, R.W. (1988) Post-Chernobyl cesium-134 and cesium-137 levels at some localities in northern Canada, Arctic 41, 293–296.
Topcuoglu, S., Van Dawen, A.M., and Gungor, N. (1995) The natural depuration rate of 137Cs radionuclides in a lichen and moss species, Journal of Environmental Radioactivity 29, 157–162.
Tuominen, Y. and Jaakkola, T. (1973) Absorption and accumulation of mineral elements and radioactive nuclides, in V. Ahmadjian and M.E. Hale (eds.), The Lichens, Academic Press, New York, pp 185–223.
Van den Berg, G.J., Tyssen, T.P.M., Ammerlaan, M.J.J., Volkers, K.J., Woroniecka, U.D., de Bruin, M., and Wolterbeek, H.T. (1992) Radiocesium lead in the lichen species Parmelia sulcata sampled in three regions around Chernobyl: assessment of concentrations in 1990, Journal of Environmental Radioactivity 17, 115–127.
Wasser, S.P. (ed.) (1995) Accumulation of Radionuclides by Cryptogamic Plants and Higher Fungi of the Ukraine, M.G. Kholodny Institute of Botany, Kiev (in Ukrainian).
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Seaward, M.R.D. (2002). Lichens as Monitors of Radioelements. In: Nimis, P.L., Scheidegger, C., Wolseley, P.A. (eds) Monitoring with Lichens — Monitoring Lichens. NATO Science Series, vol 7. Springer, Dordrecht. https://doi.org/10.1007/978-94-010-0423-7_7
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