Abstract
The distribution, quantification and fluxes of Pb were examined in an evergreen broadleaved forest in western Greece for three hydrological years. More specifically, concentrations and annual fluxes of Pb were determined in bulk and throughfall deposition as well as litterfall. The Pb concentrations were also measured in forest floor and mineral soil up to 80 cm and the isotopic ratios of 206Pb/207Pb were determined in soil layers and the parent rock material. High variability in the fluxes of the metal among the three hydrological years were found, evidence of the variability of Pb deposition in time. Litterfall fractions with a large surface area, like holm oak flowers, had high Pb concentrations. Applying a steady state model and considering the Pb amounts in throughfall and litterfall as inputs on the forest floor, the mean residence time of Pb in the forest floor was 94 years with a coefficient of variation equal to 41%. More observations are needed to lower the variability of the mean residence time. The isotopic ratio in the rock material was defined as the lithogenic ratio. The statistical tests showed that the petrol derived Pb migrated to the depth of 20 cm and its percentages in the soil pedon was in the range of 62% in the L horizon to 11% in the 10–20 cm layer. In higher depths (> 40 cm) preindustrial anthropogenic Pb affected the isotopic ratio. As the forest under consideration is remote from industrial activities, the results can serve as a baseline for future studies on Pb distribution and quantification.
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References
Åberg G, Charalampides G, Fosse G, Hjelmseth H (2001) The use of Pb isotopes to differentiate between contemporary and ancient sources of pollution in Greece. Atmos Environ 35:4609–4615
Avila A, Rodrigo A (2011) Trace metal fluxes in bulk deposition, throughfall and stemflow at two evergreen oak stands in NE Spain subject to different exposure to the industrial environment. Atmos Environ 38:171–180
Azimi S, Ludwig A, Thevenot DR, Colin JL (2003) Trace metal determination in total atmospheric deposition in rural and urban areas. Sci Total Environ 308:247–256
Bacon JR, Farmer JG, Dunn SM, Graham MC, Vinogradoff SI (2006) Sequential extraction combined with isotope analysis as a tool for the investigation of lead mobilization in soils: application to organic-rich soils in an upland catchment in Scotland. Environ Pollut 141(1):469–481
Bindler R (2011) Contaminated lead environments of man: reviewing the lead isotopic evidence in sediments, peat, and soils for the temporal and special patterns of atmospheric lead pollution in Sweden. Environ Geochem Health 33:311–329
Bing H, Wu Y, Ming L, Sun S, Li X (2014) Atmospheric deposition of lead in remote high mountain of eastern Tibetan Plateau, China. Atmos Environ 99(11):425–435
Blaser P, Zimmermann S, Luster J, Shotyk W (2000) Critical examination of trace element enrichments and depletions in soils: As, Cr, Cu, Ni, Pb and Zn in Swiss forest soils. Sci Total Environ 249:257–280
Brännvall ML, Binler R, Emteryd O, Renberg I (2001) Vertical distribution of atmospheric pollution lead in Swedish Boreal forest soils. Water Air Soil Pollut Focus 1:357–370
Bringmark L et al (2006) Minimal access surgery in neonates and infants. Water Air Soil Pollut 224:1502
De Nicola F, Spagnuolo V, Baldantoni D, Sessa L, Alfani A, Bargagli R, Monaci F, Terracciano S, Giordano S (2015) Improved biomonitoring of airborne contaminants by combined use of holm oak leaves and epiphytic moss. Chemosphere 134:91–97
De Nicola F, Baldantoni D, Maisto G, Alfani A (2017) Heavy metal and polycyclic aromatic hydrocarbon concentrations in Quercus ilex L. leaves fit an a priori subdivision in site typologies based on human management. Environ Sci Pollut Res Int 24:11911–11918
De Vos B, Cools N (2011) Second European forest soil condition report. Results of the biosoil soil survey, vol 1. INBO. R.2011.35. Research Institute for Nature and Forest, Brussels
Emmanuel S, Erel Y (2002) Implications from concentrations and ispotopic data for Pb portioning processes in soils. Geochim Cosmochim Acta 14:2517–2527
Erel Y (1998) Mechanisms and velocities of anthropogenic lead in the atmosphere Pb migration in Mediterranean soils. Environ Res 78(16):112–117
Erel Y, Blum JD, Roueff E, Ganor J (2004) Lead and strontium isotopes as monitors of experimental granitoid mineral dissolution. Geochim Cosmochim Acta 68:4649–4663
FAO-Unesco (1988) Soil map of the world. FAO-Unesco, Rome
Farmer JG, Eades LJ, Atkins H, Chamberlain DF (2002) Historical trends in the lead isotopic composition of archival Sphagnum mosses from Scotland (1838–000). Environ Sci Technol 36:152–157
Friedland AG, Johnson H (1985) Lead distribution and fluxes in a high-elevation forest in Northern Vermont. J Environ Qual 14:332–336
Gosz JR, Likens GE, Bormann FH (1976) Organic matter and nutrient dynamics of the forest and forest floor in the Hubbard Brook forest. Oecologia 22:305–320
Heinrichs H, Mayer R (1977) Distribution and cycling of major and trace elements in two central European forest ecosystems. J Environ Qual 4:402–407
Hong S, Candelone JC, Patterson CC, Boutron CF (1994) Greenland ice evidence of hemispheric lead pollution two millennia ago by Greek and Roman civilizations. Science 265:1841–1843
Hong S, Soyol-Erdene TO, Hwang HJ, Hong SB, Hur SD, Motoyama H (2012) Evidence of global-scale As, Mo, Sb and Ti atmospheric pollution in the Antarctic snow. Environ Sci Technol 46:11550–11557
Hou H, Takamatsu T, Koshikawa M, Hosomi M (2005) Trace metal in bulk precipitation and throughfall in a suburban area of Japan. Atmos Environ 39:3583–3595
Hovmand MF, Kemp K, Kystol J, Johnsen I, Riis-Nielsen T, Pacyna JM (2008) Atmospheric heavy metal deposition accumulated in rural forest soils of southern Scandinavia. Environ Pollut 155:537–541
Itoh Y, Miura S, Yoshinaga S (2006) Atmospheric lead and cadmium deposition within forests in the Kanto district, Japan. J For Res 11:137–142
Itoh Y, Noguchi K, Takahashi M, Okamoto TM, Yoshinaga S (2007) Estimation of lead sources in a Japanese cedar ecosystem using stable isotope analysis. Applied Geochem 22:1223–1228
Kapusta KS, Zakrzewska M, Bajorec K, Argasinska JG (2003) Input of heavy metals to the forest floor as a result of Cracow urban pollution. Environ Int 28:691–698
Kersten M, Garbe-Schönberg C-D, Thomsen S, Anagnostou C, Sioulas A (1997) Source appointment of Pb pollution in the coastal waters of Elefsis Bay, Greece. Environ Sci Technol 31:1295–1301
Klaminder J, Bindler R, Empteryd O, Renberg I (2005) Uptake and recycling of lead by boreal forest plants: quantitative estimates from a site in northern Sweden. Geochim Cosmochim Acta 69:2485–2496
Klaminder J, Bindler R, Empteryd O, Appleby P, Harald G (2006) Estimating the mean residence time of lead in the organic horizon of boreal forest soil using 210-lead, stable lead and a soil chronosequence. Biogeochemistry 78:31–49
Kulander ME, Cortizas AM, Rauch S, Weiss DJ (2008) Lead penetration and leaching in a complex temperate soil profile. Environ Sci Technol 42:3177–3184
Lindsay WL, Norvel WA (1978) Development of a DTPA test for zinc, iron, manganese, and copper. Soil Sci Soc Am J 42:421–428
Michelutti N, Simonetti A, Briner JP, Funder S, Creaser RA, Wolfe AP (2009) Temporal trends of pollution Pb and other metals in east-central Baffin Island inferred from lake sediment geochemistry. Sci Total Environ 407:5653–5662
Michopoulos P, Baloutsos G, Economou A, Nikolis N, Bakeas EB, Thomaidis NS (2005) Biogeochemistry of lead in an urban forest in Athens, Greece. Biogeochemistry 73:345–357
Michopoulos P, Bourletsikas A, Kaoukis K, Daskalakou E, Karetsos G, Kostakis M, Thomaidis NS, Pasias IN, Kaberi H, Iliakis S (2018) The distribution and variability of heavy metals in a mountainous forest ecosystem in two hydrological years. Global NEST 20:188–197
Mighall TM, Timberlake S, Foster ID, Krupp E, Singh S (2009) Ancient copper and lead pollution records from a raised bog complex in central Wales, UK. J Archaeol Sci 36:1504–1515
Miller EK, Friedland AJ (1994) Lead migration in forest soils: response to changing atmospheric inputs. Environ Sci Technol 28:662–669
Owack B, Obrecht JM, Schluep M, Schulin R, Hansmann W, Koppel V (2001) Elevated lead and zinc contents in remote alpine soils of the Swiss National Park. J Environ Qual 30:919–926
Renberg I, Brannvall ML, Bindler R, Empteryd O (2002) Stable lead isotopes and lake sediments-a useful combination for the study of atmospheric lead pollution history. Sci Total Environ 292:45–54
Richardson JB, Friedland AJ, Kaste JM, Jackson BP (2014) Forest floor lead changes from 1980 to 2011 and subsequent accumulation in the mineral soil across the northeastern United States. J Environ Qual 43:926–935
Rodrigo A, Avila A, Gomez-Bolea A (1999) Trace metal contents in Parmelia caperata (L.) Ach. compared to bulk deposition, throughfall and leaf-wash fluxes in two holm oak forests in Montseny (NE Spain). Atmos Environ 33:359–367
Rosman KJR, Chisholm W, Hong S, Candelone JP, Boutron CF (1997) Lead from Carthaginian and Roman Spanish mines isotopically identified in Greenland ice dated from 600 B.C. to 300 A.D. Environ Sci Technol 31:3413–3416
Rosssini Oliva S, Mingorance MD (2006) Assessment of airborne heavy metal pollution by aboveground pant parts. Chemosphere 65:177–182
Saether OM, Aberg G, Steinnes E (2011) Lead isotope distribution in podzolic soil profiles on different types of bedrock in a formerly glaciated terrain (Oslo, Norway). Appl Geochem 26:5245–5249
Shotyk W, Blaser P, Gruning A, Cheburkin AK (2000) A new approach for quantifying cumulative, anthropogenic, atmospheric lead deposition using peat cores from bogs: Pb in eight Swiss peat bog profiles. Sci Total Environ 249:281–295
Singh S, Sharma J, Gawas-Sakahalkar P, Upadhyay A, Naik S, Pedneker S, Ravindra R (2013) Atmospheric deposition studies of heavy metals in Arctic by comparative analysis of lichens and cryconite. Environ Monitor Assess 185:1367–1375
Steinnes E, Sjøbakk TE, Donisa C, Brännvall ML (2005) Quantification of pollutant lead in forest soils. Soil Sci Soc Am J 69:1399–1404
Sturges WT, Barrie LA (1987) Lead isotope ratios in the atmosphere of North America as tracers of US and Canadian emissions. Nature 329:144–146
Tang R, Luo J, She J, Chen Y, Yang D, Zhou J (2015) The cadmium and lead of soil in timberline coniferous forests, Eastern Tibetan Plateau. Environ Earth Sci 73:303–310
Turner RS, Johnson AH, Wang D (1985) Biogeochemistry of lead in McDonalds Branch Watershed, New Jersey Pine Barrens. J Environ Qual 14:305–314
Ukonmaanaho L, Starr M, Mannio J, Ruoho-Airola T (2001) Heavy metal budgets for two headwater forested catchments in background areas of Finland. Environ Pollut 114:63–75
Van Hook RI, Harris WF, Henderson GS (1977) Cadmium, lead and zinc distribution and cycling in a mixed deciduous forest. Ambio 6:281–286
Watmough SA, Dillon PJ (2007) Lead biogeochemistry in a central Ontario forested watershed. Biogeochemistry 84:143–159
Watmough SA, Hutchinson TC (2004) The quantification and distribution of pollution Pb at a woodland in rural south central Ontario, Canada. Environ Pollut 128:419–428
Wilcke W, Krauss M, Zech J, Kobza W (2001) Quantification of anthropogenic lead in Slovak forest and arable soils along a deposition gradient with stable lead isotope ratios. J Plant Nutr Soil Sci 164:303–307
Zöttl HW (1985) Heavy metals levels and cycling in forest ecosystems. Experientia 41:1104–1113
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Project funding: This work was financially supported by the Programme of “Effects of Atmospheric Pollutants on Forest Ecosystems” from the Ministry of Agriculture and Food, the Ministry of Environment and the European Commission.
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Michopoulos, P., Bourletsikas, A., Kaoukis, K. et al. Distribution and quantification of Pb in an evergreen broadleaved forest in three hydrological years. J. For. Res. 31, 2225–2234 (2020). https://doi.org/10.1007/s11676-019-01018-4
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DOI: https://doi.org/10.1007/s11676-019-01018-4