Zinc, Lead and Cadmium Content in Meadow Plants and Mosses Along the M3 Motorway (Hungary)
- 118 Downloads
- 17 Citations
Abstract
The heavy metal content was investigated in meadow plants located in a cultivated area and situated along the M3 motorway (Hungary). In addition to the meadow plants used as passive bioindicators, active bioindicators were also exposed to examine the accumulation rate of air pollutants. Tortula ruralis (Hedw.) Geartn. ssp. ruralis was applied to monitor the status of the environment. Meadow plant samples were collected at distances of 5, 10, 25, 50 and 100 m from the motorway and moss samples were exposed at the same distances. The zinc, lead and cadmium content of meadow plants and moss samples were analysed by ICP spectrophotometry. It was found that the zinc, lead and cadmium contents of the meadow plants decreased as the distance increased from the motorway. There was a significant difference even between values measured at the distances of 5 m and 10 m. The heavy metal contents in the moss samples exceeded those of the meadow plants. The heavy metal content in moss samples decreased with distance from the motorway. On comparing the data with Hungarian standards, it was found that measured values did not exceed the maximum allowed concentration levels.
Keywords
biomonitoring cadmium lead motorway traffic emission zincPreview
Unable to display preview. Download preview PDF.
References
- Anonymous, 2003: Magyar Takarmány Kódex (Hungarian Fodder Cődex), Földművelésügyi Minisztérium (Ministry of Agriculture) and Mezőgazdasági Minősítő Intézet (National Institute for Agricultural Quality Control, Budapest, 201–202.Google Scholar
- Al-Chalabi, A. S. and Hawker, D., 2000: Distribution of vehicular lead in roadside soils of major roads of Brisbane, Australia, Water Air Soil Pollut. 118(3–4), 299–310.Google Scholar
- Al-Shayeb, S. M. and Seaward, M. R. D., 2001: Heavy metal content of roadside soils along ring road in riyadh (Saudi Arabia), Asian J. Chem. 13(2), 407–423.Google Scholar
- Davis, A. P. Shokouhian, M., and Ni, S. B., 2001: Loading estimates of lead, copper, cadmium and zinc in urban runoff from specific sources, Chemosphere 44(5), 997–1009.Google Scholar
- De Luca D’Alessandro, E., Guasticchi, G., and Zantedeschi, E., 1992: La presenza di piombo nell’ambiente ed effeti sulla salute umana, Inquinamento 34(6), 50–54.Google Scholar
- Fergusson, J. E., 1986: Lead: petrol lead in the environment and its contribution to human blood lead levels, Sci. Total Environ. 50, 1–54.Google Scholar
- Fu, S. L., Hashimoto, H., Siegel, B. Z., and Siegel, S. M., 1989: Variations in plant and soil lead and mercury content in a major Honolulu park, 1972 to 1987, a period of significant source reduction, Water Air Soil Pollut. 43, 109–118.Google Scholar
- Graber, K., 1970: Luftverunreinigung durch schwermetallhaltige Stäubewirkungen auf Pflanzen, Sonderheft zur Zeitschrift, Landwirtschaftliche Forschungen 25(1), 59–68.Google Scholar
- Helmers, E., Wilk, G., and Wippler, K., 1995: Lead in the urban environment. Studying the strong decline in Germany, Chemosphere 30(1), 89–99.Google Scholar
- Jaradat, Q. M. and Momani, K. A., 1999: Contamination of roadside soil, plants and air with heavy metals in Jordan, Turkish J. Chem. 23(2), 209–220.Google Scholar
- Jones, K. C., 1991: Contaminant trends in soil and crops, Environ. Pollut. 69(4), 311–325.Google Scholar
- Kádár, I., 1995: A talaj - növény - ember tápláléklánc szennyeződése kémiai elemekkel Magyarországon. (The contamination of the soil - plant - human food chain by chemical elements in Hungary), Környezet- és Természetvédelmi Kutatások, KTM-MTA TAKI, Budapest, 298–305.Google Scholar
- Keller, Th., 1970: Der jetztige Bleigehalt der Vegetation in der Nähe schweizerischen Autostrassen, Schweizerischen Zeitschrift für Forstwesen 48, 235–244.Google Scholar
- Kingston, L., Leharne, S., and McPhee, E., 1988: A survey of vehicular lead deposition in a woodland ecosystem, Water Air Soil Pollut. 38(3–4), 239–250.Google Scholar
- Lagerwerff, J. V., 1967: Heavy metal contamination of soils, in N. C. Brady (ed.), Agriculture and the quality of our environment, Amer. Assoc. Adv. Sci. Publ., 343–364.Google Scholar
- Le Blanc, F., Robitaile, G., and Rao, D., 1974: Biological responses of lichens and bryophites to environmental pollution in the Murdochville copper mine area, Quebec, J. Hattori Bot. Lab. 38, 405–433.Google Scholar
- Marschall, M. and Mészáros, I., 1994: Some data to the applicability of bryphytes as bioindicators, Acta Biol. Debr. Oecol. Hung. 5, 245–254.Google Scholar
- Meenks, J. L. D. and Tuba, Z., 1992: Bryophytes as biological indicators, in M. Kovács (ed.), Biological Indicators in Environmental Protection, Akadémiai Kiadó, Budapest, 65–75.Google Scholar
- Pagotto, C., Remy, N., Legret, M., and Le Cloirec, P., 2001: Heavy metal pollution of road dust and roadside soil near a major rural highway, Environ. Technol. 22(3), 307–319.Google Scholar
- Póti, P., Köles, P., and Bedő, S., 1997: A gyepnövények mikro- és toxikus elemtartalma a közúttól való távolságtól függően (Micro- and toxic element concentration of meadow plants depending on the distance from the public road), Állattenyésztés és takarmányozás 46(5), 447–455.Google Scholar
- Rao, D., 1982: Responses of Bryophytes to air pollution, in A. J. E. Smith (ed.), Bryophytae Ecology, Chapman and Hall, London - New York, 445–471.Google Scholar
- Sansalone, J. J. and Glenn, D. W., 2000: Temporal variations in heavy metal partitioning and loading in urban highway pavement sheet flow—Implications for in situ treatment design, Roadside safety features and hydraulic, hydrology and water quality issues, Transportation research record. vol. 1720, pp. 100–111.Google Scholar
- Schöller, R., Kümmel, R., and Kleiber, E., 1991: Strassenabwasser - von der Entstehung bis zur Reinigung, Österreichische Wasserwirtschaft 43, 290–298.Google Scholar
- Soylak, M., Akkaya, Y., and Elci, L., 2001: Monitoring trace metal levels in Yozgat-Turkey determinations of some metal ions in roadside soils, Trace Elements Elektrol. 18(4), 176–180.Google Scholar
- Striebel, Th. and Gruber, A., 1997: Schwermetalle in Strassenstäuben und Schlammtopfsedimenten in Bayreuth. Konzentrationsbereiche, Einfluss der Verkehrsbelastung, Bindungsformen, Gefahrstoffe – Reinhaltung der Luft 57(7–8), 325–331.Google Scholar
- Takács, Z., Csintalan, Zs., Tuba, Z., 1999: Responses of the lichen Cladonia convoluta to high CO2 level and heavy metal treatment, Zeitschrift für Naturforschung 54c, 797–801.Google Scholar
- Takács, Z., Tuba, Z., and Smirnoff, N., 2001: Exaggeration of desiccation stress by heavy metal pollution in Tortula ruralis: a pilot study, Plant Growth Regul. 35, 157–160.Google Scholar
- Tuba, Z. and Csintalan, Zs., 1993: Bioindication of road motor traffic caused heavy metal pollution by lichen transplants in B. Markert (ed.), Plants as Biomonitors, VHC Weinheim, pp. 229–341.Google Scholar
- Tuba, Z., Csintalan, Zs., Nagy, Z., Szente, K. and Takács, Z., 1994: Sampling of terricolous lichen and moss species for trace element analysis with, special reference to bioindication of air pollution, in B. Markert (ed.), Environmental Sampling for Trace Analysis, VHC Publisher, Weinheim, New York, Tokyo, pp. 415–434.Google Scholar
- Yun, S. T., Choi, B. Y., and Lee, P. K., 2000: Distribution of heavy metals (Cr, Cu, Zn, Pb, Cd, As) in roadside sediments, Seoul Metropolitan City, Korea, Environ. Qual. 21(9), 989–1000.Google Scholar
- Zuber, R., Bovay, E., Tschaunen, W., and Quiche, P., 1970: Le plomb comme facteur de pollution atmosphérique et son accumulation sur les plantes croissant en bordue des arteries á forte densité de circulation, Research agronomique en Suisse 9, 83–96.Google Scholar