Abstract
A healthy terrestrial food web is essential for the sustainable use of soils. Earthworms are key species within terrestrial food webs and perform a number of essential functionalities like decomposition of organic litter, tillage and aeration of the soil, and enhancement of microbial activity. Chemicals may impact the functions of the soil by directly affecting one or more of these processes or by indirectly reducing the number and activity of soil engineers like earthworms. The scope of this chapter is on the assessment and modeling of the interactions of chemicals with earthworms and the resulting impacts. It is the aim of this contribution to provide a general review of the research that were undertaken to increase our understanding of the underlying processes.
Chemicals may induce a variety of adverse effects on ecosystems. Chemical speciation, bioavailability, bioaccumulation, toxicity, essentiality, and mixture effects are key issues in assessing the hazards of chemicals. Although it is possible to group chemicals with regard to their fate and effects, a plethora of chemical and biological processes affects actually occurring effects. These effects are usually modulated by (varying) environmental conditions. Using the basic processes underlying the uptake characteristics and the adverse effects of organic pollutants and metals on earthworms as an illustration, an overview will be given of the interactions between the chemistry and biology of pollutants, mostly at the interface of biological and environmental matrices. The impact of environmental conditions on uptake and toxicity of chemicals for soil dwelling organisms will explicitly be accounted for. The environmental chemistry of organic compounds and metals, as well as the resulting methods for assessing chemical availability are assumed as tokens and the emphasis is thus on the biological processes that affect the fate and effects of contaminants following interaction of the earthworms with the bioavailable fraction.
Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
References
Fragoso C, Brown G, Feijoo A (2004) The influence of Gilberto Righi on tropical earthworm taxonomy: The value of a full-time taxonomist. Pedobiologia 47: 400–404
Darwin C (1809–1882) The formation of vegetable mould through the action of worms, with observations on their habits. Release date 2000–10–01
Bouché MB (1977) Strategies lombriciennes. In: U. Lohm, T. Persson (Eds) Soil organisms as components of ecosystems. Ecol Bull (Stockholm) 25: 122–132
Lee KE (1959) The earthworm fauna of New Zealand. New Zeal Depart Sci Ind Res Bull 130: 486
Lee KE (1985) Earthworms – Their Ecology and Relationships with Soils and Land Use. Academic, New York, NY, p. 411
Lavelle P (1981) Stratégies de reproduction chez les vers de terre. Acta Oecol Gen 2: 117–133
Lavelle P (1997) Faunal activities and soil processes: Adaptive strategies that determine ecosystem function. Adv Ecol Res 27: 93–132
Lavelle P, Bignell D, Lepage M, Wolters V, Roger P, Ineson P, Heal OW, Dhillion S (1997) Soil function in a changing world: The role of invertebrate ecosystem engineers. Eur J Soil Biol 33: 159–193
Blanchart E, Lavelle P, Braudeau E, LeBissonnais Y, Valentin C (1997) Regulation of soil structure by geophagous earthworm activities in humid savannas of Côte d’Ivoire. Soil Biol Biochem 29: 431–439
Edwards CA (Ed.) (1998, 2004). Earthworm Ecology (1st Ed. 1998; 2nd Ed. 2004) CRC, Boca Raton FL
Zharikov GA, Fartukov SV, Tumansky IM, Ishchenko NV (1993) Use of the solid wastes of microbial industry by preparing worm compost. Biotechnologia 9: 21–23
McKey-Fender D, Fender WM, Marshall VG (1994) North American earthworms native to Vancouver Island and the Olympic Peninsula. Can J Zool 72: 1325–1339
Waeterschoot H, Van Assche F, Regoli L, Schoeters I, Delbeke K (2003) Metals in perspective. J Environ Monit 5: 95N–102N
Morgan JE, Morgan AJ (1988) Earthworms as biological monitors of Cd, Cu, Pb, and Zn in metalliferous soils. Environ Pollut 54: 123–138
Saxe JK, Impellitteri CA, Peijnenburg WJGM, Allen HE (2001) A novel model describing heavy metal concentrations in the earthworm Eisenia andrei. Environ Sci Technol 35: 4522–4529
Jager T, Fleuren RHLJ, Hogendoorn EA, De Korte G (2003) Elucidating the routes of exposure for organic chemicals in the earthworm, Eisenia andrei (Oligochaeta). Environ Sci Technol 37: 3399–3404
Vijver MG, Vink JPM, Miermans CJH, Van Gestel CAM (2003) Oral sealing using glue: A new method to distinguish between intestinal and dermal uptake of metals in earthworms. Soil Biol Biochem 35: 125–132
Didden W (2003) Oligochaetes. In: Markert BA, Breure AM, Zechmeister HG (Eds) Bioindicators and Biomonitors. Elsevier, Amsterdam
Løkke H, Van Gestel CAM (1998) Handbook of Soil Invertebrate Toxicity Tests. Wiley, Chichester
Van Gestel CAM, Dirven-van Breemen EM, Baerselman R (1993) Accumulation and elimination of cadmium, chromium and zinc and effects on growth and reproduction in Eisenia andrei (Oligochaeta, Annelida). Sci Total Environ Part 1: 585–597
Spurgeon DJ, Hopkin SP (1996) The effects of metal contamination on earthworm populations around a smelting works – quantifying species effects. Appl Soil Ecol 4: 147–160
Osté LA, Dolfing J, Ma W-C, Lexmond TM (2001) Cadmium uptake by earthworms as related to the availability in the soil and the intestine. Environ Toxicol Chem 20: 1785–1791
Lanno RP, McCarty LS (1997) Earthworm bioassays: Adopting techniques from aquatic toxicity testing. Soil Biol Biochem 29: 693–697
Stürzenbaum SR, Kille P, Morgan AJ (1998) Heavy metal-induced molecular responses in the earthworm, Lumbricus rubellus genetic fingerprinting by directed differential display. Appl Soil Ecol 9: 495–500
Lanno RP, Wren CD, Stephenson GL (1997) The use of toxicity curves in assessing the toxicity of soil contaminants to Lumbricus terrestris. Soil Biol Biochem 29: 689–692
Laverack MS (1963) The Physiology of Earthworms. Pergamon, Oxford
Wallwork JA (1983) Annelids: The First Coelomates. Studies in Biology, Earthworm Biology. Edward Arnold Publishers, London
Edwards CA, Lofty JR (1972) Biology of Earthworms. Chapman and hall, London
Ireland MP, Richards KS (1981) Metal content, after exposure to cadmium, of two earthworms of known differing calcium metabolic activity. Environ Pollut 26: 69–78
Campbell PGC (1995) Interactions between trace metals and aquatic organisms: A critique of the free-ion activity Model. In: Tessier A, Turner DR (Eds) Metal Speciation and Bioavailability in Aquatic Systems. Wiley, New York, NY, pp. 46–102
Janssen RPT, Peijnenburg WJGM, Posthuma L, Van den Hoop MAGT (1997) Equilibrium partitioning of heavy metals in Dutch field soils. I. Relationship between metal partitioning coefficients and soil characteristics. Environ Toxicol Chem 16: 2479–2488
Lock K, Jansen CR (2001) Zinc and cadmium body burdens in terrestrial oligochaetes: Use and significance in environmental risk assessment. Environ Toxicol Chem 20: 2067–2072
Jager T (1998) Mechanistic approach for estimating bioconcentration of organic chemicals in earthworms. Environ Toxicol Chem 17: 2080–2090
Sample BE, Suter ii GW Beauchamp JJ, Efroymson RA (1999) Literature-derived bioaccumulation models for earthworms: Development and validation. Environ Toxicol Chem 18: 2110–2120
Kelsey JW, White JC (2005) Multi-species interactions impact the accumulation of weathered 2,2-bis (p-chlorophenyl)-1,1-dichloroethylene (p, p′-DDE) from soil. Environ Pollut 137: 222–230
Kreitinger JP, Quiñones-Rivera A, Neuhauser EF, Alexander M, Hawthorne SB (2007) Supercritical carbon dioxide extraction as a predictor of polycyclic aromatic hydrocarbon bioaccumulation and toxicity by earthworms in manufactured-gas plant site soils. Environ Toxicol Chem 26: 1809–1817
McGeer JC, Brix KV, Skeaf JM, DeForest DK, Brigham SI, Adams WJ, Green A (2003) Inverse relationship between bioconcentration factor and exposure concentration for metals: Implications for hazard assessment of metals in the aquatic environment. Environ Toxicol Chem 22: 1017–1037
DeForest DK, Brix KV, Adams WJ (2007) Assessing metal bioaccumulation in aquatic environments: The inverse relationship between bioaccumulation factors, trophic transfer factors and exposure concentration. Aquat Toxicol 84: 236–246
Lanno R, Wells J, Conder J, Bradham K, Basta N (2004). The bioavailability of chemicals in soil for earthworms. Ecotoxicol Environ Safety 57: 39–47
Paracelsus (Philip T. B. von Hohenheim) (1564) Drey Bucker, The Heirs of Arnold Byrckmann, Cologne Germany
Vijver MG, Van Gestel CAM, Lanno RP, Van Straalen NM, Peijnenburg WJGM (2004) Internal metal sequestration and its ecotoxicological relevance – a review. Environ Sci Technol 38: 4705–4712
Loonen H, Muir DCG, Parsons JR, Govers HAJ (1997) Bioaccumulation of polychlorinated dibenzo-p-dioxins in sediment by oligochaetes: Influence of exposure pathway and contact time. Environ Toxicol Chem 16: 1518–1525
Belfroid A, Seinen W, Van Den Berg M, Hermens J, Van Gestel K (1995) Uptake, bioavailability and elimination of hydrophobic compounds in earthworms (Eisenia andrei) in field contaminated soil. Environ Toxicol Chem 14: 605–612
Belfroid A, Seinen W, Van Gestel K, Hermens J, Van Leeuwen K (1995) Modelling the accumulation of hydrophobic organic chemicals in earthworms: Application of the equilibrium partitioning theory. Environ Sci Pollut Res 2: 5–15
Beyer WN (1996) Accumulation of chlorinated benzenes in earthworms. Bull Environ Contam Toxicol 57: 729–736
Morgan JE, Morgan AJ (1990) The distribution of cadmium, copper, lead, zinc and calcium in the tissues of the earthworm Lumbricus rubellus sampled from one uncontaminated and four polluted soils. Oecologia 84: 559–566
Morgan AJ, Turner MP, Morgan JE (2002) Morphological plasticity in metal-sequestering earthworm chloragocytes: Morphometric electron microscopy provides a biomarker of exposure in field populations. Environ Toxicol Chem 21: 610–618
Morgan JE, Morgan AJ (1998) The distribution and intracellular compartmentation of metals in the endogeic earthworm Aporrectodea caliginosa sampled from an unpolluted and a metal-contaminated site. Environ Pollut 99: 167–175
Stürzenbaum SR, Winters C, Galay M, Morgan AJ, Kille P (2001) Metal ion trafficking in earthworms – identification of a cadmium specific metallothionein. J Biol Chem 276: 34013–34018
Prinsloo MW, Reinecke SA, Przybylowicz WJ, Mesjasz-Przybylowicz J, Reinecke AJ (1990) Micro-PIXE studies of Cd distribution in the nephridia of the earthworm Eisenia fetida (Oligochaeta). Nucl Instrum Methods Phys Res B 158: 317–322
Andersen C, Laursen J (1982) Distribution of heavy metals in Lumbricus terrestris, Aporrectodea longa and A. rosea measured by atomic absorption and X-ray fluorescence spectrometry. Pedobiologia 24: 347–356
Vijver MG, Van Gestel CAM, Van Straalen NM, Lanno RP, Peijnenburg WJGM (2006) Biological significance of metals partitioned to subcellular fractions within earthworms (Aporrectodea caliginosa). Environ Toxicol Chem 25: 807–814
Van Straalen NM, Donker MH, Vijver MG, Van Gestel CAM (2005) Bioavailability of contaminants estimated from uptake rates into soil invertebrates. Environ Pollut 136: 409–417
Peijnenburg W, Posthuma L, Zweers P, Baerselman R, De Groot A, Van Veen R, Jager D (1999) Relating environmental availability to bioavailability: Soil-type dependent metal accumulation in the oligochaete Eisenia andrei. Ecotoxicol Environ Safety 44: 294–310
Widianarko B, Kuntoro FX, Van Gestel CAM, Van Straalen NM (2001) Toxicokinetics and toxicity of zinc under time-varying exposure in the guppy (Poecilia reticulata). Environ Toxicol Chem, 20: 763–768
Peijnenburg WJGM, Zablotskaja M, Vijver MG (2007) Monitoring metals in terrestrial environments within a bioavailability framework and a focus on soil extraction. Ecotoxicol Environ Safety 67: 163–179
Awata H, Johnson KA, Anderson TA (2000) Passive sampling devices as surrogates for evaluating bioavailability of aged chemicals in soil. Toxicol Environ Chem 73: 25–42
Van Der Wal L, Jager T Fleuren RHLJ, Barendregt A, Sinnige TL, Van Gestel CAM, Hermens JLM (2004) Solid phase microextraction to predict bioavailability and accumulation of organic micropollutants in terrestrial organisms after exposure to a field-contaminated soil. Environ Sci Technol 38: 4842–4848
Bergknut M, Sehlin E, Lundstedt S, Andersson PL, Haglund P, Tysklind M (2007) Comparison of techniques for estimating PAH bioavailability: Uptake in Eisenia fetida, passive samplers and leaching using various solvents and additives. Environ Pollut 145: 154–160
Koolhaas JE, Van Gestel CAM, Römbke J, Soares AMVM, Jones SE (2004) Ring-testing and field-validation of a terrestrial model ecosystem (TME) – An instrument for testing potentially harmful substances: Effects of carbendazim on soil microarthropod communities. Ecotoxicology 13: 75–88
Boyle TB, Fairchild JF (1997) The role of mesocosm studies in ecological risk analysis. Ecol Appl 7: 1099–1102
McCarthy JF, Shugart LR (1990) Biological markers of environmental contamination. In: McCarthy JF, Shugart LR (Eds) Biomarkers of Environmental Contamination. Lewis Publishers Chelsea, MI
Depledge MH, Fossi MC (1994) The role of biomarkers in environmental assessment (2) invertebrates. Ecotoxicology 3: 161–172
Weeks JM, Svendsen C (1996) Neutral red retention by lysosomes from earthworm (Lumbricus rubellus) coelomocytes: A simple biomarker of exposure to soil copper. Environ Toxicol Chem 15: 1801–1805
Xiao NW, Song Y, Ge F, Liu XH, Yang ZY (2006) Biomarkers responses of the earthworm Eisenia fetida to acetochlor exposure in OECD soil. Chemosphere 65: 907–912
Scott-Fordsmann JJ, Weeks JM (1998) Review of selected biomarkers in earthworms. In: Sheppard S, Bembridge J, Holmstrup M, Posthuma L (Eds) Advances in Earthworm Ecotoxicology. SETAC Press, Pensacola, FL, pp. 173–189
Dikshith TSS, Gupta SK (1981) Carbaryl induced biochemical changes in earthworm (Pheretima posthuma). Indian J Biochem Biophys 18: 154
Maboeta MS, Reinecke SA, Reinecke AJ (2002) The relation between lysosomal biomarker and population responses in a field population of Microchaetus sp. (Oligochaeta) exposed to the fungicide copper oxychloride. Ecotoxicol Environ Safety 52: 280–288
International Standards Organization (1993) Soil Quality – Effects of Pollutants on Earthworms (Eisenia fetida). Part 1: Determination of Acute Toxicity Using Artificial Soil Substrate, Geneva, Switzerland ISO DIS 11268–1
International Standards Organization (1996) Soil Quality – Effects of Pollutants on Earthworms (Eisenia fetida fetida, Eisenia fetida andrei). Part 2: Determination of Effects on Reproduction, Geneva, Switzerland ISO DIS 11268–2
Organization for Economic Cooperation and Development (1984) OECD guidelines for testing of chemicals: Earthworm acute toxicity test. OECD Guideline No. 207, Paris, France
Natal-da-Luz T, Römbke J, Sousa JP (2008) Avoidance tests in site-specific risk assessment – influence of soil properties on the avoidance response of collembolan and earthworms. Environ Toxicol Chem 27: 1112–1117
Teuben A, Verhoef HA (1992) Relevance of micro- and mesocosm experiments for studying soil ecosystem processes. Soil Biol Biochem 24: 1179–1183
Carpenter SR (1996) Microcosm experiments have limited relevance for community and ecosystem ecology. Ecology 77: 677–680
Knacker T, Van Gestel CAM, Jones SE, Soares AMVM, Schallnaß HJ, Förster B, Edwards CA (2004) Ring-testing and field-validation of a terrestrial model ecosystem (TME) – An instrument for testing potentially harmful substances: Conceptual approach and study design. Ecotoxicology 13: 9–27
Parmelee RW, Wentsel RS, Phillips CT, Simini M, Checkai RT (1993) Soil microcosm for testing the effects of chemical pollutants on soil fauna communities and trophic structure. Environ Toxicol Chem 12: 1477–1486
Vink K, Van Straalen NM (1999) Effects of benomyl and diazinon on isopod mediated leaf litter decomposition in microcosms. Pedobiologia 43: 345–359
Boyle TP, Fairchild JF (1997) The role of mesocosm studies in ecological risk analysis. Ecol Appl 7: 1099–1102
Weyers A, Sokull-Klüttgen B, Knacker T, Martin S, Van Gestel CAM (2004) Use of terrestrial model ecosystem data on environmental risk assessment for industrial chemicals, biocides and plant protection products in the EU. Ecotoxicology 13: 163–176
European Union. Council Directive of 15 July 1991 Concerning the Placing of Plant Protection Products on the Market, 91/414/EC Brussels Belgium
Heimbach F (1992) Correlation between data from laboratory and field tests for investigating the toxicity of pesticides for earthworms. Soil Biol Biochem 24: 1749–1753
Spurgeon DJ, Weeks JM (1998) Evaluation of factors influencing results from laboratory toxicity tests with earthworms. In: Sheppard S, Bembridge J, Holmstrup M, Posthuma L (Eds) Advances in Earthworm Ecotoxicology. SETAC Press, Pensacola, FL, pp. 15–25
Criel P, Lock K, Van Eeckhout H, Oorts K, Smolders E, Janssen C (2008) Influence of soil properties on copper toxicity for two soil invertebrates. Environ Toxicol Chem 27: 1748–1755
McCarty LS, Mackay D (1993) Enhancing ecotoxicological modeling and assessment. Environ Sci Technol 27: 1719–1728
Karickhoff SW, Brown DS, Scott TA (1979) Sorption of hydrophobic pollutants on natural sediments. Water Res 13: 241–248
Paumen ML, Stol P, Ter Laak TL, Kraak MHS, Van Gestel CAM, Admiraal W (2008) Chronic exposure of the oligochaete Lumbricus variegatus to polycyclic aromatic compounds (PACs): Bioavailability and effects on reproduction. Environ Sci Technol 42: 3434–3440
Van Gestel CAM, Ma W-C (1993) Development of QSAR’s in soil ecotoxicology: Earthworm toxicity and soil sorption of chlorophenols, chlorobenzenes and chloroanilines. Water Air Soil Pollut 69: 265–276
Miyazaki A, Amano T, Saito H, Nakano Y (2002) Acute toxicity of chlorophenols to earthworms using a simple paper contact method and comparison with toxicities to fresh water organisms. Chemosphere 47: 65–69
Paquin PR, Gorsuch JW, Apte S, Batley GE, Bowles KC, Campbell PGC, Delos CG, DiToro DM, Dwyer RL, Galvez F, Gensemer RW, Goss GG, Hogstrand C, Janssen CR, McGeer JC, Naddy RB, Playle RC, Santore RC, Schneider U, Stubblefield WA, Wood CM, Wu KB (2002) The biotic ligand model: A historical overview. Comp Biochem Physiol C 133: 3–35
Steenbergen N, Iaccino F, De Winkel M, Reijnders L, Peijnenburg W (2005) Development of a biotic ligand model and a regression model predicting acute copper toxicity to the earthworm Aporrectodea caliginosa. Environ Sci Technol 39: 5694–5702
Author information
Authors and Affiliations
Corresponding author
Editor information
Editors and Affiliations
Rights and permissions
Copyright information
© 2009 Springer Science+Business Media, LLC
About this chapter
Cite this chapter
Peijnenburg, W.J.G.M., Vijver, M.G. (2009). Earthworms and Their Use in Eco(toxico)logical Modeling. In: Devillers, J. (eds) Ecotoxicology Modeling. Emerging Topics in Ecotoxicology, vol 2. Springer, Boston, MA. https://doi.org/10.1007/978-1-4419-0197-2_7
Download citation
DOI: https://doi.org/10.1007/978-1-4419-0197-2_7
Published:
Publisher Name: Springer, Boston, MA
Print ISBN: 978-1-4419-0196-5
Online ISBN: 978-1-4419-0197-2
eBook Packages: Earth and Environmental ScienceEarth and Environmental Science (R0)