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A. Kahru, Barbara Borchardt (1994)
Toxicity of 39 MEIC Chemicals to Bioluminescent Photobacteria (The Biotox™ Test): Correlation with Other Test SystemsAlternatives to Laboratory Animals, 22
Pia Arensberg, Vicky Hemmingsen, N. Nyholm (1995)
A miniscale algal toxicity testChemosphere, 30
A. Kahru (1993)
In Vitro Toxicity Testing Using Marine Luminescent Bacteria (Photobacterium phosphoreum): the Biotox™ testAlternatives to Laboratory Animals, 21
B. Alloway (1990)
The origins of heavy metals in soils.
Y. Dewolf (1969)
Bases et techniques d'une cartographie des sols, par M. Jamagne, 78
K. Kaiser (1998)
Correlations of Vibrio fischeri bacteria test data with bioassay data for other organisms.Environmental Health Perspectives, 106
P. Ross, P. Leitman, A. Ringwood, M. DeLorenzo (2000)
Microbiotests for contaminated soils and sediments: interpreting the data
S. Huling, D. Pope, J. Matthews, J. Sims, R. Sims, D. Sorensen (1995)
Land treatment and the toxicity response of soil contaminated with wood preserving wasteRemediation Journal, 5
C. Walker, R. Sibly, S. Hopkin, D. Peakall (1996)
Principles of Ecotoxicology
(1999)
Past Pollution of the Soviet Army in Estonia and its Liquidation. 192pp. Tallinn, Estonia: Estonian Environment Information Center
S. McMillen, J. Kerr, N. Gray, A. Requejo, T. McDonald, G. Douglas (1995)
Assessing bioremediation of crude oil in soils and sludges
A. Kahru, M. Kurvet, I. Külm (1996)
Toxicity of phenolic wastewater to luminescent bacteria photobacterium phosphoreum and activated sludgesWater Science and Technology, 33
K. Hund, W. Traunspurger (1994)
Ecotox-evaluation strategy for soil bioremediation exemplified for a PAH-contaminated site.Chemosphere, 29 2
A. Bulich, D. Isenberg (1981)
Use of the luminescent bacterial system for the rapid assessment of aquatic toxicity.ISA transactions, 20 1
J. Ahtiainen, T. Nakari, M. Ruoppa, M. Verta, E. Talka (2000)
Toxicity screening of novel pulp mill wastewaters in Finnish pulp mills
Edward Calabrese1, L. Baldwin (2001)
Hormesis: A Generalizable and Unifying HypothesisCritical Reviews in Toxicology, 31
Anu Leedjärv, A. Ivask, M. Virta, A. Kahru (2006)
Analysis of bioavailable phenols from natural samples by recombinant luminescent bacterial sensors.Chemosphere, 64 11
S. Ulitzur, T. Lahav, N. Ulitzur (2002)
A novel and sensitive test for rapid determination of water toxicityEnvironmental Toxicology, 17
V. Jennings, M. Rayner-Brandes, D. Bird (2001)
Assessing chemical toxicity with the bioluminescent photobacterium (Vibrio fischeri): a comparison of three commercial systems.Water research, 35 14
R. Gälli, C. Munz, R. Scholtz (2004)
Evaluation and application of aquatic toxicity tests: use of the Microtox test for the prediction of toxicity based upon concentrations of contaminants in soilHydrobiologia, 273
(1997)
The geochemical atlas of the humus horizon of Estonian soils
T. Michelsen, C. Boyce (1993)
Cleanup standards for petroleum hydrocarbons. Part 1. Review of methods and recent developmentsSoil & Sediment Contamination, 2
K. Kwan, B. Dutka (1992)
Evaluation of toxi-chromotest direct sediment toxicity testing procedure and microtox solid-phase testing procedureBulletin of Environmental Contamination and Toxicology, 49
A. Ivask, M. Virta, A. Kahru (2002)
Construction and use of specific luminescent recombinant bacterial sensors for the assessment of bioavailable fraction of cadmium, zinc, mercury and chromium in the soilSoil Biology & Biochemistry, 34
P. Beelen, P. Doelman (1997)
Significance and application of microbial toxicity tests in assessing ecotoxicological risks of contaminants in soil and sedimentChemosphere, 34
Lee Pöllumaa, A. Kahru, A. Eisenträger, R. Reiman, Alla Maloveryan, Annely Rätsep (2000)
Toxicological Investigation of Soils with the Solid-phase Flash Assay: Comparison with Other Ecotoxicological TestsAlternatives to Laboratory Animals, 28
(2004)
PhD Thesis. Evaluation of Ecotoxicological Effects Related to Oil Shale Industry
B. Applegate, S. Kehrmeyer, G. Sayler (1998)
A Chromosomally Based tod-luxCDABEWhole-Cell Reporter for Benzene, Toluene, Ethybenzene, and Xylene (BTEX) SensingApplied and Environmental Microbiology, 64
A. Kahru, Alla Maloverjan, H. Sillak, L. Põllumaa (2002)
The toxicity and fate of phenolic pollutants in the contaminated soils associated with the oil-shale industryEnvironmental Science and Pollution Research, 9
J. Ribó, K. Kaiser (1987)
Photobacterium phosphoreum toxicity bioassay. I. Test procedures and applicationsEnvironmental Toxicology & Water Quality, 2
R. Debus, K. Hund (1997)
Development of analytical methods for the assessment of ecotoxicological relevant soil contamination: Part B — Ecotoxicological Analysis in Soil and Soil ExtractsChemosphere, 35
A. Kahru, A. Ivask, K. Kasemets, L. Põllumaa, I. Kurvet, M. François, H. Dubourguier (2005)
Biotests and biosensors in ecotoxicological risk assessment of field soils polluted with zinc, lead, and cadmiumEnvironmental Toxicology and Chemistry, 24
V. Aruoja, I. Kurvet, H. Dubourguier, A. Kahru (2004)
Toxicity testing of heavy‐metal‐polluted soils with algae Selenastrum capricornutum: A soil suspension assayEnvironmental Toxicology, 19
Juha Lannalainen, R. Juvonen, K. Vaajasaari, M. Karp (1999)
A new flash method for measuring the toxicity of solid and colored samplesChemosphere, 38
A bacterial test battery, involving i) Microdot™, an aquatic test, ii) the Flash assay, a soil-suspension test (with Vibrio fischeri as the test organism), and iii) the Metal Detector assay, a semi-specific aquatic test for heavy metals (with recombinant luminescent Escherichia coli), was used in a combined toxicological and chemical hazard assessment of Estonian soils sampled from a former Soviet military airfield (13 samples) and from traffic-influenced roadsides (5 samples). The soils showed slightly elevated levels of total petroleum hydrocarbons (TPH), but not of heavy metals. In most of the samples, the levels of TPH did not exceed the Estonian permitted limit values set for residential areas. Toxicity testing was performed on both fresh and dried soils, after aqueous extraction for 1 hour and 24 hours. The toxicity results obtained with the Microtox™ test did not significantly differ in all of the sample treatment schemes; however, it appeared that the drying and sieving of the soils increased the bioavailability of toxicants, probably due to an enlarged reactive soil surface area. According to chemical analysis of the soils and the data from the Microtox™ test and the Metal Detector assay (performed on aqueous elutriates of the soils), these soils would not be considered to be hazardous. In contrast, the Flash assay performed on soil–water suspensions of dried soils, showed that most of the soils were toxic and thus probably contained undetermined particle-bound bioavailable toxicants. The photobacterial toxicity test (the Flash assay) can be recommended for the rapid screening of soils, as it is sensitive, cheap and inexpensive, and provides valuable information on particle-bound bioavailable toxicants, useful for complementing a chemical analysis and for assessing the risks originating from polluted soils.
Alternatives to Laboratory Animals – SAGE
Published: Mar 1, 2007
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