Metal and phytochelatin content in phytoplankton from freshwater lakes with different metal concentrations

The tace metal (Cu, Zn, Cd, Mn) and phytochelatin(an intracellular chelator for metal ions) cellular content were determined in phytoplankton samples originating from four lakes (Greifen, Sempach, Lucerne, and Orta). The lakes differ in their metal concentrations and in other conditions (pH, trophic...

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Published inEnvironmental toxicology and chemistry Vol. 17; no. 12; pp. 2444 - 2452
Main Authors Knauer, Katja, Ahner, Beth, Xue, Han Bin, Sigg, Laura
Format Journal Article
LanguageEnglish
Published Hoboken Wiley Periodicals, Inc 01.12.1998
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Abstract The tace metal (Cu, Zn, Cd, Mn) and phytochelatin(an intracellular chelator for metal ions) cellular content were determined in phytoplankton samples originating from four lakes (Greifen, Sempach, Lucerne, and Orta). The lakes differ in their metal concentrations and in other conditions (pH, trophic state, organic matter). Total and intracellular contents of Cu and Cd were related to the experimentally determined free metal ion concentration and the total and intracellular content of Mn to the dissolved Mn. The intracellular Zn content was tightly regulated over a broad range of [Zn2+]. Phytochelatin concentrations were measurable in phytoplankton communities from three of the lakes, in spite of low levels of free Cu, Zn, and Cd ion concentrations. Culture experiments showed that the concentration of intracellular phytochelatin in Scenedesmus subspicatus and in a natural algal community increased upon addition of copper in a similar concentration range as in the lakes. Phytochelatin concentrations were below detection in the phytoplankton collected from the highly contaminated Lake Orta, perhaps suggesting that this algal community has adapted in some other way to high metal concentrations. Although we only sampled a few lakes, the lack of any clear relationship between phytochelatin and metal concentrations calls into question the feasibility of using phytochelatins as a bioindicator of metal exposure in lakes.
AbstractList The tace metal (Cu, Zn, Cd, Mn) and phytochelatin(an intracellular chelator for metal ions) cellular content were determined in phytoplankton samples originating from four lakes (Greifen, Sempach, Lucerne, and Orta). The lakes differ in their metal concentrations and in other conditions (pH, trophic state, organic matter). Total and intracellular contents of Cu and Cd were related to the experimentally determined free metal ion concentration and the total and intracellular content of Mn to the dissolved Mn. The intracellular Zn content was tightly regulated over a broad range of [Zn2+]. Phytochelatin concentrations were measurable in phytoplankton communities from three of the lakes, in spite of low levels of free Cu, Zn, and Cd ion concentrations. Culture experiments showed that the concentration of intracellular phytochelatin in Scenedesmus subspicatus and in a natural algal community increased upon addition of copper in a similar concentration range as in the lakes. Phytochelatin concentrations were below detection in the phytoplankton collected from the highly contaminated Lake Orta, perhaps suggesting that this algal community has adapted in some other way to high metal concentrations. Although we only sampled a few lakes, the lack of any clear relationship between phytochelatin and metal concentrations calls into question the feasibility of using phytochelatins as a bioindicator of metal exposure in lakes.
Phytochelatins are induced in eukaryotic algal cells in response to stress by heavy metals. Water and phytoplankton samples were obtained from four lakes in Switzerland with different loadings of trace metals, and metal and phytochelatin concentrations were determined. Laboratory culture experiments were also conducted to determine these relationships under controlled conditions. Results from both the field and laboratory experiments demonstrated a relationship between cellular metal content and free metal ion concentration clearly for cadmium and copper, and with the dissolved manganese for Mn. The intracellular zinc content in lake phytoplankton appeared to vary little with Zn ion. The concentrations of Cu, Zn, and Cd in the lakes for which phytochelatins were measured did not vary within a range that would necessarily be expected to induce phytochelatin above basal concentrations, however, so phytochelatin may not be a good bioindicator of metal availability or bioaccumulation in phytoplankton.
The trace metal (Cu, Zn, Cd, Mn) and phytochelatin (an intracellular chelator for metal ions) cellular content were determined in phytoplankton samples originating from four lakes (Greifen, Sempach, Lucerne, and Orta). The lakes differ in their metal concentrations and in other conditions (pH, trophic state, organic matter). Total and intracellular contents of Cu and Cd were related to the experimentally determined free metal ion concentration and the total and intracellular content of Mn to the dissolved Mn. The intracellular Zn content was tightly regulated over a broad range of [Zn super(2+)]. Phytochelatin concentrations were measurable in phytoplankton communities from three of the lakes, in spite of low levels of free Cu, Zn, and Cd ion concentrations. Culture experiments showed that the concentration of intracellular phytochelatin in Scenedesmus subspicatus and in a natural algal community increased upon addition of copper in a similar concentration range as in the lakes. Phytochelatin concentrations were below detection in the phytoplankton collected from the highly contaminated Lake Orta, perhaps suggesting that this algal community has adapted in some other way to high metal concentrations. Although we only sampled a few lakes, the lack of any clear relationship between phytochelatin and metal concentrations calls into question the feasibility of using phytochelatins as a bioindicator of metal exposure in lakes.
The trace metals copper, manganese, cadmium and zinc, and phytochelatin, were determined in phytoplankton from 4 lakes, Greifen, Sempach, Lucerne and Orta, to evaluate whether phytochelatin production in freshwater algae could be an effective bioindicator of freshwater metal bioavailability. Total and intracellular contents of copper and cadmium were related to the experimentally determined free metal ion concentration and the total and intracellular content of manganese to the dissolved manganese. Phytochelatin was measured in Greifen, Sempach and Lucerne lakes despite low levels of free metal ion concentrations. Levels of phytochelatin were below detection in the highly contaminated Orta lake suggesting adaptation by the indigenous phytoplankton community. Culture experiments showed that the concentration of intracellular phytochelatin in Scenedesmus subspicatus and a natural algal community increased with the addition of copper. The lack of any clear relationship between phytochelatin and metal ion concentrations questions the feasibility of using phytochelatins as bioindicators of metal exposure. There are 45 references.
The tace metal (Cu, Zn, Cd, Mn) and phytochelatin(an intracellular chelator for metal ions) cellular content were determined in phytoplankton samples originating from four lakes (Greifen, Sempach, Lucerne, and Orta). The lakes differ in their metal concentrations and in other conditions (pH, trophic state, organic matter). Total and intracellular contents of Cu and Cd were related to the experimentally determined free metal ion concentration and the total and intracellular content of Mn to the dissolved Mn. The intracellular Zn content was tightly regulated over a broad range of [Zn 2+ ]. Phytochelatin concentrations were measurable in phytoplankton communities from three of the lakes, in spite of low levels of free Cu, Zn, and Cd ion concentrations. Culture experiments showed that the concentration of intracellular phytochelatin in Scenedesmus subspicatus and in a natural algal community increased upon addition of copper in a similar concentration range as in the lakes. Phytochelatin concentrations were below detection in the phytoplankton collected from the highly contaminated Lake Orta, perhaps suggesting that this algal community has adapted in some other way to high metal concentrations. Although we only sampled a few lakes, the lack of any clear relationship between phytochelatin and metal concentrations calls into question the feasibility of using phytochelatins as a bioindicator of metal exposure in lakes.
Author Sigg, Laura
Ahner, Beth
Xue, Han Bin
Knauer, Katja
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Issue 12
Keywords Organic matter
Environmental factor
Trophic status
Chlorophyceae
Freshwater environment
pH
Phytoplankton
Copper
Speciation
Thallophyta
Cadmium
Ecotoxicology
Algae
Biological indicator
Contamination
Zinc
Heavy metal
Pollutant
Chlorophyta
Chelating agent
Lakes
Water pollution
Biological accumulation
Comparative study
Manganese
Language English
License CC BY 4.0
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1994; 132
1991; 36
1988; 150
1990; 59
1991; 79
1997; 42
1989; 81
1988; 33
1996
1995
1994
1976–1989; 1–6
1993
1992
1992; 37
1994; 28
1996; 58
1992; 98
1990; 344
1995; 3
1992; 50
1995; 41
1995; 40
1979; 89
1976; 34
1987; 84
1993; 38
1990
1984; 15
1994; 284
1995; 109
1992; 28
1958; 9
1997; 16
1982
1981; 39
1994; 91
1998; 363
1985; 230
e_1_2_6_30_2
Robinson NJ (e_1_2_6_12_2) 1990
Simkiss K (e_1_2_6_34_2) 1995
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Nealson KH (e_1_2_6_37_2) 1988; 33
Martell AE (e_1_2_6_23_2) 1976
Gächter R (e_1_2_6_15_2) 1989; 81
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Sunda WG (e_1_2_6_36_2) 1995; 41
Sigg L (e_1_2_6_13_2) 1995
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Sunda WG (e_1_2_6_43_2) 1981; 39
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Utermöhl H (e_1_2_6_19_2) 1958; 9
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Price NM (e_1_2_6_2_2) 1994
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Snippet The tace metal (Cu, Zn, Cd, Mn) and phytochelatin(an intracellular chelator for metal ions) cellular content were determined in phytoplankton samples...
The trace metals copper, manganese, cadmium and zinc, and phytochelatin, were determined in phytoplankton from 4 lakes, Greifen, Sempach, Lucerne and Orta, to...
Phytochelatins are induced in eukaryotic algal cells in response to stress by heavy metals. Water and phytoplankton samples were obtained from four lakes in...
The trace metal (Cu, Zn, Cd, Mn) and phytochelatin (an intracellular chelator for metal ions) cellular content were determined in phytoplankton samples...
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pascalfrancis
wiley
istex
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Publisher
StartPage 2444
SubjectTerms Animal, plant and microbial ecology
Applied ecology
Bioindicator
Biological and medical sciences
Ecotoxicology, biological effects of pollution
Effects of pollution and side effects of pesticides on plants and fungi
Freshwater
Freshwater phytoplankton
Fundamental and applied biological sciences. Psychology
Phytochelatin
Scenedesmus subspicatus
Trace metals
Title Metal and phytochelatin content in phytoplankton from freshwater lakes with different metal concentrations
URI https://api.istex.fr/ark:/67375/WNG-CW3CQV2L-L/fulltext.pdf
https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fetc.5620171210
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https://search.proquest.com/docview/14501546
https://search.proquest.com/docview/17288158
Volume 17
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