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C. Hewett, D. Jefferies (1976)
The accumulation of radioactive caesium from water by the brown trout (Salmo trutta) and its comparison with plaice and raysJournal of Fish Biology, 9
Cui Cui, Wotton Wotton (1988)
The metabolic rate of minnow, Phoxinus phoxinus (L.), in relation to ration, body size and temperatureFunctional Ecology, 2
S. Kolehmainen (1974)
Daily Feeding Rates of Bluegill (Lepomis macrochirus) Determined by a Refined Radioisotope MethodWsq: Women's Studies Quarterly, 31
A. Gallegos, F. Whicker (1972)
RADIOCESIUM RETENTION BY RAINBOW TROUT AS AFFECTED BY TEMPERATURE AND WEIGHT.
J. Paloheimo, L. Dickie (1966)
Food and Growth of Fishes. II. Effects of Food and Temperature on the Relation Between Metabolism and Body WeightWsq: Women's Studies Quarterly, 23
S. Lindstedt, W. Calder (1981)
Body Size, Physiological Time, and Longevity of Homeothermic AnimalsThe Quarterly Review of Biology, 56
S. Carlsson (1978)
A model for the turnover of 137Cs and potassium in pike (Esox lucius).Health physics, 35 4
Carlin Carlin (1955)
Tagging of salmon smolts in the River LaganReport from the Institute of Freshwater Research, Drottningholm, 36
J. Elliott (1976)
The Energetics of Feeding, Metabolism and Growth of Brown Trout (Salmo trutta L.) in Relation to Body Weight, Water Temperature and Ration SizeJournal of Animal Ecology, 45
F. Morgan (1964)
The Uptake of Radioactivity by Fish and Shellfish I. 134Caesium by Whole AnimalsJournal of the Marine Biological Association of the United Kingdom, 44
S. King (1964)
Uptake and Transfer of Cesium‐137 by Chlamydomonas, Daphnia, and Bluegill FingerlingsEcology, 45
Reichle Reichle, Dunaway Dunaway, Nelson Nelson (1970)
Turnover and concentration of radionuclides in food chainsNuclear Safety, 11
C. Hewett, D. Jefferies (1978)
The accumulation of radioactive caesium from food by the plaice (Pleuronectes platessa) and the brown trout (Salmo trutta)Journal of Fish Biology, 13
J. Stara, N. Nelson, R. Rosa, L. Bustad (1971)
Comparative metabolism of radionuclides in mammals: a review.Health physics, 20 2
A. Niimi (1987)
Biological half-lives of chemicals in fishes.Reviews of environmental contamination and toxicology, 99
H. Mailhot, R. Peters, R. Cornett (1989)
The biological half-time of radioactive Cs in poikilothermic and homeothermic animals.Health physics, 56 4
S. Kolehmainen, J. Miettinen (1966)
BIOLOGICAL HALF LIFE OF $sup 137$Cs IN THREE SPECIES OF FRESH WATER FISH: PERCH, ROACH AND RAINBOW TROUT
T. Fagerström, B. Asell, A. Jernelöv (1974)
Model for accumulation of methyl mercury in northern pike Esox luciusOikos, 25
P. Douben (1989)
Metabolic rate and uptake and loss of cadmium from food by the fish Noemacheilus barbatulus L. (stone loach).Environmental pollution, 59 3
T. Forseth, O. Ugedal, B. Jonsson, A. Langeland, O. Njåstad (1991)
Radiocaesium Turnover in Arctic Charr (Salvelinus alpinus) and Brown Trout (Salmo trutta) in a Norwegian LakeJournal of Applied Ecology, 28
L. Anspaugh, R. Catlin, M. Goldman (1988)
The global impact of the Chernobyl reactor accident.Science, 242 4885
S. Kolehmainen (1972)
The balances of 137 Cs, stable cesium and potassium of bluegill (Lepomis macrochirus Raf.) and other fish in White Oak Lake.Health physics, 23 3
N. Kevern (1966)
Feeding Rate of Carp Estimated by a Radioisotopic MethodTransactions of The American Fisheries Society, 95
Staton Staton, Brishbin Brishbin, Geiger Geiger (1974)
Some aspects of radiocaesium retention in naturally contaminated captive snakesHerpetolagica, 30
Y. Cui, R. Wootton (1988)
The metabolic rate of the minnow, Phoxinus phoxinus (L.) (Pisces: Cyprinidae), in relation to ration, body size and temperatureFunctional Ecology, 2
S. Evans (1988)
Application of parameter uncertainty analysis to accumulation of 137Cs in fish, with special emphasis on Pleuronectes platessa LJournal of Experimental Marine Biology and Ecology, 120
SUMMARY 1. The elimination rate of radiocaesium in brown trout Salmo trutta L. was determined in the laboratory at four water temperatures (range 4.4–15.6°C). In the experiments three or four homogenous size‐groups of fish (mean weights 23–496 g) were studied at each temperature. 2. The brown trout received acute oral doses of 134Cs and were killed at intervals for radioactivity counting. The retention versus time curves were composed of two distinct exponential components. The long‐lived component was quantitatively the most important for retention of radiocaesium. Elimination rate increased with increasing water temperature and decreased with increasing body weight. 3. The biological half‐life of 134Cs (Tb, days) was related to fresh body weight (W, g) and water temperature (t, °C) by the equation: Tb= 290 ×W°.176× e‐°.106×t. The elimination rate of Cs could be predicted from weight‐specific metabolic rate as given by Elliott's equations for brown trout.
Freshwater Biology – Wiley
Published: Oct 1, 1992
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