1974
DOI: 10.4319/lo.1974.19.5.0756
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A kinetic approach to the effect of temperature on algal growth1

Abstract: A simple model incorporates the combined effects of temperature and nutrient limitation on the growth rate of algae. The temperature function is described by the Arrhenius equation and the nutrient relationship with the Monod model. The Arrhcnius equation is inserted into the Monod model for the maximum growth rate fi, so that the growth rate is described by the product of temperature and nutrient cxprcssions. The utility of the Arrhenius equation in describing the effect of temperature on fi for phytoplankton… Show more

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Cited by 375 publications
(171 citation statements)
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“…Combining all these optima (doubling rate [day -1] versus optimum T [°C]) EPPLEY (1972) found a modest temperature dependence of about 1.88 per 10°C. GOLDMAN and CARPENTER (1974) found a similar dependence of about 2.08 per 10°C. Given the oceanic range from about-1.5°C to +30°C the optimum growth rate would vary within about one order of magnitude, significant but not enough to be considered a dominant control.…”
Section: Growthsupporting
confidence: 63%
“…Combining all these optima (doubling rate [day -1] versus optimum T [°C]) EPPLEY (1972) found a modest temperature dependence of about 1.88 per 10°C. GOLDMAN and CARPENTER (1974) found a similar dependence of about 2.08 per 10°C. Given the oceanic range from about-1.5°C to +30°C the optimum growth rate would vary within about one order of magnitude, significant but not enough to be considered a dominant control.…”
Section: Growthsupporting
confidence: 63%
“…The increased biomass and photosynthetic carbon fixation in this experimental community under elevated pCO 2 is due to the community shift to Phaeocystis spp. The increased biomass in the high-temperature treatment (where microzooplank- ton biomass remained stable between T17 and T36, though lower than the control) may be attributed to enhanced enzymatic activities, since algal growth commonly increases with temperature until after an optimal range (Boyd et al, 2013;Goldman and Carpenter, 1974;Savage et al, 2004). Optimum growth temperatures for marine phytoplankton are often several degrees higher than environmental temperatures (Eppley, 1972;Thomas et al, 2012).…”
Section: Discussionmentioning
confidence: 99%
“…Measuring activity in terms of growth rate is also advantageous because temperature places a predictable upper limit on the growth rates of organisms (Eppley 1972;Goldman and Carpenter 1974). With a temperature conversion, it is possible to compare observed growth rates with potential growth rates that could be expected under ideal conditions.…”
Section: Discussionmentioning
confidence: 99%