Fish cardiorespiratory physiology in an era of climate change

By A. Farrell, E. Eliason, E. Sandblom, Timothy D. Clark. 2009

205 citations recorded by the source corpus.

Subfields: Aquatic Science, Ecology, Nature and Landscape Conservation

View Paper: https://www.semanticscholar.org/paper/9618f0662439c3c356c8c739218d1c1a8cb1d018

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Aquatic Science

1. T. Torgersen
2. M. Remen
3. R. L. Olsen
4. A. Imsland
5. P. V. Skov
6. F. Oppedal
7. Michael G. Frisk
8. S. Cooke

In Ecology

1. Michael G. Frisk
2. P. V. Skov
3. T. Torgersen
4. M. Remen
5. R. L. Olsen
6. S. Cooke
7. J. Steffensen
8. E. Eliason

In Nature and Landscape Conservation

1. T. Torgersen
2. M. Remen
3. R. L. Olsen
4. A. Imsland
5. P. V. Skov
6. Michael G. Frisk
7. S. Cooke
8. J. Steffensen

Citations in the corpus

• Parasite infection and decreased thermal tolerance: impact of proliferative kidney disease on a wild salmonid fish in the context of climate change (2017, background): “…until it reaches a peak (optimum temperature for aerobic scope) but then decreases at higher temperature because SMR would increase faster than MMR as the rate of oxygen delivery by the cardiorespiratory system becomes limiting (P€ortner 2001; P€ortner & Knust 2007; Farrell et al. 2009).”
• Hypoxia tolerance thresholds for post-smolt Atlantic salmon: Dependency of temperature and hypoxia acclimation (2013, background): “…processes and cost of oxygen transport to metabolising tissues40 increase with temperature (Mark et al., 2002), causing an exponential increase in the standard 41 metabolic rate (SMR, the metabolic rate of fasted and resting fish) with temperature (Brett 42 and Groves, 1979; Farrell et al., 2009).”
• Antarctic Marine Biodiversity: Adaptations, Environments and Responses to Change (2018, background): “Phenotypic plasticity is effective over a very large range of timescales from changes in heartbeat rate driven by adrenergic changes in fish (Farrell et al. 2009) to seasonal or life-history changes such as the modulation of activity (e.”
• Physiological Basis of Climate Change Impacts on North American Inland Fishes (2016, background): “The ability of the cardiorespiratory system to perform key life functions is determined by an individual’s aerobic scope, which is defined as the difference between maximum metabolic rate (MMR) and standard metabolic rate (SMR; Box 1; Figure 2; Pörtner and Farrell 2008; Farrell et al. 2009).”
• Thermal optimum for pikeperch (Sander lucioperca) and the use of ventilation frequency as a predictor of metabolic rate (2012, background): “High temperatures increase the oxygen demand of the heart (Farrell et al., 2009).”