2018
DOI: 10.1111/1365-2656.12927
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Abstract: Most studies of climate change impacts focus on the effects of summer temperatures, which can immediately impact fitness of breeders, but winter temperatures are expected to have a greater impact on development and growth of animals with long‐lasting consequences. Exposure to warmer temperatures can increase cellular oxidative damage in ectotherms. Yet, it is unknown whether thermal stress during early life has prolonged effects on oxidative status during adulthood. In an experiment using F1 fish originated fr… Show more

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Cited by 36 publications
(47 citation statements)
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“…As observed at catch‐up, 18:6 photoperiod conditions consistently induced higher enzymatic activities at metamorphosis; however, such responses across development seemed to be insufficient to buffer oxidative damages at metamorphosis. Previous studies have detected alterations in the redox machinery across taxa, as for instances in zebra finches (Alonso‐Alvarez et al, ), sticklebacks (Kim et al, ) or damselflies (De Block & Stoks, ). Perturbations in the redox status at early life can have carry‐over effects in vertebrates, such as reductions in reproduction investment or in life expectancy (Metcalfe & Alonso‐Alvarez, ; Monaghan et al, ), although long‐term studies are need to fully elucidated this question (Costantini, ).…”
Section: Discussionmentioning
confidence: 99%
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“…As observed at catch‐up, 18:6 photoperiod conditions consistently induced higher enzymatic activities at metamorphosis; however, such responses across development seemed to be insufficient to buffer oxidative damages at metamorphosis. Previous studies have detected alterations in the redox machinery across taxa, as for instances in zebra finches (Alonso‐Alvarez et al, ), sticklebacks (Kim et al, ) or damselflies (De Block & Stoks, ). Perturbations in the redox status at early life can have carry‐over effects in vertebrates, such as reductions in reproduction investment or in life expectancy (Metcalfe & Alonso‐Alvarez, ; Monaghan et al, ), although long‐term studies are need to fully elucidated this question (Costantini, ).…”
Section: Discussionmentioning
confidence: 99%
“…The alteration of these metabolic routes can reduce individual health and fitness (Costantini, 2014(Costantini, , 2019. For instance, birds compensating losses in growth experience oxidative stress and reduced immunocompetence (Alonso-Alvarez, Bertrand, Faivre, & Sorci, 2007), and similar responses have been detected in insects (De Block & Stoks, 2008a, 2008b and fish (Kim, Noguera, & Velando, 2019). Compensatory responses can also affect organisms' physiology later in life, as in individuals growing faster after a period of poor nutritional conditions, which still maintain higher metabolic rates during adulthood (Criscuolo, Monaghan, Nasir, & Metcalfe, 2008).…”
Section: Introductionmentioning
confidence: 95%
“…During the experiment, juveniles from the learning task group suffered reduced growth rates and increased mortality, suggesting that cognitive challenges have important fitness costs (Mery and Kawecki, 2003). In our experiment, the control fish grew and gained weight fast during the juvenile period, then slowed down somatic growth during the breeding season, as typically occur in this species (Kim et al, 2019). The learning task treatment changed the growth trajectory of the experimental fish that grew at a slower rate than the controls during the treatment, then accelerated growth to catch up and attained a similar body size and mass to the controls during the breeding season (Metcalfe and Monaghan, 2001).…”
Section: Discussionmentioning
confidence: 61%
“…The learning task treatment changed the growth trajectory of the experimental fish that grew at a slower rate than the controls during the treatment, then accelerated growth to catch up and attained a similar body size and mass to the controls during the breeding season (Metcalfe and Monaghan, 2001). It is well-known that such catchup growth has delayed deleterious effects, increasing oxidative damage in somatic and germline tissues in adults (Kim et al, 2019) and reducing reproductive rate and lifespan (Inness and Metcalfe, 2008;Lee et al, 2012;Ab Ghani and Merilä, 2014). The negative effect of the treatment on survival beyond the period of the experiment may be due to fast compensatory growth (Kim et al, 2019).…”
Section: Discussionmentioning
confidence: 99%
“…Although evidence for costs of rapid growth working through oxidative damage has been accumulating in recent years (Nussey et al , Noguera et al , Geiger et al , Christensen et al , Smith et al , Kim et al , Burraco et al 2020), these studies did not consider multiple populations across latitudes (but see Debecker and Stoks ), and none looked at effects on lifespan. Hence, it is unknown whether oxidative stress‐mediated costs of rapid growth play a mediatory role in the differential evolution of growth rates and lifespan at high and low latitudes.…”
Section: Introductionmentioning
confidence: 99%