Literature DB >> 30966964

Ecological and evolutionary consequences of metabolic rate plasticity in response to environmental change.

Tommy Norin1,2, Neil B Metcalfe1.   

Abstract

Basal or standard metabolic rate reflects the minimum amount of energy required to maintain body processes, while the maximum metabolic rate sets the ceiling for aerobic work. There is typically up to three-fold intraspecific variation in both minimal and maximal rates of metabolism, even after controlling for size, sex and age; these differences are consistent over time within a given context, but both minimal and maximal metabolic rates are plastic and can vary in response to changing environments. Here we explore the causes of intraspecific and phenotypic variation at the organ, tissue and mitochondrial levels. We highlight the growing evidence that individuals differ predictably in the flexibility of their metabolic rates and in the extent to which they can suppress minimal metabolism when food is limiting but increase the capacity for aerobic metabolism when a high work rate is beneficial. It is unclear why this intraspecific variation in metabolic flexibility persists-possibly because of trade-offs with the flexibility of other traits-but it has consequences for the ability of populations to respond to a changing world. It is clear that metabolic rates are targets of selection, but more research is needed on the fitness consequences of rates of metabolism and their plasticity at different life stages, especially in natural conditions. This article is part of the theme issue 'The role of plasticity in phenotypic adaptation to rapid environmental change'.

Keywords:  climate change; energetics; metabolism; phenotypic flexibility; phenotypic plasticity; temperature

Mesh:

Year:  2019        PMID: 30966964      PMCID: PMC6365862          DOI: 10.1098/rstb.2018.0180

Source DB:  PubMed          Journal:  Philos Trans R Soc Lond B Biol Sci        ISSN: 0962-8436            Impact factor:   6.237


  21 in total

1.  Adaptive phenotypic plasticity for life-history and less fitness-related traits.

Authors:  Cristina Acasuso-Rivero; Courtney J Murren; Carl D Schlichting; Ulrich K Steiner
Journal:  Proc Biol Sci       Date:  2019-06-12       Impact factor: 5.349

2.  Is repeatability of metabolic rate influenced by social separation? A test with a teleost fish.

Authors:  Yan Huang; Shijian Fu; Steven J Cooke; Jigang Xia
Journal:  Biol Lett       Date:  2020-04-29       Impact factor: 3.703

3.  Basal metabolic rate and risk of multiple sclerosis: a Mendelian randomization study.

Authors:  Chunxin Liu; Yaxin Lu; Jingjing Chen; Wei Qiu; Yiqiang Zhan; Zifeng Liu
Journal:  Metab Brain Dis       Date:  2022-05-11       Impact factor: 3.655

4.  An investigation of links between metabolic rate and feed efficiency in European sea bass Dicentrarchus labrax.

Authors:  Charles Rodde; Hugues de Verdal; Marc Vandeputte; François Allal; Julie Nati; Mathieu Besson; Felipe R Blasco; John A H Benzie; David J McKenzie
Journal:  J Anim Sci       Date:  2021-06-01       Impact factor: 3.159

5.  Plasticity in Standard and Maximum Aerobic Metabolic Rates in Two Populations of an Estuarine Dependent Teleost, Spotted Seatrout (Cynoscion nebulosus).

Authors:  Jingwei Song; Richard W Brill; Jan R McDowell
Journal:  Biology (Basel)       Date:  2019-06-14

6.  Combined Effects of Acute Temperature Change and Elevated pCO2 on the Metabolic Rates and Hypoxia Tolerances of Clearnose Skate (Rostaraja eglanteria), Summer Flounder (Paralichthys dentatus), and Thorny Skate (Amblyraja radiata).

Authors:  Gail D Schwieterman; Daniel P Crear; Brooke N Anderson; Danielle R Lavoie; James A Sulikowski; Peter G Bushnell; Richard W Brill
Journal:  Biology (Basel)       Date:  2019-07-26

7.  Continuous growth through winter correlates with increased resting metabolic rate but does not affect daily energy budgets due to torpor use.

Authors:  Jan S Boratyński; Karolina Iwińska; Paulina A Szafrańska; Piotr Chibowski; Wiesław Bogdanowicz
Journal:  Curr Zool       Date:  2020-09-02       Impact factor: 2.624

8.  Effects of Heat Waves During Post-natal Development on Mitochondrial and Whole Body Physiology: An Experimental Study in Zebra Finches.

Authors:  Riccardo Ton; Antoine Stier; Christine E Cooper; Simon C Griffith
Journal:  Front Physiol       Date:  2021-04-27       Impact factor: 4.566

9.  Diet and temperature modify the relationship between energy use and ATP production to influence behavior in zebrafish (Danio rerio).

Authors:  Amélie Le Roy; Geoffrey P F Mazué; Neil B Metcalfe; Frank Seebacher
Journal:  Ecol Evol       Date:  2021-06-21       Impact factor: 2.912

10.  Determinants of heart rate in Svalbard reindeer reveal mechanisms of seasonal energy management.

Authors:  L Monica Trondrud; Gabriel Pigeon; Steve Albon; Walter Arnold; Alina L Evans; R Justin Irvine; Elżbieta Król; Erik Ropstad; Audun Stien; Vebjørn Veiberg; John R Speakman; Leif Egil Loe
Journal:  Philos Trans R Soc Lond B Biol Sci       Date:  2021-06-28       Impact factor: 6.237

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