Literature DB >> 16777725

Having it all: historical energy intakes do not generate the anticipated trade-offs in fecundity.

S L Johnston1, T Grune, L M Bell, S J Murray, D M Souter, S S Erwin, J M Yearsley, I J Gordon, A W Illius, I Kyriazakis, J R Speakman.   

Abstract

An axiom of life-history theory, and fundamental to our understanding of ageing, is that animals must trade-off their allocation of resources since energy and nutrients are limited. Therefore, animals cannot "have it all"--combine high rates of fecundity with extended lifespans. The idea of life-history trade-offs was recently challenged by the discovery that ageing may be governed by a small subset of molecular processes independent of fitness. We tested the "trade-off" and "having it all" theories by examining the fecundities of C57BL/6J mice placed onto four different dietary treatments that generated caloric intakes from -21 to +8.6% of controls. We predicted body fat would be deposited in relation to caloric intake. Excessive body fat is known to cause co-morbidities that shorten lifespan, while caloric restriction enhances somatic protection and increases longevity. The trade-off model predicts that increased fat would be tolerated because reproductive gain offsets shortened longevity, while animals on a restricted intake would sacrifice reproduction for lifespan extension. The responses of body fat to treatments followed our expectations, however, there was a negative relationship between reproductive performance (fecundity, litter mass) and historical intake/body fat. Our dietary restricted animals had lower protein oxidative damage and appeared able to combine life-history traits in a manner contrary to traditional expectations by having increased fecundity with the potential to have extended lifespans.

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Year:  2006        PMID: 16777725      PMCID: PMC1560301          DOI: 10.1098/rspb.2005.3456

Source DB:  PubMed          Journal:  Proc Biol Sci        ISSN: 0962-8452            Impact factor:   5.349


  27 in total

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Review 4.  Comparative aging and life histories in mammals.

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5.  A C. elegans mutant that lives twice as long as wild type.

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6.  Signals from the reproductive system regulate the lifespan of C. elegans.

Authors:  H Hsin; C Kenyon
Journal:  Nature       Date:  1999-05-27       Impact factor: 49.962

7.  Extension of life-span by loss of CHICO, a Drosophila insulin receptor substrate protein.

Authors:  D J Clancy; D Gems; L G Harshman; S Oldham; H Stocker; E Hafen; S J Leevers; L Partridge
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8.  Separating the effects of predation risk and interrupted foraging upon mass changes in the blue tit Parus caeruleus.

Authors:  S A Rands; I C Cuthill
Journal:  Proc Biol Sci       Date:  2001-09-07       Impact factor: 5.349

9.  Requirement of NAD and SIR2 for life-span extension by calorie restriction in Saccharomyces cerevisiae.

Authors:  S J Lin; P A Defossez; L Guarente
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10.  PIXImus DXA with different software needs individual calibration to accurately predict fat mass.

Authors:  Sarah L Johnston; Wendy L Peacock; Lynn M Bell; Michel Lonchampt; John R Speakman
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  13 in total

1.  Genetic dissection of dietary restriction in mice supports the metabolic efficiency model of life extension.

Authors:  Brad A Rikke; Chen-Yu Liao; Matthew B McQueen; James F Nelson; Thomas E Johnson
Journal:  Exp Gerontol       Date:  2010-05-07       Impact factor: 4.032

Review 2.  The physiological costs of reproduction in small mammals.

Authors:  John R Speakman
Journal:  Philos Trans R Soc Lond B Biol Sci       Date:  2008-01-27       Impact factor: 6.237

3.  Genetic dissection of late-life fertility in Caenorhabditis elegans.

Authors:  Alexander R Mendenhall; Deqing Wu; Sang-Kyu Park; James R Cypser; Patricia M Tedesco; Christopher D Link; Patrick C Phillips; Thomas E Johnson
Journal:  J Gerontol A Biol Sci Med Sci       Date:  2011-05-28       Impact factor: 6.053

4.  Oxidative damage and plasma antioxidant capacity in relation to body size, age, male sexual traits and female reproductive performance in the collared flycatcher (Ficedula albicollis).

Authors:  Gábor Markó; David Costantini; Gábor Michl; János Török
Journal:  J Comp Physiol B       Date:  2010-07-31       Impact factor: 2.200

5.  Patterns of intraspecific variability in the response to caloric restriction.

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Journal:  Exp Gerontol       Date:  2013-12-31       Impact factor: 4.032

6.  Effects of restricting energy during the gilt development period on growth and reproduction of lines differing in lean growth rate: responses in reproductive performance and longevity.

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7.  The impact of experimentally elevated energy expenditure on oxidative stress and lifespan in the short-tailed field vole Microtus agrestis.

Authors:  Colin Selman; Jane S McLaren; Andrew R Collins; Garry G Duthie; John R Speakman
Journal:  Proc Biol Sci       Date:  2008-08-22       Impact factor: 5.349

8.  Influence of Commercial and Laboratory Diets on Growth, Body Composition, and Reproduction in the Zebrafish Danio rerio.

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Journal:  Zebrafish       Date:  2019-08-05       Impact factor: 1.985

9.  Trends in mortality from septicaemia and pneumonia with economic development: an age-period-cohort analysis.

Authors:  Irene O L Wong; Benjamin J Cowling; Gabriel M Leung; C Mary Schooling
Journal:  PLoS One       Date:  2012-06-14       Impact factor: 3.240

10.  The effects of graded levels of calorie restriction: I. impact of short term calorie and protein restriction on body composition in the C57BL/6 mouse.

Authors:  Sharon E Mitchell; Zhanhui Tang; Celine Kerbois; Camille Delville; Penelope Konstantopedos; Aurélie Bruel; Davina Derous; Cara Green; Richard M Aspden; Simon R Goodyear; Luonan Chen; Jackie J D Han; Yingchun Wang; Daniel E L Promislow; David Lusseau; Alex Douglas; John R Speakman
Journal:  Oncotarget       Date:  2015-06-30
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