Literature DB >> 11284006

Chronological lifespan of stationary phase yeast cells; a model for investigating the factors that might influence the ageing of postmitotic tissues in higher organisms.

M MacLean1, N Harris, P W Piper.   

Abstract

Budding yeast can be considered to have two distinct lifespans: (a) a replicative (budding, non-chronological) lifespan, measured as the number of daughters produced by each actively dividing mother cell; and (ii) a chronological lifespan, measured as the ability of stationary cultures to maintain viability over time. In non-dividing cells, essential components that become damaged cannot be diluted out through cell division but must, of necessity, be turned over and renewed. By elevating stress resistances, many of the activities needed for such renewal should be elevated with commensurate reduction in the steady-state levels of damaged cell components. Therefore, chronological lifespan in particular might be expected to relate to stress resistance. For yeast to attain a full chronological lifespan requires the expression of the general stress response. It is more important, though, that the cells should be efficiently adapted to respiratory maintenance, since it is cultures grown to stationary phase on respiratory media that usually display the longest chronological lifespans. For this reason, respiration-adapted cells potentially provide a better model of chronological ageing than cultures pre-grown on glucose. Copyright 2001 John Wiley & Sons, Ltd.

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Year:  2001        PMID: 11284006     DOI: 10.1002/yea.701

Source DB:  PubMed          Journal:  Yeast        ISSN: 0749-503X            Impact factor:   3.239


  47 in total

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Authors:  D Sereno; B Vergnes; F Mathieu-Daude; A Cordeiro da Silva; A Ouaissi
Journal:  Parasitol Res       Date:  2006-09-20       Impact factor: 2.289

2.  Yeast AMID homologue Ndi1p displays respiration-restricted apoptotic activity and is involved in chronological aging.

Authors:  Wei Li; Libo Sun; Qiuli Liang; Juan Wang; Weike Mo; Bing Zhou
Journal:  Mol Biol Cell       Date:  2006-01-25       Impact factor: 4.138

3.  Isc1p plays a key role in hydrogen peroxide resistance and chronological lifespan through modulation of iron levels and apoptosis.

Authors:  Teresa Almeida; Marta Marques; Dominik Mojzita; Maria A Amorim; Rui D Silva; Bruno Almeida; Pedro Rodrigues; Paula Ludovico; Stefan Hohmann; Pedro Moradas-Ferreira; Manuela Côrte-Real; Vítor Costa
Journal:  Mol Biol Cell       Date:  2007-12-27       Impact factor: 4.138

4.  Extension of chronological life span in yeast by decreased TOR pathway signaling.

Authors:  R Wilson Powers; Matt Kaeberlein; Seth D Caldwell; Brian K Kennedy; Stanley Fields
Journal:  Genes Dev       Date:  2006-01-15       Impact factor: 11.361

5.  Respiratory and TCA cycle activities affect S. cerevisiae lifespan, response to caloric restriction and mtDNA stability.

Authors:  Erich B Tahara; Kizzy Cezário; Nadja C Souza-Pinto; Mario H Barros; Alicia J Kowaltowski
Journal:  J Bioenerg Biomembr       Date:  2011-07-21       Impact factor: 2.945

6.  Daughters of the budding yeast from old mothers have shorter replicative lifespans but not total lifespans. Are DNA damage and rDNA instability the factors that determine longevity?

Authors:  Mateusz Molon; Anita Panek; Eliza Molestak; Marek Skoneczny; Marek Tchorzewski; Maciej Wnuk
Journal:  Cell Cycle       Date:  2018-07-15       Impact factor: 4.534

7.  Translational Geroscience: From invertebrate models to companion animal and human interventions.

Authors:  Mitchell B Lee; Matt Kaeberlein
Journal:  Transl Med Aging       Date:  2018-08-17

8.  Surviving in the cold: yeast mutants with extended hibernating lifespan are oxidant sensitive.

Authors:  Lucie Postma; Hans Lehrach; Markus Ralser
Journal:  Aging (Albany NY)       Date:  2009-12-04       Impact factor: 5.682

9.  Identification of evolutionarily conserved genetic regulators of cellular aging.

Authors:  Gerhard T Laschober; Doris Ruli; Edith Hofer; Christoph Muck; Didac Carmona-Gutierrez; Julia Ring; Eveline Hutter; Christoph Ruckenstuhl; Lucia Micutkova; Regina Brunauer; Angelika Jamnig; Daniela Trimmel; Dietmar Herndler-Brandstetter; Stefan Brunner; Christoph Zenzmaier; Natalie Sampson; Michael Breitenbach; Kai-Uwe Fröhlich; Beatrix Grubeck-Loebenstein; Peter Berger; Matthias Wieser; Regina Grillari-Voglauer; Gerhard G Thallinger; Johannes Grillari; Zlatko Trajanoski; Frank Madeo; Günter Lepperdinger; Pidder Jansen-Dürr
Journal:  Aging Cell       Date:  2010-10-28       Impact factor: 9.304

10.  Calorie restriction reduces rDNA recombination independently of rDNA silencing.

Authors:  Michèle Riesen; Alan Morgan
Journal:  Aging Cell       Date:  2009-09-02       Impact factor: 9.304

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