Literature DB >> 12089552

Historical claims and current interpretations of replicative aging.

Woodring E Wright1, Jerry W Shay.   

Abstract

Replicative aging is the process by which most normal human cells "count" the number of times they have divided, eventually undergoing a growth arrest termed cellular senescence. This process is dependent on the shortening of telomeres, repeated sequences at the ends of the chromosomes. The loss of telomeric sequences with each cell division eventually induces a growth arrest that has a similar phenotype to that of cells stressed by inadequate culture or other conditions. Experiments over the past several years have identified species in which replicative aging does not occur and many examples in which a failure to proliferate has been misinterpreted as replicative senescence. Insights from these studies now permit a reevaluation of much of the seemingly contradictory data concerning replicative aging. There are good theoretical reasons for believing a limited proliferative capacity contributes to declining tissue homeostasis with increasing age. Although the presence of telomere shortening provides strong circumstantial evidence that replicative aging is occurring in vivo, thus far there is only very limited direct evidence for actual physiological effects of replicative aging.

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Year:  2002        PMID: 12089552     DOI: 10.1038/nbt0702-682

Source DB:  PubMed          Journal:  Nat Biotechnol        ISSN: 1087-0156            Impact factor:   54.908


  86 in total

1.  Senescence-specific gene expression fingerprints reveal cell-type-dependent physical clustering of up-regulated chromosomal loci.

Authors:  Hong Zhang; Kuang-Hung Pan; Stanley N Cohen
Journal:  Proc Natl Acad Sci U S A       Date:  2003-03-07       Impact factor: 11.205

Review 2.  When cells get stressed: an integrative view of cellular senescence.

Authors:  Ittai Ben-Porath; Robert A Weinberg
Journal:  J Clin Invest       Date:  2004-01       Impact factor: 14.808

3.  Does a sentinel or a subset of short telomeres determine replicative senescence?

Authors:  Ying Zou; Agnel Sfeir; Sergei M Gryaznov; Jerry W Shay; Woodring E Wright
Journal:  Mol Biol Cell       Date:  2004-06-04       Impact factor: 4.138

4.  Modification of subtelomeric DNA.

Authors:  Susanne Steinert; Jerry W Shay; Woodring E Wright
Journal:  Mol Cell Biol       Date:  2004-05       Impact factor: 4.272

Review 5.  Measuring reactive species and oxidative damage in vivo and in cell culture: how should you do it and what do the results mean?

Authors:  Barry Halliwell; Matthew Whiteman
Journal:  Br J Pharmacol       Date:  2004-05       Impact factor: 8.739

6.  Small-molecule-based identification of dynamic assembly of E2F-pocket protein-histone deacetylase complex for telomerase regulation in human cells.

Authors:  Jaejoon Won; Seungwoo Chang; Sangtaek Oh; Tae Kook Kim
Journal:  Proc Natl Acad Sci U S A       Date:  2004-07-19       Impact factor: 11.205

7.  Molecular insights into the heterogeneity of telomere reprogramming in induced pluripotent stem cells.

Authors:  Fang Wang; Yu Yin; Xiaoying Ye; Kai Liu; Haiying Zhu; Lingling Wang; Maria Chiourea; Maja Okuka; Guangzhen Ji; Jiameng Dan; Bingfeng Zuo; Minshu Li; Qian Zhang; Na Liu; Lingyi Chen; Xinghua Pan; Sarantis Gagos; David L Keefe; Lin Liu
Journal:  Cell Res       Date:  2011-12-20       Impact factor: 25.617

Review 8.  The essence of senescence.

Authors:  Thomas Kuilman; Chrysiis Michaloglou; Wolter J Mooi; Daniel S Peeper
Journal:  Genes Dev       Date:  2010-11-15       Impact factor: 11.361

Review 9.  Assessing cell and organ senescence biomarkers.

Authors:  Bruno Bernardes de Jesus; Maria A Blasco
Journal:  Circ Res       Date:  2012-06-22       Impact factor: 17.367

10.  Smurf2 up-regulation activates telomere-dependent senescence.

Authors:  Hong Zhang; Stanley N Cohen
Journal:  Genes Dev       Date:  2004-12-01       Impact factor: 11.361

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