Literature DB >> 28761008

Epigenetic inheritance, prions and evolution.

Johannes Manjrekar1.   

Abstract

The field of epigenetics has grown explosively in the past two decades or so. As currently defined, epigenetics deals with heritable, metastable and usually reversible changes that do not involve alterations in DNA sequence, but alter the way that information encoded inDNAis utilized.The bulk of current research in epigenetics concerns itself with mitotically inherited epigenetic processes underlying development or responses to environmental cues (as well as the role of mis-regulation or dys-regulation of such processes in disease and ageing), i.e., epigenetic changes occurring within individuals. However, a steadily growing body of evidence indicates that epigenetic changes may also sometimes be transmitted from parents to progeny, meiotically in sexually reproducing organisms or mitotically in asexually reproducing ones. Such transgenerational epigenetic inheritance (TEI) raises obvious questions about a possible evolutionary role for epigenetic 'Lamarckian' mechanisms in evolution, particularly when epigenetic modifications are induced by environmental cues. In this review I attempt a brief overview of the periodically reviewed and debated 'classical' TEI phenomena and their possible implications for evolution. The review then focusses on a less-discussed, unique kind of protein-only epigenetic inheritance mediated by prions. Much remains to be learnt about the mechanisms, persistence and effects of TEI. The jury is still out on their evolutionary significance and how these phenomena should be incorporated into evolutionary theory, but the growing weight of evidence indicates that likely evolutionary roles for these processes need to be seriously explored.

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Year:  2017        PMID: 28761008     DOI: 10.1007/s12041-017-0798-3

Source DB:  PubMed          Journal:  J Genet        ISSN: 0022-1333            Impact factor:   1.166


  138 in total

1.  Stable inheritance of an acquired behavior in Caenorhabditis elegans.

Authors:  Jean-Jacques Remy
Journal:  Curr Biol       Date:  2010-10-26       Impact factor: 10.834

2.  Rapid establishment of genetic incompatibility through natural epigenetic variation.

Authors:  Stéphanie Durand; Nicolas Bouché; Elsa Perez Strand; Olivier Loudet; Christine Camilleri
Journal:  Curr Biol       Date:  2012-01-26       Impact factor: 10.834

3.  The significance of responses of the genome to challenge.

Authors:  B McClintock
Journal:  Science       Date:  1984-11-16       Impact factor: 47.728

4.  Epigenetic transgenerational inheritance of altered stress responses.

Authors:  David Crews; Ross Gillette; Samuel V Scarpino; Mohan Manikkam; Marina I Savenkova; Michael K Skinner
Journal:  Proc Natl Acad Sci U S A       Date:  2012-05-21       Impact factor: 11.205

5.  Hsp104, Hsp70 and Hsp40 interplay regulates formation, growth and elimination of Sup35 prions.

Authors:  James Shorter; Susan Lindquist
Journal:  EMBO J       Date:  2008-10-02       Impact factor: 11.598

6.  The spontaneous appearance rate of the yeast prion [PSI+] and its implications for the evolution of the evolvability properties of the [PSI+] system.

Authors:  Alex K Lancaster; J Patrick Bardill; Heather L True; Joanna Masel
Journal:  Genetics       Date:  2009-11-16       Impact factor: 4.562

Review 7.  Epigenetic memory in plants.

Authors:  Mayumi Iwasaki; Jerzy Paszkowski
Journal:  EMBO J       Date:  2014-08-07       Impact factor: 11.598

8.  Evolutionary conservation of prion-forming abilities of the yeast Sup35 protein.

Authors:  Y O Chernoff; A P Galkin; E Lewitin; T A Chernova; G P Newnam; S M Belenkiy
Journal:  Mol Microbiol       Date:  2000-02       Impact factor: 3.501

9.  A yeast prion, Mod5, promotes acquired drug resistance and cell survival under environmental stress.

Authors:  Genjiro Suzuki; Naoyuki Shimazu; Motomasa Tanaka
Journal:  Science       Date:  2012-04-20       Impact factor: 47.728

10.  Oxidative stress conditions increase the frequency of de novo formation of the yeast [PSI+] prion.

Authors:  Victoria A Doronina; Gemma L Staniforth; Shaun H Speldewinde; Mick F Tuite; Chris M Grant
Journal:  Mol Microbiol       Date:  2015-02-11       Impact factor: 3.501

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  6 in total

1.  RNAs That Behave Like Prions.

Authors:  Arcady R Mushegian; Santiago F Elena
Journal:  mSphere       Date:  2020-07-01       Impact factor: 4.389

2.  Vitamin D Metabolic Pathway Genes Polymorphisms and Their Methylation Levels in Association With Rheumatoid Arthritis.

Authors:  Tian-Ping Zhang; Hong-Miao Li; Qian Huang; Li Wang; Xiao-Mei Li
Journal:  Front Immunol       Date:  2021-12-02       Impact factor: 7.561

Review 3.  Melatonin: Regulation of Prion Protein Phase Separation in Cancer Multidrug Resistance.

Authors:  Doris Loh; Russel J Reiter
Journal:  Molecules       Date:  2022-01-21       Impact factor: 4.411

4.  The Contribution of Genetic Variation and Aberrant Methylation of Aryl Hydrocarbon Receptor Signaling Pathway Genes to Rheumatoid Arthritis.

Authors:  Tian-Ping Zhang; Rui Li; Hong-Miao Li; Nan Xiang; Zhen Tan; Guo-Sheng Wang; Xiao-Mei Li
Journal:  Front Immunol       Date:  2022-03-02       Impact factor: 7.561

5.  Vitamin D and the promoter methylation of its metabolic pathway genes in association with the risk and prognosis of tuberculosis.

Authors:  Min Wang; Weimin Kong; Biyu He; Zhongqi Li; Huan Song; Peiyi Shi; Jianming Wang
Journal:  Clin Epigenetics       Date:  2018-09-12       Impact factor: 6.551

Review 6.  Environmentally-Induced Transgenerational Epigenetic Inheritance: Implication of PIWI Interacting RNAs.

Authors:  Karine Casier; Antoine Boivin; Clément Carré; Laure Teysset
Journal:  Cells       Date:  2019-09-19       Impact factor: 6.600

  6 in total

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