Strategies To Modulate Heritable Epigenetic Defects in Cellular Machinery: Lessons from Nature

Natural epigenetic processes precisely orchestrate the intricate gene network by expressing and suppressing genes at the right place and time, thereby playing an essential role in maintaining the cellular homeostasis. Environment-mediated alteration of this natural epigenomic pattern causes abnormal...

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Main Authors: Ganesh N. Pandian, Hiroshi Sugiyama
Format: Article
Language:English
Published: MDPI AG 2012-12-01
Series:Pharmaceuticals
Subjects:
Online Access:http://www.mdpi.com/1424-8247/6/1/1
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spelling doaj-b6692eeefc274b508b70bcdf886bab512020-11-25T02:34:24ZengMDPI AGPharmaceuticals1424-82472012-12-016112410.3390/ph6010001Strategies To Modulate Heritable Epigenetic Defects in Cellular Machinery: Lessons from NatureGanesh N. PandianHiroshi SugiyamaNatural epigenetic processes precisely orchestrate the intricate gene network by expressing and suppressing genes at the right place and time, thereby playing an essential role in maintaining the cellular homeostasis. Environment-mediated alteration of this natural epigenomic pattern causes abnormal cell behavior and shifts the cell from the normal to a diseased state, leading to certain cancers and neurodegenerative disorders. Unlike heritable diseases that are caused by the irreversible mutations in DNA, epigenetic errors can be reversed. Inheritance of epigenetic memory is also a major concern in the clinical translation of the Nobel Prize-winning discovery of induced pluripotent stem cell technology. Consequently, there is an increasing interest in the development of novel epigenetic switch-based therapeutic strategies that could potentially restore the heritable changes in epigenetically inherited disorders. Here we give a comprehensive overview of epigenetic inheritance and suggest the prospects of therapeutic gene modulation using epigenetic-based drugs, in particular histone deacetylase inhibitors. This review suggests that there is a need to develop therapeutic strategies that effectively mimic the natural environment and include the ways to modulate the gene expression at both the genetic and epigenetic levels. The development of tailor-made small molecules that could epigenetically alter DNA in a sequence-specific manner is a promising approach for restoring defects in an altered epigenome and may offer a sustainable solution to some unresolved clinical issues.http://www.mdpi.com/1424-8247/6/1/1epigenetic inheritancechemical mimicsHDAC inhibitorsregenerative medicinecancer treatmentprogrammable genetic switcheshistone codeepigenetic switch based therapyfuture medicine
collection DOAJ
language English
format Article
sources DOAJ
author Ganesh N. Pandian
Hiroshi Sugiyama
spellingShingle Ganesh N. Pandian
Hiroshi Sugiyama
Strategies To Modulate Heritable Epigenetic Defects in Cellular Machinery: Lessons from Nature
Pharmaceuticals
epigenetic inheritance
chemical mimics
HDAC inhibitors
regenerative medicine
cancer treatment
programmable genetic switches
histone code
epigenetic switch based therapy
future medicine
author_facet Ganesh N. Pandian
Hiroshi Sugiyama
author_sort Ganesh N. Pandian
title Strategies To Modulate Heritable Epigenetic Defects in Cellular Machinery: Lessons from Nature
title_short Strategies To Modulate Heritable Epigenetic Defects in Cellular Machinery: Lessons from Nature
title_full Strategies To Modulate Heritable Epigenetic Defects in Cellular Machinery: Lessons from Nature
title_fullStr Strategies To Modulate Heritable Epigenetic Defects in Cellular Machinery: Lessons from Nature
title_full_unstemmed Strategies To Modulate Heritable Epigenetic Defects in Cellular Machinery: Lessons from Nature
title_sort strategies to modulate heritable epigenetic defects in cellular machinery: lessons from nature
publisher MDPI AG
series Pharmaceuticals
issn 1424-8247
publishDate 2012-12-01
description Natural epigenetic processes precisely orchestrate the intricate gene network by expressing and suppressing genes at the right place and time, thereby playing an essential role in maintaining the cellular homeostasis. Environment-mediated alteration of this natural epigenomic pattern causes abnormal cell behavior and shifts the cell from the normal to a diseased state, leading to certain cancers and neurodegenerative disorders. Unlike heritable diseases that are caused by the irreversible mutations in DNA, epigenetic errors can be reversed. Inheritance of epigenetic memory is also a major concern in the clinical translation of the Nobel Prize-winning discovery of induced pluripotent stem cell technology. Consequently, there is an increasing interest in the development of novel epigenetic switch-based therapeutic strategies that could potentially restore the heritable changes in epigenetically inherited disorders. Here we give a comprehensive overview of epigenetic inheritance and suggest the prospects of therapeutic gene modulation using epigenetic-based drugs, in particular histone deacetylase inhibitors. This review suggests that there is a need to develop therapeutic strategies that effectively mimic the natural environment and include the ways to modulate the gene expression at both the genetic and epigenetic levels. The development of tailor-made small molecules that could epigenetically alter DNA in a sequence-specific manner is a promising approach for restoring defects in an altered epigenome and may offer a sustainable solution to some unresolved clinical issues.
topic epigenetic inheritance
chemical mimics
HDAC inhibitors
regenerative medicine
cancer treatment
programmable genetic switches
histone code
epigenetic switch based therapy
future medicine
url http://www.mdpi.com/1424-8247/6/1/1
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