Appropriate patterns of DNA methylation and histone modifications are required to assure cell identity, and their deregulation can contribute to human diseases, such as cancer. Our aim here is to provide an overview of how epigenetic factors, including genomic DNA methylation, histone modifications, and microRNA regulation, contribute to normal development, paying special attention to their role in regulating tissue-specific genes. In addition, we summarize how these epigenetic patterns go awry during human cancer development. The possibility of “resetting” the abnormal cancer epigenome by applying pharmacological or genetic strategies is also discussed
Genomic instability, which occurs through both genetic mechanisms (underlying inheritable phenotypic...
Epigenetic, along with genetic mechanisms, is essential for natural evolution and maintenance of spe...
Genetic events alone cannot explain the entire process of carcinogenesis. It is estimated that there...
Appropriate patterns of DNA methylation and histone modifications are required to assure cell identi...
Defects in chromatin modifiers and remodelers have been described both for hematological and solid m...
Epigenetic modifications are central to many human diseases, including cancer. Traditionally, cancer...
DNA methylation, histone modification, CpG islands Deregulation of gene expression is a hallmark of ...
Since every cell of a multicellular organism contains the same genome, it is intriguing to understan...
Epigenetics deals with the interactions between genes and the immediate cellular environment. These ...
Epigenetics has become a fast-growing area of study in cellular biology. An epigenetic trait is defi...
Gene expression programs are tightly regulated by heritable "epigenetic" information, which is store...
Cancer is a disease arising from both genetic and epigenetic modifications of DNA that contribute to...
Compared to the normal tissues, cancer cells tend to have higher proliferation rate and often lost t...
AbstractThe complexity of the mammalian genome is regulated by heritable epigenetic mechanisms, whic...
The epigenetic regulation of DNA-templated processes has been intensely studied over the last 15 yea...
Genomic instability, which occurs through both genetic mechanisms (underlying inheritable phenotypic...
Epigenetic, along with genetic mechanisms, is essential for natural evolution and maintenance of spe...
Genetic events alone cannot explain the entire process of carcinogenesis. It is estimated that there...
Appropriate patterns of DNA methylation and histone modifications are required to assure cell identi...
Defects in chromatin modifiers and remodelers have been described both for hematological and solid m...
Epigenetic modifications are central to many human diseases, including cancer. Traditionally, cancer...
DNA methylation, histone modification, CpG islands Deregulation of gene expression is a hallmark of ...
Since every cell of a multicellular organism contains the same genome, it is intriguing to understan...
Epigenetics deals with the interactions between genes and the immediate cellular environment. These ...
Epigenetics has become a fast-growing area of study in cellular biology. An epigenetic trait is defi...
Gene expression programs are tightly regulated by heritable "epigenetic" information, which is store...
Cancer is a disease arising from both genetic and epigenetic modifications of DNA that contribute to...
Compared to the normal tissues, cancer cells tend to have higher proliferation rate and often lost t...
AbstractThe complexity of the mammalian genome is regulated by heritable epigenetic mechanisms, whic...
The epigenetic regulation of DNA-templated processes has been intensely studied over the last 15 yea...
Genomic instability, which occurs through both genetic mechanisms (underlying inheritable phenotypic...
Epigenetic, along with genetic mechanisms, is essential for natural evolution and maintenance of spe...
Genetic events alone cannot explain the entire process of carcinogenesis. It is estimated that there...