Cancer arises as a consequence of cumulative disruptions to cellular growth control with Darwinian selection for those heritable changes that provide the greatest clonal advantage. These traits can be acquired and stably maintained by either genetic or epigenetic means. Here, we explore the ways in which alterations in the genome and epigenome influence each other and cooperate to promote oncogenic transformation. Disruption of epigenomic control is pervasive in malignancy and can be classified as an enabling characteristic of cancer cells, akin to genome instability and mutation
Despite the clonal origin of most tumors, their tremendous heterogeneity suggests that cancer progre...
Appropriate patterns of DNA methylation and histone modifications are required to assure cell identi...
Cancer evolution is associated with genomic instability and epigenetic alterations, which contribute...
Cancer arises as a consequence of cumulative disruptions to cellular growth control with Darwinian s...
Epigenetic and genetic alterations have long been thought of as two separate mechanisms participatin...
Aberrant gene function and altered patterns of gene expression are key features of cancer. Growing e...
Compared to the normal tissues, cancer cells tend to have higher proliferation rate and often lost t...
Genomic instability, which occurs through both genetic mechanisms (underlying inheritable phenotypic...
AbstractThe complexity of the mammalian genome is regulated by heritable epigenetic mechanisms, whic...
Epigenetic regulators are one of the most commonly mutated classes of genes in cancer. During cancer...
Large-scale cancer genomics projects are just starting to trickle into the literature, and the flow ...
The epigenetic regulation of DNA-templated processes has been intensely studied over the last 15 yea...
Cancer is traditionally viewed as a primarily genetic disorder, however it is now becoming accepted ...
The correlation between epigenetic aberrations and disease underscores the importance of epigenetic ...
Epigenetics “above or over genetics” is the term used for processes that result in modifications whi...
Despite the clonal origin of most tumors, their tremendous heterogeneity suggests that cancer progre...
Appropriate patterns of DNA methylation and histone modifications are required to assure cell identi...
Cancer evolution is associated with genomic instability and epigenetic alterations, which contribute...
Cancer arises as a consequence of cumulative disruptions to cellular growth control with Darwinian s...
Epigenetic and genetic alterations have long been thought of as two separate mechanisms participatin...
Aberrant gene function and altered patterns of gene expression are key features of cancer. Growing e...
Compared to the normal tissues, cancer cells tend to have higher proliferation rate and often lost t...
Genomic instability, which occurs through both genetic mechanisms (underlying inheritable phenotypic...
AbstractThe complexity of the mammalian genome is regulated by heritable epigenetic mechanisms, whic...
Epigenetic regulators are one of the most commonly mutated classes of genes in cancer. During cancer...
Large-scale cancer genomics projects are just starting to trickle into the literature, and the flow ...
The epigenetic regulation of DNA-templated processes has been intensely studied over the last 15 yea...
Cancer is traditionally viewed as a primarily genetic disorder, however it is now becoming accepted ...
The correlation between epigenetic aberrations and disease underscores the importance of epigenetic ...
Epigenetics “above or over genetics” is the term used for processes that result in modifications whi...
Despite the clonal origin of most tumors, their tremendous heterogeneity suggests that cancer progre...
Appropriate patterns of DNA methylation and histone modifications are required to assure cell identi...
Cancer evolution is associated with genomic instability and epigenetic alterations, which contribute...