DNA Methylation: Approaches, Methods and Applications describes the relation DNA methylation has to gene silencing in disease, and explores its promising role in treating cancer. Written by leaders in the field, this exceptional compilation of articles outlines the best techniques to use when addressing questions concerning the cytosine methylation status of genomic DNA. It includes concepts, experimental models, and clinical uses of demethylating agents. The book provides a balance between articles clarifying methodological details and more general review chapters that offer broad biological...
DNA Methylation: Approaches, Methods and Applications describes the relation DNA methylation has to gene silencing in disease, and explores its promis...
Anomalous epigenetic patterns touch many areas of study including biomedical, scientific, and industrial. With perspectives from international experts, this resource offers an all-inclusive overview of epigenetics, which bridge DNA information and function by regulating gene expression without modifying the DNA sequence itself.
Epigenetics, in its most basic form, means heredity is not the sole determining factor in disease development. Rather, environmental and dietary factors can trigger a gene to behave in an unintended way, while the gene itself remains unchanged.
Epigenetics in...
Anomalous epigenetic patterns touch many areas of study including biomedical, scientific, and industrial. With perspectives from international experts...
Most of the cancer patients die because the tumoral cells do not "stick" in the original site, but instead detach, invade and disseminate throughout the bloodstream to distal sites, where these transformed cells start to proliferate and destroy again. In the last ten years, researchers have identified a number of important genes involved in these processes, including cadherins, laminins, heparan sulfates, inhibitors of proteases and angiogenesis and many others. The puzzling problem was that few genetic alterations in these genes had been described in human tumors, despite the common finding...
Most of the cancer patients die because the tumoral cells do not "stick" in the original site, but instead detach, invade and disseminate throughout t...
Most of the cancer patients die because the tumoral cells do not "stick" in the original site, but instead detach, invade and disseminate throughout the bloodstream to distal sites, where these transformed cells start to proliferate and destroy again. In the last ten years, researchers have identified a number of important genes involved in these processes, including cadherins, laminins, heparan sulfates, inhibitors of proteases and angiogenesis and many others. The puzzling problem was that few genetic alterations in these genes had been described in human tumors, despite the common finding...
Most of the cancer patients die because the tumoral cells do not "stick" in the original site, but instead detach, invade and disseminate throughout t...