Biology Category
Explore heritable changes in gene expression that don't alter the DNA sequence — DNA methylation, histone modification, chromatin remodeling, genomic imprinting, and epigenetic inheritance.
Welcome to the Epigenetics category of this site. Here you will find clear, detailed articles covering key topics related to Epigenetics.
A detailed guide to bromodomain readers of acetyl marks. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to cancer epigenome and heterogeneity. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to chromatin remodeling complexes. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to chromodomain readers and methyl marks. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to dietary restriction and epigenetic aging. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to dna demethylation pathways. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to dna methylation and gene silencing. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to dna methylation and tissue identity. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to dna methyltransferases and maintenance. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to early-life stress and epigenetic marks. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetic biomarkers for diagnosis. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetic clocks and biological aging. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetic drugs in clinical trials. Covers key mechanisms, biological significance, and clinical relevance.
Learn about epigenetic effects of smoking — covering ahrr locus, lung cancer risk, and the role of smoking in this fundamental biological process.
A detailed guide to epigenetic inheritance across generations. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetic regulation of immune memory. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetic reprogramming in development. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetic therapies for cancer. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetics in plants and transposons. Covers key mechanisms, biological significance, and clinical relevance.
Learn about epigenetics of addiction — covering drug exposure, fosb accumulation, and the role of addiction in this fundamental biological process.
A detailed guide to epigenetics of autoimmune disease. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetics of cancer development. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetics of cardiovascular disease. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetics of neurodegeneration. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetics of obesity and metabolism. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetics of psychiatric disorders. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenetics of reproduction and germ cells. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to epigenome-wide association studies. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to exercise and epigenetic adaptation. Covers key mechanisms, biological significance, and clinical relevance.
Learn about fragile x syndrome and methylation — covering cgg expansion, fmrp loss, and the role of fragile x in this fundamental biological process.
A detailed guide to genomic imprinting and parental genes. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to histone acetylation and gene activation. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to histone deacetylases and gene repression. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to histone methylation and chromatin states. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to histone variants and chromatin function. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to hydroxymethylcytosine and brain function. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to imprinted gene clusters and disease. Covers key mechanisms, biological significance, and clinical relevance.
Learn about mecp2 and rett syndrome — covering rett syndrome, methyl-binding protein, and the role of mecp2 in this fundamental biological process.
Learn about non-coding rnas in epigenetics — covering micrornas, lncrna function, and the role of non-coding rna in this fundamental biological process.
A detailed guide to nucleosome positioning and gene access. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to nutrition and dna methylation. Covers key mechanisms, biological significance, and clinical relevance.
Learn about polycomb and trithorax complexes — covering prc1 prc2, developmental memory, and the role of polycomb in this fundamental biological process.
A detailed guide to seasonal and circadian epigenetic rhythms. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to silver-russell syndrome and growth imprinting. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to stem cell epigenetics and differentiation. Covers key mechanisms, biological significance, and clinical relevance.
Learn about tet enzymes and dna demethylation — covering tet proteins, 5hmc, and the role of tet enzymes in this fundamental biological process.
Learn about toxins and environmental epigenetics — covering bpa exposure, heavy metals, and the role of toxins in this fundamental biological process.
A detailed guide to transgenerational epigenetic effects. Covers key mechanisms, biological significance, and clinical relevance.
A detailed guide to writers, readers, and erasers of epigenetic marks. Covers key mechanisms, biological significance, and clinical relevance.
Learn about x chromosome inactivation — covering xist rna, barr bodies, and the role of x inactivation in this fundamental biological process.
