This advanced therapeutic concept involves the targeted, precise adjustment of epigenetic markers, which are chemical tags on DNA and histones that regulate gene expression without altering the underlying genetic code. Modulation aims to switch specific genes on or off, thereby influencing cellular function, repair pathways, and the expression of longevity-associated genes. This strategy offers a mechanism to influence biological age and cellular destiny.
Origin
The term is rooted in the science of epigenetics, which literally means “above the genetics,” and its application in aging research. The idea of a “switch” simplifies the complex, binary-like effect that modifications such as DNA methylation or histone acetylation can have on gene accessibility and transcription. Modulation emphasizes the clinical ability to influence these marks for therapeutic benefit.
Mechanism
Epigenetic switches are modulated by specific enzymes, including DNA methyltransferases and histone deacetylases. These enzymes add or remove chemical groups, changing the structure of the chromatin and making genes either more accessible (turned on) or less accessible (turned off) to the transcriptional machinery. Hormones, nutrients, and environmental factors can influence the activity of these enzymes, providing a pathway for clinical intervention to restore a more youthful gene expression pattern.
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