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Frequently asked questions
Your Questions Answered
Epigenetics studies how gene expression acts—that is, which genes are turned on or off—without altering our genetic code. If gene expression is the switch, epigenetics is what decides which switches we turn on and when.
Factors such as nutrition, environmental burdens, emotions or thoughts can activate or silence genes, thus regulating our well-being. In short, the body adjusts gene activity based on what it perceives from the environment.
The Human Genome Project, completed in 2003, revealed that only 2% of our DNA codes for proteins. This small fragment contains the genes that produce the body's basic structures and functions.
However, the other 98%, which was previously called "junk DNA", is now known to play a key role in epigenetic regulation. That is, although its function is not to produce proteins, it controls which genes are activated or deactivated, when and to what extent. Thanks to epigenetics, we understand that this DNA regulates gene expression in response to environment, thoughts, nutrition, and lifestyle.
Yes, epigenetics allows certain life experiences, such as chronic stress or trauma, to be passed on to the next generations. This occurs because of gene regulation that affects the way some genes related to emotional management and stress response are expressed.
For example, exposure to high levels of cortisol can leave marks on genetic material that are reflected in the phenotype of offspring. It can make them more sensitive to emotional situations. Studies on descendants of people exposed to wars or famines show how these experiences shape the emotional biology of their children and grandchildren.
In addition, factors such as a good diet and quality social relationships can influence epigenetics. This helps balance emotional inheritance and improves cellular health. This shows that emotional inheritance is not static and can be optimized through our environment and lifestyle.
Nutrients such as fatty acids, amino acids, antioxidants, vitamins, and minerals help regulate gene activity. They are involved in processes such as methylation and acetylation, which control whether a gene is turned on or off. In addition to being a source of energy, these nutrients are key for epigenetic modulators to function properly.
Environmental factors directly influence epigenetics. Exposure to chemical compounds, high levels of carbon dioxide, radiation, or heavy metals can alter the way genes are expressed. This affects cellular homeostasis, which is the internal balance that allows cells to function properly.
When this balance is lost, health can deteriorate. To reduce environmental impact, the body uses processes such as discharge, which releases electromagnetic charge, and chelation, which removes toxins and heavy metals. These actions help protect epigenetic regulation and maintain cellular well-being.
Cellular homeostasis is the ability of cells to maintain their internal balance, even when the environment changes. It is critical for key functions such as gene expression, energy production, and stress response to remain stable.
When this balance is broken, cells stop functioning properly, which can affect well-being. Taking care of food, rest and the environment helps to protect cellular homeostasis and, with it, general well-being.
Yes, you can influence gene regulation, and therefore your phenotype, through the optimization of epigenetic modulators. Healthy habits such as a balanced diet, exercise, reducing toxins, and managing stress can change how your genes are expressed.
Running an Wellvia epigenetic modulator optimization report gives you a personalized path to achieving it. This report guides you on the adjustments your body needs to regain cellular homeostasis and achieve greater well-being.
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