Stem Cell Production Stimulation

Stem Cells contain 100% of DNA/RNA for every cell type and are defined by their ability to differentiate into other, more specialized cell types. When one stem cell divides into two (which are then called daughter cells), three things can happen to the new cells: Both cells can continue being stem cells, both cells can differentiate into a new cell type, or the cells can go their separate ways, with one maintaining the properties of a stem cell and the other becoming specialized.

Our research program (in partnership with 4 Tier 1 universities) has shown that while stem cells have been studied for decades, we still do not understand how they make this commitment when they divide.  When all daughter cells are the same cell type, this is called symmetric division. That’s true whether they continue being stem cells or become specialized. When one cell stays a stem cell and the other differentiates, it’s called asymmetric division. This happens about 30 percent of the time.  

The beauty of asymmetric division is that you’re maintaining the sustainable balance in your stem cell numbers. If every time a stem cell divides, it loses its identity as a stem cell, eventually all the stem cells are depleted. And if all the cells remain stem cells, you’ll never get the variety of specialized cell types needed to rejuvenate and regenerate the individual's tissues. 

Primarily based on the research of Princeton University, our non-invasive protocol utilizes an FDA Cleared Laser to stimulate stem cell production in bone marrow. Our clients take a blood panel test before treatments begin and again after 90 days. These baseline and post treatment lab results show our clients are enjoying the production of tens of thousands of new stem cells from each treatment session (60,000 average and after a few months of treatments ... millions of stem cells). And unlike stem cell harvesting directly from the bone marrow, all of these stem cells achieve proper maturation before being released into the body. 

Our Stem Cell Stimulation protocol results in radically increased telomerase enzyme production which counteracts the telomere shrinking process that uniquely holds the key to delaying or even reversing the cellular aging process. 

Also, a 2021 review of studies in Frontiers in Genetics concluded that aerobic exercise and/or endurance training, and moderate intensity resistance training increase the activity of telomerase and conserve telomere length. The studies show that most sedentary people had 140 fewer base pairs of DNA at the ends of their telomeres by age 50, compared to the most active: a difference of about nine years of cellular aging.