Dr. Nathan Bryan

Well, we have to move. I mean, humans are designed to be mobile, to move. And yet most Americans aren't. We get in our car, we drive to work, we sit for six, eight, ten hours a day. Nobody gets exercise. And then the calories we consume through diet are stored as fat and become unhealthy.

Well, we have to move. I mean, humans are designed to be mobile, to move. And yet most Americans aren't. We get in our car, we drive to work, we sit for six, eight, ten hours a day. Nobody gets exercise. And then the calories we consume through diet are stored as fat and become unhealthy.

But we have to move and kind of scientifically explaining this because exercise has been shown to stimulate nitric oxide production. And that's why exercise is medicine. You're giving your body activation and stimulation of nitric oxide. The other thing is kind of an electrical, you know, we're electrical beings, right? We diagnose death through loss of electrical activity, EEG or EKG.

But we have to move and kind of scientifically explaining this because exercise has been shown to stimulate nitric oxide production. And that's why exercise is medicine. You're giving your body activation and stimulation of nitric oxide. The other thing is kind of an electrical, you know, we're electrical beings, right? We diagnose death through loss of electrical activity, EEG or EKG.

But we have to move and kind of scientifically explaining this because exercise has been shown to stimulate nitric oxide production. And that's why exercise is medicine. You're giving your body activation and stimulation of nitric oxide. The other thing is kind of an electrical, you know, we're electrical beings, right? We diagnose death through loss of electrical activity, EEG or EKG.

So we have to maintain electrical conductance and flow and current and maintain voltage across cell membranes. Muscles are what we call piezoelectric, meaning that when we contract muscles and we move muscle, they're muscle battery packs. So they're creating voltage. And through the fascia, through these meridians, those muscle battery packs supply different organs with certain voltage.

So we have to maintain electrical conductance and flow and current and maintain voltage across cell membranes. Muscles are what we call piezoelectric, meaning that when we contract muscles and we move muscle, they're muscle battery packs. So they're creating voltage. And through the fascia, through these meridians, those muscle battery packs supply different organs with certain voltage.

So we have to maintain electrical conductance and flow and current and maintain voltage across cell membranes. Muscles are what we call piezoelectric, meaning that when we contract muscles and we move muscle, they're muscle battery packs. So they're creating voltage. And through the fascia, through these meridians, those muscle battery packs supply different organs with certain voltage.

So you'll find in one study, conductors who do this, you know, orchestra conductors, they have some of the lowest rates of heart attack and cardiovascular disease than any other profession. And why is that? Because they're doing this and this is fueling the muscle battery pack that supplies the heart. So that heart never runs out of voltage, never conductance.

So you'll find in one study, conductors who do this, you know, orchestra conductors, they have some of the lowest rates of heart attack and cardiovascular disease than any other profession. And why is that? Because they're doing this and this is fueling the muscle battery pack that supplies the heart. So that heart never runs out of voltage, never conductance.

So you'll find in one study, conductors who do this, you know, orchestra conductors, they have some of the lowest rates of heart attack and cardiovascular disease than any other profession. And why is that? Because they're doing this and this is fueling the muscle battery pack that supplies the heart. So that heart never runs out of voltage, never conductance.

And if you do that all over, we have to contract our muscles and get those battery packs. So when we lose voltage, When we lose this transmembrane potential, which is about minus 25 millivolts, and if you convert that to pH, it's a pH of 7.4, right, which is normal physiological pH.

And if you do that all over, we have to contract our muscles and get those battery packs. So when we lose voltage, When we lose this transmembrane potential, which is about minus 25 millivolts, and if you convert that to pH, it's a pH of 7.4, right, which is normal physiological pH.

And if you do that all over, we have to contract our muscles and get those battery packs. So when we lose voltage, When we lose this transmembrane potential, which is about minus 25 millivolts, and if you convert that to pH, it's a pH of 7.4, right, which is normal physiological pH.

When we lose that transmembrane potential and we lose the ability for that cell to maintain some sort of negative inside with respect to outside of the cell, we develop dysfunction. And when the inside of the cell becomes positive with respect to the outside, we call that cancer. And that's, you know, the Warburg effect. So cancer only grows in a low oxygen, low pH, low voltage environment.

When we lose that transmembrane potential and we lose the ability for that cell to maintain some sort of negative inside with respect to outside of the cell, we develop dysfunction. And when the inside of the cell becomes positive with respect to the outside, we call that cancer. And that's, you know, the Warburg effect. So cancer only grows in a low oxygen, low pH, low voltage environment.

When we lose that transmembrane potential and we lose the ability for that cell to maintain some sort of negative inside with respect to outside of the cell, we develop dysfunction. And when the inside of the cell becomes positive with respect to the outside, we call that cancer. And that's, you know, the Warburg effect. So cancer only grows in a low oxygen, low pH, low voltage environment.

And so when we move, when we exercise and we eat food and we ground and get electrons and we maintain some voltage and electron flow, then we become a little bit protective, not a little bit, we become a lot protective from chronic disease.

And so when we move, when we exercise and we eat food and we ground and get electrons and we maintain some voltage and electron flow, then we become a little bit protective, not a little bit, we become a lot protective from chronic disease.

And so when we move, when we exercise and we eat food and we ground and get electrons and we maintain some voltage and electron flow, then we become a little bit protective, not a little bit, we become a lot protective from chronic disease.