Hello All,
Up to this point, most of the discussion seems to be about increasing Potassium consumption as methylation starts-up.
However, I haven't seen much discussion on how to improve the concentration or utilization of potassium in the cell, and how to improve the potassium transfer into the cell. I stumbled upon a few links that may help the discussion. Perhaps, there is some inefficiency in the K+/Na transfer which is causing a lot of electrolyte waste. Is this a real problem for us or am I barking up the wrong tree?
The last link suggests two methods for passing K+ through the cells.
1. Passive based on electrochemical gradient
2. Na/Ka+ pump. However, per the 3rd link, this method requires ATP which we may be low.
Internal potassium stimulates the sodium-potassium pump by increasing cell ATP concentration
Reverse Mitochondrial Damage 101
How to Increase Cell Volume for Fast Muscle Growth
How Is Potassium Transported?
Up to this point, most of the discussion seems to be about increasing Potassium consumption as methylation starts-up.
However, I haven't seen much discussion on how to improve the concentration or utilization of potassium in the cell, and how to improve the potassium transfer into the cell. I stumbled upon a few links that may help the discussion. Perhaps, there is some inefficiency in the K+/Na transfer which is causing a lot of electrolyte waste. Is this a real problem for us or am I barking up the wrong tree?
The last link suggests two methods for passing K+ through the cells.
1. Passive based on electrochemical gradient
2. Na/Ka+ pump. However, per the 3rd link, this method requires ATP which we may be low.
Internal potassium stimulates the sodium-potassium pump by increasing cell ATP concentration
Reverse Mitochondrial Damage 101
How to Increase Cell Volume for Fast Muscle Growth
How Is Potassium Transported?
