FWIW: I have been taking 4 grams of taurine daily for years. But, now I am concerned that this may not be enough to produce any significant results. Based on the mouse study in the video they were giving the mice a 1 gram dose. This would be an equivalent dose of 20 to 30 grams for an adult human.
Dose equivalency is an area that is quite confusing to me.
I asked ChatGBT this question, and of course, since it is ChatGPT it may be a total lie:
"If a lab experiment was giving a mouse one gram of a supplement, what would that equate to in an adult human?
ChatGPT:
"Converting dosages from animals to humans is a complex process that involves factors like body weight, metabolism, and the specific supplement being used. Generally, dosage conversion from animal studies to human studies is not a straightforward linear process, and it requires careful consideration of several variables.
Body surface area (BSA) scaling is one method used to estimate equivalent dosages between species. The concept of BSA scaling accounts for the differences in metabolic rate and body size between animals and humans. However, even BSA scaling has limitations and is not always accurate for all substances.
A commonly used formula for BSA scaling is the Gehan and George equation:
BSA (human) = k * (weight^0.6667)
where weight is in grams and k is a constant that depends on the species. For mice, the value of k is around 10. For humans, it’s typically around 37.
Assuming the weight of the mouse is around 20-30 grams, let’s use an average weight of 25 grams for calculations:
BSA (mouse) = 10 * (25^0.6667) ≈ 76.35
Now, for an adult human, let’s assume an average weight of 70 kilograms:
BSA (human) = 37 * (70000^0.6667) ≈ 1861.71
Now, to find the equivalent dosage for a 1-gram supplement given to a mouse:
Equivalent human dosage = (BSA human / BSA mouse) * Mouse dosage
Equivalent human dosage = (1861.71 / 76.35) * 1 gram ≈ 24.4 grams"
A study using 5 grams of taurine produced no results.
A statement from another study about supplementation says:
"However, this approach does not work in human skeletal muscle as the processes involved in the transport of taurine into the muscle are resistant to large and prolonged increases in plasma taurine following oral taurine supplementation. At present, attempts to influence muscle function with taurine supplementation can only occur through interactions outside the muscle cell in humans.
https://journals.physiology.org/doi/full/10.1152/japplphysiol.90525.2008