Explanation:
One of the three energy mechanisms for regenerating ATP in skeletal muscle is not "aerobic." The oxidative system generates ATP using an aerobic method.
Explanation:
On the set of blood lactate accumulation occurs when blood lactate reaches 4mmol / L.
Lactic acid fermentation is the process where pyruvate is reduced by NADH. The reduced pyruvate molecule becomes lactate.
VO2 Max is the maximum amount of oxygen a body can use as measured in milliliters of oxygen per kilogram of body weight per minute.
Explanation:
Pyruvate will undergo lactic acid fermentation if the cell's energy requirements are high and the oxygen supply is low (anaerobic glycolysis). Pyruvate enters the Krebs Cycle when oxygen levels are adequate and energy requirements are low.
Explanation:
Fructose-1,6-bisphosphate is created during glycolysis from one glucose molecule. Fructose-1,6-bisphosphate, a 6-carbon molecule, is divided into two 3-carbon molecules. The three-carbon molecules go through glycolysis in different but identical pathways. Consequently, two molecules of pyruvate are produced, and these are followed by two molecules of acetyl CoA.
Explanation:
The total amount of muscle in the body contains 00g to 400g of glycogen. In the liver, there is glycogen storage between 70 and 100 grams.
Explanation:
An activity of comparatively modest effort is a 10-kilometer race (compared to something high-intensity, like a 1RM back squat). Activities of low intensity lasting more than three minutes regenerate ATP through the oxidative system.
Explanation:
The phosphagen system doesn't need oxygen because it uses creatine kinase to regenerate ATP. The enzyme creatine kinase transfers a phosphate group from creatine phosphate to an ADP molecule. ADP (adenosine diphosphate) is transformed into ATP by adding another phosphate group (adenosine triphosphate).
