Glycogen storage most prominently occurs in the liver and muscle cells. The liver stores glycogen to maintain blood glucose levels, while muscle cells store glycogen to provide energy during physical activity.
Yes, training can increase the amount of glycogen stored in muscles through a process called glycogen supercompensation. This occurs when muscles are repeatedly depleted of glycogen during exercise and then refueled with glycogen-rich foods post-exercise, resulting in increased glycogen storage capacity over time.
Glycogen is synthesized by the enzyme glycogen synthase, which adds glucose molecules together to form a long chain of glycogen. This process requires energy in the form of ATP and occurs primarily in the liver and muscles when blood glucose levels are high. Glycogen serves as a storage form of glucose for the body to use when needed.
Glycogen synthesis is the process by which glucose molecules are linked together to form glycogen, a branched polymer used to store glucose in cells. This process is catalyzed by the enzyme glycogen synthase and requires the presence of a primer called glycogenin. Glycogen synthesis occurs in response to high levels of glucose in the blood to store excess glucose for future energy needs.
No, lipogenesis is a state where excess energy is stored as fat for future use and typically occurs in the absorptive state following a meal when blood glucose and insulin levels are high. The postabsorptive state is characterized by the release of stored energy, such as glycogen and fatty acids, to fuel the body's energy needs when blood glucose levels drop.
Insulin enables the sugar to get out of the blood and into the cells where it is needed for the cells to function. If you don't have insulin because the pancreas is not producing it (as in diabetes) then the sugar will not be able to get into the cells, therefore there will be a high concentration in the blood. On the other hand, if you are diabetic and you take too much insulin, then too much sugar will go into the cells and there will not be enough sugar left in the blood.
Insulin is primarily anabolic, as it promotes the storage of nutrients and building of tissues such as muscle and fat. However, insulin can also have catabolic effects on certain tissues such as the liver by inhibiting glucose production.
Glycogen storage most prominently occurs in the liver and muscle cells. The liver stores glycogen to maintain blood glucose levels, while muscle cells store glycogen to provide energy during physical activity.
The by-product of incomplete glycogen breakdown in the absence of oxygen is lactic acid. This occurs during anaerobic metabolism when muscles do not have enough oxygen to produce energy, leading to the accumulation of lactic acid as a result of partial breakdown of glucose for energy.
Glycogen, which occurs in large amounts in the liver.
metabolism
Yes, training can increase the amount of glycogen stored in muscles through a process called glycogen supercompensation. This occurs when muscles are repeatedly depleted of glycogen during exercise and then refueled with glycogen-rich foods post-exercise, resulting in increased glycogen storage capacity over time.
The lungs do not synthesize glycogen in any appreciable amounts. Glycogen storage primarily occurs in the liver and muscles as a form of stored energy.
Diabetes mellitus occurs when the pancreas doesn't make enough or any of the hormone insulin, or when the insulin produced doesn't work effectively. In diabetes, this causes the level of glucose in the blood to be too high.
Exocytosis is the process used to release insulin from pancreatic cells into the bloodstream.
Metabolism.
Nerve receptors are stimulated during urination. This stimulation occurs when the walls of the bladder contract and the urination reflex is automatically activated.