In order to join multiple glucose molecules together to form larger polysaccharides like starch or glycogen, water molecules must be removed in a condensation reaction. This process involves the removal of a hydroxyl group (-OH) from one glucose molecule and a hydrogen atom (-H) from the other glucose molecule, resulting in the formation of a glycosidic bond between the two glucose units. This dehydration synthesis reaction requires energy input to proceed and results in the release of a water molecule as a byproduct.
None. Amylase breaks down starch into sugars, generally into the monosaccharde glucose and disaccharide maltose (double glucose). Sucrose is a disaccharide of glucose and fructose, and the amylase enzymes are not keyed for this pair and thus cannot split it up. Sucrase is required for that.
Because it is a single hexagonal ring structure.
Aerobic cellular respiration requires glucose and oxygen. If glucose is not available, the cell can use other carbohydrates or other organic compounds.
Animals use the energy released in the breakdown of glucose and other molecules to convert adenosine diphosphate to ATP (Adenosine triphosphate).
A polysaccharide known as glycogen. Glycogen is made of repeating subunits of glucose, which are the quick-energy carbohydrate in animals.
In animals, the storage form of carbohydrates is glycogen, which is found in the liver and muscles. The quick-energy form of carbohydrates is glucose, which circulates in the bloodstream. Glycogen is structurally related to glucose as it is made up of many glucose molecules linked together in a branched structure. When quick energy is needed, glycogen is broken down into glucose for immediate use.
Glycogen is a form of stored glucose found in the liver and muscles. When glucose is stored as glycogen, it is in a form that can be easily accessed for energy. Starch, on the other hand, is a polysaccharide found in plants and serves as a storage form of energy. Both starch and glycogen play crucial roles in providing energy to the body.
Glycogen is converted into glucose when it leaves the liver. This glucose can then be released into the bloodstream to be used by other tissues in the body.
The function of glycogen degradation is to export glucose to other tissues when blood glucose levels are low.
They are stored in glycogen, and used for energy. I hope you don't mind that I deleted the "traveling in light waves answer"
Glucose is the main chemical compound that is converted to glycogen in a process called glycogenesis. Other compounds such as fructose and galactose can also be converted to glucose and ultimately stored as glycogen. The conversion of these compounds to glycogen occurs in the liver and muscles primarily to maintain blood sugar levels and provide energy reserves.
Glycogen is the form in which glucose is stored in animals, specifically in the liver and muscle cells. It serves as a quick source of energy when needed by being broken down into glucose.
Glygogen is made of glucose. So it is an organic compound.
The other way around. When blood glucose levels are low, the liver converts stored sugar, glycogen, into blood sugar, glucose. You can remember it this way: glyco-GEN GEN-nerates glucose.
The liver has the highest glycogen content in the body, followed by muscle tissue. Glycogen stored in the liver acts as a reservoir for maintaining blood glucose levels, while glycogen in muscle tissue is used for energy during physical activity.
Glycogen is a polysaccharide composed of repeating glucose units linked together. The structure of a glycogen molecule is determined by the way these glucose units are linked. Therefore, there is only one type of glycogen molecule because it is structurally uniform in terms of its glucose unit composition and linkage pattern.