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The question cannot be answered unambigously based on the information given, since the number depends on how long the chains at each branching point are. If there is one glucose substituent per branching point, the no. of glucose molecules used for the substitution is found by iteration starting by 60000/12 = 5000, but 55000/12 = 4583. Hence the average is where the ends meet: That is about 4791 substituents (depending on how numbers are rounded up or down), which gives 4791 non-reducing ends + 1 from the "backbone = 4792. If there are two glucose substituents per branching point, the no. of branching points, and hence the no. of reducing ends will decrease to about a little less than half of this number because more glucose monomers are "consumed" in the branching chains and the backbone chain will in turn be shorter resulting in fewer possible branching points. However, each branching chain will only have one non-reducing end, and the backbone will stil have only one non-reducing end! :-) Nice question though - I can add that if there is only one large molecule containing all these 60000 glucose monomers there will be only one reducing end no matter how many branching points there are.

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11y ago

it has only one reducing end similar to starch and many non reducing end

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10y ago

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Q: How many reducing ends are in a molecule of glycogen that contains 10000 residues with a branch every 10 residues?
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What is the term for the end of the a glycogen branch from which glucose residues are removed during degradation?

Non-reducing end


What happens if the amino acids are oversupplied?

the body converts amino acid residues to glycogen or fat


What are the carbohydrate that are similar in structure to cellulose?

Cellulose is a biopolymer that is built by beta 1, 6 linkage between the glucose residues. The molecule that resembles it most closely is chitin that has N acetylglucosamine, that is the glucose aminocylated at 2' carbon. In hemicellulose, there is a backbone of glucose and there are side chains of some other glucose residues. Starch and glycogen are also made up of the glucose residues but they are linked by alpha 1-4 linkage.


Tissue in body with highest glycogen content?

Glycogen are found principally in the liver. Glycogen is a polymer of glucose residues linked by α-(1,4)- and α-(1,6)-glycosidic bonds. A second major source of stored glucose is the glycogen of skeletal muscle. , muscle glycogen is not generally available to other tissues, because muscle lacks the enzyme glucose-6-phosphatase.


Protein X contains 10.5lysine residues by weightProtein X has 10 lys residuesWhat is the molwt of protein?

its not determined


What is the difference between the amino acid content of gelatin and casein?

Gelatin is the product of the denaturation of collagen. Collagen is a triple helical molecule that is composed nearly by one third of its residues with Glycine and a 15 to 30% of its residues by Proline and 4-hydroxyproline. When the collagen loses it's triple helix configuration, occurs gelatinization.On the other hand, Casein, the most abundant protein in milk, contains a fairly high number of Proline residues, which do not interact each other, there are no disulfide bridges in it's structure, and therefore it has relatively little tertiary structure.According to above, the main difference between gelatin (denatured collagen) and casein are the 4-hydroxyproline residues, that allow to collagen to form its characteristic triple helix.


Is saccharide a monosaccharide?

yes ,Glycogen is a polysaccharide. It is a major storage form of carbohydrate in animal.found mainly in liver and muscle.It is a highly branched form of amylopectin .Alfa-1,6 branching point is occur every eight to ten D- glucose residues.


Differences of RNA and DNA?

1. RNA have the base uracil whereas DNA have the base thymine. 2. RNA contain ribose sugar residues whereas DNA contain deoxyribose sugar residues. 3. RNA are single-stranded whereas DNA are double-stranded.


What enzyme regulates glycogenolysis?

Actually, three are the enzymes that intervene during glycogen breakdown (glycogenolysis).First, Glycogen phosphorylase (or simply phosphorylase) that catalyzes glycogen phosphorolysis (bond cleavage by the substitution of a phosphate group) to yield glucose-1-phosphate (G1P) releasing only one glucose residue that is at least five residues from a ramification point.The second enzyme is the Glycogen debranching enzymethat removes glycogen's branches, thereby permiting the glycogen phosphorylase reaction (see above) to go to completion. This enzymes also hydrolyzes alpha(1-6)-linked glucosyl units to yield glucose.Finally, Phosphoglucomutase that converts G1P to G6P which is also formed in the first step of glycolysis through the action of either hexokinase or glucokinase.


What chemical reaction formed these large molecules?

Large organic molecules (macromolecules) are generally formed by condensation reactions between smaller molecules.Condensation means that a small molecule is formed from the atoms removed during the reaction. In cells, the small molecule is water, so the type of condensation reaction is dehydration.Examples:glucose + (chain of n glucose residues) forms chain of n + 1 residues + wateramino acid + (chain of n amino acid residues) forms chain of n + 1 residues + water


How does glycogen function living things?

It is a large, branched polymer of linked glucose residues (portions of larger molecules) that can be readily mobilized as an energy source, increasing the amount of glucose immediately available to the organism between meals and during muscular activity.


How does glycogen function in living things?

It is a large, branched polymer of linked glucose residues (portions of larger molecules) that can be readily mobilized as an energy source, increasing the amount of glucose immediately available to the organism between meals and during muscular activity.