enzymes act by having a complementary active site to the shape of a certain molecule, binding to it then reacting it or hydrolyzing it of whatever. trypsins active site happens to be less specific and can fit a wide range of proteins in.
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Its incative form, trypsinogen, is secreted from the pancreas....
Enzymes are a type of protein that catalyse chemical reactions. There are many different types. They speed up the reaction by lowering the activation energy. This is the amount of energy needed to begin the reaction. The proteins that are vital to living things because they speed up chemical reactions are called enzymes. They are catalysts that lower the activation energy of chemical reactions.
Many chemical reactions are possible but not all the mixtures can react.
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using oxygen to oxidize breaking down metabolic compounds via heat, for absorbortion of nutrients, warmth, to catalyse other chemical reactions for electrochemical functions of nerves and cells...
Enterokinase which is an enzyme located in the brush border of the small intestine, is the enzyme that transforms Trypsinogen into Trypsin.
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Enzymes act as a catalyst in biochemical reactions. Hence they are the key players of all the reactions that occurs in cells, such as metabolic conversions, synthesis and degradation of biomolecules and so on.
Its incative form, trypsinogen, is secreted from the pancreas....
I am on the same question
Yes, it is very possible from many years !
Enzymes are a type of protein that catalyse chemical reactions. There are many different types. They speed up the reaction by lowering the activation energy. This is the amount of energy needed to begin the reaction. The proteins that are vital to living things because they speed up chemical reactions are called enzymes. They are catalysts that lower the activation energy of chemical reactions.
Many chemical reactions are possible but not all the mixtures can react.
Most biological processes are chemical in nature. Eg. Enzymes form bonds with substrates, and catalyse reactions. DNA is stabilised by many interactions, such as H-bonding between complementary base pairs, and hydrophobic interactions between successive base pairs.
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