urease
lipase
protease
carbohydrase
One example of a real enzyme is amylase, which is found in saliva and helps break down starch into simpler sugars. This enzyme is crucial for the digestion of carbohydrates in the human body.
The enzyme that breaks down starches in the human body is called amylase.
The smallest enzyme present in the human body is probably Triosephosphate isomerase.
There is a huge amount of enzyme types in the human body. We have digestive enzymes such as pepsinogen, cardiac enzymes such as Trop-I, liver enzymes such as GGT. If you are curious of enzymes in the human body I suggest you look at specific systems or organs. An example would be to ask the internets about "pancreatic enzymes".
It depends on what type of Enzyme. Enzymes have different optimum pH depending on the environment they work in, for example and enzyme in the stomach of a human would have a pH of about 2 but an enzyme in human saliva has an optimum pH of 5.6.
How many litres of blood are found in the human body
It depends on the type of enzyme and where that enzyme is located. For example, an average enzyme in the human body prefers 98.6 degrees F plus or minus a few degrees depending on where the enzyme is in the body. It is interesting to note that a high fever is fatal to the human body because the temperature of the body gets too high and the enzyme begins to unravel. Therefore their function stops and, without that function, the human body will begin to shut down leading to possible death. Other enzymes function in completely different temperatures. For example, extremophiles are organisms that live in extreme conditions (hence the name) ranging from about 0 degrees Fahrenheit to upwards of about 180 degrees F. Obviously they need their enzymes to function at these temperatures extreme temperatures and therefore these temperatures are their optimum temperature.
Lipase is an enzyme that helps break down fats into smaller molecules, such as fatty acids and glycerol, in the human body. This process allows the body to absorb and utilize fats for energy and other essential functions.
The enzyme can denature and will not function because it is no longer in the proper shape.
Enzymes have a specific shape that is complementary to the shape of their target substrate. This specificity allows enzymes to bind to only certain substrates, aiding in catalyzing specific chemical reactions. Furthermore, the active site of the enzyme is designed to interact with specific functional groups on the substrate, enhancing its specificity.
The maltase enzyme is located in the small intestine of the human body, specifically in the brush border of the intestinal lining. It plays a crucial role in breaking down maltose into glucose molecules to be absorbed by the body.
specific substrates to catalyze a biochemical reaction. Each enzyme has a specific substrate or group of substrates that it acts on, and the enzyme's active site is designed to bind to these substrates. This specificity ensures that the enzyme functions effectively in the body.