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Off the top of my head: techniques such as chemical and enzymatic degredation (particularly if they are targeted) coupled with various analytical techniques particularly mass spectrometry and NMR. X-ray crystallography could also be used if the enzyme can be crystallised.
The arginine side chain in proteins helps stabilize the structure by forming hydrogen bonds and participating in electrostatic interactions. It also plays a role in protein-protein interactions and enzyme catalysis, contributing to the overall function of the protein.
Polar charged amino acids in proteins help stabilize the structure by forming electrostatic interactions with other amino acids. They also play a crucial role in protein-protein interactions and enzyme activity.
Potassium sulfate provides plants with the essential nutrient potassium (K), which is important for various physiological processes such as enzyme activation, osmoregulation, and protein synthesis. Potassium also helps improve disease resistance, drought tolerance, and overall plant health.
Prosthetic groups can be as simple as a single metal ion bound into the enzyme's structure, or may be a more complicated organic molecule (which might also contain a metal ion). it is permanently bonded to enzyme. Activator is only metal ion that is detachable. source:chemguide.co.uk Stuffidious.com
A protease is an enzyme that digests protein. These enzymes are also known as peptidases.
They form the capsid that encloses the genetic material and retroviruses contain the protein enzyme reverse transcriptase. Also the proteins, especial glycoproteins, are the key that enters the lock of a cells protein markers.
Cellulase is an enzyme that break down celluse a complex organic molecule into simpler molecule like glucose and as such being an enzyme, it is also protein in nature.
Myosin thick filaments
Hemoglobin is an example of protein. An enzyme is also a protein. Soy beans are a great protein source, meaning that they provide various proteins for their consumer.
That would be an enzyme. Also know as a biological Catalyst
Hemoglobin is neither an enzyme nor a hormone. Hemoglobin is a protein that carries oxygen and the one that is responsible for the red color of the blood. An enzyme is also a protein that accelerate chemical reactions in the body and a hormone is a protein that regulate body functions. Therefore, hemoglobin is just a protein in the body just like enzymes and hormones.
There are protein substrates, but not all substrates are proteins. Lipid, carbohydrates, nucleic acids can also act as substrates to its specific enzyme. but enzyme can be only proteins and not Lipid, carbohydrate.
Protein digesting enzymes, also known as proteases, are enzymes that break down proteins into smaller peptides or amino acids. Some examples include pepsin, trypsin, and chymotrypsin, which are produced in the stomach and pancreas to aid in protein digestion. These enzymes play an important role in the breakdown and absorption of dietary protein in the digestive system.
PKU (phenylketonuria) is a genetic disorder that affects the enzyme needed to break down the amino acid phenylalanine. Without this enzyme, phenylalanine can build up to harmful levels in the blood and impair protein synthesis. The excess phenylalanine can also lead to decreased levels of other amino acids, affecting overall protein production in the body.
A multifunctional enzyme is the enzyme which functions in multiple way to synthesize more than one kind of product .It is the single polypeptide with several domains .Example for multifunctional enzyme is protease : during the evolution of enzymes protease function is protein catabolism and generation of amino acids in primitive organisms the time passed these are observed to be the protein demolition enzyme and also these proteases act as sharp scissors and catalyze highly specific reactions of proteolytic processing, producing new protein products ,inaugurated a new era in protease research.
Knowing exactly how you plan to study an enzyme or protein allows you to design experiments more effectively, optimize resources, and obtain reliable results. It also helps in identifying potential pitfalls in experimental design and ensures a clear research direction. Having a precise plan increases the efficiency of your research and facilitates better data interpretation.