Helicase
The enzyme responsible for breaking hydrogen bonds during DNA replication is called DNA helicase.
Helicase ! (:
The enzyme that separates DNA by breaking the hydrogen bonds that link the nitrogen bases is called DNA helicase. It unwinds the double-stranded DNA molecule during processes such as DNA replication and transcription by breaking the hydrogen bonds between the base pairs.
The enzyme helicase splits it down the middle by breaking the hydrogen bonds.
The enzyme that breaks the hydrogen bonds during DNA replication is called helicase.
The enzyme helicase breaks hydrogen bonds in DNA.
down the enzyme's structure and disrupting the bonds that maintain its shape. This can lead to denaturation of the enzyme, reducing its ability to catalyze reactions effectively. Extreme changes in temperature and pH can permanently damage the enzyme, rendering it inactive.
A very low pH can break the hydrogen bonds in an enzyme which causes the shape of the enzyme to change shape making the enzyme unable to do it's job. This is called "denaturation" However some enzymes such as pepsin only work in a low pH (pepsin works best in a pH of about 3) so it does depend on the enzyme.
The enzyme helicase.
Chlorine can inhibit or deactivate enzymes by disrupting their structure and function. It does this by breaking the hydrogen and other bonds that hold the enzyme's shape in place, which can prevent the enzyme from carrying out its normal biological functions.
Helicase is involved in a reaction called DNA unwinding, which is a type of enzyme-catalyzed reaction that separates the two strands of a DNA double helix. Helicase acts by breaking the hydrogen bonds between the base pairs of DNA to allow for replication, transcription, and repair processes.
The two types of chemical bonds observed between enzyme and substrate are hydrogen bonds and temporary covalent bonds formed between specific amino acid residues in the active site of the enzyme and functional groups on the substrate. These bonds help to stabilize the enzyme-substrate complex and facilitate the catalytic reaction.