Perhaps you mean a restriction enzyme, but not disrupting the function of whatever is not too clear. I think if you cut a plasmid with any restriction enzyme I am familiar with the function of that plasmid would be disrupted.
Two enzymes that would cut the plasmid without disrupting the function of the ampR gene are BamHI and EcoRI. A third would be HaeIII.
a Restriction Enzyme
Fasle.
Someone answer this already ;[
Luciferase
First, a specific enzyme is needed to cut the DNA from the donor genes at a specific site. This enzyme is called a restriction enzyme.The enzyme is used to cut out a piece of DNA that contains one or more desired genes from the donor's DNA. Next, a vector is needed to receive the donor DNA. Most frequently, a naturally occurring circular piece of bacterial DNA, called a plasmid, is used for this purpose. Finally, an enzyme is used to "stitch" the donor DNA into the plasmid vector. This enzyme is called ligase, and it creates permanent bonds between the donor DNA and the plasmid DNA. The result is that the donor DNA is incorporated into the bacterial plasmid, forming the recombinant DNA (rDNA)
1. Which enzyme(s) would cut the human DNA shown in Part A on both sides of the vgp gene, but not inside the gene? Answer: BamHI, HaeIII, and HindIII 2. Which enzymes(s) would cut the plasmid without disrupting the function of the amp^R gene? Answer: BamHI, EcoRI, and HaeIII 3. Which enzyme(s) would produce sticky ends when cutting both the human DNA and the plasmid? Answer: BamHI, EcoRI, and HindIII 4. Which one restriction enzyme satisfies all three of the requirements listed above? Answer: BamHI only
a Restriction Enzyme
a Restriction Enzyme
A coenzyme helps an enzyme do its' work. Without the coenzyme, the enzyme will remain inactive.
chips
They would use a Restriction Enzyme
DNA ligase
It splices the genome or plasmid in a specific location (EcoRI).
Fasle.
Someone answer this already ;[
They would use a Restriction Enzyme
If you are trying to take a gene from a DNA strand and put insert it into a plasmid, you wouldn't want a restriction enzyme to cut that gene up, or else it would be pretty useless. In other words, you need an enzyme or two that cuts outside that gene so that it can be functional after it's inserted into a plasmid. After your gene of interest is inserted into a plasmid, the plasmid can be put back into a bacterium, then you could genetically engineer plants with it or let the bacterium reproduce and produce many copies of a protein that you had wanted to make in the first place.