Genes usually come in pairs because an organism can inherit a given gene from both parents. Six genes is not a lot, that would be a small portion of a genome.
Coding DNA is DNA that "codes" for protein creation. DNA is NOT strictly speaking a code however, it's more like a 3D reverse template for the protein. The component chemicals coalesce from the cell's plasma against the coding DNA much like a lot of non-biological catalyzation. When the protein is completed it peels off and does whatever that protein does.By contrast, non-coding DNA functions in ways other than direct protein synthesis. Some of these functions are being learned, but others are currently unknown. And it is likely that some of the non-coding sections of DNA are "Junk" DNA, ie DNA that does literally nothing.Junk DNA and non-coding DNA often mutate much faster than coding DNA for the simple reason that mutations in coding DNA are usually fatal.
It is usually done to obtain genes for antibodies.
well, it's quite useful when enzymes supposed to do something with DNA are searching for the "starting sequence". in major groove, you can always recognize the base pairs without unwinding the double-helix. it's coded by order of the groups CH3, H-bond donor, H-bond acceptor and H, which is different for each combination of base pairs. (you obviously must know the 5´-> 3´ ordering either.) grooves are usefull to be recognized with lot of DNA - protein links structures, like helix-turn-helix pattern, or zinc fingers, which are bonding to the grooves.
A lot, imagine only with the PCR you can synthesis, whatever DNA/gene you want!
Statistically speaking, the fidelity of DNA polymerases is very high and they usually make 1 mistake for every 1000000000 base pairs that they add to a growing DNA strand. However, there are many external methods of inducing mutations, most notably by chemicals and radiation. Therefore it is estimated that the genomic DNA mutation rate per generation for humans is one in 40000000 base pairs. However, human mitochondrial DNA curiously carries a much higher mutation rate per generation of about 1 in 37000 to 1 in 333000 base pairs. For the mutation rates of other organisms, follow the link below.
Genes usually come in pairs because an organism can inherit a given gene from both parents. Six genes is not a lot, that would be a small portion of a genome.
Coding DNA is DNA that "codes" for protein creation. DNA is NOT strictly speaking a code however, it's more like a 3D reverse template for the protein. The component chemicals coalesce from the cell's plasma against the coding DNA much like a lot of non-biological catalyzation. When the protein is completed it peels off and does whatever that protein does.By contrast, non-coding DNA functions in ways other than direct protein synthesis. Some of these functions are being learned, but others are currently unknown. And it is likely that some of the non-coding sections of DNA are "Junk" DNA, ie DNA that does literally nothing.Junk DNA and non-coding DNA often mutate much faster than coding DNA for the simple reason that mutations in coding DNA are usually fatal.
It is usually done to obtain genes for antibodies.
President Chester Arthur owned approximately 108 pairs of paints.
I think that the answer is no. An orange may have a little DNA, from the tree that it is growing on, but it doesn't have DNA that is its own.
you need a lot of heat to split sodium chloride, as the bond between them is very strong. im not sure at which temperature they split
i am pretty sure she has 5 toes on each foot
Pickles are usually made with a lot of vinegar, oil or salt. Any one of these will act as a preservative.
A rectangle.
well, it's quite useful when enzymes supposed to do something with DNA are searching for the "starting sequence". in major groove, you can always recognize the base pairs without unwinding the double-helix. it's coded by order of the groups CH3, H-bond donor, H-bond acceptor and H, which is different for each combination of base pairs. (you obviously must know the 5´-> 3´ ordering either.) grooves are usefull to be recognized with lot of DNA - protein links structures, like helix-turn-helix pattern, or zinc fingers, which are bonding to the grooves.
They have the same nucleotides (A, T, C, G) and structure (double helix and chromosomes), and have a lot of the same genes, but a lot of genes differ, also.