15.2 Recombinant DNA Or How to Mess with DNA for Fun and Profit.

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15.2 Recombinant DNA Or How to Mess with DNA for Fun and Profit

Recombinant DNA is what you get when you combine DNA from two different sources. For Example: Mouse + Human DNA Human + Bacterial DNA Viral + Bacteria DNA Human + (other) Human DNA Human + Spider DNA?

1. Cure or treat disease 2. Genetically modify our foods to increase flavor, yield, nutritional value, or shelf-life 3. Better understand human genetics 4. Clone cells or organs

 Once biologists find a gene, a technique known as polymerase chain reaction (PCR) allows them to make many copies of it.  piece of DNA is heated, which separates its two

 2. At each end of the original piece of DNA, a biologist adds a short piece of DNA that complements a portion of the sequence.  These short pieces are known as primers because they prepare, or prime, a place for DNA polymerase to start working.

 DNA polymerase copies the region between the These copies then serve as templates to make more copies.  4. In this way, just a few dozen cycles of replication can produce billions of copies of the DNA between the primers.

1. Cut DNA using restriction enzymes 2. Mix the cut DNA into other strand of DNA or the bacteria plasmid. 3. Get new recombinant plasmid back into bacteria (Easy b/c bacteria take up DNA that’s floating around, known as transformation)

piece of DNA cut with a certain restriction enzyme will “stick” to any other piece cut with that same even if they are different DNA pieces.

genetic marker is a gene that makes it possible to distinguish bacteria that carry the plasmid from those that (Antibiotic resistant or fluorescence.  This plasmid contains the antibiotic resistance genes tet r and amp r.  Only those cells that have been transformed survive, because only they carry the resistance gene.

 How can genes from one organism be inserted into another organism?

 The universal nature of the genetic code makes it possible to construct organisms that are transgenic, containing genes from other species. organisms can be produced by the insertion of recombinant DNA into the genome of a host  Like bacterial plasmids, the DNA molecules used for transformation of plant and animal cells contain genetic markers that help scientists identify which cells have been transformed.

 A clone s a member of a population of genetically identical cells produced from a single cell  The technique of cloning uses a single cell from an adult organism to grow an entirely new individual that is genetically identical to the organism from which the cell was taken. Clones of animals were first produced in 1952 using amphibian tadpoles.  In 1997, Scottish scientist Ian Wilmut announced that he had produced a sheep, called Dolly, by cloning.