Yes, polyribosomes, or polysomes, can produce multiple copies of the same protein simultaneously. They consist of multiple ribosomes translating a single mRNA strand, allowing for the efficient synthesis of several protein molecules at once. This process enhances protein production, particularly in cells that require large quantities of specific proteins.
Having multiple copies of a recombinant plasmid in a cell is crucial for ensuring sufficient expression of the desired gene. This increases the likelihood of producing enough protein for study or therapeutic purposes. Additionally, multiple copies enhance the stability of the plasmid, reducing the risk of loss due to cell division or environmental factors. Overall, this multiplicity boosts the efficiency of genetic experiments and applications.
During the process of viral replication, the virus uses host cells to produce copies of its viral DNA. This process typically involves the virus injecting its genetic material into the host cell's nucleus, where it hijacks the cell's machinery to replicate its DNA. This results in the production of multiple copies of the viral DNA, which can then be packaged into new viral particles.
The originating station must produce a minimum of two copies of each general cargo or mail manifest.
The gene for insulin can be inserted into the bacterial chromosome. The bacteria is then left to multiply normally, which thus produces many copies of the gene and lots of insulin. This is how they produce the insulin used by people who have diabetes.
that is a true statement
Polyribosomes form along the same mRNA molecule, allowing for the formation of multiple copies of the protein being synthesized.
Polyribosomes (or polysomes) also known as ergosomes are a cluster of ribosomes, bound to a mRNA molecule.Polyribosomes read one strand of mRNA simultaneously, helping to synthesize the same protein at different spots on the mRNA, mRNA being the "messenger" in the process of protein synthesis. They may appear as clusters, linear arrays, or rosettes in routine: this is aided by the fact that mRNA is able to be twisted into a circular formation, creating a cycle of rapid ribosome recycling, and utilization of ribosomes. 5' 7-methylguanosine cap and 3' polyA tail aids in this process
A single gene can be transcribed multiple times by mRNA to produce multiple copies of the corresponding protein. The number of times a gene is transcribed depends on the cell's need for the specific protein encoded by that gene.
A virus injects its DNA into the host cell making it produce multiple copies of that DNA and multiple copies of the protein capsule of that virus. After a while, the host cell becomes full of many copies of that virus, then the host cell explodes releasing all the new viruses. If the host cell is a bacterium and the the virus is a bacterophage, this phenomenon is done in two ways either by the lytic cycle in which virus DNA survives and the bacterial cell is destroyed,or the lysogenic cycle in which virus DNA is incorporated in the host cell DNA.
Having multiple copies of a recombinant plasmid in a cell is crucial for ensuring sufficient expression of the desired gene. This increases the likelihood of producing enough protein for study or therapeutic purposes. Additionally, multiple copies enhance the stability of the plasmid, reducing the risk of loss due to cell division or environmental factors. Overall, this multiplicity boosts the efficiency of genetic experiments and applications.
According to a source from Publisher's Weekly, 523,000 copies of Multiple Blessings sold in 2009.
Yes, gene cloning involves inserting a specific DNA sequence into a vector, such as a plasmid, to produce multiple copies of that DNA sequence. This can be useful for producing large amounts of a particular gene for further research or application.
Which technique can be used to make multiple copies of a gene? What are the basic steps in this procedure?
They are copies of DNA, containing a genetic code which are basically instructions for creating proteins
The production of multiple copies of a single gene.
Replication, in which new copies of DNA are made; transcription, in which a segment of DNA is used to produce RNA; and translation, in which the information in RNA is translated into a protein sequence.
more copies of itself