Plasmids

The discovery of plasmids has greatly expanded our understanding of bacterial genetics.

The scientists used plasmids to create genetically modified mice.

The researchers used plasmids to introduce new genetic material into the cells.

The plasmids were inserted into the cells of the fruit flies to modify their genes.

Plasmids are often used in genetic engineering to produce transgenic animals.

The plasmids were designed to express the human insulin gene in the transgenic pigs.

The plasmids were used to deliver the CRISPR-Cas9 system to the cells and modify the genome.

The plasmids were purified from the bacteria and used as a vector for gene therapy.

The plasmids were transformed into the yeast cells to produce recombinant proteins.

The function of plasmids is to replicate independently of the host genome.

The plasmids in the eukaryotic cells can be used as vectors for the delivery of therapeutic genes.

The scientist analyzed the plasmids in the yeast cell.

The scientists are studying the characteristics of plasmids in yeast.

The plasmids in the cell have the ability to transfer genetic material.

The study focused on the role of plasmids in gene expression.

The yeast cell contained multiple plasmids in its cytoplasm.

Researchers have discovered new plasmids in eukaryotic cells.

Plasmids are important genetic tools used in genetic engineering.

The DNA in the plasmids was sequenced and analyzed.

The presence of plasmids in the cell can affect its growth and division.

The plasmids in the cell are responsible for antibiotic resistance.

The discovery of plasmids in yeast cells has significant implications in biotechnology.

The plasmids in the virus were sequenced to determine its origin.

Plasmids can carry genes that provide the virus with an advantage in infecting and replicating within host cells.

The presence of plasmids in a virus can increase its virulence.

Plasmids have been used as vectors for gene therapy in various diseases.

Plasmids play an important role in the spread of genetic information between different species of bacteria.

The study of plasmids has led to the development of novel techniques for genetic manipulation and genome editing.

Plasmids can be transferred between bacteria, promoting the spread of antibiotic resistance.

Plasmids are small DNA molecules that can replicate independently of chromosomal DNA.

The ability of plasmids to transfer genes between different bacterial strains has important implications for the spread of antibiotic resistance.

Scientists have discovered various plasmids in bacteria that carry genes for antibiotic resistance.

Plasmids are commonly used in genetic engineering experiments.

The researchers found several plasmids in the virus samples.

The lab is attempting to develop new antibiotics that target plasmids in bacteria.

The size and number of plasmids present in a bacterial strain can vary greatly.

Scientists are investigating the use of plasmids as a delivery system for gene therapy.

The transfer of plasmids between bacteria can spread antibiotic resistance.

The stability of plasmids is important for maintaining their presence in bacterial populations.

The discovery of plasmids in bacteria revolutionized the field of molecular biology.

The presence of plasmids in bacteria can affect their virulence and survival.

Plasmids can be used as vectors to deliver genes into cells for gene therapy.

Plasmids can also carry genes that confer resistance to heavy metals and other toxins.

The presence of plasmids in bacteria can make infections more difficult to treat.

The lab is studying the transfer of antibiotic resistance genes through plasmids.

Some plasmids can carry multiple antibiotic resistance genes.

The exchange of plasmids between bacteria can lead to the spread of antibiotic resistance.

Plasmids are small, circular pieces of DNA found in bacteria.

Some plasmids contain genes that code for proteins involved in bacterial conjugation.

The discovery of plasmids revolutionized the study of bacterial genetics.