DNA double helix

DNA double helix is about 2 nm from one side to the other.

The number of polynucleotide strands in a DNA double helix.

These bonds hold the two strands of the DNA double helix structure together.

Other designs include the 'spirals' which refers to the DNA double helix.

The strands of the DNA double helix are continuously breaking from damage.

These two scientific threads run through the exhibition like the strands of the DNA double helix.

An example is the two complementary strands of a DNA double helix, which run in opposite directions to one another.

In a DNA double helix, it will base pair with deoxyguanosine monophosphate.

This provides a DNA double helix which can be integrated in the host cell's chromosome.

The DNA double helix is unwound by the helicase activity of the enzyme.

The reaction initiates the exchange of strands between two recombining DNA double helices.

Accidental dropping of the cards lead to a discovery that when the painting is mirrored with itself a DNA double helix image appears.

In alkaline conditions the DNA double helix is denatured and the nucleoid becomes single stranded.

Base pairing in DNA Double Helix (shows specific hydrogen bonds)

Other advances in molecular biology stemming from the discovery of the DNA double helix eventually led to ways to sequence genes.

The DNA double helix polymer of nucleic acids, held together by nucleotides which base pair together.

Slowly the stars rose around the woman, and moved to form a rapidly rotating DNA double helix, which is the basis for all life on the planet.

The 1953 Cold Harbor Symposium was the first opportunity for many to see the model of the DNA double helix.

Watson and Crick based their molecular model of the DNA double helix on data that had been collected by researchers in several other laboratories.

When all the base pairs in a DNA double helix melt, the strands separate and exist in solution as two entirely independent molecules.

Francis Crick (deceased), Nobel laureate (for DNA double helix structure description).

The DNA-binding domains bind to both strands on the DNA double helix.

The process of gene expression is dependent upon the localised melting of the DNA double helix to expose the single strand template during transcription.

When the DNA double helix is treated with denatured agents, the interaction force holding the double helical structure is disrupted.

The leading strand is the template strand of the DNA double helix so that the replication fork moves along it in the 3' to 5' direction.