Nucleotides in both DNA and RNA are bound by phosphate ester bonds. See the following link for a detailed discussion: http://www.ncc.gmu.edu/dna/structur.htm
The bond is a phosphodiester bond, which forms a strong covalent bond between the sugar of one nucleotide and the phosphate group of the next nucleotide in a DNA or RNA molecule. This bond is important in creating the backbone of the nucleic acid strand and plays a role in stabilizing the overall structure of the molecule.
A phosphodiester bond is formed in the polymerization of DNA when the phosphate group of one nucleotide molecule reacts with the hydroxyl group of another nucleotide molecule, releasing a water molecule. This process creates a strong covalent bond between the two nucleotides, linking them together in a chain to form the DNA polymer.
Phosphodiester bond connect the 3rd carbon of ribose to phosphate back bone
The type of bond present in the nucleotide that involves the selection of the phosphate ester (phosphoester) bond is a covalent bond.
Actually, it is the phosphodiester bonds that connect the sugar of one nucleotide to the phosphate group of the next nucleotide in a DNA strand, forming the backbone of the DNA molecule. Covalent bonds between the nitrogenous bases help to stabilize the double helix structure of DNA.
The bond is a phosphodiester bond, which forms a strong covalent bond between the sugar of one nucleotide and the phosphate group of the next nucleotide in a DNA or RNA molecule. This bond is important in creating the backbone of the nucleic acid strand and plays a role in stabilizing the overall structure of the molecule.
A phosphodiester bond is formed in the polymerization of DNA when the phosphate group of one nucleotide molecule reacts with the hydroxyl group of another nucleotide molecule, releasing a water molecule. This process creates a strong covalent bond between the two nucleotides, linking them together in a chain to form the DNA polymer.
A phosphodiester bond is the type of bond that is present between phosphorus and oxygen in a DNA molecule. This bond forms between the phosphate group of one nucleotide and the hydroxyl group of another nucleotide, linking the nucleotides together in a DNA backbone.
The phosphate group can be removed from a nucleotide without breaking the polynucleotide chain within a DNA molecule. The phosphate group is attached to the 5' carbon of the sugar molecule in a nucleotide through a phosphodiester bond, which does not affect the backbone of the DNA chain when cleaved.
Adenine pairs with Thymine by a double hydrogen bond
Phosphodiester bond connect the 3rd carbon of ribose to phosphate back bone
A diatomic molecule is most likely to have a covalent bond. This type of bond involves the sharing of electron pairs between the two atoms in the molecule.
The type of bond present in the nucleotide that involves the selection of the phosphate ester (phosphoester) bond is a covalent bond.
A double bond is found in an alkene. It consists of one sigma bond and one pi bond between the carbon atoms in the alkene molecule.
A bond in DNA helps hold the structure together by connecting the nucleotide bases in the double helix. These bonds are essential for maintaining the stability and integrity of the DNA molecule.
Actually, it is the phosphodiester bonds that connect the sugar of one nucleotide to the phosphate group of the next nucleotide in a DNA strand, forming the backbone of the DNA molecule. Covalent bonds between the nitrogenous bases help to stabilize the double helix structure of DNA.
The nucleotide to which the nitrogen base is attached in DNA is the sugar molecule, specifically the deoxyribose sugar. The nitrogen base is attached to the 1' carbon of the deoxyribose sugar through a glycosidic bond.