Covalent bonds in a DNA molecule are located in the sugar-phosphate backbone that runs along the sides of the molecule. These covalent bonds link the phosphate group of one nucleotide to the sugar group of the next nucleotide, creating a strong and stable backbone for the DNA molecule.
hydrogen bonds. The other bonds are covalent bonds.
The nucleotide chains of DNA are held together by covalent bonds, specifically phosphodiester bonds. Covalent bonds are generally considered nonpolar because electrons are shared equally between atoms, resulting in no partial charges along the molecule.
DNA is composed of covalent bonds. The backbone of DNA is made up of sugar-phosphate molecules linked by covalent bonds, while the bases are held together by hydrogen bonds. The overall structure of DNA is stabilized by a combination of covalent and hydrogen bonds.
a molecule
The reason why it is advantageous to have weak hydrogen bonds between complementary base pairs and strong covalent bonds between phoshate and deoxyribose groups in a DNA molecule is because the strong covalent bonds running along the "ladder" of the DNA molecule (the phospate and deoxyribose units) keep the molecule together during its existence and more importantly its reproduction. The weak hydrogen bonds in the middle keep the reproduction cycle going on forever because it is able to perform an easy split between the hydrogen bonds throughout the middle of the molecule.
hydrogen bonds. The other bonds are covalent bonds.
The nucleotide chains of DNA are held together by covalent bonds, specifically phosphodiester bonds. Covalent bonds are generally considered nonpolar because electrons are shared equally between atoms, resulting in no partial charges along the molecule.
The reason why it is advantageous to have weak hydrogen bonds between complementary base pairs and strong covalent bonds between phoshate and deoxyribose groups in a DNA molecule is because the strong covalent bonds running along the "ladder" of the DNA molecule (the phospate and deoxyribose units) keep the molecule together during its existence and more importantly its reproduction. The weak hydrogen bonds in the middle keep the reproduction cycle going on forever because it is able to perform an easy split between the hydrogen bonds throughout the middle of the molecule.
DNA ligase is the enzyme responsible for creating the covalent bonds that connect the sugar-phosphate backbone of the new DNA molecule during DNA replication and repair processes. It seals the nicks between adjacent nucleotides to form a continuous DNA strand.
DNA is composed of covalent bonds. The backbone of DNA is made up of sugar-phosphate molecules linked by covalent bonds, while the bases are held together by hydrogen bonds. The overall structure of DNA is stabilized by a combination of covalent and hydrogen bonds.
Covalent bonds between a sugar molecule (deoxyribose) and a phosphate group make up the backbone of DNA. These are very strong covalent bonds and are broken only with great expenditure of energy--x-rays, for example.
a molecule
Covalent bonds do not hold the two strands of a DNA molecule together; instead, they connect the individual nucleotides within each strand, linking the sugar and phosphate groups. The two strands of DNA are held together by hydrogen bonds between complementary nitrogenous bases (adenine with thymine, and guanine with cytosine). These hydrogen bonds allow the strands to separate easily during processes like DNA replication and transcription, while the covalent bonds provide structural integrity to each strand.
The DNA backbone is made of phosphate group and deoxyribose, and they are held together by covalent bonding.
The reason why it is advantageous to have weak hydrogen bonds between complementary base pairs and strong covalent bonds between phoshate and deoxyribose groups in a DNA molecule is because the strong covalent bonds running along the "ladder" of the DNA molecule (the phospate and deoxyribose units) keep the molecule together during its existence and more importantly its reproduction. The weak hydrogen bonds in the middle keep the reproduction cycle going on forever because it is able to perform an easy split between the hydrogen bonds throughout the middle of the molecule.
The backbone of the DNA molecule is made of alternating sugar (deoxyribose) and phosphate molecules. These sugar-phosphate chains are connected by covalent bonds.
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.