Depending on what "Strands" are it could be either Hydrogen bonding between complementary base pairs or Phosphate bonds between interlinking deoxyribose sugars
Depending on what "Strands" are it could be either Hydrogen bonding between complementary base pairs or Phosphate bonds between interlinking deoxyribose sugars
Hydrogen bonds are the type of chemical bonds found between the strands of a DNA molecule. These bonds form between complementary nitrogenous bases, such as adenine and thymine, and guanine and cytosine.
each strand in the DNA molecule has a gap of 3.4 angstrom(Ao) between them. the total length of one series of strand or 1 DNA molecule is 34 Ao. therefore 34/3.4=10. there are 10 strands or N2 base pairs in a DNA molecule.
No idea. Biologers
Two strands of DNA are used to make complementary strands of DNA. One original strand serves as a template for the synthesis of a new strand, resulting in a double-stranded DNA molecule with base pairing between the original and newly synthesized strands.
Depending on what "Strands" are it could be either Hydrogen bonding between complementary base pairs or Phosphate bonds between interlinking deoxyribose sugars
Depending on what "Strands" are it could be either Hydrogen bonding between complementary base pairs or Phosphate bonds between interlinking deoxyribose sugars
pairing of single-ringed bases with double -ringed bases
Depending on what "Strands" are it could be either Hydrogen bonding between complementary base pairs or Phosphate bonds between interlinking deoxyribose sugars
Boner
hay ha
A typical DNA molecule consists of two strands.
A DNA molecule typically consists of two strands.
Hydrogen bonds are the type of chemical bonds found between the strands of a DNA molecule. These bonds form between complementary nitrogenous bases, such as adenine and thymine, and guanine and cytosine.
Hydrogen bonds
The two strands of DNA are held together by hydrogen bonds between the nitrogen base pairs.
The negatively charged phosphate groups in the DNA backbone cause electrostatic repulsion between the two strands of the double helix, leading to a stable helical structure. This repulsion helps to maintain the distance between the strands and contributes to the overall stability of the DNA molecule.