On the exterior linking the sugar backbones together.
The sugar groups in a DNA molecule are located on the exterior. DNA has a double helix structure where the sugar-phosphate backbones form the outer edges, while the nitrogenous bases are oriented inward, pairing with complementary bases from the opposite strand. This arrangement protects the genetic information carried by the bases.
There are two phosphate groups in one molecule of ADP.
The original molecule has two phosphate groups attached.
The DNA backbone, are made of alternating sugars and phosphate groups.
Adenosine diphosphate. ADP. Two phosphate groups.
The sugar groups in a DNA molecule are located on the exterior. DNA has a double helix structure where the sugar-phosphate backbones form the outer edges, while the nitrogenous bases are oriented inward, pairing with complementary bases from the opposite strand. This arrangement protects the genetic information carried by the bases.
There are three phosphate groups in a molecule of adenosine triphosphate (ATP).
There are two phosphate groups in one molecule of ADP.
The original molecule has two phosphate groups attached.
The DNA backbone, are made of alternating sugars and phosphate groups.
Adenosine diphosphate. ADP. Two phosphate groups.
That is true; the potential energy in an ATP molecule is derived mainly from its three phosphate groups.
Yes
The nitrogen base adenine, a ribose sugar molecule, and three phosphate groups.
The potential energy in an ATP molecule is derived from its three phosphate groups that are linked by phosphate bonds. The energy of ATP is locked within these bonds.
An ATP molecule is composed of three main components: a ribose sugar molecule, an adenine base, and three phosphate groups. These phosphate groups store and release energy as needed for cellular processes.
Complex carbohydrates can be attached to a phosphate group to form glycoproteins. A glycoprotein is a sugar molecule that are attached to a cell membrane.