In cellular respiration, the energy for most ATP synthesis is supplied by: A. High energy phosphate bonds in organic molecules

B. A proton gradient across a membrane

C. Converting oxygen to atp

D. Transferring electrons from organic molecules to pyruvate

E. Generating carbon dioxide and oxygen in the electron transport chain

B. A proton gradient across a membrane.

Explanation:

Cellular respiration can be defined as a series of metabolic reactions that typically occur in cells so as to produce energy in the form of adenosine triphosphate (ATP). During cellular respiration, high energy intermediates are created that can then be oxidized to make adenosine triphosphate (ATP). Therefore, the intermediary products are produced at the glycolysis and citric acid cycle stage.

Additionally, mitochondria provides all the energy required in the cell by transforming energy forms through series of chemical reactions; breaking down of glucose into Adenosine Triphosphate (ATP) used for providing energy for cellular activities in the body of living organisms.

Basically, oxygen goes into the body of a living organism such as plants, humans and animals when they breathe while glucose is absorbed by the body when they eat.

In cellular respiration, the energy for most ATP synthesis is supplied by proton gradient across a membrane.

This ultimately implies that, most adenosine triphosphate (ATP) is formed due to the net movement of protons against a concentration gradient in the electron transport chain.

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