Cellular respiration can best be described as Group of answer choices using energy released from breaking high-energy covalent bonds in organic molecules to force ATP formation from ADP and phosphate. taking electrons from food and giving them to phosphate to make ATP. taking electrons from food and giving them to oxygen to make water, using the energy released to drive ATP formation. converting higher-energy organic molecules to lower-energy organic molecules and using the energy released to drive ATP formation.

using energy released from breaking high-energy covalent bonds in organic molecules to force ATP formation from ADP and phosphate.

Explanation:

The cellular respiration involves the generation of energy for bodily activities. This is technically known as the Kreb's Cycle or citric acid cycle. This is the process through which the intracellular metabolism of glucose takes place. Specialized organelles, called mitochondria are responsible for the process. The organelles ensure that the breaking of the high energy phosphate bonds in the ATP monocle generate energy. Overally, the process is a hydrolysis process. This involves the movement of the hydrogen ions an the generation of 38 high energy phosphate bond breakages.

Cellular respiration is "taking electrons from food and giving them to oxygen to make water, using the energy released to drive ATP formation". This is the most correct option.

Explanation: Cellular respiration is the process of converting the energy in the food we eat to the energy required by our cells to be able to function properly in the body.

In this type of respiration, hydrogen and carbon Electron are derived from the food we eat, because the food we eat are organic, oxygen accepts this electron to form water and carbon(IV)oxide, while ATP is been released. This is why breathing in oxygen I very essential for the cells of our body to function. We release the carbon(IV) oxide to the atmosphere by exhalation.

a.) a destruction fo cells by viral reproduction

his research revealed two genetically different groups of prokaryotes, which justified splitting kingdom monera into two kingdoms. the genetic and cellular differences were so great, that these two kingdoms were eventually placed into different domains in the current three-domain system.