After glycolysis, there is no more glucose. The name glycolysis means "sugar splitting," and that's just what it does. It takes one glucose and splits it into two molecules of pyruvate, generating two ATPs as it goes. Following the short reaction when entering the mitochondria, the acetyl CoA (a form of the pyruvate) goes through the Krebs Cycle (or Citric Acid Cycle). Through a series of reactions, the energy is taken and incorporated into ADP to make ATP. Some of the energy will also go to NAD+ to form NADH (and some to FAD+ to form FADH2). These electron carriers then go to the Electron Transport Chain (ETC) to make the most ATPs in respiration through oxidative phosphorylation.
Most of the energy released by the breakdown of glucose to water and carbon dioxide ends up in the form of ATP (adenosine triphosphate), which is a molecule that cells use as a source of energy for various cellular processes.
ends up going to the sun
Starch is made up of repeating glucose units arranged in long chains, allowing for compact storage of energy. The branching in its structure provides more ends for enzyme action, aiding in the rapid breakdown of starch into glucose for energy release. This structure also allows starch to be insoluble in water, preventing osmotic issues in plant cells.
Glucose is considered a very important molecule for living beings because it provides us energy & we use most of the energy in the form of glucose(the ultimate source of energy. bhuvan sorout
Mitochondria gets energy from glucose through the process of Cellular Respiration.The process by which ATP is manufactured from glucose is called cellular respiration.
Most of the energy released by the breakdown of glucose to water and carbon dioxide ends up in the form of ATP (adenosine triphosphate), which is a molecule that cells use as a source of energy for various cellular processes.
The glucose released into the blood primarily ends up in various tissues throughout the body, where it is utilized as a source of energy. Muscle and fat cells absorb glucose with the help of insulin, converting it into energy through cellular respiration or storing it as glycogen for later use. Additionally, some glucose can be converted into fat in the liver and stored in adipose tissue. Any excess glucose that is not immediately needed for energy or storage can eventually contribute to hyperglycemia if not properly regulated.
ends up going to the sun
Starch is made up of repeating glucose units arranged in long chains, allowing for compact storage of energy. The branching in its structure provides more ends for enzyme action, aiding in the rapid breakdown of starch into glucose for energy release. This structure also allows starch to be insoluble in water, preventing osmotic issues in plant cells.
It ends up with energy
It ends up with energy
It ends up with energy
It ends up with energy
It ends up with energy
It ends up with energy
It ends up with energy
It ends up with energy