Answer:
1: Representing things which would be difficult to observe directly
2. Cytoplasm
3. 3, glycolysis
4. oxygen
5. Much more ATP produced
6. All of the above
7. Throughout the cytoplasm (?)
8. Twice
9.Carbon dioxide
10. Phosphorylate NADH
Explanation:
Hope this helps :)
Answer: The door is the cell membrane
Explanation: cell membranes control what enters and leaves a cell
Answer: The boss is the Nucleus
Explanation: It controls what happens within the cell
Answer: The machine is the Golgi apparatus
Explanation: This organelle processes, sorts, packs and delivers the products to the cell
The passive transport of water is specifically called osmosis.
6.25% of the energy contained in glucose is lost during the storage process. Glycolysis produces the molecules that are processed by the citric acid cycle.
- Each dietary glucose molecule produces 32 molecules of ATP when it enters the glycolysis and oxidation pathways directly.
- A net 2 ATP are produced during glycolysis for every gram of glucose. Per glucose, the citric acid cycle generates an extra 2 ATP. 28 ATP are produced by oxidative phosphorylation using the byproducts of glucose catabolism.
- 32 ATP molecules are created in this way. A cell could potentially store dietary glucose for later use, in the form of glycogen.
- One ATP must be used in this process in order to create glucose-1-phosphate (G1P).
- After then, G1P and UTP (uridine triphosphate) combine to form uridine-diphospho-glucose (UDP-glucose or UDPG). The UTP substrate, which is used in this phase, indirectly consumes ATP.
- Glycogen synthase can then utilise UDPG directly in the production of glycogen. This implies that each additional molecule added to a glycogen polymer uses up two ATP molecules.
- If two ATP molecules are used up during the storage of glucose as glycogen, then 2/32 or 6.25% of the energy contained in glucose is lost during the storage process.
Learn more about the Glycolysis with the help of the given link:
brainly.com/question/14076989
#SPJ4
Viral infection involves a large number of protein protein interactions (PPls) between virus and its host. These interactions rage from the initial binding of viral coat proteins to host membrane receptor to the hijacking the host transcription machinery by viral proteins.
