Answer:1 molecule of water will produce
Explanation:
to form peptide bond between two amino acids
The cell placed within the hypertonic solution will quickly become dehydrated due to the concentration gradients and osmosis.
<em>Though I cannot provide the drawing of the cell, I can describe what a </em><em>hypertonic solution </em><em>is and what effect it would have on the </em><em>cell</em><em>. </em>
A hypertonic solution is a solution that when compared to another solution or object, has a higher concentration of solute. If made into a drawing, this would look like the cell is in water, but said water contains a large amount of solute, like <em>sugar </em>for example.
Hypertonic solutions can cause water to move. The water moves through a process known as Osmosis, which is the tendency of water to move towards a location that has a higher concentration of solute, in order to dissolve this concentration. Since the liquid inside the cell has a lower concentration of solute than the environment, the water inside the cell will escape through osmosis and can severely dehydrate the cell.
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Answer:
T G G C T T
Explanation:
Adenine(A) pairs with tymine(T) and cytosine(C) pairs with guanine(G)
therefore the complementary strand is
TGGCTT
Answer:
this question is incomplete and belongs to physics
Answer:
The defective Na+/K+ ATPase is not able to dephosphorylate itself.
Explanation:
Na+/K+ ATPase pump cycles between two different forms: the phosphorylated form of the Na+/K+ ATPase has a high affinity for K+ ions and low affinity for Na+ ions. The release of phosphate from ATP and phosphorylation of Na+/K+ ATPase makes the pump to release the bound 3 Na+ ions outside the cell and to bind to the 2 K+ ions from the surroundings. As the Na+/K+ ATPase is dephosphorylated, its affinity for K+ ions is reduced leading to the release of K+ inside the cell.
A defective Na+/K+ ATPase that is able to pick and bind the K+ ions but is not able to shuttle them across the membrane should be defective to achieve its dephosphorylated form. Without releasing phosphate, the affinity of the pump for K+ ions is not reduced and the pump would not be able to release them to the opposite side of the membrane.