ii dun knw
Active because concentration in cells must remain hight than in the blood.
It can dehydrate a fruit or vegetable by passive transport. The higher concentration of water goes to the lower concentration and thereby "sucking" the water out of fruits and vegetables.
active transport of sodium and chloride ions from the ascending limb of the loop of Henle.
The reabsorption of charged ions like sodium and chloride from urine against a concentration gradient in kidney cells primarily employs active transport. This process requires energy, often in the form of ATP, to move ions from an area of lower concentration in the urine to an area of higher concentration in the bloodstream. Specific transport proteins, such as pumps and co-transporters, facilitate this movement across the cell membrane.
This depends on the sodium chloride concentration; higher the concentration, higher the density.
The chloride concentration is higher outside the cell than inside the cell.
This solution contain a specified concentration of sodium chloride.
CaCL2 on its own cannot have a concentration. It would have to be dissolved in a solution first. Then, from the amount of CaCl2 which is dissolved in a certain amount of a solute (such as water), you would be able to figure out the concentration.
The pH of potassium chloride solution depends on the concentration. At a typical concentration of 0.1 M, the pH of potassium chloride solution is close to neutral, around 7. However, as the concentration increases, the solution can become more acidic due to the hydrolysis of chloride ions.
This solution contain a specified concentration of sodium chloride.
Isotonic means that the concentration of solutes in the solution is the same as the concentration of solutes in the intracellular and extracellular fluid. This allows for balanced movement of water across cell membranes without causing them to shrink or swell.
The concentration of sodium chloride increase.