A hypertonic solution of sodium chloride would have a higher concentration of salt compared to normal body cells. This typically occurs at concentrations greater than 0.9% sodium chloride.
0.9% sodium chloride is isotonic, thus 0.45 and 0.225 % sodium chloride solutions are hypotonic. osmolarity of 0.9% is 308 mOsm/L and 0.45 is 154 and 0.225 is 77 mOsm/L and body fluids have an osmolarity 250-300 mOsm/L.
Water, carbon dioxide, sodium chloride, and glucose can be organized from lower to higher levels as follows: molecules (water, carbon dioxide, sodium chloride, glucose); cells (e.g., glucose in cells); tissues (e.g., glucose in muscle tissue); organs (e.g., glucose in the liver); organ systems (e.g., glucose in the circulatory system); and organisms (e.g., glucose in a human).
Hayem's solution is a specialized diluting fluid used in the examination of blood, particularly in counting white blood cells. It typically consists of a mixture of acetic acid, methylene blue, and potassium oxalate dissolved in a glycerin-based solution. The procedure involves mixing blood with Hayem's solution in a specific ratio, allowing for better visualization and enumeration of white blood cells under a microscope.
D. Water
Saline solution. A solution containing sodium chloride, potassium chloride, calcium chloride, and sodium lactate in distilled water, used as a topical treatment for wounds and burns. It is also used to culture animal cells.
No, cells do not produce sodium chloride (table salt) as a waste product. Sodium chloride is a common compound found in many foods we eat and is important for regulating fluid balance in the body.
Sodium chloride has got electron configuration of 2,8,1. Potassium chloride has got electron configuration of 2,8,8,1. They behave identically in almost all the chemical reactions. But then you have potassium chloride molecule inside the cell. You need to have sodium chloride molecules out side the body cell to make them survive. If you get intravenous injection of sodium chloride, nothing will happen to you. If you give intravenous injection of potassium chloride, you will die instantly. How body cells recognize the difference between sodium chloride and potassium chloride in no time is the big question mark.
A hypertonic solution of sodium chloride would have a higher concentration of salt compared to normal body cells. This typically occurs at concentrations greater than 0.9% sodium chloride.
Because sodium chloride is very hydrophile.
0.9% sodium chloride is isotonic, thus 0.45 and 0.225 % sodium chloride solutions are hypotonic. osmolarity of 0.9% is 308 mOsm/L and 0.45 is 154 and 0.225 is 77 mOsm/L and body fluids have an osmolarity 250-300 mOsm/L.
Chlorine is very active element. It readily combine with any organic matter. So you do not find free chlorine in your body. You find the chlorine as sodium chloride out side the cells. You find double amount of chlorine in, potassium chloride, that is present inside the cells.
The two major electrolytes outside your cells and in your blood are sodium and chloride. These electrolytes are essential for maintaining proper fluid balance in the body and are involved in various physiological functions.
The sodium and chloride make cells unable to function. This kills bacteria, which are much less able to handle the effects, but not body cells that can.
The sodium and chloride make cells unable to function. This kills bacteria, which are much less able to handle the effects, but not body cells that can.
Yes, a sodium chloride solution at a concentration of 1.8% would be hypertonic, meaning it has a higher solute concentration compared to the surrounding cells or environment. This can cause water to move out of the cells through osmosis, leading to dehydration and potential cell shrinkage.
Water, carbon dioxide, sodium chloride, and glucose can be organized from lower to higher levels as follows: molecules (water, carbon dioxide, sodium chloride, glucose); cells (e.g., glucose in cells); tissues (e.g., glucose in muscle tissue); organs (e.g., glucose in the liver); organ systems (e.g., glucose in the circulatory system); and organisms (e.g., glucose in a human).