No. moles = mass/molecular mass mass of silver nitrate = 169.88
7.25/169.88 = 0.042 moles/l but this is per 100ml so we need to multiply by 10 = 0.42m
silver nitrate dissolves in water. so it should form a homogeneous solution
Silver nitrate is a solid at room temperature. It dissolves in water to form a clear, colorless solution known as silver nitrate solution.
Silver nitrate in water is a homogeneous mixture, as the silver nitrate particles are dissolved uniformly throughout the water, resulting in a clear solution.
Mixing sea water with silver nitrate solution than a white solid called (Silver chlorie) AgCl will form. Sodium nitrate is also a product but it is dissolved in the water. AgNO3 + NaCl→AgCl + NaNO3
Silver nitrate (AgNO3) is commonly used as the test reagent for chloride ions. When silver nitrate is added to a solution containing chloride ions, a white precipitate of silver chloride (AgCl) forms. This reaction is often used to detect the presence of chloride ions in a solution.
No, the moles of silver ions in water depend on the concentration of the silver ions present, while the moles of silver ions in a silver nitrate solution depend on the amount of silver nitrate dissolved. The two may not be equal unless the silver nitrate is completely dissociated into silver ions in water.
When you mix agar and dissolved silver nitrate, the silver ions in the silver nitrate solution can bind to the agar molecules, forming a complex. This complexation may result in the precipitation of silver agar particles, depending on the concentration of silver ions and the pH of the solution.
Silver nitrate is a solid at room temperature. It dissolves in water to form a clear, colorless solution known as silver nitrate solution.
silver nitrate dissolves in water. so it should form a homogeneous solution
Silver nitrate in water is a homogeneous mixture, as the silver nitrate particles are dissolved uniformly throughout the water, resulting in a clear solution.
When sodium carbonate reacts with silver nitrate, the double displacement reaction forms silver carbonate, which is insoluble in water and precipitates out of the solution. The remaining products are sodium nitrate, which remains dissolved in the solution.
The chemical formula for silver nitrate is AgNO3. When dissolved in water, it forms a solution of silver ions (Ag+) and nitrate ions (NO3-). This solution is commonly used in various chemical reactions, such as in the preparation of silver nanoparticles or as a reagent in laboratory experiments.
0.3 Normality silver nitrate refers to a solution of silver nitrate (AgNO3) that has a concentration of 0.3 equivalents per liter (eq/L). This means that for every liter of the solution, there are 0.3 equivalents of silver nitrate present. The normality of a solution is a measure of the concentration of a solute in terms of equivalent weight.
The reaction between sodium bromide and silver nitrate forms silver bromide and sodium nitrate. The product is a white precipitate of silver bromide, while sodium nitrate remains dissolved in the solution as a spectator ion.
In a silver solution like silver nitrate, silver is the solute because it is the substance being dissolved. The solvent, typically water, is the medium in which silver ions are dispersed to form the solution.
When silver nitrate is electroplated, the silver ions in the silver nitrate solution are reduced at the cathode, forming a silver metal coating on the substrate. The nitrate ions from the silver nitrate solution are left in the solution without participating directly in the electroplating process.
The number of moles of silver chromate formed will depend on the stoichiometry of the reaction between silver nitrate and potassium chromate. You need to know the balanced chemical equation, as well as the exact volumes and concentrations of the silver nitrate and potassium chromate solutions to calculate the number of moles of silver chromate formed.