The solubility of cerium sulfate at 30°C is approximately 117 g/100 mL of water. To make a saturated solution, you would need to add at least 117 g of cerium sulfate to 100 mL of water at 30°C.
The solubility of cerium sulfate in water at 30 degrees Celsius is 114 g/L. To make a saturated solution in 100 ml of water, you would need to calculate the amount of cerium sulfate that can dissolve in that volume at that temperature. This would be approximately 11.4 grams of cerium sulfate.
To prepare a saturated solution of copper sulfate at 20 degrees Celsius, you would need to dissolve approximately 203 grams of copper sulfate in 400 grams of water. This is based on the solubility of copper sulfate in water at that temperature.
To determine the grams of sodium sulfate needed, you first need to specify the molarity (M) of the sodium sulfate solution. Once you have the molarity, you can use the formula: grams = molarity (M) x volume (L) x molar mass (g/mol). This will give you the amount of sodium sulfate in grams needed to make the solution.
To prepare 0.1N ferrous ammonium sulfate solution, dissolve the appropriate weight of ferrous ammonium sulfate crystals in a known volume of water, followed by dilution to the desired volume. The molecular weight of ferrous ammonium sulfate is needed to calculate the amount required to make the solution. Always wear appropriate personal protective equipment and handle chemicals in a well-ventilated area.
First, calculate the molar mass of cobalt (II) sulfate (CoSO4) = 58.93 (Co) + 32.06 (S) + 4 * 16.00 (O) = 155.93 g/mol. Next, calculate the number of moles in 3.14 grams of cobalt (II) sulfate: 3.14 g / 155.93 g/mol = 0.0201 mol. Since the concentration is 0.123 M, you need 0.0201 mol / 0.123 mol/L = 0.1634 L = 163.4 mL of the 0.123 M cobalt (II) sulfate solution.
You need min. 5,63 g cerium sulfate.
The solubility of cerium sulfate in water at 30 degrees Celsius is 114 g/L. To make a saturated solution in 100 ml of water, you would need to calculate the amount of cerium sulfate that can dissolve in that volume at that temperature. This would be approximately 11.4 grams of cerium sulfate.
To prepare a saturated solution of copper sulfate at 20 degrees Celsius, you would need to dissolve approximately 203 grams of copper sulfate in 400 grams of water. This is based on the solubility of copper sulfate in water at that temperature.
The saturated solution of sodium chloride is 379,3 g for 1 kg solution at 8o oC.
A saturated solution is made when you have added so much solute that no more dissolves. The amount of solute needed to make a saturated solution will change with the temperature of the solution.
0.125 Molar solution! Molarity = moles of solute/Liters of solution Algebraically manipulated, Moles of copper sulfate = 2.50 Liters * 0.125 M = 0.313 moles copper sulfate needed ===========================
it is solubility
The reagents needed to form barium sulfate are barium chloride and sodium sulfate. When these two compounds are mixed in solution, a white precipitate of barium sulfate forms.
To determine the grams of sodium sulfate needed, you first need to specify the molarity (M) of the sodium sulfate solution. Once you have the molarity, you can use the formula: grams = molarity (M) x volume (L) x molar mass (g/mol). This will give you the amount of sodium sulfate in grams needed to make the solution.
To make a 0.25 M solution of ammonium sulfate from a stock solution of 6 M, you would need to dilute the stock solution. The dilution equation is C1V1 = C2V2 where C1 and V1 are the concentration and volume of the stock solution, and C2 and V2 are the concentration and volume of the final solution. You would need to set up this equation to calculate the volume of the stock solution needed and then convert that volume to grams using the molar mass of ammonium sulfate.
To make a 0.25M solution of ammonium sulfate at a concentration of 6M, you would need to dilute the 6M solution. Assuming you have 1 liter of the 6M solution, you can calculate the volume needed for dilution using the formula: (C1V1 = C2V2), where C1 = 6M, V1 = volume of the 6M solution (in liters), C2 = 0.25M, and V2 = total volume of the diluted solution (in liters). Once you have the volume, you can convert it to grams using the molar mass of ammonium sulfate.
To make a 0.1N solution of ferrous ammonium sulfate, you first need to calculate the molecular weight of the compound. Then, you can dissolve the calculated amount of ferrous ammonium sulfate in the appropriate volume of water to prepare the desired concentration. Finally, make adjustments to the pH if needed.