Well, isn't that a lovely question! The amount of copper sulfate that water can dissolve depends on various factors like temperature and pressure. Generally, water can dissolve about 203 grams of copper sulfate per liter at room temperature. Just like painting, it's all about finding the right balance and letting things blend harmoniously.
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.
You can boil the solution and collect and condense the water vapor until all of the water is gone. That will leave you with the solid copper sulphate. You will have to let the copper sulphate dry to remove all of the water.
(CuSO4·xH2O) I would suggest heating in a crucible to a constant mass. A simple gravametric calculation using the balanced equation and m=n.gfm will give you a value for x x should be 5
Copper hydroxide is classified as a slightly soluble. Exactly how much will dissolve depends on the pH of the water, and other factors such as the carbonate concentration. Even with these taken into account, for pH around 7, and typical water hardness, the amount of copper hydroxide that will dissolve should be 10 mg or less per liter of water.
Approximately 63.5g of copper can be obtained from 100g of copper sulfate through a chemical reaction known as displacement. This reaction involves immersing a piece of metal (such as iron) in a copper sulfate solution, causing the copper ions in the solution to be replaced by the metal ions.
Not much. The Copper (II) sulfate will just dissolve in the water (at about 316g/L of water). Copper (II) sulfate is pretty friendly around water and not all that dangerous. It's used commercially.
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.
You can boil the solution and collect and condense the water vapor until all of the water is gone. That will leave you with the solid copper sulphate. You will have to let the copper sulphate dry to remove all of the water.
Copper(II) sulfate contain 398,1339 g copper in 1 kg CuSO4.
A copper sulphate solution can have different concentrations depending on how much copper sulphate crystals have been added into the water. A typical 1 molar solution of copper sulphate would need 250g of CuSO4, mixed with 700ml of H2O, with 10ml of H2SO4 added with another 290ml of water.
The boiling point of water is 100 degrees Celsius, while the boiling point of copper sulfate is much higher at around 1500 degrees Celsius. Mixing copper sulfate with water would not change the boiling point of water significantly.
Well the formula is CuSO4
The solubility of CuCl2 in water is 75,7 g/100 mL at 25 0C.
(CuSO4·xH2O) I would suggest heating in a crucible to a constant mass. A simple gravametric calculation using the balanced equation and m=n.gfm will give you a value for x x should be 5
Copper hydroxide is classified as a slightly soluble. Exactly how much will dissolve depends on the pH of the water, and other factors such as the carbonate concentration. Even with these taken into account, for pH around 7, and typical water hardness, the amount of copper hydroxide that will dissolve should be 10 mg or less per liter of water.
Copper sulfate is the ionic crystal solute because it is composed of positive copper ions and negative sulfate ions that form an ionic bond. Iodine, on the other hand, is a molecular crystal solute because it consists of covalently bonded iodine molecules.
Approximately 63.5g of copper can be obtained from 100g of copper sulfate through a chemical reaction known as displacement. This reaction involves immersing a piece of metal (such as iron) in a copper sulfate solution, causing the copper ions in the solution to be replaced by the metal ions.