Iron is more reactive than copper, so when iron is added to copper sulfate solution, iron displaces copper in the reaction and forms iron sulfate. This process is known as a displacement reaction. This allows copper to be extracted from copper sulfate solution using iron.
The reaction releases heat and light to its surroundings, so it is exothermic.
If thermal energy must be added to a chemical reaction for the reaction to take place the reaction is endothermic.
Iron can displace copper in a chemical reaction because it is a more reactive metal. When iron is added to a copper sulfate solution, the iron atoms will replace the copper atoms in the solution, forming iron sulfate and causing copper metal to be deposited. This process is known as a displacement reaction.
When lead is added to copper sulfate solution, a displacement reaction occurs where lead displaces copper from the solution to form lead sulfate and copper metal. This reaction is driven by the relative reactivity of the metals, with lead being more reactive than copper. The solid lead sulfate formed can be observed as a precipitate in the solution.
When aluminum is added to copper sulfate, a displacement reaction occurs where aluminum displaces copper from the compound. This results in the formation of aluminum sulfate and copper metal. The reaction is exothermic and releases heat.
When heat is added to anhydrous copper sulfate, it will undergo an endothermic reaction and absorb the heat energy to form hydrated copper sulfate. The anhydrous form of copper sulfate will turn blue as it absorbs water molecules from the surrounding environment, forming hydrated copper sulfate.
When water is added to anhydrous copper (II) sulfate, it will undergo an exothermic reaction where the compound absorbs water molecules to form hydrated copper (II) sulfate. The anhydrous copper (II) sulfate changes color from white to blue as it forms the hydrate.
When dilute sulfuric acid is added to zinc granules, a displacement reaction takes place, resulting in the formation of zinc sulfate and hydrogen gas. This reaction is exothermic, which means it releases heat energy.
Anhydrous cupric sulfate would form hydrated copper(II) sulfate when water is added to it. This process is exothermic and the anhydrous crystals would dissolve as the water molecules bond with the copper sulfate molecules to form a hydrated crystal structure.
The blue copper (2) sulfate is undergoing a reversible reaction. When heated, it forms a white solid (copper (2) oxide) and water. When water is added to the white solid, it forms the original blue copper (2) sulfate, releasing heat, indicating an exothermic reaction.
When water is added to copper sulfate, the copper sulfate dissolves in water to form a blue-colored solution. This is a physical change as the copper sulfate molecules remain unchanged, only dispersing evenly in the water.
Why does copper sulfate change its colour when water is added
When Ammonia solution is added to Copper sulphate, at first a precipitate of Copper hydroxide is formed. If excess ammonia is added, finally a deep bluish solution of Tetraamine Copper(II) Sulfate is formed
When copper sulfate is added to water, it dissociates into copper ions and sulfate ions. The copper ions give the solution a blue color, while the sulfate ions do not impact the color. The solution becomes a blue color due to the presence of copper ions.
The solute is copper sulfate, as it is the substance being dissolved in water.
Yes, copper sulfate is soluble in alcohol. When added to alcohol, copper sulfate will dissolve and form a homogeneous solution. However, the solubility may vary depending on the concentration of both the copper sulfate and alcohol.