Ca(NO3)2 + CuSO4 --> CaSO4 + Cu(NO3)2
This reaction is irreversible as the CaSO4 (i.e. gypsum) precipitates out.
To determine how many miles of calcium nitrate would react with 4.55 moles of Chromium (III) sulfate to produce chromium (III) nitrate, you would first need to write the balanced chemical equation for the reaction between calcium nitrate and chromium (III) sulfate. Then, use the stoichiometry of the reaction to convert moles of Chromium (III) sulfate to moles of calcium nitrate, and finally, convert moles of calcium nitrate to miles using the molar mass.
Sodium chloride = hydrochloric acid, HCl Calcium sulfate = sulfuric acid, H2SO4 Ammonium nitrate = nitric acid, HNO3
The balanced equation for sodium sulfate plus lithium nitrate is: 2 Na2SO4 + 3 LiNO3 -> 1 Na2(SO4)3 + 3 Li2SO4
When lead(II) nitrate and sodium sulfate react, lead(II) sulfate and sodium nitrate are formed through a double displacement reaction. The balanced chemical equation for this reaction is: Pb(NO3)2 + Na2SO4 → PbSO4 + 2NaNO3. Lead(II) sulfate is a precipitate that appears as a white solid when this reaction occurs.
The chemical equation for the reaction between sodium nitrate (NaNO3) and copper sulfate (CuSO4) is: 2NaNO3 + CuSO4 -> Cu(NO3)2 + Na2SO4
2AgNO3 + CaSO4 ------> Ag2SO4 + Ca(NO3)2
To determine how many miles of calcium nitrate would react with 4.55 moles of Chromium (III) sulfate to produce chromium (III) nitrate, you would first need to write the balanced chemical equation for the reaction between calcium nitrate and chromium (III) sulfate. Then, use the stoichiometry of the reaction to convert moles of Chromium (III) sulfate to moles of calcium nitrate, and finally, convert moles of calcium nitrate to miles using the molar mass.
Lithium and nitrate don't react. Only ... ... are precipitating to solid. (SO42-)aq + (Ba2+)aq --> (BaSO4)s
francium ceasium Potassium Sodium Lithium These metals could react with calcium nitrate in a displacement reaction as they are more reactive. e.g. pottasium + calcium nitrate -> calcium + pottasium nitrate.
When aqueous calcium nitrate is added to aqueous lithium sulfate, a double displacement reaction occurs. The calcium and lithium ions switch places to form calcium sulfate and lithium nitrate. This reaction results in the formation of two new compounds: CaSO4 and LiNO3.
The two solutions likely contained ions that reacted together to form a solid compound. In this case, mixing solutions of potassium sulfate (containing potassium and sulfate ions) and calcium nitrate (containing calcium and nitrate ions) led to a reaction where calcium ions from calcium nitrate bonded with sulfate ions from potassium sulfate to form calcium sulfate solid.
No, because the calcium sulfate formed is insoluble in water.
Calcium nitrate and sulfuric acid will react to form calcium sulfate, nitric acid, and water. This is a double displacement reaction where the calcium and sulfate ions switch partners to create a new set of compounds.
Sodium chloride = hydrochloric acid, HCl Calcium sulfate = sulfuric acid, H2SO4 Ammonium nitrate = nitric acid, HNO3
The balanced equation for sodium sulfate plus lithium nitrate is: 2 Na2SO4 + 3 LiNO3 -> 1 Na2(SO4)3 + 3 Li2SO4
When lead(II) nitrate and sodium sulfate react, lead(II) sulfate and sodium nitrate are formed through a double displacement reaction. The balanced chemical equation for this reaction is: Pb(NO3)2 + Na2SO4 → PbSO4 + 2NaNO3. Lead(II) sulfate is a precipitate that appears as a white solid when this reaction occurs.
The salt formed by the reaction of calcium hydroxide and sulfuric acid is calcium sulfate. The formula of this salt is CaSO4. Calcium sulfate is a white in appearance when pure.