To obtain the solid salt resulting from an acid-base reaction in an aqueous solution, you can typically do so by evaporating the water from the solution. This will leave behind the solid salt that formed during the reaction between the acid and base. Once the water has evaporated, you can collect the solid salt for further use or analysis.
Simply adding sulfuric acid to the ammonia solution will yield ammonium sulfate. The two will react naturally. Be sure to have your amounts and concentrations measured carefully so the reaction is as complete as possible. Pour the acid slowly as the reaction will be highly exothermic and may cause the solution to boil if not done carefully. The reaction equation is: H2SO4 + 2NH3 --> (NH4)2SO4
You would need to add 18.75g of solid NaOH to the 750g of aqueous solution to obtain a 2.5% NaOH solution by mass.
The immediate response is a milky appearance. After 5-10 minutes a precipitate of BaSO4 will settle out of solution. You will obtain a cloudy, white precipitate that will remain so infantily. This is a precipitation reaction (the formation of an insoluble salt from a solution of soluble ones) which occurs because barium sulfate is insoluble, so when mixed, the barium ions react with the sulfate ions to form a white precipitate of barium sulfate The net ionic equation is: Ba2+(aq) + SO42-(aq) ----> BaSO4(s)
To prepare sodium acetate from glacial acetic acid, you can first neutralize the glacial acetic acid with sodium hydroxide. The reaction will yield sodium acetate and water. Afterward, you can evaporate the water to obtain solid sodium acetate crystals.
To obtain solid lead iodide from 20cm3 of aqueous lead nitrate, you would need a source of iodide ions (e.g., potassium iodide), a filtration apparatus to separate the solid lead iodide from the solution, a beaker or container to collect the solid, and a drying oven or desiccator to dry the collected solid. Optional equipment includes a stirring rod and a hot plate to facilitate the reaction.
A simple method is to filter the aqueous solution; after this the solution is heated to obtain crystallized KNO3.
Simply adding sulfuric acid to the ammonia solution will yield ammonium sulfate. The two will react naturally. Be sure to have your amounts and concentrations measured carefully so the reaction is as complete as possible. Pour the acid slowly as the reaction will be highly exothermic and may cause the solution to boil if not done carefully. The reaction equation is: H2SO4 + 2NH3 --> (NH4)2SO4
You would need to add 18.75g of solid NaOH to the 750g of aqueous solution to obtain a 2.5% NaOH solution by mass.
The immediate response is a milky appearance. After 5-10 minutes a precipitate of BaSO4 will settle out of solution. You will obtain a cloudy, white precipitate that will remain so infantily. This is a precipitation reaction (the formation of an insoluble salt from a solution of soluble ones) which occurs because barium sulfate is insoluble, so when mixed, the barium ions react with the sulfate ions to form a white precipitate of barium sulfate The net ionic equation is: Ba2+(aq) + SO42-(aq) ----> BaSO4(s)
The answer is 364 mL.
To prepare sodium acetate from glacial acetic acid, you can first neutralize the glacial acetic acid with sodium hydroxide. The reaction will yield sodium acetate and water. Afterward, you can evaporate the water to obtain solid sodium acetate crystals.
Copper(II) chromate can be prepared by reacting a solution of sodium chromate with a solution of copper(II) sulfate. The resulting precipitate is then filtered and dried to obtain solid copper(II) chromate.
No, This is a process to obtain a solid from an aqueous solution. No chemical process is taking place during filtration.
To obtain solid lead iodide from 20cm3 of aqueous lead nitrate, you would need a source of iodide ions (e.g., potassium iodide), a filtration apparatus to separate the solid lead iodide from the solution, a beaker or container to collect the solid, and a drying oven or desiccator to dry the collected solid. Optional equipment includes a stirring rod and a hot plate to facilitate the reaction.
You obtain a solute solution in the desired and possible solvent.
A random error that can occur during an electrical conductivity experiment in an aqueous solution is fluctuations in temperature, which can affect the conductivity readings. Variations in the concentration of the solution due to evaporation or inaccuracies in measurement can also contribute to random errors. Additionally, inconsistent placement of the conductivity probe in the solution may lead to varying results. Such errors can introduce variability that makes it difficult to obtain precise and reproducible measurements.
The reduction potential of sodium is under the same potential of water.