Too much copper may go into solution under conditions of low pH, which increases the solubility of copper salts. High temperatures can also enhance solubility, as can the presence of complexing agents like organic matter or certain ligands that bind to copper ions. Additionally, oxygen-rich environments can promote oxidation, converting insoluble copper forms into soluble ions. Lastly, high concentrations of other ions can lead to competitive solubility effects.
You can obtain 63.5 grams of copper from 100 grams of copper sulfate through a chemical reaction known as displacement. This reaction involves adding a more reactive metal, such as iron, to the copper sulfate solution, which causes the copper to be displaced and settle out as solid copper.
In 2012, the price of copper fluctuated between $3.60 to $4.00 per pound on average. Please note that prices can vary based on market conditions and specific factors affecting the copper industry during that time.
The cost of 1 gram of isotopic copper can vary based on the isotopic composition and market conditions. Generally, isotopic copper can be much more expensive than regular copper due to the specialized production processes involved in isolating specific isotopes. Prices can range from hundreds to thousands of dollars per gram.
If there is only so much of something, it can be used up. You might have a very large quantity of something, but then, the human race collectively has a very large appetite. Every copper mine has only so much copper, and every oil well has only so much oil, etc.
When a solution has accepted as much solute as is possible at a given temperature, the solution is said to be saturated. Under certain conditions, saturated solutions can be concentrated to give supersaturated solutions. Supersaturated solutions are those which possess more of a solute than normally dissolves in a solvent at a given temperature.
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.
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.
That's a good question. What didhappen to it?I wouldn't expect much of anything to happen, since copper is a more active metal than silver. In fact, a copper plate dipped into a silver nitrate solution should grow silver crystals as the copper ionizes and replaces silver in solution.
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.
Qualitative means what is it while quantative means how much is there. Some examples of qualitative data might be whether a solution is of copper or iron or if a compound is formed with nitrate or carbonate. Quantative data could be the concentration of a solution or the mass present in a sample.
Copper sulphate, otherwise known as bluestone, can be added to water to prevent algal growth but if too much is added will cause copper toxicity. It is also used in some countries at a 10% solution to treat for footrot and it used to be used at a 1% solution for deworming goats prior to the invention of safer more effective drenches.
You can obtain 63.5 grams of copper from 100 grams of copper sulfate through a chemical reaction known as displacement. This reaction involves adding a more reactive metal, such as iron, to the copper sulfate solution, which causes the copper to be displaced and settle out as solid copper.
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.
In certain reaction conditions, yes. Copper is more reactive than silver, so it should react with the nitrate molecule to form copper nitrate while precipitating the silver. *Are you thinking about separating silver from photographic fixer? Commonly a less expensive metal is used like iron (steel wool) to extract much of the silver.
The price of a ton of copper varies depending on market conditions, but it typically ranges from $5,000 to $10,000. The price is influenced by factors such as supply and demand, global economic conditions, and geopolitical events.
saturated
885x140=123900grams of copper sulphate per hour. If you are talking about using 885 gm of copper sulphate per ton of ore in the solution then the density of the copper sulphate(penta hydrate now because it's in water) is 2.284 gm per cm3 so that's 2.284x5=11.42gm per liter of solution, so 123900/11.42=10849.387 liters of copper sulphate(pentahydrate) per hour, NOTE:this is only how much copper sulphate is being used total in the solution which is 30% of the total liters used of solution because 25% of the water is inside the copper sulphate, the other 70% is just water. If you want the liters per hour of solution total, it is 34964.62 litres per hour of your 5% solution. I hope this was what you were looking for, I saw noone had answered and decided to try and get you what you needed.