p2+5o2 to give p2o10
If there is an excess of air, the reaction should produce diphosphorus pentoxide as its only product. If additionally the phosphorus molecule is simply a phosphorus atom, the balanced equation is: 4 P + 5 O2 -> 2P2O5. If phosphorus is considered to form a tetraatomic molecule, the equation would be: P4 + 5 O2 -> 2 P2O5
If you mean elemental Phosphorous (As in, just a chunk of P), I believe that the reaction would go to Phosphorous pentachloride like this: P + 5 Cl--> PCl5 THe Lewis Dot structure works out that way, anyways.
There is no reaction when their molar ratio is around 1...but when phenol is present in excess it gives triphenylphosphate....
The phosphorus sink acts as a storage system for phosphorus in the environment, helping to regulate the amount of phosphorus available for living organisms. It helps to maintain a balance in the global phosphorus cycle by storing excess phosphorus and releasing it back into the environment when needed.
When 4 moles of aluminum react with an excess of chlorine gas, 4 moles of aluminum chloride are produced. This is because the balanced chemical equation for the reaction is: 2Al + 3Cl2 -> 2AlCl3 This means that 2 moles of aluminum react with 3 moles of chlorine gas to produce 2 moles of aluminum chloride, so 4 moles of aluminum will produce 4 moles of aluminum chloride.
If there is an excess of air, the reaction should produce diphosphorus pentoxide as its only product. If additionally the phosphorus molecule is simply a phosphorus atom, the balanced equation is: 4 P + 5 O2 -> 2P2O5. If phosphorus is considered to form a tetraatomic molecule, the equation would be: P4 + 5 O2 -> 2 P2O5
If you mean elemental Phosphorous (As in, just a chunk of P), I believe that the reaction would go to Phosphorous pentachloride like this: P + 5 Cl--> PCl5 THe Lewis Dot structure works out that way, anyways.
Diphosphorus pentoxide, P2O5, is commonly prepared by burning phosphorus in excess oxygen. The reaction produces white fumes of phosphorus pentoxide which can be condensed to form the solid compound.
There is no reaction when their molar ratio is around 1...but when phenol is present in excess it gives triphenylphosphate....
Human beings contribute to the phosphorus cycle by extracting phosphorus from the earth for use in fertilizers and then releasing excess phosphorus into water bodies through agricultural runoff. In the sulfur cycle, human activities such as burning fossil fuels and mining operations release sulfur dioxide into the atmosphere, which can then contribute to acid rain and alter ecosystem dynamics.
Excess phosphorus can lead to eutrophication in bodies of water, causing excessive algae growth which depletes oxygen levels. This can result in harm to aquatic life and disrupt the balance of the ecosystem.
The phosphorus sink acts as a storage system for phosphorus in the environment, helping to regulate the amount of phosphorus available for living organisms. It helps to maintain a balance in the global phosphorus cycle by storing excess phosphorus and releasing it back into the environment when needed.
To find the mass of chlorine gas needed, we need to use the balanced chemical equation for the reaction. Since the equation is not provided, I can't calculate the mass without it. Please provide the balanced chemical equation for the reaction between chlorine gas and fluorine gas to form chlorine monofluoride, and I can assist you further.
When excess potassium iodide is reacted with chlorine, the solution changes from colorless to dark brown due to the formation of Iodine (I2). Excess potassium iodide reacts with chlorine to form iodine, which imparts the dark brown color to the solution.
eutrophication
yes
The balanced chemical equation for the reaction between calcium and chlorine gas to produce calcium chloride is: Ca + Cl2 -> CaCl2. From this equation, we can see that one mole of calcium reacts with one mole of chlorine gas to produce one mole of calcium chloride. The molar mass of calcium is 40.08 g/mol and the molar mass of chlorine gas is 70.90 g/mol. This means that 10.0 grams of calcium is equivalent to 0.249 moles of calcium and 20.0 grams of chlorine gas is equivalent to 0.282 moles of chlorine gas. Since the ratio of calcium to chlorine gas in the balanced chemical equation is 1:1, this means that 0.249 moles of calcium would react completely with 0.249 moles of chlorine gas, leaving an excess of 0.033 moles (or 2.34 grams) of chlorine gas. The limiting reactant in this reaction is calcium, and the maximum amount of calcium chloride that can be produced is equivalent to the number of moles of the limiting reactant, which is 0.249 moles (or 27.8 grams) of calcium chloride.