FAS (ferrous ammonium sulfate) is commonly used in redox titrations because it is more stable than ferrous sulphate and less prone to oxidation. FAS also allows for more accurate and reliable results due to its consistent purity and composition compared to ferrous sulphate.
Sulphate ions can be determined using methods such as gravimetric analysis, titration with barium chloride, or ion chromatography. In gravimetric analysis, sulphate ions are precipitated as barium sulphate and weighed. Titration with barium chloride involves adding a known volume of barium chloride solution to the sample containing sulphate ions, and the excess barium chloride is back-titrated with a standard solution of a titrant such as potassium chromate. In ion chromatography, separation and quantification of sulphate ions are done using a chromatographic column with specific properties.
No, iodometric titration is typically done using a standard titration setup with a burette and indicator to detect the endpoint. A potentiometer measures the voltage produced in a system, making it unsuitable for this type of titration.
The color pink indicates that a titration using phenolphthalein has reached the end point.
In a titration experiment, the equivalence point can be found using methods such as using a pH meter to detect a sudden change in pH, using an indicator that changes color at the equivalence point, or using a titration curve to identify the point of neutralization.
Condutometric titration of copper sulfate with sodium hydroxide is a method used to determine the concentration of copper ions in a solution. By adding sodium hydroxide to a solution of copper sulfate, a white precipitate of copper hydroxide is formed. The end point of the titration is reached when all the copper ions have reacted with the sodium hydroxide, leading to a sudden increase in the solution's conductivity, which can be detected using a conductivity meter.
For analysis through titration method: Zinc sulfate can be titrated using EDTA as the titrant. Ferrous sulfate can be titrated using potassium permanganate as the titrant. Copper sulfate can be titrated using sodium thiosulfate as the titrant.
Sulphate ions can be determined using methods such as gravimetric analysis, titration with barium chloride, or ion chromatography. In gravimetric analysis, sulphate ions are precipitated as barium sulphate and weighed. Titration with barium chloride involves adding a known volume of barium chloride solution to the sample containing sulphate ions, and the excess barium chloride is back-titrated with a standard solution of a titrant such as potassium chromate. In ion chromatography, separation and quantification of sulphate ions are done using a chromatographic column with specific properties.
No, iodometric titration is typically done using a standard titration setup with a burette and indicator to detect the endpoint. A potentiometer measures the voltage produced in a system, making it unsuitable for this type of titration.
The color pink indicates that a titration using phenolphthalein has reached the end point.
In a titration experiment, the equivalence point can be found using methods such as using a pH meter to detect a sudden change in pH, using an indicator that changes color at the equivalence point, or using a titration curve to identify the point of neutralization.
Potassium permangante, being a very strong oxidizing agent, oxidizes both the Fe2+ ion and the oxalate ion. Redox reactions are shown below: Oxalate oxidation: 2MnO4- + 16H+ + 5C2O42- ---> 2Mn2+ + 8H2O + 10CO2 Iron(II) oxidation: MnO4- + 8H+ + 5Fe2+ ---> Mn2+ + 4H2O + 5Fe3+ Moreover, if one needs to determine the exact percentage of oxalate and ferrous ions in solution, a titration is carried out using the permanganate, which will react with both the oxalate and ferrous ions. But, the carbon dioxide is liberated from the soution now, and zinc is added whch reduces the Iron(III) back to Iron(II). Another titration is then carried out using the permanganate, which gives a reading for the Iron(II) in solution only.
One way to tell if a metal is ferrous or non-ferrous is by using a magnet. Ferrous metals are magnetic, meaning they are attracted to magnets, while non-ferrous metals are not. Additionally, you can also consult a materials data sheet or perform a chemical test to determine the composition of the metal.
Condutometric titration of copper sulfate with sodium hydroxide is a method used to determine the concentration of copper ions in a solution. By adding sodium hydroxide to a solution of copper sulfate, a white precipitate of copper hydroxide is formed. The end point of the titration is reached when all the copper ions have reacted with the sodium hydroxide, leading to a sudden increase in the solution's conductivity, which can be detected using a conductivity meter.
Yes, it is possible to have viva questions on titration. Some potential questions could focus on the principles of titration, the choice of indicators, calculations involved in titration, different types of titrations, sources of errors in titration, and applications of titration in various industries.
You can do this using a magnet. Iron is ferrous, therefore attracted to magnets, whereas aluminium is non-ferrous and is not attracted to magnets.
One common method is using a magnetic separator to attract and separate ferrous metal containers from non-ferrous ones. Another method is using an eddy current separator to separate non-ferrous metals from a mixed stream of materials based on their conductivity. Both methods are efficient and commonly used in recycling plants.
Using H2SO4 in iodometric titration can lead to the formation of H2O2, which interferes with the reaction. It can also oxidize iodide ions prematurely, affecting the accuracy of the titration. Therefore, a different acid like HCl is typically used in iodometric titration.