No, because a drop of strong base can change the pH a lot and mess up titration, it has to be a moderate-weak base!
The pH at the equivalence point of a strong acid-strong base titration would be 7, as the solution is neutralized. In contrast, the pH at the equivalence point for a standard solution titration would depend on the nature of the reaction and the strengths of the acids and bases involved.
In conductometric titration of a strong acid with a strong base, as the base is added to the acid solution, the conductivity of the solution increases due to the formation of ions. The inflection point of the titration curve corresponds to the stoichiometric equivalence point, where all the acid has been neutralized by the base. The conductivity then remains constant beyond this point, indicating excess of the base.
The types of conductometric titrations include strong acid-strong base titrations, weak acid-strong base titrations, weak base-strong acid titrations, and precipitation titrations. Conductometric titrations measure the change in electrical conductivity of a solution as a titrant is added, allowing for the determination of the endpoint of the reaction.
a weak acid and strong base. At the equivalence point of a titration between a weak acid and a strong base, the resulting solution will have a pH greater than 7, indicating a basic solution. For the solution to be noticeably acidic at the equivalence point, it would suggest an excess of the weak acid after the reaction, which means that the acid is likely weak and not completely neutralized by the strong base.
The solution at the endpoint of an acid-base titration involving a weak acid and a strong base will be alkaline. This is because the weak acid will have been neutralized by the strong base, resulting in excess hydroxide ions in the solution causing it to be alkaline.
The pH at the equivalence point of a strong acid-strong base titration would be 7, as the solution is neutralized. In contrast, the pH at the equivalence point for a standard solution titration would depend on the nature of the reaction and the strengths of the acids and bases involved.
In conductometric titration of a strong acid with a strong base, as the base is added to the acid solution, the conductivity of the solution increases due to the formation of ions. The inflection point of the titration curve corresponds to the stoichiometric equivalence point, where all the acid has been neutralized by the base. The conductivity then remains constant beyond this point, indicating excess of the base.
The types of conductometric titrations include strong acid-strong base titrations, weak acid-strong base titrations, weak base-strong acid titrations, and precipitation titrations. Conductometric titrations measure the change in electrical conductivity of a solution as a titrant is added, allowing for the determination of the endpoint of the reaction.
a weak acid and strong base. At the equivalence point of a titration between a weak acid and a strong base, the resulting solution will have a pH greater than 7, indicating a basic solution. For the solution to be noticeably acidic at the equivalence point, it would suggest an excess of the weak acid after the reaction, which means that the acid is likely weak and not completely neutralized by the strong base.
The solution at the endpoint of an acid-base titration involving a weak acid and a strong base will be alkaline. This is because the weak acid will have been neutralized by the strong base, resulting in excess hydroxide ions in the solution causing it to be alkaline.
When a weak base is titrated with a strong acid, the pH of the solution decreases. This is because the strong acid neutralizes the weak base, leading to an increase in the concentration of H ions in the solution, which lowers the pH.
During the titration of a strong acid with a strong base, the pH of the solution gradually increases as the base is added. This demonstrates neutralization, where the acidic and basic properties cancel each other out to form a neutral solution. The point at which the pH is exactly 7 indicates that the acid and base have completely reacted, achieving a neutral state.
In a conductometric titration of a strong acid with a strong base, the equivalence point is reached when all the acid has been neutralized by the base, leading to a sharp increase in conductivity. This abrupt change in conductivity is due to the formation of water, which is a good conductor of electricity. The initial conductivity is low due to the absence of ions in the strong acid solution, and it increases as ions are formed during the titration.
Unless the compound you are titrating is air sensitive, which is uncommon, the main effect of air on a titration is on the strong base solution. If you are titrating a weak acid with a strong base, then the strong base solution must be very carefully standardized so that you know the exact number of moles of base. However, carbon dioxide (CO2) in the air can combine with water to form carbonic acid (H2CO3). When CO2 mixes with the water of the strong base solution forming H2CO3, it will tend to slightly neutralize it, reducing the actual concentration base in the solution.
The most appropriate indicator for a strong acid/strong base titration is phenolphthalein.
The stoichiometric point for a weak acid-strong base titration is generally greater than pH 7 because the titration involves adding a strong base (like NaOH) to a weak acid solution. At the stoichiometric point, all of the weak acid has been neutralized by the strong base, resulting in the formation of the conjugate base and water, which makes the solution slightly basic.
The buffer region in a titration curve for the titration of a weak acid with a strong base is typically located at the vicinity of the equivalence point. This region occurs when the weak acid has been partially neutralized by the strong base, resulting in the presence of a buffer solution that resists large changes in pH.