100 times higher h* concentration
The main difference between pH 4 and pH 6 is the concentration of hydrogen ions in the solution. A pH of 4 indicates a higher concentration of hydrogen ions compared to a pH of 6, which means the solution with pH 4 is more acidic than the solution with pH 6.
pH 8: [H+] = 10^-8 M pH 6: [H+] = 10^-6 M 10^-6 / 10^-8 = 10^2 = 100 Answer is 100 times fewer
The concentration of a solution at a pH of 4 is higher in hydrogen ions than a solution at a pH of 6. pH is a logarithmic scale of hydrogen ion concentration, so each unit change in pH represents a 10-fold difference in ion concentration.
The pH of dettol is 4-9 so it takes up most of the pH scale.
A substance with a pH of 2 is 1000 times more acidic than a substance with a pH of 6. This is because each unit change on the pH scale represents a 10-fold change in acidity. So, the difference in pH of 4 units means a 10^4 or 10000-fold difference in acidity.
The main difference between pH 4 and pH 6 is the concentration of hydrogen ions in the solution. A pH of 4 indicates a higher concentration of hydrogen ions compared to a pH of 6, which means the solution with pH 4 is more acidic than the solution with pH 6.
4 to 6 is the pH of pine trees
is PH 4-6
A pH meter must be standardized because it measures relative potentials and thus relative pH. It is necessary to know to what the measurement is relative. A standard must be measured and the meter set to the known value for this standard. The pH values of other solutions are then measured relative to this standard.
pH 8: [H+] = 10^-8 M pH 6: [H+] = 10^-6 M 10^-6 / 10^-8 = 10^2 = 100 Answer is 100 times fewer
The concentration of a solution at a pH of 4 is higher in hydrogen ions than a solution at a pH of 6. pH is a logarithmic scale of hydrogen ion concentration, so each unit change in pH represents a 10-fold difference in ion concentration.
3/4-6
The pH of dettol is 4-9 so it takes up most of the pH scale.
The pH after mixing two buffers can be calculated using the Henderson-Hasselbalch equation, pH = pKa + log([A-]/[HA]), where [A-] is the concentration of conjugate base and [HA] is the concentration of the weak acid. Given pH of 4 and 6, the pKa can be determined and used in the equation to find the final pH value after mixing.
It is the measure of relative acidity and alkalinity
False. The concentration of H+ ions is not determined by the pH values alone. It depends on the actual H+ ion concentration in the solution. pH is a measure of the concentration of H+ ions in a solution, but the relationship between pH and H+ ion concentration is not strictly linear.
A substance with a pH of 2 is 1000 times more acidic than a substance with a pH of 6. This is because each unit change on the pH scale represents a 10-fold change in acidity. So, the difference in pH of 4 units means a 10^4 or 10000-fold difference in acidity.