Home
Class 12
CHEMISTRY
Calculate the H^(+) ion concentration o...

Calculate the `H^(+)` ion concentration of `0.01` weak monobase acid . The value of dissociation contant is `4.0 xx 10^(-10)`

Text Solution

AI Generated Solution

To calculate the \( H^+ \) ion concentration of a 0.01 M weak monobasic acid with a dissociation constant \( K_a = 4.0 \times 10^{-10} \), we can follow these steps: ### Step 1: Write the dissociation equation For a weak monobasic acid (HA), the dissociation can be represented as: \[ HA \rightleftharpoons H^+ + A^- \] ...
Promotional Banner

Similar Questions

Explore conceptually related problems

Calculate t the H^(+) ion concentration in 0.10 M acetic acid solution. Given that the dissociation constant of acetic acid in water is 1.8xx10^(-5)

Calculate the H^+ ion concentration in 0.10 M acetic acid solution- Given that the dissociation constant of acetic acid in water is 1.8 xx 10^(-6) .

Determine the hydrogen ion concentration in 1.0 M solution of HCN , if its dissociation constant is 4.0 xx 10^(-10) .

The hydrogen ion concentration of 0.1 M solution of acetic acid, which is 20% dissociated, is

Find out the percentage dissociation of an acid having conc. of 10 M and dissociation constant 1.0xx10^(-3) .

Calculate the pH of 0.01 M Solution of CH_3 COOH . The dissociation constant of the acid is 1.8 xx 10 ^(-5)

The ionisation constant (K_(a)) of 0.1 M weak monobasic acid (HA) will be whose degree of ionisation is 50% ?

Calculate the pH at which the concentration of a monobasic acid HA equals the concentration of its conjugate base at equilibrium. (K_(a)=2times10^(-5) , log2=0.3)

The hydrogen ion concentration in weak acid of dissociation constant K_(a) and concentration c is nearly equal to

The first ionization constant of H_(2)S is 9.1xx10^(-8) . Calculate the concentration of HS^(Θ) ion in its 0.1 M solution. How will this concentration be affected if the solution is 0.1 M in HCl also? If the second dissociation constant if H_(2)S is 1.2xx10^(-13) , calculate the concentration of S^(2-) under both conditions.