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Solubility of Zirconium phosphate Zr3(PO...

Solubility of Zirconium phosphate `Zr_3(PO_4)_4` is 's' moles per litre. Solubility product of `K_(sp)` may be given as

A

`6912s^7`

B

`108s^7`

C

`27s^4`

D

`6812s^7`

Text Solution

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The correct Answer is:
To find the solubility product \( K_{sp} \) of zirconium phosphate \( Zr_3(PO_4)_4 \), we can follow these steps: ### Step 1: Write the dissociation equation Zirconium phosphate dissociates in water according to the following equation: \[ Zr_3(PO_4)_4 (s) \rightleftharpoons 3 Zr^{4+} (aq) + 4 PO_4^{3-} (aq) \] ### Step 2: Define the solubility Let the solubility of \( Zr_3(PO_4)_4 \) be \( s \) moles per liter. This means that in a saturated solution, the concentration of \( Zr_3(PO_4)_4 \) is \( s \). ### Step 3: Determine the concentrations of ions From the dissociation equation: - For every 1 mole of \( Zr_3(PO_4)_4 \) that dissolves, 3 moles of \( Zr^{4+} \) ions are produced. - For every 1 mole of \( Zr_3(PO_4)_4 \) that dissolves, 4 moles of \( PO_4^{3-} \) ions are produced. Thus, the concentrations of the ions in terms of \( s \) are: - Concentration of \( Zr^{4+} \) ions = \( 3s \) - Concentration of \( PO_4^{3-} \) ions = \( 4s \) ### Step 4: Write the expression for the solubility product \( K_{sp} \) The solubility product \( K_{sp} \) is given by the product of the concentrations of the ions, each raised to the power of their coefficients in the balanced equation: \[ K_{sp} = [Zr^{4+}]^3 \times [PO_4^{3-}]^4 \] Substituting the concentrations we found: \[ K_{sp} = (3s)^3 \times (4s)^4 \] ### Step 5: Simplify the expression Calculating the powers: \[ K_{sp} = (27s^3) \times (256s^4) \] \[ K_{sp} = 6912 s^{7} \] ### Conclusion Thus, the solubility product \( K_{sp} \) of zirconium phosphate \( Zr_3(PO_4)_4 \) is: \[ K_{sp} = 6912 s^{7} \]
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