Match the List-I with List-II by using the postulates of VBT of complexes
$\begin{matrix} L i s t - I & L i s t - I I (p) [N i (C N)_{4}]^{2 -} & (1) s p^{3} h y b r i d i z a t i o n (Q) [N i (C O)_{4}] & (2) d s p^{2} h y b r i d i z a t i o n (R) [C u (N H_{3})_{4}]^{2 +} & (3) μ = 0 B M (S) [P d (C l)_{4}]^{2 -} & (4) μ = 1.732 B M \end{matrix}$

P-(3,1) Q-(1,4) R-(2,3) S-(1,4)

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P-(2,3)Q-(1,3) R-(1,4)S-(2,3)

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P-(2,4) Q-(1,4)R-(2,4)S-(2)

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(P-(2,3) Q-(1,3)R-(2,4)S-(2,3)

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Solution

The correct option is D (P-(2,3) Q-(1,3)R-(2,4)S-(2,3)
$[N i (C N)_{4}]^{2 -}$ is with $d s p^{2}$ hybridization and $μ$ = 0 BM
$[N i (C O)_{4}]$ is with $s p^{3}$ hybridization and $μ$ = 0 BM
$[C u (N H_{3})_{4}]^{2 +}$ is with $d s p^{2}$ hybridization with $μ$ = 1.732 BM
$[P d (C l)_{4}]^{2 -}$ is with $d s p^{2}$ hybridization with $μ$ = 0 BM

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Similar questions

Match the List-I with List-II by using the postulates of VBT of complexes

$L i s t I L i s t I I \begin{matrix} (P) [N i (C N)_{4}]^{2 -} & (1) s p^{3} hybridization (Q) [N i (C O)_{4}] & (2) d s p^{2} hybridization (R) [C u (N H_{3})_{4}]^{2 +} & (3) μ = 0 B M (S) [P d (C l)_{4}]^{2 -} & (4) μ = 1.732 B M \end{matrix}$

Match the List-I with List-II by using the postulates of VBT of complexes

List-I List-II

(P) $[N i (C N)_{4}]^{2 -}$ (1) $s p^{3}$ hybridization

(Q) $[N i (C O)_{4}]$ (2) $d s p^{2}$ hybridization

(R) $[C u (N H_{3})_{4}]^{2 +}$ (3) $μ$ = 0 BM

(S) $[P d (C l)_{4}]^{2 -}$ (4) $μ$ =1.732 BM

Q. Match the List-I with List-II by using the postulates of VBT of complexes

\begin{matrix} L i s t - I & L i s t - I I (p) [N i (C N)_{4}]^{2 -} & (1) s p^{3} h y b r i d i z a t i o n (Q) [N i (C O)_{4}] & (2) d s p^{2} h y b r i d i z a t i o n (R) [C u (N H_{3})_{4}]^{2 +} & (3) μ = 0 B M (S) [P d (C l)_{4}]^{2 -} & (4) μ = 1.732 B M \end{matrix}

Match the four starting meterials (P, Q, R, S) given in List – I with the corresponding reaction schemes
(I, II, III, IV) provided in List – II and select the correct answer using the code given below the lists.
$\begin{matrix} P . Z n & 1. S e l f - r e d u c t i o n Q . C u & 2. P y r o m e t a l l u r g y R . P b & 3. B e s s e m e r i s a t i o n S . F e (s t e e l) & 4. R o a s t i n g \end{matrix}$

Q. Match each set of hybrid orbitals from LIST -I was complex(es given in LIST - II.

\begin{matrix} LIST-I & LIST-II P . d s p^{2} & 1. [F e F_{6}]^{4 -} Q . s p^{3} & 2. [T i (H_{2} O)_{3} C l_{3}] R . s p^{3} d^{2} & 3. [C r (N H_{3})_{6}]^{3 +} S . d^{2} s p^{3} & 4. [F e C l_{4}]^{2 -} 5. N i (C O)_{4} 6. [N i (C N)_{4}]^{2 -} \end{matrix}

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Match the List-I with List-II by using the postulates of VBT of complexes List−IList−II(p) [Ni(CN)4]2−(1) sp3 hybridization(Q) [Ni(CO)4](2) dsp2 hybridization(R) [Cu(NH3)4]2+(3) μ=0 BM(S) [Pd(Cl)4]2−(4) μ=1.732 BM

The correct option is D (P-(2,3) Q-(1,3)R-(2,4)S-(2,3)[Ni(CN)4]2− is with dsp2 hybridization and μ = 0 BM [Ni(CO)4] is with sp3 hybridization and μ = 0 BM [Cu(NH3)4]2+ is with dsp2 hybridization with μ = 1.732 BM [Pd(Cl)4]2− is with dsp2 hybridization with μ = 0 BM