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The hybridised orbitals used by silver i...

The hybridised orbitals used by silver in the complex `[Ag(NH_(3))_(2)]^(+)` are of the type:

A

`sp^(2)`

B

`sp`

C

`sp^(3)`

D

`dsp^(2)`

Text Solution

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The correct Answer is:
To determine the hybridization of silver in the complex \([Ag(NH_3)_2]^+\), we can follow these steps: ### Step 1: Determine the oxidation state of silver in the complex. - The complex \([Ag(NH_3)_2]^+\) has a +1 charge. Since ammonia (NH₃) is a neutral ligand, the oxidation state of silver (Ag) in this complex is +1. ### Step 2: Write the electron configuration of silver. - The electron configuration of neutral silver (Ag) is \([Kr] 5s^1 4d^{10}\). - When silver is in the +1 oxidation state, it loses one electron from the 5s orbital, resulting in the configuration \([Kr] 4d^{10}\). ### Step 3: Identify the available orbitals for hybridization. - In the +1 oxidation state, silver has the electron configuration \([Kr] 4d^{10}\). The 5s and 5p orbitals are vacant and can be used for hybridization. ### Step 4: Determine the number of ligands and their contribution. - The complex has two ammonia (NH₃) ligands. Each NH₃ donates a lone pair of electrons to silver. Therefore, silver will coordinate with two lone pairs from the two NH₃ molecules. ### Step 5: Determine the type of hybridization. - The coordination number of silver in this complex is 2 (due to the two NH₃ ligands). - To accommodate these two lone pairs, silver will undergo hybridization involving one s orbital and one p orbital, resulting in **sp hybridization**. ### Step 6: Conclude the hybridization type. - Therefore, the hybridized orbitals used by silver in the complex \([Ag(NH_3)_2]^+\) are of the type **sp**. ### Final Answer: The hybridised orbitals used by silver in the complex \([Ag(NH_3)_2]^+\) are of the type **sp**. ---
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Knowledge Check

  • The oxidation of central atom in the complex [ Co(NH_(3))_(4) CINO_(2)] is

    A
    ` +2`
    B
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    C
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    D
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    A
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    B
    `sp^(3)`, square planar
    C
    `sp^(3), d^(2)` octahedral
    D
    `dsp^(2)` square plannar.
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