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The hybridization of atomic orbitals of ...

The hybridization of atomic orbitals of nitrogen in `NO_(2)^(+),NO_(3)^(-)"and" NH_(4)^(+)` respectively are

A

`sp,sp^(3)and sp^(3)`

B

`sp^(2),sp^(3)and sp`

C

`sp,sp^(2)and sp^(3)`

D

`sp^(2),sp and sp^(3)`

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To determine the hybridization of atomic orbitals of nitrogen in the compounds \( NO_2^+, NO_3^-, \) and \( NH_4^+ \), we will analyze each compound step by step. ### Step 1: Hybridization in \( NO_2^+ \) 1. **Count Valence Electrons**: - Nitrogen has 5 valence electrons. - Each oxygen has 6 valence electrons, and there are 2 oxygen atoms: \( 6 \times 2 = 12 \). - Since there is a positive charge, we subtract 1 electron: \( 5 + 12 - 1 = 16 \) total valence electrons. 2. **Draw the Lewis Structure**: - Place nitrogen in the center and connect it to two oxygen atoms. - Distribute the electrons to satisfy the octet rule. - The structure will show nitrogen with 2 single bonds to oxygen and a positive charge. 3. **Determine the Geometry**: - With 2 bond pairs and no lone pairs, the geometry is linear. 4. **Identify Hybridization**: - For 2 bond pairs, the hybridization is \( sp \). ### Step 2: Hybridization in \( NO_3^- \) 1. **Count Valence Electrons**: - Nitrogen has 5 valence electrons. - Each oxygen has 6 valence electrons, and there are 3 oxygen atoms: \( 6 \times 3 = 18 \). - Since there is a negative charge, we add 1 electron: \( 5 + 18 + 1 = 24 \) total valence electrons. 2. **Draw the Lewis Structure**: - Place nitrogen in the center and connect it to three oxygen atoms. - One of the bonds will be a double bond (to satisfy the octet rule), while the other two will be single bonds. - Distribute the remaining electrons to the oxygen atoms. 3. **Determine the Geometry**: - With 3 bond pairs and no lone pairs on nitrogen, the geometry is trigonal planar. 4. **Identify Hybridization**: - For 3 bond pairs, the hybridization is \( sp^2 \). ### Step 3: Hybridization in \( NH_4^+ \) 1. **Count Valence Electrons**: - Nitrogen has 5 valence electrons. - Each hydrogen has 1 valence electron, and there are 4 hydrogen atoms: \( 1 \times 4 = 4 \). - Since there is a positive charge, we subtract 1 electron: \( 5 + 4 - 1 = 8 \) total valence electrons. 2. **Draw the Lewis Structure**: - Place nitrogen in the center and connect it to four hydrogen atoms. - Each hydrogen atom forms a single bond with nitrogen. 3. **Determine the Geometry**: - With 4 bond pairs and no lone pairs, the geometry is tetrahedral. 4. **Identify Hybridization**: - For 4 bond pairs, the hybridization is \( sp^3 \). ### Final Answer: - The hybridization of nitrogen in \( NO_2^+ \) is \( sp \). - The hybridization of nitrogen in \( NO_3^- \) is \( sp^2 \). - The hybridization of nitrogen in \( NH_4^+ \) is \( sp^3 \).

To determine the hybridization of atomic orbitals of nitrogen in the compounds \( NO_2^+, NO_3^-, \) and \( NH_4^+ \), we will analyze each compound step by step. ### Step 1: Hybridization in \( NO_2^+ \) 1. **Count Valence Electrons**: - Nitrogen has 5 valence electrons. - Each oxygen has 6 valence electrons, and there are 2 oxygen atoms: \( 6 \times 2 = 12 \). - Since there is a positive charge, we subtract 1 electron: \( 5 + 12 - 1 = 16 \) total valence electrons. ...
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