Boron in BF3 is sp2 hybridized, forming three equivalent sp2 hybrid orbitals.

The central atom in ozone (O3) is sp2 hybridized, forming a resonance structure.

Phosphorus in PCl5 is dsp3 hybridized, allowing it to form five bonds.

The central carbon atoms in C2H4 are sp2 hybridized, forming a double bond between them.

Carbon in CO2 is sp hybridized, forming two double bonds with oxygen.

The nitrogen atom in NH3 is sp3 hybridized, forming three bonds and one lone pair.

The nitrogen atom in NH3 is sp3 hybridized, forming three N-H bonds and one lone pair.

In PCl5, phosphorus exhibits dsp3 hybridization, forming five P-Cl bonds.

In C2H2, the carbon atoms are sp hybridized, forming a triple bond between them.

In PCl5, the phosphorus atom is sp3d hybridized, allowing it to form five P-Cl bonds.

In acetylene, each carbon atom is sp hybridized, forming a triple bond between them.

In CO2, the carbon atom forms two double bonds with oxygen atoms, indicating sp hybridization.

In CH4, the central carbon atom forms four equivalent bonds with hydrogen atoms, indicating sp3 hybridization.

The carbon atom in CO2 is sp hybridized, forming two double bonds with oxygen atoms.

Oxygen in H2O is sp3 hybridized, forming two bonds and two lone pairs.

The central nitrogen atom in N2O is sp hybridized, leading to a linear arrangement.

The central atom nitrogen in NH4+ undergoes sp3 hybridization to form four equivalent bonds with hydrogen.

The central oxygen atom in O3 is sp2 hybridized, leading to a bent molecular shape.

In ozone (O3), the central oxygen atom is sp2 hybridized, resulting in a bent molecular shape.

In PCl5, phosphorus is sp3d hybridized, allowing for five bonding pairs.

The sulfur atom in SO2 is sp2 hybridized, forming one double bond and one single bond.

The xenon atom in XeF4 is dsp3 hybridized, resulting in a square planar geometry.

In NH3, nitrogen has three bonds and one lone pair, leading to sp3 hybridization.

In PCl5, phosphorus is surrounded by five chlorine atoms, indicating d2sp3 hybridization.

sp3 hybridization corresponds to a tetrahedral molecular geometry, as seen in CH4.

In CO2, the carbon atom is sp hybridized as it forms two double bonds with oxygen.

PCl5 has phosphorus in the center, which is dsp3 hybridized, leading to a trigonal bipyramidal geometry.

In CO2, the carbon atom is sp hybridized, forming two double bonds with oxygen.

In SF4, the sulfur atom is sp3d hybridized, resulting in a seesaw molecular geometry.

C2H2 (ethyne) has a linear shape due to sp hybridization of carbon.