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The 13 pages that link to Hybrid orbital, each with the reason it gives.

• Molecular geometryRelated: Hybrid orbitals offer a bonding picture that connects orbital direction with molecular shape.

• Atomic orbitalBroader topic: Hybrid orbitals are transformed combinations of atomic orbitals, not additional fundamental states.

• Molecular orbitalCompared with: Hybrid orbitals describe localized bonding arrangements, unlike molecule-wide orbital eigenfunctions.

• Pi bondRelated: Hybridization often leaves p orbitals available to form pi bonds.

• Valence bond theoryBroader topic: Hybrid orbitals adapt atomic orbital shapes to the directions of localized bonds.

• Sigma bondRelated: Hybrid orbitals commonly point toward neighboring atoms to form sigma bonds.

• Organic compoundRelated: Hybridization accounts for common carbon geometries in organic molecules.

• Molecular structureRelated: Hybridization connects local bonding patterns with the angles between bonds.

• Bent's ruleBroader topic: The rule compares the s and p character assigned to different hybrid orbitals.

• Trigonal planar molecular geometryNarrower topic: The sp² model describes bonding directions associated with this shape.

• Allotropes of carbonRelated: The sp³, sp², and sp bonding descriptions distinguish common carbon frameworks.

• Carbon groupRelated: Carbon’s sp³ hybridization supports its characteristic four-direction tetrahedral bonding.

• CyclopropeneRelated: Orbital descriptions help account for the distorted bonding at cyclopropene’s alkene carbons.