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The 19 pages that link to Ring strain, each with the reason it gives.

• Heterocyclic compoundRelated: Ring size and geometry shape the stability of nonaromatic heterocycles.

• Ring-opening polymerizationRelated: Releasing ring strain can make opening and incorporating a cyclic monomer favorable.

• CycloalkaneRelated: It explains why small cycloalkanes are less stable than larger, flexible rings.

• Geometric isomerismRelated: Ring size and strain influence which geometric arrangements are possible.

• CyclobutaneRelated: Cyclobutane’s small ring forces bond angles far from their preferred tetrahedral value.

• CyclohexeneRelated: Cyclohexene’s ring geometry helps explain its shape and differs from highly strained small rings.

• CyclopentaneRelated: Cyclopentane has less angle strain than smaller rings but retains conformational strain.

• Cyclic compoundRelated: Small or poorly shaped rings can be less stable because closure forces unfavorable geometry.

• Fused ringRelated: Ring size and fusion geometry can constrain bond angles and molecular shape.

• Polycyclic compoundRelated: Small or awkwardly fused rings can store strain that affects stability and reactivity.

• Alicyclic compoundRelated: Small alicyclic rings can be unusually reactive because their bond angles are constrained.

• Carolyn BertozziRelated: Strained rings power catalyst-free reactions used in Bertozzi’s bioorthogonal chemistry.

• AziridineRelated: Aziridine’s compressed ring angles contribute to its elevated reactivity.

• Propylene carbonateRelated: Ring strain contributes to the reactivity of cyclic carbonates, including propylene carbonate.