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The 84 pages that link to Stereochemistry, each with the reason it gives.

• ProlineRelated: Proline’s ring and backbone shape constrain its molecular conformations.

• Robert RobinsonRelated: The spatial arrangement of atoms constrained the structures and syntheses of complex alkaloids.

• Vladimir PrelogNarrower topic: This field encompasses the molecular structures and reactions central to Prelog’s research.

• CarvoneNarrower topic: Carvone’s handedness changes how its molecules interact with smell receptors.

• Cyclohexane conformationNarrower topic: Cyclohexane conformations change spatial arrangement without changing which atoms are bonded.

• CystineRelated: Cystine retains amino-acid stereocenters, which matter in its biological forms.

• Elias James CoreyRelated: Corey’s target-oriented syntheses often had to control molecular three-dimensional structure.

• LinaloolRelated: Linalool’s two enantiomers differ in odor character.

• Paul KarrerRelated: Carotenoid structures raised questions about molecular arrangement as well as connectivity.

• Polycyclic compoundRelated: Ring junctions can restrict three-dimensional arrangements and create distinct stereoisomers.

• RacemizationNarrower topic: Racemization is a change in molecular stereochemistry without changing molecular connectivity.

• ThreonineRelated: Threonine has two stereocenters, giving it four possible stereoisomers.

• BupivacaineRelated: Bupivacaine is supplied as a racemic mixture, while its enantiomers differ in toxicity.

• DihydroxyacetoneRelated: Dihydroxyacetone lacks a stereogenic center, unlike its aldose isomer glyceraldehyde.

• EucalyptolRelated: Its fixed bicyclic shape makes molecular geometry central to describing eucalyptol.

• Giulio NattaRelated: Natta brought stereochemical control into the synthesis of long polymer chains.

• HomochiralityNarrower topic: Homochirality is a recurring stereochemical pattern in biological molecules.

• IsoleucineRelated: Isoleucine has two stereocenters, giving its natural form a specific three-dimensional structure.

• Otto DielsRelated: The reaction’s stereospecificity lets synthetic chemists control molecular three-dimensional structure.

• Alicyclic compoundNarrower topic: Ring geometry creates stereochemical relationships absent from many open-chain structures.

• Gluconic acidRelated: Gluconic acid retains the stereochemical pattern of glucose’s carbon chain.

• SNi reactionNarrower topic: SNi’s characteristic retention is a stereochemical outcome.

• ThreoseRelated: Threose’s identity depends on the spatial arrangement of its two stereogenic centers.

• Ben FeringaNarrower topic: It provides the language for describing both Feringa’s catalysts and motor designs.

• CitronellalRelated: Citronellal’s chiral center gives rise to enantiomers with distinct sensory properties.

• Derek BartonNarrower topic: His work made three-dimensional structure central to predicting organic reactions.

• DextroamphetamineNarrower topic: Its principles explain the structural difference between amphetamine’s two enantiomers.

• Glucuronic acidRelated: The glucose-derived stereochemistry distinguishes glucuronic acid from other uronic acids.

• SalbutamolRelated: Salbutamol's enantiomers differ in biological activity despite sharing the same connectivity.

• Arene substitution patternNarrower topic: Substitution patterns specify connectivity positions rather than the full spatial arrangement of atoms.

• Conformation & topologyRelated: Stereochemical constraints distinguish spatial arrangements that connectivity alone cannot capture.

• Ei mechanismRelated: The spatial arrangement of groups determines whether the required syn pathway is accessible.

• John CornforthNarrower topic: Cornforth’s research examined how molecular three-dimensional structure determines enzyme reactions.

• Norman HaworthNarrower topic: Sugar structures depend on the precise three-dimensional arrangements Haworth sought to represent.