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

• IUPAC nomenclatureRelated: Stereochemical descriptors distinguish structures that have the same connectivity.

• Organic chemistryRelated: Molecules with the same connections can react differently when their spatial arrangements differ.

• Structural formulaRelated: Wedges and dashed bonds can encode spatial arrangement beyond connectivity.

• NucleophileRelated: Backside attack by a nucleophile in SN2 reactions inverts the reacting center's configuration.

• Nucleophilic additionRelated: Attack on a planar carbonyl can create a stereogenic center, making approach direction consequential.

• Molecular recognitionRelated: Different stereoisomers can present distinct binding surfaces despite having the same atom connectivity.

• Elimination reactionRelated: Stereochemical constraints determine which alkene geometries an elimination can produce.

• LimoneneRelated: Limonene's mirror-image forms smell different despite sharing the same connectivity.

• Organic compoundRelated: Spatial arrangement can change an organic compound’s reactions and biological activity.

• Retrosynthetic analysisRelated: A synthesis plan must preserve or establish the target's required three-dimensional configuration.

• ConformationRelated: Conformation is one source of molecular three-dimensional structure.

• MonoterpeneRelated: Monoterpene stereoisomers can differ in odor and biological activity.

• MentholRelated: Menthol’s three stereogenic centers give rise to distinct stereoisomers.

• Concerted reactionRelated: The geometry of a concerted transition state often determines product stereochemistry.

• ErythritolRelated: Erythritol’s symmetric structure gives it a distinct stereochemical relationship to other polyols.

• Malic acidRelated: Malic acid has stereoisomers with different spatial arrangements.

• SerineRelated: Protein serine is the L stereoisomer, a distinction that affects protein structure.

• Chemical biologyRelated: Molecular shape helps determine whether a chemical probe recognizes its intended target.

• EphedrineRelated: Ephedrine’s stereoisomers can differ in pharmacological activity despite sharing a molecular formula.

• Jacobus Henricus van ’t HoffRelated: His tetrahedral carbon model made molecular spatial arrangement central to structural chemistry.

• Jean-Marie LehnRelated: Three-dimensional fit and molecular shape influence the selectivity of Lehn’s host molecules.

• Polylactic acidRelated: Lactic acid’s stereochemistry influences PLA crystallinity and thermal behavior.

• Ball-and-stick modelRelated: Three-dimensional models can reveal spatial configurations hidden by flat formulas.

• CatechinRelated: Catechin’s stereochemical identity separates it from epicatechin.

• Fused ringRelated: The orientation of substituents at fused junctions can produce distinct stereoisomers.

• 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.

• 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.

• 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.

• 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.

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

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

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

• 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.

• 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.