Linked from

The 56 pages that link to Chirality, each with the reason it gives.

• Amino acidRelated: Most protein-building amino acids have a chiral alpha carbon, giving rise to L and D forms.

• StereochemistryRelated: Chirality is the central distinction behind many stereochemical identities and effects.

• EnantiomerRelated: Molecular chirality is what allows an enantiomeric pair to exist.

• Electroweak interactionRelated: The weak interaction couples differently to left- and right-handed fermions.

• Origin of lifeRelated: The strong molecular handedness of life remains a constraint on plausible prebiotic pathways.

• Tetrahedral molecular geometryRelated: Four different substituents at a tetrahedral center can produce molecular chirality.

• GlycineCompared with: Glycine lacks a chiral center, unlike nearly all other protein-building amino acids.

• Optical activityRelated: Chiral structures often respond differently to the two circular polarizations.

• Lactic acidRelated: Lactic acid has a chiral carbon and therefore occurs as two enantiomers.

• DiastereomerRelated: Diastereomers are distinguished from enantiomers by not being related as mirror images.

• Molecular symmetryCompared with: A molecule with an improper rotation axis is achiral, linking symmetry directly to mirror-image behavior.

• StereoisomerismRelated: Chirality gives rise to one major class of stereoisomeric relationships.

• Optical rotationRelated: Chiral molecules commonly produce optical activity because they interact differently with opposite circular polarizations.

• Carbon nanotubeRelated: The graphene sheet’s wrapping direction determines a nanotube’s chirality.

• CysteineRelated: Protein-bound cysteine usually has the L configuration, unlike most other L-amino acids in one stereochemical detail.

• Racemic mixtureNarrower topic: Chirality allows molecules to occur as distinct mirror-image forms.

• Cahn–Ingold–Prelog priority rulesRelated: CIP descriptors distinguish configurations in many chiral molecules.

• Chiral resolutionNarrower topic: Resolution depends on molecular handedness and on interactions that recognize it.

• Circular dichroismNarrower topic: Chiral structures generally provide the handedness needed for a circular-dichroism signal.

• Parity violationRelated: Weak interactions couple differently to left- and right-chiral fermion fields.

• StereoisomerRelated: Chirality gives rise to stereoisomers that are mirror images and cannot be superimposed.

• Asymmetric catalysisNarrower topic: A chiral reaction environment is the source of asymmetric discrimination.

• Chiral chromatographyNarrower topic: Chiral chromatography exploits this property to distinguish mirror-image molecules.

• Rotational symmetryRelated: Rotations preserve handedness, so they cannot turn a chiral object into its mirror image.

• Molecular structureRelated: Molecular handedness can cause large differences in biological recognition and activity.

• PhenylalanineRelated: Protein-incorporated phenylalanine has the L configuration at its alpha carbon.

• Spin quantum numberCompared with: Chirality is distinct from spin, despite close relations for massless particles.

• AldoseRelated: Aldose stereocenters generate distinct sugar configurations and isomers.

• AtropisomerismRelated: Restricted rotation can preserve a chiral arrangement around a molecular axis.

• Optical isomerismNarrower topic: Optical isomerism arises when molecular structures are chiral.

• StereoselectivityRelated: Chiral reactants and catalysts can distinguish two enantiotopic reaction pathways.

• Chemical evolutionRelated: Explaining biology’s strong molecular handedness remains a central origin problem.

• Chien-Shiung WuRelated: Weak interactions couple differently to left- and right-chiral particles, explaining the asymmetry Wu observed.

• Meso compoundRelated: Internal symmetry prevents a meso compound from being chiral.

• Proteinogenic amino acidRelated: Nearly all canonical protein amino acids have the L configuration, with glycine as the achiral exception.

• R–S notationNarrower topic: Many R–S assignments describe centers that contribute to molecular chirality.

• Circular polarizationRelated: Chiral molecules can absorb left- and right-circularly polarized light differently.

• Absolute configurationNarrower topic: Absolute configuration gives a precise description of molecular handedness.

• Ball-and-stick modelRelated: A three-dimensional model can expose a molecule’s handedness.

• Enantioselective synthesisNarrower topic: Enantiomers are the mirror-image forms of a chiral molecule.

• Vladimir PrelogRelated: Prelog’s stereochemical work examined how molecular handedness affects reactions and properties.

• Weak isospinRelated: In the Standard Model, left-handed fermions carry weak isospin while right-handed charged fermions are singlets.

• AlanineNarrower topic: Alanine’s α-carbon is chiral, producing distinct L and D forms.

• ErythroseRelated: Erythrose has stereoisomers because its middle carbons are chiral centers.

• RacemizationNarrower topic: A chiral compound can exist as two enantiomers whose proportions racemization alters.

• HomochiralityNarrower topic: Homochirality is a population-level pattern built from molecular chirality.

• LevofloxacinNarrower topic: Levofloxacin’s stereochemistry gives it greater antibacterial activity than the other ofloxacin enantiomer.

• StereocenterRelated: A stereocenter often makes a molecule chiral, though the two concepts are not identical.

• AtropisomerRelated: Restricted rotation can make a molecule chiral even without a stereogenic carbon.

• Potassium bitartrateRelated: Tartrate crystals helped Pasteur investigate the handedness of molecules.