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The 94 pages that link to Molecular geometry, each with the reason it gives.

• Carbon dioxideRelated: CO₂ is linear, with oxygen atoms on opposite sides of its central carbon.

• Covalent bondRelated: Bonding pairs and lone pairs shape the arrangement around covalently bonded atoms.

• Chemical bondRelated: Bonding patterns and electron-pair arrangements determine molecular shape.

• StereochemistryRelated: Stereochemistry examines molecular geometry, especially arrangements that distinguish otherwise similar molecules.

• MethaneRelated: Methane’s four hydrogen atoms form a tetrahedron around its carbon atom.

• Dipole momentRelated: Bond dipoles add as vectors, so geometry determines whether they reinforce or cancel.

• Transition stateRelated: Transition-state structure describes atomic positions at the reaction’s energy barrier.

• Functional groupRelated: A group’s shape influences how it interacts with other molecules.

• Potential energy surfaceRelated: A geometry supplies the nuclear positions used as coordinates on the surface.

• IsomerRelated: Different spatial arrangements can produce stereoisomers without changing atom connectivity.

• London dispersion forceRelated: Geometry affects how much neighboring electron clouds can approach and interact.

• Molecular vibrationRelated: Equilibrium geometry defines the reference structure around which atoms vibrate.

• KetoneRelated: The carbonyl carbon in ketones has a planar, trigonal arrangement.

• Molecular symmetryRelated: Atomic positions determine which spatial transformations preserve a molecule’s arrangement.

• AllotropyRelated: Some elemental allotropes differ in the shapes and sizes of their molecules.

• Dipole–dipole interactionRelated: Geometry determines whether individual bond dipoles produce a net permanent dipole.

• MoleculeRelated: A molecule's shape follows from its bonds and electron-pair arrangement.

• Sigma bondRelated: The directions of sigma bonds help set the arrangement of bonded atoms.

• Atomic radiusRelated: Atomic size helps interpret how closely atoms can approach within molecular structures.

• Chlorine dioxideRelated: Chlorine dioxide has a bent molecular shape that influences its electronic structure.

• Molecular polarityRelated: Geometry determines whether bond dipoles reinforce or cancel one another.

• StereoisomerRelated: Stereoisomers share connectivity but differ in molecular geometry.

• Hybrid orbitalRelated: Hybrid-orbital directions provide a simple model for common molecular shapes.

• Empirical formulaRelated: An empirical formula contains no information about a molecule's three-dimensional shape.

• Skeletal formulaRelated: Skeletal drawings can encode selected spatial relationships but do not fully depict molecular geometry.

• Bent's ruleRelated: Orbital hybridization links Bent's rule to molecular shape.

• Dimethyl etherRelated: Its bent C–O–C arrangement shapes polarity and intermolecular forces.

• Hypervalent moleculeRelated: Hypervalent structures often correspond to distinctive geometries such as trigonal bipyramidal.

• Sulfur trioxideRelated: Trigonal-planar geometry explains the symmetry and equivalent bonds of gaseous SO₃.

• Supramolecular chemistryRelated: Complementary molecular shapes determine whether potential partners can bind.

• Acrylic acidRelated: The conjugated portion of acrylic acid is approximately planar, supporting orbital overlap.

• Amino groupRelated: The nitrogen’s approximate trigonal-pyramidal geometry distinguishes neutral amino groups from planar amide nitrogen.

• ArsineRelated: Arsine has a trigonal-pyramidal shape, which follows from its bonding and lone electron pair.

• Jean-Marie LehnRelated: Host shape determines which guests can fit and interact with Lehn’s receptors.

• Ball-and-stick modelRelated: The model’s spatial layout displays molecular shape and bond angles.

• ChloromethaneRelated: Chloromethane’s tetrahedral carbon geometry helps explain its bond angles and polarity.

• Fluorosulfuric acidRelated: Its molecular geometry describes how the sulfur center's oxygen and fluorine substituents are arranged.

• Space-filling modelRelated: Geometry determines how the scaled atomic spheres overlap in the model.

• MethylamineRelated: Methylamine’s nitrogen has a pyramidal arrangement that shapes its polarity and interactions.

• DimethylamineRelated: Nitrogen’s bonded atoms and lone pair give dimethylamine a pyramidal shape.

• Hydrogen chalcogenideRelated: The bent geometry of many hydrogen chalcogenide molecules affects polarity and intermolecular attraction.

• Hydrogen tellurideRelated: The bent geometry of H₂Te follows from electron pairs around its tellurium atom.

• Hydrogen selenideRelated: H₂Se has a bent molecular shape rather than a linear one.

• Isocyanic acidRelated: The nearly linear N=C=O framework is central to describing HNCO's structure.

• Methyl isocyanateRelated: The structure of CH₃NCO helps explain its bonding and chemical behavior.

• Molecular graphicsRelated: Graphics makes molecular geometry directly inspectable through rendered atomic positions.

• AllotropeRelated: Elements such as oxygen form allotropes with different molecular structures.

• Allotropes of oxygenRelated: O₂ is diatomic, while O₃ has a bent molecular shape.

• BromoformRelated: Bromoform has a tetrahedral carbon center bonded to three bromines and one hydrogen.

• Chemical polarityRelated: Geometry determines whether individual bond dipoles reinforce or cancel.