Linked from

The 53 pages that link to Lewis structure, each with the reason it gives.

• Covalent bondRelated: Lewis structures represent each shared electron pair as a bond.

• Chemical formulaBroader topic: It displays bonding and electron pairs beyond the composition encoded by a formula.

• Molecular formulaCompared with: It depicts bonding and lone pairs absent from molecular formulas.

• Valence electronRelated: Lewis structures make valence-electron participation in bonding visible.

• Molecular orbital theoryCompared with: It offers a localized bookkeeping picture that molecular orbitals refine.

• Structural formulaRelated: It adds electron pairs and formal charges to the connectivity picture.

• Formal chargeNarrower topic: Formal charge is calculated atom by atom from the bonds and lone pairs drawn in this representation.

• ResonanceNarrower topic: Resonance starts from Lewis structures that differ only in electron placement.

• Valence bond theoryCompared with: Lewis structures depict bonding patterns, while valence bond theory gives them a quantum-mechanical basis.

• Free radicalRelated: A dot beside an atom marks an unpaired electron in simple radical structures.

• Lone pairRelated: Lewis structures represent lone pairs as dots beside their atom.

• Bond orderRelated: Counting shared electron pairs in a Lewis structure gives a simple bond-order assignment.

• Octet ruleRelated: Dot notation lets valence electrons be counted before drawing bonds.

• MoleculeRelated: It makes a molecule's bonding pattern and lone pairs visible.

• Polyatomic ionRelated: Lewis structures represent the bonding and electron arrangement within a polyatomic ion.

• Coordinate covalent bondRelated: Lewis structures depict the donated pair as a bond between the donor and acceptor.

• Lewis baseRelated: Lewis structures reveal the lone pairs that can act as donor sites.

• Molecular polarityNarrower topic: Lewis structures help identify bonds and lone pairs that shape polar geometry.

• VSEPR theoryNarrower topic: A Lewis structure supplies the electron-domain count VSEPR uses.

• Empirical formulaCompared with: It gives electron and bonding detail absent from an empirical formula.

• Skeletal formulaCompared with: Lewis structures emphasize electrons and lone pairs that ordinary skeletal formulas usually omit.

• Boric acidNarrower topic: Its electron-deficient boron center helps explain boric acid’s Lewis acidity.

• DeprotonationRelated: It tracks where the bonding electrons remain when a proton departs.

• Gilbert N. LewisRelated: The notation makes Lewis’s electron bookkeeping visible in molecular structures.

• Xenon difluorideRelated: The XeF₂ Lewis structure displays two bonds and three lone pairs on xenon.

• DiboraneRelated: Diborane exposes the limits of ordinary Lewis structures based on localized bonds.

• OxyanionRelated: Lewis structures make oxyanion connectivity, lone pairs, and charge visible.

• Resonance structureNarrower topic: Resonance structures are alternative Lewis diagrams of the same atomic arrangement.

• Walter HeitlerCompared with: It gives a classical bookkeeping picture of electron pairs that Heitler’s work sought to ground in quantum mechanics.

• Xenon tetrafluorideRelated: The Lewis structure represents four Xe–F bonds and two lone pairs on xenon.

• Hypervalent moleculeNarrower topic: Hypervalency is defined by the electron count assigned in this representation.

• Phosphorus trichlorideRelated: Its Lewis structure shows phosphorus's lone pair and three P–Cl bonds.

• Single bondRelated: A single bond appears as one line or one shared pair in this representation.

• Sulfur trioxideRelated: Lewis structures help represent SO₃ bonding and the limits of a single localized-bond picture.

• Electron-deficient compoundRelated: Lewis structures expose the electron shortfall when every connection is drawn as a conventional bond.

• Interhalogen compoundRelated: Lewis structures make the bonding and lone-pair counts of interhalogens explicit.

• Ball-and-stick modelCompared with: It emphasizes electron accounting rather than three-dimensional shape.

• Double bondRelated: Its two-line notation represents the two shared electron pairs.

• Valence shellRelated: Its dots and lines make valence-shell electron arrangements visible.

• ZwitterionNarrower topic: Lewis structures make a zwitterion’s charge locations explicit.

• Bent molecular geometryNarrower topic: Counting its bonds and lone pairs reveals the central atom’s electron domains.

• Polar covalent bondRelated: Its bond lines and lone pairs provide a starting picture of shared electrons.

• Main-group elementRelated: It makes the bonding and lone-pair patterns of main-group compounds visible.

• PhosphineRelated: A Lewis structure makes phosphine’s three P–R bonds and phosphorus lone pair explicit.

• Triple bondRelated: Three lines between atoms provide the standard Lewis representation of a triple bond.

• Nitrogen triiodideRelated: Its electron arrangement helps describe the bonding and lone pair at nitrogen.

• Arrow pushingNarrower topic: Arrow pushing starts from this map of bonds and electron pairs.

• Dinitrogen trioxideRelated: It helps describe N₂O₃’s connectivity and distinguish structural forms of the molecule.

• Electron countingRelated: Lewis structures make electron pairs explicit for counting in covalent molecules.

• Xenon tetroxideRelated: A Lewis structure represents XeO₄’s four Xe–O connections and electron distribution.