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The 62 pages that link to Dipole moment, each with the reason it gives.

• Molecular geometryRelated: A molecule’s shape determines how its bond dipoles combine into an overall dipole.

• ElectronegativityRelated: Measured dipoles provide evidence about how electron attraction is distributed.

• Infrared spectroscopyRelated: A vibration is infrared-active when it changes the molecule’s dipole moment.

• Lewis structureRelated: Lewis structures help identify bond dipoles that contribute to a molecule’s net value.

• Inductive effectRelated: It records molecular polarity that can result partly from inductive bond polarization.

• CP violationRelated: A permanent particle electric dipole moment would signal CP violation beyond tiny Standard Model effects.

• London dispersion forceRelated: Temporary dipole moments describe the charge separations involved in dispersion.

• Molecular spectroscopyRelated: Changing dipole moments enable many infrared and microwave transitions.

• Hydrogen chlorideRelated: Hydrogen chloride’s dipole moment reflects the unequal sharing of electrons across its bond.

• Hydrogen fluorideRelated: The strongly polar H–F bond gives each HF molecule a substantial dipole.

• Solvent effectRelated: Molecular dipoles help determine how solutes interact with polar solvents.

• Vibrational spectroscopyRelated: A vibration must change dipole moment to produce an infrared absorption band.

• Molecular symmetryRelated: Symmetry can force a molecule’s net dipole moment to vanish.

• Dipole–dipole interactionRelated: Its magnitude and direction determine each molecule’s contribution to the interaction.

• AcetoneRelated: The polar carbonyl bond gives acetone a molecular dipole that helps it dissolve many substances.

• Microwave spectroscopyRelated: A permanent dipole enables ordinary electric-dipole rotational absorption in many molecules.

• Baryon asymmetryRelated: A nonzero particle electric dipole moment could reveal additional CP violation needed by baryogenesis.

• Electrostatic inductionRelated: Induced polarization can be described by the dipole moment it creates.

• PolarizabilityRelated: Polarizability describes how an applied field changes this moment.

• Stark effectRelated: Its interaction with the field produces the leading shift in many Stark patterns.

• VSEPR theoryRelated: Measured dipole moments can test shape-based predictions about molecular symmetry.

• Matter–antimatter asymmetryRelated: Searches for particle electric dipole moments test new sources of CP violation.

• Molecular structureRelated: Molecular geometry determines whether individual bond dipoles combine or cancel.

• Electric dipoleRelated: It captures the dipole’s strength and orientation in a single quantity.

• Noncovalent interactionRelated: Dipole moments help explain molecular orientation and interactions between polar molecules.

• Electric susceptibilityRelated: Aligned dipole moments within matter produce the polarization measured by susceptibility.

• Peter DebyeRelated: Debye developed methods for measuring molecular dipole moments and using them to infer molecular structure.

• Electroweak baryogenesisRelated: New CP-violating sources can induce electric dipole moments constrained by precision experiments.

• Rotational spectroscopyRelated: A permanent dipole enables electric-dipole rotational transitions in molecules.

• Diatomic moleculeRelated: Different atoms can create a permanent dipole when their bond shares electrons unequally.

• FranciumRelated: Francium experiments can constrain a permanent atomic electric dipole moment.

• AcetonitrileRelated: The strongly polarized carbon–nitrogen bond gives acetonitrile a substantial molecular dipole.

• ChloromethaneRelated: The polar carbon–chlorine bond gives chloromethane a nonzero dipole moment.

• Trigonal pyramidal molecular geometryRelated: The geometry sets how bond dipoles combine into a net molecular dipole.

• ZwitterionRelated: A zwitterion can be neutral overall yet have a substantial dipole moment.

• Bent molecular geometryRelated: Its direction and magnitude can reveal whether a bent molecule has a net dipole.

• ChlorobenzeneRelated: The polar carbon–chlorine bond gives chlorobenzene a net molecular dipole.

• DimethylformamideRelated: DMF’s molecular dipole contributes to its strong polarity and solvent capacity.

• Linear molecular geometryRelated: In a symmetric linear molecule, opposing bond dipoles can cancel to give zero net dipole.

• FormamideRelated: Formamide's strong molecular polarity underlies its interactions with polar solutes.

• Hydrogen selenideRelated: Its bent shape gives H₂Se a nonzero molecular dipole.

• Rotational–vibrational spectroscopyRelated: An oscillating dipole moment allows a molecular vibration to absorb infrared radiation.

• Chemical polarityRelated: A molecule’s net dipole moment summarizes its overall polarity.

• Atomic and molecular processes in external fieldsRelated: Permanent dipoles couple directly to applied electric fields.

• AzuleneRelated: Azulene has a substantial permanent dipole for a hydrocarbon because its rings are polarized.

• Charge (electricity)Related: It describes charge arrangements whose net charge may be zero.

• Electric field effectsRelated: A field couples directly to a molecule’s permanent dipole, changing its energy.

• Physics beyond the Standard ModelRelated: Precision searches constrain new sources of CP violation beyond known interactions.