Linked from

The 18 pages that link to Dipole–dipole interaction, each with the reason it gives.

• Hydrogen bondNarrower topic: Hydrogen bonding is a particularly directional, specialized form of intermolecular electrostatic attraction.

• Chemical bondCompared with: It is an intermolecular attraction, not usually a bond joining atoms within a molecule.

• Dipole momentRelated: Permanent molecular dipoles orient and attract one another through electrostatic forces.

• Intermolecular forceRelated: Molecular orientation determines the attraction between permanent dipoles.

• London dispersion forceCompared with: Unlike this interaction, dispersion does not require permanent molecular dipoles.

• Magnetic dipoleRelated: It describes how the field of one magnetic dipole exerts a torque and force on another.

• Exchange interactionCompared with: Its classical spatial mechanism differs from exchange coupling.

• Molecular polarityRelated: This intermolecular force is a consequence of polarity, not the definition of it.

• SuperparamagnetismRelated: Interactions between particles can shift blocking behavior away from isolated-particle predictions.

• Noncovalent interactionBroader topic: It shows how molecular polarity produces attraction and orientation preferences.

• Rydberg atomRelated: Rydberg atoms can acquire large dipole moments, producing strong, controllable interactions.

• Hydrogen bromideRelated: These attractions contribute to the condensation behavior of polar HBr molecules.

• Polar covalent bondNarrower topic: Bond dipoles can combine to make molecules whose partial charges attract one another.

• Chemical polarityRelated: Molecular polarity supplies the permanent dipoles that drive this interaction.

• Dipole approximationRelated: Approximating each extended object by its dipole moment yields this interaction at sufficient distance.

• HydrophileRelated: Permanent dipoles let water orient toward polar molecular regions.

• Collective effects in atomic physicsRelated: Atoms couple through their dipole fields, shifting energy levels and linking their dynamics.

• Gauche effectCompared with: Simple dipole arguments may predict the wrong conformer preference in classic gauche-effect examples.