Linked from

The 37 pages that link to Electrostatics, each with the reason it gives.

• Electric chargeNarrower topic: It describes charge accumulation and redistribution in everyday materials.

• Coulomb's lawNarrower topic: Coulomb's law is a foundational force relation in this subject.

• ElectromagnetismBroader topic: It is the static limiting case of the broader electromagnetic theory.

• Boundary value problemRelated: Electric potentials are often found by solving Poisson's or Laplace's equation with boundary data.

• Poisson's equationRelated: Electric potential satisfies Poisson's equation when charge density is present.

• CapacitanceNarrower topic: Capacitance is defined through the static charge and potential of conductors.

• Laplace's equationRelated: In a charge-free region, electric potential satisfies Laplace's equation.

• DivergenceRelated: Gauss's law connects electric-field divergence to charge density.

• Electromagnetic fieldBroader topic: It isolates a static limit of electromagnetism in which magnetic dynamics recede.

• Harmonic functionRelated: In charge-free regions, electrostatic potential is harmonic.

• Conformal mapRelated: Conformal mapping can simplify two-dimensional electrostatic boundary geometries.

• AmberNarrower topic: Rubbing amber transfers charge, making it a familiar demonstration of static electricity.

• Multipole expansionNarrower topic: Charge distributions generate potentials commonly approximated by multipole terms.

• Dirichlet boundary conditionRelated: Prescribed electric potential on conductors supplies Dirichlet data for potential equations.

• Electric displacement fieldNarrower topic: In electrostatics, D simplifies field calculations when material polarization is present.

• Potential theoryRelated: Electrostatic potential is a physical instance of the scalar fields studied here.

• Coulomb interactionNarrower topic: The Coulomb interaction is its central pairwise interaction.

• Electric dipoleNarrower topic: The ideal electric dipole is a foundational source in electrostatic field theory.

• ElectricityBroader topic: It isolates stationary-charge effects from electricity involving moving charges.

• Dirichlet problemRelated: Fixed conductor potentials lead to Dirichlet problems for electric potential.

• Equipotential surfaceNarrower topic: Equipotential surfaces are a geometric tool for describing electrostatic fields.

• MagnetostaticsCompared with: It treats static electric fields rather than fields generated by steady currents.

• Point chargeNarrower topic: Point charges are basic sources in the static-charge models of this field.

• Classical electromagnetismBroader topic: It is a restricted limit of classical electromagnetism with static sources.

• ElectrodynamicsCompared with: It is the static limit, without the dynamical coupling of electric and magnetic fields.

• Charles-Augustin de CoulombNarrower topic: Coulomb’s measurements became a cornerstone of this branch of physics.

• Schwarz–Christoffel mappingRelated: Conformal mapping helps solve field problems with polygonal boundaries.

• Siméon Denis PoissonRelated: Poisson’s equation relates electric potential to charge density.

• Leyden jarNarrower topic: The jar became a central experimental instrument in early electrostatics.

• Helmholtz decompositionRelated: Electrostatic fields are curl-free and can be described by scalar potentials.

• Otto von GuerickeRelated: Guericke’s sulfur globe generated static electricity and became an early electrostatic machine.

• Charge (electricity)Narrower topic: It treats the interactions of stationary charge as a subject in its own right.

• Electromagnetic field calculationsBroader topic: It is a simplified field-calculation regime with no time-varying magnetic induction.

• History of electromagnetic theoryNarrower topic: Early electrical experiments focused on attraction and repulsion between charged objects.

• Interactions and forcesBroader topic: It explains attraction, repulsion, and charge distributions in ordinary materials.

• Legendre equationRelated: Separated potential problems around spherical conductors lead to Legendre solutions.

• Methods in electromagnetismBroader topic: Scalar-potential methods and Poisson equations are central to static electric-field solutions.