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The 138 pages that link to Electromagnetic radiation, each with the reason it gives.

• Electric fieldRelated: Changing electric fields participate in waves that transport energy.

• Speed of lightRelated: Maxwell’s equations predict their vacuum propagation speed from electric and magnetic constants.

• ScatteringRelated: Light and other electromagnetic waves scatter from particles, surfaces, and fluctuations in matter.

• Electromagnetic fieldRelated: Accelerating charges can radiate energy through the field.

• Hendrik LorentzRelated: Lorentz’s theories connected radiation, moving charges, and the measurable effects of magnetism.

• AstrophysicsRelated: Nearly all information about distant celestial objects reaches astronomers as radiation.

• PleochroismRelated: Light’s electric field interacts differently with different crystal directions.

• Charged particleRelated: Accelerating charged particles can emit radiation, including synchrotron radiation.

• Electric dipoleRelated: An oscillating dipole is a basic source of radiated electromagnetic waves.

• Oliver HeavisideRelated: Heaviside’s equations make the propagation of electromagnetic waves explicit.

• Electromagnetic field tensorRelated: Tensor equations describe radiation without privileging a particular inertial frame.

• Poynting vectorRelated: In a plane wave, the vector points along propagation and sets the energy-transfer rate.

• Displacement currentRelated: Maxwell’s corrected equations predict radiation even where no conduction current flows.

• Magnetic vector potentialRelated: Radiation calculations often solve for potentials before deriving the fields.

• Spherical coordinate systemRelated: Spherical coordinates describe radiation spreading outward from a localized source.

• Linear particle acceleratorRelated: Radio-frequency waves supply energy to many modern linac structures.

• Molecular physicsRelated: Its interaction with molecules enables spectroscopic measurements of molecular energy levels.

• Vacuum permeabilityRelated: The wave speed in vacuum depends on μ₀ and vacuum permittivity.

• Electromagnetic wave equationRelated: Solutions of the equation describe these propagating field patterns.

• Outer spaceRelated: Radiation travels through space and carries information from distant objects.

• Ball lightningRelated: Radiation is central to models that seek to explain energy storage and emission.

• Crystal healingRelated: Claims about crystals emitting healing frequencies can be assessed against measurable electromagnetic radiation.

• Magnetic energyRelated: Changing field configurations can release magnetic energy as radiation.

• Massless particleRelated: Its freely propagating quanta are photons traveling at light speed in vacuum.

• Poynting's theoremRelated: Their energy transport is a prominent application of the theorem’s flux term.

• Electromagnetic hypersensitivityRelated: Some suspected sources emit radiation, but the term covers a broad physical spectrum.

• Retarded timeRelated: Radiation observed now reflects the source at an earlier emission time.