Linked from

The 106 pages that link to Electron, each with the reason it gives.

• Atomic numberRelated: A neutral atom has as many electrons as protons, though ionization changes the electron count.

• Electric chargeRelated: Electrons carry the negative charge that commonly moves through materials.

• Quantum electrodynamicsRelated: The electron is the simplest charged particle whose electromagnetic interactions QED describes.

• NeutrinoRelated: The electron neutrino is paired with the electron in the weak interaction.

• Bohr modelRelated: The model assigns electrons the orbits whose energies are quantized.

• AuroraRelated: Precipitating electrons collide with atmospheric gases and excite their atoms and molecules.

• IonRelated: Ions form when electrons are transferred or, in some cases, removed.

• Hydrogen atomRelated: Its quantum states determine hydrogen’s size and spectrum.

• Hendrik LorentzRelated: Lorentz’s electron theory modeled matter’s electromagnetic behavior through charged particles.

• Elementary chargeRelated: An electron carries exactly the negative of the elementary charge.

• Electrical conductorRelated: Mobile electrons carry charge through metals and many solid conductors.

• Wolfgang PauliRelated: The exclusion principle explains how electrons occupy distinct states within atoms.

• AnodeRelated: Electrons released by oxidation leave the anode through the external circuit.

• BremsstrahlungRelated: Electrons are common emitters because they accelerate readily in matter’s electric fields.

• Field-effect transistorRelated: Electrons are the majority carriers in n-channel field-effect transistors.

• Sodium ionRelated: The loss of one electron gives sodium its positive charge.

• Neutrinoless double beta decayRelated: The two emitted electrons carry the visible energy in the proposed decay.

• Atomic energy levelRelated: Electronic states account for most familiar atomic energy levels.

• CationRelated: The loss of electrons is the usual process that turns a neutral atom into a cation.

• DiamagnetismRelated: Electron motion and quantum states underlie most material diamagnetism.

• Rutherford modelRelated: Electrons surround the nucleus in Rutherford’s picture, though the model did not explain their arrangement.

• Calcium ionRelated: Losing two electrons gives calcium its 2+ charge.

• Hydrogen ionRelated: Hydrogen’s charge changes when it gains or loses an electron.

• Neutral hydrogenRelated: Its spin orientation relative to the proton distinguishes the two hyperfine levels.

• Solar energetic particleRelated: Energetic electrons often arrive sooner than ions and reveal different transport conditions.

• William CrookesRelated: The identification of cathode rays as electrons followed the research tradition Crookes helped advance.

• PositroniumRelated: It supplies the ordinary-matter constituent of the bound pair.

• Landau levelRelated: Electrons in solids provide the standard experimental realization of Landau levels.

• Electron neutrinoRelated: It shares the electron flavor designation and weak-interaction pairing with this neutrino.

• Electron–positron annihilationRelated: It is one member of the annihilating pair.

• Plum pudding modelRelated: The model’s electrons supplied negative charge within the positively charged sphere.

• Arthur ComptonRelated: Electrons recoil when X-ray photons scatter, producing the observed wavelength change.

• PolaronRelated: In solids, an electron can form a polaron by coupling to its surroundings.

• Pieter ZeemanRelated: Lorentz interpreted the effect using charged particles whose motion produces light.

• Carl David AndersonRelated: The positron is the electron’s antiparticle, distinguished in Anderson’s photographs by its curvature.

• Oil-drop experimentRelated: The droplet charge measurements established the magnitude of the electron's charge.

• Richard E. TaylorRelated: The experiment used electrons as probes because their electromagnetic interaction exposes nucleon structure.

• Charge (electricity)Related: Its charge is the negative counterpart to the proton's.

• Free neutron decayRelated: An electron is emitted when the neutron decays through beta-minus decay.

• Plasma recombinationRelated: Free electrons are captured during plasma recombination.

• Relativistic quantum mechanicsRelated: The Dirac equation was developed to describe the electron consistently with special relativity.