Linked from

The 53 pages that link to Weak interaction, each with the reason it gives.

• NeutronRelated: It enables the quark change underlying free-neutron beta decay.

• Beta decayNarrower topic: It mediates the transformations that produce beta-decay emissions.

• Big Bang nucleosynthesisRelated: Weak reactions set the neutron-to-proton balance before nuclei began forming.

• NeutrinoNarrower topic: Neutrinos interact through this force, which makes their collisions with matter rare.

• Neutrino oscillationRelated: Weak interactions create and identify neutrinos by flavor.

• CP violationRelated: Known CP violation arises through weak-interaction processes.

• Strong interactionCompared with: It changes particle flavor rather than binding quarks into hadrons.

• Proton–proton chainRelated: It converts one proton into a neutron in the chain’s initiating reaction.

• W and Z bosonsNarrower topic: W and Z bosons are its force carriers.

• LeptonRelated: It enables lepton decays and reactions, including transformations between charged leptons and neutrinos.

• MuonNarrower topic: It governs muon decay and determines how muons interact with matter.

• Electron captureNarrower topic: It enables a proton inside the nucleus to become a neutron.

• Abdus SalamRelated: Salam’s theory joined this force with electromagnetism.

• Parity violationRelated: Its charged-current processes violate parity maximally.

• Charm quarkRelated: Charm hadrons decay through weak processes that can change a charm quark into a strange quark.

• Electromagnetic interactionCompared with: Its short range and particle-changing effects distinguish it from electromagnetism.

• Sheldon GlashowRelated: Its relation to electromagnetism was the core problem Glashow addressed.

• Strong nuclear forceCompared with: Unlike the strong force, it can change quark flavor and drive many nuclear decays.

• Top quarkRelated: Weak decay governs the top quark's dominant transformation into a bottom quark.

• KaonRelated: It changes strange quarks into other flavors, driving kaon decays and mixing.

• Particle decayRelated: Many decays of heavier particles proceed through weak-interaction vertices.

• Chien-Shiung WuNarrower topic: The weak interaction is the force whose decay process revealed parity violation.

• Primordial nucleosynthesisRelated: Weak reactions interconverted neutrons and protons before nuclear assembly began.

• Homestake experimentRelated: It governs the rare neutrino captures that generated Homestake’s signal.

• Muon neutrinoRelated: Muon neutrinos interact with matter through this force.

• Strange particlesRelated: It can change strangeness, enabling the particles’ characteristically slow decays.

• StrangenessCompared with: It can change strangeness, enabling strange hadrons to decay.

• Beta particleNarrower topic: It governs the transformations that create beta particles.

• Bottom quarkRelated: It permits bottom quarks to decay into lighter up-type quarks.

• Electron neutrinoRelated: Electron neutrinos are produced and detected through this interaction.

• Tsung-Dao LeeBroader topic: Parity violation occurs in weak processes, unlike the established behavior of other interactions.

• Wu experimentNarrower topic: The observed asymmetry showed that this force does not conserve parity.

• FranciumNarrower topic: Precision measurements in francium probe this force inside atoms.

• Fundamental interactionBroader topic: It changes particle types and enables key forms of radioactive decay.

• Strange quarkRelated: Weak decays can change a strange quark into an up quark.

• HyperonRelated: Hyperons usually decay through weak processes that change their strange-quark content.

• Masatoshi KoshibaRelated: Neutrinos interact mainly through this force, making their detection difficult.

• Neutral kaonRelated: It permits neutral kaons to change strangeness and decay into lighter particles.

• Down quarkRelated: It permits down quarks to transform into up quarks.

• James CroninNarrower topic: CP violation in kaons arises in processes governed by the weak interaction.

• Melvin SchwartzRelated: The experiment relied on rare weak interactions between neutrinos and matter.

• Cowan–Reines neutrino experimentNarrower topic: Its extreme weakness explains why the experiment needed a reactor and large detector.

• Jack SteinbergerNarrower topic: Neutrinos in the Brookhaven experiment revealed their identity through weak interactions in matter.

• Makoto KobayashiRelated: Quark mixing occurs in weak interactions, where Kobayashi's framework predicts CP violation.

• Tau neutrinoRelated: Tau neutrinos interact with matter through this force, producing tau leptons in charged-current reactions.

• Toshihide MaskawaRelated: Quark mixing occurs through weak interactions, where the CKM matrix applies.

• Carlo RubbiaNarrower topic: The particles sought in Rubbia’s experiment are carriers of this interaction.

• Mikheyev–Smirnov–Wolfenstein effectRelated: Coherent weak scattering on electrons generates the electron-flavor matter potential.

• Leon M. LedermanNarrower topic: Neutrino production and detection in the experiment depended on weak interactions.

• Free neutron decayRelated: It converts a down quark inside the neutron into an up quark.