Linked from

The 28 pages that link to CP violation, each with the reason it gives.

• BaryogenesisRelated: It helps distinguish matter from antimatter in reactions that could generate an asymmetry.

• MesonRelated: Neutral kaon decays revealed CP violation in particle physics.

• AntimatterRelated: Known CP violation is part of the matter–antimatter story but appears insufficient to explain the cosmic excess.

• Cabibbo–Kobayashi–Maskawa matrixRelated: The matrix’s irreducible complex phase produces CP violation in quark processes.

• Charge conjugationRelated: It shows that charge conjugation paired with parity is not an exact symmetry of nature.

• AntiparticleRelated: It provides one ingredient that may help explain the cosmic matter excess.

• CPT symmetryCompared with: Weak interactions violate CP even though the combined CPT symmetry remains intact.

• Baryon asymmetryRelated: Matter–antimatter differences can help bias processes toward producing more baryons.

• Parity violationCompared with: Some weak processes violate CP even though parity alone is already violated.

• Matter–antimatter asymmetryRelated: Known CP violation distinguishes matter from antimatter, but appears insufficient to explain the cosmic excess.

• KaonRelated: Neutral-kaon decays provided the first observed evidence that CP symmetry is violated.

• Time-reversal symmetryRelated: Under CPT symmetry, CP violation entails time-reversal violation.

• LeptogenesisRelated: Unequal decay rates into leptons and antileptons require CP violation.

• Chien-Shiung WuRelated: Parity violation helped lead physicists to test whether the combined CP symmetry was conserved.

• Electroweak baryogenesisRelated: It biases particle and antiparticle transport, a necessary ingredient for producing net baryon number.

• LHCb experimentRelated: LHCb measures CP-violating differences in decays of beauty and charm hadrons.

• Sakharov conditionsRelated: It biases particle reactions so baryons and antibaryons need not be produced equally.

• Bottom quarkRelated: Comparing bottom-hadron decays and their antimatter counterparts probes CP violation.

• Tsung-Dao LeeRelated: Parity violation prompted physicists to test whether the combined CP symmetry remained intact.

• HyperonRelated: Hyperon decays offer tests of CP violation in baryon systems.

• Neutral kaonRelated: Neutral kaon decays provided the first observed evidence that this symmetry is violated.

• AntineutronRelated: It is one ingredient considered in explanations of the universe’s matter excess, alongside baryon-number violation.

• James CroninNarrower topic: Cronin’s Nobel-winning result established that this symmetry is not exact in nature.

• Jack SteinbergerRelated: Steinberger’s later kaon experiments contributed to measurements of CP violation.

• Makoto KobayashiNarrower topic: Kobayashi and Toshihide Maskawa proposed a quark framework that accounts for this symmetry breaking.

• Toshihide MaskawaRelated: The phenomenon the Kobayashi–Maskawa theory explained within the quark model.

• B − LRelated: It is a separate ingredient in matter-generation scenarios, not a definition of B − L.

• Val Logsdon FitchNarrower topic: The rare decay observed by Fitch and Cronin provided the first evidence of this symmetry breaking.