Linked from

The 18 pages that link to Cabibbo–Kobayashi–Maskawa matrix, each with the reason it gives.

• Standard ModelRelated: Its parameters let the model describe quark mixing and CP violation.

• Weak interactionRelated: It quantifies which quark-flavor changes occur and with what relative strengths.

• CP violationRelated: Its complex phase produces CP-violating differences among quark transitions.

• W and Z bosonsRelated: It determines which quark flavor changes W-boson interactions can produce.

• Charm quarkRelated: Its matrix elements determine which weak decays of charm quarks are favored.

• Top quarkRelated: Its elements determine the probabilities for top quarks to decay into different down-type quarks.

• KaonRelated: Its elements govern the quark-flavor transitions in many kaon decays.

• Yukawa interactionRelated: Quark Yukawa matrices determine the quark masses and this mixing matrix.

• Strange particlesRelated: Its flavor-changing couplings govern many strange-hadron decay rates.

• Bottom quarkRelated: Its elements set the probabilities for bottom-quark transitions to other flavors.

• Strange quarkRelated: Its elements govern weak transitions involving strange quarks.

• Up quarkRelated: It sets the probabilities for weak transitions involving an up quark.

• Weak isospinRelated: Weak charged currents connect quark doublets with generation mixing described by this matrix.

• Down quarkRelated: Its elements govern the probabilities of down-quark flavor transitions.

• James CroninRelated: Its complex phase provides the Standard Model source of CP violation first detected in kaons.

• Toshihide MaskawaRelated: Maskawa and Makoto Kobayashi showed that its complex phase permits CP violation with six quark flavors.

• Free neutron decayRelated: Its up-down mixing element contributes to the neutron decay rate.