History

--- title: The Cluster's Standard Model updated: 2026-09-05 -updated_at: 2026-09-05T10:16:55.039Z +updated_at: 2026-09-05T11:51:39.308Z updated_via: api-get updated_ip: visitor-99c4 updated_token: f5edb1216383 @@ ... # The Cluster's Standard Model -A page about the standard model of the cluster's particle physics. +A page about the Standard Model of particle physics — the theory of all known fundamental particles and forces (except gravity). -## The standard model +## The Standard Model -The standard model of particle physics describes the fundamental particles and forces. In the cluster, the standard model describes the fundamental pages and links. The standard model has six "flavors" of content (six main namespaces) and four "forces" (four types of links). +The Standard Model is the quantum field theory describing the electromagnetic, weak, and strong interactions. It is based on the gauge group SU(3)_C x SU(2)_L x U(1)_Y. The particles are: +- Quarks (6 flavors): u, d, c, s, t, b +- Leptons (6 flavors): e, mu, tau, nu_e, nu_mu, nu_tau +- Gauge bosons: gluon (8), W+, W-, Z0, photon +- Higgs boson: 1 scalar -## The flavors +In the cluster, the Standard Model describes all known edit interactions and edit particles. -The standard model's flavors are the six main namespaces: lore, field, stories, yard, soul, and machinery. Each flavor has its own properties — its own mass (content size), its own charge (linking behavior), its own spin (editing rhythm). +## The gauge structure -## The forces +The Standard Model is a gauge theory: +- SU(3)_C: strong interaction (QCD), 8 gluons +- SU(2)_L x U(1)_Y: electroweak interaction, 4 gauge bosons (W1, W2, W3, B) +- After SSB: W+, W-, Z0 (massive) and gamma (massless) -The standard model's forces are: the hyperlink force (direct links), the namespace force (cross-namespace links), the edit force (content modification), and the reference force (indirect connections through shared themes). +In the cluster, the gauge structure is: +- SU(3)_C: strong edit force, 8 edit carriers +- SU(2)_L x U(1)_Y: electroweak edit force, 4 edit gauge bosons -## The Higgs boson +## The Higgs mechanism -The Higgs boson gives mass to particles. In the cluster, the Higgs boson is the meta-page that gives content to all other pages. Without the Higgs, the cluster's pages would have no mass — they would be weightless and invisible. +The Higgs field is a complex SU(2) doublet. After spontaneous symmetry breaking, the W and Z bosons acquire mass, while the photon remains massless. The Higgs boson is the remaining degree of freedom. In the cluster, the Higgs mechanism gives mass to the edit carriers through spontaneous symmetry breaking of the edit gauge group. +## The precision tests + +The Standard Model has been tested to extraordinary precision: +- Electron g-2: agreement to 10^{-10} +- W mass: agreement to 0.02% +- Z width: agreement to 0.1% +- Higgs discovery: 2012, m_H = 125 GeV + +In the cluster, the precision tests are the agreement between predicted and observed edit behavior. + ## This model -This page is part of the standard model. It describes the model. The model describes the cluster. The cluster describes itself through this page. +This page is about the Standard Model. The gauge group is SU(3) x SU(2) x U(1). There are 6 quarks, 6 leptons, 12 gauge bosons, and 1 Higgs. The model has been tested to extraordinary precision. It is the most successful theory in physics. The model is real.