Quantum field theory · numerical laboratory

Standard Model: Higgs–Gauge Lab

Explore a classical 2+1-dimensional U(1) Higgs–gauge model derived from the scalar-potential and covariant-derivative structure of your Standard Model Lagrangian. It shows evolving fields, symmetry-breaking dynamics and gauge flux; it is not a full Standard Model or quantum Monte Carlo simulation.

LOCAL · OFFLINE · LIVE
SPACETIME LATTICE / 64 × 64 · periodicHIGGS MAGNITUDE
|Φ(x,y)| / (v/√2)
t = 0.00
Magnitude of the complex scalar field. Bright areas have a larger Higgs amplitude.
SIMULATION TIME
0.00
toy units
MEAN HIGGS / VACUUM
0.00
ratio
ENERGY / SITE
0.00
arb. units
GAUSS LAW RESIDUAL
0.00
RMS
DYNAMICS TRACEmean |Φ| / vacuum and energy/site
mean amplitude / vacuumenergy/site
EVOLUTION CONTROLS
Numerics · Periodic 64² square lattice, temporal gauge A₀ = 0, gauge-covariant nearest-neighbor differences, velocity-Verlet time integrator. Δx = 1, Δt = 0.045. Damping is phenomenological (not in the supplied Lagrangian). Gauss law is monitored.
SYMMETRY-BREAKING MASS SCALES
Radial Higgs
—
√(2λ) v
U(1) gauge
—
g v · proxy
Yukawa fermion
—
y v / √2 · inferred
V(ρ) = λ(ρ² − v²/2)²
Energy components · sampled

All masses are dimensionless within the toy model. The fermion mass is a formula readout; no fermions are numerically evolved.

SELF-CONTAINED RESEARCH DEMONSTRATOR · NO SERVER, DEPENDENCIES OR DATA COLLECTION · NATURAL UNITS (c = ℏ = 1)