GHU Lab

RS anomaly flow and baryon current

Inspect UV and IR anomaly factors from normalized Z-tower wavefunctions and compare gauge cancellation with the baryon-current anomaly.

Control names are kept as they appear in the application. Start with a reference, change one input at a time, and retain the assumptions with your result.

What this tool is for

Use this to separate boundary flow, matter cancellation and global-current physics in the supported warped calculation. Its source papers and independent numerical checks are linked for comparison.

First steps

  1. Choose a Wilson angle, warp factor and Z mode.
  2. Start with complete quark and lepton generations.
  3. Compare boundary contributions with their sum.
  4. Remove a matter generation and observe the gauge factor.

Controls and inputs

ControlMeaningTry this
θH, log₁₀ zL and sin² θW⁰Set the supported warped background and electroweak parameters.Vary the angle at fixed matter content.
mKK [TeV] and Z modeSet the scale and select the zero, first or second excited Z mode.Compare masses and boundary factors across modes.
Quark / lepton generationsControl the matter factors relevant to cancellation.Compare complete and deliberately incomplete content.

Reading the results

ResultMeaning
UV, IR and full anomaly factorsResolve the boundary contributions for the normalized modes.
Gauge factor and baryon matrixAddress different currents and must be interpreted separately.
Quadrature and finite-KK referenceThe former checks numerical normalization; the latter is a fixed published benchmark.

Gauge cancellation and a surviving global baryon-current anomaly are different statements. A nonzero baryon anomaly does not determine a proton lifetime or baryogenesis yield.

Worked example

Separate gauge and baryon anomalies

  1. Use equal complete quark and lepton generations.
  2. Read the vanishing gauge factor and the baryon result.
  3. Remove one lepton generation and compare the gauge factor.

What to expect: The matter cancellation changes as intended; the baryon-current result answers a different question.

Scope and limitations

  • The finite-KK reference has fixed benchmark inputs and does not follow every slider.
  • Quadrature convergence does not certify all physical assumptions.
  • Neither a proton lifetime nor a baryogenesis yield is calculated.

If something is unclear

A reference table stays unchanged while the angle moves.

Read its fixed θH = 0.1 and mKK = 13 TeV benchmark label; use the live flow plot for your current inputs.

Sources and attribution

Current instrument guide. Archived editions retain their own scope.

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