Abstract

We formulate a model in which a light pointlike composite fermion is obtained dynamically from two heavy relativistic constituents bound by strong, short-range forces with the bound-state mass as low as one-tenth the sum of the constituent masses, while still obtaining the correct Dirac moment for this bound state (a factor of 5 greater than that of the constituents). Other static properties and details of the spectrum are investigated.

Highlights

  • We formulate a model in which a light pointlike composite fermion is obtained dynamically from two heavy relativistic constituents bound by strong, short-range forces with the bound-state mass as low as one-tenth the sum of the constituent masses, while still obtaining the correct Dirac moment for this bound state

  • The idea that leptons and quarks are composites of more fundamental, heavier constituents been recently suggested by ~any authors

  • The most stringent dynamical ones, which we shall take as a guide, are as follows: (i) Absence, to a part in 10', of any nonelectromagnetic Pauli moment for the electron and leptons muon. (ii) must have a

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Summary

Introduction

We formulate a model in which a light pointlike composite fermion is obtained dynamically from two heavy relativistic constituents bound by strong, short-range forces with the bound-state mass as low as one-tenth the sum of the constituent masses, while still obtaining the correct Dirac moment for this bound state (a factor of 5 greater than that of the constituents). Title Deeply bound composite fermion with a dirac magnetic moment Bound Composite Fermion with a Dirac Magnetic Moment Dispersion-relation calculations indicate that the bound state will have a

Results
Conclusion

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