A Generalized Equivalence Principle
arXiv:gr-qc/0004054 · doi:10.1142/S0218271800000694
Abstract
Gauge field theories may quite generally be defined as describing the coupling of a matter-field to an interaction-field, and they are suitably represented in the mathematical framework of fiber bundles. Their underlying principle is the so-called gauge principle, which is based on the idea of deriving the coupling structure of the fields by satisfying a postulate of local gauge covariance. The gauge principle is generally considered to be sufficient to define the full structure of gauge-field theories. This paper contains a critique of this usual point of view: firstly, by emphazising an gauge theoretic conventionalism which crucially restricts the conceptual role of the gauge principle and, secondly, by introducing a new generalized equivalence principle - the identity of inertial and field charge (as generalizations of inertial and gravitational mass) - in order to give a conceptual justification for combining the equations of motion of the matter-fields and the field equations of the interaction-fields.
References in corpus (3)
Cited by in corpus (7)
- Gauge Symmetries, Symmetry Breaking, and Gauge-Invariant Approaches
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- Fiber Bundle Gauge Theories and "Field's Dilemma"
- On the Equivalence of Phase and Field Charges
- C. F. von Weizsaecker's Reconstruction of Physics: Yesterday, Today, Tomorrow
- Über die Beziehung der begrifflichen Grundlagen der Quantentheorie und der Allgemeinen Relativitätstheorie
- The Principles of Gauging