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arXiv · hep-ph/0509002

Dynamically Warped Theory Space and Collective Supersymmetry Breaking

Abstract

We study deconstructed gauge theories in which a warp factor emerges dynamically and naturally. We present nonsupersymmetric models in which the potential for the link fields has translational invariance, broken only by boundary effects that trigger an exponential profile of vacuum expectation values. The spectrum of physical states deviates exponentially from that of the continuum for large masses; we discuss the effects of such exponential towers on gauge coupling unification. We also present a supersymmetric example in which a warp factor is driven by Fayet-Iliopoulos terms. The model is peculiar in that it possesses a global supersymmetry that remains unbroken despite nonvanishing D-terms. Inclusion of gravity and/or additional messenger fields leads to the collective breaking of supersymmetry and to unusual phenomenology.

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BibTeXRIS

Christopher D. Carone, Joshua Erlich, Brian Glover. 2005-09-06. Dynamically Warped Theory Space and Collective Supersymmetry Breaking. https://doi.org/10.1088/1126-6708%2F2005%2F10%2F042

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