Luminosity for laser-electron colliders
B. Manuel Hegelich, Calin I. Hojbota, Lance A. Labun, Ou Z. Labun,, Dung D. Phan

TL;DR
This paper introduces a luminosity concept for laser-electron colliders, optimizing event rates for high-intensity laser experiments and exploring how to maximize collision statistics beyond just increasing field strength.
Contribution
It adapts the collider luminosity concept to laser-electron interactions, providing a method to optimize collision parameters for enhanced event rates in high-intensity laser facilities.
Findings
Luminosity is maximized when laser focal spot size matches the electron bunch core.
Optimal parameters for event rate differ from those maximizing the quantum parameter χ.
The luminosity concept extends to photon-laser and lepton beam-beam collisions.
Abstract
High intensity laser facilities are expanding their scope from laser and particle-acceleration test beds to user facilities and nuclear physics experiments. A basic goal is to confirm long-standing predictions of strong-field quantum electrodynamics, but with the advent of high-repetition rate laser experiments producing GeV-scale electrons and photons, novel searches for new high-energy particle physics also become possible. The common figure of merit for these facilities is the invariant describing the electric field strength in the electron rest frame relative to the ``critical'' field strength of quantum electrodynamics where the vacuum decays into electron-positron pairs. However, simply achieving large is insufficient; discovery or validation requires statistics to distinguish physics from fluctuations. The number of events…
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Taxonomy
TopicsLaser Design and Applications · Advanced Optical Sensing Technologies · Photocathodes and Microchannel Plates
