A Bayesian Framework to Investigate Radiation Reaction in Strong Fields

E. E. LosImperial College London, C. ArranUniversity of York, E. GerstmayrImperial College LondonQueens University BelfastSLAC National Accelerator Laboratory, M. J. V. StreeterQueens University Belfast, Z. NajmudinImperial College London, C. P. RidgersUniversity of York, G. SarriQueens University Belfast, S. P. D ManglesImperial College London
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Abstract

Recent experiments aiming to measure phenomena predicted by strong field quantum electrodynamics have done so by colliding relativistic electron beams and high-power lasers. In such experiments, measurements of the collision parameters are not always feasible, however, precise knowledge of these parameters is required for accurate tests of strong-field quantum electrodynamics. Here, we present a novel Bayesian inference procedure which infers collision parameters that could not be measured on-shot. This procedure is applicable to all-optical non-linear Compton scattering experiments investigating radiation reaction. The framework allows multiple diagnostics to be combined self-consistently and facilitates the inclusion of prior or known information pertaining to the collision parameters. Using this Bayesian analysis, the relative validity of the classical, quantum-continuous and quantum-stochastic models of radiation reaction were compared for a series of test cases, which demonstrate the accuracy and model selection capability of the framework and and highlight its robustness in the event that the experimental values of fixed parameters differ from their values in the models.
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研究强场辐射反应的贝叶斯框架
最近,一些旨在测量强场量子电动力学所预言现象的实验是通过相对论电子束和高功率激光器的碰撞来实现的。在这类实验中,对碰撞参数的测量并不总是可行的,然而,要准确地测试强场量子电动力学,就必须精确了解这些参数。在这里,我们提出了一种新颖的贝叶斯推理程序,它可以推导出无法在现场测量的碰撞参数。该程序适用于研究辐射反应的全光非线性康普顿散射实验。该框架允许将多种诊断自洽地结合在一起,并便于纳入与碰撞参数有关的先验或已知信息。利用这种贝叶斯分析方法,在一系列测试案例中比较了辐射反应的经典模型、量子连续模型和量子随机模型的相对有效性,证明了该框架的准确性和模型选择能力,并突出了其在固定参数的实验值与模型值不同时的稳健性。
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