DOI: 10.4231/w4qy-zb66
title: Data for Interference in nonlinear Compton scattering using a Schrodinger-equation approach

description: &lt;p&gt;&lt;span dir="ltr" role="presentation" style="left: 186.61px; top: 317.781px; font-size: 14.944px; font-family: serif; transform: scaleX(0.999182);"&gt;The interference&lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 186.61px; top: 317.781px; font-size: 14.944px; font-family: serif; transform: scaleX(0.999182);"&gt; between Compton scattering and nonlinear Compton scattering from a two-color field in the &lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 171.67px; top: 336.877px; font-size: 14.944px; font-family: serif; transform: scaleX(1.04553);"&gt;x-ray regime is theoretically examined for bound electrons. The underlying phase shifts are analyzed using &lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 171.67px; top: 355.972px; font-size: 14.944px; font-family: serif; transform: scaleX(1.05715);"&gt;a perturbative approach in the incoming classical field. The perturbative approach is bench marked with a &lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 171.67px; top: 375.068px; font-size: 14.944px; font-family: serif; transform: scaleX(0.994783);"&gt;nonperturbative approach in the classical field. The interference for different combinations of linear polarization &lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 171.67px; top: 394.163px; font-size: 14.944px; font-family: serif; transform: scaleX(0.983352);"&gt;of the two fields is examined when the Compton and the nonlinear Compton scattered waves have the same wave &lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 171.67px; top: 413.259px; font-size: 14.944px; font-family: serif; transform: scaleX(1.00628);"&gt;vector and polarization. Only two cases exhibit interference. When there is interference, the calculations reveal &lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 171.67px; top: 432.354px; font-size: 14.944px; font-family: serif; transform: scaleX(0.992276);"&gt;an intrinsic phase difference between the Compton scattered wave function and the nonlinear Compton scattered &lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 171.67px; top: 451.45px; font-size: 14.944px; font-family: serif; transform: scaleX(0.996257);"&gt;wave function of either 0 or&lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 337.414px; top: 451.45px; font-size: 14.944px; font-family: serif;"&gt; &lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 341.161px; top: 451.321px; font-size: 14.944px; font-family: sans-serif;"&gt;&pi;&lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 350.127px; top: 451.321px; font-size: 14.944px; font-family: sans-serif;"&gt; &lt;/span&gt;&lt;span dir="ltr" role="presentation" style="left: 355.352px; top: 451.45px; font-size: 14.944px; font-family: serif; transform: scaleX(1.00055);"&gt;depending on the scattering angle&lt;/span&gt;.&lt;/p&gt;
description: Data used in the figures of Phys. Rev. A 103, 013111 (2021) with short information in FILE_INFO.txt. Also contains .eps files and gnuplot routines.