2026-10-14T20:35:38Z https://www.scidb.cn/oai

10.57760/sciencedb.44598 2026-08-03T17:13:00Z

2026-08-03 The data of the article "Study of Optomechanical Properties in the Multiphoton Interaction between Femtosecond Laser Fields and Atoms" doi:10.57760/sciencedb.44598 en Raw Dataset Description for All Figures (Fig. 1–Fig. 8) and the Abstract Figure (Fig_abstract) in the Paper Titled "Study of Optomechanical Properties in the Multiphoton Interaction between Femtosecond Laser Fields and Atoms"The folder "..\original_figures" stores the original PDF figures for each figure in the paper.Figure 1 is a schematic energy‑level diagram, drawn using Word.Figures 2–8 present the main data of the paper, and their corresponding raw data are saved in the folder "..\original_data".The data for Figures 2–8 and the abstract figure are all generated by MATLAB programs, and each data file can be read using Origin. Data file descriptions for Figure 2:File: "..\original_data\fig2\ x_t_F_I_w1.csv", \omega=\omega_1, Column 1: time t, Column 2: transverse force Fr(t), Column 3: transverse impulse Ir(t), Column 4: longitudinal force Fz(t), Column 5: longitudinal impulse Iz(t); corresponds to fig2(a1)-fig2(a2).File: "..\original_data\fig2\ x_t_ρ_w1.csv", \omega=\omega_1, Column 1: time t, Column 2: ground state 0 population \rho_{00}(t), Column 3: intermediate state 1 population \rho_{11}(t), Column 4: state 2 population \rho_{22}(t), Column 5: \rho_{11}(t) + \rho_{22}(t), Column 6: longitudinal impulse Iz(t); corresponds to fig2(a3)-fig2(a4).File: "..\original_data\fig2\ x_t_F_I_w2.csv", \omega=\omega_2, Column 1: time t, Column 2: transverse force Fr(t), Column 3: transverse impulse Ir(t), Column 4: longitudinal force Fz(t), Column 5: longitudinal impulse Iz(t); corresponds to fig2(b1)-fig2(b2).File: "..\original_data\fig2\ x_t_ρ_w2.csv", \omega=\omega_2, Column 1: time t, Column 2: ground state 0 population \rho_{00}(t), Column 3: intermediate state 1 population \rho_{11}(t), Column 4: state 2 population \rho_{22}(t), Column 5: \rho_{11}(t) + \rho_{22}(t), Column 6: longitudinal impulse Iz(t); corresponds to fig2(b3)-fig2(b4).File: "..\original_data\fig2\ x_t_F_I_w3.csv", \omega=\omega_3, Column 1: time t, Column 2: transverse force Fr(t), Column 3: transverse impulse Ir(t), Column 4: longitudinal force Fz(t), Column 5: longitudinal impulse Iz(t); corresponds to fig2(c1)-fig2(c2).File: "..\original_data\fig2\ x_t_ρ_w3.csv", \omega=\omega_3, Column 1: time t, Column 2: ground state 0 population \rho_{00}(t), Column 3: intermediate state 1 population \rho_{11}(t), Column 4: state 2 population \rho_{22}(t), Column 5: \rho_{11}(t) + \rho_{22}(t), Column 6: longitudinal impulse Iz(t); corresponds to fig2(c3)-fig2(c4). Data file descriptions for Figure 3:File: "..\original_data\fig3\ x_E0_I_319.csv", Column 1: incident pulse electric field peak E0, Column 2: transverse impulse Ir(E0), Column 3: longitudinal impulse Iz(E0); corresponds to the \omega=\omega_1 case in fig3.File: "..\original_data\fig3\ x_E0_I_242.csv", Column 1: incident pulse electric field peak E0, Column 2: transverse impulse Ir(E0), Column 3: longitudinal impulse Iz(E0); corresponds to the \omega=\omega_2 case in fig3.File: "..\original_data\fig3\ x_E0_I_106.csv", Column 1: incident pulse electric field peak E0, Column 2: transverse impulse Ir(E0), Column 3: longitudinal impulse Iz(E0); corresponds to the \omega=\omega_3 case in fig3. Data file descriptions for Figure 4:File: "..\original_data\fig4\ x_E0_ρ_319.csv", Column 1: incident pulse electric field peak E0, Column 2: ground state 0 population \rho_{00}(E0), Column 3: intermediate state 1 population \rho_{11}(E0), Column 4: state 2 population \rho_{22}(E0); corresponds to fig4(a).File: "..\original_data\fig4\ x_E0_ρ_242.csv", Column 1: incident pulse electric field peak E0, Column 2: ground state 0 population \rho_{00}(E0), Column 3: intermediate state 1 population \rho_{11}(E0), Column 4: state 2 population \rho_{22}(E0); corresponds to fig4(b).File: "..\original_data\fig4\ x_E0_ρ_106.csv", Column 1: incident pulse electric field peak E0, Column 2: ground state 0 population \rho_{00}(E0), Column 3: intermediate state 1 population \rho_{11}(E0), Column 4: state 2 population \rho_{22}(E0); corresponds to fig4(c). Data file descriptions for Figure 5:File: "..\original_data\fig5\ x_pi_319_I.csv", Column 1: incident pulse electric field single‑photon area \theta_1, Column 2: longitudinal impulse Iz; corresponds to fig5(a).File: "..\original_data\fig5\ x_pi_242.csv", Column 1: incident pulse electric field two‑photon area \theta_2, Column 2: longitudinal impulse Iz; corresponds to fig5(b). Data file descriptions for Figure 6:File: "..\original_data\fig6\ x_E0_I_319_105.csv", \omega=1.05\omega_1, Column 1: incident pulse electric field peak E0, Column 2: transverse impulse Ir, Column 3: longitudinal impulse Iz; corresponds to the \omega=1.05\omega_1 case in fig6. Other files named "..\original_data\fig6\ x_E0_I_319_XYZ.csv" in this folder are similar, corresponding to the \omega=X.YZ*\omega_1 cases in fig6(a)-(b).File: "..\original_data\fig6\ x_E0_I_242_105.csv", \omega=1.05\omega_2, Column 1: incident pulse electric field peak E0, Column 2: transverse impulse Ir, Column 3: longitudinal impulse Iz; corresponds to the \omega=1.05\omega_2 case in fig6. Other files named "..\original_data\fig6\ x_E0_I_106_XYZ.csv" in this folder are similar, corresponding to the \omega=X.YZ*\omega_2 cases in fig6(a)-(b).File: "..\original_data\fig6\ x_E0_I_106_105.csv", \omega=1.05\omega_3, Column 1: incident pulse electric field peak E0, Column 2: transverse impulse Ir, Column 3: longitudinal impulse Iz; corresponds to the \omega=1.05\omega_3 case in fig6. Other files named "..\original_data\fig6\ x_E0_I_106_XYZ.csv" in this folder are similar, corresponding to the \omega=X.YZ*\omega_3 cases in fig6(a)-(b). Data file descriptions for Figure 7:File: "..\original_data\fig7\ omega_E0_Ir.csv", Column 1: incident pulse electric field carrier frequency \omega, Column 2: incident pulse electric field peak E0, Column 3: transverse impulse Ir; corresponds to fig7(a) and abstract figure fig_abstract(a).File: "..\original_data\fig7\ omega_E0_Iz.csv", Column 1: incident pulse electric field carrier frequency \omega, Column 2: incident pulse electric field peak E0, Column 3: longitudinal impulse Iz; corresponds to fig7(b) and abstract figure fig_abstract(b).File: "..\original_data\fig7\ omega_E0_Rho00csv", Column 1: incident pulse electric field carrier frequency \omega, Column 2: incident pulse electric field peak E0, Column 3: level 0 population \rho_{00}; corresponds to fig7(c).File: "..\original_data\fig7\ omega_E0_Rho11csv", Column 1: incident pulse electric field carrier frequency \omega, Column 2: incident pulse electric field peak E0, Column 3: level 1 population \rho_{11}; corresponds to fig7(d).File: "..\original_data\fig7\ omega_E0_Rho22csv", Column 1: incident pulse electric field carrier frequency \omega, Column 2: incident pulse electric field peak E0, Column 3: level 2 population \rho_{22}; corresponds to fig7(e). Data file descriptions for Figure 8: File: "..\original_data\fig8\ U_r_0.50.csv", Column 1: transverse distance from the optical axis r, Column 2: optical potential U; corresponds to the case with carrier frequency \omega=0.50rad/fs in fig8. Other files named "..\original_data\fig8\ U_r_X.YZ.csv" in this folder are similar, with Column 1: transverse distance from the optical axis r, Column 2: optical potential U, corresponding to the cases with carrier frequency \omega=X.YZ rad/fs in fig8, respectively. atomic optics; optical dipole force; multiphoton interaction; cascade three-level atomic system Xie Yuanhao Yuan Rui Wang Jian Yuan Shuo Zhang Man Li Tengfei Chang Yajie Wang Jian liu ji cai RESTRICTED dataset http://www.doi.org/10.7498/aps.75.20260758 Science Data Bank