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    <identifier>10.57760/sciencedb.37520</identifier>
    <datestamp>2026-05-18T09:37:33Z</datestamp>
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  <dc:date>2026-05-18</dc:date>
  <dc:title>Data set for Study of the Dynamical Behavior of Solitons Crossing Barriers/Traps in One-Dimensional Nonlinear Schr&amp;ouml;dinger Equation Based on Physics-Informed Neural Networks</dc:title>
  <dc:identifier>doi:10.57760/sciencedb.37520</dc:identifier>
  <dc:language>en</dc:language>
  <dc:description>This dataset contains all CSV files generated by the accompanying numerical code, serving as the complete data source for every figure (Figure 1 through Figure 28) presented in the Bachelor's Thesis titled &amp;quot;Study of the Dynamical Behavior of Solitons Crossing Barriers/Traps in One-Dimensional Nonlinear Schr&amp;ouml;dinger Equation Based on Physics-Informed Neural Networks&amp;ldquo;. The files document the entire computational workflow, including training loss evolution, adaptive weights, PINN-predicted wavefunction fields (amplitude, density, real part, imaginary part, phase), SSFM reference solutions, error heatmaps and time histories, scatter comparisons, spectra, phase portraits, conservation-law verification (mass, energy, momentum, periodic consistency, kurtosis), transmission/reflection/capture coefficients, dynamical phase maps, potential-well capture curves, inverse-problem parameter‐retrieval errors, and PDE residual distributions. Each CSV corresponds directly to a specific figure in the thesis, thereby ensuring full reproducibility of all reported quantitative analyses and visualizations.Figure               CSV file	                       DescriptionFigure 1	training_loss.csv	Total loss function versus training epoch.Figure 2	training_loss_components.csv	Individual loss components (L_ic, L_bc, L_pde, L_mass, L_energy) versus epoch.Figure 3	adaptive_weights.csv	Adaptive loss weights (&amp;lambda;_ic, &amp;lambda;_bc, &amp;lambda;_pde, &amp;lambda;_mass, &amp;lambda;_energy) versus adaptation step.Figure 4	potential_profile.csv	Spatial profile of the Gaussian barrier V(x).Figure 5	heatmap_amp_values.csv	Spatiotemporal heatmap of PINN-predicted wavefunction amplitude |u|.Figure 6	heatmap_den_values.csv	Spatiotemporal heatmap of PINN-predicted density |u|&amp;sup2;.Figure 7	heatmap_real_values.csv	Spatiotemporal heatmap of PINN-predicted real part Re(u).Figure 8	heatmap_imag_values.csv	Spatiotemporal heatmap of PINN-predicted imaginary part Im(u).Figure 9	heatmap_phase_values.csv	Spatiotemporal heatmap of PINN-predicted phase (range [&amp;minus;&amp;pi;, &amp;pi;]).Figure 10	ssfm_heatmap_amp_values.csv	Spatiotemporal heatmap of the SSFM reference amplitude |u|.Figure 11	error_heatmap_diff.csv	Spatiotemporal absolute amplitude error |u_PINN &amp;minus; u_SSFM|.Figure 12	error_metrics_time.csv	Relative L&amp;sup2; error and L&amp;infin; error as functions of time t.Figure 13	scatter_pinn_vs_ssfm.csv	Scatter-plot data: PINN-predicted versus SSFM reference amplitude at randomly selected space&amp;ndash;time points.Figure 14	spectrum_tfinal.csv	Fourier spectrum |&amp;Ucirc;(k)| at the final time, from both PINN and SSFM.Figure 15	phase_portrait_tfinal.csv	Phase portrait in the complex plane at the final time (Re(u), Im(u), |u|).Figure 16	probability_over_time.csv	Total mass P(t) = &amp;int;|u|&amp;sup2; dx versus time (mass conservation verification).Figure 17	energy_over_time.csv	Total energy H(t) versus time (energy conservation verification).Figure 18	momentum_over_time.csv	Momentum P(t) versus time.Figure 19	periodic_consistency.csv	Periodic boundary-condition consistency: |&amp;Delta;u| and |&amp;Delta;u_x| across the boundaries versus time.Figure 20	kurtosis_over_time.csv	Kurtosis coefficient K(t) versus time.Figure 21	trans_reflect_capture.csv	Time evolution of the transmission T, reflection R, capture C coefficients and their sum T+R+C.Figure 22	T_R_C_vs_V0_data.csvT_vs_V0_fit.csv	Raw final-transmission data points for different barrier heights V0 (first file); dense points on the logistic fit curve (second file).Figure 23	phase_map_data.csv	Dynamical phase-map data: transmission T from (V0, v) parameter scans (also used for Figure 24).Figure 24	(same) phase_map_data.csv	The label field classifies the dynamics (transmission, reflection, capture, splitting) for the classification phase map.Figure 25	well_trans_reflect_capture.csv	Time evolution of T, R, C for the potential-well case (capture coefficient C(t) is highlighted in the thesis).Figure 26	inverse_errors_vs_Nobs.csv	Inversion errors (mean &amp;plusmn; std) for V0, w, xc versus the number of observation points N_obs, including failure rate.Figure 27	residual_cloud.csv	Scatter data of PDE residual magnitude at training collocation points (x, t, res).Figure 28	residual_bin_heatmap.csv	Binned average PDE residual heatmap over the space&amp;ndash;time domain (t, x, value).</dc:description>
  <dc:subject>soliton; PINN; nonlinear Schrödinger equation</dc:subject>
  <dc:creator>Yuxin Wang</dc:creator>
  <dc:creator>Peng Yue</dc:creator>
  <dc:rights>PUBLIC</dc:rights>
  <dc:rights>https://creativecommons.org/licenses/by/4.0/</dc:rights>
  <dc:type>dataset</dc:type>
  <dc:publisher>Science Data Bank</dc:publisher>
</oai_dc:dc>

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