## 4 Discussion
### The Distinction and Contribution of This Study in the Literature  
1. Original Methodological Approach and Application Scope This study advances beyond traditional methods in determining angular differential  
\begin{table}
\begin{tabular}{c c c} \hline \hline
**Feature** & **[PERSON] and [PERSON] [43]** & \multicolumn{2}{c}{**The Microscopic Approach Proposed in This Study (SHF-WS)**} \\ \hline Method & Parametric global OMP & Microscopic: SHF + SF \\ Physical foundation & Systematic fit based on experimental data & Skyrme NN interaction + potential derived from density \\  & Fast and broad (wide mass number and energy & Specific nuclei (\({}^{182}\)W-\({}^{186}\)W), detailed \\  & range) & resolution \\ Computational approach & Fitted parametric functions & Numerical integration from densities (folding) \\ Level of innovation & Innovation lies in scope and parametrization, & Methodological detail and microscopic \\  & not method & foundation \\ \hline \hline \end{tabular}
\end{table}
Table 4: Comparison of global OM by [PERSON] and [PERSON] [43] and microscopic approach proposed in this study.  
cross sections for (n,el) elastic scattering reactions by integrating nucleon densities computed using the Skyrme-interaction-based HF model with a WS potential (SHF-WS), the SF model, and implementing them within the TALYS 1.96 nuclear reaction simulation code. This tripartite approach--SHF-WS + SF + TALYS 1.96--has not been widely adopted in the existing literature.
2. Use of Density-Based Realistic Potentials in Calculations: Whereas studies such as [PERSON] and [PERSON] utilize global OM parameters, this work generates interaction potentials by microscopically calculating nucleon densities through SHF-WS and compares these with the realistic interaction surfaces. This enables the use of more physically grounded potentials that are directly relatable to experimental data.
3. Comprehensive Surface Analysis Across Energies The study evaluates angular differential cross sections for the isotopes \({}^{182,183,184,186}\)W across various energy ranges (1.5-14 MeV), providing separate comparisons for each energy point. This broader energy interval and multi-isotope analysis go beyond many previous studies, which were often limited to a narrow set of energies and isotopes.
4. High Agreement of Simulation Results with Experimental Data When compared with experimental results from the EXFOR database, the study produced highly consistent outcomes, particularly at forward scattering angles and in intermediate energy ranges. This consistency demonstrates the accuracy and validity of the employed model and indicates that it yields more reliable results than traditional models such as that of [PERSON] and [PERSON] [43].
5. Filling a Gap in the Literature The contributions of this study stand out in the following ways: * To date, an integrated approach combining nucleon densities calculated using the SHF-WS model for tungsten isotopes, folded into potentials via the SF method, and subsequently used in (n,el) scattering simulations with TALYS 1.96, has not been applied in the literature. * This method goes beyond theoretical modeling by enabling direct comparison with experimental data, thereby enhancing the reliability of the simulations. * In this regard, the study serves as an interdisciplinary example that bridges theoretical nuclear physics with applied simulation technologies.