标题： 分子组成和链长对环形和线形聚合物共混物界面和热力学性质的影响 显示英文标题

标题： Effects of Molecular Composition and Chain Length on the Interfacial and Thermodynamic Properties of Cyclic and Linear Polymer Blends

摘要： 这项研究论文全面探讨了分子量和链结构对环状和线性聚合物共混物界面和热力学性质的影响。 利用Kremer-Grest珠-弹簧模型，该研究仔细研究了这些聚合物在聚合物-壁面界面的行为，特别关注它们的吸附特性和热属性。 通过展示聚合物流体的比热容和热稳定性，该研究不仅加深了对聚合物系统中这些关键因素的理解，还突出了与聚合物降解相关的更广泛的环境影响。 该研究考察了分子设计参数与功能性的复杂相互作用，揭示了聚合物结构的变化如何导致性能和稳定性的显著变化。 此外，它还考察了提高聚合物生命周期性能的潜力，着眼于开发能够最小化环境影响的更可持续材料。 通过这一探索，该研究旨在提供有价值的见解，有助于关于优化聚合物配方以实现更绿色未来的持续讨论，为材料科学中面向可持续应用的创新奠定基础。 从这项调查中获得的见解有可能指导未来的研究方向和材料设计策略，最终支持创建不仅性能优异而且环保的聚合物。 通过整合对这些关系的深入理解，这项工作旨在为聚合物科学的发展奠定基础，鼓励与技术和生态责任相一致的进展。 显示英文摘要

摘要： This research paper comprehensively explores the effects of molecular weight and chain architecture on the interfacial and thermodynamic properties of cyclic and linear polymer blends. Utilizing the Kremer-Grest bead-spring model, the study meticulously investigates how these polymers behave at the polymer-wall interface, with a specific emphasis on their adsorption characteristics and thermal attributes. By showing the heat capacity and thermal stability of polymeric fluids, the research not only advances the understanding of these critical factors within polymer systems but also highlights the broader environmental implications associated with polymer degradation. The study examines the intricate interaction between molecular design parameters and functionality, revealing how variations in polymer architecture can lead to significant changes in performance and stability. Furthermore, it examines the potential for enhancing the lifecycle performance of polymers, with an eye toward the development of more sustainable materials capable of minimizing environmental impact. Through this exploration, it aims to provide valuable insights that contribute to the ongoing discourse on the optimization of polymer formulations for a greener future, setting the stage for innovations in material science aimed at sustainable applications. The insights gained from this investigation have the potential to inform future research directions and material design strategies, ultimately supporting the creation of polymers that not only perform effectively but are also environmentally friendly. By integrating a thorough understanding of these relationships, this work aspires to lay the groundwork for the evolution of polymer science, encouraging advancements that align with both technological needs and ecological stewardship.