Bukvić Milan, Milojević Saša, Gajević Sandra, Đorđević Momčilo, Stojanović Blaža
Faculty of Engineering, University of Kragujevac, Sestre Janjić 6, 34000 Kragujevac, Serbia.
Military Academy, University of Defence, Veljka Lukića Kurjaka 33, 11042 Belgrade, Serbia.
Polymers (Basel). 2025 Aug 9;17(16):2187. doi: 10.3390/polym17162187.
Composite materials have been increasingly used in various branches of industry, transport, construction, and medicine-as well as in other sectors of the economy and science-in recent decades. A significant advancement in the improvement of composite material characteristics has been achieved through the use of nanoparticles, which substantially enhance the properties of the base material, whether it is the matrix or the reinforcing phase in hybrid composites. The broad application of polymers and polymer composites in many areas of engineering has had a significant impact on reducing friction and wear, improving the thermal characteristics of individual components and entire technical systems, enhancing electrical conductivity, reducing the specific weight of components, lowering noise and vibration levels, and ultimately decreasing fuel consumption, production costs, and the costs of operation and maintenance of technical systems. This paper explores the potential applications of polymer composites in various assemblies and components of conventional vehicles, as well as in hybrid and electric vehicles. Furthermore, their use in medicine and the defense industry is examined-fields in which some authors believe composites were first pioneered. Finally, aviation represents an indispensable domain for the application of such materials, presenting unique exploitation boundary conditions, including dynamic environmental changes such as variations in temperature, pressure, velocity, and direction, as well as the need for high levels of protection. Future research can be unequivocally focused on the structural and technological advancement of polymer composites, specifically through optimization aimed at reducing waste and lowering production costs.
近几十年来,复合材料已越来越多地应用于工业、交通运输、建筑、医学以及经济和科学的其他领域。通过使用纳米颗粒,复合材料的特性得到了显著改善,纳米颗粒极大地增强了基体材料的性能,无论是混合复合材料中的基体还是增强相。聚合物和聚合物复合材料在许多工程领域的广泛应用,对减少摩擦和磨损、改善单个部件和整个技术系统的热特性、提高导电性、降低部件比重、降低噪音和振动水平,并最终降低燃料消耗、生产成本以及技术系统的运行和维护成本产生了重大影响。本文探讨了聚合物复合材料在传统车辆的各种组件和部件中的潜在应用,以及在混合动力和电动汽车中的应用。此外,还研究了它们在医学和国防工业中的应用——一些作者认为复合材料最早就是在这些领域得到应用的。最后,航空是这类材料应用不可或缺的领域,它呈现出独特的使用边界条件,包括温度、压力、速度和方向等动态环境变化,以及对高水平防护的需求。未来的研究可以明确地聚焦于聚合物复合材料的结构和技术进步,特别是通过旨在减少浪费和降低生产成本的优化来实现。