活性钨合金设计制备、力学性能及冲击释能特性的研究进展OA

Reactive tungsten alloys represent a class of metallic energetic structural materials featuring tungsten as a high-density framework reinforced with reactive elements such as Zr and Ti,thereby offering synergistic potential for high-strength load-bearing,kinetic penetration,and shock-induced energy release.This review systematically addresses the compositional de-sign and fabrication methods of reactive tungsten alloys,surveys their typical microstructural characteristics and structure-property relationships,and summarizes penetration behavior and energy release characterization techniques under high-velocity impact conditions.Finally,integrating the need for composition-microstructure-property correlation,future re-search priorities encompass machine learning-enabled intelligent multi-objective design,development of large-scale component forming technologies with scale-up processing,and in-depth elucidation of multiscale constitutive modeling and penetration-energy release mechanisms,aiming to provide theoretical guidance for the development and engineering implemen-tation of high-performance reactive tungsten alloys.