目前，部分TiZr基高熵合金由于大量脆性相的析出，呈现出强塑性难以平衡的问题，阻碍了合金作为复杂 构件材料的工程应用。利用激光定向能量沉积技术基于混合元素法及非平衡快速凝固特性，实现成分设计的独特 优势。 通过调整TiZr基高熵合金主元成分，实现了非等原子比Ti39 Zr39 Nb11 Mo5.5 V5.5的致密成形，并获得了无金属间化合 物等脆性相析出的单相固溶体合金。 合金呈现出优异的塑性变形能力，其压缩应变超过了50%，而50%应变率时 的压缩应力达2194MPa。 进一步分析表明，固溶强化是合金呈现较高强度的关键，其对屈服强度的贡献超过了 75%。

 Currently, some TiZr-based high-entropy alloys have difficulty balancing strength and plasticity because of the large amount of brittle precipitation. This limitation hinders their engineering application as structural materials for complex components. Laser-directed energy deposition (LDED) technology provides unique advantages in composition design through the mixed element method and rapid nonequilibrium solidification. Therefore, the primary elements of the TiZr-based high-entropy alloys in this study were adjusted, leading to the achievement of a nonequiatomic Ti39 Zr39 Nb11 Mo5.5 V5.5 alloy with high relative density via LDED. Furthermore, a single-phase solid solution was obtained without the precipitation of brittle phases. The alloy exhibits excellent plastic deformation capability, with a compressive strain exceeding 50%. At a strain rate of 50%, the compressive stress reaches 2 194 MPa. Solid solution strengthening contributes approximately 75% of the yield strength, which is crucial to the high strength of the alloy.