分级材料开发的案例研究

Wei Chen, Alexandre Cachinhasky, Chad Yates, M. Anisimov, John Speights, James L. Overstreet, A. Avagliano
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引用次数: 0

摘要

在广泛的石油和天然气应用中,碳化钨堆焊具有优异的耐磨性。然而,对于复杂几何形状的设计,通常需要在制造稳健性和基于传统沉积工艺有限选择的服务生命周期之间进行权衡。在具有多材料进给能力的集成数控多轴加工中心中,研制了一种基于激光定向能沉积(L-DED)的增材制造功能梯度碳化钨。采用实验设计(DOE)对关键工艺参数进行了优化。梯度结构可以降低裂纹密度。L-DED碳化钨涂层的腐蚀性能与商用高速空气燃料(HVAF)碳化钨涂层相当。研究表明,基于l - d的梯度材料策略可以显著提高制造过程的鲁棒性和预期的使用可靠性。它开辟了涉及其他硬材料,过渡材料,按厚度和/或按位置分级策略的机会。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Case Study for Graded Material Development
Tungsten carbide hardfacing offers superior wear resistance in a wide range of oil and gas applications. However, for designs of complex geometries, trade-offs often need to be made between manufacturing robustness and service lifecycle based on limited choices of conventional deposition processes. An additive manufacturing (AM) functionally graded tungsten carbide using laser directed energy deposition (L-DED) is developed in an integrated numerically controlled multi-axis machining center with multi-material feeding capability. Essential process parameters are optimized using design of experiment (DOE). Graded structure is shown to reduce crack density. Erosion performance of the L-DED tungsten carbide is on par with commercial high velocity air fueled (HVAF) tungsten carbide coating. The study demonstrates that L-DED-based graded material strategy can significantly improve the robustness of the fabrication process and the expected service reliability. It opens up opportunities involving other hard materials, transition materials, grading strategy by thickness and/or by location.
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