Influence of Annealed Aluminum Properties on Adhesion Bonding of Cold Sprayed Titanium Dioxide Coating

N. Omar, M. Yamada, T. Yasui, M. Fukumoto
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Abstract

It is well known that cold spraying ceramic materials can be difficult because cold spraying requires plastic deformation of the feedstock particles for adhesion to the substrate. The challenge lies in the difficulty of plastically deforming hard and brittle ceramic materials, such as TiO2. Previous studies have reported the possibility of cold spraying thick pure TiO2 but the bonding mechanism of cold sprayed TiO2 is not fully understood. The factor like substrate condition as oxide film thickness and mechanical properties may also affect cold spray deposition but not fully understood in cold spraying ceramic. The aim of the present research is to investigate the correlation between the oxide thickness and substrate deformation with the adhesion strength of cold-sprayed TiO2 coatings toward the bonding mechanism involved. Relevant experiments were executed using Al 1050, subjected to various annealing temperatures and cold-sprayed with TiO2 powder. The results indicate a decreasing trend of coating adhesion strength with increasing annealed substrate temperature from room temperature to 400°C annealed. Metallurgical bonding is pronounced as bonding mechanism involved between TiO2 particle and annealed 1050 substrate.
退火铝性能对冷喷涂二氧化钛涂层粘接性能的影响
众所周知,冷喷涂陶瓷材料可能是困难的,因为冷喷涂需要原料颗粒的塑性变形以粘附在基材上。挑战在于难以对硬脆陶瓷材料(如TiO2)进行塑性变形。以往的研究报道了冷喷涂厚纯TiO2的可能性,但冷喷涂TiO2的键合机制尚不完全清楚。基材条件如氧化膜厚度和力学性能等因素也会影响冷喷涂沉积,但在冷喷涂陶瓷中尚未完全了解。本研究的目的是探讨氧化层厚度、基体变形与冷喷涂TiO2涂层粘附强度之间的关系,探讨其粘附机理。实验以Al 1050为材料,在不同退火温度下冷喷涂TiO2粉末。结果表明:从室温退火到400℃退火,随着退火基体温度的升高,涂层的结合强度呈下降趋势;冶金键合是TiO2颗粒与退火1050衬底之间的键合机制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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