钎焊
材料科学
微观结构
高温合金
钛
扫描电子显微镜
抗剪强度(土壤)
复合材料
陶瓷
冶金
微量分析
复合数
直剪试验
接头(建筑物)
剪切(地质)
合金
工程类
建筑工程
环境科学
化学
有机化学
土壤科学
土壤水分
标识
DOI:10.1088/2053-1591/ad6bf5
摘要
Abstract IN600 superalloy and SiC ceramics has been conducted using an active AgCuTi filler, and the composite joints were characterized using scanning electron microscopy coupled with energy-dispersive x-ray spectrometry (SEM–EDS). The results demonstrate successful joining by carefully selecting brazing temperatures and holding times to produce high-integrity joints. The interfacial microanalysis revealed the formation of TiC and Ti 5 Si 3 near the SiC side due to the reaction between titanium, carbon, and silicon. On the IN600 superalloy side, a Ti-Ni compound (TiNi 3 ) was formed as a result of titanium reacting with nickel. The typical microstructure of the brazing joint interface includes: TiC+TiNi 3 , TiC, Cu(s,s)+Ag(s,s) and TiC+Ti 5 Si 3 . Furthermore, the shear strength evaluation of the joints was also conducted at ambient temperatures using a shear test. The experimental findings showed that the sample exhibited the highest shear strength (38 MPa) when subjected to brazing at 910 °C for 10 min. Fracture occurred at the interface between the base material and AgCuTi filler at higher brazing temperature (930 °C).
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