1) B4C-C coating
富碳B4C涂层
1.
Meanwhile, dense and smooth B4C-C coating with thickness of 2 ~3μm was also deposited on SiC surface at 1180 - .
仅采用BCl3及CH4作为CVD涂层工艺反应气体,在1180-1250℃即可沉积出表面光滑致密,厚度2—3mm的富碳B4C涂层,涂层后纤维性能可提高10％左右,且涂层与纤维结合强度很高,优于B4C 涂层与SiC纤维的结合强度。
2) B4C coating
B4C涂层
1.
B4C coating on the W core SiC fibers were prepared via a CVD process.
采用CVD工艺在W芯SiC纤维表面涂覆B4C涂层,通过扫描电镜和纤维拉伸测试研究沉积温度和走丝速度对W芯SiC纤维拉伸强度和B4C涂层厚度、表面形貌的影响规律。
2.
B4C coatings on the W core SiC fibers were prepared via a Chemical Vapor Deposition (CVD) process in order to improve the interfacial reaction between the reinforcement W core SiC fiber and the matrix Ti alloy.
采用化学气相沉积(CVD)工艺在W芯SiC纤维表面沉积B4C涂层,以改善增强体W芯SiC纤维与基体Ti合金两者之间的界面反应。
3) epoxy zinc-rich primer
富Zn涂层
1.
The effect of zinc powder content and contamination of epoxy zinc-rich primer/substrate interface on the protective performance of the zinc-rich coatings was investigated by means of electrochemical impedance spectroscopy (EIS) and corrosion potential monitoring .
采用腐蚀电位、电化学阻抗谱(EIS)评价了Zn粉含量以及涂层/基体界面污染程度对环氧富Zn涂层的防腐蚀性能的影响并探索了富Zn涂层的失效机制。
4) zinc-rich powder coating
富锌涂层
1.
The effects of zinc-rich powder coating and cathodic protection on the sensitivities to stress corrosion cracking(SCC) of X80 and 16Mn steels were investigated using dynamic slow strain rate test(SSRT) in weak acidic environment.
为加强对油气管线钢腐蚀失效机理的认识,采用动态慢应变速率拉伸试验(SSRT),研究了弱酸性环境中富锌涂层与阴极保护对16Mn和X80 2种不同强度级别管线钢应力腐蚀开裂(SCC)敏感性的影响,探讨了2种管线钢的SCC机理。
5) magnesium-rich coating
富镁涂层
6) boron carbide
碳化硼(B4C)
补充资料：氟碳涂层铝合金装饰板制成的铝合金幕墙建筑物
氟碳涂层铝合金装饰板制成的铝合金幕墙建筑物
J氟碳涂层铝合金装饰板制成的铝合金幕墙建筑物
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条