Chemical catalysts of Fenton reaction for single-crystal SiC based on nanoindentation

Liang Huazhuo, Jiabin Lu, Q. Yan, Taowen Song
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引用次数: 0

Abstract

Aiming at production of single-crystal SiC for chemical mechanical polishing, Fenton reaction, and catalytic efficiency of FeSO4, Fe2(SO4)3, FeO, Fe3O4, and Fe2O3 were studied. The mechanical properties are obtained by nanoindentation experiments. Different catalysts can promote Fenton reaction, and all reaction layers formed with the same chemical composition, atomic structure, and hardness at 1.5 GPa. When Fe3O4 was used as catalyst in Fenton reaction, the effect was optimal because its hardness and modulus remained low. After 2 min, the thickness of reaction layer had reached 200 nm, which can fully meet requirements of CMP. Fenton reaction depends on ability of catalyst to ionise Fe2+. The higher concentration of Fe2+, the higher concentration of OH, and the faster reaction rate of SiC surface material.
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基于纳米压痕的单晶SiC Fenton反应化学催化剂
针对化学机械抛光单晶SiC的生产,研究了FeSO4、Fe2(SO4)3、FeO、Fe3O4和Fe2O3的Fenton反应及其催化效率。通过纳米压痕实验获得了力学性能。不同的催化剂可以促进芬顿反应,并且在1.5GPa下形成具有相同化学组成、原子结构和硬度的所有反应层。在Fenton反应中使用Fe3O4作为催化剂时,由于其硬度和模量较低,效果最佳。2min后,反应层厚度达到200nm,完全可以满足CMP的要求。芬顿反应取决于催化剂电离Fe2+的能力。Fe2+的浓度越高,OH的浓度就越高,SiC表面材料的反应速率就越快。
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来源期刊
International Journal of Abrasive Technology
International Journal of Abrasive Technology Engineering-Industrial and Manufacturing Engineering
CiteScore
0.90
自引率
0.00%
发文量
13
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