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Deposition and Boron Doping of Nano-Crystalline Diamond Thin Films on Poly-Crystalline Diamond Thick Films 被引量:1

Deposition and Boron Doping of Nano-Crystalline Diamond Thin Films on Poly-Crystalline Diamond Thick Films
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摘要 Boron-doped nano-crystalline diamond (NCD) thin films have been successfully deposited on well-polished poly-crystalline diamond (PCD) thick films in a microwave plasma enhanced chemical vapor deposition (MPCVD) reactor for the first time. Different surface pretreatment techniques are carried out under different gas conditions (CH4, H2, Ar, and CH4/H2) to eliminate the effect of grain boundaries on the growth of a smooth NCD intrinsic layer. Well doped NCD films have been fabricated in CH4/H2/B2H6 plasma by varying the atomic ratio of B/C and the substrate temperature. Atomic force microscopy (AFM) results show that pretreatment in pure CH4 plasma at 1000℃ is most effective for NCD growth, while hydrogen containing plasma is harmful to the surface smoothness of NCD thin fihns. Doping research indicates that the optimum parameters for the boron-doping of high-quality NCD thin films are B/C=300 ppm (10-6) and 800℃. Boron-doped nano-crystalline diamond (NCD) thin films have been successfully deposited on well-polished poly-crystalline diamond (PCD) thick films in a microwave plasma enhanced chemical vapor deposition (MPCVD) reactor for the first time. Different surface pretreatment techniques are carried out under different gas conditions (CH4, H2, Ar, and CH4/H2) to eliminate the effect of grain boundaries on the growth of a smooth NCD intrinsic layer. Well doped NCD films have been fabricated in CH4/H2/B2H6 plasma by varying the atomic ratio of B/C and the substrate temperature. Atomic force microscopy (AFM) results show that pretreatment in pure CH4 plasma at 1000℃ is most effective for NCD growth, while hydrogen containing plasma is harmful to the surface smoothness of NCD thin fihns. Doping research indicates that the optimum parameters for the boron-doping of high-quality NCD thin films are B/C=300 ppm (10-6) and 800℃.
出处 《Plasma Science and Technology》 SCIE EI CAS CSCD 2012年第10期905-908,共4页 等离子体科学和技术(英文版)
基金 supported by National Natural Science Foundation of China(No.11175137) the Research Fund of Hubei Provincial Department of Education of China(No.Q20081505) the Research Fund of Wuhan Institute of Technology of China(No.11111051)
关键词 microwave plasma chemical vapor deposition diamond films NANOMATERIALS microwave plasma chemical vapor deposition diamond films nanomaterials
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