Nanoparticle production using atmospheric pressure cold plasma

被引:42
|
作者
Vons, V.
Creyghton, Y.
Schmidt-Ott, A.
机构
[1] Delft Univ Technol, NL-2628 BL Delft, Netherlands
[2] TNO Def, Secur & Safety, NL-2280 AA Rijswijk, Netherlands
关键词
nanoparticles; nanoparticle coating; generation; dielectric barrier discharge; atmospheric plasma; FERROCENE; DECOMPOSITION; VOLUME;
D O I
10.1007/s11051-006-9133-2
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
A new technique is proposed for the production and coating of nanoparticles, based on the dissociation of a volatile precursor in an atmospheric pressure, non-equilibrium (cold) plasma. The plasma is produced by a dielectric barrier discharge. Using this technique, nanoparticles were successfully produced from acetylene, ferrocene and hexamethyldisiloxane, using argon and helium as carrier gasses. Carbon nanoparticles were formed from acetylene when argon was used as a carrier gas, while in helium no particles were observed. The difference between the gasses is most likely due to the plasma structure. The argon plasma is filamentary, whereas in helium a homogeneous glow is observed. Using ferrocene, iron particles were produced, which rapidly oxidized to form iron oxide when exposed to ambient air. Preliminary experiments on particle coating suggest that coating by a silicon-based compound is possible.
引用
收藏
页码:721 / 728
页数:8
相关论文
共 50 条
  • [41] Surface functionalization of polypropylene using a cold atmospheric pressure plasma jet with gas water
    Kehrer, Matthias
    Duchoslav, Jiri
    Hinterreiter, Andreas
    Mehic, Alen
    Stehrer, Thomas
    Stifter, David
    SURFACE & COATINGS TECHNOLOGY, 2020, 384
  • [42] Stability of nanoparticle production by atmospheric-pressure spark ablation
    Petallidou, Klito C.
    Schmidt-Ott, Andreas
    Biskos, George
    AEROSOL SCIENCE AND TECHNOLOGY, 2024, 58 (09) : 1079 - 1088
  • [43] Mass production of plasma activated water by an atmospheric pressure plasma
    Jin, Yun Sik
    Cho, Chuhyun
    Kim, Daejong
    Sohn, Chae Hwa
    Ha, Chang-seung
    Han, Seong-Tae
    JAPANESE JOURNAL OF APPLIED PHYSICS, 2020, 59 (SH)
  • [44] Production of hydrogen via methane reforming using atmospheric pressure microwave plasma
    Jasinski, Mariusz
    Dors, Miroslaw
    Mizeraczyk, Jerzy
    JOURNAL OF POWER SOURCES, 2008, 181 (01) : 41 - 45
  • [45] Direct nanoparticle coating using atmospheric plasma jet
    Mu Kyeom Mun
    Yun Jong Jang
    Dong Woo Kim
    Geun Young Yeom
    Journal of Nanoparticle Research, 2020, 22
  • [46] Direct nanoparticle coating using atmospheric plasma jet
    Mun, Mu Kyeom
    Jang, Yun Jong
    Kim, Dong Woo
    Yeom, Geun Young
    JOURNAL OF NANOPARTICLE RESEARCH, 2020, 22 (06)
  • [47] Plasma Dermatology: Skin Therapy Using Cold Atmospheric Plasma
    Tan, Fei
    Wang, Yang
    Zhang, Shiqun
    Shui, Runying
    Chen, Jianghan
    FRONTIERS IN ONCOLOGY, 2022, 12
  • [48] Effects of cold atmospheric pressure plasma on various plant seeds
    Kyzek, S.
    Petkova, M.
    Svubova, R.
    Holubova, L.
    Tomekova, J.
    Medvecka, V.
    Galova, E.
    TOXICOLOGY LETTERS, 2021, 350 : S149 - S149
  • [49] Pulsed Atmospheric-Pressure Cold Plasma for Endodontic Disinfection
    Jiang, Chunqi
    Chen, Meng-Tse
    Schaudinn, Christoph
    Gorur, Amita
    Vernier, P. Thomas
    Costerton, J. William
    Jaramillo, David E.
    Sedghizadeh, Parish P.
    Gundersen, Martin A.
    IEEE TRANSACTIONS ON PLASMA SCIENCE, 2009, 37 (07) : 1190 - 1195
  • [50] Parametric study of a cold plasma jet generated at atmospheric pressure
    Woo Seok Kang
    Min Hur
    Young-Hoon Song
    Journal of the Korean Physical Society, 2013, 62 : 453 - 458