Plasma Technology and Its Relevance in Waste Air and Waste Gas Treatment

被引:28
|
作者
Dobslaw, Christine [1 ]
Glocker, Bernd [1 ]
机构
[1] PlasmaAir AG, D-71263 Weil Der Stadt, Hausen, Germany
关键词
non-thermal plasma; thermal plasma; dielectric barrier discharge; DBD; water steam plasma; waste gas treatment; plasma technology; waste air treatment; DIELECTRIC BARRIER DISCHARGE; VOLATILE ORGANIC-COMPOUNDS; NONTHERMAL PLASMA; THERMAL PLASMA; ATMOSPHERIC-PRESSURE; DILUTE TRICHLOROETHYLENE; PATHOGEN INACTIVATION; CATALYTIC PERFORMANCE; REMOVAL EFFICIENCY; DIMETHYL SULFIDE;
D O I
10.3390/su12218981
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Plasma technology is already used in various applications such as surface treatment, surface coating, reforming of carbon dioxide and methane, removal of volatile organic compounds, odor abatement and disinfection, but treatment processes described in this context do not go beyond laboratory and pilot plant scale. Exemplary applications of both non-thermal plasma and thermal plasma should underline the feasibility of scale-up to industrial application. A non-thermal plasma in modular form was built, which is designed for up to 1000 m(3)center dot h(-1) and was successfully practically tested in combination of non-thermal plasma (NTP), mineral adsorber and bio-scrubber for abatement of volatile organic components (VOCs), odorous substances and germs. Thermal plasmas are usually arc-heated plasmas, which are operated with different plasma gases such as nitrogen, oxygen, argon or air. In recent years steam plasmas were gradually established, adding liquid water as plasma gas. In the present system the plasma was directly operated with steam generated externally. Further progress of development of this system was described and critically evaluated towards performance data of an already commercially used water film-based system. Degradation rates of CF4 contaminated air of up to 100% where achieved in industrial scale.
引用
收藏
页码:1 / 39
页数:37
相关论文
共 50 条
  • [1] Gas, Water and Solid Waste Treatment Technology
    Zhang, Wenxiang
    Zhang, Zhien
    Nunez-Delgado, Avelino
    PROCESSES, 2021, 9 (08)
  • [2] Waste and biomass treatment employing plasma technology
    Kezelis, R
    Mecius, V
    Valinciute, V
    Valincius, V
    HIGH TEMPERATURE MATERIAL PROCESSES, 2004, 8 (02): : 273 - 282
  • [3] Treatment of bone waste using thermal plasma technology
    Ki, Ho Beom
    Kim, Woo Hyung
    Kim, Bong Soo
    Koo, Hyung Joon
    Li Mingwei
    Chae, Jae Ou
    PLASMA SCIENCE & TECHNOLOGY, 2007, 9 (05) : 616 - 618
  • [4] Thermal plasma technology for radioactive waste treatment: a review
    Eduardo S. P. Prado
    Felipe S. Miranda
    Leandro G. de Araujo
    Gilberto Petraconi
    Mauricio R. Baldan
    Journal of Radioanalytical and Nuclear Chemistry, 2020, 325 : 331 - 342
  • [5] Thermal plasma technology for radioactive waste treatment: a review
    Prado, Eduardo S. P.
    Miranda, Felipe S.
    de Araujo, Leandro G.
    Petraconi, Gilberto
    Baldan, Mauricio R.
    JOURNAL OF RADIOANALYTICAL AND NUCLEAR CHEMISTRY, 2020, 325 (02) : 331 - 342
  • [6] Treatment of Bone Waste Using Thermal Plasma Technology
    KI Ho Beom
    KI MWoo Hyung
    KI MBong Soo
    KOO Hyung Joon
    李明伟
    CHAE Jae Ou
    Plasma Science and Technology, 2007, 9 (05) : 616 - 618
  • [7] Treatment of Bone Waste Using Thermal Plasma Technology
    KI Ho Beom
    KI MWoo Hyung
    KI MBong Soo
    KOO Hyung Joon
    李明伟
    CHAE Jae Ou
    Plasma Science and Technology, 2007, (05) : 616 - 618
  • [8] Development of a laboratory scale air plasma torch and its application to electronic waste treatment
    N. Tippayawong
    P. Khongkrapan
    International Journal of Environmental Science & Technology, 2009, 6 : 407 - 414
  • [9] Development of a laboratory scale air plasma torch and its application to electronic waste treatment
    Tippayawong, N.
    Khongkrapan, P.
    INTERNATIONAL JOURNAL OF ENVIRONMENTAL SCIENCE AND TECHNOLOGY, 2009, 6 (03) : 407 - 414
  • [10] A micro plasma reactor for fluorinated waste gas treatment
    Sichler, P
    Büttgenbach, S
    Baars-Hibbe, L
    Schrader, C
    Gericke, KH
    CHEMICAL ENGINEERING JOURNAL, 2004, 101 (1-3) : 465 - 468