Production of a new generation of high-performance materials by pulsation reactor technology

被引:0
|
作者
Erzeugung einer neuen Generation von Hochleistungswerkstoffen durch die Pulsationsreaktor-Technologie
机构
[1] Leidolph, L.
[2] Büchner, H.
来源
| 1600年 / DVS Verlag卷 / 65期
关键词
Fine grain materials - High performance material - High-specific surfaces - Material transformation - Particle agglomerations - Proprietary development - Technology characteristics - Thermal shock treatment;
D O I
暂无
中图分类号
学科分类号
摘要
The pulsation reactor is a technology applied to produce a new generation of advanced materials. This thermal reactor, a proprietary development of IBU-tec which is based on pulsation burning, is the reactor of choice for material transformation processes in the chemical industry and for the production of nano-sized up to micro-sized powders. The raw materials injected into the reactor receive thermal shock treatment with extremely short retention times. The thermal shock treatment creates advanced particles which feature a highly reactive surface or fine-grain materials. Moreover, temperature and residence time variations create specific powders properties, e.g. specific surface, morphology, phase composition or particle size. In comparison to other processes, the heat treatment of the particles inside the pulsation reactor is very homogeneous and constant. Due to this it is possible to influence the particle size, surface properties and phase composition. Thus particle agglomeration due to sinter processes in the thermal reactor can be prevented. This IBU-tec exclusive technology characteristic allows the production of materials with new and improved features and is for example well useable to produce catalysts with high specific surface or ceramic powders. Today IBU-tec produces a lot of different special chemicals for different future markets with this reactor.
引用
收藏
相关论文
共 50 条
  • [41] HIGH-PERFORMANCE SEAL MATERIALS
    LEHMAN, AR
    JACKOWSKI, R
    PAXTON, RR
    MICKLE, WA
    ECHTENKAMP, AL
    BRIGGS, DD
    LUBRICATION ENGINEERING, 1979, 35 (06): : 309 - 314
  • [42] The case for high-performance materials
    Pasko, T
    CIVIL ENGINEERING, 1998, 68 (01): : 6 - 6
  • [43] Powering the future a new generation of high-performance solar arrays
    Thales Alenia Space, Cannes, France
    不详
    不详
    Eur Space Agency Bull, 2007, 131 (46-49):
  • [44] Production technology for high-performance thermoplastics in aviation: Development of automated processes
    Gerngross, Tobias
    Konstruktion, 2017, 69 (04): : 14 - 16
  • [45] HIGH-PERFORMANCE MATERIALS FOR OFFSHORE
    不详
    ERDOL & KOHLE ERDGAS PETROCHEMIE, 1993, 46 (7-8): : 263 - 263
  • [46] Biomorphic high-performance materials
    Wang Qing
    Wang Yingyong
    Guo Xiangyun
    PROGRESS IN CHEMISTRY, 2007, 19 (7-8) : 1217 - 1222
  • [47] NEW CARBONS AS ELECTRODE MATERIALS IN HIGH-PERFORMANCE ELECTRON RODS
    KROL, JWA
    LERSMACHER, B
    SEIFERT, H
    CARBON, 1976, 14 (05) : 303 - 303
  • [48] HIGH-PERFORMANCE BOLT MATERIALS
    OSGOOD, CC
    MACHINE DESIGN, 1969, 41 (10) : 184 - &
  • [49] Production of High-Performance Composite Concrete Segment and Experimental Investigation of Materials
    Gao, Yingli
    Ma, Baoguo
    ADVANCES IN BUILDING MATERIALS, PTS 1-3, 2011, 168-170 : 1042 - +
  • [50] Materials scientists on the trail of new high-performance energy storage
    不详
    CHEMSUSCHEM, 2010, 3 (02) : 135 - 135