System for High-Temperature Calcination of Nanofibers

被引:0
|
作者
Kovar, R. [1 ]
机构
[1] Tech Univ Liberec, Liberec, Czech Republic
关键词
Nanofibers; Electrospinning; Calcination; High-temperature;
D O I
10.1007/978-3-319-22762-7_78
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
From past there is known a process for producing nanofibers. At present, there is the question of how to increase the productivity of their production. At the University of Liberec was developed principle of spinning from a roller. The system is made from spinning electrode and a collector, which are placed in an electric field. Using a modification of both parts is possible to change a value of intensity in the vicinity of both electrodes. This is able to leads to improve production of nanofibers. When correct settings are used, we can call this option the continuous process of nanofibers production. There is a theory that we can carry on more than one process of electrospinning in a closed space. After the process of spinning is necessary to subsequently modify the collected material. In this case, the material is composed by plastic parts, organic parts and titanium oxide. For the separation of titanium oxide is necessary to burn the material at the required temperature. After burning process it is possible to receive clear titanium oxide. For this task was build experimental furnace as a last part of production line.
引用
下载
收藏
页码:515 / 519
页数:5
相关论文
共 50 条
  • [21] New structure of carbon nanofibers after high-temperature heat-treatment
    Zheng, GB
    Sano, H
    Uchiyama, Y
    CARBON, 2003, 41 (04) : 853 - 856
  • [22] Syndiotactic Polystyrene Nanofibers Obtained from High-Temperature Solution Electrospinning Process
    Cheng, Yong-Wen
    Lu, Hsin-An
    Wang, Yin-Chi
    Thierry, Annette
    Lotz, Bernard
    Wang, Chi
    MACROMOLECULES, 2010, 43 (05) : 2371 - 2376
  • [23] High-temperature stable electrospun MgO nanofibers, formation mechanism and thermal properties
    Xu, Chonghe
    Yuan, Kangkang
    Jin, Xiaotong
    Yu, Zhichao
    Zheng, Lei
    Lu, Yadong
    Wang, Xinqiang
    Zhu, Luyi
    Zhang, Guanghui
    Xu, Dong
    CERAMICS INTERNATIONAL, 2017, 43 (18) : 16210 - 16216
  • [24] High-Temperature Bearable Polysulfonamide/Polyurethane Composite Nanofibers' Membranes for Filtration Application
    Li, Yajian
    Ming, Jinfa
    Yuan, Ding
    Ning, Xin
    MACROMOLECULAR MATERIALS AND ENGINEERING, 2021, 306 (07)
  • [25] STRUCTURAL-CHANGES IN THE CALCINATION OF NICKEL OXYSALTS BY HIGH-TEMPERATURE X-RAY DIFFRACTOMETER
    KUNDU, ML
    MAITI, GC
    GHOSH, SK
    INDIAN JOURNAL OF TECHNOLOGY, 1980, 18 (07): : 303 - 305
  • [26] High-temperature crystal-growth system
    Vinnik D.A.
    Archugov S.A.
    Mikhailov G.G.
    D'Yachuk V.V.
    Zherebtsov D.A.
    Steel in Translation, 2009, 39 (02): : 122 - 124
  • [27] PERFORMANCE STUDY OF A HIGH-TEMPERATURE DISTILLATION SYSTEM
    TIWARI, GN
    DHIMAN, NK
    ENERGY CONVERSION AND MANAGEMENT, 1991, 32 (03) : 283 - 291
  • [28] HIGH-TEMPERATURE SQUID SUSCEPTIBILITY MEASURING SYSTEM
    QIU, JW
    ZHOU, LW
    ZHANG, XF
    TANG, ZM
    QIAN, YJ
    CRYOGENICS, 1990, 30 : 920 - 924
  • [29] Software for high-temperature solderability assessment system
    Sankowski, D
    Strzecha, K
    Kolodziejski, H
    Albrecht, A
    Wojciechowski, R
    MODERN PROBLEMS OF RADIO ENGINEERING, TELECOMMUNICATIONS AND COMPUTER SCIENCE, PROCEEDINGS, 2004, : 275 - 277
  • [30] TANK SUPPORT SYSTEM FOR HIGH-TEMPERATURE CARGOES
    不详
    NAVAL ARCHITECT, 1991, : E548 - E548