Strategies for the selective volume sintering of ceramics

被引:0
|
作者
Thomas Mühler
Gundula Helsch
Jürgen G. Heinrich
Dongxu Yao
Stephan Gräf
Frank A. Müller
Jens Günster
机构
[1] Clausthal University of Technology,Institute of Nonmetallic Materials
[2] Chinese Academy of Sciences,State Key Laboratory of High Performance Ceramics and Superfine Microstructure, Shanghai Institute of Ceramics
[3] Friedrich-Schiller University of Jena,Otto
[4] BAM Federal Institute of Materials Research and Testing,Schott Institute of Materials Research
来源
关键词
D O I
暂无
中图分类号
学科分类号
摘要
The present study is dealing with the basic physics for a novel way to generate a free-formed ceramic body, not like common layer by layer, but directly by Selective Volume Sintering (SVS) in a compact block of ceramic powder. To penetrate with laser light into the volume of a ceramic powder compact it is necessary to investigate the light scattering properties of ceramic powders. Compared with polymers and metals, ceramic materials are unique as they offer a wide optical window of transparency. The optical window typically ranges from below 0.3 up to 5 µm wave length. In the present study thin layers of quartz glass (SiO2) particles have been prepared. As a function of layer thickness and the particle size, transmission and reflection spectra in a wave length range between 0.5 and 2.5 µm have been recorded. Depending on the respective particle size and by choosing a proper relation between particle size and wave length of the incident laser radiation, it is found that light can penetrate a powder compact up to a depth of a few millimeters. With an adjustment of the light absorption properties of the compact the initiation of sintering in the volume of the compact is possible.
引用
收藏
页码:2095 / 2099
页数:4
相关论文
共 50 条
  • [21] Slurry-Based Powder Beds for the Selective Laser Sintering of Silicate Ceramics
    Muehler, T.
    Gomes, C.
    Ascheri, M. E.
    Nicolaides, D.
    Heinrich, J. G.
    Guenster, J.
    JOURNAL OF CERAMIC SCIENCE AND TECHNOLOGY, 2015, 6 (02): : 113 - 117
  • [22] Alumina-zirconia-silica ceramics synthesis by selective laser sintering/melting
    Wang, Wei
    Liu, Yongxian
    Fuh, Jerry Y. H.
    Wang, Pengjia
    FRONTIERS OF MANUFACTURING AND DESIGN SCIENCE II, PTS 1-6, 2012, 121-126 : 2487 - +
  • [23] Effects of particle grading on properties of silica ceramics prepared by selective laser sintering
    Zhang, Jie
    Zheng, Wen
    Wu, Jia-Min
    Yu, Kang-Bo
    Ye, Chun-Sheng
    Shi, Yu-Sheng
    CERAMICS INTERNATIONAL, 2022, 48 (01) : 1173 - 1180
  • [24] Blacklight sintering of ceramics
    Porz, Lukas
    Scherer, Michael
    Huhn, Daniel
    Heine, Luisa-Marie
    Britten, Simon
    Rebohle, Lars
    Neubert, Marcel
    Brown, Martin
    Lascelles, Peter
    Kitson, Ross
    Rettenwander, Daniel
    Fulanovic, Lovro
    Bruder, Enrico
    Breckner, Patrick
    Isaia, Daniel
    Froemling, Till
    Roedel, Juergen
    Rheinheimer, Wolfgang
    MATERIALS HORIZONS, 2022, 9 (06) : 1717 - 1726
  • [25] Flash sintering of ceramics
    Biesuz, Mattia
    Sglavo, Vincenzo M.
    JOURNAL OF THE EUROPEAN CERAMIC SOCIETY, 2019, 39 (2-3) : 115 - 143
  • [26] MICROWAVE SINTERING OF CERAMICS
    SWAIN, B
    ADVANCED MATERIALS & PROCESSES, 1988, 134 (03): : 76 - 82
  • [27] SINTERING OF PZT CERAMICS
    KINGON, AI
    CLARK, JB
    SOUTH AFRICAN JOURNAL OF PHYSICS - SUID-AFRIKAANSE TYDSKRIF VIR FISIKA, 1981, 4 (04): : 122 - 124
  • [28] Centrifugal sintering of ceramics
    Kinemuchi, Y
    Watari, K
    Uchimura, K
    JOURNAL OF THE EUROPEAN CERAMIC SOCIETY, 2004, 24 (07) : 2061 - 2066
  • [29] MICROWAVE SINTERING OF CERAMICS
    KATZ, JD
    ANNUAL REVIEW OF MATERIALS SCIENCE, 1992, 22 : 153 - 170
  • [30] Additives and the sintering of ceramics
    Brook, R.J.
    Science of sintering, 1988, 20 (2-3) : 115 - 118