Features of the product formation by the electron beam deposition method

被引：0
|
作者：
Gudenko A.V. [1 ]
Sliva A.P. [1 ]
Dragunov V.K. [1 ]
Shcherbakov A.V. [1 ]
机构：
[1] Moscow Power Engineering Institute (MEI), National Research University, Moscow
来源：
Welding International | 2020年 / 34卷 / 1-3期
关键词：
corrosion-resistant austenitic steel; deposited wire; deposition rate; Electron beam deposition; microstructure of deposited metal;
D O I：
10.1080/09507116.2021.1919449
中图分类号：
学科分类号：
摘要：
Electron beam deposition is a process that involves the use of an electron beam as a source of energy and wire as a raw material for the fabrication of metal products with complex shape in a vacuum and is part of the promising additive technologies group. In this paper a methodology for determining the electron-beam deposition regimes of a wire by the example of corrosion-resistant austenitic steel ANSI 316L is proposed. The proposed calculation methodology connects the main parameters of the process: the electron beam current, the addition wire feed rate, the movement speed of the electron gun and the dimensions of the deposited rollers. The investigation results of the microstructure and properties of the deposited metal are presented. Examples of the obtained cylindrical and conical products are adduced. © 2021 Informa UK Limited, trading as Taylor & Francis Group.
引用
收藏
页码：17 / 23
页数：6
相关论文
共 50 条
  • [41] Formation of composite membranes containing hydrophobic polymer layers by electron-beam sputter deposition
    Kravets, L. I.
    Gil'man, A. B.
    Yablokov, M. Yu.
    Altynov, V. A.
    Orelovitch, O. L.
    HIGH ENERGY CHEMISTRY, 2016, 50 (06) : 460 - 465
  • [42] Formation of composite membranes containing hydrophobic polymer layers by electron-beam sputter deposition
    L. I. Kravets
    A. B. Gil’man
    M. Yu. Yablokov
    V. A. Altynov
    O. L. Orelovitch
    High Energy Chemistry, 2016, 50 : 460 - 465
  • [43] Formation of crystalline iron oxide nanostructures by electron beam-induced deposition at room temperature
    Shimojo, M.
    Takeguchi, M.
    Furuya, K.
    NANOTECHNOLOGY, 2006, 17 (15) : 3637 - 3640
  • [44] Electron beam induced carbon deposition used as a negative resist for selective porous silicon formation
    Djenizian, T
    Santinacci, L
    Hildebrand, H
    Schmuki, P
    SURFACE SCIENCE, 2003, 524 (1-3) : 40 - 48
  • [45] Selective titanium oxide formation using electron-beam induced carbon deposition technique
    Djenizian, T
    Macak, J
    Schmuki, P
    NANO-AND MICROELECTROMECHANICAL SYSTEMS (NEMS AND MEMS) AND MOLECULAR MACHINES, 2003, 741 : 79 - 83
  • [46] Formation of nanoquasicrystalline Al-Cu-Fe coatings at electron beam physical vapour deposition
    Ustinov, AI
    Movchan, BA
    Polishchuk, SS
    SCRIPTA MATERIALIA, 2004, 50 (04) : 533 - 537
  • [47] Novel method for fabrication of nanoscale single-electron transistors: Electron beam induced deposition of Pt and atomic layer deposition of tunnel barriers
    George, Hubert C.
    Orlova, Tatyana A.
    Orlov, Alexei O.
    Snider, Gregory L.
    JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B, 2011, 29 (06):
  • [48] FORMATION OF MOLYBDENUM NITRIDE FILMS BY ION-BEAM AND VAPOR-DEPOSITION METHOD
    FUJIMOTO, F
    NAKANE, Y
    SATOU, M
    KOMORI, F
    OGATA, K
    ANDOH, Y
    NUCLEAR INSTRUMENTS & METHODS IN PHYSICS RESEARCH SECTION B-BEAM INTERACTIONS WITH MATERIALS AND ATOMS, 1987, 19-20 : 791 - 796
  • [49] ENHANCED RELATIVISTIC ELECTRON-BEAM DEPOSITION
    WIDNER, MM
    POUKEY, JW
    HALBLEIB, JA
    PHYSICAL REVIEW LETTERS, 1977, 38 (10) : 548 - 551
  • [50] THE ELECTRON-BEAM EVAPORATION AND DEPOSITION PROCESS
    BIANCHI, L
    JOM-JOURNAL OF THE MINERALS METALS & MATERIALS SOCIETY, 1991, 43 (05): : 45 - 77
12345