Gallium Oxide for High-Power Optical Applications

被引:39
|
作者
Deng, Huiyang [1 ]
Leedle, Kenneth J. [1 ]
Miao, Yu [1 ]
Black, Dylan S. [1 ]
Urbanek, Karel E. [2 ]
McNeur, Joshua [3 ]
Kozak, Martin [3 ]
Ceballos, Andrew [1 ]
Hommelhoff, Peter [3 ]
Solgaard, Olav [1 ]
Byer, Robert L. [2 ]
Harris, James S. [1 ,2 ,4 ]
机构
[1] Stanford Univ, Dept Elect Engn, Stanford, CA 94305 USA
[2] Stanford Univ, Dept Appl Phys, Stanford, CA 94305 USA
[3] Friedrich Alexander Univ Erlangen Nurnberg FAU, Dept Phys, Staudtstr 1, D-91058 Erlangen, Germany
[4] Stanford Univ, Dept Mat Sci & Engn, Stanford, CA 94305 USA
来源
ADVANCED OPTICAL MATERIALS | 2020年 / 8卷 / 07期
关键词
dielectric laser accelerator; gallium oxide; high-power optical systems; lasers; nanostructures; optical materials; ACCELERATION; ELECTRONS;
D O I
10.1002/adom.201901522
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Gallium oxide (Ga2O3) is an emerging wide-bandgap transparent conductive oxide (TCO) with potential applications for high-power optical systems. Herein, Ga2O3 fabricated nanostructures are described, which demonstrate high-power laser induced damage threshold (LIDT). Furthermore, the demonstration of an electron accelerator based on Ga2O3 gratings is reported. These unique Ga2O3 nanostructures provide acceleration gradients exceeding those possible with conventional RF accelerators due to the high breakdown threshold of Ga2O3. In addition, the laser damage threshold and acceleration performance of a Ga2O3-based dielectric laser accelerator (DLA) are compared with those of a DLA based on sapphire, a material known for its high breakdown strength. Finally, the potential of Ga2O3 thin-film coatings as field reduction layers for Si nanostructures is shown; they potentially improve the effective LIDT and performance of Si-based DLAs and other high-power optical structures. These results could provide a foundation for new high-power optical applications with Ga2O3.
引用
收藏
页数:6
相关论文
共 50 条
  • [1] Progress in Gallium Oxide Field-Effect Transistors for High-Power and RF Applications
    Maimon, Ory
    Li, Qiliang
    [J]. MATERIALS, 2023, 16 (24)
  • [2] Gallium nitride high-power transistors for space applications
    Phillips, WA
    Davies, RA
    Jones, SK
    Vanner, KC
    Wadsworth, SD
    Wallis, RH
    [J]. ESCCON 2000: EUROPEAN SPACE COMPONENTS CONFERENCE, PROCEEDINGS, 2000, 439 : 225 - 230
  • [3] STABILIZATION AND CHARACTERIZATION OF NANOSIZED NIOBIUM AND TANTALUM OXIDE SOLS - OPTICAL APPLICATIONS FOR HIGH-POWER LASERS
    PARRAUD, S
    HUBERTPFALZGRAF, LG
    FLOCH, HG
    [J]. JOURNAL OF THE AMERICAN CERAMIC SOCIETY, 1992, 75 (08) : 2289 - 2292
  • [4] SCANDIUM OXIDE COATINGS FOR HIGH-POWER UV LASER APPLICATIONS
    RAINER, F
    LOWDERMILK, WH
    MILAM, D
    HART, TT
    LICHTENSTEIN, TL
    CARNIGLIA, CK
    [J]. APPLIED OPTICS, 1982, 21 (20): : 3685 - 3688
  • [5] Design of diffractive optical elements for high-power laser applications
    Liu, JS
    Thomson, M
    Waddie, AJ
    Taghizadeh, MR
    [J]. OPTICAL ENGINEERING, 2004, 43 (11) : 2541 - 2548
  • [6] A High-Power Handling MEMS Optical Scanner for Display Applications
    Ohira, Yasutaka
    Checkovskiy, Aleksandr
    Yamanoi, Toshio
    Endo, Takashi
    Fujita, Hiroyuki
    Toshiyoshi, Hiroshi
    [J]. 2008 IEEE/LEOS INTERNATIONAL CONFERENCE ON OPTICAL MEMS AND NANOPHOTONICS, 2008, : 70 - +
  • [7] HR and AR nanostructured optical coatings for high-power applications
    Grineviciute, Lina
    Melninkaitis, Andrius
    Jasinskas, Algirdas
    Buzelis, Rytis
    Tolenis, Tomas
    [J]. 2018 INTERNATIONAL CONFERENCE LASER OPTICS (ICLO 2018), 2018, : 224 - 224
  • [8] APPLICATIONS OF HIGH-POWER LASERS
    WITKOWSKI, S
    KOMPA, KL
    [J]. RECHERCHE, 1979, 10 (104): : 956 - 966
  • [9] High-power lasers and their applications
    Svanberg, S
    [J]. ADVANCES IN QUANTUM CHEMISTRY, VOL 30: MODERN TRENDS IN ATOMIC PHYSICS, 1998, 30 : 209 - 233
  • [10] HIGH-POWER LASERS AND THEIR APPLICATIONS
    DUCASSE, A
    [J]. ONDE ELECTRIQUE, 1986, 66 (01): : 109 - 117