Diamond-based electron emission: Structure, properties and mechanisms

被引:0
|
作者
Gu, Liang-Xue [1 ]
Yang, Kai [1 ]
Teng, Yan [1 ]
Zhao, Wei-Kang [1 ]
Zhao, Geng-You [1 ]
Fan, Kang-Kang [1 ]
Feng, Bo [1 ]
Zhang, Rong [1 ]
Zheng, You-Dou [1 ]
Ye, Jian-Dong [1 ]
Zhu, Shun-Ming [1 ]
Tang, Kun [1 ]
Gu, Shu-Lin [1 ]
机构
[1] Nanjing Univ, Sch Elect Sci & Engn, Nanjing 210046, Peoples R China
基金
中国国家自然科学基金;
关键词
diamond; negative electron affinity (NEA); PN junction; electron emission; 81.15.Gh; 81.05.ug; 07.30.Bx; 07.30.Kf; ENHANCED THERMIONIC EMISSION; FIELD-EMISSION; DOPED DIAMOND; CVD-DIAMOND; N-TYPE; SURFACE FUNCTIONALIZATION; PHOTOELECTRON EMISSION; SOLVATED ELECTRONS; GRAIN-BOUNDARIES; FILMS;
D O I
10.1088/1674-1056/ad5aec
中图分类号
O4 [物理学];
学科分类号
0702 ;
摘要
Diamond has an ultrawide bandgap with excellent physical properties, such as high critical electric field, excellent thermal conductivity, high carrier mobility, etc. Diamond with a hydrogen-terminated (H-terminated) surface has a negative electron affinity (NEA) and can easily produce surface electrons from valence or trapped electrons via optical absorption, thermal heating energy or carrier transport in a PN junction. The NEA of the H-terminated surface enables surface electrons to emit with high efficiency into the vacuum without encountering additional barriers and promotes further development and application of diamond-based emitting devices. This article reviews the electron emission properties of H-terminated diamond surfaces exhibiting NEA characteristics. The electron emission is induced by different physical mechanisms. Recent advancements in electron-emitting devices based on diamond are also summarized. Finally, the current challenges and future development opportunities are discussed to further develop the relevant applications of diamond-based electron-emitting devices.
引用
收藏
页数:13
相关论文
共 50 条
  • [31] Diamond-Based Molecular Platform for Photoelectrochemistry
    Zhong, Yu Lin
    Midya, Anupam
    Ng, Zhaoyue
    Chen, Zhi-Kuan
    Daenen, Michael
    Nesladek, Milos
    Loh, Kian Ping
    JOURNAL OF THE AMERICAN CHEMICAL SOCIETY, 2008, 130 (51) : 17218 - +
  • [32] Diamond-based neutron scatter camera
    Alghamdi, Ahmed
    Lukosi, Eric
    NUCLEAR ENGINEERING AND TECHNOLOGY, 2022, 54 (04) : 1406 - 1413
  • [33] Diamond-based electronics for RF applications
    Aleksov, A
    Kubovic, M
    Kasu, M
    Schmid, P
    Grobe, D
    Ertl, S
    Schreck, M
    Stritzker, B
    Kohn, E
    DIAMOND AND RELATED MATERIALS, 2004, 13 (02) : 233 - 240
  • [34] Diamond-based optical vector magnetometer
    Oncebay Segura, Charlie
    Muniz, Sergio Ricardo
    2021 SBFOTON INTERNATIONAL OPTICS AND PHOTONICS CONFERENCE (SBFOTON IOPC), 2021,
  • [35] Diamond-based materials for liquid chromatography
    Linford, Matthew R.
    Saini, Gaurav
    Yang, Li
    Wiest, Landon A.
    Jensen, David Scott
    Herbert, David
    Dadson, Andrew
    Vail, Michael A.
    ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2009, 238
  • [36] Diamond-based microwave quantum amplifier
    Sherman, Alexander
    Zgadzai, Oleg
    Koren, Boaz
    Peretz, Idan
    Laster, Eyal
    Blank, Aharon
    SCIENCE ADVANCES, 2022, 8 (49):
  • [37] Recent progress in diamond-based MOSFETs
    Yuan, Xiao-lu
    Zheng, Yu-ting
    Zhu, Xiao-hua
    Liu, Jin-long
    Liu, Jiang-wei
    Li, Cheng-ming
    Jin, Peng
    Wang, Zhan-guo
    INTERNATIONAL JOURNAL OF MINERALS METALLURGY AND MATERIALS, 2019, 26 (10) : 1195 - 1205
  • [38] Diamond-Based Detectors of Ionizing Radiation
    Altukhov A.A.
    Russian Microelectronics, 2023, 52 (03) : 205 - 212
  • [39] Diamond-based dielectric laser acceleration
    Chlouba, Tomas
    Shiloh, Roy
    Forsberg, Pontus
    Hamberg, Mathias
    Karlsson, Mikael
    Kozak, Martin
    Hommelhoff, Peter
    OPTICS EXPRESS, 2022, 30 (01): : 505 - 510
  • [40] Performance analysis of diamond-based masers
    Sherman, Alexander
    Buchbinder, Lotem
    Ding, Siyuan
    Blank, Aharon
    JOURNAL OF APPLIED PHYSICS, 2021, 129 (14)