Terahertz Semiconductor Quantum Well Devices

被引:2
|
作者
Wchter M
Wasilewski Z R
Buchanan M
Aers G C
Spring Thorpe A J
Williams B S
机构
[1] Cambridge
[2] Canada
[3] Department of Electrical Engineering and Computer Science and Research Laboratory of Electronics Massachusetts Institute of Technology
[4] Institute for Microstructural Sciences National Research Council
[5] Massachusetts 02139
[6] Ottawa K1A 0R6
[7] USA
关键词
terahertz; quantum well photodetector; quantum-cascade laser;
D O I
暂无
中图分类号
TN36 [半导体光电器件];
学科分类号
0803 ;
摘要
For eventually providing terahertz science with compact and convenient devices,terahertz (1~10THz) quantum-well photodetectors and quantum-cascade lasers are investigated.The design and projected detector performance are presented together with experimental results for several test devices,all working at photon energies below and around optical phonons.Background limited infrared performance (BLIP) operations are observed for all samples (three in total),designed for different wavelengths.BLIP temperatures of 17,13,and 12K are achieved for peak detection frequencies of 9.7THz(31μm),5.4THz(56μm),and 3.2THz(93μm),respectively.A set of THz quantum-cascade lasers with identical device parameters except for doping concentration is studied.The δ-doping density for each period varies from 3.2×1010 to 4.8×1010cm-2.We observe that the lasing threshold current density increases monotonically with doping concentration.Moreover,the measurements for devices with different cavity lengths provide evidence that the free carrier absorption causes the waveguide loss also to increase monotonically.Interestingly the observed maximum lasing temperature is best at a doping density of 3.6×1010cm-2.
引用
收藏
页码:627 / 634
页数:8
相关论文
共 50 条
  • [41] Quantum well thermoelectric devices
    Ghamaty, S
    Elsner, NB
    [J]. THERMOELECTRIC MATERIALS 2003-RESEARCH AND APPLICATIONS, 2004, 793 : 225 - 228
  • [42] New Semiconductor Materials and Devices for Terahertz Imaging and Sensing
    Otsuji, T.
    Watanabe, T.
    Akagawa, K.
    Tanimoto, Y.
    Tombet, S. Boubanga
    Suemitsu, T.
    Chan, S.
    Coquillat, D.
    Knap, W.
    Ryzhii, V.
    [J]. 2011 IEEE SENSORS, 2011, : 44 - 47
  • [43] Semiconductor and Graphene Devices for Nanoscale Terahertz Imaging and Spectroscopy
    Kawano, Yukio
    [J]. 2015 IEEE MTT-S INTERNATIONAL MICROWAVE SYMPOSIUM (IMS), 2015,
  • [44] High-order sideband generation in a semiconductor quantum well driven by two orthogonal terahertz fields
    Yan, Jie-Yun
    [J]. JOURNAL OF APPLIED PHYSICS, 2017, 122 (08)
  • [45] A Special Issue on Semiconductor Quantum Devices
    Yeow, John T. W.
    [J]. IEEE NANOTECHNOLOGY MAGAZINE, 2019, 13 (02) : 3 - 3
  • [46] QUANTUM DOT HETEROSTRUCTURES FOR SEMICONDUCTOR DEVICES
    Ledentsov, Nikolay N.
    [J]. 11TH INTERNATIONAL CONFERENCE ON NANOMATERIALS - RESEARCH & APPLICATION (NANOCON 2019), 2020, : 14 - 21
  • [47] Quantum Dots in Semiconductor Optoelectronic Devices
    Stokes, Edward B.
    Stiff-Roberts, Adrienne D.
    Dameron, Charles T.
    [J]. ELECTROCHEMICAL SOCIETY INTERFACE, 2006, 15 (04): : 23 - 27
  • [48] SEMICONDUCTOR QUANTUM DEVICES, CIRCUITS, AND APPLICATIONS
    REED, MA
    [J]. ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 1991, 202 : 3 - BIOT
  • [49] Quantum fluctuations in atomistic semiconductor devices
    Barker, JR
    [J]. SUPERLATTICES AND MICROSTRUCTURES, 2003, 34 (3-6) : 361 - 366
  • [50] Quantum conductance fluctuations in semiconductor devices
    Scannell, B. C.
    Martin, T. P.
    Fairbanks, M. S.
    Linke, H.
    Marlow, C. A.
    Fromhold, T. M.
    Brown, C. V.
    Ishibashi, K.
    Tavlor, R. P.
    [J]. CURRENT APPLIED PHYSICS, 2008, 8 (3-4) : 332 - 335