Differential BroadBand (1-16 GHz) MMIC GaAs mHEMT Low-Noise Amplifier for Radio Astronomy Applications and Sensing

被引:0
|
作者
Jimenez-Martin, Jose Luis [1 ]
Gonzalez-Posadas, Vicente [1 ]
Parra-Cerrada, Angel [1 ]
Espinosa-Adams, David [2 ]
Segovia-Vargas, Daniel [2 ]
Hernandez, Wilmar [3 ]
机构
[1] Univ Politecn Madrid, Dept Ingn Audiovisual & Comunicac, C Nicolas Tesla, Madrid 28031, Spain
[2] Univ Carlos III Madrid, Escuela Politecn Super, Dept Teoria Senal, Campus Leganes, Madrid 28911, Spain
[3] Univ Las Amer, Fac Ingn & Ciencias Aplicadas, Carrera Ingeniera Elect & Automatizac, Quito 170124, Ecuador
关键词
monolithic microwave integrated circuit; broadband gallium arsenide; noise figure; radio astronomy; differential low-noise amplifier; stability analysis; figure of merit; HEMT; DESIGN; BANDWIDTH;
D O I
10.3390/s24103141
中图分类号
O65 [分析化学];
学科分类号
070302 ; 081704 ;
摘要
A broadband differential-MMIC low-noise amplifier (DLNA) using metamorphic high-electron-mobility transistors of 70 nm in Gallium Arsenide (70 nm GaAs mHEMT technology) is presented. The design and results of the performance measurements of the DLNA in the frequency band from 1 to 16 GHz are shown, with a high dynamic range, and a noise figure (NF) below 1.3 dB is obtained. In this work, two low-noise amplifiers (LNAs) were designed and manufactured in the OMMIC foundry: a dual LNA, which we call balanced, and a differential LNA, which we call DLNA. However, the paper focuses primarily on DLNA because of its differential architecture. Both use a 70 nm GaAs mHEMT space-qualified technology with a cutoff frequency of 300 GHz. With a low power bias V-bias/I-bias (5V/40.5 mA), NF < 1.07 dB "on wafer" was achieved, from 2 to 16 GHz; while with the measurements made "on jig", NF = 1.1 dB, from 1 to 10 GHz. Furthermore, it was obtained that NF < 1.5 dB, from 1 to 16 GHz, with a figure of merit equal to 145.5 GHz/mW. Finally, with the proposed topology, several LNAs were designed and manufactured, both in the OMMIC process and in other foundries with other processes, such as UMS. The experimental results showed that the NF of the DLNA MMIC with multioctave bandwidth that was built in the frequency range of the L-, S-, C-, and X-bands was satisfactory.
引用
收藏
页数:29
相关论文
共 50 条
  • [21] Visual design of 1.5-2.5 GHz MMIC low-noise amplifier
    Cherkashin, M. V.
    Babak, L. I.
    2006 16TH INTERNATIONAL CRIMEAN CONFERENCE MICROWAVE & TELECOMMUNICATION TECHNOLOGY, VOLS 1 AND 2, CONFERENCE PROCEEDINGS, 2006, : 213 - +
  • [22] 4-12-and 25-34-GHz Cryogenic mHEMT MMIC Low-Noise Amplifiers
    Aja Abelan, Beatriz
    Seelmann-Eggebert, Matthias
    Bruch, Daniel
    Leuther, Arnulf
    Massler, Hermann
    Baldischweiler, Boris
    Schlechtweg, Michael
    Daniel Gallego-Puyol, Juan
    Lopez-Fernandez, Isaac
    Diez-Gonzalez, Carmen
    Malo-Gomez, Inmaculada
    Villa, Enrique
    Artal, Eduardo
    IEEE TRANSACTIONS ON MICROWAVE THEORY AND TECHNIQUES, 2012, 60 (12) : 4080 - 4088
  • [23] An 18-40 GHz ultra broadband low noise amplifier MMIC
    Yang, Guang
    Guo, Yunchuan
    Xu, Ruimin
    2008 INTERNATIONAL CONFERENCE ON MICROWAVE AND MILLIMETER WAVE TECHNOLOGY PROCEEDINGS, VOLS 1-4, 2008, : 865 - 867
  • [25] A LOW-NOISE 1.2—1.8 GHz COOLED GaAs FET AMPLIFIER
    曹逸庭
    Journal of Electronics(China), 1988, (02) : 154 - 159
  • [26] On Designing of a Broadband GaN Low-Noise Amplifier for WiMax Applications
    Jarndal, Anwar H.
    Bassal, Amer M.
    2017 INTERNATIONAL CONFERENCE ON ELECTRICAL AND COMPUTING TECHNOLOGIES AND APPLICATIONS (ICECTA), 2017, : 593 - 597
  • [28] LOW-NOISE 10.7 GHZ COOLED GAAS-FET AMPLIFIER
    TOMASSETTI, G
    WEINREB, S
    WELLINGTON, K
    ELECTRONICS LETTERS, 1981, 17 (25-2) : 949 - 951
  • [29] 30 GHZ LOW-NOISE HEMT AMPLIFIER FOR SATELLITE APPLICATIONS
    GLANDORF, FJ
    KUCK, P
    SPACE COMMUNICATIONS, 1990, 7 (4-6) : 507 - 512
  • [30] Fully Differential Difference Amplifier for Low-Noise Applications
    Arbet, Daniel
    Nagy, Gabriel
    Kovac, Martin
    Stopjakova, Viera
    2015 IEEE 18TH INTERNATIONAL SYMPOSIUM ON DESIGN AND DIAGNOSTICS OF ELECTRONIC CIRCUITS & SYSTEMS (DDECS 2015), 2015, : 57 - 62