Millimeter-Wave Imaging System Using Simultaneous Frequency-Encoding Technique

被引:2
|
作者
Kamoda, Hirokazu [1 ]
Derham, Thomas [1 ]
Iwasaki, Toru [1 ]
Kuki, Takao [1 ]
机构
[1] NHK Japan Broadcasting Corp, Sci & Technol Res Labs, Tokyo 1578510, Japan
来源
IEICE TRANSACTIONS ON ELECTRONICS | 2011年 / E94C卷 / 02期
关键词
millimeter-wave imaging; frequency scanning antenna; ranging; frame frequency; radar; WEAPONS;
D O I
10.1587/transele.E94.C.206
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
We fabricated and evaluated a prototype imaging system using the Simultaneous Frequency-Encoding technique, which is an active imaging technique that is potentially capable of fast frame-frequency imaging using a frequency-scanning antenna with only a single transceiver. The prototype performed simultaneous acquisition of pixels in elevation using Simultaneous Frequency-Encoding and performed a mechanical scan in azimuth. We also studied a ranging technique and incorporated it into the prototype. The ranging technique for Simultaneous Frequency-Encoding must take into account the characteristics of the frequency-scanning antenna, which are fundamental to Simultaneous Frequency-Encoding. We verified that ordinary range processing can be performed before frequency analysis with Simultaneous Frequency-Encoding, giving both range and angular profiles. The prototype was evaluated based on the radiation patterns of a receiver antenna comprising the frequency-scanning antenna and a reflector, on which both the image quality and ranging performance depend. Finally we conducted actual imaging tests and confirmed the capability of through-obstacle imaging. The frame frequency was only 0.1 Hz, which was due to the use of a slow mechanical scan in azimuth. However, assuming electronic beam forming is used instead of the mechanical scan, the frame frequency can be improved to several Hertz.
引用
收藏
页码:206 / 214
页数:9
相关论文
共 50 条
  • [31] MILLIMETER-WAVE IMAGING SENSOR
    WILSON, WJ
    HOWARD, RJ
    IBBOTT, AC
    PARKS, GS
    RICKETTS, WB
    IEEE TRANSACTIONS ON MICROWAVE THEORY AND TECHNIQUES, 1986, 34 (10) : 1026 - 1035
  • [32] MILLIMETER-WAVE IMAGING SENSOR
    WILSON, WJ
    HOWARD, RJ
    IBBOTT, AC
    PARKS, GS
    RICKETTS, WB
    MICROWAVE JOURNAL, 1986, 29 (05) : 80 - 80
  • [33] PASSIVE MILLIMETER-WAVE IMAGING
    APPLEBY, R
    LETTINGTON, AH
    ELECTRONICS & COMMUNICATION ENGINEERING JOURNAL, 1991, 3 (01): : 13 - 16
  • [34] Millimeter-Wave Radio Tomographic Imaging Technique using Multipath Components for Indoor Localization
    Kim, Minseok
    Tasaki, Takeshi
    Yamakawa, Satoshi
    2019 INTERNATIONAL SYMPOSIUM ON ANTENNAS AND PROPAGATION (ISAP 2019), 2019,
  • [35] Millimeter-wave self-heterodyne transmission technique and a simple millimeter-wave diversity-reception system
    Shoji, Y
    Hamaguchi, K
    Ogawa, H
    RAWCON 2002: IEEE RADIO AND WIRELESS CONFERENCE, PROCEEDINGS, 2002, : 115 - 118
  • [36] MILLIMETER-WAVE FREQUENCY MULTIPLIER USING A SEMICONDUCTOR DIODE
    SHINOHAR.S
    OKAMURA, S
    ELECTRONICS & COMMUNICATIONS IN JAPAN, 1970, 53 (11): : 105 - &
  • [37] Identifying Explosives Using Broadband Millimeter-Wave Imaging
    Weatherall, James C.
    Yam, Kevin
    Barber, Jeffrey
    Smith, Barry T.
    Smith, Peter R.
    Greca, Joseph
    PASSIVE AND ACTIVE MILLIMETER- WAVE IMAGING XX, 2017, 10189
  • [38] Urban Traffic Imaging Using Millimeter-Wave Radar
    Yang, Bo
    Zhang, Hua
    Chen, Yurong
    Zhou, Yongjun
    Peng, Yu
    REMOTE SENSING, 2022, 14 (21)
  • [39] Dual polarization millimeter-wave detector for millimeter-wave remote sensing imaging
    An D.
    Zhao C.
    Liu C.
    Gao B.
    Hongwai yu Jiguang Gongcheng/Infrared and Laser Engineering, 2023, 52 (02):
  • [40] Loss reduction technique of printed transmission line at millimeter-wave frequency
    Kuroki, Futoshi
    Tamaru, Ryo-ji
    Masumoto, Ryo-ta
    Miyamoto, Kazuya
    2007 IEEE/MTT-S INTERNATIONAL MICROWAVE SYMPOSIUM DIGEST, VOLS 1-6, 2007, : 1666 - 1669