Radio-Frequency Tomography for Passive Indoor Multitarget Tracking

被引:93
|
作者
Nannuru, Santosh [1 ]
Li, Yunpeng [2 ]
Zeng, Yan [2 ]
Coates, Mark [1 ]
Yang, Bo [2 ]
机构
[1] McGill Univ, Dept Elect & Comp Engn, Room ENGMC 702,3480 Univ St, Montreal, PQ H3A 2A7, Canada
[2] Beijing Univ Posts & Telecommun, Beijing 100876, Peoples R China
关键词
Radio-frequency tomography; multitarget tracking; indoor setup; device-free passive localization; particle filters; DEVICE-FREE LOCALIZATION; STATE ESTIMATION; NETWORKS; FILTERS; MODEL;
D O I
10.1109/TMC.2012.190
中图分类号
TP [自动化技术、计算机技术];
学科分类号
0812 ;
摘要
Radio-frequency (RF) tomography is the method of tracking targets using received signal-strength (RSS) measurements for RF transmissions between multiple sensor nodes. When the targets are near the line-of-sight path between two nodes, they are more likely to cause substantial attenuation or amplification of the RF signal. In this paper, we develop a measurement model for multitarget tracking using RF tomography in indoor environments and apply it successfully for tracking up to three targets. We compare several multitarget tracking algorithms and examine performance in the two scenarios when the number of targets is 1) known and constant, and 2) unknown and time varying. We demonstrate successful tracking for experimental data collected from sensor networks deployed in three different indoor environments posing different tracking challenges. For the fixed number of targets, the best algorithm achieves a root-mean-squared error tracking accuracy of approximately 0.3 m for a single target, 0.7 m for two targets and 0.8 m for three targets. Tracking using our proposed model is more accurate than tracking using previously proposed observation models; more importantly, the model does not require the same degree of training.
引用
收藏
页码:2322 / 2333
页数:12
相关论文
共 50 条
  • [21] An Intelligent Access Control System Based on Passive Radio-Frequency Identification
    Hsiao, Rong-Shue
    Chen, Tian-Xiang
    Kao, Chun-Hao
    Lin, Hsin-Piao
    Lin, Ding-Bing
    SENSORS AND MATERIALS, 2017, 29 (04) : 355 - 362
  • [22] RADIO-FREQUENCY DEVICES
    Anderson, Albert G.
    CHEMICAL & ENGINEERING NEWS, 2008, 86 (47) : 6 - 6
  • [23] RADIO-FREQUENCY METHODS
    KAMBERSKY, V
    CESKOSLOVENSKY CASOPIS PRO FYSIKU SEKCE A, 1968, 18 (03): : 274 - +
  • [24] RADIO-FREQUENCY INTERFERENCE
    SHOUP, D
    INSTRUMENTS & CONTROL SYSTEMS, 1974, 47 (07): : 63 - 66
  • [25] RADIO-FREQUENCY SPECTROSCOPY
    DAILEY, BP
    PHYSICAL METHODS OF ORGANIC CHEMISTRY, 1954, 1 (03): : 2321 - 2359
  • [26] RADIO-FREQUENCY SIMULATOR
    GASH, WL
    SKALKA, MS
    PROCEEDINGS OF THE 1989 SUMMER COMPUTER SIMULATION CONFERENCE, 1989, : 852 - 858
  • [27] RADIO-FREQUENCY INTERFERENCE
    POTTGEN, JD
    BYTE, 1982, 7 (03): : 445 - 445
  • [28] Radio-frequency polarimetry
    Derbenev, YS
    POLARIZED GAS TARGETS AND POLARIZED BEAMS - SEVENTH INTERNATIONAL WORKSHOP, 1998, (421): : 191 - 199
  • [29] RADIO-FREQUENCY HEATING
    BARFIELD, RH
    PROCEEDINGS OF THE INSTITUTION OF ELECTRICAL ENGINEERS-LONDON, 1950, 97 (45): : 28 - 28
  • [30] RADIO-FREQUENCY RADIATION
    不详
    ROYAL SOCIETY OF HEALTH JOURNAL, 1960, 80 (03): : 119 - 120