Piezoelectric ceramic-polymer composites for weigh-in-motion sensors

被引:0
|
作者
Panda, RK [1 ]
Szary, PJ [1 ]
Maher, A [1 ]
Safari, A [1 ]
机构
[1] Rutgers State Univ, Dept Ceram & Mat Engn, Piscataway, NJ 08855 USA
关键词
piezoelectric; sensors; weigh-in-motion (WIM); composites;
D O I
10.1117/12.316855
中图分类号
R318 [生物医学工程];
学科分类号
0831 ;
摘要
Piezoelectric materials produce a voltage proportional to an applied pressure. Using this phenomenon, piezoelectric polymer sensors are already being used for collecting traffic data including weigh-in-motion, measuring speeds and counting axles. The polymer sensors are usually in the form of a long tape or cable embedded within long blocks of elastomeric material. These sensor assemblies are then installed into grooves, which are cut into roads perpendicular to the traffic flow. The biggest disadvantage of these sensors is that the piezoelectric output is not uniform with temperature, thus leading to large uncertainty in the data collected. Piezoelectric ceramics have a much more stable response over a large temperature range. However, until now they have not been used for traffic data sensors because of their inherent brittleness. In this research project flexible ceramic/polymer composite strips have been fabricated for use as piezoelectric sensors for measuring large vehicle loads. Here, the ceramic is the active piezoelectric material that is embedded in a flexible non-piezoelectric polymer. After encapsulating these sensors in elastomeric blocks in aluminum channels, the voltage output of the composite for different loads have been determined. Also, these composite sensor assemblies are being installed on a test road in order to perform actual measurements.
引用
收藏
页码:127 / 134
页数:8
相关论文
共 50 条
  • [1] Piezoelectric paint: Ceramic-polymer composites for vibration sensors
    J. R. White
    B. de Poumeyrol
    J. M. Hale
    R. Stephenson
    [J]. Journal of Materials Science, 2004, 39 : 3105 - 3114
  • [2] Piezoelectric paint: Ceramic-polymer composites for vibration sensors
    White, JR
    De Poumeyrol, B
    Hale, JM
    Stephenson, R
    [J]. JOURNAL OF MATERIALS SCIENCE, 2004, 39 (09) : 3105 - 3114
  • [3] Evaluation of quartz piezoelectric weigh-in-motion sensors
    White, Ronald
    Song, Jongchul
    Haas, Carl
    Middleton, Dan
    [J]. TRAFFIC AND URBAN DATA, 2006, (1945): : 109 - 117
  • [4] Fatigue performance of piezoelectric weigh-in-motion sensors
    Papagiannakis, AT
    Johnston, EC
    Alavi, S
    [J]. PAVEMENT MANAGEMENT, MONITORING, AND ACCELERATED TESTING: PAVEMENT DESIGN, MANAGEMENT, AND PERFORMANCE, 2001, (1769): : 87 - 94
  • [5] Laboratory and field evaluation of piezoelectric weigh-in-motion sensors
    Papagiannakis, AT
    Johnston, EC
    Alavi, S
    Mactutis, JA
    [J]. JOURNAL OF TESTING AND EVALUATION, 2001, 29 (06) : 535 - 543
  • [6] DEVELOPMENT OF WIRELESS SENSOR FOR WEIGH-IN-MOTION USING PIEZOELECTRIC CERAMIC
    Yan, Guo-liang
    Bao, Bing-de
    Xu, Rong-qiao
    Wang, Yun
    [J]. PROCEEDINGS OF THE 2020 15TH SYMPOSIUM ON PIEZOELECTRCITY, ACOUSTIC WAVES AND DEVICE APPLICATIONS (SPAWDA), 2021, : 202 - 206
  • [7] PIEZOELECTRIC CERAMIC-POLYMER COMPOSITES AS VIBRATION ABSORBERS
    NEWNHAM, RE
    PILGRIM, SM
    [J]. ELASTOMERICS, 1985, 117 (04): : 31 - 31
  • [8] Fabrication and Characterization of the Piezoelectric Ceramic-Polymer Composites
    Wu, Zhanjun
    Yang, Zhengyan
    Zhang, Jiaqi
    Qu, Xiaoxi
    [J]. INTERNATIONAL JOURNAL OF APPLIED CERAMIC TECHNOLOGY, 2016, 13 (04) : 690 - 696
  • [9] PIEZOELECTRIC CERAMIC-POLYMER COMPOSITES AS VIBRATION ABSORBERS
    NEWNHAM, RE
    PILGRIM, SM
    [J]. RUBBER CHEMISTRY AND TECHNOLOGY, 1985, 58 (04): : 862 - 862
  • [10] EVALUATION OF PIEZOELECTRIC WEIGH-IN-MOTION SYSTEM
    ALI, N
    TROGDON, J
    BERGAN, AT
    [J]. CANADIAN JOURNAL OF CIVIL ENGINEERING, 1994, 21 (01) : 156 - 160