JOURNAL ARTICLE

Laboratory and Field Evaluation of Piezoelectric Weigh-in-Motion Sensors

A. T. PapagiannakisE. C. JohnstonSirous AlaviJA Mactutis

Year: 2001 Journal:   Journal of Testing and Evaluation Vol: 29 (6)Pages: 535-543   Publisher: ASM International

Abstract

Abstract This paper presents the results of the laboratory and field evaluation of the piezoelectric weigh-in-motion (WIM) sensors of two manufacturers, namely Vibracoax (VC) and Measurements Specialties Incorporated (MSI). The laboratory evaluation involved fatigue testing of two sensor types for each manufacturer, one factory-encapsulated and the other bare. The fatigue testing involved three contact stresses as well as dry and wet conditions. Significant sensor fatigue was experienced only under wet conditions. The field evaluation of these sensors was carried in both asphalt concrete (AC) and Portland concrete (PC) installations. The facilities at Nevada's WesTrack and at a CalTrans Heavy Vehicle Simulator site were used, respectively. All sensors exhibited high raw signal precision at any given time. Raw signal amplitude seemed to depend on temperature for the sensors installed in the AC pavement. For increasing pavement temperature, the raw signal amplitude of the VC sensors decreased, while that of the MSI sensors increased. The signal-to-noise ratio of the raw signal increased with increasing temperature for the sensors installed in the AC pavement. WIM load measurement precision and sensitivity to temperature varied between sensors. The poor load precision of some of the sensors was attributed to the load calculation algorithm in the WIM data acquisition system, rather than to sensor malfunctioning. During the period of the field tests, no consistent changes in WIM axle load measurements were observed that could be attributed to piezoelectric sensor fatigue.

Keywords:
Weigh in motion SIGNAL (programming language) Axle Acoustics Sensitivity (control systems) Piezoelectricity Piezoelectric sensor Noise (video) Amplitude Environmental science Engineering Automotive engineering Structural engineering Electrical engineering Electronic engineering Computer science Physics

Metrics

18
Cited By
0.90
FWCI (Field Weighted Citation Impact)
0
Refs
0.76
Citation Normalized Percentile
Is in top 1%
Is in top 10%

Citation History

Topics

Transport Systems and Technology
Physical Sciences →  Engineering →  Mechanical Engineering
Advanced Sensor Technologies Research
Physical Sciences →  Engineering →  Biomedical Engineering
Sensor Technology and Measurement Systems
Physical Sciences →  Computer Science →  Computer Networks and Communications

Related Documents

JOURNAL ARTICLE

Evaluation of Quartz Piezoelectric Weigh-in-Motion Sensors

Ronald P. WhiteJongchul SongCarl T. HaasDan Middleton

Journal:   Transportation Research Record Journal of the Transportation Research Board Year: 2006 Vol: 1945 Pages: 109-117
JOURNAL ARTICLE

Evaluation of Quartz Piezoelectric Weigh-in-Motion Sensors

Ronald P. WhiteJongchul SongCarl T. HaasDan Middleton

Journal:   Transportation Research Record Journal of the Transportation Research Board Year: 2006 Vol: 1945 (1)Pages: 109-117
JOURNAL ARTICLE

Performance Evaluation of Piezoelectric Weigh-in-Motion Sensors Under Controlled Field-Loading Conditions

Sirous H. AlaviJoseph A. MactutisScott Douglas GibsonA. T. PapagiannakisD R. Reynaud

Journal:   Transportation Research Record Journal of the Transportation Research Board Year: 2001 Vol: 1769 (1)Pages: 95-102
JOURNAL ARTICLE

Integrating Piezoelectric Sensors for Bridge-Weigh-In-Motion

William L. MacDonaldHenry GrisctiJohn Vazey

Journal:   Report Year: 2025 Vol: 121 Pages: 2132-2140
JOURNAL ARTICLE

Fatigue Performance of Piezoelectric Weigh-in-Motion Sensors

A. T. PapagiannakisE. C. JohnstonSirous Alavi

Journal:   Transportation Research Record Journal of the Transportation Research Board Year: 2001 Vol: 1769 (1)Pages: 87-94
© 2026 ScienceGate Book Chapters — All rights reserved.