Smart Monitoring System for Detection of Damage in Structural Parts by EMI and ANSYS

Smart Monitoring System for Detection of Damage in Structural Parts by EMI and ANSYS

  IJETT-book-cover  International Journal of Engineering Trends and Technology (IJETT)          
  
© 2021 by IJETT Journal
Volume-69 Issue-2
Year of Publication : 2021
Authors : T. Jayachitra, Rashmi Priyadarshini
DOI :  10.14445/22315381/IJETT-V69I2P219

Citation 

MLA Style: T. Jayachitra, Rashmi Priyadarshini  "Smart Monitoring System for Detection of Damage in Structural Parts by EMI and ANSYS" International Journal of Engineering Trends and Technology 69.2(2021):134-138. 

APA Style:T. Jayachitra, Rashmi Priyadarshini. Smart Monitoring System for Detection of Damage in Structural Parts by EMI and ANSYS. International Journal of Engineering Trends and Technology, 69(2), 134-138.

Abstract
Electromechanical impedance techniques are commonly used in recent structural health monitoring systems for damage detection. The technique is accurate and reliable for the detection of damage and provides an alert about structure deterioration by accessing the measured parameters. Piezoelectric patches are bonded to the structure for damage identification. A smart system has been proposed in this paper to detect damage in the structure of concrete beam, metal plate, and pipeline with impedance chip and piezo sensors. A similar structure of concrete beam, metal plate, and pipeline were designed using ANSYS. The signatures obtained from the impedance chip were compared with the output from ANSYS. The result from the impedance chip indicates the detection of damage due to cracks, corrosion, boundary condition, deformation, and leakages. The impedance obtained from the chip has a good agreement with the ANSYS results.

Reference
[1] Lim Y.Y. and Soh C.K., Effect of varying axial load under fixed boundary condition on admittance signatures of electromechanical impedance technique, Journal of Intelligent Material Systems and Structures, 23(7)(2012) 815-826.
[2] Liang C., Sun F.P., and Rogers C.A. Coupled electromechanical analysis of adaptive material systems-determination of the actuator power consumption and system energy transfer, Journal of Intelligent Material Systems and Structures, 5 (1994) 12-20.
[3] Usha Sivasankaran, Seetha Raman and Nallusamy S., Experimental analysis of mechanical properties on concrete with nano-silica additive, Journal of Nano Research, 57 (2019) 93-104.
[4] Zhou S.W., Liang C., and Rogers C.A., An impedance-based system modeling approach for induced strain actuator-driven structures, J. Vib. Acoust, 118 (1996) 323-331.
[5] Bhalla S. and Soh C.K., Structural health monitoring by piezo-impedance transducers I. Modeling., J. Aerosp. Eng., 17(2004) 154-165.
[6] Bhalla S. and Soh C.K., Structural health monitoring by piezo-impedance transducers. II. Applications, Journal of Aerospace Engineering, 17 (2004) 166-175.
[7] Yang Y.W., Xu J.F., and Soh C.K., Generic impedance-based model for the structure-piezoceramic interacting system, Journal of Aerospace Engineering, 18 (2005) 93-101.
[8] Annamdas V.G.M. and Soh C.K., An electromechanical impedance model of a piezoceramic transducer-structure in the presence of thick adhesive bonding. Smart Mater. Struct., 16 (2007) 673-686.
[9] Annamdas V.G.M. and Soh C.K., Three-dimensional electromechanical impedance model for multiple piezoceramic transducers-structure interaction, Journal of Aerospace Engineering, 21 (2008) 35-44.
[10] Qing X.P., Chan H.L., Beard S.J, Ooi T.K. and Marotta S.A., Effect of adhesive on the performance of piezoelectric elements used to monitor the structural health, Int. Journal Adhes., 26 (2006) 622-628.
[11] Bhalla S., Kumar P., Gupta A., and Datta T.K., Simplified impedance model for adhesively bonded piezo-impedance transducers, Journal of Aerospace Engineering, 22(2009) 373-382.
[12] Baptista F.G., Budoya D.E., Almeida V.A.D., and Ulson J.A.C., An experimental study on the effect of temperature on piezoelectric sensors for impedance-based structural health monitoring, Sensors, 14(1)(2014) 1208-1227.
[13] Mohamed Djema and Meftah Hrairi, Modelling and simulation of impedance-based damage monitoring of structures, International Journal of Simulation Modelling, 15(3)(2020) 395-408.
[14] Na W.S., Possibility of detecting wall thickness loss using a PZT based structural health monitoring method for metal-based pipeline facilities, NDT & E Int., 88(2017) 42-50.
[15] Nallusamy S., Manikanda Prabu N., Jayaprakash J., and Rajan K., Analysis of design features for inspection robot make use of concrete structures-An assessment, International Journal of Engineering Research in Africa, 17 (2015) 74-81.
[16] Talakokula V., Bhalla S., and Gupta A. Monitoring early hydration of reinforced concrete structures using structural parameters identified by piezo sensors via electromechanical impedance technique, Mech. Syst. Sig. Process, 99 (2018) 129-141.
[17] Lu X., Lim Y.Y., Izadgoshas I., and Soh C.K., Strength development monitoring and dynamic modulus assessment of cementitious materials using EMI-Miniature Prism based technique, Struct. Health Monit., (2019) 1-17.
[18] Narayanan A., Kocherla A. and Subramaniam K.V.L., Embedded PZT sensor for monitoring the mechanical impedance of hydrating cementitious materials, Journal of Non-destruct Eval., 36(4)(2017) 36-64.
[19] Park G., Cudney H.H., and Inman D. J., Feasibility of Using Impedance-Based Damage Assessment for Pipeline Structures, Earthquake Engineering & Structural Dynamics, 30(10) (2001) 1463-1474.
[20] Nallusamy S. and Karthikeyan A., Analysis of wear resistance, cracks and hardness of metal matrix composites with SiC additives and Al2O3 as reinforcement, Indian Journal of Science and Technology, 9(35)(2016) 1-6.
[21] Choi S., Song B., Ha R., and Cha H., Energy-aware pipeline monitoring system using the piezoelectric sensor, IEEE Sensors Journal, 12(6) (2012) 1695-1702.
[22] Zhu J., Ren L., Ho S.C., Jia Z. and Song G., Gas Pipeline Leakage Detection Based on PZT Sensors, Smart Mater. Struct., 26(2)(2017) 025022.
[23] Sergey G. et al. Design of Multi-Element Piezoelectric Emitters for Shock Wave Therapy Devices, International Journal of Engineering Trends and Technology, 68(9)(2020) 130-138.
[24] Kaur N., Bhalla S., Shanker R. and Panigrahi R., Experimental evaluation of miniature impedance chip for structural health monitoring of prototype steel/RC structures, Exp Tech., 40 (2016) 981-992.
[25] Quinn W., Kelly G. and Barrett J., Development of an embedded wireless sensing system for the monitoring of concrete, Structural Health Monitoring: An International Journal. 11(4) (2012) 381-392.
[26] Na S., and Lee H.K., Resonant frequency range utilized electro-mechanical impedance method for damage detection performance enhancement on composite structures, Composite Structures, 94 (2012) 2383-2389.
[27] Li W., Liu T., Wang J., Zou D., and Gao S., Finite-element analysis of an electromechanical impedance-based corrosion sensor with experimental verification, Journal of Aerospace Engineering, 32 (2019) 04019012.
[28] Weijie Li., Jianjun Wang., Tiejun Liu. and Mingzhang Luo., Electromechanical impedance instrumented circular piezoelectric-metal transducer for corrosion monitoring: modeling and validation, Smart Mater. Struct., 29(2020) 035008.
[29] Swar Imad Hasib, R.K. Pandey, Structural Health Monitoring Of Local R.C Bridge Using Global Dynamic Technique Based On Frequency Change, International Journal of Engineering Trends and Technology (IJETT), 44(5)(2017) 224-234.

Keywords
Smart Structural Monitoring, Damage, Electromechanical Impedance, Piezoelectric Patch, ANSYS.