Electrodynamic Computer Model of a Metal Rod in a Concrete Medium Detection

К. М. Зейде, М. В. Ронкин, А. А. Калмыков

Аннотация


The main aim of the present work is to describe a generalized electrodynamic model of the specific device operation, which provides detection and measurement of the geometric characteristics of the reinforcement cage in a concrete structure. The result of this study is the design of the device’s receiving-transmitting path that is optimal in a number of parameters, as well as a signal processing algorithm based on the operation of an artificial neural network trained on the generalized computer model output data. In addition to the main functionality of the device being developed, which consists in structureroscopy by the method of radar holography, useful target characteristics may be obtained during its operation: electrophysical parameters of concrete, structural defects, visualization of an object, etc. To solve this problem, on the basis of general radar principles, frequency-modulated continuous wave was chosen as the operating mode of the device. To create an electrodynamic model, the computer-aided design environment Pathwave EM Design (EMPro) 2021 was used. The developed generalized model may be optimized for a large number of parameters. In addition to the position and number of receiving antennas, the list of optimization variables may include parameters of the transmitting antenna (ray width, directivity, near-field distance), their number (i.e., the capacity of the MIMO system), power on the transmitting side, etc. The proposed scheme of the device is presented as the main result.

 

Zeyde K. M., Ronkin M. V., Kalmykov A. A. Electrodynamic computer model of a metal rod in a concrete medium detection. Ural Radio Engineering Journal. 2021;5(2):104–118. (In Russ.) DOI: 10.15826/urej.2021.5.2.002.


Ключевые слова


electromagnetic modeling; electromagnetic propagation, structuroscopy; frequency-modulated continuous-wave; concrete; MIMO

Полный текст:

Без имени

Литература


Lai W.W., Derobert X., Annan P. A review of Ground Penetrating Radar application in civil engineering: A 30-year journey from Locating and Testing to Imaging and Diagnosis. NDT & E International. 2018;96:58–78. DOI: 10.1016/j.ndteint.2017.04.002

Zeyde K.M., Hong D., Vardugina A.Yu., Mitelman Yu.E. EM perturbation of the single point PEC scatterer in multilayer structure for GPR. In: 2020 Ural Symposium on Biomedical Engineering, Radioelectronics and Information Technology, USBEREIT 2020, Yekaterinburg, 14 May 2020. Yekaterinburg: Institute of Electrical and Electronics Engineers Inc.; 2020, pp. 234–237. DOI: 10.1109/USBEREIT48449.2020.9117738

Na Li, Hong D., Wei Han, Qing Huo Liu. An analytic algorithm for electromagnetic field in planar-stratified biaxial anisotropic formation. IEEE Transactions on Geoscience and Remote Sensing. 2020;58(3):1644–1653. DOI: 10.1109/TGRS.2019.2947279

Caorsi S., Massa A., Pastorino M., Raffetto M., Randazzo A. Detection of buried inhomogeneous elliptic cylinders by a memetic algorithm. IEEE Transactions on Antennas and Propagation. 2003;51(10):2878–2884. DOI: 10.1109/TAP.2003.817984

Griesmaier R. A general perturbation formula for electromagnetic fields in presence of low volume scatterers. ESAIM: Mathematical Modelling and Numerical Analysis. 2011;45(6):1193–1218. DOI: 10.1051/m2an/2011015

Colton D., Piana M. The simple method for solving the electromagnetic inverse scattering problem: the case of TE polarized waves. Inverse Problems. 1998;14:597–614.

Zeyde K.M. A case study of a loaded rectangular resonator with circular holes under the cavity perturbation theory. Ural Radio Engineering Journal. 2020;4(3):261–276. (In Russ.) DOI: 10.15826/urej.2020.4.3.001.

Zeyde K.M., Vardugina A.Yu., Marvin S.V. Fast method for analyzing the electromagnetic field perturbation by small spherical scatterer. Computer Research and Modelin. 2020;12(5):1039–1050. (In Russ.) DOI: 10.20537/2076-7633-2020-12-5-1039-1050

Ronkin M.V., Kalmykov A.A., Zeyde K.M. Novel FMCW-interferometry method testing on an ultrasonic clamp-on flowmeter. IEEE Sensors Journal. 2020;20(11):6029–6037. DOI: 10.1109/JSEN.2020.2972604

Ronkin M.V., Kalmykov A.A. Analysis of processing features of ultrasonic flowmeters with FMCW signals. Ural Radio Engineering Journal. 2018;2(4):52–66. (In Russ.) DOI: 10.15826/urej.2018.2.4.004

Zeyde K.M. Verified simulation of waveguide inhomogeneities in Keysight EMPro 2017 software. Ural Radio Engineering Journal. 2018;2(4):67–76. DOI: 10.15826/urej.2018.2.4.005

Kunz K.S., Luebbers R.J. The finite difference time domain method for electromagnetics. CRC Press; 1993. 464 p. DOI: 10.1201/9780203736708

Olkkonen M.K., Mikhnev V., Huuskonen-Snicker E. Complex Permittivity of Concrete in the Frequency Range 0.8 to 12 GHz. In: 7th European Conference on Antennas and Propagation (EuCAP). Gothenburg, Sweden, April 8–12, 2013, pp. 3319–3321.

Djordjevic A., Olcan D., Stojilovic M., Pavlovic M., Kolundzija B., Tosic D. Causal models of electrically large and lossy dielectric bodies. Facta Universitatis. 2014;27(2):221–234. Available at: http://facta.junis.ni.ac.rs/eae/fu2k142/eae140204.pdf

Olkkonen M.-K., Mikhnev V., Huuskonen E. RF moisture measurement of concrete with a resonator sensor. In: 22nd International Crimean Conference “Microwave & Telecommunication Technology”, Sevastopol, September 10–14, 2012. IEEE; 2012, pp. 853–854. Available at: https://ieeexplore.ieee.org/document/6336221

Ji S., Chung K.L., Zhang C. Optimal bandwidth of concrete embedded antenna for wireless power transmission. In: IEEE International Workshop on Electromagnetics: Applications and Student Innovation Competition, Nanjing, May 16–18, 2016. IEEE; 2016. DOI: 10.1109/iWEM.2016.7505029

Wutke M.K. Use of Ground Penetrating Radar measurement combined to resistivity measurement for characterization of the concrete moisture. In: 17th International Conference on Ground Penetrating Radar (GPR), 2018.

Berenger J.-P. Perfectly matched layer for the FDTD solution of wave-structure interaction problems. IEEE Transactions on Antennas and Propagation. 1996;44(1):110–117.

Hamid A-K., AlSunaidi M. Inverse scattering by dielectric circular cylindrical scatterers using a neural network approach. In: IEEE Antennas and Propagation Society International Symposium, Montreal, Kanada, July 13–18, 1997. IEEE; 1997, vol. 4, pp. 2278–2281.

Veremyev V.I., Trinh Xuan Sinh. Using of the target scattering indicatrix in tasks of radar-tracking recognition. Journal of the Russian Universities. Radioelectronics. 2006;(5):62–68. (In Russ.)

Zeyde K.M. Software automatization algorithm for electrophysical object parameters reconstruction in ECAD EMPro. In: RLNC Conf. Proc., Voronezh, September 29 – October 1, 2020. Voronezh: Voronezh State University; 2020. Vol. 6, pp. 134–139. (In Russ.)