bsuirДоклады БГУИРDoklady BGUIR1729-76482708-0382БГУИРbsuir-1112Research ArticleЭЛЕКТРОНИКА, РАДИОФИЗИКА, РАДИОТЕХНИКА, ИНФОРМАТИКАELECTRONICS, RADIOPHYSICS, RADIOENGINEERING, INFORMATICSАНАЛИЗ ЭЛЕКТРОМАГНИТНОЙ СОВМЕСТИМОСТИ ЛОКАЛЬНЫХ ГРУППИРОВОК РАДИОЭЛЕКТРОННЫХ СРЕДСТВAnalysis of electromagnetic compatibility in local complexes of radioequipmentМордачевВ. И.MordachevV. I.

Мордачев Владимир Иванович - к.т.н., доцент, ведущий научный сотрудник

220013, г. Минск, ул. П. Бровки, 6

тел. +375-17-293-89-94

www.emc.bsuir.by

Mordachev Vladimir Ivanivich - PhD, associate professor, leader researcher

220013, Republic of Belarus, Minsk, P. Brovka st., 6

phone. +375-17-293-89-94

www.emc.bsuir.by

emc@bsuir.byСинькевичЕ. В.SinkevichE. V.

заведующий НИЛ «ЭМС локальных группировок РЭС»

head of EMC R&D Laboratory

ЦионенкоД. А.TsyanenkaD. A.

к.ф.-м.н., доцент, с.н.с.

PhD, associate professor, senior researcher

ОрловЕ. Е.ArlouY. Y.

н.с.

researcher

Белорусский государственный университет информатики и радиоэлектроникиBelarusian state university of informatics and radioelectronics201904062019037688Copyright © Мордачев В.И., Синькевич Е.В., Ционенко Д.А., Орлов Е.Е., 20192019Мордачев В.И., Синькевич Е.В., Ционенко Д.А., Орлов Е.Е.Mordachev V.I., Sinkevich E.V., Tsyanenka D.A., Arlou Y.Y.Данная работа распространяется под лицензией Creative Commons Attribution 4.0.This work is licensed under a Creative Commons Attribution 4.0 License.https://doklady.bsuir.by/jour/article/view/1112

Развита итерационная технология компьютерного анализа и диагностики электромагнитной совместимости (ЭМС) радиооборудования сложных бортовых и локальных наземных радиоэлектронных комплексов. На первом этапе анализа и диагностики ЭМС выявляется совокупность потенциально опасных путей распространения помех с использованием широкополосной аналитической модели наихудшего случая, разработанной в рамках программы IEMCAP для расчета паразитных связей между антеннами радиосредств. На втором этапе разрабатываются уточненные модели наихудшего случая для выявленных потенциально опасных путей распространения помех и производится повторная диагностика ЭМС с их использованием. Завершающим этапом является дискретный нелинейный анализ ЭМС, выполняемый с использованием моделей нелинейности высоких порядков и избирательности радиоприемников, полученных по результатам их испытаний методом двухчастотного зондирования. Применение разработанной технологии обеспечивает высокую эффективность анализа ЭМС, что подтверждено при решении практических задач диагностики ЭМС бортовых систем и сложных наземных радиотехнических объектов, включающих радиооборудование диапазонов ВЧ, ОВЧ, УВЧ и СВЧ.

The technique for step-by-step computer-based analysis and diagnostics of electromagnetic compatibility (EMC) of radioequipment of complex on-board and local ground systems is improved. At the first stage of the analysis and diagnostics of EMC, all potentially dangerous paths of interference propagation are identified with the use of the broadband analytical worst-case model developed within IEMCAP program; the model allows to calculate spurious couplings between antennas of radioequipment. At the second stage, improved worst-case models for the potentially-dangerous interference propagation paths identified before development, and EMC analysis is performed iteratively on the basis of the refined models. The final stage is the discrete nonlinear EMC analysis, which is made using the high order nonlinearity models and radioreceivers' selectivity models obtained on the basis of the results of double-frequency testing of radioreceivers. The use of the developed technique makes it possible to achieve high efficiency of EMC analysis; this is proved by performing diagnostics of EMC for real-world on-board and local ground systems containing a set of HF, VHF, UHF and SHF radio equipment.

электромагнитная совместимостьэлектромагнитные помехимодели наихудшего случаяэлектромагнитная связьинтермодуляцияelectromagnetic compatibilityelectromagnetic interferenceworst-case modelselectromagnetic couplingintermodulationReferencesBaldwin T.E.Jr., Capraro G.T. Intrasystem Electromagnetic Compatibility Analysis Program (IEMCAP) // IEEE Trans. on EMC. 1980. Vol. 22. P. 224–228.Baldwin T.E.Jr., Capraro G.T. Intrasystem Electromagnetic Compatibility Analysis Program (IEMCAP) // IEEE Trans. on EMC. 1980. Vol. 22. P. 224–228.Bogdanor J.L., Pearlman R.A., Siegel M.D. Intrasystem Electromagnetic Compatibility Analysis Program. Volume I: User’s Manual Engineering Section. Mc.Donnel Douglas Aircraft Corp., F30602-72-C-0277, Rome Air Development Center, Griffiss AFB NY, Dec. 1974.Bogdanor J.L., Pearlman R.A., Siegel M.D. Intrasystem Electromagnetic Compatibility Analysis Program. Volume I: User’s Manual Engineering Section. Mc.Donnel Douglas Aircraft Corp., F30602-72-C-0277, Rome Air Development Center, Griffiss AFB NY, Dec. 1974.Capraro G.T. An Intrasystem EMC Analysis Program // Electromagnetic Compatibility, AGARD Lecture Series. 1981. No.116. P. 4–1 – 4–22.Capraro G.T. An Intrasystem EMC Analysis Program // Electromagnetic Compatibility, AGARD Lecture Series. 1981. No.116. P. 4–1 – 4–22.Pearlman R.A. Intrasystem Electromagnetic Compatibility Analysis Program (IEMCAP) F-15 Validation. Part I. Validation and Sensitivity Study. Mc.Donnel Douglas Aircraft Corp., F30602-76-C-0193, Rome Air Development Center, Griffiss AFB NY, Sep. 1977.Pearlman R.A. Intrasystem Electromagnetic Compatibility Analysis Program (IEMCAP) F-15 Validation. Part I. Validation and Sensitivity Study. Mc.Donnel Douglas Aircraft Corp., F30602-76-C-0193, Rome Air Development Center, Griffiss AFB NY, Sep. 1977.Freeman E. IEMCAP Implementation Study, Volume I. Sachs/Freeman Associates Inc., F30602-76-C-0356, Rome Air Development Center, Griffiss AFB NY, Dec. 1977.Freeman E. IEMCAP Implementation Study, Volume I. Sachs/Freeman Associates Inc., F30602-76-C-0356, Rome Air Development Center, Griffiss AFB NY, Dec. 1977.Gardner F.K., Davidson S.A. Validation of IEMCAP using the B-52 // Proc. of the 1978 IEEE Symp. on EMC. P. 307–309.Gardner F.K., Davidson S.A. Validation of IEMCAP using the B-52 // Proc. of the 1978 IEEE Symp. on EMC. P. 307–309.Mordachev V.I. Discrete Nonlinear Analysis of Radio Systems Electromagnetic Compatibility // Doklady BGUIR. 2004. No. 2. P. 154–163.Mordachev V.I. Discrete Nonlinear Analysis of Radio Systems Electromagnetic Compatibility // Doklady BGUIR. 2004. No. 2. P. 154–163.Mordachev V.I., Sinkevich E.V. Discrete technology of electromagnetic compatibility analysis at the system level: features and applications overview // Proc. of the Int. conf. on metrology and measurement «ICMM 2007». Vol. 1. Beijing, China, 2007. P. 57–63.Mordachev V.I., Sinkevich E.V. Discrete technology of electromagnetic compatibility analysis at the system level: features and applications overview // Proc. of the Int. conf. on metrology and measurement «ICMM 2007». Vol. 1. Beijing, China, 2007. P. 57–63.Sinkevich E., Mordachev V. Characterization of Radio Receiver's Front-End Nonlinearity by Measurement of Spurious-Free Dynamic Ranges // Proc. of the 11-th Int. Symp. on EMC «EMC Europe 2012». Rome, Italy, 2012. 6 p.Sinkevich E., Mordachev V. Characterization of Radio Receiver's Front-End Nonlinearity by Measurement of Spurious-Free Dynamic Ranges // Proc. of the 11-th Int. Symp. on EMC «EMC Europe 2012». Rome, Italy, 2012. 6 p.Mordachev V.I. Automated double frequency test system // Proc. of 5th Int. Conf. on Electromagnetic Interference and Compatibility (INCEMIC'97). Hyderabad, India, 1997. P. 99–104.Mordachev V.I. Automated double frequency test system // Proc. of 5th Int. Conf. on Electromagnetic Interference and Compatibility (INCEMIC'97). Hyderabad, India, 1997. P. 99–104.Mordachev V.I. Automated Double-Frequency Testing Technique for Mapping Receiver Interference Responses // IEEE Trans. on EMC. 2000. Vol. 42, No 2. P. 213–225.Mordachev V.I. Automated Double-Frequency Testing Technique for Mapping Receiver Interference Responses // IEEE Trans. on EMC. 2000. Vol. 42, No 2. P. 213–225.Mordachev V.I., Sinkevich E.V. Experimental Analysis of Radio Receiver Susceptibility to Out-of-Band Interference by Means of Double-Frequency Test System // Proc. of the 10-th Int. Symp. on EMC «EMC Europe 2011». York, 2011. P. 405–411.Mordachev V.I., Sinkevich E.V. Experimental Analysis of Radio Receiver Susceptibility to Out-of-Band Interference by Means of Double-Frequency Test System // Proc. of the 10-th Int. Symp. on EMC «EMC Europe 2011». York, 2011. P. 405–411.Mordachev V., Sinkevich E. Spurious and Intermodulation Response Analysis of Passive Double-Balanced Mixers using the Double-Frequency Scanning Technique // Proc. of the 2013 Int. Symp. on EMC «EMC Europe 2013». Brugge, 2013. P. 737–742.Mordachev V., Sinkevich E. Spurious and Intermodulation Response Analysis of Passive Double-Balanced Mixers using the Double-Frequency Scanning Technique // Proc. of the 2013 Int. Symp. on EMC «EMC Europe 2013». Brugge, 2013. P. 737–742.Mordachev V., Sinkevich E. Representation and Analysis of Radio Receivers' Susceptibility and Nonlinearity by the Use of 3D Double-Frequency Characteristics // Proc. of the 2014 Int. Symp. on EMC «EMC'14/Tokyo». Tokyo, 2014. P. 689–692.Mordachev V., Sinkevich E. Representation and Analysis of Radio Receivers' Susceptibility and Nonlinearity by the Use of 3D Double-Frequency Characteristics // Proc. of the 2014 Int. Symp. on EMC «EMC'14/Tokyo». Tokyo, 2014. P. 689–692.Sinkevich E. Worst-Case Models of RF Front-End Nonlinearity for Discrete Nonlinear Analysis of Electromagnetic Compatibility // Proc. of the 2014 Int. Symp. on EMC «EMC Europe 2014». Gothenburg, 2014. P. 1281–1286.Sinkevich E. Worst-Case Models of RF Front-End Nonlinearity for Discrete Nonlinear Analysis of Electromagnetic Compatibility // Proc. of the 2014 Int. Symp. on EMC «EMC Europe 2014». Gothenburg, 2014. P. 1281–1286.Tsionenko D.A., Maly S.V., Sinkevich E.V. Computationally-Effective Ultra-Wideband Worst-Case Model of Electromagnetic Wave Diffraction by Aperture in Conducting Screen // Proc. of the 2014 Int. Symp. on EMC «EMC Europe 2014». Gothenburg, 2014. P. 1287–1292.Tsionenko D.A., Maly S.V., Sinkevich E.V. Computationally-Effective Ultra-Wideband Worst-Case Model of Electromagnetic Wave Diffraction by Aperture in Conducting Screen // Proc. of the 2014 Int. Symp. on EMC «EMC Europe 2014». Gothenburg, 2014. P. 1287–1292.Computationally-Effective Worst-Case Model of Wire Radiation in the Frequency Range 1 Hz – 40 GHz / Y.Y. Arlou [et al.] // Proc. of the 2014 Int. Symp. on EMC «EMC Europe 2014». Gothenburg, 2014. P. 1293–1298.Computationally-Effective Worst-Case Model of Wire Radiation in the Frequency Range 1 Hz – 40 GHz / Y.Y. Arlou [et al.] // Proc. of the 2014 Int. Symp. on EMC «EMC Europe 2014». Gothenburg, 2014. P. 1293–1298.Computationally-Effective Worst-Case Estimation of Currents in Transmission Lines for EMC Diagnostics of Big Systems / D.A. Tsyanenka [et al.] // Proc. of the EMC 2015 Joint IEEE Int. Symp. on EMC and EMC Europe. Dresden, 2015. P. 1165–1170.Computationally-Effective Worst-Case Estimation of Currents in Transmission Lines for EMC Diagnostics of Big Systems / D.A. Tsyanenka [et al.] // Proc. of the EMC 2015 Joint IEEE Int. Symp. on EMC and EMC Europe. Dresden, 2015. P. 1165–1170.Computationally-Effective Wideband Worst-Case Model of Transmission Line Radiation / D.A. Tsyanenka [et al.] // Proc. of the EMC 2015 Joint IEEE Int. Symp. on EMC and EMC Europe. Dresden, 2015. P. 1171–1176.Computationally-Effective Wideband Worst-Case Model of Transmission Line Radiation / D.A. Tsyanenka [et al.] // Proc. of the EMC 2015 Joint IEEE Int. Symp. on EMC and EMC Europe. Dresden, 2015. P. 1171–1176.Arlou Y., Tsyanenka D., Sinkevich E. Wideband computationally-effective worst-case model of twisted pair radiation // Proc. of the Int. Conf. «Days on Diffraction». S.-Petersburg, 2015. P. 14–19.Arlou Y., Tsyanenka D., Sinkevich E. Wideband computationally-effective worst-case model of twisted pair radiation // Proc. of the Int. Conf. «Days on Diffraction». S.-Petersburg, 2015. P. 14–19.Tsyanenka D., Sinkevich E., Matsveyeu A. Computationally-Effective Worst-Case Model of Coupling between On-Board Antennas That Takes into Account Diffraction by Conducting Hull // Proc. of the 2016 Int. Symp. on EMC «EMC Europe 2016». Wroclaw, 2016. P. 602–607.Tsyanenka D., Sinkevich E., Matsveyeu A. Computationally-Effective Worst-Case Model of Coupling between On-Board Antennas That Takes into Account Diffraction by Conducting Hull // Proc. of the 2016 Int. Symp. on EMC «EMC Europe 2016». Wroclaw, 2016. P. 602–607.Sinkevich E., Tsyanenka D., Yurtsev O. System-Level Model for Analysis of Dipole Antenna Response to Electromagnetic Pulse // Proc. of the 2016 Int. Symp. on EMC «EMC Europe 2016». Wroclaw, 2016. P. 614–619.Sinkevich E., Tsyanenka D., Yurtsev O. System-Level Model for Analysis of Dipole Antenna Response to Electromagnetic Pulse // Proc. of the 2016 Int. Symp. on EMC «EMC Europe 2016». Wroclaw, 2016. P. 614–619.Arlou Y., Sinkevich E., Tsyanenka D. Computationally Effective Wideband Combined Worst-Case Model of Monopole Antenna Coupling // Proc. of the 2016 Int. Symp. on EMC «EMC Europe 2016». Wroclaw, 2016. P. 620–625.Arlou Y., Sinkevich E., Tsyanenka D. Computationally Effective Wideband Combined Worst-Case Model of Monopole Antenna Coupling // Proc. of the 2016 Int. Symp. on EMC «EMC Europe 2016». Wroclaw, 2016. P. 620–625.Tsyanenka D., Sinkevich E., Arlou Y. Wideband Worst-Case Model of Electromagnetic Field Shielding by Metallic Enclosure with Apertures // Proc. of the 2017 Int. Symp. on EMC «EMC Europe 2017». Angers, 2017. 6 p (paper ID 71).Tsyanenka D., Sinkevich E., Arlou Y. Wideband Worst-Case Model of Electromagnetic Field Shielding by Metallic Enclosure with Apertures // Proc. of the 2017 Int. Symp. on EMC «EMC Europe 2017». Angers, 2017. 6 p (paper ID 71).Worst-case model of spurious resonances appearing in radio-frequency cables and degrading electromagnetic compatibility characteristics of wireless equipment at out-of-band frequencies / Y.Y. Arlou [et al.] // Proc. of the 2017 Int. Symp. on EMC «EMC Europe 2017». Angers, 2017. 6 p. (paper ID 122).Worst-case model of spurious resonances appearing in radio-frequency cables and degrading electromagnetic compatibility characteristics of wireless equipment at out-of-band frequencies / Y.Y. Arlou [et al.] // Proc. of the 2017 Int. Symp. on EMC «EMC Europe 2017». Angers, 2017. 6 p. (paper ID 122).Tsyanenka D., Arlou Y., Sinkevich E. Worst-Case Model for Considering Gaskets in Calculation of Shielding Effectiveness of Metallic Enclosures // Proc. of the 2018 Int. Symp. on EMC «EMC Europe 2018». Amsterdam, 2018. P. 178–183.Tsyanenka D., Arlou Y., Sinkevich E. Worst-Case Model for Considering Gaskets in Calculation of Shielding Effectiveness of Metallic Enclosures // Proc. of the 2018 Int. Symp. on EMC «EMC Europe 2018». Amsterdam, 2018. P. 178–183.Worst-case Model for Calculation of Lightning Electromagnetic Field / Y. Arlou [et al.] // Proc. of the 2018 Int. Symp. on EMC «EMC Europe 2018». Amsterdam, 2018. P. 196–201.Worst-case Model for Calculation of Lightning Electromagnetic Field / Y. Arlou [et al.] // Proc. of the 2018 Int. Symp. on EMC «EMC Europe 2018». Amsterdam, 2018. P. 196–201.EMC Diagnostics of Complex Radio Systems by the Use of Analytical and Numerical Worst-Case Models for Spurious Couplings Between Antennas / Mordachev V. [et al.] // Proc. of the 2016 Int. Symp. on EMC «EMC Europe 2016». Wroclaw, 2016. P. 608–613.EMC Diagnostics of Complex Radio Systems by the Use of Analytical and Numerical Worst-Case Models for Spurious Couplings Between Antennas / Mordachev V. [et al.] // Proc. of the 2016 Int. Symp. on EMC «EMC Europe 2016». Wroclaw, 2016. P. 608–613.Simulation of Nonlinear Interference in Aircraft Systems Operating in Complex Electromagnetic Environment Created by Land-Based and Air-Based Wireless Systems / V. Mordachev [et al.] // Proc. of the 2017 Int. Symp. on EMC «EMC Europe 2017». Angers, 2017. 6 p. (paper No. 81).Simulation of Nonlinear Interference in Aircraft Systems Operating in Complex Electromagnetic Environment Created by Land-Based and Air-Based Wireless Systems / V. Mordachev [et al.] // Proc. of the 2017 Int. Symp. on EMC «EMC Europe 2017». Angers, 2017. 6 p. (paper No. 81).Multi-Variant Discrete Analysis of EMC of On-Board Radio Equipment with Use of Worst-Case Models/ Mordachev V. [et al.] // Proc. of the 2018 Int. Symp. on EMC «EMC Europe 2018». Amsterdam, 2018. P. 190–195.Multi-Variant Discrete Analysis of EMC of On-Board Radio Equipment with Use of Worst-Case Models/ Mordachev V. [et al.] // Proc. of the 2018 Int. Symp. on EMC «EMC Europe 2018». Amsterdam, 2018. P. 190–195.Xie Ma, Sinkevich E., Mordachev V. Suppression of the electromagnetic interference from satellite communication on-the-move system // Proc. of 2018 IEEE Int. Symp. on Antennas and Propagation and USNC-URSI Radio Science Meeting. Boston, 2018. P. 165–166.Xie Ma, Sinkevich E., Mordachev V. Suppression of the electromagnetic interference from satellite communication on-the-move system // Proc. of 2018 IEEE Int. Symp. on Antennas and Propagation and USNC-URSI Radio Science Meeting. Boston, 2018. P. 165–166.Mordachev V., Litvinko P. Expert System for EMC Analysis Taking Into Account Nonlinear Interference // Proc. of 16th Int. Wroclaw Symp. on EMC. Wroclaw, 2002. P. 265–270.Mordachev V., Litvinko P. Expert System for EMC Analysis Taking Into Account Nonlinear Interference // Proc. of 16th Int. Wroclaw Symp. on EMC. Wroclaw, 2002. P. 265–270.Mordachev V., Litvinko P. Advanced options of expert system «EMC-Analyzer» // Proc. of the 2006 Int. Symp. on EMC «EMC Europe 2006». Barcelona, 2006. P. 635–640.Mordachev V., Litvinko P. Advanced options of expert system «EMC-Analyzer» // Proc. of the 2006 Int. Symp. on EMC «EMC Europe 2006». Barcelona, 2006. P. 635–640.Mordachev V.I., Sinkevich E.V. EMC-Analyzer expert system: improvement of IEMCAP models // Proc. of 19 th Int. Wroclaw Symp. and Exhib. on EMC. Wroclaw, 2008. P. 423–428.Mordachev V.I., Sinkevich E.V. EMC-Analyzer expert system: improvement of IEMCAP models // Proc. of 19 th Int. Wroclaw Symp. and Exhib. on EMC. Wroclaw, 2008. P. 423–428.EMC-Analyzer. Mathematical models and algorithms of electromagnetic compatibility analysis and prediction software complex. Minsk, 2018.EMC-Analyzer. Mathematical models and algorithms of electromagnetic compatibility analysis and prediction software complex. Minsk, 2018.

The authors declare that there are no conflicts of interest present.