• High Power Laser and Particle Beams
  • Vol. 35, Issue 5, 053006 (2023)
Zhihan He, Juting Hong, Liping Yan*, and Xiang Zhao
Author Affiliations
  • College of Electronic and Information Engineering, Sichuan University, Chengdu 610065, China
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    DOI: 10.11884/HPLPB202335.230006 Cite this Article
    Zhihan He, Juting Hong, Liping Yan, Xiang Zhao. Modeling and application of electromagnetic coupling cross section of building walls[J]. High Power Laser and Particle Beams, 2023, 35(5): 053006 Copy Citation Text show less
    Simplified model of EM wave incident wall
    Fig. 1. Simplified model of EM wave incident wall
    Normal incident transmission coefficient of electromagnetic wave impinging upon concrete
    Fig. 2. Normal incident transmission coefficient of electromagnetic wave impinging upon concrete
    Transmission and reflection coefficients of electromagnetic wave impinging upon concrete (No.19) with thickness of d = 150 mm
    Fig. 3. Transmission and reflection coefficients of electromagnetic wave impinging upon concrete (No.19) with thickness of d = 150 mm
    Normal incident reflection coefficient and transmission coefficient with respect to frequency (d = 150 mm)
    Fig. 4. Normal incident reflection coefficient and transmission coefficient with respect to frequency (d = 150 mm)
    Normalized CCS with respect to electrical conductivity
    Fig. 5. Normalized CCS with respect to electrical conductivity
    Literature [3] versus theoretical CCS
    Fig. 6. Literature [3] versus theoretical CCS
    Experimental system
    Fig. 7. Experimental system
    Measured and theoretical results comparison
    Fig. 8. Measured and theoretical results comparison
    No.materiald/mm No.materiald/mm
    1plexiglass6, 10, 122PP
    3teflon4polystyrene
    5pine wood6hardboard
    75-ply plywood8MDF2−30
    9MDF with gray veneer2−3010MDF with brown veneer2−30
    11chipboard12chipboard with veneer
    13glass6, 10, 1214wood-cement board
    15gypsum plaster16plasterboard6, 8, 9, 12, 14, 16, 18
    17red brick120, 240, 370, 49018yellow brick120, 240, 370, 490
    19concrete with small gravel75, 100, 150; 160, 180, 20020concrete with large gravel75, 100, 150; 160, 180, 200
    Table 1. Material serial number
    materiald/mm WCCS/m2TCCS/m2WCCS/m2TCCS/m2WCCS/m2TCCS/m2Ref [5] CCS/m2
    2.4 GHz5.5 GHz27 GHz
    plexiglass6~120.001~0.0020.214~0.1850.002~0.0040.181~0.2110.012~0.0210.215~0.1870.223
    glass6~120.001~0.0010.150~0.1200.002~0.0090.122~0.1780.062~0.0840.138~0.0880.194
    plasterboard6~180.009~0.0160.210~0.1690.013~0.0410.177~0.1790.054~0.1170.176~0.1050.224
    red brick120~4900.007~0.0250.196~0.1780.026~0.0840.183~0.1280.201~0.2190.018~0.0000.219
    concrete with small gravel75~2000.013~0.0390.163~0.1700.047~0.0990.158~0.1110.209~0.2150.006~0.0000.215
    concrete with large gravel75~2000.016~0.0480.144~0.1450.057~0.1170.142~0.0890.205~0.2100.005~0.0000.210
    Table 2. Normalized CCS calculation for common building materials
    Zhihan He, Juting Hong, Liping Yan, Xiang Zhao. Modeling and application of electromagnetic coupling cross section of building walls[J]. High Power Laser and Particle Beams, 2023, 35(5): 053006
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