24.8.6.11.4 Magnetic, Electromagnetic Detection for Buried Objects, UXO, Landmines

Chapter Contents (Back)
Walls. Magnetic. Buried Objects. Electromagnetic.
See also Through the Wall Imaging, Radar, Microwave Imaging.
See also Ground Penetrating Radar Systems.
See also Ground Penetrating Radar, Buried Objects.
See also Ground Penetrating Radar, UXO, Landmines, Explosives.

Zhang, Y.[Yan], Collins, L., Yu, H.T.[Hai-Tao], Baum, C.E., Carin, L.,
Sensing of unexploded ordnance with magnetometer and induction data: theory and signal processing,
GeoRS(41), No. 5, May 2003, pp. 1005-1015.
IEEE Abstract. 0307
BibRef

Collins, L., Gao, P.[Ping], Schofield, D., Moulton, J.P., Makowsky, L.C., Reidy, D.M., Weaver, R.C.,
A statistical approach to landmine detection using broadband electromagnetic induction data,
GeoRS(40), No. 4, April 2002, pp. 950-962.
IEEE Top Reference. 0206
BibRef

Liao, X.J.[Xue-Jun], Carin, L.[Lawrence],
Application of the Theory of Optimal Experiments to Adaptive Electromagnetic-Induction Sensing of Buried Targets,
PAMI(26), No. 8, August 2004, pp. 961-972.
IEEE Abstract. 0407
EMI device senses magnetic objects. BibRef

Liu, D.H.[De-Hong], Krolik, J.[Jeffrey], Carin, L.[Lawrence],
Electromagnetic Target Detection in Uncertain Media: Time-Reversal and Minimum-Variance Algorithms,
GeoRS(45), No. 4, April 2007, pp. 934-944.
IEEE DOI 0704
BibRef

Chiu, C.C.[Chien-Ching], Chen, W.T.[Wei-Ting],
Inverse scattering of a buried imperfect conductor by the genetic algorithm,
IJIST(11), No. 6, 2000, pp. 355-360.
WWW Link. 0201
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Lin, C.J.[Chun Jen], Chiu, C.C.[Chien-Ching],
Image reconstruction of buried inhomogeneous dielectric cylinders coated on a conductor,
IJIST(15), No. 3, 2005, pp. 172-177.
DOI Link 0510
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Lin, C.J.[Chun Jen], Chou, C.Y.[Chun-Yuan], Chiu, C.C.[Chien-Ching],
Electromagnetic imaging for a conducting cylinder buried in a slab medium by the genetic algorithm,
IJIST(14), No. 1, 2004, pp. 1-7.
DOI Link 0406
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Chien, W.T.[Wei-Ting], Sun, C.H.[Chi-Hsien], Chiu, C.C.[Chien-Ching],
Image reconstruction for a partially immersed imperfectly conducting cylinder by genetic algorithm,
IJIST(19), No. 4, December 2009, pp. 299-305.
DOI Link 0912
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Huang, C.H.[Chung-Hsin], Lu, H.C.[Hung-Cheng], Chiu, C.C.[Chien-Ching], Wysocki, T.A.[Tadeusz A.], Wysocki, B.J.[Beata J.],
Image reconstruction of buried multiple conductors by genetic algorithms,
IJIST(18), No. 4, 2008, pp. 276-281.
DOI Link 0810
BibRef

Huang, C.H.[Chung-Hsin], Liu, C.L.[Chun-Liang], Lin, C.J.[Chun Jen], Chiu, C.C.[Chien-Ching],
Inverse scattering of buried inhomogeneous biaxial dielectric cylinders coated on a conductor,
IJIST(18), No. 4, 2008, pp. 228-236.
DOI Link 0810
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Won, I.J., Keiswetter, D.A., Bell, T.H.,
Electromagnetic induction spectroscopy for clearing landmines,
GeoRS(39), No. 4, April 2001, pp. 703-709.
IEEE Top Reference. 0105
BibRef

Firoozabadi, R., Miller, E.L., Rappaport, C.M., Morgenthaler, A.W.,
Subsurface Sensing of Buried Objects Under a Randomly Rough Surface Using Scattered Electromagnetic Field Data,
GeoRS(45), No. 1, January 2007, pp. 104-117.
IEEE DOI 0701
BibRef

Tarokh, A.B., Miller, E.L.,
Subsurface Sensing Under Sensor Positional Uncertainty,
GeoRS(45), No. 3, March 2007, pp. 675-688.
IEEE DOI 0703
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El-Shenawee, M.,
The multiple interaction model for nonshallow scatterers buried beneath 2-D random rough surfaces,
GeoRS(40), No. 4, April 2002, pp. 982-987.
IEEE Top Reference. 0206
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Hajihashemi, M.R., El-Shenawee, M.,
TE Versus TM for the Shape Reconstruction of 2-D PEC Targets Using the Level-Set Algorithm,
GeoRS(48), No. 3, March 2010, pp. 1159-1168.
IEEE DOI 1003
perfect electric conducting. BibRef

Hajihashemi, M.R., El-Shenawee, M.,
Level Set Algorithm for Shape Reconstruction of Non-Overlapping Three-Dimensional Penetrable Targets,
GeoRS(50), No. 1, January 2012, pp. 75-86.
IEEE DOI 1201
BibRef

Huang, H.P.[Hao-Ping], Won, I.J.,
Automated identification of buried landmines using normalized electromagnetic induction spectroscopy,
GeoRS(41), No. 3, March 2003, pp. 640-651.
IEEE Abstract. 0301
BibRef

Huang, H.P.[Hao-Ping], Won, I.J.,
Characterization of UXO-like targets using broadband electromagnetic induction sensors,
GeoRS(41), No. 3, March 2003, pp. 652-663.
IEEE Abstract. 0301
BibRef

Losada, V., Boix, R.R., Medina, F.,
Fast and accurate algorithm for the short-pulse electromagnetic scattering from conducting circular plates buried inside a lossy dispersive half-space,
GeoRS(41), No. 5, May 2003, pp. 988-997.
IEEE Abstract. 0307
BibRef

Billings, S.D.,
Discrimination and Classification of Buried Unexploded Ordnance Using Magnetometry,
GeoRS(42), No. 6, June 2004, pp. 1241-1251.
IEEE Abstract. 0407
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Massa, A., Boni, A., Donelli, M.,
A Classification Approach Based on SVM for Electromagnetic Subsurface Sensing,
GeoRS(43), No. 9, September 2005, pp. 2084-2093.
IEEE DOI 0509
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Donelli, M., Franceschini, D., Rocca, P., Massa, A.,
Three-Dimensional Microwave Imaging Problems Solved Through an Efficient Multiscaling Particle Swarm Optimization,
GeoRS(47), No. 5, May 2009, pp. 1467-1481.
IEEE DOI 0904

See also Inversion of Phaseless Total Field Data Using a Two-Step Strategy Based on the Iterative Multiscaling Approach. BibRef

Moss, C.D., Grzegorczyk, T.M., O'Neill, K., Kong, J.A.,
A Hybrid Time-Domain Model of Electromagnetic Induction From Conducting, Permeable Targets,
GeoRS(44), No. 10, October 2006, pp. 2916-2926.
IEEE DOI 0609
BibRef

Chen, X., O'Neill, K., Grzegorczyk, T.M., Kong, J.A.,
Spheroidal Mode Approach for the Characterization of Metallic Objects Using Electromagnetic Induction,
GeoRS(45), No. 3, March 2007, pp. 697-706.
IEEE DOI 0703
BibRef

Das, Y.,
Effects of Soil Electromagnetic Properties on Metal Detectors,
GeoRS(44), No. 6, June 2006, pp. 1444-1453.
IEEE DOI 0606
BibRef

Altuncu, Y., Yapar, A., Akduman, I.,
On the Scattering of Electromagnetic Waves by Bodies Buried in a Half-Space With Locally Rough Interface,
GeoRS(44), No. 6, June 2006, pp. 1435-1443.
IEEE DOI 0606
BibRef

Riggs, L.S., Mooney, J.E., Lawrence, D.E.,
Identification of metallic mine-like objects using low frequency magnetic fields,
GeoRS(39), No. 1, January 2001, pp. 56-66.
IEEE Top Reference. 0104
BibRef

Chilaka, S.V., Faircloth, D.L., Riggs, L.S., Nelson, H.H.,
Enhanced Discrimination Among UXO-Like Targets Using Extremely Low-Frequency Magnetic Fields,
GeoRS(44), No. 1, January 2006, pp. 10-21.
IEEE DOI 0601
BibRef

Hart, S.J., Shaffer, R.E., Rose-Pehrsson, S.L., McDonald, J.R.,
Using physics-based modeler outputs to train probabilistic neural networks for unexploded ordnance (UXO) classification in magnetometry surveys,
GeoRS(39), No. 4, April 2001, pp. 797-804.
IEEE Top Reference. 0105
BibRef

Billings, S.D., Pasion, C., Walker, S., Beran, L.,
Magnetic Models of Unexploded Ordnance,
GeoRS(44), No. 8, August 2006, pp. 2115-2124.
IEEE DOI 0608
BibRef

Zhang, Y.H., Xiao, B.X., Zhu, G.Q.,
An Improved Weak-Form BCGS-FFT Combined With DCIM for Analyzing Electromagnetic Scattering by 3-D Objects in Planarly Layered Media,
GeoRS(44), No. 12, December 2006, pp. 3540-3546.
IEEE DOI 0701
BibRef

Zhang, Q., Al-Nuaimy, W., Huang, Y.,
Detection of Deeply Buried UXO Using CPT Magnetometers,
GeoRS(45), No. 2, February 2007, pp. 410-417.
IEEE DOI 0703
BibRef

Pettinelli, E.[Elena], Burghignoli, P.[Paolo], Pisani, A.R.[Anna Rita], Ticconi, F.[Francesca], Galli, A.[Alessandro], Vannaroni, G.[Giuliano], Bella, F.[Francesco],
Electromagnetic Propagation of GPR Signals in Martian Subsurface Scenarios Including Material Losses and Scattering,
GeoRS(45), No. 5, May 2007, pp. 1271-1281.
IEEE DOI 0704
BibRef

Zhdanov, M.S.[Michael S.], Dmitriev, V.I.[Vladimir I.], Gribenko, A.V.[Alexander V.],
Integral Electric Current Method in 3-D Electromagnetic Modeling for Large Conductivity Contrast,
GeoRS(45), No. 5, May 2007, pp. 1282-1290.
IEEE DOI 0704
BibRef

Ozdemir, O.[Ozgr], Akduman, I.[Ibrahim], Yapar, A.[Ali], Crocco, L.[Lorenzo],
Higher Order Inhomogeneous Impedance Boundary Conditions for Perfectly Conducting Objects,
GeoRS(45), No. 5, May 2007, pp. 1291-1297.
IEEE DOI 0704
BibRef

Sanchez, V., Li, Y., Nabighian, M.N., Wright, D.L.,
Numerical Modeling of Higher Order Magnetic Moments in UXO Discrimination,
GeoRS(46), No. 9, September 2008, pp. 2568-2583.
IEEE DOI 0810
BibRef

Ayuso, N., Cuchi, J.A., Lera, F., Villarroel, J.L.,
Accurately Locating a Vertical Magnetic Dipole Buried in a Conducting Earth,
GeoRS(48), No. 10, October 2010, pp. 3676-3685.
IEEE DOI 1003
BibRef

Druyts, P., Craeye, C., Acheroy, M.,
Volume of Influence for Magnetic Soils and Electromagnetic Induction Sensors,
GeoRS(48), No. 10, October 2010, pp. 3686-3697.
IEEE DOI 1003
BibRef

Zhai, Y.B., Ping, X.W., Zhou, X.Y., Zhang, J.F., Yu, W.M., Lu, W.B., Cui, T.J.,
Fast Computations to Electromagnetic Scattering Properties of Complex Bodies of Revolution Buried and Partly Buried in Layered Lossy Media,
GeoRS(49), No. 4, April 2011, pp. 1431-1440.
IEEE DOI 1104
BibRef

Grzegorczyk, T.M., Barrowes, B.E., Shubitidze, F., Fernandez, J.P., O'Neill, K.,
Simultaneous Identification of Multiple Unexploded Ordnance Using Electromagnetic Induction Sensors,
GeoRS(49), No. 7, July 2011, pp. 2507-2517.
IEEE DOI 1107
BibRef

Grzegorczyk, T.M., Barrowes, B.E.,
Real-Time Processing of Electromagnetic Induction Dynamic Data Using Kalman Filters for Unexploded Ordnance Detection,
GeoRS(51), No. 6, 2013, pp. 3439-3451.
IEEE DOI Kalman filters; magnetic fields; MetalMapper; UXO; electromagnetic induction; extended Kalman filter; unexploded ordnance detection 1307
BibRef

Liang, Y.[Yu], Guo, L.X.[Li-Xin], Wu, Z.S.[Zhen-Sen],
The Fast EPILE Combined With FBM for Electromagnetic Scattering From Dielectric Targets Above and Below the Dielectric Rough Surface,
GeoRS(49), No. 10, October 2011, pp. 3892-3905.
IEEE DOI 1110
BibRef

Lehmann-Horn, J.A., Hertrich, M., Greenhalgh, S.A., Green, A.G.,
Three-Dimensional Magnetic Field and NMR Sensitivity Computations Incorporating Conductivity Anomalies and Variable-Surface Topography,
GeoRS(49), No. 10, October 2011, pp. 3878-3891.
IEEE DOI 1110
BibRef

Song, L.P.[Lin-Ping], Pasion, L.R., Billings, S.D., Oldenburg, D.W.,
Nonlinear Inversion for Multiple Objects in Transient Electromagnetic Induction Sensing of Unexploded Ordnance: Technique and Applications,
GeoRS(49), No. 10, October 2011, pp. 4007-4020.
IEEE DOI 1110
BibRef

Song, L.P.[Lin-Ping], Oldenburg, D.W., Pasion, L.R., Billings, S.D., Beran, L.,
Temporal Orthogonal Projection Inversion for EMI Sensing of UXO,
GeoRS(53), No. 2, February 2015, pp. 1061-1072.
IEEE DOI 1411
buried object detection BibRef

Song, L.P.[Lin-Ping], Billings, S.D., Pasion, L.R., Oldenburg, D.W.,
Transient Electromagnetic Scattering of a Metallic Object Buried in Underwater Sediments,
GeoRS(54), No. 2, February 2016, pp. 1091-1102.
IEEE DOI 1601
Conductivity BibRef

Churchill, K.M., Link, C., Youmans, C.C.,
A Comparison of the Finite-Element Method and Analytical Method for Modeling Unexploded Ordnance Using Magnetometry,
GeoRS(50), No. 7, July 2012, pp. 2720-2732.
IEEE DOI 1208
BibRef

Bakr, S.A., Mannseth, T.,
An Approximate Hybrid Method for Electromagnetic Scattering From an Underground Target,
GeoRS(51), No. 1, January 2013, pp. 99-107.
IEEE DOI 1301
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Turlapaty, A.C., Du, Q., Younan, N.H.,
A Partially Supervised Approach for Detection and Classification of Buried Radioactive Metal Targets Using Electromagnetic Induction Data,
GeoRS(51), No. 1, January 2013, pp. 108-121.
IEEE DOI 1301
BibRef

Tantum, S.L., Scott, W.R., Morton, K.D., Collins, L.M., Torrione, P.A.,
Target Classification and Identification Using Sparse Model Representations of Frequency-Domain Electromagnetic Induction Sensor Data,
GeoRS(51), No. 5, May 2013, pp. 2689-2706.
IEEE DOI 1305
BibRef

Nikolic, M.M., Nehorai, A., Djordjevic, A.R.,
Electromagnetic Imaging of Hidden 2-D PEC Targets Using Sparse-Signal Modeling,
GeoRS(51), No. 5, May 2013, pp. 2707-2721.
IEEE DOI 1305
BibRef

Lechleiter, A.[Armin], Nguyen, D.L.[Dinh-Liem],
Factorization Method for Electromagnetic Inverse Scattering from Biperiodic Structures,
SIIMS(6), No. 2, 2013, pp. 1111-1139.
DOI Link 1307
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Akhtar, M.J., Thumm, M.,
Measurement of Complex Permittivity of Cylindrical Objects in the E-Plane of a Rectangular Waveguide,
GeoRS(51), No. 1, January 2013, pp. 122-131.
IEEE DOI 1301
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McKenna, S.P., Parkman, K.B., Perren, L.J., McKenna, J.R.,
Automatic Detection of a Subsurface Wire Using an Electromagnetic Gradiometer,
GeoRS(51), No. 1, January 2013, pp. 132-139.
IEEE DOI 1301
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Chiu, C.C., Sun, C.H., Li, C.L., Huang, C.H.,
Comparative Study of Some Population-Based Optimization Algorithms on Inverse Scattering of a Two-Dimensional Perfectly Conducting Cylinder in Dielectric Slab Medium,
GeoRS(51), No. 4, April 2013, pp. 2302-2315.
IEEE DOI 1304
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Gabbay, J.[Jonathan], Scott, Jr., W.R.[Waymond R.],
Modeling targets for electromagnetic induction sensing applications,
SPIE(Newsroom), March 29, 2013
DOI Link 1705
A new technique that computes the eigenmodes of the eddy-current problem provides an aid to classification using broadband electromagnetic induction sensors. BibRef

Ma, J.[Jin], Jin, J.M.[Jian-Ming], Nie, Z.P.[Zai-Ping],
A Nonconformal FEM-DDM With Tree-Cotree Splitting and Improved Transmission Condition for Modeling Subsurface Detection Problems,
GeoRS(52), No. 1, January 2014, pp. 355-364.
IEEE DOI 1402
computational electromagnetics BibRef

Zhang, W.J.[Wen-Ji], Liu, Q.H.[Qing Huo],
Three-Dimensional Scattering and Inverse Scattering from Objects With Simultaneous Permittivity and Permeability Contrasts,
GeoRS(53), No. 1, January 2015, pp. 429-439.
IEEE DOI 1410
computational electromagnetics BibRef

Wang, L.[Libo], Li, L.L.[Lian-Lin], Tan, Y.[Yunhua],
A Novel Approximate Solution for Electromagnetic Scattering by Dielectric Disks,
GeoRS(53), No. 5, May 2015, pp. 2948-2955.
IEEE DOI 1502
Green's function methods BibRef

Thŕnh, N.T.[Nguyen Trung], Beilina, L.[Larisa], Klibanov, M.V.[Michael V.], Fiddy, M.A.[Michael A.],
Imaging of Buried Objects from Experimental Backscattering Time-Dependent Measurements Using a Globally Convergent Inverse Algorithm,
SIIMS(8), No. 1, 2015, pp. 757-786.
DOI Link 1504
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Adler, A.,
Imaging of Compact Objects Buried in Underwater Sediments Using Electrical Impedance Tomography,
GeoRS(52), No. 2, February 2014, pp. 1407-1417.
IEEE DOI 1402
buried object detection BibRef

Shubitidze, F., Fernandez, J.P., Barrowes, B.E., Shamatava, I., Bijamov, A., O'Neill, K., Karkashadze, D.,
The Orthonormalized Volume Magnetic Source Model for Discrimination of Unexploded Ordnance,
GeoRS(52), No. 8, August 2014, pp. 4658-4670.
IEEE DOI 1403
Arrays BibRef

Mogensen, G.T., Espinosa, H.G., Thiel, D.V.,
Surface Impedance Mapping Using Sferics,
GeoRS(52), No. 4, April 2014, pp. 2074-2080.
IEEE DOI 1403
atmospheric electromagnetic wave propagation BibRef

Bao, G., Lin, J., Mefire, S.,
Numerical Reconstruction of Electromagnetic Inclusions in Three Dimensions,
SIIMS(7), No. 1, 2014, pp. 558-577.
DOI Link 1404
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Moghadasi, S.M., Dehmollaian, M.,
Buried-Object Time-Reversal Imaging Using UWB Near-Ground Scattered Fields,
GeoRS(52), No. 11, November 2014, pp. 7317-7326.
IEEE DOI 1407
Clutter BibRef

Moghadasi, S.M., Dehmollaian, M., Rashed-Mohassel, J.,
Time Reversal Imaging of Deeply Buried Targets Under Moderately Rough Surfaces Using Approximate Transmitted Fields,
GeoRS(53), No. 7, July 2015, pp. 3897-3905.
IEEE DOI 1503
Arrays BibRef

Lucido, M.,
Electromagnetic Scattering by a Perfectly Conducting Rectangular Plate Buried in a Lossy Half-Space,
GeoRS(52), No. 10, October 2014, pp. 6368-6378.
IEEE DOI 1407
Current density BibRef

Pang, H.F.[Hong-Feng], Pan, M.C.[Meng-Chun], Wan, C.B.[Cheng-Biao], Chen, J.F.[Jin-Fei], Zhu, X.J.[Xue-Jun], Luo, F.[Feilu],
Integrated Compensation of Magnetometer Array Magnetic Distortion Field and Improvement of Magnetic Object Localization,
GeoRS(52), No. 9, Sept 2014, pp. 5670-5676.
IEEE DOI 1407
compensation BibRef

de Chiara, F.[Francesca], Fontul, S.[Simona], Fortunato, E.[Eduardo],
GPR Laboratory Tests For Railways Materials Dielectric Properties Assessment,
RS(6), No. 10, 2014, pp. 9712-9728.
DOI Link 1411
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Wahab, A.[Abdul],
Stability and Resolution Analysis of Topological Derivative Based Localization of Small Electromagnetic Inclusions,
SIIMS(8), No. 3, 2015, pp. 1687-1717.
DOI Link 1511
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Ege, Y., Nazlibilek, S., Kakilli, A., Çitak, H., Kalender, O., Erturk, K.L., Sengul, G., Karacor, D.,
A Magnetic Measurement System and Identification Method for Buried Magnetic Materials Within Wet and Dry Soils,
GeoRS(54), No. 3, March 2016, pp. 1803-1811.
IEEE DOI 1603
Humidity BibRef

Abrudan, T.E., Xiao, Z., Markham, A., Trigoni, N.,
Underground Incrementally Deployed Magneto-Inductive 3-D Positioning Network,
GeoRS(54), No. 8, August 2016, pp. 4376-4391.
IEEE DOI 1608
geophysical equipment BibRef

Kypris, O., Abrudan, T.E., Markham, A.,
Magnetic Induction-Based Positioning in Distorted Environments,
GeoRS(54), No. 8, August 2016, pp. 4605-4612.
IEEE DOI 1608
geophysical techniques BibRef

Li, W., Nie, Z., Sun, X.,
Wireless Transmission of MWD and LWD Signal Based on Guidance of Metal Pipes and Relay of Transceivers,
GeoRS(54), No. 8, August 2016, pp. 4855-4866.
IEEE DOI 1608
electromagnetic wave transmission BibRef

Yang, C., Shi, J., Liu, Q., Du, Y.,
Scattering From Inhomogeneous Dielectric Cylinders With Finite Length,
GeoRS(54), No. 8, August 2016, pp. 4555-4569.
IEEE DOI 1608
vegetation BibRef

Cho, S.H., Jung, H.K., Lee, H., Rim, H., Lee, S.K.,
Real-Time Underwater Object Detection Based on DC Resistivity Method,
GeoRS(54), No. 11, November 2016, pp. 6833-6842.
IEEE DOI 1610
Conductivity BibRef

Christiansen, A.V.[Anders Vest], Pedersen, J.B.[Jesper Bjergsted], Auken, E.[Esben], Sře, N.E.[Niels Emil], Holst, M.K.[Mads Kähler], Kristiansen, S.M.[Sřren Munch],
Improved Geoarchaeological Mapping with Electromagnetic Induction Instruments from Dedicated Processing and Inversion,
RS(8), No. 12, 2016, pp. 1022.
DOI Link 1612
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Dalan, R.[Rinita], Sturdevant, J.[Jay], Wallace, R.[Rebecca], Schneider, B.[Blair], de Vore, S.[Steven],
Cutbank Geophysics: A New Method for Expanding Magnetic Investigations to the Subsurface Using Magnetic Susceptibility Testing at an Awatixa Hidatsa Village, North Dakota,
RS(9), No. 2, 2017, pp. xx-yy.
DOI Link 1703
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Ren, Y., Chen, Y., Zhan, Q., Niu, J., Liu, Q.H.,
A Higher Order Hybrid SIE/FEM/SEM Method for the Flexible Electromagnetic Simulation in Layered Medium,
GeoRS(55), No. 5, May 2017, pp. 2563-2574.
IEEE DOI 1705
Green's function methods, finite element analysis, geophysical prospecting, integral equations, Riemann type transmission condition, finite element method, flexible electromagnetic simulation, geophysical exploration, higher-order hybrid SIE-FEM-SEM method, interior dielectric subdomain, layered medium Green functions, nonconformal mesh, penetrable object, spectral element method, surface integral equation, Convergence, Electromagnetics, Finite element analysis, Integral equations, Mathematical model, Numerical models, Domain decomposition, finite-element method (FEM), hybrid method, layered medium (LM), spectral element method (SEM), surface, integral, equation, (SIE) BibRef

Zhou, Y., Shi, L., Liu, N., Zhu, C., Sun, Y., Liu, Q.H.,
Mixed Spectral-Element Method for Overcoming the Low-Frequency Breakdown Problem in Subsurface EM Exploration,
GeoRS(55), No. 6, June 2017, pp. 3488-3500.
IEEE DOI 1706
Electric breakdown, Electromagnetics, Finite element analysis, Linear systems, Mathematical model, Surface waves, Gauss' law, hydrocarbon exploration, low-frequency breakdown, mixed spectral element method (mixed SEM), surface-to-borehole, electromagnetic, (SBEM) BibRef

Cowan, D.C., Song, L.P., Oldenburg, D.W.,
Transient VRM Response From a Large Circular Loop Over a Conductive and Magnetically Viscous Half-Space,
GeoRS(55), No. 7, July 2017, pp. 3669-3678.
IEEE DOI 1706
Magnetic domains, Magnetic susceptibility, Magnetization, Numerical models, Soil, Transient analysis, Transmitters, Circular loop, crossover time, inductive response, magnetic soil, time-domain electromagnetic (TEM) systems, viscous, remanent, magnetization, (VRM) BibRef

Salucci, M.[Marco], Oliveri, G.[Giacomo], Anselmi, N.[Nicola], Viani, F.[Federico], Fedeli, A.[Alessandro], Pastorino, M.[Matteo], Randazzo, A.[Andrea],
Three-dimensional electromagnetic imaging of dielectric targets by means of the multiscaling inexact-Newton method,
JOSA-A(34), No. 7, July 2017, pp. 1119-1131.
DOI Link 1708
Inverse problems, Three-dimensional image processing, Inverse, scattering BibRef

Sigman, J.B., Barrowes, B.E., O'Neill, K., Wang, Y., Simms, J.E., Bennett, H.H., Yule, D.E., Shubitidze, F.,
High-Frequency Electromagnetic Induction Sensing of Nonmetallic Materials,
GeoRS(55), No. 9, September 2017, pp. 5254-5263.
IEEE DOI 1709
intermediate electrical conductivity, nonmetallic material, Ground penetrating radar. BibRef

Donelli, M., Viani, F.,
Remote Inspection of the Structural Integrity of Engineering Structures and Materials With Passive MST Probes,
GeoRS(55), No. 12, December 2017, pp. 6756-6766.
IEEE DOI 1712
Antenna measurements, Antennas, Civil engineering, Impedance, Monitoring, Probes, Sensors, Civil engineering monitoring, nondestructive testing BibRef

Liang, B.Y.[Bing-Yang], Qiu, C.[Chen], Han, F.[Feng], Zhu, C.H.[Chun-Hui], Liu, N.[Na], Liu, H.[Hai], Liu, F.[Fubo], Fang, G.Y.[Guang-You], Liu, Q.H.[Qing Huo],
A New Inversion Method Based on Distorted Born Iterative Method for Grounded Electrical Source Airborne Transient Electromagnetics,
GeoRS(56), No. 2, February 2018, pp. 877-887.
IEEE DOI 1802
Bessel functions, geophysical signal processing, geophysical techniques, inverse problems, iterative methods, semianalytical solution of line source BibRef

Ledger, P.D., Lionheart, W.R.B.,
An Explicit Formula for the Magnetic Polarizability Tensor for Object Characterization,
GeoRS(56), No. 6, June 2018, pp. 3520-3533.
IEEE DOI 1806
Harmonic analysis, Magnetic moments, Magnetic resonance imaging, Metals, Sea measurements, Tensile stress, Buried object detection, polarizability tensors BibRef

Hu, Y., Fang, Y., Wang, D., Zhong, Y., Liu, Q.H.,
Electromagnetic Waves in Multilayered Generalized Anisotropic Media,
GeoRS(56), No. 10, October 2018, pp. 5758-5766.
IEEE DOI 1810
Transmission line matrix methods, Media, Perpendicular magnetic anisotropy, Magnetic domains, local reflection matrices BibRef

Ren, Y., Zhao, S., Chen, Y., Hong, D., Liu, Q.H.,
Simulation of Low-Frequency Scattering From Penetrable Objects in Layered Medium by Current and Charge Integral Equations,
GeoRS(56), No. 11, November 2018, pp. 6537-6546.
IEEE DOI 1811
Dielectrics, Mathematical model, Scattering, Integral equations, Electric breakdown, Solids, Impedance, low-frequency breakdown BibRef

Morey, S.L.[Steven L.], Wienders, N.[Nicolas], Dukhovskoy, D.S.[Dmitry S.], Bourassa, M.A.[Mark A.],
Measurement Characteristics of Near-Surface Currents from Ultra-Thin Drifters, Drogued Drifters, and HF Radar,
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Exploiting Adiabatic Pulses With Prepolarization in Detection of Underground Nuclear Magnetic Resonant Signals,
GeoRS(57), No. 7, July 2019, pp. 4558-4567.
IEEE DOI 1907
Adiabatic, Nuclear magnetic resonance, Magnetization, Pulse measurements, Antenna measurements, Magnetic levitation, underground nuclear magnetic resonance (NMR) BibRef

Kerr, A.J.[Andrew J.], Scott, W.R.[Waymond R.], Mcclellan, J.H.[James H.],
Performance Analysis of Parameter Estimation in Electromagnetic Induction Data,
GeoRS(57), No. 7, July 2019, pp. 5054-5066.
IEEE DOI 1907
Electromagnetic interference, Sensor arrays, Frequency-domain analysis, Geometry, Time-domain analysis, maximum likelihood estimation BibRef

Lertniphonphun, W., McClellan, J.H.,
Migration of Underground Targets in UWB-SAR Systems,
ICIP00(Vol I: 713-716).
IEEE DOI 0008
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Moghadas, D.[Davood], Vrugt, J.A.[Jasper A.],
The Influence of Geostatistical Prior Modeling on the Solution of DCT-Based Bayesian Inversion: A Case Study from Chicken Creek Catchment,
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DOI Link 1907
Electrical conductivity of saturated soils. BibRef

Jiang, Z., Liu, L., Liu, S., Yue, J.,
Surface-to-Underground Transient Electromagnetic Detection of Water-Bearing Goaves,
GeoRS(57), No. 8, August 2019, pp. 5303-5318.
IEEE DOI 1908
coal, geophysical prospecting, mining, terrestrial electricity, numerical results, EMF curve, numerical simulation, transient electromagnetic method (TEM) BibRef

Thakur, S., Bruzzone, L.,
An Approach to the Simulation of Radar Sounder Radargrams Based on Geological Analogs,
GeoRS(57), No. 8, August 2019, pp. 5266-5284.
IEEE DOI 1908
data acquisition, geophysical techniques, remote sensing by radar, terrestrial electricity, simulation BibRef

Gabbay, J.E., Scott, W.R.,
Wideband Models for the Electromagnetic Induction Signatures of Thin Conducting Shells,
GeoRS(57), No. 10, October 2019, pp. 7330-7338.
IEEE DOI 1910
clutter, decomposition, electromagnetic devices, electromagnetic induction, inductance measurement, singularity expansion method BibRef

Huang, W., Wang, H., Zhan, Q., Fang, Y., Wang, D., Zhang, R., Liu, Q.H.,
Thin Dielectric Sheet-Based Surface Integral Equation for the Scattering Simulation of Fractures in a Layered Medium,
GeoRS(57), No. 10, October 2019, pp. 7606-7612.
IEEE DOI 1910
electromagnetic wave scattering, finite element analysis, integral equations, integral-equation based solver, well logging BibRef

Zhang, H., Marangoni, Y.R., Wu, Z.,
Depth Corrected Edge Detection of Magnetic Data,
GeoRS(57), No. 12, December 2019, pp. 9626-9632.
IEEE DOI 1912
Image edge detection, Mathematical model, Magnetic resonance imaging, Ores, Detectors, Levee, ore exploration BibRef

Li, C., Mittra, R.,
Characteristic Basis Function Method for Fast Analysis of 3-D Scattering From Objects Buried Under Rough Surfaces,
GeoRS(57), No. 8, August 2019, pp. 5252-5265.
IEEE DOI 1908
approximation theory, electromagnetic wave scattering, integral equations, matrix algebra, rough surfaces, physical optics (PO) BibRef

Li, J., Liu, J., Egbert, G.D., Liu, R., Guo, R., Pan, K.,
An Efficient Preconditioner for 3-D Finite Difference Modeling of the Electromagnetic Diffusion Process in the Frequency Domain,
GeoRS(58), No. 1, January 2020, pp. 500-509.
IEEE DOI 2001
Mathematical model, Color, Electromagnetics, Conductivity, Solid modeling, Matrix decomposition, Boundary conditions, staggered finite-difference (FD) magnetotellurics (MTs) BibRef

di Simone, A., Fuscaldo, W., Millefiori, L.M., Riccio, D., Ruello, G., Braca, P., Willett, P.,
Analytical Models for the Electromagnetic Scattering From Isolated Targets in Bistatic Configuration: Geometrical Optics Solution,
GeoRS(58), No. 2, February 2020, pp. 861-880.
IEEE DOI 2001
Rough surfaces, Surface roughness, Sea surface, Surface impedance, Marine vehicles, Electromagnetic scattering, Bistatic radars, radar cross section (RCS) BibRef

Mu, Y.X.[Ya-Xin], Zhang, X.J.[Xiao-Juan], Xie, W.P.[Wu-Peng], Zheng, Y.X.[Yao-Xin],
Automatic Detection of Near-Surface Targets for Unmanned Aerial Vehicle (UAV) Magnetic Survey,
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DOI Link 2002
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Li, N.[Na], Hong, D.C.[De-Cheng], Han, W.[Wei], Liu, Q.H.[Qing Huo],
An Analytic Algorithm for Electromagnetic Field in Planar-Stratified Biaxial Anisotropic Formation,
GeoRS(58), No. 3, March 2020, pp. 1644-1653.
IEEE DOI 2003
Perpendicular magnetic anisotropy, Magnetic domains, Spectral analysis, Conductivity, Tools, planar-stratified medium BibRef

Hong, D.C.[De-Cheng], Li, N.[Na], Han, W.[Wei], Zhan, Q.W.[Qi-Wei], Zeyde, K.[Kirill], Liu, Q.H.[Qing Huo],
An Analytic Algorithm for Dipole Electromagnetic Field in Fully Anisotropic Planar-Stratified Media,
GeoRS(59), No. 11, November 2021, pp. 9120-9131.
IEEE DOI 2111
Anisotropic magnetoresistance, Media, Fourier transforms, Eigenvalues and eigenfunctions, Tensors, planar-stratified medium BibRef

Hu, X., Fan, Y., Deng, S., Yuan, X., Li, H.,
Electromagnetic Logging Response in Multilayered Formation With Arbitrary Uniaxially Electrical Anisotropy,
GeoRS(58), No. 3, March 2020, pp. 2071-2083.
IEEE DOI 2003
Media, Anisotropic magnetoresistance, Conductivity, Magnetic multilayers, Magnetic domains, transversely isotropic (TI) formation BibRef

Liu, S., Sui, Y., Leslie, K., Foss, C., Clark, D.,
Determination of the Direction of Magnetization and Orientation of a Tilted Sheet From Downhole Magnetic Gradient Tensor Data,
GeoRS(58), No. 3, March 2020, pp. 2084-2095.
IEEE DOI 2003
Downhole, magnetic gradient tensor, magnetization, magnetic sheet, geometry BibRef

Bobe, C., van de Vijver, E., Keller, J., Hanssens, D., van Meirvenne, M., de Smedt, P.,
Probabilistic 1-D Inversion of Frequency-Domain Electromagnetic Data Using a Kalman Ensemble Generator,
GeoRS(58), No. 5, May 2020, pp. 3287-3297.
IEEE DOI 2005
Bayesian inversion, frequency-domain electromagnetics (FDEMs), Kalman ensemble generator (KEG), Monte Carlo BibRef

Guo, C., Dutta, P., Mavko, G.,
Spatial Variability of Electric Field Implied by Common Dielectric Effective Medium Models,
GeoRS(58), No. 6, June 2020, pp. 4424-4435.
IEEE DOI 2005
Composite materials, dielectric breakdown, electromagnetic modeling, permittivity BibRef

Letourneau, P.D.[Pierre-David], Harris, M.T.[Mitchell Tong], Langston, M.H.[Matthew Harper], Papanicolaou, G.[George],
Low-Frequency Electromagnetic Imaging Using Sensitivity Functions and Beamforming,
SIIMS(13), No. 2, 2020, pp. 807-843.
DOI Link 2007
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Jin, H., Guo, J., Wang, H., Zhuang, Z., Qin, J., Wang, T.,
Magnetic Anomaly Detection and Localization Using Orthogonal Basis of Magnetic Tensor Contraction,
GeoRS(58), No. 8, August 2020, pp. 5944-5954.
IEEE DOI 2007
Tensile stress, Magnetometers, Superconducting magnets, Signal to noise ratio, Pollution measurement, Interference, remote sensing BibRef

Le Van, D.O.,
Novel Communication Channel Model for Signal Propagation and Loss Through Layered Earth,
GeoRS(58), No. 8, August 2020, pp. 5393-5399.
IEEE DOI 2007
Earth, Conductivity, Coal mining, Predictive models, Magnetic shielding, Mathematical model, Data models, Attenuation, through-the-Earth (TTE) communication BibRef

Liu, B., Guo, Q., Li, S., Liu, B., Ren, Y., Pang, Y., Guo, X., Liu, L., Jiang, P.,
Deep Learning Inversion of Electrical Resistivity Data,
GeoRS(58), No. 8, August 2020, pp. 5715-5728.
IEEE DOI 2007
Conductivity, Data models, Kernel, Deep learning, Resistance, Erbium, Inverse problems, Deep learning, electrical resistivity inversion BibRef

Liu, B.[Benchao], Jiang, P.[Peng], Guo, Q.[Qian], Wang, C.[Chuanwu],
Deep Learning Inversion of Electrical Resistivity Data by One-Sided Mapping,
SPLetters(29), 2022, pp. 2248-2252.
IEEE DOI 2212
Conductivity, Deep learning, Data models, Training, Neural networks, Task analysis, Resistance, ERI, deep learning, one-sided mapping BibRef

Ammari, H.[Habib], Li, B.[Bowen], Zou, J.[Jun],
Superresolution in Recovering Embedded Electromagnetic Sources in High Contrast Media,
SIIMS(13), No. 3, 2020, pp. 1467-1510.
DOI Link 2010
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Dong, X.C.[Xian-Cong], Li, X.J.[Xiao-Jie], Zheng, X.M.[Xing-Ming], Jiang, T.[Tao], Li, X.F.[Xiao-Feng],
Effect of Saline Soil Cracks on Satellite Spectral Inversion Electrical Conductivity,
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DOI Link 2010
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van Verre, W., Marsh, L.A., Davidson, J.L., Cheadle, E., Podd, F.J.W., Peyton, A.J.,
Detection of Metallic Objects in Mineralized Soil Using Magnetic Induction Spectroscopy,
GeoRS(59), No. 1, January 2021, pp. 27-36.
IEEE DOI 2012
Soil, Detectors, Metals, Landmine detection, Magnetic separation, Ground penetrating radar, Spectroscopy, Landmines, multifrequency BibRef

Martorella, F.[Francesco],
Magnetic Survey at the Roman Military Camp of el Benian in Mauretania Tingitana (Morocco): Results and Implications,
RS(13), No. 1, 2021, pp. xx-yy.
DOI Link 2101
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Dřssing, d.[da_Silva_Arne], Simoes, E.L.[Eduardo Lima], Martelet, G.[Guillaume], Rasmussen, T.M.[Thorkild Maack], Gloaguen, E.[Eric], Petersen, J.T.[Jacob Thejll], Linde, J.[Johannes],
A High-Speed, Light-Weight Scalar Magnetometer Bird for km Scale UAV Magnetic Surveying: On Sensor Choice, Bird Design, and Quality of Output Data,
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DOI Link 2103
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Yin, C.C.[Chang-Chun], Gao, Z.H.[Zong-Hui], Su, Y.[Yang], Liu, Y.H.[Yun-He], Huang, X.[Xin], Ren, X.[Xiuyan], Xiong, B.[Bin],
3D Airborne EM Forward Modeling Based on Time-Domain Spectral Element Method,
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geophysical survey. BibRef

Kass, M.A.[M. Andy], Christiansen, A.V.[Anders Vest], Auken, E.[Esben], Larsen, J.J.[Jakob Juul],
Efficient Reduction of Powerline Signals in Magnetic Data Acquired From a Moving Platform,
GeoRS(59), No. 8, August 2021, pp. 7137-7146.
IEEE DOI 2108
Magnetometers, Data models, Magnetic sensors, Power grids, Linear systems, Magnetic survey, powerline noise removal, signal processing BibRef

Li, H.[Hai], Xue, G.Q.[Guo-Qiang], Zhang, L.[Linbo],
Accelerated Bayesian Inversion of Transient Electromagnetic Data Using MCMC Subposteriors,
GeoRS(59), No. 12, December 2021, pp. 10000-10010.
IEEE DOI 2112
Bayes methods, Data models, Uncertainty, Computational modeling, Numerical models, Proposals, Markov processes, Bayesian inversion, transient electromagnetic method (TEM) BibRef

Harrison, E.J.[Edward J.], Baranwal, V.C.[Vikas C.], Pfaffhuber, A.A.[Andreas A.], Christensen, C.W.[Craig W.], Skurdal, G.H.[Guro H.], Rřnning, J.S.[Jan Steinar], Anschütz, H.[Helgard], Brönner, M.[Marco],
AEM in Norway: A Review of the Coverage, Applications and the State of Technology,
RS(13), No. 22, 2021, pp. xx-yy.
DOI Link 2112
airborne electromagnetic BibRef

Su, Y.[Yang], Yin, C.C.[Chang-Chun], Liu, Y.H.[Yun-He], Ren, X.[Xiuyan], Zhang, B.[Bo], Qiu, C.[Changkai], Xiong, B.[Bin], Baranwal, V.C.[Vikas Chand],
Sparse-Promoting 3-D Airborne Electromagnetic Inversion Based on Shearlet Transform,
GeoRS(60), 2022, pp. 1-13.
IEEE DOI 2112
Wavelet transforms, Frequency-domain analysis, Data models, Solid modeling, Geology, Computational modeling, sparse regularized BibRef

Kerr, A.J.[Andrew J.], Scott, W.R.[Waymond R.], McClellan, J.H.[James H.],
Performance Bounds for Target Parameter Estimation From Frequency-Domain Electromagnetic Induction Data,
GeoRS(60), 2022, pp. 1-13.
IEEE DOI 2112
Electromagnetic interference, Tensors, Frequency measurement, Frequency-domain analysis, Magnetic sensors, Magnetic moments, maximum likelihood estimation BibRef

Chen, K.[Kecheng], Pu, X.R.[Xiao-Rong], Ren, Y.Z.[Ya-Zhou], Qiu, H.[Hang], Lin, F.[Fanqiang], Zhang, S.[Saimin],
TEMDnet: A Novel Deep Denoising Network for Transient Electromagnetic Signal With Signal-to-Image Transformation,
GeoRS(60), 2022, pp. 1-18.
IEEE DOI 2112
Noise reduction, Wavelet transforms, Signal denoising, Image denoising, Kalman filters, Transient analysis, transient electromagnetic BibRef

Xu, Z.Y.[Zheng-Yu], Fu, Z.H.[Zhi-Hong], Fu, N.[Nengyi],
Firefly Algorithm for Transient Electromagnetic Inversion,
GeoRS(60), 2022, pp. 1-12.
IEEE DOI 2112
Conductivity, Electromagnetics, Brightness, Transient analysis, Particle swarm optimization, Linear programming, transient electromagnetic (TEM) method BibRef

Qi, Y.[Yanfu], Li, X.[Xiu], Yin, C.C.[Chang-Chun], Li, H.Y.[Huai-Yuan], Qi, Z.P.[Zhi-Peng], Zhou, J.M.[Jian-Mei], Liu, Y.H.[Yun-He], Ren, X.Y.[Xiu-Yan],
3-D Time-Domain Airborne EM Inversion for a Topographic Earth,
GeoRS(60), 2022, pp. 1-13.
IEEE DOI 2112
Surfaces, Time-domain analysis, Mathematical model, Solid modeling, Earth, Atmospheric modeling, Computational modeling, 3-D inversion, unstructured finite-element method BibRef

Li, R.H.[Rui-Heng], Yu, N.[Nian], Wang, X.[Xuben], Liu, Y.[Yang], Cai, Z.K.[Zhi-Kun], Wang, E.[Enci],
Model-Based Synthetic Geoelectric Sampling for Magnetotelluric Inversion With Deep Neural Networks,
GeoRS(60), 2022, pp. 1-14.
IEEE DOI 2112
Training, Conductivity, Artificial neural networks, Predictive models, Data models, Neurons, Mathematical model, training sample BibRef

Hong, D.C.[De-Cheng], Chen, T.[Tao], He, Q.[Qiuli], Ren, Q.[Qiang],
Foundation of Ultradeep Boundary Detection Based on the Electric Field Characteristics,
GeoRS(60), 2022, pp. 1-11.
IEEE DOI 2112
Tools, Coils, Voltage measurement, Antenna measurements, Magnetic domains, Receiving antennas, Conductivity, ultradeep detection BibRef

Quan, S.[Sinong], Qin, Y.[Yao], Xiang, D.L.[De-Liang], Wang, W.[Wei], Wang, X.S.[Xue-Song],
Polarimetric Decomposition-Based Unified Manmade Target Scattering Characterization With Mathematical Programming Strategies,
GeoRS(60), 2022, pp. 1-18.
IEEE DOI 2112
Scattering, Electromagnetic scattering, Mathematical programming, Mathematical model, Eigenvalues and eigenfunctions, unified scattering characterization BibRef

Semenikhina, D.V.[Diana V.], Gorbatenko, N.N.[Nikolay N.],
Nonlinear Cylindrical Markers Using Metamaterials,
RS(13), No. 24, 2021, pp. xx-yy.
DOI Link 2112
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Gennarelli, G.[Gianluca], Ludeno, G.[Giovanni], Carlo, N.[Noviello], Catapano, I.[Ilaria], Soldovieri, F.[Francesco],
The Role of Model Dimensionality in Linear Inverse Scattering from Dielectric Objects,
RS(14), No. 1, 2022, pp. xx-yy.
DOI Link 2201
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Xiao, E.[Enzhao], Jiang, F.[Feng], Guo, J.X.[Jing-Xue], Latif, K.[Khalid], Fu, L.[Lei], Sun, B.[Bo],
3D Interpretation of a Broadband Magnetotelluric Data Set Collected in the South of the Chinese Zhongshan Station at Prydz Bay, East Antarctica,
RS(14), No. 3, 2022, pp. xx-yy.
DOI Link 2202
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Rao, Z.M.[Zhen-Min], Zhu, G.Q.[Guo-Qiang], He, S.Y.[Si-Yuan], Li, C.[Chao], Yang, Z.W.[Ze-Wang], Liu, J.[Jian],
Simulation and Analysis of Electromagnetic Scattering from Anisotropic Plasma-Coated Electrically Large and Complex Targets,
RS(14), No. 3, 2022, pp. xx-yy.
DOI Link 2202
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Feng, N.X.[Nai-Xing], Zhang, Y.X.[Yu-Xian], Huang, Z.X.[Zhi-Xiang], Yang, L.X.[Li-Xia], Wu, X.L.[Xian-Liang],
Numerical Prediction of Duality Principle with Bloch-Floquet Periodic Boundary Condition in Fully Anisotropic FDTD,
RS(14), No. 5, 2022, pp. xx-yy.
DOI Link 2203
Finite-Difference Time-Domain. BibRef

Zhou, H.[Huaji], Bai, J.[Jing], Niu, L.C.[Lin-Chun], Xu, J.[Jie], Xiao, Z.[Zhu], Zheng, S.L.[Shi-Lian], Jiao, L.C.[Li-Cheng], Yang, X.N.[Xiao-Niu],
Electromagnetic Signal Classification Based on Class Exemplar Selection and Multi-Objective Linear Programming,
RS(14), No. 5, 2022, pp. xx-yy.
DOI Link 2203
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Pérez, M.[Marina], Parras, J.[Juan], Zazo, S.[Santiago], Álvarez, I.A.P.[Iván A. Pérez], del Mar Sanz-Lluch, M.[María],
Using a Deep Learning Algorithm to Improve the Results Obtained in the Recognition of Vessels Size and Trajectory Patterns in Shallow Areas Based on Magnetic Field Measurements Using Fluxgate Sensors,
ITS(23), No. 4, April 2022, pp. 3472-3481.
IEEE DOI 2204
Magnetic sensors, Sensors, Sensitivity, Magnetoacoustic effects, Sensor phenomena and characterization, Magnetic cores, pattern recognition BibRef

Ma, G.Q.[Guo-Qing], Zhao, Y.[Yanan], Xu, B.[Bowen], Li, L.[Lili], Wang, T.[Taihan],
High-Precision Joint Magnetization Vector Inversion Method of Airborne Magnetic and Gradient Data with Structure and Data Double Constraints,
RS(14), No. 10, 2022, pp. xx-yy.
DOI Link 2206
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Luo, T.Y.[Tian-Ya], Hu, X.Y.[Xiang-Yun], Chen, L.W.[Long-Wei], Xu, G.L.[Gui-Lin],
Investigating the Magnetotelluric Responses in Electrical Anisotropic Media,
RS(14), No. 10, 2022, pp. xx-yy.
DOI Link 2206
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Jia, P.P.[Ping-Ping], Zhang, J.[Junhua], He, W.[Wei], Hu, Y.[Yi], Zeng, R.[Rong], Zamanian, K.[Kazem], Jia, K.[Keli], Zhao, X.N.[Xiao-Ning],
Combination of Hyperspectral and Machine Learning to Invert Soil Electrical Conductivity,
RS(14), No. 11, 2022, pp. xx-yy.
DOI Link 2206
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Liu, H.[Huan], Jin, B.[Bangti], Lu, X.L.[Xi-Liang],
Imaging Anisotropic Conductivities from Current Densities,
SIIMS(15), No. 2, 2022, pp. 860-891.
DOI Link 2206
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Yang, H.N.[Hai-Ning], Liu, Y.T.[Yu-Ting], Li, T.J.[Ting-Jun], Yi, S.[Shijia], Li, N.[Na],
A Universal Multi-Frequency Micro-Resistivity Array Imaging Method for Subsurface Sensing,
RS(14), No. 13, 2022, pp. xx-yy.
DOI Link 2208
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Kang, Z.Z.[Zhuang-Zhuang], Wang, H.N.[Hong-Nian], Yin, C.C.[Chang-Chun],
Finite-Region Approximation of EM Fields in Layered Biaxial Anisotropic Media,
RS(14), No. 15, 2022, pp. xx-yy.
DOI Link 2208
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Xie, A.[Ailun], Liu, X.B.[Xia-Bin], Zhao, F.[Feng], Xiao, S.P.[Shun-Ping],
Pulse Radar Imaging Method in an Anechoic Chamber Based on an Amplitude Modulation Design,
RS(14), No. 18, 2022, pp. xx-yy.
DOI Link 2209
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Karaoulis, M.[Marios], Ritsema, I.[Ipo], Bremmer, C.[Chris], de Kleine, M.[Marco], Essink, G.O.[Gualbert Oude], Ahlrichs, E.[Edvard],
Drone-Borne Electromagnetic (DR-EM) Surveying in The Netherlands: Lab and Field Validation Results,
RS(14), No. 21, 2022, pp. xx-yy.
DOI Link 2212
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Ylagan, S.[Shane], Brye, K.R.[Kristofor R.], Ashworth, A.J.[Amanda J.], Owens, P.R.[Phillip R.], Smith, H.[Harrison], Poncet, A.M.[Aurelie M.],
Using Apparent Electrical Conductivity to Delineate Field Variation in an Agroforestry System in the Ozark Highlands,
RS(14), No. 22, 2022, pp. xx-yy.
DOI Link 2212
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Liu, G.[Gaigai], Zhang, Y.Z.[Ying-Zi], Wang, C.[Chen], Li, Q.[Qiang], Li, F.[Fei], Liu, W.[Wenyi],
A New Magnetic Target Localization Method Based on Two-Point Magnetic Gradient Tensor,
RS(14), No. 23, 2022, pp. xx-yy.
DOI Link 2212
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Lu, Q.[Qiang], Han, Q.L.[Qing-Long], Peng, D.L.[Dong-Liang], Choi, Y.J.[Young-Jin],
Decision and Event-Based Fixed-Time Consensus Control for Electromagnetic Source Localization,
Cyber(52), No. 4, April 2022, pp. 2186-2199.
IEEE DOI 2204
Electromagnetics, Multi-agent systems, Robot kinematics, Convergence, Multi-robot systems, Real-time systems, multiple mobile robots BibRef

Pavez, M.[Maximiliano], Diaz, D.[Daniel], Brasse, H.[Heinrich], Kapinos, G.[Gerhard], Budach, I.[Ingmar], Goldberg, V.[Valentin], Morata, D.[Diego], Schill, E.[Eva],
Shallow and Deep Electric Structures in the Tolhuaca Geothermal System (S. Chile) Investigated by Magnetotellurics,
RS(14), No. 23, 2022, pp. xx-yy.
DOI Link 2212
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Cai, J.[Jin], Ma, G.Q.[Guo-Qing], Li, L.[Lili],
Intersection Constraint Weighting (ICW) Method: High-Resolution Joint Magnetic Susceptibility Inversion of Aeromagnetic and Gradient Data,
RS(14), No. 23, 2022, pp. xx-yy.
DOI Link 2212
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Carrera, A.[Alberto], Longo, M.[Matteo], Piccoli, I.[Ilaria], Mary, B.[Benjamin], Cassiani, G.[Giorgio], Morari, F.[Francesco],
Electro-Magnetic Geophysical Dynamics under Conservation and Conventional Farming,
RS(14), No. 24, 2022, pp. xx-yy.
DOI Link 2212
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Ren, H.[Hao], Lei, D.[Da], Wang, Z.X.[Zhong-Xing], Fu, C.[Changmin],
A Mesh Mapping-Based Cooperative Inversion Strategy for Airborne Transient Electromagnetic and Magnetic Methods,
RS(15), No. 1, 2023, pp. xx-yy.
DOI Link 2301
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Dong, C.[Chao], Chen, B.[Bin], Wang, C.[Can],
Magnetic Anomaly Characteristics and Magnetic Basement Structure in Earthquake-Affected Changning Area of Southern Sichuan Basin, China: A New Perspective from Land-Based Stations,
RS(15), No. 1, 2023, pp. xx-yy.
DOI Link 2301
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Santarelli, L.[Lucia], Bagiacchi, P.[Paolo], Benedetti, G.[Giovanni], di Mauro, D.[Domenico], Lepidi, S.[Stefania],
A New Installation for Geomagnetic Field Monitoring at Talos Dome, a Remote Antarctic Site Away from Permanent Observatories,
RS(15), No. 2, 2023, pp. xx-yy.
DOI Link 2301
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Yan, J.[Jiahe], Zeng, Z.F.[Zhao-Fa], Zhao, X.Y.[Xue-Yu], An, B.Z.[Bai-Zhou], Bai, L.[Lige], Zhao, J.W.[Jian-Wei], Li, J.[Jing],
A New Electrical Resistivity Tomography Scheme of Borehole-to-Surface-to-Cliff Detection and Imaging for Grotto Rock Structure,
RS(15), No. 2, 2023, pp. xx-yy.
DOI Link 2301
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Huang, X.Y.[Xian-Yang], Yin, C.C.[Chang-Chun], Wang, L.[Luyuan], Liu, Y.H.[Yun-He], Zhang, B.[Bo], Ren, X.Y.[Xiu-Yan], Su, Y.[Yang], Li, J.[Jun], Chen, H.[Hui],
A Geometric Multigrid Method for 3D Magnetotelluric Forward Modeling Using Finite-Element Method,
RS(15), No. 2, 2023, pp. xx-yy.
DOI Link 2301
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Li, S.Y.[Shi-Yan], Xing, K.[Kang], Zhang, X.J.[Xiao-Juan],
Frequency Domain Electromagnetic System Based on Unmanned Aerial Vehicles Platform for Detecting Shallow Subsurface Targets,
RS(15), No. 3, 2023, pp. xx-yy.
DOI Link 2302
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Guo, R.[Rui], Huang, T.Y.[Tian-Yao], Li, M.[Maokun], Zhang, H.Y.[Hai-Yang], Eldar, Y.C.[Yonina C.],
Physics-Embedded Machine Learning for Electromagnetic Data Imaging: Examining three types of data-driven imaging methods,
SPMag(40), No. 2, March 2023, pp. 18-31.
IEEE DOI 2303
Electromagnetics, Physics, Electric potential, Inverse problems, Imaging, Geophysics, Sensors, Machine learning, Electromagnetics, Data models BibRef

Deidda, G.P.[Gian Piero], Díaz-de Alba, P.[Patricia], Pes, F.[Federica], Rodriguez, G.[Giuseppe],
Forward Electromagnetic Induction Modelling in a Multilayered Half-Space: An Open-Source Software Tool,
RS(15), No. 7, 2023, pp. 1772.
DOI Link 2304
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Wang, L.[Luyuan], Liu, Y.H.[Yun-He], Yin, C.C.[Chang-Chun], Su, Y.[Yang], Ren, X.[Xiuyan], Zhang, B.[Bo],
Three-Dimensional Dual-Mesh Inversions for Sparse Surface-to-Borehole TEM Data,
RS(15), No. 7, 2023, pp. 1845.
DOI Link 2304
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