Application of 3D GPR attribute technology in archaeological investigations
Zhao Wen-Ke1, Tian Gang1, Wang Bang-Bing1, Shi Zhan-Jie2, and Lin Jin-Xin2
1. Department of Earth Sciences, Zhejiang University, Hangzhou 310027, China.
2. Academy of Cultural Heritage, Zhejiang University, Hangzhou 310027, China.
Abstract:
Ground penetrating radar (GPR) attribute technology has been applied to many aspects in recent years but there are very few examples in the fi eld of archaeology. Especially how can we extract effective attributes from the two- or three-dimensional radar data so that we can map and describe numerous archaeological targets in a large cultural site? In this paper, we applied GPR attribute technology to investigate the ancient Nanzhao castle-site in Tengchong, Yunnan Province. In order to get better archaeological target (the ancient wall, the ancient kiln site, and the ancient tomb) analysis and description, we collated the GPR data by collected standardization and then put them to the seismic data processing and interpretation workstation. The data was processed, including a variety of GPR attribute extraction, analysis, and optimization and combined with the archaeological drilling data. We choose the RMS Amplitude, Average Peak Amplitude, Instantaneous Phase, and Maximum Peak Time to interpret three archaeological targets. By comparative analysis, we have clarified that we should use different attributes to interpret different archaeological targets and the results of attribute analysis after horizon tracking is much better than the results based on a time slice.
ZHAO Wen-Ke,TIAN Gang,WANG Bang-Bing et al. Application of 3D GPR attribute technology in archaeological investigations[J]. APPLIED GEOPHYSICS, 2012, 9(3): 261-269.
[1]
Annan, A. P., 2003, Ground penetrating radar application principles, Procedures and applications: Sensors & Software Inc.
[2]
Baker, B. S., Steeples, D. W., Schmeissner, C., Pavlovic, M., and Plumb, R., 2001, Near-surface imaging using coincident seismic and GPR data: Geophysical Research Letters, 28(4), 627 - 630.
[3]
Böniger, U., and Tronicke, J., 2010a, Improving the interpretability of 3D GPR data using target-specific attributes: application to tomb detection: Journal of Archaeological Science, 37, 672 - 679.
[4]
Böniger, U., and Tronicke, J., 2010b, Integrated data analysis at an archaeological site: A case study using 3D GPR, magnetic, and high-resolution topographic data: Geophysics, 75(4), B169 - B176.
[5]
Booth, A. D., Clark, R. A., and Murray, T., 2011, Influences on the resolution of GPR velocity analyses and a Monte Carlo simulation for establishing velocity precision: Near Surface Geophysics, 9(5), 399 - 411.
[6]
Bradford, J. H., Dickins, D. F., and Brandvik, P. J., 2010, Assessing the potential to detect oil spills in and under snow using airborne ground-penetrating radar: Geophysics, 75(2), G1 - G12.
[7]
Cardimona, S. J., Clement, W. P., and Kadinsky-Cade, K., 1998, Seismic reflection and ground-penetrating radar imaging of a shallow aquifer: Geophysics, 63(4), 1310 - 1317.
[8]
Chopra, S., and Alexeev, V., 2006, Applications of texture attribute analysis to 3D seismic data: The Leading Edge, 25, 934 - 940.
[9]
Chopra, S., and Marfurt, K. J., 2005, Seismic attributes - A historical perspective: Geophysics, 70(5), 3SO - 28SO.
[10]
Conyers, L. B., and Goodman, D., 1997, Ground-penetrating radar - An introduction for archaeologists: AltaMira Press.
[11]
Conyers. L. B., 2010, Ground-penetrating radar for anthropological research: Antiquity, 84(323), 175 - 184.
[12]
Corbeanu, R. M., McMechan, G. A., Szerbiak, R. B., and Soegaard, K., 2002, Prediction of 3-D fluid permeability and mudstone distributions from ground-penetrating radar (GPR) attributes: Example from the Cretaceous Ferron Sandstone Member, east-central Utah: Geophysics, 67(5), 1495 - 1504.
[13]
Francese, R. G., Finzi, E., and Morelli, G., 2009, 3-D high-resolution multi-channel radar investigation of a Roman village in Northern Italy: Journal of Applied Geophysics, 67(1), 41 - 51.
[14]
Gao, D., 2003, Volume texture extraction for 3D seismic visualization and interpretation: Geophysics, 68, 1294 - 1302.
[15]
Gracia, V. P., Canas, J. A., Pujades, L. G., Clapes, J., Caselles, O., Garcia, F., and Osorio, R., 2000, GPR survey to confirm the location of ancient structures under the Valencian Cathedral (Spain): Journal of Applied Geophysics, 43(2 - 4), 167 - 174.
[16]
Luigia, N., Giovanni, L., Sergio, N., Maria, T. C., and Tatiana, Q., 2002, Application of 3D visualization techniques in the analysis of GPR data for archaeology: Annals of Geophysics, 45(2), 321 - 337.
[17]
McClymont, A. F., Green, A. G., Streich, R., and et al., 2008, Visualization of active faults using geometric attributes of 3D GPR data: An example from the Alpine Fault Zone, New Zealand: Geophysics, 73, B11 - B23.
[18]
Marfurt, K. J., Kirlin, R. L., Farmer, S. L., and Bahorich, M. S., 1998, 3-D seismic attributes using a semblance-based coherency algorithm: Geophysics, 63, 1150 - 1165.
[19]
Pipan, M., Baradello, L., Forte, E., Prizzon, A., and Finetti, I., 1999, 2D and 3D processing and interpretation of multi-fold ground penetrating radar data: a case history from an archaeological site: Journal of Applied Geophysics, 41, 271 - 292.
[20]
Sassen, D. S., and Everett, M. E., 2009, 3D polarimetric GPR coherency attributes and full-waveform inversion of transmission data for characterizing fractured rock: Geophysics, 74(3), J23 - J34.
[21]
Senecha, P., Perroud, H., and Senechal, G., 2000, Interpretation of reflection attributes in a 3-D GPR survey at Vall’e d’Ossau, western Pyrenees, France: Geophysics, 65(5), 1435 - 1445.
[22]
Shaaban, F. A., Abbas, A. M., and et al., 2009, Ground-penetrating radar exploration for ancient monuments at the Valley of Mummies-Kilo 6, Bahariya Oasis, Egypt: Journal of Applied Geophysics, 68, 194 - 202.
[23]
Young, R. A., Deng, Z., Marfurt, K. J., and Nissen, E., 1997, 3-D dip filtering and coherence applied to GPR data: A study: The Leading Edge, 16, 1011 - 1018.