Lightning strikes in archaeological magnetometry data. A case study from the High Bank Works site, Ohio, USA

Burks, Jarrod; Viberg, Andreas; Bevan, Bruce

doi:0066-5924

Object

References:

Appel, P. W. U., Abrahamsen, N. and Rasmussen, T. M. 2006. Unusual features caused by lightning impact in West Greenland, Geological Magazine 143, 737-741
Beard, Les P., Norton, J. and Sheehan, J. R. 2009. Lightning-Induced Remanent Magnetic Anomalies in Low-Altitude Aeromagnetic Data, Journal of Environmental and Engineering Geophysics 14 (4), 155-161
Bevan, B. 1995. Magnetic surveying and lightning, Near-Surface Views, October, 7-8
Bevan, B. 2009. The Magnetic Anomaly of a Lightning Strike, Fasttimes 14, 61-64
Biwall, A., Gabler, M., Hinterleitner, A., Karlsson, P., Kucera, M., Larsson, L., Löcker, K., Nau, E., Neubauer, W., Scherzer, D., Thorén, H., Trinks, I., Wallner, M. and Zitz, T. 2011. Large-Scale archaeological prospection of the Iron and Viking Age site Uppĺkra in Sweden. First results of the LBI-ArchPro landscape archaeological case study. In M. G. Drahor and M.A. Berge (eds.), Archaeological Prospection, Extended Abstracts, 9th International Conference on Archaeological Prospection,2011 Izmir, Turkey, Izmir, 218-222
Burks, J. 2013. Large Area Magnetic Gradient Survey at the High Bank Works Unit, Hopewell Culture National Historical Park, Ross County, Ohio. Contract Report #2012-52-2. Ohio Valley Archaeology, Inc. Columbus, Ohio. Report prepared for the Midwest Archeological Center, National Park Service, Lincoln, Nebraska
Burks, J. 2014. The detection of lightning strikes on earthwork sites in Ohio, USA. ISAP News, Newsletter for the International Society for Archaeological Prospection 41, 6-8
Cook, R. A. and Burks, J. 2010. Determining Site Size and Structure: A Fort Ancient Example, American Antiquity 76, 145-162
Crew, P. 2008. Lightning Never Strikes in the Same Place Twice - Except at Crawcwellt, Archaeology in Wales 48, 1-5
Fassbinder, J.W.E., and Górka, T. 2009. Beneath the Desert Soil – Archaeological Prospecting with a Caesium Magnetometer. In M. Reindel and G. Wagner (eds), New Technologies for Archaeology, Berlin
Jones, G. and Maki, D. 2005. Lightning-induced Magnetic Anomalies on Archaeological Sites, Archaeological Prospection 12, 191-197
Maki, D. 2005. Lightning Strikes and Prehistoric Ovens: Determining the Source of Magnetic Anomalies Using Techniques of Environmental Magnetism, Geoarchaeology 20, 449-459
Pye, K. 1982. SEM observations on some sand fulgurites from northern Australia, Journal of Sedimentary Research 52, 991-998
Rakov, V. A., and Uman, M. A. 2007. Lightning. Physics and Effects, Cambridge
Sakai, H., Sunada, S. and Sakurano, H. 1998. Study of Lightning Current by Remanent Magnetization, Electrical Engineering in Japan 123, 1050-1055
Trinks, I. and Biwall, A. 2011. Lightning-induced Remanent Magnetisation as Plausible Explanation for a Geophysical Anomaly at Grĺborg, Fornäannen 106, 350-354
Viemeister, P. E. 1972. The Lightning Book, Cambridge, Massachusetts
Walach, G., Scholger, R., Schnepp, E. and Cech, B. 2008. Geomagnetic prospection and archaeomagnetic dating of Roman and Medieval iron smelting sites in Hüttenberg (Austria), PANGEO Austria 2008, Geologie ist Zukunft, Vienna