Examples of the Use of Non-Invasive Techniques for the Evaluation of Stone Decay in Portugal

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Today experts agree that precise damage diagnosis is the key to comprehensive characterization, interpretation, rating and prediction of stone damage. It provides vital information for monument conservation and sustainable preservation. Better understanding of the stones used in monuments and the factors, processes and characteristics involved in stone decay is therefore essential to the sustainable preservation of cultural heritage. A frequent and major obstacle to studying stone decay in monuments is the impossibility of touching or obtaining samples for study in the laboratory or even in-situ. The aim of this paper is to present the results of three non-invasive geophysical (3-D electrical resistivity and seismic refraction) and geochemical (soluble salts typology and distribution) techniques, that were used to diagnose stone damage in case studies involving Portuguese cultural heritage. Different techniques were applied based on decay typology or observed phenomena.

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Luis Guerra Rosa, Zenaide Carvalho G. Silva and Luis Lopes

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239-246

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A. Dionísio et al., "Examples of the Use of Non-Invasive Techniques for the Evaluation of Stone Decay in Portugal", Key Engineering Materials, Vol. 548, pp. 239-246, 2013

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April 2013

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[1] Charter of Krakow: Principles for conservation and restoration of built heritage, Archaeologia Polona Vol. 38 (2000) pp.251-256.

[2] G. Leucci: Ground-penetrating radar survey to map the location of buried structures under two churches, Archaeological Prospection Vol. 9 (2002) pp.217-228.

DOI: https://doi.org/10.1002/arp.198

[3] N. Linford: From hypocaust to hyperbola: ground-penetrating radar surveys over mainly Roman remains in the UK, Archaeological Prospection Vol. 11 (2004), pp.237-246.

DOI: https://doi.org/10.1002/arp.238

[4] E. Carrara, M.T. Carozo, M. Fedi: Resistivity and radar surveys at the Archaeological site of Ercolano, Journal of Environmental and Engineering Geophysics Vol. 6 (2001) pp.123-132.

[5] S. Piro, D. Goodman, Y. Nishimura: The study and characterization of emperor Traiano's villa (Altopiani di Arcinazzo, Roma) using high-resolution integrated geophysical surveys, Archaeological Prospection Vol. 10 (2003) pp.1-25.

DOI: https://doi.org/10.1002/arp.203

[6] O. Sass, H.A. Viles: 2D resistivity surveys of the moisture contents of historic limestone walls in Oxford, UK: Implications for understanding catastrophic stone deterioration. In: Limestone in the built environment: Present day challenges for preservation of the past, edited by B.J. Smith et al, Geological Society of London Special Publication Vol. 331 (2010).

DOI: https://doi.org/10.1144/sp331.22

[7] O. Sass, H.A. Viles: Wetting and drying of masonry walls: 2D-resistivity monitoring of driving rain experiments on historic stonework in Oxford, UK, Journal of Applied Geophysics Vol. 70 (2010) pp.72-83.

DOI: https://doi.org/10.1016/j.jappgeo.2009.11.006

[8] F. Cammarano, B. Fiore, P. Mauriello, D. Patella: Examples of application of electrical tomographies and radar profiling to cultural heritage, Annali di geofisica Vol. 43 (2000) pp.309-324.

[9] A. Recheis, T. Bidner, P. Mirwald: Ultrasonic measurements on weathering alpine marble a study on field exposed samples and on the medieval marble portals of Schloss Tirol/South Tyrol-Italy, Proceedings of the 9th Int. Congress on Deterioration and Conservation of Stone, Venice (2000).

[10] B. Silva, T. Rivas, B. Prieto, F. Zezza: Methodological approach to evaluate the decay of granitic monuments affected by marine aerosol, Proceedings of the 5th Int. Symp. Conservation of Monuments in the Mediterranean Basin, Seville (2000).

[11] T. Dahlin: The development of electrical imaging techniques, Computers and Geosciences Vol. 27 (2001) pp.1019-1029.

[12] A. Bichler, P. Bobrowsky, M. Best, M. Douma, J. Hunter, T. Calvert, R. Burns: Three-dimensional mapping of a landslide using a multi-geophysical approach: the Quesnel Forks landslide, Landslides Vol. 1 (2004) pp.29-40.

DOI: https://doi.org/10.1007/s10346-003-0008-7

[13] K. Konagai, M. Numada, A. Zaferiakos, J. Johansson, A. Sadr, T. Katagiri: An example of landslide-inflicted damage to tunnel in the 2004 Mid-Niigata prefecture earthquake, Landslides Vol. 2 (2005) pp.159-163.

DOI: https://doi.org/10.1007/s10346-005-0057-1

[14] J.E. Chambers, R. Ogilvy, P. Meldrum, J. Nissen: 3D resistivity imaging of buried oil-and tar-contaminated waste deposits, European Journal of Environmental and Engineering Geophysics Vol. 4 (1999) pp.3-15.

[15] L.R. Bentley, M. Gharibi: Two-and three-dimensional electrical resistivity imaging at a heterogeneous remediation site, Geophysics Vol. 69 (2004) pp.674-680.

DOI: https://doi.org/10.1190/1.1759453

[16] F. Almeida, P. Carminé, L. Gonçalves, L. Daniel: Odd-even pole-pole spread electrode commutation in resistivity - 2D cross borehole and 3D surface imaging (Porto/Portugal underground tunnelling case studies), Proceedings–Extended Abstracts of the 7th Meeting of the Environmental and Engineering Geophysical Society (European Section), Birmingham, England (2001).

[17] N. Diamanti, G. Tsokas, P. Tsourlos, A. Vafidis: Integrated interpretation of geophysical data in the archaeological site of Europos (northern Greece), Archaeological Prospection Vol. 12 (2005) pp.79-91.

DOI: https://doi.org/10.1002/arp.249

[18] M.H. Loke, R.D. Barker: Practical techniques for 3D resistivity surveys and data inversion, Geophysical Prospecting Vol. 44 (1996) pp.499-523.

DOI: https://doi.org/10.1111/j.1365-2478.1996.tb00162.x

[19] G.N. Tsokas, P.I. Tsourlos, G. Vargemezis, M. Novack: Non-destructive electrical resistivity tomography for indoor investigation: the case of Kapnikarea Church in Athens, Archaeological Prospection Vol. 15 (2008) pp.47-61.

DOI: https://doi.org/10.1002/arp.321

[20] P.V. Sharma: Environmental and Engineering Geophysics, Cambridge University Press, Cambridge (1997), 475 pp.

[21] M.A. Guerrero, M.A. Vazquez , E. Galan, F. Zezza: The physical-mechanical properties and ultrasonic data as criteria for evaluation of calcareous stone decay, Proceedings of 1st Int. Symp. Conservation of Monuments in the Mediterranean Basin, Bari (1989).

[22] M. Mamillan: Méthodes d'evaluation des dégradations des monuments en pierre. In: 1st Course of Weathering and Air Pollution (CUM) Lago di Garda (Portese) (1989) pp.175-181.

[23] A. Arnold, K. Zehnder: Monitoring wall paintings affected by soluble salts. In: The Conservation of Wall Paintings, edited by S. Cather, The Getty Conservation Institute, Los Angeles (1991) pp.103-136.

[24] A. Dionisio: Stone decay induced by fire on historic buildings: the case of the cloister of Lisbon Cathedral (Portugal). In: Building Stone Decay: From Diagnosis to Conservation, edited by R. Prikryl & B.J. Smith, Geological Society Special Publication 271 (2007).

DOI: https://doi.org/10.1144/gsl.sp.2007.271.01.10

[25] A. Begonha, M.A. Sequeira Braga: Weathering of the Oporto granite: geotechnical and physical properties, Catena Vol. 49 (2002) p.57–76.

DOI: https://doi.org/10.1016/s0341-8162(02)00016-4

[26] A. Dionisio, F. Alegria, E. Martinho, C. Grangeia, F. Almeida: 3-D electrical resistivity imaging as a smart monitoring method for identification of moisture sources in stone cultural heritage, Proceedings of the European Workshop on Cultural Heritage Preservation (EWCHP 2011), Berlin, Germany (2011).

[27] E. Doehne, C.A. Price: Stone in conservation - An overview of current research (The Getty Conservation Institute, Los Angeles, 2010) 158 pp.