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Portable in practice: investigations using portable instrumentation for materials analysis and mapping of decorated architectural surfaces in the tablinum of the House of the Bicentenary at Herculaneum

Published online by Cambridge University Press:  03 May 2017

Kiernan Graves ,
David Carson ,
Ilaria Catapano ,
Giacomo Chiari ,
Gianluca Gennarelli ,
Arlen Heginbotham ,
Nicola Masini ,
Francesca Piqué ,
Maria Sileo  and
Leslie Rainer
Kiernan Graves*
Affiliation:
Getty Conservation Institute (GCI) 1200 Getty Center Drive, Los Angeles, CA 90049USA
David Carson
Affiliation:
Getty Conservation Institute (GCI) 1200 Getty Center Drive, Los Angeles, CA 90049USA
Ilaria Catapano
Affiliation:
Institute for Electromagnetic Sensing of the Environment (IREA), National Research Council of Italy (CNR), Via Diocleziano 328, I-80124, Naples, Italy
Giacomo Chiari
Affiliation:
Getty Conservation Institute (GCI) 1200 Getty Center Drive, Los Angeles, CA 90049USA
Gianluca Gennarelli
Affiliation:
Institute for Electromagnetic Sensing of the Environment (IREA), National Research Council of Italy (CNR), Via Diocleziano 328, I-80124, Naples, Italy
Arlen Heginbotham
Affiliation:
J. Paul Getty Museum, 1200 Getty Center Drive, Los Angeles, CA 90049USA
Nicola Masini
Affiliation:
Institute for Archaeological and Monumental Heritage (IBAM), National Research Council of Italy (CNR), C. da S. Loja, 85050 Tito Scalo (PZ). Italy
Francesca Piqué
Affiliation:
University of Applied Sciences and Arts of Southern Switzerland (SUPSI), Via Pobiette 11, 6928 Manno, Switzerland
Maria Sileo
Affiliation:
Institute for Archaeological and Monumental Heritage (IBAM), National Research Council of Italy (CNR), C. da S. Loja, 85050 Tito Scalo (PZ). Italy
Leslie Rainer
Affiliation:
Getty Conservation Institute (GCI) 1200 Getty Center Drive, Los Angeles, CA 90049USA
*
*(Email: [email protected])
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Abstract

The conservation of the architectural surfaces in the tablinum of the House of the Bicentenary at the ancient Roman site of Herculaneum is a collaborative project of the Getty Conservation Institute, the Herculaneum Conservation Project and the Soprintendenza Pompeii. The tablinum was selected as a case study given the significance, beauty, and severe deterioration of its decorated surfaces. A multi-disciplinary team with a wide range of expertise, comprised of conservators, chemists, geo-physicists, engineers, and conservation scientists, worked in partnership across a number of institutions with the objective to study the wall paintings in the tablinum. Scientists and conservators worked together to test the feasibility of portable techniques and in situ investigations to better understand Roman painting technology; identify previous restoration materials; determine the presence of alteration products; and characterize deterioration mechanisms commonly found on architectural surfaces at archaeological sites of the Vesuvian Region. The collection and interpretation of the instrumental data has been critical to the design and implementation of appropriate passive and remedial interventions to stabilize the architectural surfaces and mitigate deterioration. The paper will present the results of the investigations using portable instrumentation along with a discussion of the capabilities and limitations of each technique and the practical implications of their use for architectural surfaces on archaeological sites.

Keywords

archaeologyartx-ray fluorescence
Type
Articles
Information
MRS Advances , Volume 2 , Issue 33-34: Materials Issues in Art and Archaeology XI , 2017 , pp. 1831 - 1848
Copyright
Copyright © Materials Research Society 2017 

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References

REFERENCES

Alberti, R., Crupti, V., Frontoni, R., Galli, G., La Russa, M.F., Licchelli, M., Majolino, D., Malagodi, M., Rossi, B., Ruffolo, S.A. and Venuti, V.. 2017 “Handheld XRF and Raman equipment for the investigation of Roman finds in the Villa dei Quintili (Rome, Italy).” Journal of Anal. At. Spectrometry, 32: 117–129.Google Scholar
Aldrovandi, A., Buzzegoli, E., Keller, A., and Kunzelman, D.. 2005. “Investigation Of Painted Surfaces with a Reflected False Color Technique.” Paper presented at Art 05: 8th International Conference on Non-Destructive Investigations and Microanalysis for the Diagnostics and Conservation of the Cultural and Environmental Heritage. Lecce, May 15–19.Google Scholar
Aliatis, I., Bersani, D., Campani, E., Casoli, A., Lottici, P. P., Mantovan, S., and Marino, I. G.. 2010. “Pigments Used in Roman Wall Paintings in the Vesuvian Area.” Journal of Raman Spectroscopy 41(11): 1537–42.Google Scholar
Amadori, M. L., Barcellin, S., Poldi, G., Ferrucci, F., Andreotti, A., Baraldi, P., and Colombini, M. P.. 2015. “Invasive and Non-invasive Analyses for Knowledge and Conservation of Roman Wall Paintings of the Villa of the Papyri in Herculaneum.” Microchemical Journal 118: 183–92.CrossRefGoogle Scholar
Baraldi, P., and Bensi, P.. 2006. Alterazioni delle materie coloranti nelle pitture murali prodotte dalle alte temperature: fonti storiche ed indagni scientifiche. Salavti dalle diamme, Atti della giornata di studio, 6/10/2006, 15–29. Lugano: SUPSI.Google Scholar
Camardo, D. and Court, S.. 2013. “Herculaneum.” In Bagnall, R.S., Brodersen, K., Champion, C.B., Erskine, A. and Huebner, S.R. (eds) The Encyclopedia of Ancient History. Oxford, Blackwell Publishing: 3150–3155.Google Scholar
Camardo, D. and Notomista, M., , M., eds. Forthcoming 2017. “Ercolano: 1927-1961. L’impresa archeologica di Amedeo Maiuri e l’esperimento della città museo.” Rome: Soprintendenza Pompei.Google Scholar
Carson, D. 2008. Laser Speckle Interim Report. Herculaneum Project campaign report, June 2008. Unpublished report. Getty Conservation Insitute: Los Angeles.Google Scholar
Cesareo, R. S. Ridolfi, M. Marabelli, A. Castellano, G. Buccolieri, M. Donativi, G.E. Gigante, A. Brunetti, and Rosales Medina, M.A.. 2008. “Portable Systems for Energy-Dispersive X-ray Fluorescence Analysis of Works of Art.” In Portable x-ray fluorescence spectrometry: capabilities from in situ analysis. Potts, P. and West, M., eds., Cambridge: Royal Society of Chemistry.Google Scholar
Chiari, G. 2017. “Photoluminescence of Egyptian blue.” SAS Encyclopedia of Archaeological Sciences. Google Scholar
Dyer, J., Verri, G., and Saunders, D.. 2013. Multispectral Imaging in Reflectance and Photo-induced Luminescence Modes: A User Manual. European CHARISMAProject. London: British Museum.Google Scholar
Gittins, M., Bonaschi, M.L., Piqué, F., and Rainer, L.. 2015. “Remounting materials and techniques of the wall paintings in the tablinum of the House of the Bicentenary, Herculaneum.” Unpublished report. Getty Conservation Institute: Los Angeles.Google Scholar
Goss, C. J. 1987. “The kinetics and reaction mechanism of the goethite to hematite transformation.” Mineralogical Magazine, September, Vol. 51, 437 – 451.CrossRefGoogle Scholar
Keene, L., and Chiang, F.P.. 2009. “Real-time anti-node visualization of vibrating distributed systems in noisy environments using defocused laser speckle contrast analysis.” Journal of Sound and Vibration 320, pp 472–481.Google Scholar
Meggiolaro, V., Molin, G.M., Pappalardo, U., and Vergerio, P.P., 1997. Contribution to studies on Roman wall painting materials and techniques in Greece: Corinth, the Southeast Building., Proceedings of the International Workshop on Roman Wall Painting, Fribourg., 105–118.Google Scholar
Nevin, A. and Doherty, T., eds. 2016. “The Noninvasive Analysis of Painted Surfaces: Scientific Impact and Conservation Practices.” Wahsington, DC: Smithosonian Institution Scholarly Press.Google Scholar
Paradisi, A., Sodo, A., Artioli, D., Botti, A., Cavezzali, D., Giovagnoli, A., and Ricci, M. A.. 2012. “Domus Aurea, the ’Sala delle Maschere’: Chemical and Spectroscopic Investigations on the Fresco Paintings.” Archaeometry 54(6): 1060–1075.Google Scholar
Paternoster, G., Rinzivillo, R., Nunziata, F., Castellucci, E., Lofrumento, C., Zoppi, A., and Vendittelli, M.. 2005. “Study on the Technique of the Roman Age Mural Paintings by Micro-XRF with Polycapillary Conic Collimator and µ-Raman Analyses.” Journal of Cultural Heritage 6(1): 21–28.Google Scholar
Piqué, F., Verri, G., Miliani, C., Cartechini, L., and Torraca, G.. 2007. “Indagini non-invasive sulle pitture del tablino della Casa del Bicentenario ad Ercolano.” Materiali e Strutture 9–10.Google Scholar
Piqué, F., Chiari, G., Colombini, M.P., and Torraca, G.. 2010. “I dipinti murali della Casa del Bicentenario a Ercolano: degrado e prevenzione.” Scienza a Beni Culturali 26: 837–847.Google Scholar
Piqué, F., and Verri, G., eds. 2015. Organic Materials in Wall Painting: Project Report. Los Angeles: The Getty Conservation Institute.Google Scholar
Piqué, F., Macdonald-Korth, E., and Rainer, L.. 2015. “Observations on materials and techniques used in Roman wall paintings of the tablinum, House of the Bicentenary at Herculaneum.” In: Lepinski, S. and McFadden, S. (eds.) Beyond Iconography: materials, methods and meaning in ancient surface decoration. Boston, MA: Archaeological Institute of America: 57–76.Google Scholar
Rickerby, S. 1991. “Heat alterations to pigments painted in the fresco technique.” The Conservator 15, 1, 39–44.Google Scholar
Sciuti, S., Fronterotta, G., Vendittelli, M., Longoni, A., and Fiorini, C.. 2001. “A Non-destructive Analytical Study of a Recently Discovered Roman Wall Painting.” Studies in Conservation 46(2): 132–40.Google Scholar
Shugar, A. N. and Mass, J. L.. 2012. “Handheld XRF for art and archeology.” Leuven, Belgium: Leuven University Press.Google Scholar
Soldovieri, F., Hugenschmidt, J., Persico, R., and Leone, G.. 2007. “A linear inverse scattering algorithm for realistic GPR applications.” Near Surface Geophysics, vol. 5, 29–42.CrossRefGoogle Scholar
Solé, V. A., Papillon, E., Cotte, M., Walter, Ph., and Susini, J.. 2007. “A Multiplatform Code for the Analysis of Energy-Dispersive X-Ray Fluorescence Spectra.” Spectrochimica Acta Part B: Atomic Spectroscopy 62(1), 63–68.Google Scholar
Thompson, J. 2007. “Conservation and management challenges in a public/private partnership for a large archaeological site (Herculaneum, Italy).” Conservation and Management of Archaeological Sites, vol. 8, 191–204.Google Scholar
Verri, G. 2009. “The spatially resolved characterisation of Egyptian blue, Han blue and Han purple by photo-induced luminescence digital imaging.” Journal of Analytical and Bioanalytical Chemistry, Vol. 394 , Issue 4. 1011–1021.CrossRefGoogle Scholar
Verri, G., and Saunders, D.. 2014. “Xenon Flash for Reflectance and Luminescence (Multispectral) Imaging in Cultural Heritage Applications.” Technical Reseach Bulletin: The British Museum 8.Google Scholar
Wong, L. and Agnew, N.. 2015. “The Conservation of Cave 85 at the Mogao Grottoes, Dunhuang: a collaborative project of the Getty Conservation Insitute and the Dunhuang Academy.” Los Angeles: J. Paul Getty Trust.Google Scholar
Wong, L. 2010. “In the tomb of Tutankhamen: a new conservation effort.” Conservation perspectives: the GCI newsletter, 25(2), Fall 2010. 18–19.Google Scholar
Zebala, A. 2008. “Conservation Treatment of the Graffiti Wall at Scripps College for Women Including Use of a New Diagnostic Instrument.” Unpublished presentation given at the American Institute for Conservation of Historic and Artistic Works 2008 annual meeting, USA: Denver.Google Scholar