Determination of Abrasion Characteristics of Ancient Stone Architectural Elements by Field-based Measurements and Laboratory Testing
- Proceedings
- EUROCK 2026
- Pages
- 1277-1285
- Submitted
- 28 April 2026
- Accepted
- 15 June 2026
- Published
- 12 August 2026
Summary
Abstract
This study examines the applicability of non-destructive test methods for the indirect estimation of Böhme abrasion values of archaeological materials from Ephesus and Kerkenes, Türkiye. Direct determination of abrasion resistance by laboratory testing is not always feasible for valuable heritage stones. Therefore, ultrasonic pulse velocity (UPV) and Schmidt hammer measurements were considered as practical non-destructive alternatives to estimate abrasion resistance. Within the scope of this study, marble samples from the Ephesus region and granodiorite samples from the Kerkenes region were tested under laboratory conditions by means of UPV, Schmidt hammer, and Böhme abrasion experiments. Moreover, in-situ UPV and Schmidt hammer measurements were conducted on archaeological thresholds and paving stones at both sites. To evaluate the predictive capability of the non-destructive parameters, the laboratory results were compared with empirical correlations relating Böhme abrasion values to UPV and Schmidt rebound values available in related literature. The newly obtained data were subsequently integrated into the published datasets, and updated relationships were derived. The analysis showed that the updated UPV-Böhme abrasion relationship better represented the marble dataset, while the granodiorite dataset showed better agreement with the updated Schmidt hardness-Böhme abrasion relationship. Overall, the findings demonstrate that non-destructive methods can provide a practical basis for the future in-situ estimation of abrasion behaviour of archaeological stones, especially where sample collection and testing cannot be performed on archaeological sites.
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References
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