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Affiliation(s)

1. Aristotle University of Thessaloniki, Thessaloniki 54124, Greece
2. International Hellenic University, Sindos 57400, Thessaloniki, Greece

ABSTRACT

The significance of this paper is the evaluation of the use of BQS (blastability quality system) on rock slopes in practice A landslide, which took place in Northern Greece, in a tectonic active fault damage zone of gneiss and sandstone, and is used for our investigation. The results of the BQS description are combined with the results of the SMR (slope mass rating) Classification. The final results of the two classification methods are similar. It is significant that the both estimates are really close. So, the BQS can effectively be used as a combinational classification system and results in the appropriate support measure. The decision about the installation of the support measures mainly depends on the worst rock mass. Considering the presence of the active fault and the rock mass quality, the appropriate restoration can be a flexible system with gabions and benches, which follow the geometry of the potential critical sliding cycle. The above flexible support system can follow the fault movement during future earthquakes and absorb the energy and deformation. The cracked small wedges can be prevented from sliding by wire mess. Also, a drainage system and toe ditch need to drive the water of the rainfall out of the slope.

KEYWORDS

Landslide, rock mass, classification, support, slope stability.

Cite this paper

Chatziangelou, M. and Anagnostopoulos, C. 2022. "The Effectiveness of Blastability Quality System on Rock Slopes: A Case Study in a Landslide Restoration." Journal of Geological Resource and Engineering 10 (2022): 1-13.

References

[1]       Chatziangelou, M., and Christaras, B. 2017. “A New Development of BQS (Blastability Quality System) for Closely Spaced Formations.” Journal of Geological Resource and Engineering 1: 24-37.

[2]       Romana, N. 1985. “New Adjustment Ratings for Application of Bieniawski Classification to Slopes.” In Proceedings of the International Symposium of Rock Mechanics, Excavation, Mining & Civil Works, Mexico City, Brazil, pp. 59-68.

[3]       Pandelidis, L. 2009. “Rock Slope Stability Assessment through Rock Mass Classification Systems.” International Journal of Rock Mechanics and Mining Sciences 46 (2): 315-25.

[4]       Mohammadi, M. 2021. “Development of an Optimal Experimental Model for Predicting Rock Mass Rating Based on Tunneling Quality Index.International Journal of Rock Mechanics and Mining Sciences 140: 104602.

[5]       Bieniawski, Z. T. 1979. “The Geomechanical Classification in Rock Engineering Applications.” In Proceedings of the 4th International Congress Rock Mechanics, Montreux, Balkema, Rotterdam.

[6]       Ajoy, G., and Akhilesh, J. 2012. Blasting in Mining—New Trends. New York: Taylor & Francis, CRC Press.

[7]       Lilly, P. A. 1986. “An Empirical Method of Assessing Rock Mass Blastability.” In Proceedings of AusIMM/IEAust Large Open Pit Mining Conference, Newman, pp. 89-92.

[8]       Kaushik, D., and Phalguni, S. 2003. “Concept of Blastability—An Update.” The Indian Mining & Engineering Journal 42 (8-9): 24-31.

[9]       Christaras, B., and Chatziangelou, M. 2014. “Blastability Quality System (BQS) for Using It, in Bedrock Excavation.” Structural Engineering and Mechanics 51 (5): 823-45.

[10]    Marinos, V., Marinos, P., and Hoek, E. 2005. “The Geological Strength Index: Applications and Limitations.” Bulletin of Engineering Geology and the Environment 64: 55-65.

[11]    Marinos, P., and Hoek, E. 2000. “A Geologically Friendly Tool for Rock Mass Strength Estimation.” In Proceedings of International Conference on Geotechnical and Geological Engineering, 1422-40.

[12]    Sonmez, H., and Ulusay, R. 1999. “Modification to the Geological Strength Index (GSI) and Their Applicability to Stability of Slopes.” International Journal of Rock Mechanics and Mining Sciences 36 (6): 743-60.

[13]    Wu, F., and Wang, S. 2001. “Strength Theory of Homogeneous Jointed Rock Mass.” Geotechnique 51 (9): 815-8.

[14]    Ellen, S. D., Mark, R. K., Cannon, S. H., and Knifong. D. L. 1993. Map of Debris-Flow Hazard in the Honolulu District of Oahu, Hawaii. Geological Survey Open-File, Report.

[15]    Min, K.-B., Rutqvist, J., and Elsworth, D. 2009. “Chemically and Mechanically Mediated Influences on the Transport and Mechanical Characteristics of Rock Fractures.” International Journal of Rock Mechanics and Mining Sciences 46: 80-9.

[16]    Bieniawski, Z. T. 1974. “Geomechanics Classification of Rock Masses and Its Application in Tunneling.” In Proceedings of 3rd International Congress of Rock Mechanics, ISRM, Denver, pp. 27-32.

[17]    Romana, M., Tomas, R., and Seron, J. B. 2015. “Slope Mass Rating (SMR) Geomechanics Classification: Thirty Years Review.” In Proceedings of International Symposium on Rock Mechanics, Quebec, Canada, p. 10.

[18]    Deere D. U., and Deere, D. W. 1988. The Rock Quality Designation (RQD) Index in Practice.” In Rock Classification Systems for Engineering Purposes, edited by L. Kirkaldie, pp. 91-101.

[19]    Palmstrom, A. 2005. “Measurements of and Correlations between Block Size and Rock Quality Designation (RQD).” Tunnels and Underground Space Technology 20: 362-77.

[20]    Marinos, P., Marinos, V., and Hoek, E. 2007. “Geological Strength Index (GSI). A Characterization Tool for Assessing Engineering Properties for Rock Masses.” In Proceedings International Workshop on Rock Mass Classification for Underground Mining, Mark, Pakalnis and Tuchman, pp. 87-94.

[21]    Hoek, E., Marinos, P., and Benissi, M. 1998. “Applicability of the Geological Strength Index (GSI) Classification for Very Weak and Sheared Rock Masses. The Case of the Athens Schist Formation.” Bull. Eng. Geol. Env. 547: 151-60.

[22]    Marinos, P., and Hoek, E. 2001. “Estimating the Geotechnical Properties of Heterogeneous Rock Masses such as Flysch.” Bull. Eng. Geol. Env. 60: 85-92.

[23]    Ma, L. Li, Z., Wang, M., Wu, J., and Li, G. 2020. “Applicability of a New Modified Explicit Three-Dimensional Hoek-Brown Failure Criterion to Eight Rocks.” International Journal of Rock Mechanics and Mining Sciences 133: 104311.

[24]    Hoek, E., Carranza-Torres, C. T., and Corkum, B. 2002. “Hoek-Brown Failure Criterion.” In Proceedings of NARMS-TAC Conference, Toronto, Cananda, pp.  267-73.

[25]    Cai, M., Kaiser, P. K., Uno, H., Tasaka, Y., and Minami, M. 2004. “Estimation of Rock Mass Deformation Modulus and Strength of Jointed Hard Rock Masses Using the GSI System.” International Journal of Rock Mechanics and Mining Sciences 41 (1): 449-66.

[26]    Kluger, M., Moon, V., Jorat, E., and Kreiter, S. 2020. “Rainfall Threshold for Initiating Effective Stress Decrease and Failure in Weathered Tephra Slopes.” Landslides 17 (2): 267-81. https://doi.org/10.1007/s10346-019-01289-2.

[27]    Bieniawski, Z. T. 1993. “Classification of Rock Masses of Engineering. The RMR System and Future Trends.” In Rock Testing and Site Characterization, pp. 553-73.

[28]    Bieniawski, Z. T. 1989. Engineering Rock Mass Classifications. New York: Wiley-Interscience.

[29]    Zhang, L. 2016. “Determination and Applications of Rock Quality Designation (RQD).” Journal of Rock Mechanics and Geoechnical Engineering 8: 389-97.

[30]    Coppola, L. 2018. Hydrogeological Instability in Cohesive Soils: Techniques for Prediction, Prevention and Control. New York: Springer.

[31]    Hoek, E., and Brown, E. T. 1997. “Practical Estimates of Rock Mass Strength.” International Journal of Rock Mechanics and Mining Sciences 34 (8): 1165-86.

[32]    Hoek, E., and Brown, E. T. 2018. “The Hoek-Brown Failure Criterion and GSI.” Journal of Rock Mechanics and Geotechnical Engineering 11 (3): 445-63.

[33]    Li, B., Jiang, Y., Mizokami, T., Ikusada, K., and Mitani, Y. 2014. “Anisotropic Shear Behavior of Closely Jointed Rock Masses.” International Journal of Rock Mechanics and Mining Sciences 71: 258-71.

[34]    Hocking, G. 1976. “A Method for Distinguishing between Single and Double Plane Sliding of Tetrahedral Wedges.” Int. Journal of Rock Mechanics & Mining Science 13: 225-6.

[35]    Markland, J. T. 1972. A Useful Technique for Estimating the Stability of Rock Slopes when the Rigid Wedge Sliding Type of Failure Is Expected. Imperial College Rock Mechanics Research Report.

[36]    Bye, A. R., and Bell, F. G. 2001. “Stability Assessment and Slope Design at Sandsloop Open Pit, South Africa.” International Journal of Rock Mechanics and Mining Sciences 38: 449-66.

[37]    Li, B., Jiang, Y., Mizokami, T., Ikusada, K., and Mitani, Y. 2014. “Anisotropic Shear Behavior of Closely Jointed Rock Masses.” International Journal of Rock Mechanics and Mining Sciences 71: 258-71.

[38]    Bieniawski, Z. T. 1973. Engineering Classification of Jointed Rock Masses. Transactions of the South African Institution of Civil Engineers 15: 355-44.

[39]    Romana, M., Seron, J. B., and Montalar, E. 2003. “SMR Geomechanics Classification: Application, Experience and Validation.” In Technology Roadmap for Rock Mechanics. South African: South African Institute of Mining and Metallurgy.

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