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Jorat, Ehsan M; Mörz, Tobias; Moon, Vicki G; Kreiter, Stefan; de Lange, Willem P (2016): Two static and vibratory Cone Penetration Tests in marine soils at Tauranga Harbor, New Zealand [dataset publication series]. PANGAEA, https://doi.org/10.1594/PANGAEA.862023, Supplement to: Jorat, EM et al. (2015): Utilizing piezovibrocone in marine soils at Tauranga Harbor, New Zealand. Geomechanics and Engineering, 9(1), 1-14, https://doi.org/10.12989/gae.2015.9.1.001

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Published: 2016-06-27 • DOI registered: 2018-05-18

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Abstract:
Piezovibrocones have been developed to evaluate the liquefaction potential of onshore soils, but have not yet been utilized to evaluate the in-situ liquefaction behavior of offshore marine and volcanoclastic sediments. Two static and vibratory CPTu (Cone Penetration Tests) were performed at Tauranga Harbor, New Zealand. The lithology is known from nearby drillholes and the influence of vibration on different types of marine soils is evaluated using the reduction ratio (RR) calculated from static and vibratory CPTu. A sediment layer with high potential for liquefaction and one with a slight reaction to cyclic loading are identified. In addition to the reduction ratio, the liquefaction potential of sediment is analyzed using classic correlations for static CPTu data, but no liquefaction potential was determined. This points to an underestimation of liquefaction potential with the classic static CPTu correlations in marine soil. Results show that piezovibrocone tests are a sensitive tool for liquefaction analysis in offshore marine and volcanoclastic soil.
Source:
Data tables in original format (CPT.zip, 1358 KB)
Project(s):
Center for Marine Environmental Sciences (MARUM)
Coverage:
Median Latitude: -37.663599 * Median Longitude: 176.175497 * South-bound Latitude: -37.668075 * West-bound Longitude: 176.174508 * North-bound Latitude: -37.659158 * East-bound Longitude: 176.176453
License:
Creative Commons Zero 1.0 Universal (CC0)
Size:
8 datasets

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Datasets listed in this publication series

  1. Jorat, EM; Mörz, T; Moon, VG et al. (2016): Cone resistance and pore pressure of CPT23 undredged area. https://doi.org/10.1594/PANGAEA.861997
  2. Jorat, EM; Mörz, T; Moon, VG et al. (2016): Cone resistance and pore pressure of CPT23 undredged area with corrected depth. https://doi.org/10.1594/PANGAEA.862000
  3. Jorat, EM; Mörz, T; Moon, VG et al. (2016): Cone resistance and pore pressure of CPT28 undredged area. https://doi.org/10.1594/PANGAEA.861998
  4. Jorat, EM; Mörz, T; Moon, VG et al. (2016): Cone resistance and pore pressure of CPT28 undredged area with corrected depth. https://doi.org/10.1594/PANGAEA.862001
  5. Jorat, EM; Mörz, T; Moon, VG et al. (2016): Cone resistance and pore pressure of CPT29a dredged area. https://doi.org/10.1594/PANGAEA.861901
  6. Jorat, EM; Mörz, T; Moon, VG et al. (2016): Cone resistance, pore pressure, and vertical effective stress of CPT29a dredged area. https://doi.org/10.1594/PANGAEA.861935
  7. Jorat, EM; Mörz, T; Moon, VG et al. (2016): Cone resistance and pore pressure of CPT29b dredged area. https://doi.org/10.1594/PANGAEA.861916
  8. Jorat, EM; Mörz, T; Moon, VG et al. (2016): Cone resistance, pore pressure, and vertical effective stress of CPT29b dredged area. https://doi.org/10.1594/PANGAEA.861936