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Geotechnical correlations for soils and rocks / Jean-Claude Verbrugge, Christian Schroeder.

By: Verbrugge, Jean-Claude [author.].
Contributor(s): Schroeder, Christian [author.].
Material type: materialTypeLabelBookSeries: Civil engineering and geomechanics series: Publisher: London : Hoboken, NJ : ISTE Ltd ; Wiley, 2018Description: 1 online resource : illustrations.Content type: text Media type: computer Carrier type: online resourceISBN: 9781119482819; 111948281X; 9781119527817; 1119527813.Subject(s): Soil mechanics | Rock mechanics | Geotechnical engineering | TECHNOLOGY & ENGINEERING -- Civil -- General | Geotechnical engineering | Rock mechanics | Soil mechanicsGenre/Form: Electronic books.Additional physical formats: Print version:: No titleDDC classification: 624.151 Online resources: Wiley Online Library
Contents:
Cover; Half-Title Page; Title Page; Copyright Page; Contents; Acknowledgements; Preface; 1. Physical Parameters; 1.1. Unit weights and volumes; 1.2. Soil behavior type index and soil classification index; 1.3. Consistency or Atterberg limits; 1.4. Consistency and liquidity indices; 1.5. Rigidity index; 1.6. Relative density of sands; 1.7. Wave velocity; 1.8. Cation exchange capacity; 2. Identification of Soil Types; 2.1. From identification tests; 2.2. From cone soil index *Ic; 2.3. From CPT; 2.4. From PMT; 2.5. From SPT; 2.6. From DMT; 3. Hydraulic Parameters; 3.1. Hydraulic conductivity.
3.2. Water storage capacity3.2.1. For a free water table; 3.2.2. For a confined aquifer; 4. Strength Parameters of Saturated and Dry Soils; 4.1. Undrained shear strength and cohesion; 4.1.1. From identification tests; 4.1.2. From laboratory tests; 4.1.3. From CPT; 4.1.4. From PMT; 4.1.5. From SPT; 4.1.6. From SCPT; 4.1.7. From DMT; 4.1.8. From VST; 4.1.9. Overconsolidated soils; 4.1.10. Miscellaneous: peats and remolded soils; 4.2. Effective cohesion; 4.3. Internal friction angle; 4.3.1. From identification tests; 4.3.2. From CPT and CPTu; 4.3.3. From SCPT; 4.3.4. From PMT; 4.3.5. From SPT.
4.3.6. From DMT4.3.7. Peak, critical state and residual friction angles; 4.3.8. Influence of intermediate stress; 4.4. The angle of dilatancy; 4.5. Sensitivity; 5. Soil Deformations; 5.1. Compression and swelling; 5.1.1. Compression index; 5.1.2. Constants of compressibility; 5.1.3. Swelling index; 5.2. Soil moduli; 5.2.1. From CPT; 5.2.2. From DMT; 5.2.3. From SPT; 5.2.4. From CBR; 5.2.5. Influence of loading rate; 5.3. Small strain modulus; 5.4. Poisson's ratio; 5.5. Modulus of subgrade reaction; 5.6. Resilient modulus; 5.7. Collapse and expansion; 6. Soil State Parameters.
6.1. Preconsolidation pressure6.2. Overconsolidation ratio; 7. Consolidation; 7.1. Primary consolidation coefficient; 7.2. Secondary consolidation coefficient; 7.3. Consolidation of peats; 7.4. Degree of consolidation; 8. Coefficient of Earth Pressure at Rest; 9. Soil Compaction Tests; 9.1. Proctor tests; 9.1.1. Standard Proctor test; 9.1.2. Modified Proctor test; 9.2. CBR; 10. Unsaturated Soils; 10.1. Suction; 10.2. Bishop's coefficient; 10.3. Quasi-saturated domain; 10.4. Stress dependency of suction; 10.5. Drying path of quasi-saturated soils; 10.6. Capillary or apparent cohesion.
10.7. Estimation of porosity and degree of saturation from compression wave velocity11. Cross Relations between In Situ Test Parameters; 11.1. CPT; 11.1.1. Correction factors and correlations between different CPT; 11.1.2. CPT and DPT; 11.1.3. CPT and PMT; 11.1.4. CPT and DMT; 11.1.5. CPT and SPT; 11.2. PMT; 11.2.1. PMT and DPT; 11.2.2. PMT and DMT; 11.2.3. PMT and SPT; 11.3. DMT; 11.3.1. DMT and SPT; 11.4. SPT; 11.4.1. SPT and DPT; 11.5. PANDA dynamic penetration test; 11.5.1. PANDA and CPT; 11.5.2. PANDA and DPT; 11.5.3. PANDA and PMT; 11.5.4. PANDA and VST; 12. Rocks; 12.1. Introduction.
Summary: The modelling tools for soils and rocks require more and more specific parameters not always available from the standard or usual survey campaigns, this generally for reasons of delay or costs. The use of correlations to solve the gap between available parameters and the required ones is a common practice. Many of them exist but are spread throughout numerous papers or books. The aim of this formulary is to provide a large synthesis of the existing correlations accumulated by the authors during more than 40 years academic and consulting careers.
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Includes bibliographical references and index.

Online resource; title from PDF title page (EBSCO, viewed May 31, 2018).

Cover; Half-Title Page; Title Page; Copyright Page; Contents; Acknowledgements; Preface; 1. Physical Parameters; 1.1. Unit weights and volumes; 1.2. Soil behavior type index and soil classification index; 1.3. Consistency or Atterberg limits; 1.4. Consistency and liquidity indices; 1.5. Rigidity index; 1.6. Relative density of sands; 1.7. Wave velocity; 1.8. Cation exchange capacity; 2. Identification of Soil Types; 2.1. From identification tests; 2.2. From cone soil index *Ic; 2.3. From CPT; 2.4. From PMT; 2.5. From SPT; 2.6. From DMT; 3. Hydraulic Parameters; 3.1. Hydraulic conductivity.

3.2. Water storage capacity3.2.1. For a free water table; 3.2.2. For a confined aquifer; 4. Strength Parameters of Saturated and Dry Soils; 4.1. Undrained shear strength and cohesion; 4.1.1. From identification tests; 4.1.2. From laboratory tests; 4.1.3. From CPT; 4.1.4. From PMT; 4.1.5. From SPT; 4.1.6. From SCPT; 4.1.7. From DMT; 4.1.8. From VST; 4.1.9. Overconsolidated soils; 4.1.10. Miscellaneous: peats and remolded soils; 4.2. Effective cohesion; 4.3. Internal friction angle; 4.3.1. From identification tests; 4.3.2. From CPT and CPTu; 4.3.3. From SCPT; 4.3.4. From PMT; 4.3.5. From SPT.

4.3.6. From DMT4.3.7. Peak, critical state and residual friction angles; 4.3.8. Influence of intermediate stress; 4.4. The angle of dilatancy; 4.5. Sensitivity; 5. Soil Deformations; 5.1. Compression and swelling; 5.1.1. Compression index; 5.1.2. Constants of compressibility; 5.1.3. Swelling index; 5.2. Soil moduli; 5.2.1. From CPT; 5.2.2. From DMT; 5.2.3. From SPT; 5.2.4. From CBR; 5.2.5. Influence of loading rate; 5.3. Small strain modulus; 5.4. Poisson's ratio; 5.5. Modulus of subgrade reaction; 5.6. Resilient modulus; 5.7. Collapse and expansion; 6. Soil State Parameters.

6.1. Preconsolidation pressure6.2. Overconsolidation ratio; 7. Consolidation; 7.1. Primary consolidation coefficient; 7.2. Secondary consolidation coefficient; 7.3. Consolidation of peats; 7.4. Degree of consolidation; 8. Coefficient of Earth Pressure at Rest; 9. Soil Compaction Tests; 9.1. Proctor tests; 9.1.1. Standard Proctor test; 9.1.2. Modified Proctor test; 9.2. CBR; 10. Unsaturated Soils; 10.1. Suction; 10.2. Bishop's coefficient; 10.3. Quasi-saturated domain; 10.4. Stress dependency of suction; 10.5. Drying path of quasi-saturated soils; 10.6. Capillary or apparent cohesion.

10.7. Estimation of porosity and degree of saturation from compression wave velocity11. Cross Relations between In Situ Test Parameters; 11.1. CPT; 11.1.1. Correction factors and correlations between different CPT; 11.1.2. CPT and DPT; 11.1.3. CPT and PMT; 11.1.4. CPT and DMT; 11.1.5. CPT and SPT; 11.2. PMT; 11.2.1. PMT and DPT; 11.2.2. PMT and DMT; 11.2.3. PMT and SPT; 11.3. DMT; 11.3.1. DMT and SPT; 11.4. SPT; 11.4.1. SPT and DPT; 11.5. PANDA dynamic penetration test; 11.5.1. PANDA and CPT; 11.5.2. PANDA and DPT; 11.5.3. PANDA and PMT; 11.5.4. PANDA and VST; 12. Rocks; 12.1. Introduction.

The modelling tools for soils and rocks require more and more specific parameters not always available from the standard or usual survey campaigns, this generally for reasons of delay or costs. The use of correlations to solve the gap between available parameters and the required ones is a common practice. Many of them exist but are spread throughout numerous papers or books. The aim of this formulary is to provide a large synthesis of the existing correlations accumulated by the authors during more than 40 years academic and consulting careers.

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