Geotechnical LOOP

Approximate allowable bearing pressures for preliminary design only, are given in the table, taken from BS 8004:1986.

This book covers problems and their solution of a wide range of geotechnical topics. Every chapter starts with a summary of key concepts and theory, followed by worked-out examples, and ends with a short list of key references. It presents a unique collection of step by step solutions from basic to more complex problems in various topics of geotechnical engineering, including fundamental topics such as effective stress, permeability, elastic deformation, shear strength and critical state together with more applied topics such retaining structures and dams, excavation and tunnels, pavement infrastructure, unsaturated soil mechanics, marine works, ground monitoring.

This book aims to provide students (undergraduates and postgraduates) and practitioners alike a reference guide on how to solve typical geotechnical problems.

Features: Guide for solving typical geotechnical problems complementing geotechnical textbooks. + Reference guide for practitioners to assist in determining solutions to complex geotechnical problems via simple methods.

Alan J. Lutenegger - 654 pages - Language: English - Publisher: CRC Press; (May, 2021). 

In Situ Testing Methods in Geotechnical Engineering covers the field of applied geotechnical engineering related to the use of in situ testing of soils to determine soil properties and parameters for geotechnical design. It provides an overview of the practical aspects of the most routine and common test methods, as well as test methods that engineers may wish to include on specific projects. It is suited for a graduate-level course on field testing of soils and will also aid practicing engineers.

Test procedures for determining in situ lateral stress, strength, and stiffness properties of soils are examined, as is the determination of stress history and rate of consolidation. Readers will be introduced to various approaches to geotechnical design of shallow and deep foundations using in situ tests. Importantly, the text discusses the potential advantages and disadvantages of using in situ tests.

Donald P. Coduto, William A. Kitch, Man-chu Ronald Yeung - 984 pages - Language: English - Publisher: Pearson; 3rd edition (January, 2015). 

Foundation Design: Principles and Practices includes the most noteworthy research and advancements in Foundation Engineering. Following a systematic approach of identifying major concepts followed by strategic analysis and design, the Third Edition teaches students not only how to understand foundation engineering, but to apply it to real problems. 

Robert W. Day - 1101 pages - Language: ‎English - Publisher: McGraw Hill; 2nd Edition (August, 2012). 

Fully updated for the 2012 International Building Code, Geotechnical Earthquake Engineering Handbook, Second Edition discusses basic earthquake principles, common earthquake effects, and typical structural damage caused by seismic shaking. Earthquake computations for conditions commonly encountered by design engineers, such as liquefaction, settlement, bearing capacity, and slope stability, are included. Site improvement methods that can be used to mitigate the effects of earthquakes on structures are also described in this practical, comprehensive guide.

Coverage includes: Basic earthquake principles + Common earthquake effects + Earthquake structural damage + Site investigation for geotechnical earthquake engineering + Liquefaction + Earthquake-induced settlement + Bearing capacity analyses for earthquakes + Slope stability analyses for earthquakes + Retaining wall analyses for earthquakes + Other geotechnical earthquake engineering analyses + Grading and other soil improvement methods + Foundation alternatives to mitigate earthquake effects + Earthquake provisions in building codes

Klaus Kirsch, Alan Bell - 512 pages - Language:‎ English - Publisher: CRC Press; 3rd Edition (November, 2012). 

When finding another location, redesigning a structure, or removing troublesome ground at a project site are not practical options, prevailing ground conditions must be addressed. Improving the ground―modifying its existing physical properties to enable effective, economic, and safe construction―to achieve appropriate engineering performance is an increasingly successful approach. This third edition of Ground Improvement provides a comprehensive overview of the major ground improvement techniques in use worldwide today. Written by recognized experts who bring a wealth of knowledge and experience to bear on their contributions, the chapters are fully updated with recent developments including advancements in equipment and methods since the last edition.

The text provides an overview of the processes and the key geotechnical and design considerations as well as equipment needed for successful execution. The methods described are well illustrated with relevant case histories and include the following approaches: Densification using deep vibro techniques or dynamic compaction + Consolidation employing deep fabricated drains and associated methods + Injection techniques, such as permeation and jet grouting, soil fracture grouting, and compaction grouting + New in-situ soil mixing processes, including trench-mixing TRD and panel-mixing CSM approaches.

The introductory chapter touches on the historical development, health and safety, greenhouse gas emissions, and two less common techniques: blasting and the only reversible process, ground freezing. This practical and established guide provides readers with a solid basis for understanding and further study of the most widely used processes for ground improvement. Itis particularly relevant for civil and geotechnical engineers as well as contractors involved in piling and ground engineering of any kind. It would also be useful for advanced graduate and postgraduate civil engineering and geotechnical students.