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AR

Geoscience and Natural Resources Management

Soil Analysis and Geotechnical Engineering Principles

12 units

Please select a city/session before registration.

About this program

Geotechnical engineering is crucial for the secure and sustainable design of civil infrastructure projects. A thorough theoretical grasp of soil properties, subsurface conditions, and foundational engineering principles is necessary to assess risks accurately and guarantee the durability and safety of engineering works. This course delivers an extensive theoretical foundation in geotechnical engineering, encompassing soil mechanics, soil classification, site investigation methodologies, foundation design principles, slope stability analysis, geotechnical risk evaluation, and modeling techniques.

Key outcomes

  • Comprehend the core principles underlying geotechnical engineering
  • Recognize and categorize various soil types and analyze their characteristics
  • Describe theoretical approaches to site investigation techniques
  • Examine soil responses under diverse loading scenarios
  • Grasp the fundamentals of shallow foundation design
  • Understand the design methodologies for deep foundation systems
  • Assess slope stability and the behavior of retaining structures
  • Identify potential geotechnical hazards and perform risk assessments
  • Learn foundational concepts of geotechnical modeling
  • Incorporate soil and site data into engineering design processes
  • Interpret and critically evaluate geotechnical reports
  • Ensure adherence to relevant engineering codes and standards
  • Advocate for safe and sustainable practices in geotechnical engineering

Who should attend

  • Geotechnical and civil engineering professionals
  • Structural and design engineers
  • Project managers in construction and infrastructure sectors
  • Environmental scientists and geoscience experts
  • Engineering students and professionals at the beginning of their careers

Course outline

1

Unit 1: Fundamentals of Geotechnical Engineering

  • The extent and function of geotechnical engineering
  • The significance of soil behavior in construction projects
  • Summary of geotechnical investigations within project contexts
  • Typical geotechnical issues and failure scenarios
2

Unit 2: Characteristics and Classification of Soils

  • Physical and mechanical attributes of soils
  • Soil classification frameworks (USCS and AASHTO)
  • Index properties and their engineering relevance
  • Analysis of soil classification outcomes
3

Unit 3: Principles of Site Investigation

  • Goals of geotechnical site investigations
  • Theoretical overview of boreholes, sampling techniques, and exploration methods
  • Concepts behind Standard Penetration Test (SPT) and Cone Penetration Test (CPT)
  • Constraints and dependability of investigation techniques
4

Unit 4: Conceptual Overview of Laboratory Soil Testing

  • Analysis of grain size distribution
  • Atterberg limits and soil consistency evaluation
  • Fundamentals of compaction and consolidation
  • Principles of shear strength testing
  • Interpretation of laboratory testing outcomes
5

Unit 5: Soil Mechanics and Behavior

  • Stress–strain behavior in soils
  • Principle of effective stress
  • Pore water pressure dynamics and seepage
  • Shear strength parameters and failure mechanisms
6

Unit 6: Design Fundamentals of Shallow Foundations

  • Theories on bearing capacity
  • Concepts of settlement and deformation
  • Varieties of shallow foundation types
  • Design premises and associated constraints
7

Unit 7: Design Principles of Deep Foundations

  • Types of pile foundations and mechanisms of load transfer
  • Axial and lateral response of piles
  • Caissons and drilled shaft foundations
  • Safety considerations and design criteria
8

Unit 8: Stability of Slopes and Retaining Structures

  • Characteristics of natural and engineered slopes
  • Factors contributing to slope instability
  • Techniques for slope stability evaluation
  • Design and function of retaining walls and earth retention systems
9

Unit 9: Assessment of Geotechnical Risks

  • Detection of geotechnical hazards
  • Principles of risk assessment
  • Measures for mitigation and control
  • The contribution of geotechnical engineering to risk management
10

Unit 10: Concepts in Geotechnical Modeling

  • Analytical versus numerical modeling techniques
  • Introduction to geotechnical modeling methodologies
  • Model assumptions and inherent limitations
  • Understanding and interpreting modeling outcomes
11

Unit 11: Environmental and Regulatory Frameworks

  • Principles of sustainable geotechnical engineering
  • Environmental effects of soil and foundation operations
  • Relevant national and international regulations and standards
  • Ethical and professional responsibilities
12

Unit 12: Comprehensive Geotechnical Case Analyses

  • Examination of practical geotechnical case studies
  • Analysis of design choices and failure cases
  • Insights gained from engineering experience
  • Applying theoretical concepts to project evaluations