M.S. in Civil Engineering – Geotechnical Engineering

1 Years On Campus Masters Program

University of Oklahoma

Program Overview

The University of Oklahoma's M.S. in Civil Engineering – Geotechnical Engineering provides advanced knowledge of soil mechanics, foundation engineering, soil dynamics and geotechnical design. Designed for civil engineering graduates seeking specialist expertise, the program combines advanced coursework and, depending on the chosen pathway, independent research or a coursework-focused structure.

Curriculum Structure

Year 1: Students develop advanced foundations in geotechnical engineering through courses such as Foundation Engineering, Advanced Soil Mechanics, Unsaturated Soil Mechanics and Introduction to Soil Dynamics. They can also explore specialist subjects such as In-Situ Soil Testing and Soil-Structure Interaction.

Focus Areas

Foundation engineering, advanced soil mechanics, soil dynamics, unsaturated soil mechanics, geotechnical testing, soil-structure interaction, earthquake engineering, reinforced soil structures, geosynthetics.

Learning Outcomes

Advanced soil behaviour analysis, foundation design, geotechnical investigation, soil stability assessment, earthquake-related geotechnical analysis, technical research, engineering problem-solving and geotechnical project evaluation.

Professional Alignment (Accreditation)

The University of Oklahoma is institutionally accredited by the Higher Learning Commission (HLC). The university's ABET accreditation applies to its undergraduate B.S. in Civil Engineering; program-specific ABET accreditation for this M.S. is not stated.

Reputation & Employability

Research Strength: The Geotechnical Engineering program supports research in soil mechanics, foundation engineering, geomechanics and soil-structure interaction.
Research Facilities: Students benefit from specialist geotechnical laboratories, soil-testing equipment and computational modelling facilities.
Ranking: OU's Gallogly College of Engineering ranked 106th among graduate engineering schools in the 2024 U.S. News rankings, as reported by the university.

Experiential Learning (Research, Projects, Internships etc.)

The University of Oklahoma's M.S. in Civil Engineering – Geotechnical Engineering combines advanced theoretical study with experimental investigation, numerical analysis and applied research. Students explore the behaviour of soil and rock under different engineering conditions and learn to apply research findings to foundations, transportation infrastructure, underground construction and environmental challenges. The thesis pathway provides an opportunity to undertake independent research under faculty supervision, while the non-thesis pathway allows students to develop specialist knowledge through additional coursework.

Practical Learning and Research Opportunities:

Geotechnical Laboratory Investigations: Students can develop experience in laboratory evaluation of soil properties, including the mechanical behaviour of saturated and unsaturated soils and the effects of physical and chemical properties.
Foundation Engineering: Study the behaviour and design of shallow and deep foundations, including how soil conditions influence the stability and performance of structures.
Soil-Structure Interaction: Investigate how soil and structural systems influence one another, with applications in foundations, retaining structures, bridges and other infrastructure.
Advanced Soil Mechanics: Explore soil consolidation, constitutive modelling, unsaturated soil mechanics and the behaviour of complex geomaterials under different loading conditions.
In-Situ Testing and Field Investigation: Research includes field-based evaluation of soil properties and geotechnical conditions, helping students understand how ground characteristics influence engineering design.
Numerical Modelling: Apply computational and numerical methods to analyse complex geotechnical problems, including slope stability, seepage, soil deformation and foundation performance.
Centrifuge Modelling: The department identifies centrifuge modelling as a research method for investigating the static and dynamic behaviour of soils under simulated loading conditions.
Earthquake and Soil Dynamics Research: Explore soil response to dynamic loading, seismic effects, liquefaction and soil-structure interaction.

Progression & Future Opportunities

The M.S. in Civil Engineering – Geotechnical Engineering prepares graduates for specialist engineering roles involving the investigation, analysis and design of ground-related infrastructure systems. Through advanced study of soil mechanics, foundations, geotechnical testing and numerical modelling, students develop the technical capabilities to address challenges in construction, transportation, mining, infrastructure development and environmental engineering. The thesis pathway is particularly relevant for students interested in research-oriented careers or further academic study.

Career Opportunities:

Geotechnical Engineer: Investigate ground conditions and develop engineering recommendations for foundations, slopes, retaining structures and infrastructure projects.
Foundation Engineer: Analyse soil and foundation conditions and support the design of shallow and deep foundation systems.
Soil Mechanics Engineer: Evaluate soil behaviour under different loading and environmental conditions and contribute to geotechnical design.
Geotechnical Design Engineer: Prepare technical designs and engineering assessments for earthworks, embankments, retaining walls and underground structures.
Geotechnical Consultant: Provide specialist advice on site investigations, ground stability, foundation design and geotechnical risk.

Potential Employment Sectors: Graduates can pursue opportunities in geotechnical and civil engineering consultancies, construction companies, transportation infrastructure, mining and energy, government engineering departments, environmental engineering organisations, specialist testing laboratories and research institutions.

Research and Technical Exposure: The department's research covers practical challenges such as foundation performance, bridge approach settlement, slope stability, soil liquefaction, ground subsidence, pavement dynamics, landfill design and pollutant movement through soil. These areas provide a strong foundation for graduates seeking technically specialised roles in geotechnical investigation, design and infrastructure development.

Professional Development: The curriculum includes Technical Communications, which develops the ability to communicate engineering concepts and technical findings. The programme's research and elective structure also allows students to build expertise in related fields such as project management, sustainable engineering, applied statistics, numerical analysis and computational fluid dynamics.

Further Academic Progression: Graduates may pursue a Ph.D. in Geotechnical Engineering, Civil Engineering or related disciplines. The University of Oklahoma offers doctoral study in Geotechnical Engineering, with research areas including soil mechanics, geomechanics, constitutive modelling, foundation engineering, soil-structure interaction, centrifuge modelling, soil liquefaction and numerical methods. The thesis-based master's pathway provides relevant research preparation for students interested in doctoral study, academic careers and advanced engineering research.