The MSc in Geo-Technical Engineering is a two-year postgraduate Civil Engineering program offered at Pulchowk Campus under the Institute of Engineering (IOE), Tribhuvan University. The current IOE curriculum uses the title MSc in Geo-technical Engineering, and the degree is awarded as MSc in Geo-technical Engineering (Civil Engineering).
The program is organized across four semesters and carries 60 credits. It develops advanced study in solid mechanics, engineering geology, soil mechanics, rock mechanics, foundation engineering, ground exploration and testing, followed by specialized electives, project work, and thesis research. Elective areas extend into geosynthetics, ground improvement, seepage, mountain risk, GIS, rock slopes, earth dams, numerical methods, geotechnical earthquake engineering, tunneling, and unsaturated soil mechanics.
| Field | Details |
|---|---|
| Course | MSc in Geo-Technical Engineering |
| Degree award | MSc in Geo-technical Engineering (Civil Engineering) |
| Level | Master’s degree |
| Campus | Pulchowk Campus – Institute of Engineering |
| Academic field | Civil Engineering |
| University | Tribhuvan University |
| Institute | Institute of Engineering (IOE) |
| Duration | 2 years |
| Academic structure | 4 semesters |
| Total credits | 60 |
| Eligibility | BE in Civil Engineering |
| Major components | Core courses, electives, project, thesis |
Geo-technical Engineering deals with the behaviour of soil, rock, foundations, slopes, earth structures, and subsurface conditions in relation to civil engineering works.
At postgraduate level, the subject moves beyond introductory soil mechanics and foundation engineering. Students study advanced solid mechanics, engineering geology, soil and rock behaviour, foundation systems, subsurface exploration, field and laboratory testing, numerical approaches, and specialized geotechnical problems.
The curriculum at Pulchowk Campus follows a clear progression. The first semester establishes advanced mechanical, geological, soil, and rock foundations. The second semester moves into foundation engineering, ground investigation, and electives. The third semester allows further specialization while adding a substantial project. The fourth semester is devoted to thesis research.
The program operates within the Civil Engineering academic environment of Pulchowk Campus – Institute of Engineering (IOE) under Tribhuvan University.
Eligibility: BE in Civil Engineering.
The eligibility requirement places the program specifically within advanced Civil Engineering study.
Admission follows the postgraduate framework of the Institute of Engineering. Candidates must satisfy the applicable IOE postgraduate entrance requirements and proceed through the corresponding Pulchowk Campus admission process.
The MSc in Geo-Technical Engineering runs for two academic years across four semesters.
The curriculum carries 60 credits:
The first year is mainly coursework-based. The third semester combines electives with project work, while the final semester centers on thesis research.
| Semester | Main Courses | Credits |
|---|---|---|
| Year I, Part I | Advanced Solid Mechanics; Advanced Engineering Geology; Advanced Soil Mechanics; Advanced Rock Mechanics | 16 |
| Year I, Part II | Advanced Foundation Engineering; Ground Exploration and Testing; Elective I; Elective II | 16 |
| Year II, Part I | Elective III; Elective IV; Project | 12 |
| Year II, Part II | Thesis | 16 |
The first semester contains four compulsory 4-credit courses.
Advanced Solid Mechanics provides a mechanics foundation for later geotechnical analysis.
Its academic content includes stress and strain concepts, constitutive relationships, elasticity, anisotropic and orthotropic behaviour, torsion, and plasticity. The course also addresses yield criteria including Tresca, Von Mises, Mohr-Coulomb, and Drucker-Prager formulations.
For geotechnical study, these concepts are relevant to understanding how materials respond under loading and how elastic and plastic behaviour can be represented analytically.
Engineering geology forms the geological base of geotechnical engineering.
Its position in the first semester reflects the need to understand geological conditions alongside engineering mechanics. Ground conditions, rock formations, geological structures, and related site characteristics influence foundation, slope, excavation, and underground engineering decisions.
Advanced Soil Mechanics extends the soil-mechanics foundation established during undergraduate Civil Engineering study.
It forms one of the central courses of the program and supports later work in foundations, ground improvement, seepage, unsaturated soils, earth structures, and earthquake-related geotechnical problems.
Rock mechanics provides the parallel study of rock behaviour.
The course supports the wider curriculum in areas such as rock slopes, underground excavation, tunneling, mountain engineering, and geotechnical construction involving rock masses.
The second semester contains two compulsory courses and two electives.
Foundation engineering is a core part of geotechnical practice and postgraduate study.
The course builds on advanced soil mechanics and mechanics studied during the first semester and develops foundation-related engineering at a higher level.
Ground Exploration and Testing focuses on the investigation of subsurface conditions.
The subject is particularly important because geotechnical design depends on understanding actual ground conditions rather than relying only on analytical assumptions.
At Pulchowk Campus, Civil Engineering facilities include geotechnical and transportation laboratories, while the Central Material Testing Laboratory includes a dedicated geotechnical testing section. This provides a broader technical environment for soil and ground-related academic work.
Students may select from:
These options focus on ground engineering and soil behaviour.
Geo-synthetics introduces materials used in geotechnical applications. Ground Improvement Techniques concentrates on methods for modifying or improving ground conditions. Seepage Problems in Soil addresses the movement of water through soil and associated engineering concerns.
Options include:
This group broadens the program beyond conventional foundation and soil study.
Mountain Risk Engineering addresses engineering issues connected with mountainous terrain and hazards. Geographical Information System adds a spatial and mapping dimension, while Rock Slope Engineering concentrates on the behaviour and engineering of rock slopes.
The third semester contains two electives and a 4-credit project.
Students may choose from:
Earth Dams and Embankments extends geotechnical study into major earth structures. Advanced Numerical Methods introduces computational approaches to engineering analysis.
Geotechnical Earthquake Engineering brings seismic loading into the study of soils, foundations, slopes, and earth structures. Relevant areas include seismic hazard assessment, soil dynamics, ground response, soil-structure interaction, liquefaction, slope stability, and seismic behaviour of foundations and earth structures.
Options include:
Underground Excavation and Tunneling connects geotechnical and rock engineering with underground construction.
Soil Mechanics for Unsaturated Soil extends conventional soil-mechanics study beyond fully saturated conditions and provides a more specialized route within the final taught semester.
The third semester includes a 4-credit project of approximately three months of full-time work.
Project themes may involve:
The project provides an opportunity to move from classroom study into a defined geotechnical engineering problem before beginning the final thesis.
Depending on the topic, the work can involve field conditions, laboratory study, analytical methods, numerical approaches, case studies, or institutional problems.
The fourth semester consists of a 16-credit thesis.
Although formally placed in the final semester, thesis work begins from the start of the third semester and may be connected with the project. Students may carry out thesis research with one or more supervisors.
This arrangement creates continuity between the project and the final research stage.
Possible thesis directions can arise from the subject areas represented in the curriculum, including soil mechanics, foundation engineering, rock mechanics, slopes, ground improvement, seepage, geotechnical hazards, numerical analysis, underground construction, earth structures, and earthquake geotechnics.
Core and elective courses generally carry 4 credits each.
The assessment structure for the listed taught courses is:
Final examinations for these courses are three hours.
The third-semester project carries 100 marks without a separate final written examination. The 16-credit thesis is also assessed for 100 marks.
The program therefore combines coursework, formal examinations, applied project work, and research assessment.
Across core and elective study, students encounter:
The curriculum gives students a common advanced geotechnical foundation while allowing specialization through four electives.
Through coursework, project work, testing, analysis, and thesis research, students may develop abilities related to:
The depth of individual skills depends on elective choices, project work, thesis topic, and academic engagement.
Geo-Technical Engineering is part of Pulchowk Campus's wider Civil Engineering postgraduate portfolio.
Other Civil Engineering master's programs cover Structural Engineering, Environmental Engineering, Water Resources Engineering, Transportation Engineering, Disaster Risk Engineering and Management, Construction Engineering and Management, and Hydropower Engineering.
These are separate postgraduate qualifications, but their presence places geotechnical study within a broader Civil Engineering research and teaching environment.
The campus also maintains Civil Engineering laboratory facilities related to structures, hydraulics, geotechnical and transportation work, construction materials, surveying, and water supply and environmental engineering.
The MSc in Geo-Technical Engineering is intended for Civil Engineering graduates seeking advanced study in soil, rock, foundations, ground investigation, slopes, earth structures, and subsurface engineering.
It may be particularly relevant to students interested in combining:
The program is research-oriented in its later stages, so students should be prepared for both advanced coursework and independent investigation.
Applicants must hold a BE in Civil Engineering.
The program runs for two academic years across four semesters.
The complete curriculum carries 60 credits.
The first semester includes Advanced Solid Mechanics, Advanced Engineering Geology, Advanced Soil Mechanics, and Advanced Rock Mechanics.
Yes. Students take four electives covering areas such as geosynthetics, ground improvement, mountain risk, GIS, rock slopes, earth dams, numerical methods, earthquake geotechnics, tunneling, and unsaturated soils.
Yes. The third semester contains a 4-credit project of approximately three months of full-time work.
Yes. The fourth semester contains a 16-credit thesis, with thesis work beginning from the start of the third semester.
The degree awarded is MSc in Geo-technical Engineering (Civil Engineering).