The MSc in Structural Engineering is a two-year postgraduate Civil Engineering program offered at Pulchowk Campus under the Institute of Engineering (IOE), Tribhuvan University.
The program develops advanced study in structural mechanics, structural analysis, structural dynamics, concrete technology and design, earthquake-resistant design, laboratory investigation, and specialized structural engineering topics. Its curriculum carries 60 credits across four semesters and combines core courses, four electives, a project, and a 16-credit thesis.
Students begin with advanced analytical and design-oriented subjects, move into earthquake-resistant design and laboratory work, and then use electives to focus on areas such as structural optimization, finite element methods, performance-based design, structural control, rehabilitation, bridge design, industrial structures, and structural health monitoring.
| Field | Details |
|---|---|
| Course | MSc in Structural 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 |
| Main components | Core courses, structural laboratory, electives, project, thesis |
| Degree award | MSc in Structural Engineering (Civil Engineering) |
Structural Engineering is concerned with understanding how structures behave under different forms of loading and how that understanding is applied to analysis, design, assessment, and structural performance.
At postgraduate level, the subject moves beyond the broad structural foundation of undergraduate Civil Engineering. Students work with advanced mechanics, structural analysis, dynamic behaviour, concrete design, earthquake-resistant design, computational and analytical techniques, laboratory investigation, and specialized design problems.
The program at Pulchowk Campus – Institute of Engineering (IOE) is structured so that students first build a common advanced foundation. The later semesters provide greater freedom through elective courses, project work, and thesis research.
The program operates within the academic framework of the Institute of Engineering and Tribhuvan University.
Eligibility: BE in Civil Engineering.
The eligibility requirement places the program directly within advanced Civil Engineering study. Students enter the course after completing a Civil Engineering bachelor's degree and proceed through the applicable IOE postgraduate admission framework.
Admission operates through the Institute of Engineering postgraduate entrance and campus admission process under the TU/IOE academic system.
The MSc in Structural Engineering runs for two academic years across four semesters.
The complete curriculum carries 60 credits:
The first year is mainly coursework-based. The second year shifts toward specialization, project work, and independent research.
| Semester | Main Courses | Credits |
|---|---|---|
| Year I, Part I | Solid Mechanics; Advanced Structural Analysis; Structural Dynamics; Advanced Concrete Technology and Design | 16 |
| Year I, Part II | Earthquake Resistant Design of Structures; Structural Engineering Laboratory; Elective I; Elective II | 16 |
| Year II, Part I | Elective III; Elective IV; Project | 12 |
| Year II, Part II | Thesis | 16 |
This sequence gives the program a clear progression from advanced structural fundamentals to specialized study and research.
The first semester consists of four compulsory courses, each carrying 4 credits.
Solid Mechanics establishes an advanced mechanics base for structural study.
It supports the analytical understanding needed for later subjects involving structural behaviour, dynamics, non-linear analysis, structural control, and design. For students moving from undergraduate Civil Engineering into structural specialization, this course provides an important theoretical foundation.
Advanced Structural Analysis moves beyond the general structural-analysis methods studied at bachelor level.
The course occupies a central position in the first semester because advanced structural design depends on understanding the response of structural systems under different loading and analytical conditions.
It also provides a base for later electives such as Finite Element Method, Non-linear Analysis of Structures, and Performance Based Design.
Structural Dynamics introduces the behaviour of structures when loading and response vary with time.
This subject is particularly relevant to the later study of earthquake-resistant design, structural control, base isolation, performance-based approaches, and other dynamic structural problems.
Its placement before Earthquake Resistant Design of Structures gives students the analytical background needed for more specialized seismic study.
This course combines advanced concrete-related study with structural design.
Concrete remains an important structural material within the curriculum, and the course provides a more specialized level of study before students move into earthquake-resistant design and advanced structural electives.
The second semester combines two compulsory courses with two electives.
Earthquake Resistant Design of Structures connects structural analysis and dynamics with seismic design.
The course provides a dedicated part of the curriculum for studying structures under earthquake effects rather than treating seismic considerations only as a minor topic within general structural design.
Its position after Structural Dynamics creates a logical progression from structural response to earthquake-oriented design.
Structural Engineering Laboratory provides a practical and experimental component within the program.
The inclusion of a full 4-credit laboratory course distinguishes the program from a postgraduate structure based only on lectures and written analysis.
Laboratory work supports the study of structural behaviour through testing, observation, measurements, and interpretation of structural response.
Pulchowk Campus also has Civil Engineering laboratory facilities supporting structural and materials-related academic work within the wider departmental environment.
Students can select from:
These options allow different directions within structural engineering.
Computer Aided Design and Structural Optimization connects structural work with computational and optimization approaches. Earthquake Engineering and Risk Assessment extends seismic study, while Theory of Shells provides a specialized structural-analysis route.
Construction Technology and Management adds a construction-oriented dimension to the elective group.
Options include:
This group introduces computational, performance-oriented, seismic, and intelligent-system approaches.
Finite Element Method provides an important numerical route for structural analysis. Performance Based Design focuses attention on structural performance rather than relying only on conventional prescriptive approaches.
Seismic Resistant Design of Masonry addresses masonry behaviour in earthquake conditions, while Artificial Intelligence and Expert Systems introduces computational methods within the structural-engineering context.
The third semester contains Elective III, Elective IV, and a 4-credit project.
Students can choose from:
These courses move into specialized structural behaviour and intervention.
Non-linear Analysis of Structures deals with structural response beyond simplified linear assumptions. Structural Control and Base Isolation focuses on methods for modifying structural response, particularly under dynamic and seismic loading.
Repair and Rehabilitation of Structures addresses existing structures rather than only new design, while Design of Foundation brings foundation-related design into the structural specialization.
Options include:
This elective group allows students to focus on specific structural types or monitoring approaches.
Industrial structures and bridges involve specialized design conditions. Temporary structures introduce a different class of engineering problem where structural requirements apply for a limited construction or operational period.
Structural Health Monitoring focuses on assessing structural condition through monitoring and observation.
The third semester includes a 4-credit project.
The project is approximately three months of full-time work and may take different forms, including:
This flexibility allows the project to respond to the nature of the engineering problem rather than forcing every student into one research method.
The project also provides a bridge between taught courses and the larger thesis requirement.
The fourth semester consists of a 16-credit thesis.
Although formally placed in the final semester, thesis work begins from the beginning of the third semester. It may also be associated with the project.
Students can undertake thesis research with one or more supervisors.
The thesis gives students an opportunity to investigate a structural engineering problem in greater depth through analytical, computational, experimental, field-based, case-study, or other suitable approaches.
The progression from electives and project work into the thesis makes research a substantial part of the second year.
The core and elective courses generally carry 4 credits each.
Their assessment pattern is:
The final examinations for the listed taught courses are three hours.
The third-semester project carries 100 marks without a separate final written examination. The fourth-semester thesis also carries 100 marks.
This gives the program a mixed assessment structure involving coursework, formal examinations, laboratory study, project work, and research.
Across the curriculum, students encounter areas such as:
The four-elective structure allows students to shape part of the degree around specific structural interests while maintaining a common advanced foundation.
Through theoretical courses, laboratory work, electives, project activity, and thesis research, students may develop abilities related to:
The depth of these abilities depends on elective choices, project work, thesis topic, and individual academic engagement.
The MSc in Structural Engineering is intended for Civil Engineering graduates who want to move into advanced study of structural behaviour, analysis, design, seismic response, laboratory investigation, and research.
It may be particularly relevant to students interested in combining:
Students should also be prepared for a program in which the later stages become increasingly research-oriented, with project work beginning in the third semester and a substantial thesis forming the final academic component.
Applicants must hold a BE in Civil Engineering.
The program runs for two years across four semesters.
The complete curriculum carries 60 credits.
Yes. Structural Engineering Laboratory is a compulsory 4-credit course in the second semester.
Students complete four electives: two in the second semester and two in the third semester.
Electives cover structural optimization, earthquake engineering, finite element methods, performance-based design, masonry, artificial intelligence, non-linear analysis, structural control, rehabilitation, bridge design, industrial structures, structural health monitoring, and related areas.
Yes. The third semester includes a 4-credit project of approximately three months of full-time work.
Yes. The fourth semester contains a 16-credit thesis. Thesis work begins from the start of the third semester and may be connected with the project.
The degree awarded is MSc in Structural Engineering (Civil Engineering).
