The MSc in Disaster Risk Management at Pulchowk Campus is presented in the current IOE curriculum under the formal title MSc in Disaster Risk Engineering and Management. It is a two-year postgraduate Civil Engineering program under the Institute of Engineering (IOE), Tribhuvan University.
The program combines engineering approaches to natural hazards with disaster risk reduction, preparedness, response, recovery, resilience, technology, planning, and management. Students begin with core study in disaster risk reduction, landslides, floods, and earthquakes before moving into post-disaster assessment, emerging technologies, specialized electives, project work, and thesis research.
Eligibility is specifically defined for graduates with a BE in Civil Engineering. The degree awarded is MSc in Disaster Risk Engineering and Management (Civil Engineering).
| Field | Details |
|---|---|
| Official course title | MSc in Disaster Risk Engineering and Management |
| 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 |
| Degree award | MSc in Disaster Risk Engineering and Management (Civil Engineering) |
The program approaches disaster risk through an engineering and management framework.
Students study major hazards such as landslides, floods, and earthquakes, but the curriculum extends beyond hazard mechanics. It also addresses vulnerability, risk assessment, governance, emergency response, reconstruction, climate adaptation, financing, urban disaster risk, cultural heritage, infrastructure monitoring, ecosystem-based approaches, and integrated disaster planning.
Technology is another important part of the curriculum. GIS, remote sensing, early warning systems, modelling, drones, artificial intelligence, machine learning, augmented reality, and other emerging tools appear across core and elective study.
At Pulchowk Campus – Institute of Engineering (IOE), the program belongs to the Civil Engineering postgraduate environment. The campus operates under Tribhuvan University, with postgraduate admission and academic administration following the TU/IOE framework.
The curriculum carries 60 credits across four semesters.
| Semester | Main academic components | Credits |
|---|---|---|
| Year I, Part I | Four core courses | 16 |
| Year I, Part II | Two core courses and two electives | 16 |
| Year II, Part I | Two electives and project | 12 |
| Year II, Part II | Thesis | 16 |
The structure moves from fundamental disaster-risk engineering into specialization, applied project work, and independent research.
The first semester establishes the technical base of the program.
Students complete:
Each course carries 4 credits.
This course introduces the concepts, terminology, development, and governance of disaster risk reduction.
Students examine the disaster-management cycle, including prevention, mitigation, preparedness, response, and recovery. The course also covers international and national frameworks, disaster-management arrangements in Nepal, hazard and vulnerability assessment, early warning systems, GIS, remote sensing, and the integration of disaster risk management into development planning.
Its scope extends across infrastructure, settlements, health, water and sanitation, agriculture, biodiversity, tourism, energy, and other sectors.
This subject focuses on landslide mechanisms, investigation, hazard assessment, vulnerability, monitoring, early warning, and mitigation.
Academic work includes slope-stability analysis, landslide inventory and hazard mapping, rainfall- and earthquake-induced landslides, monitoring systems, bioengineering, drainage, retaining structures, slope reinforcement, and risk mapping.
Nepal's geological and geomorphological setting forms part of the course context.
Flood Risk Engineering and Management combines hydrology, hydraulics, flood mapping, forecasting, preparedness, mitigation, and recovery.
Students encounter rainfall-runoff processes, monsoon flooding, glacier lake outburst floods, landslide dam outburst floods, river behaviour, flood-frequency analysis, hydraulic modelling, hazard mapping, and measures for reducing flood risk.
The course connects technical flood analysis with warning systems, preparedness, recovery planning, and implementation.
The earthquake component covers seismology, structural dynamics, seismic hazards, structural behaviour, and risk reduction.
Students study earthquake mechanisms, seismic waves, earthquake measurement, vibration analysis, structural response, hazard assessment, and mitigation approaches. The course brings conventional earthquake engineering into the wider disaster-risk framework.
The second semester combines two required courses with Elective I and Elective II.
The core courses are:
This course moves from pre-disaster risk reduction into response, recovery, and reconstruction.
Topics include humanitarian assistance, emergency response, recovery planning, rapid needs assessment, temporary shelter, critical infrastructure, logistics, coordination mechanisms, community-based risk reduction, monitoring and evaluation, and post-disaster reconstruction.
Students also examine lessons from earthquake response and recovery, including post-disaster assessment and planning.
This course introduces technological tools used for disaster assessment, mitigation, monitoring, and response.
Major areas include:
The course gives the program a substantial geospatial and technology-oriented component.
Students may choose from:
These electives allow students to move toward multi-hazard analysis, climate-related risk, mountain environments, or the interaction between natural hazards and technological systems.
Climate Change Adaptation and Disaster Risk Reduction, for example, addresses climate science, climate impacts, adaptation, structural and non-structural risk-reduction measures, resilient infrastructure, risk analysis, and project management for resilience.
Options include:
This group broadens the course into humanitarian response, urban resilience, financial planning, and systematic vulnerability assessment.
Urban Disaster Risk Engineering and Management considers hazard mapping, exposure, vulnerability, seismic risk, risk-sensitive land-use planning, resilient infrastructure, emergency management, climate-responsive planning, and urban governance.
Disaster Risk Financing examines how financial resources are planned, accessed, allocated, and managed for climate and disaster risks, including budgeting, financial instruments, insurance mechanisms, and risk finance.
The third semester consists of:
Options include:
These courses allow students to concentrate on specialized engineering and disaster-management applications.
Structural Health Monitoring, for example, covers sensors, monitoring strategies, damage-identification techniques, data acquisition, predictive analysis, and the use of structural monitoring in disaster-risk management.
Disaster Risk Management of Cultural Heritage covers hazard and vulnerability assessment, emergency preparedness, mitigation, recovery, reconstruction, and the protection of heritage sites.
Options include:
The fourth elective group brings social, environmental, planning, and anticipatory dimensions into the engineering curriculum.
Ecosystem-based Disaster Risk Management examines ecological resilience, nature-based solutions, soil conservation, flood and landslide management, integrated water-resource management, policy frameworks, community participation, and GIS-supported spatial planning.
Integrated Disaster Risk Planning and Management addresses strategic planning, stakeholder coordination, resource allocation, mitigation, resilience, GIS, remote sensing, early warning, and climate adaptation.
The third semester includes a 4-credit project of approximately three months of full-time work.
Possible project approaches include:
The project allows students to apply taught concepts to a focused disaster-risk problem before progressing to the thesis.
The fourth semester is devoted to a 16-credit thesis.
Although formally placed in the fourth semester, thesis work begins from the start of the third semester and may be associated with the project. Students may undertake research with one or more supervisors.
The thesis provides space for deeper investigation of a disaster-risk engineering or management problem using analytical, field-based, experimental, case-study, technological, or other appropriate research approaches.
This project-to-thesis progression makes research a central part of the degree rather than an isolated final requirement.
Most taught courses carry 4 credits and use the following assessment structure:
The final written examination for these courses is three hours.
Within individual courses, internal assessment can include minor tests and assignments. The project carries 100 marks without a separate final written examination, while the thesis is also assessed for 100 marks.
Eligibility: BE in Civil Engineering.
Admission follows the Institute of Engineering postgraduate framework. Candidates who meet the program-specific academic requirement and satisfy the applicable IOE postgraduate entrance process become eligible to proceed through the Pulchowk Campus admission procedure.
The eligibility requirement places this program specifically within postgraduate Civil Engineering rather than as a general disaster-management degree open to unrelated academic backgrounds.
The curriculum covers a broad combination of engineering, planning, technology, and management, including:
This range gives the program a clear engineering base while recognizing that disaster risk also involves institutions, communities, finance, environment, technology, and planning.
The MSc in Disaster Risk Engineering and Management is intended for Civil Engineering graduates seeking advanced study in the engineering and management of disaster risk.
It may be particularly relevant to students interested in combining hazard analysis with areas such as resilient infrastructure, geospatial technologies, emergency response, climate adaptation, structural safety, risk planning, and applied research.
The course is research-oriented in its later stages, so students should also be prepared for project work and a substantial thesis.
The current curriculum uses the title MSc in Disaster Risk Engineering and Management.
The program runs for two years across four semesters.
The complete curriculum carries 60 credits.
Applicants must hold a BE in Civil Engineering.
Yes. Students select four electives across the second and third semesters.
Yes. The third semester contains a 4-credit project of approximately three months of full-time work.
Yes. The fourth semester includes a 16-credit thesis. Thesis work begins from the start of the third semester.
Yes. GIS, remote sensing, geospatial analysis, terrain analysis, disaster mapping, and related technologies are included in the curriculum.
The degree awarded is MSc in Disaster Risk Engineering and Management (Civil Engineering).
