BACHELOR OF SCIENCE WITH HONOURS IN ENERGY ENGINEERING

The Bachelor of Science in Energy Engineering at the University of Rwanda's College of Science and Technology equips students with the technical expertise to address one of the most critical challenges facing Rwanda and the region: building a sustainable, reliable, and affordable energy future. The programme prepares engineers to design, analyse, and manage energy systems across conventional and renewable sources, with a curriculum grounded in both theoretical foundations and practical application.
The programme has been reviewed and benchmarked with the support of European partner universities under the GREATER project (Growing Rwanda Energy Awareness Through highER education), ensuring that its content, learning outcomes, and delivery align with international best practices and the evolving needs of the energy sector.

Programme Aim
The programme aims to produce graduates capable of advancing energy technology, improving energy access, and supporting Rwanda's industrial transformation through sound engineering practice. Students develop the skills needed to plan, operate, and maintain energy systems that meet the demands of a rapidly growing economy while addressing environmental and social responsibilities.

Programme Review and International Benchmarking
The curriculum of the Bachelor of Science in Energy Engineering has undergone a comprehensive review process conducted in collaboration with European universities participating in the GREATER project. This review ensured that the programme:
• Meets international standards for energy engineering education
• Incorporates contemporary content and emerging technologies in the energy field
• Aligns learning outcomes with labour market demands in Rwanda and the wider region
• Benefits from the expertise and academic experience of European partner institutions
European Partner Universities
The following European institutions contributed to the review and development of the programme:
Italy:
• University of Parma (Università di Parma) — Project Coordinator
• National Research Council (Consiglio Nazionale delle Ricerche, CNR-IMEM)
Germany:
• Hochschule Niederrhein (University of Applied Sciences)
• Hochschule Bonn-Rhein-Sieg (University of Applied Sciences)
These institutions collaborated with four Rwandan higher learning institutions — the University of Rwanda, INES-Ruhengeri, Rwanda Polytechnic, and the University of Technology and Arts of Byumba — to modernise renewable energy curricula and strengthen practical training in the energy sector.-6-8
This collaboration reflects the University of Rwanda's commitment to delivering engineering education of internationally recognised quality.

Expected Learning Outcomes
Upon successful completion of the programme, graduates will be able to:
• A1. Apply basic research, development, and practice principles relevant to mainstreaming energy technology
• A2. Utilise a range of modern tools for the development and analysis of energy technology systems
• A3. Manage time and plan work related to the organisation, implementation, operation, and maintenance of energy-based projects, including reporting
• A4. Identify and address key professional, safety, and ethical issues in modern energy technology
• A5. Formulate and analyse fundamental design solutions for energy technology across various contexts
• A6. Demonstrate professional, legal, and ethical engineering conduct
• A7. Assess the environmental and social impacts of energy engineering activities
• A8. Apply business and management practices, including finance, law, marketing, and quality management, relevant to energy engineering
• A9. Explain fundamental concepts, principles, and theories of energy engineering systems
• A10. Work within commercial and financial constraints that engineers encounter in practice





Programme Structure
The programme spans four years of full-time study, with each academic year comprising two semesters. The curriculum progresses from foundational engineering sciences in Year 1 through specialised energy engineering topics in Years 3 and 4.
Year 1: Engineering Foundations
Students build a common engineering foundation covering mathematics, physics, chemistry, engineering mechanics, engineering drawing and CAD, workshop technology, computer programming, and introductory electronics. These modules ensure a solid base for advanced study in energy systems.
Year 2: Core Energy Engineering
The second year introduces energy-specific topics including:
• Introduction to Energy Resources
• Fluid Mechanics and Material Science
• Mathematics for Engineers III & IV
• Electrical Power Engineering Fundamentals
• Fuel Science and Combustion
• Engineering Thermodynamics
• Bio-Energy Engineering
Students also gain proficiency in computational tools through MATLAB programming, essential for energy system modelling and analysis.
Year 3: Specialised Energy Systems
The third year deepens technical specialisation with modules such as:
• Design and Optimisation of Heat and Power Systems
• Solar Energy and Fuel Cells
• Transmission and Distribution of Energy
• Hydropower and Wind Energy
• Energy Efficiency & Management
• Entrepreneurship Development and Innovation
• Engineering Project Management
An industrial attachment provides students with direct exposure to professional practice in the energy sector.
Year 4: Advanced Topics and Capstone Project
The final year offers advanced modules and a substantial research project:
• Turbomachinery
• Energy Efficient Buildings
• Smart Grids and Distribution Power Systems
• Nuclear Energy
• Peat and Geothermal Energy
• Introduction to Petroleum Engineering
• Regulation of Energy Markets and Cost-Benefit Analysis
• Engineering Ethics & Professional Conduct
• Environmental Management
• Economics & Finance for Engineers
• Final Research Project
The capstone research project allows students to apply their accumulated knowledge to a real-world energy engineering problem under faculty supervision.

Assessment and Learning Approach
The programme employs a blend of lectures, tutorials, laboratory sessions, design projects, and self-directed study. Assessment typically combines continuous evaluation (assignments, practical reports, mini-projects, presentations, and tests) with end-of-semester examinations. The programme emphasises practical competence alongside theoretical understanding, reflecting the applied nature of energy engineering.

Career Opportunities
Graduates of the programme are prepared for engineering roles across Rwanda's expanding energy sector and beyond. Potential career paths include:
• Energy Systems Engineer — designing and optimising generation, transmission, and distribution systems
• Renewable Energy Specialist — developing solar, hydro, biomass, and wind energy projects
• Energy Analyst — conducting demand forecasting, feasibility studies, and policy analysis
• Project Manager — leading energy infrastructure projects from conception to commissioning
• Energy Efficiency Consultant — advising industrial and commercial clients on reducing consumption
• Regulatory and Policy Roles — working with institutions such as the Rwanda Utilities Regulatory Authority (RURA) and the Rwanda Energy Group (REG)
Rwanda's energy sector faces substantial growth demands, with limited high-energy industrial activity currently and long-term ambitions for industrial transformation requiring expanded, reliable supply. Graduates enter a field where skills are in active demand for national energy planning, off-grid electrification, and the integration of renewable sources.

Why Study Energy Engineering at UR-CST?
International Benchmarking through the GREATER Project. The programme's curriculum has been reviewed with the participation of four European universities under the GREATER project, ensuring it meets international standards and benefits from the collective expertise of European and Rwandan academics. This collaboration strengthens the programme's relevance, quality, and global outlook.
Regional Focus with Global Standards. The programme addresses the specific energy challenges of Eastern and Southern Africa while adhering to international engineering education standards. The College of Science and Technology hosts the African Centre of Excellence in Energy for Sustainable Development (ACE-ESD), a World Bank-funded initiative that strengthens research and training capacity in energy across the region.
Practical Orientation. The curriculum incorporates industrial attachment, design projects, laboratory work, and a substantial final-year research project, ensuring graduates are prepared for immediate professional contribution.
Addressing Real Challenges. Rwanda's energy system faces the need for diversification, baseload capacity, and expanded access. The programme directly supports national goals articulated in Vision 2050 by training engineers capable of developing and managing the country's evolving energy infrastructure.