This major is designed to cultivate a new generation of intellectuals and graduates equipped to tackle complex challenges such as the energy crisis, renewable energy adoption, global warming, climate change, and pollution. By transcending the limitations of traditional academic disciplines, this holistic educational approach is essential for addressing future energy security and environmental concerns on both local and global scales.

Upon successful completion of this major, students should be able to:

1. Apply knowledge of mathematics, science, technology, and engineering appropriate to the energy science and engineering discipline.
2. Design and conduct experimental investigations to acquire relevant information, as well as critically analyze and interpret data.
3. Design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability.
4. Work effectively as part of a focused or multi-disciplinary team.
5. Identify, formulate, and solve energy and energy-related environmental problems by pursuing the development of innovative technologies that can generate clean and sustainable energy to address energy scarcity and combat pollution and climate change.
6. Be conversant with the professional, social, ethical, health, and safety responsibilities of a competent engineer.
7. Communicate effectively in both written and oral forms.
8. Address energy supply, demand, and security issues and their associated environmental impacts in a global and societal context.
9. Stay abreast of contemporary issues.
10. Recognize the need for, and engage in, lifelong learning.
11. Use mathematical or experimental tools and techniques relevant to the energy and energy-related environmental disciplines, along with an understanding of their processes and limitations.
12. Use computer/IT tools relevant to the energy and energy-related environmental disciplines, along with an understanding of their processes and limitations.

Major core courses include:

• Mathematical Methods for Engineering
• Electromagnetic Principles for Energy Engineers
• Chemical Sciences for Energy and Environmental Engineers
• Introduction to Energy and Environmental Data Analysis
• Engineering Thermofluids I
• Fundamentals of Environmental Engineering
• Energy and Environmental Policy
• Climate Change and Adaptation Strategies
• Engineering Thermofluids II
• Power Plant Engineering
• Energy Efficiency for Buildings
• Sustainable and Renewable Energy
• Engineers in Society
• Energy and Environmental Engineering Laboratory
• Environmental Impact Assessment for Sustainable Development
• Sustainable Engineering Systems: Modelling and Analysis
• Waste and Wastewater Treatment Engineering
• Project Management

Major electives include:

• Data Mining
• Nanotechnology in Energy Conversion and Storage: Concepts and Creative Science
• Bioenergy Engineering: Principles and Applications
• Energy Catalysis and Reaction Engineering
• Energy and Carbon Auditing
• Solar Energy Engineering
• Wind and Marine Energy
• Electrical Energy Conversion
• Materials Engineering for Energy Applications
• Gas Engineering
• Chemical Separations for Energy and Environmental Applications
• Atmospheric Science - An Introductory Survey
• Urban Sustainability
• Design of Smart Cities and Sustainable Building
• Water and Water Resource Engineering

Normative 4-year degree students are required to fulfil the internship/consultancy project/research project requirement in accordance with the requirements stipulated by the respective program.

*Course offerings are subject to availability and updates.