BSc Engineering (Hons) in
Electrical & Electronic Engineering
The BSc Engineering (Hons) in Electrical and Electronic Engineering at SLIIT equips students with the knowledge and skills to design, develop, and manage cutting-edge electrical and electronic systems. Covering areas such as power systems, electronics, telecommunications, automation, and embedded systems, the programme blends strong theoretical foundations with practical experience. Through industry collaborations, research opportunities, and hands-on training, graduates are prepared to lead innovation and sustainability in the dynamic field of electrical and electronic engineering.
Awarding University
This recognized academic programme is awarded by SLIIT under the Faculty of Engineering.
Ensures globally accepted academic standards, preparing students with practical skills aligned to current industry needs and expectations.
Accreditation
Important date
02
2025Open Day-2025a
Why & What..?
The SLIIT’s Electrical and Electronic Engineering (EEE) degree programme because it offers a comprehensive, industry-relevant curriculum, modern facilities, and strong career prospects. SLIIT’s EEE degree is recognized by local and international accrediting bodies, ensuring that graduates meet global industry standards. The programme provides a strong foundation in electrical and electronic engineering, covering key areas such as power systems, electronics, telecommunications, automation, and renewable energy. SLIIT has modern laboratories, advanced research facilities, and hands-on learning opportunities, allowing students to apply theoretical concepts in real-world settings.
Students learn from highly qualified lecturers and industry experts, with opportunities to engage in research projects and innovative engineering solutions. SLIIT collaborates with leading engineering companies, offering internships, industry visits, and networking opportunities, enhancing employability. Graduates can pursue careers in power generation, telecommunications, automation, robotics, and more, or even pursue postgraduate studies locally or internationally. With world-class education, hands-on training, and excellent career pathways, SLIIT’s EEE degree is a top choice for aspiring engineers looking to excel in the field.
The SLIIT Electrical and Electronic Engineering (EEE) degree programme is designed to produce graduates equipped with the technical expertise and problem-solving skills required for modern engineering. The programme includes:
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Core Subjects: Covers fundamental and advanced concepts in electrical, electronic, and communication systems.
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Specialization Areas: Students can focus on power systems, renewable energy, embedded systems, artificial intelligence, and robotics.
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Industry-Oriented Research Projects: Engage in research projects during the third and final years to enhance technical expertise and problem-solving abilities.
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Industrial Training: Six months of hands-on industrial training (three months each after the second and third years) to gain practical experience in real-world engineering practices.
The programme emphasizes the development of an innovative mindset, equipping students to apply engineering principles to real-world challenges. With a balanced mix of theoretical learning and practical experience, graduates will be well-prepared for successful careers in electrical and electronic engineering, contributing to advancements in various industries.
Upon successful completion of the programme, the graduates will be able to,
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Apply knowledge of mathematics, basic sciences, and engineering fundamentals to analyze complex problems in electrical and electronic engineering.
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Identify, formulate, research literature, conduct investigations and solve complex electrical and electronic engineering problems, reaching valid conclusions.
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Design electrical and electronic systems, components, or processes to meet desired needs within realistic constraints.
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Investigate complex electrical and electronic engineering problems using research-based knowledge and research methods, including design of experiments, analysis and interpretation of data.
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Create, select, and apply appropriate techniques, resources, and modern engineering and IT tools necessary to complete complex electrical and electronic engineering activities.
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Apply reasoning informed by contextual knowledge to assess the impacts of engineering solutions in a global, economic, environmental, societal, legal, cultural, and health and safety context.
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Demonstrate broad knowledge of sustainable development concepts and practices required for dealing with issues related to professional engineering practice.
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Demonstrate broad knowledge of ethical principles and commitment to professional ethics, responsibilities, and norms of engineering practice.
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Function effectively within a multidisciplinary and multicultural team as a team member, manager, or team leader.
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Communicate effectively on complex engineering activities with a wide variety of audiences by means of appropriate designs, plans, reports, presentations and instructions.
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Demonstrate broad knowledge of management and business practices, including financial management, risk and change management.
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Engage in independent and life-long learning through continually extending and building on professional understanding and skills acquired during undergraduate learning.
Programme Structure
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First Year
Covers basic sciences, maths, mechanics, programming, design tools, sustainability, and humanities to build core engineering foundations.
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Second Year
Explores circuits, electronics, signals, thermodynamics, programming, and includes a 12-week industrial training for hands-on experience.
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Third Year
Focuses on power systems, electromagnetics, control, design projects, research, and critical thinking through advanced engineering and humanities courses.
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Fourth Year
Offers electives in power, robotics, AI; includes economics, management, and a capstone project solving real-world engineering problems
| Semester 1 | ||
|---|---|---|
| Code | Module | Credit |
| CE1020 | Statics and Hydrostatics | 3 |
| EC1022 | Electrical Systems | 3 |
| MA1111 | Engineering Mathematics I | 4 |
| ME1050 | Introduction to Engineering Design and Communication | 4 |
| EL1203 | English Language Skills I | 3 |
| CE1913 | Introduction to Sustainable Engineering | 2 |
| Semester 2 | ||
|---|---|---|
| Code | Module | Credit |
| EC1450 | Fundamentals of Programming | 3 |
| MA1121 | Engineering Mathematics II | 3 |
| MT1010 | Engineering Materials | 4 |
| ME1031 | Engineering Skills Development | 3 |
| ME1060 | Dynamics | 3 |
| EL1213 | English Language Skills II | 2 |
| Semester 1 | ||
|---|---|---|
| Code | Module | Credit |
| ME2820 | Fluid Mechanics and Thermodynamics | 3 |
| EC2093 | Foundations of Digital Design | 3 |
| EC2203 | Electrical Circuits | 3 |
| EC2493 | Object Oriented Programming | 3 |
| EC2132 | Microcomputers | 3 |
| MA2111 | Engineering Mathematics lll | 3 |
| Semester 2 | ||
|---|---|---|
| Code | Module | Credit |
| EC2140 | Analogue Electronics | 3 |
| EC2113 | Signals and Systems | 3 |
| EC2220 | Electrical Machines and Power Systems | 3 |
| EC2731 | Data Structures and Algorithms | 3 |
| EC2403 | Computer Networks | 3 |
| MA2121 | Engineering Mathematics IV | 3 |
| - | Humanities l | 2 |
| EC2922 | Industrial Training l | 3 |
| Semester 1 | ||
|---|---|---|
| Code | Module | Credit |
| EC3250 | Electrical Measurements and Instrumentation | 3 |
| EC3613 | Communication Engineering I | 3 |
| EC3503 | Control Systems | 3 |
| EC3013 | Electronic Design | 3 |
| EC3193 | Electrical Machines and Stability | 3 |
| EC3550 | Robotics and Controls | 3 |
| Semester 2 | ||
|---|---|---|
| Code | Module | Credit |
| ME3260 | Industrial Project Management | 2 |
| ME3250 | Engineering Economics | 2 |
| EC3203 | Engineering Electromagnetics | 3 |
| EC3103 | Advanced Digital Design | 3 |
| EC3033 | Power Electronics | 3 |
| EC3213 | Power Systems Analysis | 3 |
| - | Humanities II | 3 |
| EC3902 | Industrial Training II | 3 |
| Semester 1 | ||
|---|---|---|
| Code | Module | Credit |
| EC4830 | Comprehensive Design Project | 3 |
| EC4840 | Individual Research Project | 2 |
| EC4920 | Legal Environment in Electrical Engineering | 2 |
| EC4930 | Entrepreneurship Skills Development | 1 |
| ME4112 | Industrial Management and Marketing | 3 |
| Elective(8) | ||
| EC4650 | Communication Engineering II | 3 |
| EC4440 | Data Communication and Networking | 3 |
| EC4710 | Embedded Systems Programming | 3 |
| EC4483 | Computer Vision and Image Processing | 3 |
| EC4553 | Digital Signal Processing | 3 |
| EC4530 | Machine Learning | 3 |
| EC4213 | Electrical Power Transmission and Distribution | 3 |
| EC4261 | High Voltage Engineering | 3 |
| Semester 2 | ||
|---|---|---|
| Code | Module | Credit |
| EC4830 | Comprehensive Design Project | 3 |
| EC4840 | Individual Research Project | 4 |
| Elective(10) | ||
| EC4220 | Power Systems Protection | 3 |
| EC4253 | Renewable Energy Systems | 3 |
| EC4270 | Electrical Installations | 3 |
| EC4280 | Power Electronic Applications and Control | 3 |
| EC4450 | GPU programming | 3 |
| EC4470 | Network Management and Performance Evaluation | 3 |
| EC4673 | Wireless Communications | 3 |
| EC4540 | Pattern Recognition | 3 |
| EC4720 | Real Time Embedded Operating Systems | 3 |
| EC4560 | Automation & Process Control | 3 |
More about the program
Local A/Ls: Minimum of 2 "C" passes & 1 "S" pass in the Physical Science stream (Covering Combined Mathematics, Physics & Chemistry).
Cambridge/Edexcel A/Ls: Minimum of 2 "B" passes & 1 "C" pass (Covering Mathematics, Physics & Chemistry).
Applicants should also pass the Aptitude Test conducted by SLIIT.
- Electronic
- Telecommunication
- Electrical Power
- Data Communication
- Networking
A semester fee of Rs. 435,000 will have to be paid to SLIIT for a period of 4 years. (Please Note that an year comprises of 2 Semesters)
SLIIT’s Electrical and Electronic Engineering degree offers a cutting-edge curriculum, hands-on training, and industry exposure, preparing graduates for careers in power systems, telecommunications, automation, and other related fields. With modern labs, expert faculty, and strong industry ties, students gain practical skills and global recognition, ensuring a successful future in engineering.
FAQs
Graduates of SLIIT’s Electrical and Electronic Engineering program have diverse career opportunities across multiple industries. This degree provides them with strong technical expertise and problem-solving skills, preparing them for high-demand roles in today’s technology-driven world.
1. Power and Energy Sector
•Electrical Engineer
Power Systems Engineer
Renewable Energy Specialist
2. Telecommunications
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Network Engineer
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Telecommunications Engineer
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Signal Processing Engineer
3. Robotics and Automation
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Robotics Engineer
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Automation Engineer
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Control Systems Engineer
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Embedded Systems Engineer
4. AI, Machine Learning, and IoT
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AI and Machine Learning Engineer
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IoT (Internet of Things) Engineer
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Smart Systems Developer
5. Academic and Research Opportunities
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University Lecturer
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Research Scientist (AI, Robotics, Power Systems, etc.)
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PhD or Postdoctoral Researcher in Electrical and Electronics Engineering
With SLIIT’s strong industry partnerships and research collaborations, graduates can pursue entrepreneurship by launching startups in various electrical and electronic engineering fields, including renewable energy, embedded systems development, and automation.
There are seven senior staff members including two professors. Four confirmed lecturers and seven assistant lecturers. Additionally, there are four senior lectures on contract basis, one out of them is a senior professor from university of Peradeniya.
There are eight fully furnished laboratories in the department of Electrical and Electronic Engineering namely Digital Electronics Laboratory, Analogue Electronics Laboratory, Communication Laboratory, Embedded Design Laboratory, Electrical Protection Laboratory, Machines and Power Electronics Laboratory, Networking Laboratory and D.I.Y. Laboratory. Recently, a new lab, Switchgear Laboratory was opened in collaboration with IPD, Colombo. The laboratories are continuously updated to incorporate the latest technologies and methodologies, ensuring that students are well-prepared for the challenges of the engineering profession.