Bachelor of Engineering in Electrical & Control Engineering

3 Years On Campus Bachelors Program

Technological University Dublin

Program Overview

The Bachelor of Engineering in Electrical & Control Engineering at Technological University Dublin is a three-year undergraduate engineering degree that prepares students to design, analyse, and manage modern electrical and automated systems. It is well suited to students interested in power engineering, automation, robotics, and industrial control, offering a strong balance of theoretical knowledge and hands-on practical experience aligned with real-world engineering environments.

Curriculum Structure

Year 1 — Engineering Foundations
In the first year, students develop a strong grounding in core engineering principles. The curriculum includes Engineering Mathematics, Electrical and Electronic Principles, Engineering Science, Introduction to Electrical Services Design, and Professional Development. Through laboratory work and practical sessions, students gain essential skills in circuit analysis, electrical systems, and technical problem solving.

Year 2 — Core Electrical and Control Engineering
Second year builds on the fundamentals with a focus on electrical power and control technologies. Students study Control and Automation Systems, Electrical Energy Systems, Digital Electronics, Engineering Computing, Instrumentation, and Industrial Computing. These modules develop the ability to analyse, design, and implement electrical and control systems used in industrial and commercial settings.

Year 3 — Advanced Systems and Engineering Project
In the final year, students explore advanced topics such as Sustainable Energy Systems, Control and Automation, Robotics and Industrial Electronics, Signals and Systems, and Engineering Management. A major Engineering Project forms the centrepiece of the year, requiring students to design, build, test, and present a comprehensive engineering solution, demonstrating professional-level competence and readiness for industry.

Focus areas:
Electrical power and energy systems • Control and automation engineering • Industrial electronics and robotics • Instrumentation and measurement • Digital and analogue electrical systems • Sustainable electrical technologies • Engineering project design

Learning outcomes:
Graduates will be able to apply engineering mathematics and science to analyse and design electrical and control systems, use modern engineering tools and computing environments, conduct experiments and interpret technical data, work effectively in multidisciplinary teams, and communicate engineering solutions clearly and professionally with ethical responsibility.

Professional alignment (accreditation):
This Bachelor of Engineering degree aligns with recognised professional engineering education standards and supports progression toward professional engineer registration and international career mobility.

Reputation (employability & standing):
Technological University Dublin is widely recognised for its applied, industry-focused engineering education. Graduates of Electrical & Control Engineering are highly sought after in sectors such as electrical power, automation and control, manufacturing, renewable energy, pharmaceuticals, and industrial systems due to their strong technical foundation and practical project experience.

Experiential Learning (Research, Projects, Internships etc.)

At Technological University Dublin, the Bachelor of Engineering in Electrical & Control Engineering is a hands-on, professionally oriented degree that prepares you to work with today’s critical electrical systems and control technologies. This programme focuses on real application: you’ll learn how electrical power systems operate, how sensors and actuators are used in automated environments, and how control systems keep everything running reliably and efficiently. From the very first year, your learning is grounded in practical engagement with physical systems, laboratory equipment, digital tools, and industry-relevant projects that build your confidence and technical ability. Through applied learning, design challenges, and exposure to real control platforms, you’ll graduate equipped to work across sectors like automation, manufacturing, power systems, robotics, and intelligent systems integration.

Here’s how experiential learning is embedded throughout the degree:

Hands-On Electrical Engineering Laboratories
You’ll spend substantial time in labs working with electrical circuits, power electronics, measurement systems and electrical machines, gaining direct experience with the hardware that powers industrial and building systems.
Control Systems & Automation Work
Practical modules focus on control theory applied in real contexts — using sensors, actuators, PLCs and digital controllers to build, test and optimise automated systems that respond to changes and perform reliably.
Design Projects & Applied Engineering Challenges
You’ll engage in structured design and problem-solving projects where you work individually and in teams to apply engineering principles to create solutions. These build teamwork, communication, and technical reasoning skills.
Industry-Relevant Digital Tools & Software
Throughout the programme, you gain experience with industry software and simulation tools used in electrical and control engineering — from circuit design and system simulation to control algorithm testing.
Workshops & Fabrication Sessions
Workshops give you practical exposure to assembly, wiring, testing and debugging of real electrical and control systems. These sessions help you connect theoretical knowledge with hands-on skills needed for professional environments.
Professional Practices & Standards
The curriculum integrates learning around current engineering codes of practice and safety standards, so you learn how to approach electrical and control engineering tasks in compliance with real regulations.
Final-Year Capstone Engineering Project
In your final year, you undertake a substantial individual project that combines electrical system design and control solutions. This capstone project highlights your ability to take a problem from concept through to implementation and testing.
Industry Engagement & Professional Exposure
Guest lectures, employer workshops and industry visits expose you to current industry practice and expectations, helping you think like a professional engineer from early in your studies.
Research-Informed & Contemporary Teaching
Teaching is informed by developments in electrical systems, control and automation technology to ensure your learning reflects modern engineering practice and prepares you for evolving industry needs.

Facilities & Practical Resources (Official):
Electrical engineering laboratories, control systems and automation workspaces, digital simulation and modelling tools, workshops for assembly and testing, project and prototype spaces, professional practice seminars, and access to TU Dublin’s engineering library and computing resources — all structured to give you real, practical experience in electrical and control engineering.

Progression & Future Opportunities

The Bachelor of Engineering in Electrical & Control Engineering at Technological University Dublin (TU Dublin) prepares you for careers where electrical systems and control technologies come together — from automation and intelligent systems to industrial process optimisation and smart infrastructure. Graduates typically begin professional roles such as Controls & Automation Engineer, Electrical Systems Engineer, Industrial Systems Engineer and Instrumentation & Process Control Engineer in sectors like manufacturing, energy, automation, robotics, and industrial services: you’ll graduate with both theoretical grounding and practical skills that employers actively seek.

• University Services to Support Your Career: TU Dublin’s Careers Service offers personalised career guidance, professional development workshops (CV writing, interview preparation, networking), employer engagement events, internship and placement support, and tailored resources for engineering students — all designed to help you launch your career with confidence.
• Employment Outcomes & Salary Prospects: Graduates from this programme enjoy strong employability because expertise in electrical systems and control engineering is vital to industries that rely on automation, intelligent systems, industrial electronics and process optimisation. Starting salaries are competitive, reflecting the practical skills and industry relevance developed during your degree.
• University–Industry Engagement: The programme incorporates engagement with employers and industry partners in sectors such as automation, manufacturing, energy systems, industrial services and building technologies. Through project work and industry exposure, you’ll gain real-world insights and connections that enhance your readiness for employment.
• Long-Term Accreditation Value: This engineering degree provides a recognised academic foundation that supports professional development and progression toward recognised engineering credentials, including pathways that contribute toward Chartered Engineer status — a respected qualification that enhances international career mobility and leadership potential.
• Graduation Outcomes: Graduates are prepared to work in multidisciplinary teams designing, testing, commissioning and optimising electrical and control systems, including programmable logic controllers (PLCs), motor drives, sensor systems, automation software and industrial instrumentation.

Typical roles graduates move into include:
• Controls & Automation Engineer — designing and maintaining automated industrial systems.
• Electrical Systems Engineer — working with power and electrical infrastructure.
• Industrial Systems Engineer — improving reliability and performance of production systems.
• Instrumentation & Process Control Engineer — integrating sensors and control logic for smart systems.

Further Academic Progression:

After completing the Bachelor of Engineering in Electrical & Control Engineering, you can extend your expertise and career opportunities through postgraduate study. Many graduates pursue Master’s degrees in areas such as control systems engineering, automation and robotics, advanced electrical engineering, industrial systems optimisation or intelligent systems to deepen technical knowledge and develop specialist skills. Others choose PhD research focused on advanced control methodologies, industrial automation, cyber-physical systems or intelligent infrastructure, preparing for careers in research, innovation or academic leadership. Advanced study also strengthens eligibility for professional engineering accreditation and long-term leadership roles in engineering and technology.