Bachelor of Engineering in Mechanical Engineering

3 Years On Campus Bachelors Program

Technological University Dublin

Program Overview

The Bachelor of Engineering (BEng) in Mechanical Engineering at Technological University Dublin equips students with strong engineering fundamentals, practical skills, and design expertise needed to develop and improve mechanical systems. This programme is well suited for students who enjoy hands-on learning, problem-solving, and applying engineering principles to industries such as manufacturing, energy, automotive, robotics, and medical devices.

Curriculum Structure

Year 1 — Core Engineering Foundation
In the first year, students develop a solid grounding in essential engineering disciplines. Modules include Engineering Science, Engineering Mathematics, Mechanics, Materials Processing, Electronics Technology, Workshop Practice, and Technical Communication, helping students understand how mechanical systems are built, analysed, and communicated in professional settings.

Year 2 — Mechanical Engineering Fundamentals
Second year builds on the foundation with deeper mechanical engineering concepts. Students study subjects such as Mechanical Science, Fluid Mechanics, Thermodynamics, Materials Science, and Machine Dynamics, strengthening their understanding of forces, energy transfer, and material behaviour in mechanical systems.

Year 3 — Applied Mechanical Systems and Design
In third year, learning becomes more applied and design-focused. Students engage with Mechanical Design, Engineering Graphics, Control and Automation, Robotics Systems, and Applied Mechanics, supported by laboratory work and project-based learning that connects theory to real engineering challenges.

Focus areas:
Mechanical systems design • Engineering mechanics • Fluid and thermofluid systems • Materials science and processing • Dynamics and machine analysis • Robotics and automation • Engineering design and integration

Learning outcomes:
Graduates will be able to apply engineering mathematics and science to solve mechanical engineering problems, design and analyse mechanical components and systems, use modern engineering tools and laboratory techniques, conduct experiments and interpret results, communicate technical solutions effectively, and demonstrate ethical and professional responsibility.

Professional alignment (accreditation):
The programme is designed to align with recognised engineering education standards in Ireland and internationally, supporting progression toward professional engineering registration and enhancing global career mobility.

Reputation (employability & standing):
Technological University Dublin is known for its strong industry-focused approach to engineering education. Mechanical engineering graduates are valued by employers for their practical skills, technical knowledge, and ability to contribute effectively in sectors such as manufacturing, energy, automotive, aerospace, and advanced engineering services.

Experiential Learning (Research, Projects, Internships etc.)

At Dublin City University, the Bachelor of Engineering in Mechatronic Engineering is all about hands-on learning and real engineering experience. Mechatronics combines mechanics, electronics, control systems, automation, and embedded computing — and at DCU you’ll learn these in practical settings from day one. The programme is designed so you don’t just read about systems — you build, test, program, and optimise them. You’ll work in modern engineering laboratories with sensors, actuators, robotics systems, digital control platforms, manufacturing tools, and simulation software. Central to the learning experience is a substantive industrial work placement where you apply your skills in real workplaces, giving you professional engineering experience before you graduate.

Here’s how experiential learning shapes your degree:

Hands-On Engineering Laboratories
You’ll spend significant time in labs built for mechatronics, working with real hardware — sensors, actuators, microcontrollers and robotic systems — to integrate mechanical and electronic systems and test automated functions.
Collaborative Design Projects
Throughout the programme, you’ll engage in team-based engineering design projects, developing solutions to real problems that require you to combine mechanical, electrical, and digital engineering skills. These projects build technical communication, interdisciplinary thinking, and project management.
Digital Tools & Embedded Computing
Students learn and apply industry-standard software and embedded systems tools to program controllers, simulate system behaviour, model mechanisms, and visualise data. These digital engineering skills reflect current industry practice.
Industrial Work Placement (INTRA Programme)
In third year, you complete a long industrial work placement — typically six to ten months — where you’ll apply what you’ve learned in professional engineering environments. Placements often involve automation projects, control system implementation, production optimisation, and smart systems development.
Final-Year Engineering Project
In your final year, you undertake a substantial capstone project that integrates mechanical, electronic, and software elements of mechatronics. Many students choose projects linked to robotics, automated systems, intelligent sensing, or smart manufacturing.
Manufacturing & Automation Modules
You’ll study core topics in manufacturing processes, digital automation, robotics fundamentals, control systems, and systems integration — all through practical exercises and lab activities.
Research-Informed Teaching & Industry Engagement
Academic staff bring active research and industry experience into the classroom, ensuring you learn current engineering practices as they relate to automation, intelligent systems, and digital technologies.
Study Abroad & Language Options
You also have opportunities to study abroad and deepen your global perspective, and you may elect to take language modules alongside your technical engineering studies.
Professional Skills Development
Throughout the programme, modules and workshops help you build professional engineering skills such as technical communication, engineering ethics, teamwork, and problem solving — preparing you for workplace success.

Facilities & Practical Resources (Official):
Mechatronics engineering laboratories, embedded systems labs, automation and robotics workspaces, digital control and simulation suites, manufacturing and prototyping facilities, industrial placement support, and the DCU library system — all structured to give you practical engineering experience.

Progression & Future Opportunities

The Bachelor of Engineering in Mechanical Engineering at Technological University Dublin (TU Dublin) prepares you for a wide range of engineering careers where problem-solving, design, analysis, and technology integration are essential. Graduates go into roles such as Mechanical Design Engineer, Project Engineer, Manufacturing Engineer, and Maintenance/Systems Engineer, across industries like automotive, energy, manufacturing, construction and consulting. The degree also lays the groundwork for further professional qualifications and advanced roles in engineering practice:

• University Services to Support Your Career: TU Dublin’s Careers Service helps you build your professional profile with one-to-one career guidance, CV and interview workshops, internship and placement support, employer networking events, and access to graduate job listings. Engineering students benefit from targeted career events and industry engagement throughout the programme.
• Employment Outcomes & Salary Prospects: Mechanical engineering graduates from TU Dublin enjoy strong employability due to the practical, industry-focused nature of their training. Graduates typically secure employment soon after graduation in engineering, manufacturing, construction, and technology sectors, and often command competitive starting salaries aligned with engineering demand in Ireland and internationally.
• University–Industry Partnerships: The programme has links with employers in sectors such as automotive, manufacturing, energy, building services, product design and consultancy, giving you opportunities for real-world experience through work placements, project collaborations, and employer presentations integrated into your studies.
• Long-Term Accreditation Value: The degree is designed to meet recognised engineering education standards, giving you a solid foundation for professional engineering practice and progression toward internationally recognised credentials such as Chartered Engineer status with Engineers Ireland — enhancing career mobility and long-term prospects.
• Graduation Outcomes: Graduates go on to careers with multinational firms, Irish engineering companies, SMEs and consultancies, applying mechanical engineering principles to design, optimise and manage systems, machines and products in a wide variety of sectors.

Further Academic Progression:

After completing the Bachelor of Engineering in Mechanical Engineering, you can extend your expertise and strengthen your career options in several ways. Many graduates pursue postgraduate Master’s degrees in areas such as advanced mechanical engineering, energy systems, manufacturing technology, materials engineering, or robotics and automation to specialise further. Others may choose PhD research to contribute to innovation in areas like sustainable systems, advanced manufacturing processes, intelligent machines or energy-efficient technologies. Pursuing further study also supports eligibility for professional accreditation and leadership roles within engineering and technology fields.