Electrical and control engineering (E&CE) involves a variety of engineering roles from the day-to-day running of ECG machines and ventilators in hospitals to engineering technologist positions in manufacturing plants and the electrical power industry.

They can be responsible for the electricity supply and electronic systems in unusual and exciting work environments such as cruise liners and aircraft. They also develop and install high-security alarm systems, advanced lighting, and automated production equipment.

Electrical and Electronic Engineering involves developing technologies required for our future needs in such areas as communication, electrical energy, transport, healthcare and entertainment. Electrical and Electronic Engineers are involved in advances in medical technology, mobile phones, wireless communications, electrical power systems, renewable energy, electric vehicles, e-commerce and the internet-of-things. 

The BEng Hons Electrical and Electronic Engineering degree will prepare you to become a professional electrical engineer, working on electrical products and systems, from research and design to installation. It will be your job to deal with the input of power to electrical systems, as well as with data acquisition and gathering.

You will be qualified to work in many areas, including power generation and control, transportation, IT, manufacturing, construction and telecommunications.

Most electrical engineers work with large-scale electrical systems, such as using electricity to transmit energy, however a wide range of technologies are being developed, from household appliances and installing lighting within buildings, to power stations and satellite communications.

Providing electrical power in a modern economy is about generation, distribution and use in a safe, economic and sustainable way. Fossil fuel energy now combines with solar, wind and tidal energy to create “embedded” generation which needs a “smart grid” to automatically manage user production and demand while maintaining the quality of the supply.

MTU’s electrical engineering course is designed to equip technologists for this environment.

The general fields of study are renewable generation, transmission and distribution, plant automation, motor control, power systems planning, and industrial management and services. The high academic standard of the course is complemented by a strong emphasis on applications and project work. State-of-the-art lab equipment and software prepares graduates for the work environment. Class work is supplemented by field trips to major employers within the greater locality.

This programme of study will cover all the major components to allow you to become a successful Electrical Engineer. These include all the traditional topics such Electrical Machines, Electrical Power Systems, Power Electronics, Energy Management, Energy Storage and Electrical Automation. Given the increasingly important role of data in the generation and use of electricity it also includes much more modern topics such as Cybersecurity and Artificial Intelligence which are necessary to make electricity systems smarter and more secure. All of these topics build on foundational engineering modules which are taken in years 1 and 2 of the programme. 

Electrical Engineering is primarily concerned with the generation, transmission and  distribution of Electrical power, the design and development of electrical machines and equipment and the specification of electrical service plans for industrial buildings and facilities.

This programme is designed to produce graduates with a detailed knowledge of Electrical, Control & Automation Engineering and the skills necessary to identify, formulate,and solve industrial electrical & automation engineering problems. The Electrical Engineer is required to lead fault-finding and trouble-shooting of complex electrical and control equipment and to work with colleagues to achieve project success on time and within the resources available.

Electrical engineering is a diverse and challenging profession concerned with the design, development and control of electrical energy and equipment upon which our technological society so largely depends.This programme will provide graduates with the key skills necessary to perform roles in several industry disciplines, including power systems operation and protection, maintenance and commissioning of control and automation systems. It develops advanced knowledge in the areas of Electrical Power Systems and Power Quality and Advanced Control and Automation Systems.  

On completion of this four-year apprenticeship, you will become a fully qualified electrician, with a QQI Level 6 Advanced Certificate Craft – Electrical.

You may then choose to either work as an electrician with a range of employers or work in a self-employed capacity.

Many apprentices use their apprenticeship qualification as a platform to launch careers such as engineers, managers, owners of businesses, teachers and instructors amongst others.

Graduates of this course work in design teams to deliver electrical services to buildings and play an integral role in the operation and management of the energy facilities.

You’ll be equipped with the fundamental engineering, management and design skills you need to design electrical services for facilities and manage the energy consumption in facilities. 

The field of Electrical Services Engineering and Sustainable Design incorporates engineering disciplines employed both in modern buildings and the retrofit and upgrade of facilities.

The disciplines covered by this course include environmental control and communication, power distribution, standby generation, lighting, emergency services (lighting and fire), access control, data services, automation, building management systems and many more.

As part of the Electrical Apprenticeship Training Programme, learners will complete Phase 2 of their training programme in Monaghan Institute. This Phase of training includes installation, commissioning, testing and maintenance of various wiring systems and services in domestic, comercial and industrial applications.

When choosing a career as an electrician it opens a range of career and specialty paths from being self-employed or working as part of a larger business. In the electrical industry many electricians choose a specialty that they focus on whether it is building and construction, green energy/solar, automation, manufacturing, mining, energy or water supply industries.

Calling maths lovers! If you’d like to be able to fix a gaming remote or build a smart doorbell from scratch, you need to study Electronic and Computer Engineering.

Across the first three years, you’ll study the fundamentals of electronic engineering and programming. As this course covers a broad field, you’ll choose one of four specialisms in fourth year: Systems and Devices (covering sensors, diagnostics and more), High-Speed Networks (such as fibre optics and 5G), Digital Interaction (including 3D interfaces and game design), and the Internet of Things.

The Electronic and Computer Engineering (ECE) degree programme has been developed in conjunction with employers to meet the demand for graduates with strong skills in computer software and electronic hardware engineering, along with mathematical analysis abilities, to support current and emerging societal needs.

This programme of study will support the development of skills required to develop and employ technologies to tackle many of the challenges of the coming decades including Internet edge devices, climate change, electric vehicles, sustainable development, energy, personalised health and well-being, and artificial intelligence, as well as other innovative areas such as entertainment and autonomous vehicles.

Electronic and Computer Engineering is a course that aims to integrate two separate engineering fields to meet the joint demands made by the electronics and computer industries in today's world. This programme combines coursework in different aspects of both fields over four years, with an emphasis on the design of computing systems.

Small, lightweight, portable devices like smartphones and tablets combine wireless technology with processing power to provide internet, communications and leisure functionality while on the move. They are now driving how we live, work and play. Combining low power consumption with microchip design, telecommunication and control circuitry (hardware) and the operating system software, they are the ultimate electronic system.

Small, lightweight, portable devices like smartphones and tablets combine wireless technology with processing power to provide internet, communications and leisure functionality while on the move. They are now driving how we live, work and play. Combining low power consumption with microchip design, telecommunication and control circuitry (hardware) and the operating system software, they are the ultimate electronic system. MTU’s MT 846 programme is designed to equip engineers to work at this level.

Common electronic systems include applications like mobile phones, sound and vision systems, computer and information technology, automation and machine control, robotics and biomedical engineering. Increasingly, embedded software is a vital element in modern electronics. Electronic engineering is concerned with the design, development, manufacture and application of electronic devices, circuits and systems.

Common electronic systems include applications like mobile phones, sound and vision systems, computer and information technology, automation and machine control, robotics and biomedical engineering. Electronic engineering is concerned with the design, development, manufacture and application of electronic devices, circuits and systems.

Electronics is at the heart of everyday life. Consumer electronics, mobile devices, vehicles, renewable energy systems, medical devices, wearable fitness technologies, as well as advanced robotics are now ubiquitous. As these technologies continue to evolve and grow, skilled electronic engineers continue to work at the forefront of this technological revolution.

Electronic engineers work on cutting-edge research and development (R&D), advanced semi-conductor fabrication, design, prototyping, software simulation, coding, new product and applications development.