Electronic Engineering BEng

Year 1 of this course will equip you with the fundamental concepts of computing and electronic engineering, as well as the elementary topics of mathematics for engineers that will be delivered through practical applications. You'll make use of different programming environments to solve problems and you'll work in groups to deliver projects against specifications with reference to industrial practice.

This module equips you with a robust foundation in mathematical principles and tools essential for modelling and comprehending complex engineering problems. Through theoretical understanding and practical applications, you will gain the skills to analyse, interpret, and effectively communicate results, empowering you to make informed decisions and design solutions as competent engineers.

This module gives you a comprehensive understanding of electronics fundamentals and practical skills essential for constructing electronic circuits successfully. Through the exploration of analogue and digital systems, you will gain knowledge in basic electric circuit theory, standard electronic components, and circuit analysis techniques. You will also learn to design and apply standard analogue and digital circuits, including voltage dividers, amplifiers, logic gates, and sequential circuits. The module will focus on practical applications of electronics, such as interfacing analogue and digital signals, electronic system design, and embedded application design.

This module introduces you to fundamental computational concepts and programming constructs relevant to physical computing and the Internet of Things (IoT). Through exploration of various programming languages and environments, you will develop problem-solving skills using code to interact with hardware components. This module equips you with the skills and knowledge necessary to develop computer programs tailored to specific requirements, integrating software solutions with physical devices and processes effectively. Through practical exercises and projects, you will learn to use programming languages and tools to create innovative solutions that bridge the gap between software and hardware domains.

This module enhances your knowledge and understanding of the design process and project management principles in engineering contexts. By exploring a range of modelling and prototyping processes and techniques, you will learn the skills necessary to successfully execute engineering projects. Through practical application, you will develop proficiency in prototype development and utilise project management tools to effectively plan, organise, and execute project tasks. The projects undertaken in this module serve as a platform for you to apply problem-solving skills, integrating theoretical knowledge with practical application.

Year 2 builds on the skills gained in Year 1 and will introduce topics to help you develop an understanding of the process of moving from prototype design to product creation.

Working in groups, you'll be tackling specific management functions appropriate to professional working practices, continuing the professional development of teamworking attitudes and skills to complete a project which addresses one or more elements of a major issue of current concern.

We'll introduce topics such as digital systems design as well as advanced techniques of signal processing and interpretation using concepts and abstractions central to the development of computing systems.

This module develops your understanding of the commercial, legal, financial, ethical and environmental context of design and engineering processes and their impact on society. We will cover issues such as sustainability goals, recognition of obligations to the society, the professional practice and a commitment to professional standards and code(s) of conduct relevant to your discipline (such as the Engineering Council). The module also covers other wider issues such as materials and their impact on environmental factors, waste management, ethics, EDI in a workplace, enterprise and entrepreneurship, security concerns, globalisation (global manufacturing, operating in global markets, cultural issues, financial concerns, risk etc) and its impact on business operations.

This module gives you a comprehensive understanding of digital systems design using fundamental concepts and abstractions essential for the development of computing systems. By focusing on topics such as combinational circuits, sequential components, microprocessor design, and computer-aided design techniques, you will gain practical skills in designing and implementing digital systems. You will be equipped with the knowledge and skills necessary to design and optimise digital systems effectively, contributing to the development of sustainable and energy-efficient computing solutions.

This module provides you with an in-depth understanding of advanced signal processing techniques and their applications in wireless communications. You will be equipped with the knowledge and skills necessary to analyse, interpret, and manipulate signals in various contexts, particularly in the field of wireless communications. You will also develop an understanding of the challenges and considerations involved in designing and optimising wireless communication systems, contributing to your preparedness for careers in the engineering industry.

This module aims to equip you with comprehensive knowledge of analogue electronic theories and their practical applications. By covering topics such as properties for electronic components, circuit analysis methods, semiconductor junctions, and amplifier circuits, the module aims to equip you with a solid understanding of analogue electronic design principles. Emphasis will be placed on developing practical skills in analogue electronic circuit design, including the ability to analyse, simulate, and optimise circuits using appropriate methods and software tools. By the end of the module, you will be proficient in designing analogue electronic circuits that meet specified requirements and performance criteria.

This module will strengthen, extend and apply the knowledge, skills and experiences you have gained from your course in a working environment, and to complement, stimulate, reinforce and encourage the development of discipline-specific technical knowledge, and your transferable skills. You will gain knowledge of professional requirements in an industry context and record and critically reflect on your personal practice

This year offers you the opportunity to undertake a major self-directed engineering project using the knowledge and skills learnt throughout the course. You'll also learn the principles underpinning real-time hardware and software.

The focus is on structured design principles and techniques that yield cost-effective, ad hoc, and testable systems, whose development typically involves the integration of custom hardware, software or hardware interfaces, IP devices or peripherals, one or more processors, and software.

Overall, this course is designed from a systems engineering approach, introducing you to the science and technology of design, as well as the implementation of system-on-a-chip.

It reflects the importance of developments in the area of electronic engineering by providing a strong foundation in science, technology and application development, principles, and the development of practical skills in key areas needed by the industry.

This module aims to provides you with comprehensive knowledge and practical skills in designing and implementing systems-on-chip (SoC) with a focus on real-time and embedded principles. By covering topics such as digital systems, application-specific integrated circuits (ASICs), and Field Programmable Gate Array (FPGA) case studies, you will gain an understanding of the complexities involved in designing SoCs with stringent timing requirements and significant communication needs. By the end of the module, you will be equipped with the knowledge and skills necessary to design and implement complex SoCs with real-time constraints, contributing to the development of advanced and efficient computing systems.

This module aims to equip you with the knowledge and skills necessary to apply a system engineering approach to solve embedded problems. Through a comprehensive exploration of concepts and techniques, including requirements analysis, modular systems design, and component design, you will learn to effectively gather information, establish functional structures, and develop and evaluate design concepts. The module will also provide an understanding of crucial system properties such as safety, liveness, robustness, and fairness, enabling you to design systems that meet rigorous validation standards and conform to relevant regulations. Additionally, you will be exposed to the complexities of designing socio-technical systems, including managing existing components, legacy systems, and other imposed constraints such as legal frameworks, thereby preparing you to address the multifaceted challenges encountered in real-world system design projects.

This module gives you the opportunity to synthesise prior learning and develop your planned graduation trajectory through a self-selected, self-initiated and self-directed major project and complementary professional practice components including EDI (equality, diversity and inclusion) principles. The direction of the project is a personal choice supported by appropriate staff to help you best synthesise your course experiences into a project that develops your working practice and professional profile to a quality and in a direction suited to your exit trajectory. You will develop a body of coherent and detailed knowledge of project development, management and communication frameworks and methods in an appropriate professional sector.

You will engage in a variety of interactive activities such as seminars, group tutorials, and collaborative exercises. These are designed to foster critical thinking, problem-solving, and the practical application of theory to real-life challenges, with a special focus on sustainable development and the UN Sustainable Development Goals (SDGs). The course is strongly focused on practical application, particularly in a laboratory setting, where you will gain first-hand experience with the enabling technologies. This practical element is crucial for understanding and applying theoretical concepts in real-world scenarios. Each academic year of this course includes a project that replicates industrial practice which will give you the practical skills required for professional practice and maximise your employability chances. You will develop a range of practical competencies which, by the end of year two, are relevant to the needs of industry and student employability and will help you to gain industrial experience on placement.

You will be mostly studying in the Ritterman Building at our leafy north London campus in Hendon. It is equipped with industry-standard equipment in mechatronics, robotics, electronics and networking solutions.

Your weekly timetable will typically consist of 4 blocks of 3 hours of workshops (a total of 12 hours of contact time per week).

Outside of teaching hours, you’ll learn independently through self-study which will involve reading articles and books, working on projects, undertaking self-directed research, self-directed, resource-based learning, and preparing for assessments including coursework and presentations.

Year 1

Year 2

Year 3

Whether you are studying full or part-time – your course timetable will balance your study commitments on campus with time for work, life commitments and independent study.

We aim to make timetables available to students at least 2 weeks before the start of term. Some weeks are different due to how we schedule classes and arrange on-campus sessions.

Your knowledge and understanding are assessed by techniques, aligned with the course objectives, and which cater to diverse learning styles. This includes interactive assignments such as presentations, formal report writing, and structured dialogues. These tasks not only assess your understanding and ability to communicate complex ideas but also foster critical thinking and collaborative learning. Incorporating authentic assessment strategies, you will engage in practical activities, problem-solving tasks, and project work that reflect real-world scenarios and industry standards. These exercises are instrumental in enabling you to confront actual problems, apply systematic problem-solving approaches, and harness innovative thinking.

You will receive continual formative feedback, including discursive feedback that supports your learning journeys. This ensures that you are continuously guided and supported in your learning, enhancing the authenticity and effectiveness of the assessment process. Your skills are assessed by practical and analytical methods tailored to measure your proficiency and application of learned competencies. To enhance your communication skills, you will be asked to present technical material and express your insights through reports and documentation. This practice refines your ability to present intricate data and equips you for the demands of professional communication, including report writing and presentations. The inclusion of authentic assessment tasks in the form of practical assignments and project work compels you to employ your skills in realistic situations. This approach ensures you are adept at converting theoretical understanding into actionable, real-world solutions.