Engineering, computing and technology
Equip yourself for a digital future
Engineering, computing and technology overview
Students in these disciplines will find it necessary to work confidently in multi-disciplinary teams throughout their careers. A foundation in Engineering, Computing and Technology is structured around projects working with others from different degree programmes, enabling them to begin to develop this extremely important transferable skill.
Develop the knowledge and skills you need to create technologies and applications that will change the world. During your Foundation, you will have opportunities for practical work and experimentation across a range of elements, including engineering design tasks centred on developing simple robots, in order to introduce the challenges and benefits of realising theoretical ideas. There’ll be lectures and seminars combined with work-based learning and plenty of course options to personalise your studies.
Successful completion of this pathway will lead to the award of the following from ARU:
- Artificial Intelligence – BSc (Hons) – – Cambridge campus
- Audio & Music Technology – BSc (Hons) – Cambridge campus
- Building Surveying – BSc (Hons) – Chelmsford campus
- Civil Engineering – BEng (Hons) – Chelmsford campus
- Computer Games Technology BSc (Hons) – Cambridge campus
- Computer Science – BEng (Hons) – Cambridge campus
- Computer Networks – BSc (Hons) – Cambridge campus
- Construction Management – BSc (Hons) – Cambridge campus
- Cyber Security – BSc (Hons) – Cambridge campus
- Electronics and Robotics – BEng (Hons) – Chelmsford campus
- Mechanical Engineering – BEng (Hons) – Chelmsford campus
- Quantity Surveying – BSc (Hons) – Chelmsford campus
- Software Engineering – BSc (Hons) – Cambridge campus
This module has been designed to help students develop their academic literacy, and research and
communication skills in preparation for undergraduate study. The areas of reading, writing,
speaking, and listening will be covered. ILSC also helps students understand the institutional
culture, practices, norms and expectations of the UK higher education.
A subsidiary aim of this module is to ensure that students develop transferable skills of effective and
professional communication to support ongoing study, as well as providing a basis to foster career
and life-building skills.
No previous technical experience is required for this module, which provides students with an
introduction to practical ICT skills. This foundation will be needed for academic success across
many areas of higher education. The students will use industry standard office productivity
software and techniques to produce presentations, written assignments, and charts and tables in
Alongside practical skills, fundamental topics surrounding technology use will be discussed,
together with societal and ethical perspectives. The module will enable students to discuss the main
challenges facing society and consider the implications of their technology use.
By the end of the module, students should have sufficient mastery of the Microsoft Office
productivity suite to allow them to plan and produce presentations, use functions and write formula
to display, format and analyse quantitative data and produce written assignments to a standard
appropriate to higher education.
This module aims to enable candidates to participate in and practice independent learning tasks for deeper thought and investigation as needed for Higher Academic pursuits. This module is designed to teach, reinforce, and practice independent learning and critical thinking, as opposed to rote memorisation for success in University and professional life. An open-class forum of discussion is used to encourage critical thinking skills within academic and professional-facing contexts.
This module enables candidates to invest in strategies that will deepen understanding and interpretation of processes, motives, argument, rationale, credibility, and possibilities which will then be applicable to a range of studies. Students will undertake research, based on an issue related to their degree programme, to review the main points of examining an argument in depth. They will learn to create a personal response that analyses the content of the issue under study.
Foundation Maths for Science is a course that ensures students on the extended programmes for degrees in the areas of Life Sciences, Biomedical and Forensic Sciences, and Vision and Hearing Sciences have the necessary basic mathematical skills required for entry to level 4. By the end of the course, students will be able to carry out basic mathematical manipulations and understand the relevant key concepts required in order to progress to their chosen degree course. Each mathematical concept is introduced by a lecture, in which examples of how to use and apply the concept are demonstrated. Students practise problems in a tutorial for each topic, using worksheets given out in advance of the sessions. The worksheets include problems applied to the various degree pathways to which the students will progress, to indicate the importance and applicability of mathematics to their future degrees. The subjects covered are a range of arithmetic skills, algebra, areas and volumes, trigonometry and basic statistics.
Maths for Engineers is intended for students progressing onto engineering and computing degree programmes. Both of these disciplines will make extensive use of calculus, vector and matrix mathematics. This module is intended to build on basic maths concepts in order to prepare students for success in Level 4 programs which have a heavy mathematical focus.
The module will focus on the development of calculus skills, but will also introduce simple vector and matrix operations. The application of the pure maths to engineering and computing problems will be highlighted.
This module is intended to give students progressing on to Engineering and Computing a suitable
grounding in the physical sciences in order to prepare them for their studies Level 4 and beyond.
The module will be taught using a combination of lectures, demonstrations and in-class exercises,
assisted by online self-study elements. Concepts will be introduced via the online study element and
re-capped in lectures, followed by simple demonstrations and group tasks. Students will then complete numerical problems relating to the topic in small groups.
By the end of this module, students will be able to analyse the motion of objects in 1 and 2 dimensions with constant acceleration. They will be familiar with friction and its effect in moving and static systems. Students will be familiar with simple statically determinant systems and able to calculate forces in equilibrium. Students will be familiar with the concepts of conservation of mechanical energy and conservation of momentum, and will be able to apply them to simple situations.
This module provides an introduction to basic computer programming using a low level programming language (C), requiring no prior programming experience. Fundamental issues such as the structure of a program, syntax of simple statements, data types, functions, files, design and testing, and problem solving will be discussed. The students will use industry standard tools and techniques to implement, test and document simple programs. The module will enable students to understand the main elements of a high-level program, laying the foundation for subsequent modules in Level 3 and above requiring structured programming ability. Fundamentals of Computing will emphasise the principles of good programming practice and introduce the techniques required to develop software that is robust, usable, and efficient. By the end of the module, students should have sufficient mastery of the C programming language to allow them to design, implement and test simple programs. The material taught in the module is intended to form skills directly transferable to the workplace, giving a basic foundation to students who will be expected to apply programming skills in their later studies.
Engineering Design is intended for students progressing to Engineering, Computer Science, or
Architecture degree programmes. The focus of this module is on putting students’ studies into
context in the wider world, in particular by considering how different professions must collaborate
in the world of work. This module will consider a number of different design processes, and how
they might be implemented by multi-disciplinary teams, as well as how the design activity fits within
the wider business context.