Bachelor of Science (Hons) in Paramedic Science

at University of Wolverhampton - Telford Campus United Kingdom

Modern industry operates within a highly competitive global market, the adoption, exploration and management of technology across both design and manufacture and product simulation performance is at the forefront of providing successful business with the competitive edge needed to survive and grow. In addition, society is demanding that such business enterprises become evermore proactive in terms of adopting a more socially conscious approach, such as sustainability, across all their strategies and operations.

This course aims to develop your knowledge and understanding of modern engineering analysis and simulation tools and techniques in terms of product development and optimisation before manufacture. You will gain a comprehensive understanding of how various IT-based tools and systems function while also gaining insights into how these are implemented effectively, within the manufacturing and industrial sectors. You will be equipped to undertake cross-functional management roles and to evaluate how modern organisations can strategically exploit existing and emerging technologies. This reflects the growing demand for specialists with advanced skills and knowledge to drive forward effective, new, product development and their introduction across all of the major industrial sectors including automotive, aerospace and general manufacture.
The course will allow you acquire advanced knowledge and systematic understanding of contemporary finite element modelling techniques to analyse the behaviour of complex engineering systems and components. It will involve a comprehensive understanding of advanced solid mechanics and analytical techniques pertinent to product development and sustainability, and to apply these advanced techniques to synthesise novel designs of a range of engineering systems.

Giving you a comprehensive engineering education combined with specialist knowledge of electro-mechanical systems, this course addresses industry’s demand for graduates who can integrate the principles and applications of mechanical, electrical and electronic engineering. You will learn to evaluate a range of solutions to engineering problems, and to select and apply appropriate solutions to engineering systems. You will use software packages to design, analyse, and evaluate system designs. As you progress, you will develop your integrative approach to designing electro-mechanical systems and become familiar with the techniques of digital signal processing. In the first year of the course, you will study engineering principles across a broad range of topics. The second year combines mechanical engineering subjects with areas such as embedded systems, digital and analogue electronics and electronic systems design. In the final year of the BEng, there is an emphasis on the design and analysis of electromechanical systems. You will also have the opportunity of preparing a business plan around a product that you have designed.  If you continue onto the MEng, you will study modules such as robotics sensors and control and condition monitoring, and undertake a substantive and integrative project that embraces much of what has been learnt in doing the course, as well as broadening subjects such as business management and accounting.

This MSc programme in Manufacturing Engineering aims to train highly skilled engineers in the techniques of manufacturing engineering and its related technologies. It will provide effective careers for managers who can meet challenges in a rapidly changing global manufacturing industry.

The programme will also enhance the  ability of current or potential engineers to increase the performance and profitability of engineering and manufacturing companies operating in the context of the global business environment through the use of modern design techniques, manufacturing technologies and management philosophies.

Modern industry operates within a highly competitive global market, the adoption, exploration and management of technology across both design and manufacture and product simulation performance is at the forefront of providing successful business with the competitive edge needed to survive and grow. In addition, society is demanding that such business enterprises become evermore proactive in terms of adopting a more socially conscious approach, such as sustainability, across all their strategies and operations.

This course aims to develop your knowledge and understanding of modern engineering analysis and simulation tools and techniques in terms of product development and optimisation before manufacture. You will gain a comprehensive understanding of how various IT-based tools and systems function while also gaining insights into how these are implemented effectively, within the manufacturing and industrial sectors. You will be equipped to undertake cross-functional management roles and to evaluate how modern organisations can strategically exploit existing and emerging technologies. This reflects the growing demand for specialists with advanced skills and knowledge to drive forward effective, new, product development and their introduction across all of the major industrial sectors including automotive, aerospace and general manufacture.

The course will allow you acquire advanced knowledge and systematic understanding of contemporary finite element modelling techniques to analyse the behaviour of complex engineering systems and components. It will involve a comprehensive understanding of advanced solid mechanics and analytical techniques pertinent to product development and sustainability, and to apply these advanced techniques to synthesise novel designs of a range of engineering systems.

Take your first steps to becoming a motorsport engineer with University of Wolverhampton's Racing team, the only UK university with a Formula 3 team.

The highly bespoke motorsport engineering course is for those applicants who wish to focus on all aspects of modern race vehicles, from high performance engines, use of hybrid power and power delivery, to the high performance end of spectrum of aerodynamics and vehicle stability mechanisms and methodologies.

The modules range from track-side and creative to relevant technical modules which give the basis for technical study, such as mathematics, science, thermodynamics and liquid mechanics. Contextualisation of all course content ensures the maximum industrial relevance along with pace being kept to extremely fast moving and often restricted industrial technologies.

The Mechanical Engineering course provides a comprehensive engineering education covering design, engineering mathematics and its application, the core concepts of mechanics, thermodynamics, structural dynamics, materials and the behaviour of fluids. As you progress through the course, you will also cover the principles of control systems, advanced materials and manufacturing processes including Additive Layer Manufacturing (ALM)/ 3D-printing of plastics and metals. You will use computer aided modelling, design and analysis software to validate product designs. Analysing the performance of materials and structures under in-service conditions through the use of finite element analysis and computational fluid dynamics is one highlight of the course. Accordingly, you will have the ability to use industry level FEA packages to analyse the performance of various engineering components.

The Mechanical Engineering course provides a comprehensive engineering education covering design, engineering mathematics and its application, the core concepts of mechanics, thermodynamics, structural dynamics, materials and the behaviour of fluids. As you progress through the course, you will also cover the principles of control systems, advanced materials and manufacturing processes including Additive Layer Manufacturing (ALM)/ 3D-printing of plastics and metals. You will use computer aided modelling, design and analysis software to validate product designs. Analysing the performance of materials and structures under in-service conditions through the use of finite element analysis and computational fluid dynamics is one highlight of the course. Accordingly, you will have the ability to use industry level FEA packages to analyse the performance of various engineering components.

In addition to gaining in-depth knowledge and understanding of the core subject, you will also gain experience of designing engineering systems that incorporate aspects of the mechanical and electrical/electronic technologies. In addition to experimental work at the University you will use Radar equipment at the DCAE Cosford Royal Air Force base - the same equipment used to train Air Force personnel.

The first year of study will cover a range of engineering topics and is aimed at providing a sound base for the following years. You will study Mathematics, and the underlying concepts of Electrical, Mechanical, Materials, and Production Engineering. You will undertake laboratory work and utilise your new production knowledge to build and test a design. In the second year, you will learn about Telecommunications and Signal Processing, Electronic Design, and Control Systems. You will also study Engineering Management and learn the role and responsibilities of a professional engineer. In your third year, you will complete an individual project, acquire specialist Electronics and Communications Systems knowledge, and learn how to convert an idea into a commercial venture. Should you pursue the MEng then you will cover some of these topics in more depth alongside broadening studies, for example in business management and accounting.

The highly bespoke motorsport engineering course is for those applicants who wish to focus on all aspects of modern race vehicles, from high performance engines, use of hybrid power and power delivery, to the high performance end of spectrum of aerodynamics and vehicle stability mechanisms and methodologies. The modules range from track-side and creative to relevant technical modules which give the basis for technical study, such as mathematics, science, thermodynamics and liquid mechanics. Contextualisation of all course content ensures the maximum industrial relevance along with pace being kept to extremely fast moving and often restricted industrial technologies.

Virtual technologies feature heavily in the course, as a valuable industrial tool to reduce lead times in the conceptualisation of prototype vehicles, it is an essential aspect of the modern engineer, the basics of solid modelling (3D CAD) are taught initially and used to develop designs, leading into the use of FEA (finite element analysis) and CFD (computational fluid dynamics) to assess various designs and prototypes.

A variety of race cars (including a Formula Renault, Formula 3 and a Morgan Challenge race car) are utilised to demonstrate technical concepts and are raced internaationally by a professional driver; students can apply to be considered for the race team, which will include pit-crew responsibilities. Team working and good communication skills are essential.

The Mechanical Engineering course provides a comprehensive engineering education covering design, engineering mathematics and its application, the core concepts of mechanics, thermodynamics, structural dynamics, materials and the behaviour of fluids. As you progress through the course, you will also cover the principles of control systems, advanced materials and manufacturing processes including Additive Layer Manufacturing (ALM)/ 3D-printing of plastics and metals. You will use computer aided modelling, design and analysis software to validate product designs. Analysing the performance of materials and structures under in-service conditions through the use of finite element analysis and computational fluid dynamics is one highlight of the course. Accordingly, you will have the ability to use industry level FEA packages to analyse the performance of various engineering components.