Motorsport Engineering

This module places a strong emphasis on utilising modern computer technology, including computer-aided engineering (CAE) packages, to create solid models, conduct simulation analyses, and ensure designs are fit for purpose. By actively engaging with the integrated design environment and collaborating with peers, you will acquire invaluable skills in engineering design, problem-solving, and effective communication.

As you progress through this module, you will gain a comprehensive understanding of the engineering design process and its practical application in real-world contexts. You will learn to select and utilise appropriate industrial components, making informed decisions that contribute to the overall success of your designs. Through interdisciplinary collaboration, you will gain valuable experience working with others to produce design prototypes, simulating real-world scenarios encountered in professional engineering practice.

This module places significant emphasis on the solution of differential equations using both analytical and numerical methods. You will develop the skills to formulate and solve ordinary differential equations, employ advanced techniques of matrix algebra, and utilise numerical techniques to solve various engineering problems. Furthermore, you will learn to effectively describe and analyse engineering systems using the language of mathematics and employ mathematical software to perform numerical computations.

By the end of this module, you will gain a deeper understanding of the role of calculus in engineering applications. Through the study of differential equations and matrix algebra, you will acquire advanced problem-solving techniques that are essential for addressing real-world engineering challenges.

In this module, you'll develop a comprehensive understanding of electronic and electrical systems, their control mechanisms, and their integration with existing processes. The focus is on preparing you to analyse, apply, and predict the performance of these systems, especially in the context of high-level autonomous operations.

Upon completing this module, you'll be able to explain the operation and limitations of major control, electrical, and electronic systems. You'll have the skills to analyse complex electronics and control problems, design appropriate tests, and accurately assess outcomes. Leveraging industry-standard modelling and simulation software, you'll be capable of explaining and analysing the behaviour of electronics and control systems.

In this module, you'll delve into the intricacies of static stress analysis using closed-form solutions derived from fundamental principles. You'll also explore how this understanding relates to failure criteria and the material properties of the component. Practical application of theories will be facilitated through a hands-on laboratory session, offering a real-world context to the learned concepts.

Through this module, you'll gain a profound ability to calculate stresses, strains, and deflections in beams undergoing bending and torsion. You'll be adept at determining various stress components like principal, octahedral, hydrostatic, and deviatoric stresses in three-dimensional components. This skill set will enable you to evaluate the strength and deformation suitability of a diverse range of components under static loading conditions.

In this module, you will gain an introduction to the fundamental principles of environmental engineering. You will explore the interactions between human activities and the environment, focusing on topics such as water and wastewater treatment, air pollution control, solid waste management, and environmental impact assessment. Through theoretical studies and practical exercises, you will learn about the design and operation of environmental engineering systems and the importance of sustainable practices to protect and preserve the environment.

By engaging with this module, you will develop a comprehensive understanding of environmental engineering principles and their applications. You will gain the necessary knowledge to assess environmental issues and propose sustainable solutions for water, air, and solid waste management.

This module is designed to give you a comprehensive understanding of dynamic mechanical systems. The focus includes mechanical vibration, control systems, and the performance evaluation of single-degree-of-freedom systems, as well as first and second-order systems. Additionally, you'll explore the kinematics of mechanisms, gears, and epicyclic gears. The coursework is enriched with practical laboratory exercises, providing hands-on experience to complement theoretical learning.

By the end of this module, you'll be equipped with the knowledge and skills to effectively analyse the dynamic performance of mechanical systems.

This module aims to provide you with a comprehensive understanding of materials used in mechanical engineering, with a focus on selection, design, manufacturing optimization, and environmental impact assessment. You'll delve into the specifics of metals and polymer composite materials, gaining valuable insights into their structure, properties, and manufacturing processes.

By the end of this module, you'll have the underpinning knowledge and comprehension necessary to make informed decisions about materials selection for engineering applications. You'll explore how the structure and properties of materials are influenced by their manufacturing processes, leading to optimized performance in real-world scenarios. Additionally, you'll gain an understanding of the factors and processes involved in material degradation, enabling you to evaluate and account for these factors in your design work.

The compulsory work placement, taken in Year 3, provides a valuable learning experience and is an important part of the course, consolidating your knowledge and preparing you for your final-year studies. During this year you will work in the construction industry for a minimum of 36 weeks. Oxford Brookes has strong links with a variety of construction-based employers ranging from local house-builders to international construction companies. Work experience opportunities are broad; from managing the restoration of a country manor house to the commercial and project management of a multi-million-pound city office development. If you are a part-time student working in the industry in a suitable capacity, you will be exempt from industrial placement.

Our work placement programme has been commended by professional bodies as a model of excellence. We have placement opportunities with local, national and international Engineering companies. We provide support and guidance in applying for placements.

Placements are highly valued by prospective employers, helps with consolidating your understanding of mechanical engineering and gives you the opportunity to apply your knowledge in an industrial environment.

Students usually have to arrange their own accommodation during their placement year and will have to cover their own transport and living costs.

Previous students have gained placements with companies such as:

• Red Bull Racing
• Mercedes AMG HPP
• Nitron Racing Systems
• AP Racing Ltd
• Sahara Force India F1
• X-Trac Ltd
• Lotus F1
• Mercedes AMG Petronas
• Williams Grand Prix Engineering

We have an excellent record of graduates gaining full-time employment with their industrial placement-year company.

This module aims to provide you with a platform to delve deeply into a practical engineering issue, fostering a comprehensive understanding of real-world problem-solving. You will undertake a substantial project that goes beyond the scope of your previous coursework, allowing you to solidify your knowledge and hone the skills you've acquired during your studies.

Throughout the module, you will be required to meticulously document your project's journey, from its inception to its completion, in a comprehensive report. You'll learn to prepare effective project plans and Gantt charts, crucial tools for organising and executing the project in a systematic manner. Your ability to critically evaluate engineering practices through in-depth analysis of published literature will be nurtured. You'll also learn to apply a diverse range of both innovative and established techniques to address complex engineering problems, showcasing your problem-solving prowess.

This module is designed to equip you with a comprehensive understanding of the multifaceted challenges that intersect business, society, and sustainability. With a specific focus on the automotive, transport, and general engineering sectors, this module delves into critical topics such as project management, leadership, energy, environmental concerns, sustainable engineering, ethics, and social aspects of employment.

By the end of this module, you'll possess a holistic perspective on business practices and their impact on the triple bottom line: economic, social, and environmental aspects. You'll learn to craft effective business plans, making compelling arguments that incorporate sustainability principles, echoing the shift towards a circular economy.

This module is designed to provide you with a comprehensive grasp of both theoretical and practical aspects related to the critical components of vehicle dynamics: tyres, ride, and handling. Through a combination of theory and practical exercises, you will delve into various analyses and design considerations to understand the dynamic behaviour of vehicles.

By the end of this module, you will develop a critical understanding of the techniques required to analyse and assess the handling and ride qualities of an entire vehicle. Throughout the module, you will gain proficiency in using computer-based tools for vehicle dynamic analysis and design, enabling you to confidently prepare specifications for optimal vehicle performance. Additionally, you will be encouraged to explore and solve new vehicle dynamics problems independently, nurturing your ability to strategize solutions autonomously.

This module will cover the principles of mechanical engineering with the analysis, design, and selection of automotive powertrain systems and components. Through this module, you will delve into the intricate workings of powertrain systems, exploring their design, configuration, and influences, all while considering the thermodynamic and mechanical theories that underpin their suitability for various vehicle applications. Additionally, you will develop a comprehensive understanding of the various processes—chemical, dynamic, thermal, material, and economic—that impact powertrain performance and environmental sustainability.

On successful completion of this module, you will gain the ability to comprehensively evaluate engine performance using advanced dynamometer techniques. By evaluating these cutting-edge solutions, you will stay at the forefront of the field and be equipped to contribute to the development of innovative, efficient, and environmentally conscious powertrain systems.

In this module, you’ll dive into the intricate realm of ground vehicle aerodynamics, exploring how design impacts flow characteristics and performance. You’ll gain an understanding of the synergy between physical principles, experimental data, and software tools like Computational Fluid Dynamics (CFD).

By the end of this module, you will be able to adeptly assess and communicate the aerodynamic attributes and performance of ground vehicles. Additionally, you’ll skillfully employ experimental and simulation techniques to scrutinise aerodynamic characteristics. Moreover, you’ll interpret and communicate numerical simulation results.

This module is designed to take your prior knowledge to the next level, focusing on advanced vehicle performance topics crucial to the world of motorsport. You will delve into intricate subjects such as lap-time simulation, data acquisition, instrumentation, and telemetry.

At the end of this module, you will be adept at systematically grasping and applying advanced concepts related to motorsport vehicle performance. You'll harness your engineering knowledge to synthesise racing car performance, utilising computer simulations and mathematical models grounded in first principles. The ability to create accurate computer simulations of racing car lap times using specialised synthesis and modelling tools will be a key takeaway.

In this module, you’ll collaborate closely with research, industrial, or commercial partners for real-world project experience.

This module equips you to apply theory to real-world scenarios, solving intricate Mechanical and Automotive Engineering problems. You’ll develop advanced problem-solving skills, employ research methods, and embrace project management techniques. As a team, you’ll tackle complex challenges, critically analyse methods, and present innovative solutions that reflect industry standards and collaboration.

This module is designed to equip you with the essential management skills and knowledge necessary for success in the engineering industry. The focus lies on key areas such as project management, leadership, team building, motivation, and legal considerations. While the automotive and motorsports sectors are emphasised, the knowledge and skills gained are widely applicable across the broader engineering landscape.

Upon completion of this module, you will possess a comprehensive understanding of management practices vital in engineering contexts. You will develop a systematic comprehension of the prerequisites for crafting a successful business plan within engineering domains. Additionally, you will master the skill of presenting compelling business plans to potential stakeholders. This involves proposing well-reasoned strategies for organizations seeking industry funding.

This module focuses on electric drives within automotive powertrains. It provides a comprehensive understanding of both theoretical and practical aspects related to the design and operation of Electric Drives. You’ll delve into control strategies, hardware design, and control implementation in the context of electric powertrains.

By the end of this module, you will be adept at evaluating design methods and component selection for various Electric Drive systems. You’ll conduct comprehensive thermal analyses of both electrical and mechanical systems, effectively addressing design conflicts and constraints. Also, you’ll critically assess design methodologies and their practical application in automotive Electric Drives.

This module explores material, component, and structural responses to medium to high impact events in this module. Dive into crashworthiness design, testing, and modelling for motorsport and automotive vehicles, with a focus on using the Finite Element Method (FEM) to predict crash effects. The module establishes the theory behind explicit numerical modelling to assess the validity of numerical results.

By the end of this module, you'll exhibit a profound and methodical grasp of material behaviour, explicit FEM, and the design, manufacture, and testing of impact-resistant vehicles and structures. Your ability to select, evaluate, and justify manufacturing processes aligned with your design criteria will be evident. Additionally, you'll be able to critically appraise design concepts, handling incomplete or contradictory data with expertise.

This module is designed for postgraduate study and professional application. You’ll delve into the intricacies of race car performance, applying advanced computational and analytical methods to optimise racing outcomes.

By the end of this module, you will possess a profound understanding of race car performance synthesis. You’ll expertly select and apply suitable computational and analytical techniques for assessing race car performance. Additionally, you’ll create intricate computer simulations of race car lap times, utilising both technical information and wider literature to support your analysis of design parameters' impact on various racing formulas.