Advanced Motorsport Mechatronics MSc

• Clive Temple

As an introductory non-assessed module it sets the scene for the Advanced Motorsport Engineering MSc programme placing it in the context of motorsport engineering and the business behind it.

• The Advanced Motorsport Engineering MSc programme with reference to the key elements of the taught modules, the group design project and the individual thesis projects.
• History of motorsport and competition vehicle development.
• Competition vehicle categories.
• Sporting and technical regulations.
• Design of competition vehicles.
• Overview of the motorsport sector in the UK.
• Introduction to software packages related to motorsport engineering.

On successful completion of this module a student should be able to:

1. Distinguish the MSc courses in the context of motorsport engineering and the industry sector which underpins it.
2. Appraise the historical development of motorsport and competition vehicle evolution.
3. Assess categorisation of competition vehicles.
4. Debate the criticality of the technical and sporting regulations and what these mean to motorsport engineers.
5. Provide an overview of the motorsport sector in the UK.
6. Relate the use of a range of software packages to the context of the course

Provides an understanding of the electronic and data acquisition systems that are integral to the modern motorsport vehicle. Provides methodologies for the analysis and interpretation of the data acquired, and how this underpins all performance optimisation.

• An overview of competition data collection systems and their packaging
• Sensors, signal conditioning and information technology
• Data collection, collation and analysis

On successful completion of this module a student should be able to:

1. Examine the fundamental role electronic systems and acquired data have on and off vehicle throughout motorsport.
2. Design, evaluate and optimise data systems based on fundamental principles of electrical and digital information transfer.
3. Propose and apply suitable data analysis techniques to tackle particular engineering questions in a motorsport context.
4. analyse data in the context of vehicle dynamics resulting from your own configuration and calibration of instrumentation on a vehicle for a track test

• Dr James Brighton

To provide students with fundamental information on vehicle dynamics focussing on limit behaviour with explanations and derivations from first principles, using simplified physical models. To provide experience of a computer based dynamics simulation package of industrial standard, and to provide experimental exercises to illustrate major physical concepts.

• Minimum time optimisation
• Tyre shear force development, measurement and characterisation
• Suspension geometry description and analysis – important properties
• Steady turning equilibrium states; suspension/chassis interactions; roll angles, load transfers, jacking
• Yaw/sideslip handling dynamics; steady turn responses, understeer and oversteer; stability and controllability (a) small perturbations from straight running (b) small perturbations from cornering trim
• Limit behaviour and design aspects; differentials and brake balancing
• Simulation tools and model building
• Vibration behaviour of car and wheels; springs; dampers; track roughness and the use of electro-hydraulic shaker rigs for setup.

On successful completion of this module a student should be able to:

1. Appraise the performance limits of a competition vehicle and the sources of such limitations.
2. Evaluate the interactions of competition vehicle and participant and discuss intelligently the requirements on the competition vehicle from a controllability point of view.
3. Distinguish the complex relationships between competition vehicle design aspects and competition vehicle performance.
4. Examine simulation and optimisation methods for improving design and performance.

Across the complete range of ground vehicle domains, including powertrain and chassis electronics, the aim of this module is for students to evaluate the so called x-by-wire systems and to propose new solutions based on future requirements for higher levels of vehicle automation and safety by using more intelligent control systems.

• An introduction to automated driving and autonomous land vehicles
• Vehicle user interfaces and driver-automation collaboration
• Applications of artificial intelligence and machine learning in intelligent vehicle control systems
• Functional safety within vehicle control systems
• Vehicle steering control
• Vehicle chassis control systems and integration
• Electric and hybrid electric powertrain control systems
• Engine control
• Battery control and estimation for vehicle application

On successful completion of this module a student should be able to:

1. Critically evaluate the physical configuration of a vehicle sub-system and be able to formulate new control design solutions appropriate for integration within a vehicle.
2. Appraise a set of vehicle performance targets for higher levels of automation and safety, more energy conservation and less environmental impacts and be able to select the most appropriate control methods and design techniques to meet the vehicle specification.
3. Analyse and evaluate the applications of artificial intelligence and machine learning techniques in vehicle control architectures to improve the vehicle performance measures such as higher levels of automation and safety, more energy conservation and less environmental impacts.

• Clive Temple

To provide students with a series of learning activities during which they will acquire an understanding of how to apply management techniques to the context of motorsport and thus building an awareness of the specific management challenges faced in this sector. The course aims to encourage students to acquire skills in information gathering, the processing of information, analysis and communication and these skills will be assessed by group presentation and by written group assignment.

• The business environment in general
• The business context for motorsport organisations
• Managing motorsport businesses strategically
• Creating and sustaining competitive advantage in motorsport
• Commercial aspects of motorsport management
• Marketing and motorsport including branding, media and sponsorship
• Financing motorsport businesses and their on-going financial management.
• Project management and motorsport
• Managing technical knowledge and expertise in motorsport
• Technology transfer and opportunities for diversification.

On successful completion of this module a student should be able to:

1. Appraise the specific management challenges facing the motorsport sector.
2. Distinguish the motorsport environment and the influences on its development.
3. Assess the potential sources of competitive advantage for an organisation in the motorsport sector and the steps needed to both create and sustain such an advantage
4. Evaluate the particular issues relating to the commercial aspects of motorsport management. These would include raising and sustaining sponsorship, media relations, raising capital, diversification through technology transfer.
5. Examine the particular issues relating to the management of technical expertise and knowledge in motorsport and its exploitation.

• Clive Temple

To provide students with a series of learning activities during which they will acquire an understanding of the engineering principles on which engine design and development depend. Some activities will be classroom based, some reliant on group work and some requiring active learning by the student. The course aims to encourage students to acquire skills in information gathering, the processing of information, analysis and communication and these skills will be tested by written assignments.

• Gasoline engine performance characteristics: performance indices.
• Idealised thermodynamic cycles and the limits to ideal behaviour.
• Maximising power output using high engine speeds: thermo-fluid implications.
• Maximising the air/fuel charge in every cylinder: intake system design, supercharging & turbo-charging.
• Fuel systems, combustion control and engine management systems.
• Mechanical design of high performance two and four stroke petrol and diesel motorsport engines.
• The matching of engine, transmission and vehicle.
• The design of vehicle transmission systems.
• Hybrid and electric powertrains as used in motorsport

On successful completion of this module a student should be able to:

1. Test and evaluate the physical processes at work during the preparation of the fuel & air mixture and its eventual combustion and emission.
2. Debate with engineering practitioners the implications of high engine speeds on the mechanical and thermofluid behaviour of engines.
3. Evaluate the matching of engine, transmission and vehicle chassis for motorsport applications.
4. Appraise the operation of high performance vehicle transmission systems.
5. Examine hybridisation and electrification of motorsport powertrains.

• Dr Stefano Longo

• To provide a fundamental understanding of physical modelling applied to vehicles mechatronic systems.
• To introduce students to modelling techniques, from basic methodology to graphical modelling and practical viewpoints.
• To illustrate the role of first principle and data-driven modelling.

Course content includes:
• Introduction to mathematical modelling
• Modelling from first principle
• Newtonian and Lagrangian modelling
• Electric circuits and networks
• Modelling from data and system identification
• Modelling of delays
• Block diagram reduction
• Powertrain backward and forward modelling
• Modelling for vehicle dynamics and tyre-surface interaction
• Modelling with Matlab/Simulink

On successful completion of this module a student should be able to:

1. Compare and criticise the different analogies that can be made between all system dynamics.
2. Experiment with fundamental concepts of mechatronics systems to design simplified system dynamics models.
3. Evaluate and construct mechatronics models using state-space models derived from system identification, Newtonian equation and Lagrangian equations.
4. Construct state-space equations for the purpose of control system design.
5. Appraise mechatronics models and the simulations results obtained within the context of practical automotive design concepts, performance and constraints.

• Dr Daniel Auger

• To provide knowledge of advanced control engineering theory and techniques and their application to automotive control.
• To introduce students to the tools and methodology associated with multivariable control design techniques.
• To provide students with practical experience in designing and simulating advanced modern controllers within the context of multi-domain automotive systems.

The module will provide knowledge in advanced control design tools and techniques and advance analytical methods in designing multivariable controllers with applications in the automotive engineering area. The theory of the multivariable controls will be introduced and then their use will be illustrated and developed by example applications. The theory and applications will be interleaved with selected associated topics (listed below) as appropriate through the module.

The material will be addressed theoretically and practically: all lecture-based teaching will be supported by practical exercises using MATLAB and Simulink.

• Modelling multivariable systems
o Describing multivariable systems using state-space representations
o Using norms to describe the sizes and behaviours of signals and systems
o Modelling uncertainty, noise and nonlinearities
o The Nyquist stability criterion and robustness

• Using optimisation in multivariable control
o Representing feedback using state-space techniques
o Pole-placement techniques
o Optimal control using the Linear-Quadratic Regulator (LQR)
o Introduction to Model-Predictive Control (MPC)

• Estimator design
o Multivariable estimator design using pole-placement techniques
o Optimal estimator design for linear systems using the Kalman Filter
o Introduction to optimal control using Linear-Quadratic-Gaussian (LQG) techniques
o Introduction to nonlinear Kalman filtering techniques

• Neoclassical control
o SISO design using the Youla parameter technique
o Direct shaping of S(s) and T(s) and the associated stability criteria

• Robust control
o H∞ control methods: ‘mixed sensitivity’ and ‘H∞ loop-shaping’
o Estimating robust performance using the v-gap metric

• Reference conditioning using prefilters and two degree-of-freedom compensators (covered in outline only)

On successful completion of this module a student should be able to:
1. Create theoretical and computer models of multivariable automotive systems suitable for use in control design.
2. Apply different advanced control techniques to automotive control problems.
3. Design control algorithms for automotive systems using MATLAB and Simulink (commercial software packages).
4. Design state estimators for multivariable automotive control systems using established techniques.
5. Judge the suitability of a given control technique to a particular application in the context of automotive control.

• Dr Stefano Longo

Within the context of modern automotive control system, the aim of this module is for students to critically evaluate the different technologies and methods required for the efficient vehicle implementation, validation and verification of the automotive mechatronic system.

Course content includes:

• A review of modern automotive control hardware requirements and architectures
• The evaluation of current and future vehicle networking technologies including, CAN, LIN, MOST and Flex-ray
• The evaluation of control rapid prototyping techniques to design and calibrate the control algorithm
• The use of modern validation and verification methods, such as software-in-the-loop, and hardware-in-the-loop techniques
• The role of Functional Safety and ISO26262 within the overall control system life-cycle
• The evaluation of the interdependency between software engineering and control system design within the automotive industry including the use of software auto-coding techniques for production and the use of advanced test methods for the validation of safety-critical systems

On successful completion of this module a student should be able to:
1. Analyze the components of an automotive control systems and its implementation.
2. Design and implement a digital controller.
3. Evaluate the effect of sampling times, communication delays and quantization errors in a feedback loop.
4. Write efficient Matlab code for data coding/decoding and control algorithm implementation.
5. Interpret the purpose of the ISO26262 functional safety standard and the AUTOSAR standardized automotive software design.