ACADEMIC CAPABILITIES

Nottingham University

Human Factors Research Group

Overview

The Human Factors Research Group (HFRG) is a multidisciplinary, world-leading team comprising of specialists in: cognitive, physical and environmental ergonomics; architecture; urban design; building physics; psychophysics; psychology; engineering; computer science; and product design.

RTS PRIORITY AREAS

Centres of Excellence / Research Groups

Centre for Rail Human Factors

Test facilities

  • dynamic captive test platform #; 120 m roof top truthing test track (train travels at 7 km/h) #; precision location system calibration #; multi-signal collection and integration #; interference assessment.

  • full-scale 3-sleeper rig with automated tamping facility #; Large Triaxial Test rigs #; numerous smaller-scale ballast testing facilities.

  • The dedicated laboratory space (1750 m2) #; prototype electrical machine manufacture #; facilities for power device packaging #; dedicated electronic supplies #; emulation of variable frequency generation systems (up to 270 kW) #; dynamometers (800 kW at 1500 rpm to 49 kW at 120,000 rpm) #; €2M HVDC laboratory for the demonstration of Smart Energy Control and DC Grid Technology (Alstom Grid Centre of Excellence in VSC-HVDC) #; Proof-of-concept demonstrators

  • National Centre of Excellence test facilities #; composite modelling #; manufacture #; mechanical testing #; inspection #; measurement

  • €1.5M immersive transport simulation laboratory #; hi-fidelity train cab simulators #; Usability and Ergonomics Laboratory

  • Mode stirred chamber#; GTEM Cell#; Anechoic chamber#; 3D EM field scanner (2 independently moving probes)

Research themes

Topic: Geomechanics
Summary:

Expertise includes constitutive and numerical modelling, micro-mechanics, shakedown theory, particle fracture and laboratory testing, means the centre is uniquely placed to apply its expertise to the solution of transportation geotechnics problems.
A large Railway Test Facility has been designed and commissioned for the repeated loading of full-sized sleepers embedded in ballast over subgrade. A variety of ballasts, including those reinforced with geogrids, are studied using it. Discrete element modelling is used to complement the research and provide insight into material behaviour. The Facility has been upgraded as part of the EPSRC Track 21 Project to study the effect of sleeper type, reinforcement, ballast type and the use of under-sleeper pads on performance.

A bespoke large triaxial system is used for testing ballasts under a range of stress conditions. Laboratory wheel-tracking tests on model pavements have been used to gain data on the permanent deformation of pavements and railway foundations.

Project examples: EPSRC Track 21 Project: Railway Track for the 21st Century.
Topic: Risk and Reliability Engineering
Summary:

The centre is dedicated to conducting research into developing modelling techniques to predict ways of improving the design, maintenance and operation of engineering systems in order to reduce the frequency and consequences of failure. It is also committed to providing education in risk and reliability methods

We aim to produce models which predict the deterioration mechanisms and rates for the diverse range of assets which make up a modern railway system. These include the track, signalling systems, electrification systems, and communications systems, in addition to the civil structures such as bridges, tunnels and earthworks. Once the asset deterioration processes are understood, models can be produced which integrate the degradation with the effects of the possible interventions. By embedding the resulting asset state models into an optimisation framework the selection of intervention activities and the time at which they are performed can be predicted to minimise whole life costs.

Project examples: Track maintenance decision making, Railway bridge asset management , Next Generation Prediction Methodologies and Tools for System Safety Analysis, Intelligent prognostics and Health management in Composite structures
Topic: Electromagnetic
Summary:

Capabilities include the measurement and characterisation of fields and the development of advanced simulation software. These can be uses in a number of contexts including wired communication channels and next generation wireless technologies (5G and on-chip)

Project examples: ACCREDIT, ICENITE, intelligent Sustainable Environments for 6G Wireless Networks*ACCREDIT, ICENITE, intelligent Sustainable Environments for 6G Wireless Networks,
Topic: Electrification
Summary:

Capabilities include Reliability and health management of electrical systems: Technologies and methodologies, Energy Management: Smart grids expertise and energy storage and Power Conversion: Power device packaging and integration. These capabilities will help to meet challenges such as adopting smart grid technologies and improving electrification protection and control. Our Heat Transfer Research Group undertakes research on heating, ventilation, air-conditioning, refrigeration and heat transfer encountered in trains. We also have a growing capability in the traction sector working with a number of industrial partners

Project examples: Alstom Grid Centre of Excellence, Cummins Innovation Centre, DER Midlands Innovation Centre*Alstom Grid Centre of Excellence, Cummins Innovation Centre, DER Midlands Innovation Centre,
Topic: Light Weighting
Summary:

The Polymer Composites Research Group at Nottingham is one of the leading international research groups in the field of processing and performance of polymer matrix composites, having expertise in both thermoset and thermoplastic matrices. The group conducts fundamental and applied research on manufacture and performance of advanced fibre reinforced composites. The group is also the coordinator of the EPSRC Innovative Manufacturing Research Centre in Composite Materials.

All these technologies are relevant for light-weighting solutions to railway carriages or sub-assemblies, where heavy metallic components can be replaced with lighter composite materials. New manufacturing techniques can allow unit costs to be more competitive and new materials and advanced structures can provide opportunities to integrate other functionality into the design. The group has active collaborations with a large number of companies across the transport sector and sees considerable scope to apply these techniques to the rail sector.

Project examples: Advanced Composite Integrated Structure, Fire Resistant Biocomposites for low environmental impact mass transit, ProPound, The Design of a Lightweight Composite Railway Axle
Topic: Human Factors
Summary:

The Centre for Rail Human Factors and the Horizon Digital Economy Hub are uniquely placed to help the rail industry improve the customer experience and enhance information provided to passengers, engineers and controllers to help them make the right decisions for their journey, work scheduling and planning. From assisting partners to understand the information needs of end-users through to visualisation of data and personalisation, Nottingham’s experts have a wealth of experience in rail industry research.

Alongside our research on enhancing the customer experience, the Centres work includes areas such as workload assessment, situation awareness, and safety critical communication. The group has access to a rail simulator facility in the University which is augmented by our field based studies. Our expertise in network control, both passenger and public behaviour can be applied to a range of challenges, including driver behaviour and reactions to signalling.

Project examples: ECOTRAX, Human Factors in rail Engineering, Dynamic Light for wayfinding and managing passenger flows at stations, Testing of seat comfort
Topic: Scheduling
Summary:

The Automated Scheduling, Optimisation and Planning (ASAP) research group carries out multi-disciplinary research into mathematical models and algorithms for a variety of real world optimisation problems.

Capabilities include;
Modelling the complexity and uncertainty inherent in complex, real-world problems across a wide range of application areas including airport optimization, network routing, personnel scheduling, production scheduling/rescheduling, public transport optimization, space allocation, transportation logistics optimization and vehicle routing.

Project examples: OPTIMISED, Value Enhacement for Data from Assets and Transactions (VEDAT), Automated Intelligent Decision Support Using Hyper-Heuristics
Topic: Control, Command and Communication
Summary:

The Nottingham Geospatial Institute (NGI) is one of the world’s largest academic centres in the field of navigation, sensor integration and data dissemination and display.

Our expertise can assist in maximising the efficient movement of passengers and freight on the railway, via accurate real-time train position data.
Areas of expertise include: Navigation Guidance and Control, GPS, future satellite systems (including Galileo), Inertial Navigation Systems, optimised position orientation, and integration with awareness of rail requirements.

Key Competencies:
GNSS (GPS and Galileo), Independent simulation and testing of GNSS and other positioning systems, Fixed test-track for system testing and research and development, Applications of GNSS positioning and navigation in the transport sector, Coordinate systems and map projection expertise, Precise deformation monitoring, Remote measurement techniques (such as airborne, terrestrial and satellite photogrammetry and remote sensing)

Project examples:

Fact File (2019-20)

33 Research staff
78 PhD students
45 Masters students
9 grants awarded for a total value of £3.281m
24 papers published

Capability matrix

From training engineers to developing world-leading technologies, BCRRE collaborate with industry and academia to drive UK and global rail innovation.
CAPABILITY
CAPABILITY LEVEL
Infrastructure
Electrification
Track Design and Components
Structures
Earthworks and geotechnics
Control, command and signalling
Communication networks and technologies
Station design
Depots / yards
infrastructure testing
Condition monitoring and inspection
Asset management
Maintenance
Station Design for Security
Rolling Stock
Component design
Structures and crashworthiness
Testing
Maintenance
Condition monitoring and inspection
Asset management
Comfort / ride quality
Traction / train borne energy
Onboard IT
Train control and onboard diagnosis
Fire performance
Braking systems
Light Weighting
Operations
Train control and signalling
Level crossings / road-rail interfaces
Traffic management
Timetable optimisation
Revenue management
Telematics / data structures
Customer services for passengers
Customer services for freight
Safety management
Security management
Station management
Other
Technical systems integration and interaction
Aerodynamics
Noise and vibration
Electromagnetic Compatibility
Pantograph catenary interaction
3rd rail collector shoe interaction
Wheel rail interface
Vehicle track dynamics
Whole system design and modelling
Whole system reliability
Cross-system technologies
Other
Weather and climate change
Adaptation to climate change
Extreme temperatures
Flooding
Extreme precipitation
High winds
Met Office Collaboration, and De-icing Switches and Third Rail
Human Factors
Human performance
Selection and training
Health
Human reliability
Job design
Environmental design
Attitudes and behaviours
Safety in Rail
Policy and decision making
Risk evaluation and assessment
Interoperability
Economic analysis and evaluation
Sustainable development
Enabling Innovation
Market research
Social dynamics of transport
Commercial dynamics of transport
Legal and regulatory frameworks
Other

Education and Professional Development

Undergraduate Courses

Civil Engineering B.Eng

Manufacturing Engineering (with optional year in Industry) B.Eng

Electrical Engineering and Renewable Energy Systems B.Eng

Postgraduate Courses

Civil Engineering: Structural Engineering MSc

Civil Engineering MSc

Engineering Surveying with Geographical Information Science MSC

Human Factors and Ergonomics MSC

Power Electronics and Drives MSc

PhD opportunitiesYes

Continuing Professional Development (CPD) Courses

Tailored CDP courses by subject, with various lengths.

Location key contacts

Name: Brendan Ryan, Associate Professor Faculty of Engineering
Email: brendan.ryan@nottingham.ac.uk

Website

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