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Group

Human Movement Analysis (HuMAn) Research Group

Unit(s) of assessment: English Language and Literature

Research theme(s): Health Innovation

Overview

The Human Movement Analysis (HuMAn) Research Group led by Dr. Paul Felton, conducts research in sport, physical activity, and health. The group brings together experts from diverse fields, including biomechanics, performance analysis, motor control, skill development, sports engineering, sociology, and physical activity promotion.

The group’s main goal is to understand how movement is influenced by a variety of factors, from physical impairments and prosthetic use to skill development, the demands of high-performance sport, and the social context of physical activity. Our research covers a broad range of populations, from young people to older adults, with a focus on improving performance, promoting health and physical activity, and advancing wearable technology, assistive devices, and prosthetics to enhance movement and overall quality of life.

To learn more about our research, discuss potential collaborations, or explore PhD opportunities, please contact Dr. Paul Felton (paul.felton@ntu.ac.uk) or any of the other Research Group members highlighted below. You can also follow our group on X, Bluesky, or LinkedIn to stay updated on our latest work, initiatives, and opportunities.

Group Focus

  • Optimising Human Movement: enhancing the performance of activities of daily living and sport movements and reducing injury risk through biomechanical analysis and performance monitoring.
  • Human Movement constraints: investigating how physical, cognitive, and environmental factors interact to shape human movement patterns, adaptability, and performance in both sport and daily life.
  • Performance Analysis of Sport: utilising a multidisciplinary approach to assessing and evaluating physical, technical, and tactical performance in a range of sports to optimise individuals and teams across age groups and competitive levels.
  • Equipment Design and Performance in Sport: focusing on improving sports equipment and assistive devices to enhance sporting performance, comfort, and reduce injury risk.
  • Assistive Devices and Wearable Technology for Health: understanding prosthetics, wearable devices and smart solutions to monitor and improve physical activity, rehabilitation, and quality of life.
  • Movement Variability and Adaptability: examining how variability in movement patterns influences performance, health, injury risk, and adaptability in activities of daily living and sport.
  • Musculoskeletal Health Across the Lifespan: analysing how musculoskeletal function impacts performance, injury risk, and healthy ageing across different populations.
  • Psychological and Sociocultural Factors in Sport: exploring how psychological, social, and cultural factors influence engagement, skill development, and performance in sport.

Our Postgraduate Students Projects

The aim of this project is to investigate the effects of PDAFO use on both a non-injured and patient population within the UK military. This series of studies will include an RCT comparing PDAFOs to an alternate orthosis as well as capturing long term use biomechanics and bone mineral density data. This knowledge base will allow better informed clinical prescriptions of this orthosis type.

This project aims to develop pit stop analysis system to identify biomechanical and physical characterises of pit crew athlete and their relationship to pit stop performance. The knowledge gained by this research could lead improvements in motorsport performance analysis and tailored training practices for the pit stop athlete.

This project aims to understand the user groups needs and investigate the performance of current products. This should provide recommendations to improve future products to ensure the user groups needs are met and to minimise the barriers pregnant and post-partum women face towards being physically active.

This project aims to develop and apply a forward-dynamics simulation model to investigate the effect of prosthetic shape and stiffness on the biomechanics of lower limb amputees. This understanding could provide more tailored and appropriate prosthetic prescription and subsequently improve the health and well-being of users of prostheses.

This project aims to develop our understanding of how minimalist footwear and textured or supportive insoles effect static and dynamic stability across young, middle and older aged adults. No research has previously assessed the effect of these footwear/insole technologies in combination across such a large age range. This work may inform footwear choice in adults to improve their balance and activities of daily life.

This project aims to investigate suitable methodologies to accurately discriminate between the dynamic balance abilities of golfers during golf strokes. This could enable an evaluation for the effectiveness of interventions, such as exercise or insoles, to provide better understanding of how they can aid golf performance.

This project aims to understand current training practices in elite field hockey, and how these can be improved to better reflect match demands, and reduce the risk of injury, using global positioning systems. This project will also be one of the first to determine match demands within indoor hockey using a local positioning system.

This project aims to investigate the biomechanical demands of deceleration within netball. This may be an isolated action, proceeding a change of direction, or involve a secondary task. This information could provide key insights for athletes, coaches and practitioners to effectively modify training for injury risk and performance.

This project aims to develop a multidimensional, user-centred monitoring system using sensor data to assess and track physical, psychological, and social aspects of Activities of Daily Living (ADL) in older adults, improving health outcomes and promoting independent living. This system could provide more tailored support for older adults living at home, allowing them to safely live independently for as long as possible.

This project aims to investigate how sedentary behaviour associated with less active lifestyles affects foot muscle strength, balance and fall risk in older adults. The findings aim to inform the development of targeted interventions to better support less active older adults and improve their quality of life.

Collaboration and Partners

Our researchers have worked with the following partners and collaborators:

Charity Partners

  • Age UK
  • u3a (University of the Third Age)

Funding Bodies

  • National Institute for Health and Care Research, UK
  • Engineering and Physical Sciences Research Council (EPSRC)
  • Biotechnology and Biological Sciences Research Council (BBSRC)
  • Promobilia Foundation, Sweden
  • Talented Athlete Scholarship Scheme (TASS)

Industry Partners and Collaborators

  • Blatchford Ltd
  • UKSI
  • England and Wales Cricket Board
  • British Canoeing
  • English Institute of Sport
  • Motorsport UK
  • Talented Athlete Scholarship Scheme (TASS)
  • Research to Improve Stair Climbing Safety (RISCS) - Liverpool John Moores University

Funding

The effect of prosthetic shape and stiffness on the biomechanics of lower limb prostheses users

This project aims to develop and apply a forward-dynamics simulation model to investigate the effect of prosthetic shape and stiffness on the biomechanics of lower limb amputees. This understanding could provide more tailored and appropriate prosthetic prescription and subsequently improve the health and well-being of users of prostheses.

Development and feasibility of an app-based bike fitting tool for improving comfort and reducing injury risk in older adult novice cyclists.

The aim of this project is to test the feasibility of using an AI driven app to set up bikes for older adults and determine whether this improves comfort. This knowledge could support improved adherence to cycling and rehabilitation exercises among older adults, leading to enhanced health and well-being.

Publications

All publications from researchers of the HuMAn Research Group can be found here.

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