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Submitting institution
St Mary's University, Twickenham
Unit of assessment
24 - Sport and Exercise Sciences, Leisure and Tourism
Summary impact type
Societal
Is this case study continued from a case study submitted in 2014?
Yes

1. Summary of the impact

Research from St Mary’s has enhanced understanding of how factors specific to females affect participation and performance in exercise and sport, with this knowledge successfully applied to educate and empower female exercisers. We have increased knowledge, altered attitudes and perceptions, and increased physical activity participation levels in female exercisers. Our research has been used by a sport apparel company to inform the design and development of a new product line of sports bras. Impact has been realised in elite performance environments, with the English Institute of Sport using our research on the menstrual cycle and breast health to inform strategic policy through its national SmartHER programme that has changed the practice of sport scientists and benefitted athletes. Our research on the menstrual cycle has also led to the development of the FitrWoman mobile Application that has contributed to the US Women’s National Team World Cup success and also benefitted recreational female exercisers. Our research is also benefitting sport medicine practitioners working with patients who present with menstrual cycle challenges.

2. Underpinning research

1.9 million fewer women and girls participate in sport each week than males ( Women in Sport). However, due to under-representation of women in sport and exercise science research there has been a lack of understanding of female-specific issues, and difficulty in the extrapolation of findings generated from predominantly male participants. The overarching aim of the research presented here was to increase understanding of female-specific health issues, and develop and disseminate effective, evidence-based strategies to enhance participation and performance of female athletes and exercisers.

Influence of the Breast and Breast Support on Female Health, Participation, and Performance in Sport and Exercise.

The influence of the breast is rarely considered when discussing female participation in sport and physical activity. To address this gap and to explore factors affecting adolescent females’ participation in sport and exercise, Brown undertook a survey study with > 2000 schoolgirls aged 11-18 years. This revealed that 46% reported that their breasts negatively affected their participation in sport and exercise. Over half (51%) said they never wore a sports bra for exercise, and the more breast concerns reported by girls the less they participated in exercise. However, 87% expressed a desire to know and understand more about breasts ( 3.1). This showed the effect that breasts can have on female participation in sport and exercise and highlighted the need for educational content on breasts for schoolgirls. Subsequently, an evidence-based breast education package was delivered to 375 adolescent girls and, using validated evaluation tools, identified improvements in breast knowledge, attitudes to breasts, and engagement with positive breast habits (including wearing a sports bra for exercise). Improvements were sustained when re-tested six months later and were significantly greater compared to 412 control participants who did not receive the breast education package ( 3.2).

Research conducted by Brown on adult female marathoners (n=1285) has identified that the influence of the breast on sport and exercise participation is not restricted to adolescent females. Brown found a third of marathoners experienced breast pain (mastalgia), with exercise the most prevalent factor in its occurrence. Of those reporting mastalgia, 17% said it negatively affected their exercise behaviour. Despite being so discomforting, almost half (44%) reported taking no measures to relieve or manage the symptoms ( 3.3). Although high numbers of female marathoners recognised the importance of sports bra use, 75% reported issues in relation to poor bra fit. Their use of professional bra fitting was low, as was participants’ perceived knowledge of breast health ( 3.4). It was suggested that sports bra design could be improved to manage consequences arising from poor fit, while females would benefit from educational materials on the importance of breast support and properly fitted sports bras.

Influence of the Menstrual Cycle on Female Health, Participation, and Performance in Sport and Exercise.

The menstrual cycle has received scant attention from sport and exercise science researchers; however, this is something our staff have addressed. Amenorrhea (absence of the menstrual cycle) has typically been the focus of research in this area, however Pedlar, Burden, and Brown demonstrated that heavy menstrual bleeding (also known as menorrhagia) is prevalent among recreational and elite athletes and is a risk factor for iron deficiency. Large cohorts of recreational (n=1073) and elite (n=90) runners were surveyed, and menorrhagia was identified in 36% and 37% of the respective cohorts and linked with a history of iron deficiency or anaemia ( 3.5). These were the first research studies to investigate and report menorrhagia in healthy women participating in sport. A meta-analysis undertaken by Burden and Pedlar provided evidence that iron treatments are effective in improving iron status and aerobic capacity of iron deficient athletes, where menorrhagia may be an underlying cause of the iron deficiency with associated impacts on performance and training schedules ( 3.6).

3. References to the research

3.1. Scurr, J., Brown, N., Smith, J., Brasher, A., Risius, D., & Marczyk, A. (2016). The influence of the breast on sport and exercise participation in schoolgirls in the UK. Journal of Adolescent Health, 58, 167-173. https://doi.org/10.1016/j.jadohealth.2015.10.005

3.2. Omrani, A., Wakefield-Scurr, J., Smith, J., Wadey, R., & Brown, N. (2020). Breast education improves adolescent girls’ breast knowledge, attitudes to breasts and engagement with positive breast habits. Frontiers in Public Health - Children and Health. https://doi.org/10.3389/fpubh.2020.591927

3.3. Brown, N., White, J., Brasher, A., & Scurr, J. (2014). The experience of breast pain (mastalgia) in female runners of the 2012 London Marathon and its effect on exercise behaviour. British Journal of Sports Medicine, 48, 320-325. http://dx.doi.org/10.1136/bjsports-2013-092175

3.4. Brown, N., White, J., Brasher, A., & Scurr, J. (2014). An investigation into breast support and sports bra use in female runners of the 2012 London Marathon. Journal of Sports Sciences, 32, 801-809. https://doi.org/10.1080/02640414.2013.844348

3.5. Bruinvels, G., Burden, R., Brown, N., Richards, T., & Pedlar, C. (2016). The prevalence and impact of heavy menstrual bleeding (menorrhagia) in elite and non-elite athletes. PLoS ONE. https://doi.org/10.1371/journal.pone.0149881

3.6. Burden, R. J., Morton, K., Richards, T., Whyte, G. P., & Pedlar, C. R. (2015). Is iron treatment beneficial in, iron-deficient but non-anaemic (IDNA) endurance athletes? A systematic review and meta-analysis. British Journal of Sports Medicine, 49, 1389-1397. http://dx.doi.org/10.1136/bjsports-2014-093624

4. Details of the impact

Improving knowledge and changing attitudes on factors affecting participation in sport and exercise among teenage girls

Based on her research showing how factors associated with, and concerns about, breasts negatively affected participation in sport and exercise (3.1), Brown and colleagues developed ‘ Treasure Your Chest’, an educational workshop that has been freely downloadable since May 2018. The ‘ Treasure Your Chest’ website and new resources were relaunched in 2020 and have been downloaded by 137 schools and organisations across England, Wales, and Scotland. The workshop comprises videos, activities and interactive tasks to empower girls to increase their breast knowledge, feel more confident talking about breasts, and make positive changes to their breast habits. During 2020 the ‘ Treasure Your Chest’ workshop was delivered to 408 schoolgirls aged 11-15 years. The workshop was scheduled to be delivered to over 1,000 schoolgirls, however school closures because of the COVID-19 pandemic meant this full schedule could not be delivered.

Following the workshop, 98% reported an increase in breast knowledge, 78% were more confident talking about their breasts, 90% reported more positive attitudes towards their breasts, and 97% wanted to make a positive change to their breast habits (e.g., check their bra fit, wear a sports bra when taking part in sports and exercise, and check for healthy breasts) ( 5.1). Those attending the workshop highlighted that it also made them feel more confident with their bodies when exercising ( 5.1). Teachers, assistant head teachers, wellbeing coordinators, and directors at schools that received the workshop have recognised benefits in their pupils following attendance at the workshop. Specifically, they have seen improvements in self-confidence and knowledge, with this increased knowledge having secondary benefits as the pupils have commented that they have shared their knowledge about the importance of a well-fitting bra and how to check for healthy breasts with family and friends ( 5.1). These school representatives confirmed they will recommend the workshop to colleagues at other schools and will be incorporating the materials within their school curriculum ( 5.1).

Development of a new sports bra and education concerning bra-fit

Recognising that teenage years are a critical time for females, when many drop out from sport (3.1), along with the impact of breast pain and bra-fit issues upon exercising females (3.3, 3.4), Brown’s research has been used by [text removed for publication], a sports apparel company, to inform design of a new sports bra. This company aims to encourage girls to participate in sport and reduce drop-out through the development of bespoke products and has used Brown’s research to inform the design and development of a new product line of sports bras that are specifically designed and engineered for teenage girls to help the company achieve its commercial aim ( 5.2).

The Women’s Sports Network is a not-for-profit organisation that works with the educational, commercial, and charity sectors, as well as national governing bodies. It combines a desire to educate, inform, and empower, along with the aim of increasing sport participation levels amongst women and girls. To help achieve this, they invited Brown to contribute her research (3.1) on breast health and bra-fit to inform their range of ‘MoJoManuals’. MoJoManuals are an educational resource to help girls overcome issues and barriers they face in sport and have been translated into multiple languages. More recently, MoJoManuals have been tailored to specific sports with the rowing version (ROWMoJo) containing breast specific advice and education, which has been distributed by Rowing Australia to every girls’ school in Australia that rows and adopted by World Rowing/FISA as part of their global initiative to get more girls rowing ( 5.3).

The ‘SmartHer’ Programme

Brown’s research on how breasts affect sport and exercise, as well as that by Pedlar and Burden investigating the influence of the menstrual cycle, have been used by the English Institute of Sport (EIS) to inform their nationwide SmartHER programme as part of their initiative to better support female athletes, enhance performance, and improve overall health and wellbeing. The EIS has used research from St Mary’s to provide better breast support to athletes and to adapt training and sport science techniques through an enhanced understanding of how the menstrual cycle affects athletes ( 5.4). SmartHER roadshows have been delivered to 102 athletes across 15 sports within the UK High Performance system. The SmartHER roadshows have also been delivered to coaches and sport science and medicine practitioners who work with the athletes; in total 122 staff from 25 different sports, including 30 coaches and 17 multi-disciplinary teams, have attended. As a result, sport science and medicine practitioners working within the EIS and sport national governing bodies have an enhanced knowledge base and can provide better informed and more impactful support to athletes ( 5.4). The ultimate beneficiaries are the female athletes, who now receive bespoke and evidence-informed coaching and sport medicine support to improve their training and performance ( 5.4). Collectively, this has enabled the EIS to create environments where female athletes can thrive and pursue world class performance ( 5.4).

Development of ‘FitrWoman’ Mobile Application

Research by Pedlar and Burden on the menstrual cycle and iron deficiency (3.5, 3.6) has been instrumental in the development by Orreco, a company specialising in sport- and data-science, of the FitrWoman mobile application which helps to optimise athletic performance ( 5.5). The App allows users to track their menstrual cycle and, using research findings from St Mary’s, to train smarter by providing personalised training and nutritional advice. The App has been downloaded in over 200 countries and has benefitted recreational users by facilitating improvements to diet and training through an enhanced understanding of their bodies ( 5.6). It has also been adopted by high performing teams and organisations, including the World Cup winning US Women’s National Soccer Team. Their team manager, Dawn Scott, testifies how research from St Mary’s on female physiology and menstrual bleeding greatly influenced her management and preparation of players in training and during tournaments, and was an important factor in their FIFA World Cup win. In her current role as the FA’s Senior Women’s Physical Performance Manager, the impact of St Mary’s research continues to be realised in enhancing physical programming, preparation, and coaching in women’s football ( 5.7).

Medical practitioners have benefitted from St Mary’s research on the menstrual cycle (3.5, 3.6) as they report greater awareness of the potential for heavy menstrual bleeding in female athletes. Where athletes present with these issues, medical practitioners use research findings from St Mary’s to ensure a more evidence-driven and individualised approach to address iron-deficiency ( 5.8, 5.9).

Collectively, the research from St Mary’s on female health and the menstrual cycle has been important in highlighting the gender gap in biomedical research, which has been recognised by the Wellcome Trust’s public engagement team. Based on this, the Wellcome Trust subsequently developed a new sports and health related project strategy focusing on the three Ms: Menstruation, Motherhood, and Menopause that is informed by the issues identified in research from St Mary’s (3.5, 3.6) ( 5.10).

5. Sources to corroborate the impact

5.1. a. Evaluation report of the ‘Treasure Your Chest’ intervention in schools and associated impact testimonials from school representatives: b. The Wellbeing Coordinator at International Community School, London; c. The Director of Pastoral Care and Assistant Head Teacher at St Angela’s Ursuline School; d. The Assistant Head Teacher at Waldegrave School; e. The Head of Year 9, Hoe Valley School).

5.2. Impact testimonial from [text removed for publication], Founder and CEO of [text removed for publication].

5.3. Impact testimonial from Paul Reynolds, Company Director at Women’s Sports Network.

5.4. Collection of impact testimonials from: a. The English Institute of Sport (Dr Craig Ranson, Director of Athlete Health at the English Institute of Sport; b. Laura Needham, Senior Physiologist for GB Triathlon and English Institute of Sport; c. Jess Varley, female athlete in an Olympic national governing body.

5.5. Impact testimonial from Dr Brian Moore, Founder and CEO of Orreco.

5.6. Reviews of the FitrWoman App by recreational exercisers.

5.7. Impact testimonial from Dawn Scott, ex-manager of US Women’s National Team and current Senior Women’s Physical Performance Manager at the F.A.

5.8. Impact testimonial from Dr Rebecca Robinson (Consultant in Sport and Exercise Medicine, Chief Medical Officer for British Canoeing, and Team Doctor for GB Boxing)

5.9. a. Links to online blogs from medical practitioners covering the recognition, diagnosis, investigation and management of heavy menstrual bleeding that cite research from St Mary’s; b. PDF of ( https://blogs.bmj.com/bjsm/2018/12/31/heavy-menstrual-bleeding-hmb-in-female-athletes-part-1-recognition-and-diagnosis/ and c. PDF of https://blogs.bmj.com/bjsm/2019/01/14/heavy-menstrual-bleeding-hmb-in-female-athletes-part-2-investigation-and-management/).

5.10. Impact testimonial from Lucy McDowell, Strategic Design and Innovation Manager, Wellcome Trust.

Submitting institution
St Mary's University, Twickenham
Unit of assessment
24 - Sport and Exercise Sciences, Leisure and Tourism
Summary impact type
Societal
Is this case study continued from a case study submitted in 2014?
No

1. Summary of the impact

Our research has realised significant and wide-reaching impact in the application of methods to both reduce risk of injury in sport and performance contexts and aid rehabilitation when injuries occur.

Application of Blood Flow Restriction Training for Rehabilitation from Injury in Sport and Clinical Settings

Research examining the application of Blood Flow Restriction Training (BFR) has informed development of organisational policy at national level by the English Institute of Sport (EIS) and assisted with the development of guidelines for the application of this technique by governing bodies such as the Football Association (FA), Rugby Football Union (RFU), Lawn Tennis Association (LTA), professional sports teams (e.g., Sport Lisboa e Benfica), sports medicine hospitals (e.g., Aspetar), and international professional associations (e.g., American Physical Therapy Association).

Our research has also informed the application of rehabilitation techniques by global medical training companies for their clinical rehabilitation programmes in the USA with the Department of Defense (DOD) and the National Aeronautics and Space Administration (NASA).

Monitoring Workload to Reduce Injury Risk

The England and Wales Cricket Board (ECB) and Royal Ballet Company both now employ methods to quantify and monitor workload to identify where there are increased levels of injury risk. In parallel, the ECB have seen reduced injury rates on international tours, whilst the Royal Ballet Company have altered rehearsal and performance schedules to reduce the risk of injury and manage the workload of dancers.

2. Underpinning research

The aim of the research in this impact case study was to develop evidence that could be applied to reduce injury risk and optimise performance, as well as providing an evidence-base to enhance the application of blood flow restriction training as a rehabilitation technique where serious injuries occur.

Application of Blood Flow Restriction Training for Rehabilitation from Injury

Where injuries occur that require the athlete or performer to cease engagement in the activity, Blood Flow Restriction (BFR) training is a rehabilitation technique which allows injured persons to regain strength and muscle mass whilst using light loads, which is often essential during rehabilitation from serious injury, since heavy loads cannot be tolerated. To investigate the level of understanding in the application of BFR training, data was collected from 250 clinicians and sport medicine practitioners around the world. It revealed that although BFR training was popular and widely practised, the level of understanding and method of application was inconsistent with published evidence ( 3.1). Subsequent experimental work has tested aspects of BFR training to inform its application. Using a randomised, crossover, counterbalanced design our research has demonstrated differences between BFR systems in the pressure they apply and, by recording perceptions of pain and exertion alongside the pressure applied by each system, our researchers were able to recommend that BFR cuffs which automatically adjust pressure during exercise are the most beneficial and safest for use in BFR training programmes ( 3.2). Further experimental research has provided evidence for the effectiveness of BFR as a tolerable and effective rehabilitation technique both in sporting and non-sporting groups. A randomised control trial in collaboration with University College London Hospitals NHS Foundation Trust found those undergoing anterior cruciate ligament reconstruction who received an eight-week BFR training intervention alongside standard prescribed rehabilitation methods demonstrated improved physical and functional outcomes whilst also reporting a reduction in pain compared to those receiving standard rehabilitation programmes only ( 3.3).

Reducing Risk of Injury

The importance of managing injury risk was illustrated by Tallent, who recorded injury data from 47 international cricketers over 32 months and showed the association between a team’s injury status and the outcome of international cricket matches and series. When less affected by injury the team were more likely to be successful ( 3.4). To reduce risk of injury through excessive workload, a non-invasive measure of workload was devised using individualised workload totals. Using this method, acute and chronic workload, along with measures of wellness, injury, and illness status, were recorded for five international tours over three years. Although extended periods of high workload were associated with injury risk, high acute workloads- especially rapid increases in acute workload- were most strongly associated with increased risk of injury ( 3.5). In a professional ballet company, workload monitoring has shown that professional dancers may perform 145 shows of 15 different productions across a season. Consequently, a measure of internal training load in professional classical ballet dancers has been developed and validated, which is valuable for effective periodisation of rehearsal schedules ( 3.6).

3. References to the research

3.1. Patterson S. D., & Brandner, C. (2018). The role of blood flow restriction training for applied practitioners: A questionnaire-based survey. Journal of Sports Sciences, 36, 123-130. https://doi.org/10.1080/02640414.2017.1284341

3.2. Hughes, L., Rosenblatt, B., Gissane, C., Paton, B., & Patterson, S. D. (2018). Interface pressure, perceptual, and mean arterial pressure responses to different blood flow restriction systems. Scandinavian Journal of Medicine and Science in Sports, 28, 1757-1765. https://doi.org/10.1111/sms.13092

3.3. Hughes, L., Rosenblatt, B., Haddad, F., Gissane, C., McCarthy, D., Clarke, T., Ferris, G., Dawes, J., Paton, B., & Patterson, S. D. (2019). Comparing the effectiveness of blood flow restriction and traditional heavy load resistance training in the post-surgery rehabilitation of anterior cruciate ligament reconstruction patients: a UK National Health Service randomised controlled trial. Sports Medicine, 49, 1787-1805. https://doi.org/10.1007/s40279-019-01137-2

3.4. Tallent, J., de Weymarn, C., Ahmun, R., & Jones, T. W. (2020). The impact of all-rounders and team injury status on match and series success in international cricket. Journal of Sports Sciences. https://doi.org/10.1080/02640414.2020.1798721

3.5. Ahmun, R., McCaig, S., Tallent, J., Williams, S., & Gabbett, T. (2019). Association of daily workload and wellness, injury and illness during competitive tours in international age group cricket. International Sports Physiology and Performance, 14, 369-377. https://doi.org/10.1123/ijspp.2018-0315

3.6. Shaw, J. W., Springham, M., Brown, D. D., Mattiussi, A. M., Pedlar, C. R., & Tallent, J. (2020). The validity of the session rating of perceived exertion method for measuring internal training load in professional classical ballet dancers. Frontiers in Physiology, https://doi.org/10.3389/fphys.2020.00480

Research Grants and Research Funding

  1. Dr Stephen Patterson. Post-doctoral research funding into blood flow restriction training. Delfi Medical, Canada. 2019-2021. £92,000.

  2. Dr Stephen Patterson. In-kind equipment donation. Delfi Medical, Canada. 2018-2020. £30,000.

  3. Dr Stephen Patterson. In-kind equipment donation. Delfi Medical, Canada. 2016-2018. £11,000.

  4. Dr Charles Pedlar, Dr Jamie Tallent, Mr Matt Springham. Workload and injury monitoring in professional dance. Royal Ballet Company. 2018-2021. £412,000.

  5. Dr Chris Steer, Dr Charles Pedlar. Ballet movement detection feasibility for overuse injury modelling within Royal Ballet School training programmes. Models to Decisions (M2DER006). 2018-2019. £6,000.

4. Details of the impact

Application of Blood Flow Restriction Training for Rehabilitation from Injury

Based on our research showing that application of BFR training was inconsistent and often misaligned with research evidence (3.1), organisations have seen the importance of policy to guide its use. The English Institute of Sport (EIS), which is the largest single provider of science, medicine, technology, and engineering services within the sport sector to Olympic and Paralympic sports in the UK, have collaborated with Patterson and Hughes to write their first ever policy on BFR training ( 5.1). The policy ensures that all EIS clinical practitioners, across each of its nine sites, are using the same guidelines, and has helped the organisation realise a higher quality and more consistent application of BFR training. The EIS has benefitted by enhancing its risk screening processes and use of methods to determine limb occlusion and training pressures ( 5.1). Practitioners at the EIS now individualise all limb occlusion pressures, in the position of the chosen exercise, and have revised their screening processes based on recommendations from our research (3.1, 3.2) ( 5.1).

Based on his empirical findings concerning the use of BFR training, Patterson brought together researchers from around the world to write the world’s first set of guidelines that outlined recommendations for methodology, application and safety when using BFR training. National governing bodies, including the Football Association (FA), Rugby Football Union (RFU), and Lawn Tennis Association (LTA), have used our empirical research findings outlined in Sections 2 and 3 as well as Patterson’s collective guidelines to inform their application of BFR training. The RFU invited Patterson to present at a performance services meeting in 2015 to advise on how BFR training could be implemented within the structures of England Rugby and, more recently, Hughes delivered an invited presentation to advise on the application of BFR training in the Rugby 7s set-up. England men’s and women’s Rugby 7s now implement BFR training in rehabilitation programmes for all injured players to recover muscle and strength losses. The research informs practice to reduce pain (3.3), to select the appropriate cuff pressures (3.2), and to inform the choice and schedule of exercises (3.3), with all aspects underpinned by Patterson’s collective guidelines for the application of BFR training ( 5.2). Similarly, the FA now incorporate BFR into rehabilitation programmes for all players recovering from injury. Using our research, the FA’s rehabilitation team at St George’s Park have a greater understanding of how to best apply BFR and have particularly benefitted from research on implementing BFR training with those suffering ACL injuries (3.3) ( 5.2). The LTA also now employ BFR training as part of their therapy, rehabilitation, and strength and conditioning services to British tennis players, with their guidelines also informed by Patterson’s research findings and recommendations ( 5.2).

Our research has also informed practice at professional sports teams. Patterson delivered an invited workshop on BFR training to Sporting Lisboa Benfica, following which their Human Performance Department incorporated BFR training in its rehabilitation strategy for injured players. Practitioners at the club use Patterson’s recommended guidelines to direct the application of BFR training, with research in populations suffering ACL injury (3.3) being especially informative ( 5.3). The Aspetar Orthopaedic and Sports Medicine Hospital, Doha, Qatar, has also benefitted particularly from our research on applying BFR for rehabilitation post-ACL surgery. The hospital is the largest in the Middle East, providing inpatient and outpatient care to all registered and professional athletes in the country, and it conducts over 400 ACL surgeries each year. Their rehabilitation pathway for those undergoing these surgeries now incorporates BFR training that is informed by Patterson’s research and guidelines (3.3) ( 5.4).

The American Physical Therapy Association (APTA) represents over 100,000 physical therapists and seeks to improve health and quality of life through the application of education and research. Using Patterson’s research findings and associated recommendations, APTA have adopted the use of BFR training in their scope of practice for the first time in their 99-year history. All APTA members who include BFR training in their practice are directed to guidelines on its use written by Patterson ( 5.5).

The impact of our research on BFR training has translated beyond sport. Owens Recovery Science Inc. is a company specialising in BFR training in clinical settings. They have used Patterson’s research evidence and guidelines on BFR use to form the core of their global medical training programme, which is used by their 5,378 trained medical providers around the world who perform an estimated 3.5 million BFR training sessions annually. Recommendations from Patterson’s research form the foundation of training programmes offered by Owens Recovery Science, which are delivered to some of the largest healthcare systems in the USA and provide clinical rehabilitation to NASA, the USA Olympic Team, and sports teams across the National Basketball Association (NBA), National Football League (NFL), National Hockey League (NHL), and Major League Soccer (MLS). BFR training, informed by Patterson’s research, is now on workers’ compensation in every professional sports league in the USA. Owens Recovery Science have also used Patterson’s research (3.1, 3.2, 3.3) to inform their use of BFR training to aid recovery from lower limb trauma in military personnel and cite the research as having a major impact on the way lower limb trauma is treated. The lower limb was the most injured body region of US soldiers during conflicts in Afghanistan and Iraq, and Owens Recovery Science have used Patterson’s research on BFR training to restore calf strength and lower limb blood flow to make crucial advances in their limb salvage programme. BFR training, using Patterson’s guidelines is now used throughout the Department of Defense (DOD) and includes every major military treatment facility and Special Operations base ( 5.6).

Monitoring Workload to Reduce Injury Risk and Optimise Performance

Tallent’s research has been influential in shaping the practice of sport scientists and strength and conditioning coaches in professional cricket, with impact realised at domestic, national, and international levels. The England and Wales Cricket Board (ECB), as the national governing body for cricket, have adopted the workload monitoring methods that were devised by Tallent and colleagues (3.5). With accompanying findings relating workload to injury occurrence, and team injury status being associated with likelihood of match and tour success (3.4), the ECB now monitor, record, and manage workload of their players to reduce injury risk. Since applying Tallent’s research findings to monitor and manage workload, there has been a reduction in injury rates of England players on international tours, with Tallent’s research acknowledged as “undoubtedly contributing to England’s team success” in international series and tours ( 5.7). The ECB are also responsible for developing best practice of strength and conditioning coaches working in domestic county cricket and have disseminated Tallent’s research findings on workload monitoring, injury, and performance to over 40 coaches who support over 300 professional cricketers and thousands of youth players ( 5.7), meaning impact has been realised domestically as well as nationally and internationally. County cricket coaches acknowledge the impact of Tallent’s research in their practice ( 5.8). Coaches monitor and record workload to ensure players are not overloaded and placed at undue risk of injury and to maximise their performance potential- employing specific strategies such as player rotation to realise this ( 5.8). As with the national team, county cricket coaches identify Tallent’s research as contributing to improved performance of players and team successes as well as stating that Tallent’s research has improved health and wellbeing of players ( 5.8).

The validated method to assess training load in ballet dancers (3.6) has been adopted by The Royal Ballet Company at The Royal Opera House who employ over 100 professional dancers. With similarity to the example of professional cricket outlined above, this means their practitioners have increased knowledge and understanding of the workload accumulated by their dancers. This knowledge is being employed to reduce risk of injury to dancers and optimise their performance effectiveness. Specifically, data collected is being used to inform how rehearsals and performances can be best scheduled to manage dancers’ workload and lessen risk of injury. Practitioners within the healthcare team are now able to gain an accurate picture of class and rehearsal intensity as well as quantify individualised accumulated workloads, meaning training schedules can be managed at an individual level to a) reduce risk of injury, b) ensure each dancer is optimally prepared for performance, and c) make it easier to graduate a return to dance post-injury. Further, using epidemiology research from St Mary’s, the Royal Ballet Company have identified common sites and mechanisms of injury in their dancers which has led to the development and application of targeted injury prevention programmes ( 5.9).

5. Sources to corroborate the impact

5.1. a. Testimonial from Toby Smith, MSc, MMACP, Technical Lead Physiotherapist at the EIS, and b. The English Institute of Sport’s blood flow restriction training policy.

5.2. Collection of testimonials from national sporting governing bodies a. RFU, Remi Mobed, Performance Lead of England Men’s Rugby 7s, and Ben Lonergan, Head of Strength and Conditioning of England Women’s Rugby 7s; b. Dr Ben Rosenblatt, Lead Physical Performance Coach for the F.A.; c. Dan Lewindon, Head of Performance Science & Medicine for the LTA and British Tennis.

5.3. Testimonial from Dr Joao Viana, Coordinator of Knowledge and Innovation in the Human Performance Department at Sport Lisboa e Benfica.

5.4. Testimonial from Dr Paul Read, clinical research scientist and Head of Clinical Research at Aspetar Orthopaedic and Sports Medicine Hospital, Doha, Qatar.

5.5. http://www.apta.org/patientcare/bloodflowrestrictiontraining/ Website of the American Physical Therapy Association outlining their inclusion of blood flow restriction training as part of the professional scope of practice for physical therapists and directing physical therapists to guidelines written by Dr Patterson.

5.6. Testimonial from Jonny Owens, CEO and Director of Clinical Education at Owens Recovery Science Inc.

5.7. Testimonial from Rob Ahmun, Lead S& C, England & Wales Cricket Board.

5.8. Collection of impact testimonials from County Cricket coaches (John Sadler, Assistant Head Coach, Northamptonshire CCC; Jack Murfin, Head of S&C, Warwickshire CCC)

5.9. Testimonial from Shane Kelly, Clinical Director at Royal Ballet Company, The Royal Opera House.

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