Modifiable (biomechanical and neuromuscular) anterior cruciate ligament (ACL) injury risk factors have been identified in laboratory settings. These risk factors were subsequently used in ACL injury prevention measures. Due to the lack of ecological validity, the use of on-field data in the ACL injury risk screening is increasingly advocated. Though, the kinematic differences between laboratory and on-field settings have never been investigated. The aim of the present study was to investigate the lower-limb kinematics of female footballers during agility movements performed both in laboratory and football field environments. Twenty-eight healthy young female talented football (soccer) players (14.9 ± 0.9 years) participated. Lower-limb joint kinematics was collected through wearable inertial sensors (Xsens Link) in three conditions: (1) laboratory setting during unanticipated sidestep cutting at 40-50°; on the football pitch (2) football-specific exercises (F-EX) and (3) football games (F-GAME). A hierarchical two-level random effect model in Statistical Parametric Mapping was used to compare joint kinematics among the conditions. Waveform consistency was investigated through Pearson's correlation coefficient and standardized z-score vector. In-lab kinematics differed from the on-field ones, while the latter were similar in overall shape and peaks. Lower sagittal plane range of motion, greater ankle eversion, and pelvic rotation were found for on-field kinematics (p < 0.044). The largest differences were found during landing and weight acceptance. The biomechanical differences between lab and field settings suggest the application of context-related adaptations in female footballers and have implications in ACL injury prevention strategies. Highlights: Talented youth female football players showed kinematical differences between the lab condition and the on-field ones, thus adopting a context-related motor strategy. Lower sagittal plane range of motion, greater ankle eversion, and pelvic rotation were found on the field. Such differences pertain to the ACL injury mechanism and prevention strategies. Preventative training should support the adoption of non-linear motor learning to stimulate greater self-organization and adaptability. It is recommended to test football players in an ecological environment to improve subsequent primary ACL injury prevention programmes.
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Over the last decade, sport and physical activity have become increasingly recognised and implemented as tools to foster social cohesion in neighbourhoods, cities and communities around Europe. As a result, numerous programmes have emerged that attempt to enhance social cohesion through a variety of sport-based approaches (Moustakas, Sanders, Schlenker, & Robrade, 2021; Svensson & Woods, 2017). However, despite this boom in sport and social cohesion, current definitions and understandings of social cohesion rarely take into account the needs, expectations or views of practitioners, stakeholders and, especially, participants on the ground (Raw, Sherry, & Rowe, 2021). Yet, to truly foster broad social outcomes like social cohesion, there is increasing recognition that programmes must move beyond interventions that only focus on the individual level, and instead find ways to work with and engage a wide array of stakeholders and organisations (Hartmann & Kwauk, 2011; Moustakas, 2022). In turn, this allows programmes to respond to community needs, foster engagement, deliver more sustainable outcomes, and work at both the individual and institutional levels. The Living Lab concept - which is distinguished by multi-stakeholder involvement, user engagement, innovation and co-creation within a real-life setting - provides an innovative approach to help achieve these goals. More formally, Living Labs have been defined as “user-centred, open innovation ecosystems based on a systematic user co-creation approach, integrating research and innovation processes in real-life communities and settings” (European Network of Living Labs, 2021). Thus, this can be a powerful approach to engage a wide array of stakeholders, and create interventions that are responsive to community needs. As such, the Sport for Social Cohesion Lab (SSCL) project was conceived to implement a Living Lab approach within five sport for social cohesion programmes in four different European countries. This approach was chosen to help programmes directly engage programme participants, generate understanding of the elements that promote social cohesion in a sport setting and to co-create activities and tools to explore, support and understand social cohesion within these communities. The following toolkit reflects our multi-national experiences designing and implementing Living Labs across these various contexts. Our partners represent a variety of settings, from schools to community-based organisations, and together these experiences can provide valuable insights to other sport (and non-sport) organisations wishing to implement a Living Lab approach within their contexts and programmes. Thus, practitioners and implementers of community-based programmes should be understood as the immediate target group of this toolkit, though the insights and reflections included here can be of relevance for any individual or organisation seeking to use more participatory approaches within their work. In particular, in the coming sections, this toolkit will define the Living Lab concept more precisely, suggest some steps to launch a Living Lab, and offer insights on how to implement the different components of a Living Lab.
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poster voor de EuSoMII Annual Meeting in Pisa, Italië in oktober 2023. PURPOSE & LEARNING OBJECTIVE Artificial Intelligence (AI) technologies are gaining popularity for their ability to autonomously perform tasks and mimic human reasoning [1, 2]. Especially within the medical industry, the implementation of AI solutions has seen an increasing pace [3]. However, the field of radiology is not yet transformed with the promised value of AI, as knowledge on the effective use and implementation of AI is falling behind due to a number of causes: 1) Reactive/passive modes of learning are dominant 2) Existing developments are fragmented 3) Lack of expertise and differing perspectives 4) Lack of effective learning space Learning communities can help overcome these problems and address the complexities that come with human-technology configurations [4]. As the impact of a technology is dependent on its social management and implementation processes [5], our research question then becomes: How do we design, configure, and manage a Learning Community to maximize the impact of AI solutions in medicine?
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De 2SHIFT SPRONG-groep is een samenwerkingsverband van HAN University of Applied Sciences en Fontys Hogescholen. Onze ambitie is het vergroten van eerlijke kansen op gezond leven. Dit doen we door het vormgeven en versterken van gemeenschappen als fundament voor het creëren van eerlijke kansen op gezond leven. Vanuit deze gemeenschappen wordt in co-creatie gewerkt aan structuur (i.e. systeem), sociale en technologische innovaties. Deze ambitie sluit aan bij de centrale missie KIA Gezondheid en Zorg om bij te dragen aan goede gezondheid en het verkleinen van sociaaleconomische gezondheidsverschillen. Ook draagt het bij aan deelmissie 1. het voorkomen van ziekte, waarbij wij uitgaan van het concept Positieve Gezondheid en Leefomgeving. Én het zorgt voor het verplaatsen van ondersteuning en zorg naar de leefomgeving (deelmissie 2), doordat gemeenschappen hiervoor een stevig fundament vormen. De gemeenschap is geoperationaliseerd als een samenwerking tussen inwonersinitiatieven (i.e. informele actoren) én professionals vanuit wonen, welzijn, zorg en gemeenten (i.e. formele actoren) die bestuurlijk en beleidsmatig worden ondersteund. Toenemend wordt een belangrijke rol en meer verantwoordelijkheid toebedeeld aan inwoners en wordt de noodzaak van sectoroverstijgende, inclusieve samenwerking tussen deze actoren in lokale fieldlabs benadrukt. 2SHIFT start daarom in vier fieldlabs: twee dorpen en twee wijken in (midden-)stedelijke gebieden, waar in vergelijking met groot-stedelijk gebied (zoals Amsterdam, Rotterdam, Den Haag en Utrecht) andere dynamieken en mechanismen een rol spelen bij het creëren van eerlijke kansen op een gezond leven. Om impact in onderwijs en praktijk te realiseren werken we nauw samen met studenten, docenten én met inwoners, professionals, bestuurders en beleidsmakers uit wonen, welzijn, zorg en gemeenten én landelijke kennispartners (“quadruple helix”). 2SHIFT brengt transdisciplinaire expertise én verschillende onderzoeksparadigma’s samen in een Learning Community (LC), waarin bestaande kennis en nieuwe kennis wordt samengebracht en ontwikkeld. Over 8 jaar is 2SHIFT een (inter)nationaal erkende onderzoeksgroep die het verschil maakt.
Recycling of plastics plays an important role to reach a climate neutral industry. To come to a sustainable circular use of materials, it is important that recycled plastics can be used for comparable (or ugraded) applications as their original use. QuinLyte innovated a material that can reach this goal. SmartAgain® is a material that is obtained by recycling of high-barrier multilayer films and which maintains its properties after mechanical recycling. It opens the door for many applications, of which the production of a scoliosis brace is a typical example from the medical field. Scoliosis is a sideways curvature of the spine and wearing an orthopedic brace is the common non-invasive treatment to reduce the likelihood of spinal fusion surgery later. The traditional way to make such brace is inaccurate, messy, time- and money-consuming. Because of its nearly unlimited design freedom, 3D FDM-printing is regarded as the ultimate sustainable technique for producing such brace. From a materials point of view, SmartAgain® has the good fit with the mechanical property requirements of scoliosis braces. However, its fast crystallization rate often plays against the FDM-printing process, for example can cause poor layer-layer adhesion. Only when this problem is solved, a reliable brace which is strong, tough, and light weight could be printed via FDM-printing. Zuyd University of Applied Science has, in close collaboration with Maastricht University, built thorough knowledge on tuning crystallization kinetics with the temperature development during printing, resulting in printed products with improved layer-layer adhesion. Because of this knowledge and experience on developing materials for 3D printing, QuinLyte contacted Zuyd to develop a strategy for printing a wearable scoliosis brace of SmartAgain®. In the future a range of other tailor-made products can be envisioned. Thus, the project is in line with the GoChem-themes: raw materials from recycling, 3D printing and upcycling.
Electrohydrodynamic Atomization (EHDA), also known as Electrospray (ES), is a technology which uses strong electric fields to manipulate liquid atomization. Among many other areas, electrospray is currently used as an important tool for biomedical applications (droplet encapsulation), water technology (thermal desalination and metal recovery) and material sciences (nanofibers and nano spheres fabrication, metal recovery, selective membranes and batteries). A complete review about the particularities of this technology and its applications was recently published in a special edition of the Journal of Aerosol Sciences [1]. Even though EHDA is already applied in many different industrial processes, there are not many controlling tools commercially available which can be used to remotely operate the system as well as identify some spray characteristics, e.g. droplet size, operational mode, droplet production ratio. The AECTion project proposes the development of an innovative controlling system based on the electrospray current, signal processing & control and artificial intelligence to build a non-visual tool to control and characterize EHDA processes.
