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Background Current injury prevention programmes in football are limited by a one-size-fits-all approach, which predominantly focuses on preventive exercise programmes while ignoring differences in risk profiles between individuals and teams.Objective To address this gap, we developed a new data-driven, customisable approach based on the principles of risk management. We collaborated with key stakeholders to identify focus areas for injury and illness prevention and determine their priorities.Setting The team medical and coaching staff included members from 17 professional football clubs, the national team and a youth football academy in Qatar.Methods In 2015, we launched a series of annual workshops under the Aspetar Sports Injury and Illness Prevention Programme. The workshops included club medical personnel and fitness coaches in a process to develop team-specific programmes for injury and illness prevention based on the principle of risk management. Over 2 years, workshops refined focus areas through discussions, surveys and small-group presentations, culminating in the creation a novel programme for football injury prevention.Results Out of 44 focus areas first identified, 23 were selected as priorities for inclusion in multimodal injury and illness prevention programmes. The identified focus areas represent a variety of aspects, including social/behavioural/lifestyle, exercise programmes/training, load management, recovery and equipment. The top priorities included communication, the Nordic hamstring exercise, training load, recovery strategies, nutrition, sleep, warm-up, the Copenhagen adduction exercise and core and dynamic stability.Conclusion We have developed a comprehensive framework for preventing injuries and illnesses in football grounded in the general principles of risk management. This framework has proven feasible and led to the creation of a new multicomponent programme, The Aspetar IP2 (Injury and Illness Prevention for Performance) NetWork, focusing on a range of areas beyond preventive exercise programmes only.

The present study was aimed to biosynthesize selenium nanoparticles (SeNPs) and assess their foliar applications to improve the growth of wheat plants under controlled irrigation and drought stress. Bud aqueous extract of Allium sativum L. was used as a reducing and stabilizing agent of SeNPs followed by their optical and morphological characterization by using ultraviolet-visible spectroscopy, scanning electron microscopy, Fourier-transform infrared, and energy dispersive X-ray analysis. Various concentrations of SeNPs (10, 20, 30, and 40 mg/L) were applied exogenously to drought-tolerant (V1) and drought-susceptible (V2) wheat varieties at the trifoliate stage. Under the positive control conditions, plants were irrigated with 450 mL of water/pot (100% field capacity); and under water-deficit environment, plants were irrigated with 160 mL of water/pot (35% field capacity). Remarkable increase in plant height, shoot length, shoot fresh weight, shoot dry weight, root length, root fresh weight, root dry weight, leaf area, leaf number, and leaf length has been observed when 30 mg/L concentration of SeNPs was used. However, the plant morphological parameters decreased gradually at higher concentrations (40 mg/L) in both selected wheat varieties. Therefore, 30 mg/L concentration of SeNPs was found most preferable to enhance the growth of selected wheat varieties under normal and water-deficient conditions.