Biosensors are increasingly becoming indispensable tools within the sports sector , offering real-time surveillance and examination of physiological parameters , biomechanics , and performance metrics .
Biosensors are increasingly becoming indispensable tools within the sports sector , offering real-time surveillance and examination of physiological parameters , biomechanics , and performance metrics .
enabling timely intervention and prevention . They play a crucial role in monitoring biomechanics to prevent injuries by analysing movement patterns and identifying potential risk factors . Biosensors also accelerate rehabilitation processes by providing data on progress , recovery , and injury healing .
The ability to design personalised training programmes based on biosensor data further elevates their utility , enabling the tailoring of workout regimens to meet individual needs and objectives . By monitoring training intensity and recovery , they assist in achieving a balance between exertion and rest , a crucial factor for peak performance and injury prevention . Furthermore , their ability to provide instantaneous insights and guidance to athletes and coaches affirms their value in providing feedback and coaching assistance .
Emerging technologies such as flexible , adaptable sensors and intelligent textiles are broadening the scope of biosensor applications in sports . Coupling these with artificial intelligence and machine learning techniques further amplifies the potential of biosensors , enabling sophisticated data analysis , predictive modelling , and personalised recommendations .
Despite the numerous advantages , using biosensors in sports comes with some difficulties . To ensure smooth data interchange and compatibility among various biosensor devices and platforms , there is a pressing need for standardisation and interoperability . In addition , concerns like informed consent , data security , and anti-doping rules compliance need to be addressed . Promoting the appropriate and efficient use of biosensors in sports will depend on addressing these issues .
In summary , biosensors offer immense potential in the world of sports , revolutionising performance monitoring , injury prevention , and athlete well-being . As technology advances and researchers continue to explore new frontiers , biosensors will continue to play a pivotal role in optimising athletic performance , improving training methodologies , and shaping the future of sports .
REFERENCE
Weijie Liu et al . ( 2022 ). A Self-Powered Wearable Motion Sensor for Monitoring Volleyball Skill and Building Big Sports Data , Biosensors 2022 , 12 ( 2 ), 60 ; https :// doi . org / 10.3390 / bios12020060
Ziao Xue et al . ( 2023 ). Self-Powered Biosensors for Monitoring Human Physiological Changes , Biosensors 2023 , 13 ( 2 ), 236 ; https :// doi . org / 10.3390 / bios13020236
Yupeng Mao et al . ( 2021 ). A Portable and Flexible Self-Powered Multifunctional Sensor for Real-Time Monitoring in Swimming , Biosensors 2021 , 11 ( 5 ), 147 ; https :// doi . org / 10.3390 / bios11050147
Paul D . J . et al . ( 2020 ). Wearable sensors for sports and athletics . IEEE Sensors Journal , 20 ( 8 ), 4264- 4281 . DOI : 10.1109 / JSEN . 2019.2965779 .
Yupeng Mao et al . ( 2020 ). A Self-Powered Biosensor for Monitoring Maximal Lactate Steady State in Sport Training , Biosensors 2020 , 10 ( 7 ), 75 ; https :// doi . org / 10.3390 / bios10070075
Boullosa D . A . et al . ( 2020 ). Wearable sensors in sport : Let the data speak for itself . Sports Medicine , 50 ( 3 ), 429-432 . DOI : 10.1007 / s40279- 019-01183-9
De Vito G . et al . ( 2019 ). Wearable inertial sensors for human movement analysis . Sports Medicine , 49 ( 7 ), 1065-1084 . DOI : 10.1007 / s40279-019- 01118-4 .
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