Smart Racket Combined with Multiple Sensors

Authors

  • Yehang Liu

DOI:

https://doi.org/10.54097/qns2sd94

Keywords:

Biomedical engineering, badminton rackets, sensors, blood oxygen, scientific training.

Abstract

With the development of the sports industry, the demand for badminton athletes to improve their skills is increasing. Nowadays in badminton training, individuals frequently rely on coaches' instructions and draw from their previous gaming experiences to enhance their skills. However, this approach often falls short of desired outcomes. Frequently, trainers struggle to ascertain the accuracy of their shot's force, angle, or direction. At the same time, it is currently unable to monitor the physical condition of athletes in real-time without affecting their training. Therefore, it is necessary to design a racket that can assist athletes in the hitting process and monitor their physical condition. The research topic of this article is how to achieve data-driven analysis of hitting posture and monitoring of physical condition of athletes through the combination of sensors and rackets. This article combines practical production with theoretical research. It includes model making for Angle measurement parts and discusses and theorizes the parts currently impossible to achieve. Research has found that the created model can measure the angle during the hitting process, and the theory of using photoelectric sensors to measure blood oxygen concentration can also be realized. The introduction of sensors may have a significant impact on the badminton industry. In the future, the appearance of the product can be further improved to make it more practical.

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References

Duan Y, He S, Wu J, Su B, Wang Y. Recent Progress in Flexible Pressure Sensor Arrays. Nanomaterials. 2022; 12 (14): 2495.

S. Nolasco, C.M. Amaro, L. Roseiro, M.A. Castro, A.M. Amaro, Hand-arm vibration assessment in badminton athletes during three different movements using two rackets, International Journal of Industrial Ergonomics, Volume 88, 2022, 103270, ISSN 0169-8141.

Zhenmin Li, Baosen Mi, Xun Ma, Ping Liu, Fengcang Ma, Ke Zhang, Xiaohong Chen, Wei Li, Review of thin-film resistor sensors: Exploring materials, classification, and preparation techniques, Chemical Engineering Journal, Volume 477, 2023, 147029, ISSN 1385-8947.

Hess, D.R. (2016). Pulse Oximetry: Beyond SpO2. Respiratory Care, 61 (12), pp.1671–1680.

Sciencedirect.com. (2014). Piezoelectric Effect - an overview | ScienceDirect Topics.

Darwin, L., Sembiring, Y.E. and Lefi, A. (2023). Diastolic dysfunction and atrial fibrillation in coronary heart disease surgery: A literature review. International Journal of Surgery Open, [online] 55, p.100615.

Pradnya Chabbi, Venkatesh K.P. Rao, Design and fabrication of single drive tri-axis MEMS gyroscope, Measurement, Volume 227, 2024, 114307, ISSN 0263-2241.

Indrajeet Ghosh, Sreenivasan Ramasamy Ramamurthy, Avijoy Chakma, Nirmalya Roy, DeCoach: Deep Learning-based Coaching for Badminton Player Assessment, Pervasive and Mobile Computing, Volume 83, 2022, 101608, ISSN 1574-1192.

Liu, F., Han, J.-L., Qi, J., Zhang, Y., Yu, J.-L., Li, W.-P., Lin, D., Chen, L.-X. and Li, B.-W. (2021). Research and Application Progress of Intelligent Wearable Devices. Chinese Journal of Analytical Chemistry, [online] 49 (2), pp.159–171.

Kwan, M., Cheng, C.-L., Tang, W.-T. and Rasmussen, J. (2010). Measurement of badminton racket deflection during a stroke. Sports Engineering, 12 (3), pp.143–153.

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Published

11-07-2024