Main Article Content

Abstract

This study aims to develop microcontroller-based punch speed measuring instrument for Karate Athletes. The research method used is research and development (research and development). The subjects in this study were karate athletes coaching FORKI (Indonesian Karate Sports Federation) Palembang City, which consisted of 30 senior athletes aged 17-25 years who were divided into two groups. Small group trials consist of 10 athletes and large group trials consist of 20 athletes. The technique of taking the research subject used a purpose sampling technique. The results showed that the development of a Microcontroller-Based Punch Speed Measurement Tool has a percentage level of validity of material test experts (karate) of 93%, the validity of media experts (Information Technology) is 2 people, 95% and 91%, respectively. exercise test and measurement experts by 97% so that the tool can be said to be feasible. The level of reliability in the small group trial was 0.994 with the High category. While the large group trial was 0.993 with a high category so that it was said that the level of reliability of the tool carried out in large group and small group trials had a high reliability category. Overall, this microcontroller-based punch speed measurement tool has been declared feasible to be used as a tool in calculating punch speed in meters/second (m/s) digitally. 993 with a high category so that it is said that the level of reliability of the tool carried out in large and small group trials has a high reliability category. Overall, this microcontroller-based punch speed measurement tool has been declared feasible to be used as a tool in calculating punch speed in meters/second (m/s) digitally. 993 with a high category so that the level of reliability of the tool carried out in large and small group trials has a high reliability category. Overall, this microcontroller-based punch speed measurement tool has been declared feasible to be used as a tool in calculating punch speed in meters/second (m/s) digitally.

 

 

Article Details

How to Cite
Sari, P. S., Hartati, H., Usra, M., Iyakrus, I., & Destriana, D. (2021). Development Of Microcontroller Based Punch Speed Measurements Tool Of Karate Athlete. Kinestetik : Jurnal Ilmiah Pendidikan Jasmani, 5(2), 335–345. https://doi.org/10.33369/jk.v5i2.16510

References

  1. Alinaghipour, M., Zareian, E., & Ardakani, ZP (2020). The scoring techniques in the final competitions of the Karate World Championships 2016. Annals of Applied Sport Science, 8(2), 1–7
  2. https://doi.org/10.29252/aassjournal.760
  3. Amertha, PASUWA, Winaya, IMN, Wahyuni, N., & Dinata, IMK (2020). The Relationship between Arm Explosive Power and Gyaku Tsuki's Punching Ability at a Karate Dojo In Denpasar. Indonesian Physiotherapy Scientific Magazine, 8(3),
  4. https://doi.org/10.24843/mifi.2020.v08.i03.p08
  5. Ardi, Winoto. 2010. Microcontroller AVR ATmega 8/ 32/ 16/ 8535 and Programming with C Language on WinAVR, Informatics, Bandung
  6. Arsil. 2015. Evaluation of Physical Education and Sports. Padang: Wineka Media December 1, 2020
  7. Fendrian, F., & Nurzaman, M. (2016). The Effectiveness of Punch Attack Techniques and Kick Attack Techniques Against Earning Points in Kumite Competitions in Karate Sports. Journal of Sports Coaching, 8(2), 1–13.
  8. Harlan. (2020, September 8).
  9. Understanding Arduino, Functions, Advantages, Language, etc. Accessed via https:// www.progresstech.co.id/blog/arduino/ December 1, 2020.
  10. Ihsan, N., Yulkifli, Y., & Yohandri, Y. (2018). Speed Instrument Technology-Based Pencak Silat Kick. Journal of Sociotechnology, 17(1), 124–131.
  11. Kos, A., Wei, Y., Tomazic, S., & Umek, A. 2018. The Role of Science and Technology in Sport. Procedia Computer Science, 129, 489-495.
  12. Kho, Dickson (2020, October 1)Understanding LCD (Liquid Crystal Display) and LCD Working Principle. Accessed viahttps://electronic engineering. com/understanding of lcd-liquid-crystal-display-principles-lcd-work/
  13. Mohammed Sayyd, S., Asnaldi, A., & Laura Putri, R. (2019). Eye-hand Coordination of Skill Gyaku Tsuki Karateka Gokasi. International Journal of Kinesiology and Physical Education, 1(2), 27–35. https://doi.org/10.34004/ijkpe.v1i1.12
  14. Pranata, LD, Yarmani, Y., &
  15. Sugihartono, T. (2017). Exercise Effect Tire Rubber Spring-
  16. Force Load Against Punch Speed Kumite Gyaku Tzuki For Karate Athletes Inkanas Bengkulu City. Kinesthetic,
  17. (2).Https://Doi.Org/10.33369/Jk.V1i2.3473
  18. Rahmat, E. 2017. Development of Chin
  19. Up Test Technology Based on Arduino Uno and Infrared Laser Sensor With LCD Display. Journal of Applied Sports Science, Volume 2 Number, 14-17
  20. Sari, Sekar.P & Salmah, Ayu.N. (2020). Brand Image, Product Quality, Price and Its Influence on Interest in Buying Arawaza Brand Karate Clothes in Palembang City. Economics: Journal Of Economics and Business. http://dx.doi.org/10.33087/economy.v4i2.184
  21. Symbolon, Barmathon. 2014. Training
  22. and Training Karateka. Jakarta: Griyak Pustaka.
  23. Sugiyono. 2013. Educational Research Methods Quantitative Approach, Qualitative, and R&D. Bandung: Alphabeta.
  24. Widiastuti, 2019. Sports Tests and
  25. Measurements. Jakarta: PT Raja Grafindo Homeland.
  26. Wicaksono, Fajar. 2019. Arduino
  27. Applications and Sensors. Bandung. informatics.