Literature Review: Aerodinamis Pada Bola Sepak
Abstract
Aerodinamis pada bola sepak memegang peranan penting dalam perilaku gerak bola. Kreativitas untuk membuat gerakan bola sesuai dengan permintaan pemain sangatlah penting dalam permainan sepak bola. Memodifikasi pembuatan dan struktur bola sepak sangat berpengaruh pada pengembangan bola juga karakteristik perilaku gerak bola. Tujuan penelitian ini untuk mendapatkan review. Metode penelitian menggunakan review dari hasil penelitian dan artikel pendukung yang dipublikasikan secara daring. Analisis di susun secara deskripsi singkat yang mengarah pada tren penelitian aerodinamis pada bola sepak. Hasil penelitian pengembangan tren penelitian aerodinamis bola sepak meliputi : tekstur permukaan, lebar jahitan, kedalaman jahitan, dan cara panel disambung tidak di standarisasi juga panel pada beberapa bola dijahit bersama.
References
[1] A Firoz, C Harun, M Hazim, and K. Fuss Franz, Iftekhar Khan, Fayez Aldawi and Aleksandar Subic. Aerodynamics of contemporary FIFA soccer balls. School of Aerospace, Mechanical and Manufacturing Engineering, RMIT University, Melbourne, VIC 3083, Australia. Procedia Engineering 13 pages 188–193, 2011.
[2] A Firoz, C Harun,, Mark Stemmer and Zilong Wang, Jie Yang. Effects of surface structure on soccer ball aerodynamics. Conference of the International Sports Engineering Association (ISEA), Procedia Engineering 34 pages 146 – 151, 2012.
[3] Norstrud H., Sport aerodynamics, Norwegian University of Science and Technology Trondheim, Norway, Springer Wien, New York ,2008.
[4] A Firoz, Subic A, Watkins S, Naser and J, Rasul MG., An experimental and computational study of aerodynamic properties of rugby balls. WSEAS Transactions on Fluid Mechanics; Issue 3, Volume 3: issn 1790-5087, 2008.
[5] Alam F, Subic A, Watkins S, and Smits AJ. Aerodynamics of an Australian rules football and rugby ball. In: M. Peters, editor. Computational Science and Engineering, Springer, , p. 103-127, 2009.
[6] Mehta RD, Alam F, Subic A. Aerodynamics of tennis balls- a review. Sports Technology ;1(1):1-10. 2008
[7] Smits AJ, Ogg S. Golf ball aerodynamics. The Engineering of Sport 5;1:3-12. 2004.
[8] H Sungchan, A Takeshi.. Aerodynamic effects ofdimples on soccer ball surfaces. Journal Heliyon volume 3, issue 10, Tsukuba,Japan.http://dx.doi.org/10.1016/j.heliyon.2017.e00432. 2017.
[9] J.E. Goff, T. Asai, S. Hong, A comparison of Jabulani and Brazuca non-spin aerodynamics. Proceedings of the Institution of Mechanical Engineers, Part P: J. Sports Enginering Technology. 228 pages 188–194. 2014.
[10] S. Hong, T. Asai,. Effect of panel shape of soccer ball on its flight characteristics, journal Scientific Reports. 4 Article number; 5068, 2014.
[11] Asai, Takeshi, Seo, Kazuya. Aerodynamic drag of modern soccer balls. Springer Plus 2, Article number ;171. 2013.
[12] Passmore, M, Rogers D, Tuplin S. The aerodynamic performance of a range of FIFA-approved footballs. Proceedings of the Institution of Mechanical Engineers, Part P: J. Sports Engineering and Technology. Vol 226, issue 1; 61–70. 2012.
[13] Bray, K.en, Kerwin, D. G. Modelling the flight of a soccer ball in a direct free kick. J. Sports Sciences, volume 21, issue 2, pages 75–85. 2003.
[14] Cook, B. G, Goff, J. E. Parameter space for successful soccer kicks. European Journal of Physics, Volume 27, Number 4, 865–874,.2006.
[15] Myers, T. G., Mitchell, S. L. A mathematical analysis of the motion of an in-flight soccer ball. Sports Engineering. 16, 29–41. 2013.
[16] A, Takeshi, K.yoji. Structure of knuckling effect in footballs. Journal Fluids Structures. Volume 27, pages 727–733. 2011.
[17] H, Sungchan, C, Chulsoo, N, Masao and A, Takhesi. Unsteady aerodynamic force on a knuckleball in soccer. Procedia Engineering. volume 2, issue 2; pages 2455–2460, 2010.
[18] Goff, J. E., Carre´, M. J. Investigations into soccer aerodynamics via trajectory analysis and dust experiments. Procedia Engineering. Volume 34, pages 158–163; 2012.
[19] Mizota Taketo, Kurogi Kouhei, Ohya Yuji, and Okajima Atsushi, Naruo Takeshi, Kawamura Yoshiyuki.. The strange flight behaviour of slowly spinning soccer balls. journal Scientific Reports 3, Article number 1871 ; DOI:10.1038/srep01871. 2013.
[20] Rogers David, Passmore Martin, Harland Andy, and Jones Roy, Holmes Chris, Lucas Tim.. An experimental validation method of wind tunnel measurements on FIFA approved footballs using kicking tests in wind-free conditions. Procedia Engineering. Volume 2, issue 2, pages 2481–2486. 2010.
[21] Barber, S., Carre´, M. J. The effect of surface geometry on soccer ball trajectories. Sports Engineering. 13, pages 47–55, 2010.
[22] Goff, J. E., Asai, T., Hong, S. A comparison of Jabulani and Brazuca non-spin aerodynamics. Proc JMechE Part P: J. Sports Engineering and Technology. Volume 228, issue 3, 2014.
[23] Adarsh Singh, Asst. Prof. A. K. Shakya , Dr. Shyam Birla. Aerodynamic Study Of Spinning Effects Of Velocity Variation 40 Km/H On Sports Ball. Student, Department of Mechanical Engineering, Oriental College of Technology, Bhopal, MP, India. Volume:03/Issue:02/February, e-ISSN: 2582-5208. 2021.
[24] John Eric Goff, Sungchan Hong, Takeshi Asai.. Effect of a soccer ball’s seam geometry on its aerodynamics and trajectory. Proceedings of the Institution of Mechanical Engineers, Part P: Journal of Sports Engineering and Technology. 2019.
[25] Ito Shinichiro, Kamata Masaharu, Asai Takeshi, and Seo Kazuya. Factors of unpredictable shots concerning new soccer balls. Procedia Engineering. Volume 34, pages 152 – 157. 2012.
[26] Taneda S. Visual observations of the flow past a sphere at Reynolds numbers between 104 and 106. Journal of Fluid Mechanics. Volume 85, issue 1, pages 187-192, 2006.
[27] Murakami Masahide, Kondoh Masakazu, Iwai Yutaka, and Seo Kazuya. Measurement of aerodynamic forces and flow field of a soccer ball in a wind tunnel for knuckle effect. Procedia Engineering,. Volume 2, issue 2, pages 2467-2472, 2010.
[28] T. Asai, K. Seo, O. Kobayashi and R. Sakashita. Fundamental aerodynamics of the soccer ball. Sports Engineering, 10-2:101-109, DOI: 10.1007/BF02844207. 2007,
[29] Wei, Q., Lin, R. & Liu, Z., 1988,, Fluid Dynamics Research, 3:231–237.
[30] Asai, T., Seo, K., Sakurai Y., Ito, S., Koike S. & Murakami M., The Engineering of Sport 7: (Estivalet M. and Brisson P., eds.) Proceedings of the 7th International Sports Engineering Association Conference, Biarriz, France, Volume 1, pp. 555-562. 2008.
[2] A Firoz, C Harun,, Mark Stemmer and Zilong Wang, Jie Yang. Effects of surface structure on soccer ball aerodynamics. Conference of the International Sports Engineering Association (ISEA), Procedia Engineering 34 pages 146 – 151, 2012.
[3] Norstrud H., Sport aerodynamics, Norwegian University of Science and Technology Trondheim, Norway, Springer Wien, New York ,2008.
[4] A Firoz, Subic A, Watkins S, Naser and J, Rasul MG., An experimental and computational study of aerodynamic properties of rugby balls. WSEAS Transactions on Fluid Mechanics; Issue 3, Volume 3: issn 1790-5087, 2008.
[5] Alam F, Subic A, Watkins S, and Smits AJ. Aerodynamics of an Australian rules football and rugby ball. In: M. Peters, editor. Computational Science and Engineering, Springer, , p. 103-127, 2009.
[6] Mehta RD, Alam F, Subic A. Aerodynamics of tennis balls- a review. Sports Technology ;1(1):1-10. 2008
[7] Smits AJ, Ogg S. Golf ball aerodynamics. The Engineering of Sport 5;1:3-12. 2004.
[8] H Sungchan, A Takeshi.. Aerodynamic effects ofdimples on soccer ball surfaces. Journal Heliyon volume 3, issue 10, Tsukuba,Japan.http://dx.doi.org/10.1016/j.heliyon.2017.e00432. 2017.
[9] J.E. Goff, T. Asai, S. Hong, A comparison of Jabulani and Brazuca non-spin aerodynamics. Proceedings of the Institution of Mechanical Engineers, Part P: J. Sports Enginering Technology. 228 pages 188–194. 2014.
[10] S. Hong, T. Asai,. Effect of panel shape of soccer ball on its flight characteristics, journal Scientific Reports. 4 Article number; 5068, 2014.
[11] Asai, Takeshi, Seo, Kazuya. Aerodynamic drag of modern soccer balls. Springer Plus 2, Article number ;171. 2013.
[12] Passmore, M, Rogers D, Tuplin S. The aerodynamic performance of a range of FIFA-approved footballs. Proceedings of the Institution of Mechanical Engineers, Part P: J. Sports Engineering and Technology. Vol 226, issue 1; 61–70. 2012.
[13] Bray, K.en, Kerwin, D. G. Modelling the flight of a soccer ball in a direct free kick. J. Sports Sciences, volume 21, issue 2, pages 75–85. 2003.
[14] Cook, B. G, Goff, J. E. Parameter space for successful soccer kicks. European Journal of Physics, Volume 27, Number 4, 865–874,.2006.
[15] Myers, T. G., Mitchell, S. L. A mathematical analysis of the motion of an in-flight soccer ball. Sports Engineering. 16, 29–41. 2013.
[16] A, Takeshi, K.yoji. Structure of knuckling effect in footballs. Journal Fluids Structures. Volume 27, pages 727–733. 2011.
[17] H, Sungchan, C, Chulsoo, N, Masao and A, Takhesi. Unsteady aerodynamic force on a knuckleball in soccer. Procedia Engineering. volume 2, issue 2; pages 2455–2460, 2010.
[18] Goff, J. E., Carre´, M. J. Investigations into soccer aerodynamics via trajectory analysis and dust experiments. Procedia Engineering. Volume 34, pages 158–163; 2012.
[19] Mizota Taketo, Kurogi Kouhei, Ohya Yuji, and Okajima Atsushi, Naruo Takeshi, Kawamura Yoshiyuki.. The strange flight behaviour of slowly spinning soccer balls. journal Scientific Reports 3, Article number 1871 ; DOI:10.1038/srep01871. 2013.
[20] Rogers David, Passmore Martin, Harland Andy, and Jones Roy, Holmes Chris, Lucas Tim.. An experimental validation method of wind tunnel measurements on FIFA approved footballs using kicking tests in wind-free conditions. Procedia Engineering. Volume 2, issue 2, pages 2481–2486. 2010.
[21] Barber, S., Carre´, M. J. The effect of surface geometry on soccer ball trajectories. Sports Engineering. 13, pages 47–55, 2010.
[22] Goff, J. E., Asai, T., Hong, S. A comparison of Jabulani and Brazuca non-spin aerodynamics. Proc JMechE Part P: J. Sports Engineering and Technology. Volume 228, issue 3, 2014.
[23] Adarsh Singh, Asst. Prof. A. K. Shakya , Dr. Shyam Birla. Aerodynamic Study Of Spinning Effects Of Velocity Variation 40 Km/H On Sports Ball. Student, Department of Mechanical Engineering, Oriental College of Technology, Bhopal, MP, India. Volume:03/Issue:02/February, e-ISSN: 2582-5208. 2021.
[24] John Eric Goff, Sungchan Hong, Takeshi Asai.. Effect of a soccer ball’s seam geometry on its aerodynamics and trajectory. Proceedings of the Institution of Mechanical Engineers, Part P: Journal of Sports Engineering and Technology. 2019.
[25] Ito Shinichiro, Kamata Masaharu, Asai Takeshi, and Seo Kazuya. Factors of unpredictable shots concerning new soccer balls. Procedia Engineering. Volume 34, pages 152 – 157. 2012.
[26] Taneda S. Visual observations of the flow past a sphere at Reynolds numbers between 104 and 106. Journal of Fluid Mechanics. Volume 85, issue 1, pages 187-192, 2006.
[27] Murakami Masahide, Kondoh Masakazu, Iwai Yutaka, and Seo Kazuya. Measurement of aerodynamic forces and flow field of a soccer ball in a wind tunnel for knuckle effect. Procedia Engineering,. Volume 2, issue 2, pages 2467-2472, 2010.
[28] T. Asai, K. Seo, O. Kobayashi and R. Sakashita. Fundamental aerodynamics of the soccer ball. Sports Engineering, 10-2:101-109, DOI: 10.1007/BF02844207. 2007,
[29] Wei, Q., Lin, R. & Liu, Z., 1988,, Fluid Dynamics Research, 3:231–237.
[30] Asai, T., Seo, K., Sakurai Y., Ito, S., Koike S. & Murakami M., The Engineering of Sport 7: (Estivalet M. and Brisson P., eds.) Proceedings of the 7th International Sports Engineering Association Conference, Biarriz, France, Volume 1, pp. 555-562. 2008.
Published
2021-11-09
How to Cite
Khoirul Anam, Gatut Rubiono, & Dicky Pratama. (2021). Literature Review: Aerodinamis Pada Bola Sepak. Prosiding Seminar Nasional IPTEK Olahraga (SENALOG), 4(1), Biomekanik-Or 6. Retrieved from https://ejournal.unibabwi.ac.id/index.php/semnassenalog/article/view/1536
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