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Driscoll, Heather; Hart, John; Allen, Tom (2016)
Publisher: Elsevier BV
Journal: Procedia Engineering
Languages: English
Types: Article
Subjects: Engineering(all)
Mechanics is a fundamental topic required for both undergraduate and postgraduate students on engineering and technology courses. It can be difficult to motivate and engage students in the theoretical aspects of the topic, especially if they are without a strong mathematical background. There are many sporting examples that can be used to explain some of the basic concepts in mechanics. As many sport interactions are highspeed, visualizing the relation to mechanics can be challenging. From our own research, and that published in the field, we now have access to a range of high quality images that have been generated from high-speed video and photogrammetry work, computational simulations or flow visualizations. Two case studies in which images from ball sport research have been used to explain two key engineering subjects: solid and fluid mechanics. A strategy for future collaboration of academics to share and have access to a range of high quality experimental images was also proposed.
  • The results below are discovered through our pilot algorithms. Let us know how we are doing!

    • [1] The Physics Classroom. 2015. Momentum and Impulse Connection. [online] http://www.physicsclassroom.com/class/momentum/Lesson-1/Momentum-andImpulse-Connection
    • [2] FIFA. 2015. Handbook of test methods for football turf. [online] http://quality.fifa.com/globalassets/fqp-handbook-of-test-methods-2015.pdf
    • [3] International Tennis Federation. 2016. Approval tests. [online] http://www.itftennis.com/technical/balls/approval-tests.aspx#Rebound
    • [4] Carré MJ, Baker SW, Newall AJ, Haake SJ. The dynamic behaviour of cricket balls during impact and variations due to grass and soil type. Sports Eng 1999;2:145-160.
    • [5] Cross R. The bounce of a ball. Am J Phys 1999;67:222-227.
    • [6] Hubbard M, Stronge WJ. Bounce of hollow balls on flat surfaces. Sports Eng 2001;4:49-61.
    • [7] Asai T, Carré MJ, Akatsuka T, Haake SJ. The curve kick of a football I: impact with the foot. Sports Eng 2002;5:183-192.
    • [8] James DM, Carré MJ, Haake SJ. The playing performance of country cricket pitches. Sports Eng 2004;7:1-14.
    • [9] Goodwill SR, Kirk R, Haake SJ. Experimental and finite element analysis of a tennis ball impact on a rigid surface. Sports Eng 2005;8:145-158.
    • [10] Ronkainen J, Harland A. Soccer ball modal analysis using a scanning laser doppler vibrometer (SLDV). Sports Eng 2007;10:49-54.
    • [11] Smith LV, Nathan AM, Duris JG. A determination of the dynamic response of softballs. Sports Eng 2010;12:163-169.
    • [12] Collins F, Brabazon D, Moran K. Viscoelastic impact characterisation of solid sports balls used in the Irish sport of Hurling. Sports Eng 2011;14:15-25
    • [13] Cross R. The footprint of a tennis ball. Sports Eng 2014;17:239-247.
    • [14] Goff JE. A review of recent research into aerodynamics of sports projectiles. Sports Eng 2013;16:137-154.
    • [15] Bray K, Kerwin D. Modelling the flight of a soccer ball in a direct free kick. J Sports Sci 2003;21:75-85.
    • [16] Choppin S. Calculating football drag profiles from simulated trajectories. Sports Eng 2013;16:189-194.
    • [17] Goff JE, Carré MJ. Trajectory analysis of a soccer ball. Am J Phys 2009;77:1020-1027.
    • [18] Barton NG. On the swing of a cricket ball in flight. Proc R Soc Lond 1982;379:109-131.
    • [19] Goff JE. Gold Medal Physics: The science of sports. Baltimore: The John Hopkins University Press; 2010.
    • [20] Cross R. Wind tunnel photographs. [online] http://www.physics.usyd.edu.au/~cross/TRAJECTORIES/Fluidflow%20Photos.pdf.
    • [21] Mehta RD. Fluid mechanics of cricket ball swing. 19th Australasian Fluid Mechanics Conference. Melbourne. Australia. 2014.
    • [22] Asai T, Seo K, Kobayashi O, Sakashita R. Fundamental aerodynamics of the soccer ball. Sports Eng 2007;10:101-110.
    • [23] Goff JE, Smith WH, Carré MJ. Football boundary-layer separation via dust experiments. Sports Eng 2011;14:139-146.
    • [24] Mehta RD, Bentley K, Proudlove M, Varty P. Factors affecting cricket ball swing. Nature 1983;303:787-788.
    • [25] Mehta RD. An overview of cricket ball swing. Sports Eng 2005;8:181-192.
    • [26] Asai T, Seo K, Kobayashi O, Sakashita R. Flow visualization on a real flight non-spinning and spinning soccer ball. In: Moritz EF, Haake SJ, editors. The Engineering of Sport 6, 2006.
    • [27] Aoki K, Muto K, Okanaga H. Aerodynamic characteristics and flow pattern of a golf ball with rotation. Pro Eng 2010;2:2431-2436.
    • [28] Barber S, Carré MJ. The effect of surface geometry on soccer ball trajectories. Sports Eng 2010;13:47-55.
    • [29] Scobie JA, Sangan CM, Lock GD. Flow visualisation experiments on sports balls. Pro Eng 2014;72:738-743.
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