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Towards an Ideal Rowing Technique for Performance

The Contributions from Biomechanics

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Abstract

At international standard, sculling (two oars) and rowing (one oar) are competed on-water over 2000m. Race time is the critical measure of performance and is determined from mean skiff velocity during a race. Although a high proportion of race training is completed on-water, rowing ergometers are commonly used for performance testing, technique coaching, crew selection or for training during poor weather. Rowing biomechanics research has aimed to identify characteristics of successful sculling and sweep rowing strokes; however, biomechanical predictors of 2000m rowing performance are indistinct in the literature. If specific biomechanical parameters distinguish between ability levels and successful or unsuccessful techniques, these attributes can be considered when modifying technique or predicting future rowing performance. The kinematics and kinetics of the sculling and rowing movements have been described on ergometers, on-water and for novice and elite male and female rowers, but there is limited research on the ideal technique or how a rower’s anthropometry or boat set-up could help improve/optimise their rowing performance. Currently viewing the technique and providing verbal feedback is the primary tool used by a coach to help improve a rower’s technique and performance. The greater use of customised telemetered sensors on the rowing skiff can assist the coach and biomechanist with judging when performance (skiff velocity) improves with some form of intervention.

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Acknowledgements

Thanks are given to Dick Tonks (New Zealand National Rowing Coach), Karoline Cheung and Peggy McBride for their editorial views on this paper. Auckland University of Technology and Sport and Exercise Science New Zealand (SESNZ) provided funding for this project. The authors have no conflicts of interest that are directly relevant to the content of this review.

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Soper, C., Hume, P.A. Towards an Ideal Rowing Technique for Performance. Sports Med 34, 825–848 (2004). https://doi.org/10.2165/00007256-200434120-00003

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