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Journal of biomechanics2009; 43(4); 627-631; doi: 10.1016/j.jbiomech.2009.10.036

Vertical forces on the horse’s back in sitting and rising trot.

Abstract: In equestrian sports, it is generally assumed that rising and sitting trot load the horse's back differently. The objective of this study was to quantify the load on the horse's back in these riding techniques. Kinematic data of 13 riders were collected in rising and sitting trot. The time-history of the position of the rider's centre of mass (CoM) was calculated, and differentiated twice to obtain the acceleration of the CoM. The reaction force between the rider and the horse's back was calculated from the acceleration. Forces were divided by the body weight of the rider to obtain dimensionless forces. As expected, the computed average vertical force did not differ between riding techniques and was not significantly different from the body weight of the riders. At trot, two force peaks were present during one stride cycle. Both peaks in rising trot were significantly lower compared to sitting trot (peak 1: 2.54+/-0.30 versus 2.92+/-0.29; p<0.001; peak 2: 1.95+/-0.34 versus 3.03+/-0.32; p<0.001). This supports the general assumption that rising trot is less demanding for the horse than sitting trot.
Publication Date: 2009-11-18 PubMed ID: 19926088DOI: 10.1016/j.jbiomech.2009.10.036Google Scholar: Lookup
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  • Journal Article

Summary

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This research looked at the vertical forces exerted on a horse’s back during riding, comparing the impact of sitting and rising trot styles. The researchers found that the force exerted at the two peak points during a trot was lower when riders used the rising trot technique, indicating the rising trot may be less demanding for the horse.

Objective and Methodology

  • The main purpose of the study was to measure and compare the load exerted on a horse’s back during rising and sitting trot techniques. This can be instrumental in understanding how different riding techniques affect the horse’s well-being.
  • To gather the required data, 13 riders were involved in the study where their movements were recorded while performing both the riding techniques.
  • The researchers analysed the motion of the rider’s centre of mass (CoM) over time and this data was differentiated twice to get acceleration information.
  • The reaction force exerted on the horse’s back by the rider was calculated using the acceleration data.
  • To eliminate the effect of different body weights of the riders, the calculated forces were normalized by the rider’s body weight resulting in dimensionless forces.

Findings

  • The researchers found that the computed average vertical force (across all points in the stride and not specific to the force peaks) was similar for both riding techniques and was close to the rider’s body weight, indicating that the riding technique does not significantly influence this overall measure of load on the horse’s back.
  • The study identified two peaks of force during one stride cycle while trotting.
  • More specifically, both force peaks during the rising trot were significantly lower than those during the sitting trot (peak 1: 2.54+/-0.30 versus 2.92+/-0.29; peak 2: 1.95+/-0.34 versus 3.03+/-0.32).
  • This significant difference in peak forces between the two riding styles supports the widely held belief that the rising trot technique places less demand on the horse in comparison to the sitting trot.

Significance

  • The findings of this research could have implications for training and riding practices in equestrian sports. If the aim is to reduce exertion on the horse’s back, riders might prefer to use the rising trot technique more often.
  • This research also adds to the scientific understanding of how riding techniques impact the physical strain on horses. This can inform decisions on equestrian policies and regulations for the welfare of the animals.

Cite This Article

APA
de Cocq P, Duncker AM, Clayton HM, Bobbert MF, Muller M, van Leeuwen JL. (2009). Vertical forces on the horse’s back in sitting and rising trot. J Biomech, 43(4), 627-631. https://doi.org/10.1016/j.jbiomech.2009.10.036

Publication

ISSN: 1873-2380
NlmUniqueID: 0157375
Country: United States
Language: English
Volume: 43
Issue: 4
Pages: 627-631

Researcher Affiliations

de Cocq, Patricia
  • Experimental Zoology Group, Animal Sciences Group, Wageningen UR, P.O. Box 338, 6700 AH Wageningen, The Netherlands. Patricia.deCocq@wur.nl
Duncker, Anne Mariken
    Clayton, Hilary M
      Bobbert, Maarten F
        Muller, Mees
          van Leeuwen, Johan L

            MeSH Terms

            • Animals
            • Back / physiology
            • Computer Simulation
            • Gait / physiology
            • Horses / physiology
            • Locomotion / physiology
            • Models, Biological
            • Posture / physiology
            • Stress, Mechanical
            • Weight-Bearing / physiology

            Citations

            This article has been cited 9 times.
            1. Elmeua González M, Šarabon N. Effects of saddle tilt and stirrup length on the kinetics of horseback riders.. PeerJ 2022;10:e14438.
              doi: 10.7717/peerj.14438pubmed: 36523469google scholar: lookup
            2. Uldahl M, Christensen JW, Clayton HM. Relationships between the Rider's Pelvic Mobility and Balance on a Gymnastic Ball with Equestrian Skills and Effects on Horse Welfare.. Animals (Basel) 2021 Feb 9;11(2).
              doi: 10.3390/ani11020453pubmed: 33572205google scholar: lookup
            3. Hobbs SJ, St George L, Reed J, Stockley R, Thetford C, Sinclair J, Williams J, Nankervis K, Clayton HM. A scoping review of determinants of performance in dressage.. PeerJ 2020;8:e9022.
              doi: 10.7717/peerj.9022pubmed: 32355578google scholar: lookup
            4. Byzova A, Roozbahani H, Handroos H, Hakansson N, Lankarani HM. Monitoring of the human body and brain behavior using optical motion capture system and EEG utilizing horseback riding simulator: an extended case study.. J Phys Ther Sci 2020 Jan;32(1):85-91.
              doi: 10.1589/jpts.32.85pubmed: 32082035google scholar: lookup
            5. MacKechnie-Guire R, MacKechnie-Guire E, Fairfax V, Fisher D, Fisher M, Pfau T. The Effect of Tree Width on Thoracolumbar and Limb Kinematics, Saddle Pressure Distribution, and Thoracolumbar Dimensions in Sports Horses in Trot and Canter.. Animals (Basel) 2019 Oct 21;9(10).
              doi: 10.3390/ani9100842pubmed: 31640213google scholar: lookup
            6. Byström A, Roepstorff L, Rhodin M, Serra Bragança F, Engell MT, Hernlund E, Persson-Sjödin E, van Weeren R, Weishaupt MA, Egenvall A. Lateral movement of the saddle relative to the equine spine in rising and sitting trot on a treadmill.. PLoS One 2018;13(7):e0200534.
              doi: 10.1371/journal.pone.0200534pubmed: 30020982google scholar: lookup
            7. Stefánsdóttir GJ, Gunnarsson V, Roepstorff L, Ragnarsson S, Jansson A. The effect of rider weight and additional weight in Icelandic horses in tölt: part I. Physiological responses.. Animal 2017 Sep;11(9):1558-1566.
              doi: 10.1017/S1751731117000556pubmed: 28320488google scholar: lookup
            8. Hobbs SJ, Baxter J, Broom L, Rossell LA, Sinclair J, Clayton HM. Posture, flexibility and grip strength in horse riders.. J Hum Kinet 2014 Sep 29;42:113-25.
              doi: 10.2478/hukin-2014-0066pubmed: 25414745google scholar: lookup
            9. Hyytiäinen HK, Mykkänen AK, Hielm-Björkman AK, Stubbs NC, McGowan CM. Muscle fibre type distribution of the thoracolumbar and hindlimb regions of horses: relating fibre type and functional role.. Acta Vet Scand 2014 Jan 27;56(1):8.
              doi: 10.1186/1751-0147-56-8pubmed: 24468115google scholar: lookup