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Ground reaction force patterns of Dutch warmblood horses at normal trot.
Abstract: This study was undertaken to establish limb loading patterns of sound horses at the trot, to provide a data base against which results for lame horses could be compared. Ground reaction force (GRF) data were collected from 20 clinically sound Dutch Warmblood horses. The data from at least 5 stance phases of each limb were averaged after standardisation to the animal's body mass and to the stance phase duration and resulted in 'representative' GRF data. The symmetry in the vertical GRF peak amplitudes, impulses and the stance phase duration comparing left and right limbs exceeded 97%. By averaging the 'representative' GRF of the 20 horses a 'standard' GRF pattern of the Dutch Warmblood horse at the trot was constructed. The GRF patterns at the trot, compared with those at the walk, showed only one vertical force peak in forelimbs and hindlimbs (11.59 N/kg and 10.21 N/kg, respectively). The retardatory and propulsory forces were distributed over the forelimbs and hindlimbs in such a way that the forelimbs contributed more to retardation (peak forces 1.13 and 0.79 N/kg), and the hindlimbs more to propulsion (-0.84 and -1.17 N/kg, respectively).
Publication Date: 1993-03-01 PubMed ID: 8467772DOI: 10.1111/j.2042-3306.1993.tb02923.xGoogle Scholar: Lookup The Equine Research Bank provides access to a large database of publicly available scientific literature. Inclusion in the Research Bank does not imply endorsement of study methods or findings by Mad Barn.
- Journal Article
Summary
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The researchers conducted a study to understand how Dutch Warmblood horses distribute weight across their limbs while trotting. This information can serve as a comparative baseline to identify irregularities in lame horses.
Research Objective and Methodology
The main objective for conducting this study was to establish the limb loading pattern in sound, or healthy, horses while they are trotting. This baseline data can later be used to compare with the patterns for lame horses, to better diagnose and treat their conditions.
The researchers collected ground reaction force (GRF) data from 20 clinically sound Dutch Warmblood horses. The GRF measures the force exerted by the ground on a body in contact with it, which helps to understand how the weight is distributed on different limbs of the horse while trotting. For each horse, data was taken from at least five stance phases of each limb.
- The stance phase is when the horse’s hoof is in contact with the ground during a stride.
- The data was then standardized according to the animal’s body mass and to the stance phase duration.
- This resulted in ‘representative’ GRF data indicative of each horse’s average limb loading pattern.
Findings of the Study
From the data collected, researchers found that the symmetry in the vertical GRF peak amplitudes, impulses and the stance phase duration comparing left and right limbs exceeded 97%. This implies that horses maintain a high level of symmetry in their trot, equally distributing their weight between the left and right sides.
- They identified a ‘standard’ GRF pattern for Dutch Warmblood horses at the trot by averaging the ‘representative’ GRF of the 20 horses.
- When comparing the GRF patterns at the trot to those at the walk, they noticed only one vertical force peak in both the forelimbs and hindlimbs.
- The forces were distributed such that the forelimbs contributed more to retardation (slowing down) and the hindlimbs more to propulsion (moving forward).
Conclusion
The research provides a valuable baseline for understanding the weight distribution of Dutch Warmblood horses while trotting, which can help veterinarians identify irregularities in lame horses. The retardatory and propulsory forces also provide an informative insight into how movement and balance are maintained by these horses.
Cite This Article
APA
Merkens HW, Schamhardt HC, Van Osch GJ, Van den Bogert AJ.
(1993).
Ground reaction force patterns of Dutch warmblood horses at normal trot.
Equine Vet J, 25(2), 134-137.
https://doi.org/10.1111/j.2042-3306.1993.tb02923.x Publication
Researcher Affiliations
- Department of General and Large Animal Surgery, Faculty of Veterinary Medicine, University of Utrecht, The Netherlands.
MeSH Terms
- Animals
- Forelimb / physiology
- Gait / physiology
- Hindlimb / physiology
- Horses / physiology
- Reference Values
Citations
This article has been cited 25 times.- Hanousek K, Fiske-Jackson A, O'Leary L, Smith RKW. Injury to the palmar supporting structures of the fetlock alters limb stiffness and fetlock angle. Equine Vet J 2025 May;57(3):636-644.
- van Bijlert PA, Geijtenbeek T, Smit IH, Schulp AS, Bates KT. Muscle-Driven Predictive Physics Simulations of Quadrupedal Locomotion in the Horse. Integr Comp Biol 2024 Sep 27;64(3):694-714.
- Smirnova KP, Frill MA, Warner SE, Cheney JA. Shape change in the saddle region of the equine back during trot and walk. J R Soc Interface 2024 Jun;21(215):20230644.
- Takahashi Y, Takahashi T, Mukai K, Ebisuda Y, Ohmura H. Effect of speed and leading or trailing limbs on surface muscle activities during canter in Thoroughbred horses. PLoS One 2023;18(5):e0286409.
- Parmentier JIM, Bosch S, van der Zwaag BJ, Weishaupt MA, Gmel AI, Havinga PJM, van Weeren PR, Braganca FMS. Prediction of continuous and discrete kinetic parameters in horses from inertial measurement units data using recurrent artificial neural networks. Sci Rep 2023 Jan 13;13(1):740.
- Panos KE, Morgan K, Gately R, Wilkinson J, Uden A, Reed SA. Short Communication: changes in gait after 12 wk of shoeing in previously barefoot horses. J Anim Sci 2023 Jan 3;101.
- Adachi M, Aoi S, Kamimura T, Tsuchiya K, Matsuno F. Fore-Aft Asymmetry Improves the Stability of Trotting in the Transverse Plane: A Modeling Study. Front Bioeng Biotechnol 2022;10:807777.
- Li G, Zhang R, Han D, Pang H, Yu G, Cao Q, Wang C, Kong L, Chengjin W, Dong W, Li T, Li J. Forelimb joints contribute to locomotor performance in reindeer (Rangifer tarandus) by maintaining stability and storing energy. PeerJ 2020;8:e10278.
- Vanden Hole C, Ayuso M, Aerts P, Prims S, Van Cruchten S, Van Ginneken C. Glucose and glycogen levels in piglets that differ in birth weight and vitality. Heliyon 2019 Sep;5(9):e02510.
- Clayton HM, Hobbs SJ. A Review of Biomechanical Gait Classification with Reference to Collected Trot, Passage and Piaffe in Dressage Horses. Animals (Basel) 2019 Oct 3;9(10).
- Vanden Hole C, Van Ginneken C, Prims S, Ayuso M, Van Cruchten S, Aerts P. Does intrauterine crowding affect the force generating capacity and muscle composition of the piglet front limb?. PLoS One 2019;14(10):e0223851.
- Vanden Hole C, Cleuren S, Van Ginneken C, Prims S, Ayuso M, Van Cruchten S, Aerts P. How does intrauterine crowding affect locomotor performance in newborn pigs? A study of force generating capacity and muscle composition of the hind limb. PLoS One 2018;13(12):e0209233.
- Hobbs SJ, Robinson MA, Clayton HM. A simple method of equine limb force vector analysis and its potential applications. PeerJ 2018;6:e4399.
- Faramarzi B, Nguyen A, Dong F. Changes in hoof kinetics and kinematics at walk in response to hoof trimming: pressure plate assessment. J Vet Sci 2018 Jul 31;19(4):557-562.
- Hanot P, Herrel A, Guintard C, Cornette R. Morphological integration in the appendicular skeleton of two domestic taxa: the horse and donkey. Proc Biol Sci 2017 Oct 11;284(1864).
- Clayton HM, Hobbs SJ. An exploration of strategies used by dressage horses to control moments around the center of mass when performing passage. PeerJ 2017;5:e3866.
- Gorissen BMC, Wolschrijn CF, Serra Bragança FM, Geerts AAJ, Leenders WOJL, Back W, van Weeren PR. The development of locomotor kinetics in the foal and the effect of osteochondrosis. Equine Vet J 2017 Jul;49(4):467-474.
- Kilbourne BM, Hoffman LC. Scale effects between body size and limb design in quadrupedal mammals. PLoS One 2013;8(11):e78392.
- Schmitt D, Zumwalt AC, Hamrick MW. The relationship between bone mechanical properties and ground reaction forces in normal and hypermuscular mice. J Exp Zool A Ecol Genet Physiol 2010 Jul 1;313(6):339-51.
- Starke SD, Robilliard JJ, Weller R, Wilson AM, Pfau T. Walk-run classification of symmetrical gaits in the horse: a multidimensional approach. J R Soc Interface 2009 Apr 6;6(33):335-42.
- Crook TC, Cruickshank SE, McGowan CM, Stubbs N, Wakeling JM, Wilson AM, Payne RC. Comparative anatomy and muscle architecture of selected hind limb muscles in the Quarter Horse and Arab. J Anat 2008 Feb;212(2):144-52.
- Williams SB, Wilson AM, Payne RC. Functional specialisation of the thoracic limb of the hare (Lepus europeus). J Anat 2007 Apr;210(4):491-505.
- Payne RC, Hutchinson JR, Robilliard JJ, Smith NC, Wilson AM. Functional specialisation of pelvic limb anatomy in horses (Equus caballus). J Anat 2005 Jun;206(6):557-74.
- Payne RC, Veenman P, Wilson AM. The role of the extrinsic thoracic limb muscles in equine locomotion. J Anat 2005 Feb;206(2):193-204.
- Payne RC, Veenman P, Wilson AM. The role of the extrinsic thoracic limb muscles in equine locomotion. J Anat 2004 Dec;205(6):479-90.
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