Comparative ultrasonographic measurements of metacarpal and metatarsal tendons and ligaments thickness in sound Dareh-shori horses

Document Type : Research Paper

Author

Assistant Professor, Department of Clinical Sciences, Faculty of Veterinary Medicine, Kazerun Branch, Islamic Azad University, Kazerun, Iran

10.22055/ivj.2022.322428.2430

Abstract

    Tendons and ligaments in palmar/plantar aspect of metacarpus/metatarsus are always exposed to injuries resulting from traumas and diseases of limbs. Ultrasonographic evaluation enables measureing the thickness of tendons and ligaments as an important indicator in the health assessment of soft tissues in the limbs of a horse. This study was conducted on 5 healthy Dareh-shori horses with a Mean age of 11.2±3.5 years and height of 131.6±10.2 cm. After clipping and washing, the area between accessory carpal bone and fetlock joint was divided into 6 zones and 2 levels in sagittal and 4 levels in transverse view. Ultrasonography was performed with a linear transducer 12 MHZ Frequency on both front limbs in full weight bearing. Measurements of tendons and ligaments such as Superficial digital flexor tendon, Deep digital flexor tendon, Inferior check ligament and Suspensory ligament were done both in sagittal (1 and 2) and transverse (1, 2, 3 and 4) view. Transverse ultrasonogram was made to get the thickness of tendons and ligaments. Echogenicity and fibrillary pattern of tendons and ligaments were assessed in longitudinal images. In the front and hind limbs, the lowest thickness was related to the inferior check ligament while the greatest thickness in the front limbs was related to the deep digital flexor tendon. Moreover, the greatest thickness in the hind limbs was related to the suspensory ligament. There were no significant differences between the results obtained from the thickness measurements of the tendons and ligaments in the left and right front and hind limbs of sound dareh- shori horses.

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Agut, A., Martínez, M.L., Sánchez-Valverde, M.A., Soler, M., & Rodríguez, M.J. (2009). Ultrasonographic characteristics (cross-sectional area and relative echogenicity) of the digital flexor tendons and ligaments of the metacarpal region in Purebred Spanish horses. Veterinary Journal, 180(3), 377-83.
Celimli, N., Seyrek-Intas, D., & Kaya, M. (2004). Morphometric measurements of flexor tendons and ligaments in Arabian horses by ultrasonographic examination and comparison with other breeds. Equine Veterinary  Education, 16, 81-85.
Chavers, J.C., Allen, A.K., Ahmed, W., Fuglsang-Damgaard, L.H., & Harrison, A.P. (2018). The Equine Hindlimb Proximal Suspensory Ligament: an Assessment of Health and Function by Means of Its Damping Harmonic Oscillator Properties, Measured Using an Acoustic Myography System: a New Modality Study. Journal of Equine Veterinary Science, 71, 21-26.
Cuesta, I., Riber, P., Gata, M., Pinedo, M., Gata, J.A., & Castejon, F. (1995). Ultrasonogeraphic measurement of palmar metacarpal tendon and ligament structures in the horse. Veterinary Radiology & Ultrasound, 36(2), 131-136.
Dyson, S., Murray, R., & Pinilla, M.J. (2017). Proximal suspensory desmopathy in hindlimbs: a correlative clinical, ultrasonographic, gross post mortem and histologicalstudy. Equine Veterinary Journal, 49,65-72.
Ge, X.J., Zhang, L., Xiang, G., Hu, Y.C., & Lun, D.X. (2020). Cross-Sectional Area Measurement Techniques of Soft Tissue: A Literature Review. Orthopaedic Surgery, 12(6), 1547-1566.
Genovese, R.L., Rantanen, N.W., Hauser, M.L., & Simpson, B.S. (1986). Diagnostic ultrasonography of equine limbs. Veterinary Clinics of North America: Equine Practice, 2, 145.
Gillis, C., Meagher, D.M., Cloninger, A., Locatelli, L., & Willits, N. (1995). Ultrasonographic cross-sectional area and mean echogenicity of the superficial and deep digital flexor tendons in 50 trained Thoroughbred racehorse. American Journal of Veterinary Research, 56, 1265-1269.
Maoudifard, M. (2008). Principles of ultrasonography of tendons and ligaments in the horse (Persian). Iranian Journal of Veterinary Surgery, 2, 72-81.
Marsiglia, M.F., Yamada, A.L.M., Pinheiro, M., Marcondes, G.M., Paretsis, N.F., & Silva, L.C.L.C. (2019). Radiographic and ultrasonographic imaging of a dystrophic mineralization on the oblique sesamoidean ligament in a jumping horse. Twenty months follow-up. Brazilian Journal of Veterinary Research and Animal Science, 56(4): e159455.
Mitchell, R.D., DaSilva, D.D., Rosenbaum, C.F., Blikslager, A.T., & Edwards III, R.B.(2020). Ultrasound findings in tendons and ligaments of lame sport horses competing or training in South Florida venues during the winter seasons of 2007 through 2016. Equine Veterinary Education, 33(6), 306-309.
Mohammad, M.B., Gohary, W.S., & El-Glil, A.I.A. (2008). Ultrasonographic Anatomy of the Fetlock in Draught Horses. Iranian Journal of Veterinary Surgery, 3, 9-18.
Muylle, S., Vanderperren, K., Saunders, J., & Paul Simoens, P. (2010). Morphometric data on the accessory ligament of the deep digital flexor tendon in the equine hind limb. The Veterinary Journal, 184, 298–302.
Nazem, M.N., & Sajjadian, S.M. (2015). Anatomic assessment of tendons and ligaments of palmar surface of metacarpus in Anatoly donkey and its comparison with horse. Journal of Veterinary Research, 70,4:419-424.
Oikawa, M. A., & Kasashima, Y. (2002). The Japanese experience with tendinitis in racehorses. Journal of Equine Science, 13, 41–56.
Padaliya, N.R., Ranpariya, J.J., Kumar, D., Javia, C.B., & Barvalia, D.R. (2015). Ultrasonographic assessment of the equine palmar tendons. Veterinary World, 8(2), 208-212.
Rachel, C.M., Brideget, L.R., & Schramme, M.C. (2004). Quantitative evaluation of equine deep digital flexor tendon morphology using magnetic resonance imaing. Veterinary Radiology & Ultrasound, 45, 103-111.
Rantanen, N.W. (1982). The use of diagnostic ultrasound in limb disorders of the horse: a preliminary report. Journal of Equine Veterinary Science, 12, 62.
Reef, A.B. (1998). Musculoskeletal. In: Equine Diagnostic Ultrasound. 1st ed. W.B. Saunders, Philadelphia. p39-186.
Reyes-Bossa B., Medina-Ríos, H., & Cardona-Álvarez, J.A. (2020). Evaluation of morphometric measures of tendons and metacarpal ligaments by ultrasonography in Colombian creole horses. Revista MVZ Cordoba, 25(2), 1-10.
Smith, R.K.W., Jones, R., & Webbon, P.M. (1994). The cross-sectional areas of normal equine digital flexor tendons determined ultrasonographically. Equine veterinary Journal, 26, 460-465.
Spinella, G., Britti, D., Loprete, G., Musella, V., Romagnoli, N., Vilar, J., & Valentini, S. (2016). Relative echogenicity of tendons and ligaments of the palmarmetacarpal region in foals from birth to 4 months of age: a longitudinal study. PLoS ONE, 21, 1-7.
Spinella, G., Loprete, G., Castagnetti, C., Musella, V., Antonelli, C., Vilar, J.M., & Valenti, S. (2015). Evaluation of mean echogenicity of tendons and ligaments of the metacarpal region in neonatal foals: a preliminary study. Research in Veterinary Science, 101:11–14.
Spinella, G., Valentini, S., Pitti, L., Carrillo, J.M., Rubio, M., Sopena, J., Santana, A., & Vilar, J.M. (2018). Ultrasonographic evaluation of cross-sectional area of tarsal ligaments in Standardbred Trotter Horses. Journal of Applied Animal Research, 46(1), 915-919.
Vali, R., & Amiripour, R. (2019). The effects of hoof trimming on radiographic measurements of hoof balance in hind feet of normal Dareh-shori horses. Iranian Journal of Veterinary Clinical Sciences, 13(2), 23-31.
Van den Belt, A.J.M., Dik, K.J., & Barneveld, A. (1994). Ultrasonographic evaluation and long term followup on flexor tendonitis/desmitis in the metacarpal/metatarsal region in Dutch Warmblood horses and Standardbred racehorses. Veterinary Quarterly, 16, S70-S75.
Vosough, D., Molaei, M.M., Masoudifard, M., Karamouzian, K., & Hosseninejat, F. (2007). Ultrasonography Description of Metatarsal Tendons and Ligaments of the Caspian Miniature Horse. Iranian Journal of Veterinary Surgery, 2 (5), 25-35.
Whitcomb, M.B. (2004). Ultrasonographic evaluation of the metacarpus, metatarsus and pastern. Clinical Techniques in Equine Practice, 3, 238–255.