Literature DB >> 28139009

The twisted structure of the Achilles tendon unraveled: A detailed quantitative and qualitative anatomical investigation.

P A Pękala1, B M Henry1, A Ochała1, P Kopacz2, G Tatoń3, A Młyniec4, J A Walocha1, K A Tomaszewski1.   

Abstract

The Achilles tendon (AT) consists of fibers originating from the soleus muscle (SOL), which lies deep, and the medial (GM) and lateral (GL) heads of the gastrocnemius muscle, which lie superficial. As the fibers descend toward the insertion of the AT, the individual subtendons twist around each other. The aim of this study was to investigate the twisted structure of the AT and its individual subtendons. Specimens of the AT, with preserved calcaneal bone and a fragment of the triceps surae muscle, were obtained from 53 fresh-frozen, male cadavers (n=106 lower limbs). The angle of torsion of each of the AT's subtendons was measured using a specially designed and 3D-printed tool. The mean distance between the most distal fibers of the triceps surae muscle and the superior border of the calcaneal bone was 60.77±14.15 mm. The largest component of the AT at the level of its insertion into the calcaneal bone is the subtendon from the GL (44.43%), followed by the subtendon from SOL (27.89%), and the subtendon from GM (27.68%). The fibers originating from the GM rotate on average 28.17±15.15°, while the fibers originating from the GL and SOL twist 135.98±33.58° and 128.58±29.63°, respectively. The torsion of superficial fibers (GM) comprising the AT is significantly lower than that of deeper fibers (GL and SOL). The cross-sectional area of the AT is smaller at the level of the musculo-tendinous junction than at the level of its insertion. This study illustrates the three types of the AT with differently twisting subtendons, as well as a generalized model of the AT. Types of AT torsion may potentially alter the biomechanical properties of the tendon, thus possibly influencing the pathophysiologic mechanisms leading to the development of various tendinopathies.
© 2017 John Wiley & Sons A/S. Published by John Wiley & Sons Ltd.

Entities:  

Keywords:  3D structure; anatomy; biomechanics; calcaneal tendon; subtendons

Mesh:

Year:  2017        PMID: 28139009     DOI: 10.1111/sms.12835

Source DB:  PubMed          Journal:  Scand J Med Sci Sports        ISSN: 0905-7188            Impact factor:   4.221


  18 in total

1.  Loss of the knee-ankle coupling and unrecognized elongation in Achilles tendon rupture: effects of differential elongation of the gastrocnemius tendon.

Authors:  Susanne Olesen Schaarup; Eva Wetke; Lars Aage Glud Konradsen; James David Forbes Calder
Journal:  Knee Surg Sports Traumatol Arthrosc       Date:  2021-04-30       Impact factor: 4.342

2.  Classification by degree of twisted structure of the fetal Achilles tendon.

Authors:  Mutsuaki Edama; Tomoya Takabayashi; Hirotake Yokota; Ryo Hirabayashi; Chie Sekine; Sae Maruyama; Hiroki Otani
Journal:  Surg Radiol Anat       Date:  2021-07-14       Impact factor: 1.246

Review 3.  Achilles tendon complex: The anatomy of its insertional footprint on the calcaneus and clinical implications.

Authors:  Jared Mahan; Dhanur Damodar; Evan Trapana; Spencer Barnhill; Ane Ugarte Nuno; Niall A Smyth; Amiethab Aiyer; J Jose
Journal:  J Orthop       Date:  2019-06-10

4.  Biplanar ultrasound investigation of in vivo Achilles tendon displacement non-uniformity.

Authors:  Lauri Stenroth; Darryl Thelen; Jason Franz
Journal:  Transl Sports Med       Date:  2018-12-01

5.  Subject-Specific 3D Models to Investigate the Influence of Rehabilitation Exercises and the Twisted Structure on Achilles Tendon Strains.

Authors:  Alessia Funaro; Vickie Shim; Marion Crouzier; Ine Mylle; Benedicte Vanwanseele
Journal:  Front Bioeng Biotechnol       Date:  2022-07-06

6.  The twisted structure of the fetal calcaneal tendon is already visible in the second trimester.

Authors:  Paweł Szaro; Grzegorz Witkowski; Bogdan Ciszek
Journal:  Surg Radiol Anat       Date:  2020-11-25       Impact factor: 1.246

7.  Influence of different knee and ankle ranges of motion on the elasticity of triceps surae muscles, Achilles tendon, and plantar fascia.

Authors:  Chun-Long Liu; Ji-Ping Zhou; Peng-Tao Sun; Bai-Zhen Chen; Jun Zhang; Chun-Zhi Tang; Zhi-Jie Zhang
Journal:  Sci Rep       Date:  2020-04-20       Impact factor: 4.379

8.  Evaluation of tissue displacement and regional strain in the Achilles tendon using quantitative high-frequency ultrasound.

Authors:  Stijn Bogaerts; Catarina De Brito Carvalho; Lennart Scheys; Kaat Desloovere; Jan D'hooge; Frederik Maes; Paul Suetens; Koen Peers
Journal:  PLoS One       Date:  2017-07-20       Impact factor: 3.240

9.  Regional Elastic Properties of the Achilles Tendon Is Heterogeneously Influenced by Individual Muscle of the Gastrocnemius.

Authors:  Jiping Zhou; Jiafeng Yu; Chunlong Liu; Chunzhi Tang; Zhijie Zhang
Journal:  Appl Bionics Biomech       Date:  2019-11-03       Impact factor: 1.781

10.  Distribution of the subtendons in the midportion of the Achilles tendon revealed in vivo on MRI.

Authors:  Paweł Szaro; Walter Cifuentes Ramirez; Simon Borkmann; Alexander Bengtsson; Mateusz Polaczek; Bogdan Ciszek
Journal:  Sci Rep       Date:  2020-10-01       Impact factor: 4.379

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