Professionally determined changes in the lower limbs in ballet dancers: deformation factors (review)
Heading: Human anatomy Article type: Review
Authors: Yalunin N.V., Polyanok А.О., Moskovskikh Е.А.
Organization: Ural State Medical University
Objective: to determine the main factors determining the occurrence of professional deformities of the lower extremities in ballet dancers based on the analysis of literature data. The analysis of 33 scientific publications presented in the databases and web resources of MEDLINE, PubMed, Google Scholar, Cyberleninka, the electronic library eLibrary and published in the period from 2011 to 2020 was carried out. The most frequent professional deformities of the lower extremities in ballet dancers are valgus deformity of the foot, talus partitus, hypertrophy of the posterolateral process of the talus bone (formation of the Steida process), flattening of the butt joints and excessive acetabular retroversion. Based on the analysis of studies, the order of occurrence of professional changes in the lower extremities of ballet dancers (foot — ankle joint — hip joint — knee joint) was determined. The systematization of the factors that cause the professional deformity of the lower extremities, and the association into groups based on their genesis (exo- and endogenous) is carried out. The nature of the influence of a number of exo- and endogenous factors on the features of the development of pathological morpho-functional changes of the lower extremities in ballet dancers is determined
Bibliography:
1. Statistical publications. Healthcare in Russia 2019. URL: https://rosstat.gov.ru/folder/210/document/13218 (20 June 2021).
2. Pohjola H, Sayers M, Mellifont R, et al. Three-dimensional analysis of a ballet dancer with ischial tuberosity apophysitis: A case study. Journal of Sports Science and Medicine 2014; 13 (4): 874-80.
3. Zavalishin DS, Makarenko MV. New knowledge about human physiology as the basis for innovation in ballet education. Bulletin of Vaganova Ballet Academy 2015; 5 (40): 96-101et technique. 4th ed. N. Y: Dover Publications, Inc; 2015; 171 p.
5. Kuznetsov IA, Velichko KE, Shchepkina EA. Features of treatment for posterior impingement in sportsmen and ballet dancers. Traumatology and Orthopedics of Russia 2015; 77 (3): 61-8.
6. Seki Н, Miura A, Sato N, et al. Correlation between degree of hallux valgus and kinematics in classical ballet: A pilot study. PLOS One 2020; 15 (4): e0231015.
7. Sobrino FJ, Guillen P. Overuse injuries in professional ballet: influence of age and years of professional practice. Orthopaedic Journal of Sports Medicine 2017; 6 (5): 2325967117712704.
8. Vasil'ev OS, Stepanik IA, Levushkin SP, Rohlin AV. Physical overload in choreography and sports (systematic analysis). Message I. Morphology of eversion. New Research 2020; 61 (1): 98-125.
9. Steinberg N, Siev-Ner I, Zeev A, Dar G. The association between hallux valgus and proximal joint alignment in young female dancers. International Journal of Sports Medicine 2015; 36 (1): 67-74.
10. CarterSL, BryantAR, Hopper LS. An analysis of the foot in turnout using a dance specific 3D multi-segment foot model. J Foot Ankle Res. Journal of Foot and Ankle Research 2019; 12 (10): 1-11.
11. Hansberger BL, Acocello S, Slater LV, et al. Peak lower extremity landing kinematics in dancers and nondancers. Journal of Athletic Training 2018; 53 (4): 379-85.
12. Herb CC, Grossman K, Feger MA, et al. Lower extremity biomechanics during a drop-vertical jump in participants with or without chronic ankle instability. Journal of Athletic Training 2018; 53 (4): 364-71.
13. QuanbeckAE, Russell JA. Handley SC, Quanbeck DS. Kinematic analysis of hip and knee rotation and other contributors to ballet turnout. Journal of Sports Sciences 2017; 35 (4): 331-8.
14. Romakina NA, Fedonnikov AS, Kireev SI, et al. Application of techniques of biomechanics in the status evaluation and pathology correction of locomotor system (review). Saratov Journal of Medical Scientific Research 2015; 11 (3): 310-6.
15. Marina MA. Development of "ballet-foot" in the professional and pre-professional choreographic education. Bulletin of Vaganova Ballet Academy 2015; 5 (40): 102-12.
16. Bakharev DV, Panteleeva DV. Anatomical and bio-mechanical features in foot development revealed among students of Samara ballet school. Bulletin of Vaganova Ballet Academy 2016; 6 (47): 162-8.
17. Sobrino FJ, de la Cuadra С, Guillen P. Overuse injuries in professional ballet: injury-based differences among ballet disciplines. Orthop J Sports Med 2015; 3 (6): 2325967115590114.
18. Nechaev VA, Vasil'ev Alu. Diagnostic imaging of pathologic changes in the ankle joint of ballet dancers (literature review). Genij Orthopedii 2020; 1 (26): 137-40.
19. Rehmani R, Endo Y, Bauman P, et al. Lower extremity injury patterns in elite ballet dancers: ultrasound/MRI imaging features and an institutional overview of therapeutic ultrasound guided percutaneous interventions. The Muscuioskeletal Journal of Hospital for Special Surgery 2015; 11 (3): 258-77.
20. Costa MSS, Ferreira AS, Orsini M, et al. Characteristics and prevalence of muscuioskeletal injury in professional and non-professional ballet dancers. Brazilian Journal of Physical Therapy 2016; 20 (2): 166-75.
21. Fong C-M, Blackburn JT, Norcross MF, et al. Ankle-dor-siflexion range of motion and landing biomechanics. Journal of Athletic Training 2011; 46 (1): 5-10.
22. Biz C, Favero L, Stecco C, Aldegheri R. Hypermobility of the first ray in ballet dancer. Muscles, Ligaments and Tendons Journal 2012; 2 (4): 282-8.
23. Zhanaspaev MA, Bokembaev NA, Tlemisov AS, et al. Modern methods of diagnosis and treatment of static deformity of theforefoot. Literature review. Science & Healthcare 2020; 5 (22): 31-46.
24. Perry SK, Buddhadev HH, Brilla LR, Suprak DN. Mechanical demands at the ankle joint during saut de chat and temps leve jumps in classically trained ballet dancers. Open Access Journal of Sports Medicine 2019; (10): 191-7.
25. Zazirnyi IM, Ryzhkov BS. View of the sport traumatolo-gist on the biomechanics of the hip. Trauma 2019; 1 (20): 102-10.
26. Vasil'ev OS. Ballet «rise» as a phenotypic marker of connective tissue dysplasia. Department of traumatology and orthopedics 2016; Special issue: 131.
27. Skwiot М, Sliwiiiski G, Milanese S, Sliwiiiski Z. Hypermobility of joints in dancers. PLOS One 2019; 14 (2): e0212188.
28. Nechaev VA, Vasil'ev AYu. Imaging of ballet artists' hip joint pathology (literature review). Radi Practice 2018; (3): 51-60.
29. Kiselevskiy YuM, Ivantsov AV. Structural and functional characteristics of knee joint. Journal of the Grodno State Medical University 2008; (1): 109-12.
30. Amorim Т, Metsios GS, Wyon М, et al. Bone mass of female dance students prior to professional dance training: Across-sectional study. PLOS One 2017; 12 (7): e0180639.
31. Washington I, Mayes S, Genderton C, Pizzari T. Differentials in turnout among professional classical ballet dancers. Medical Problems of Performing Artists 2016; 1 (3): 160-5.
32. Gorwa J, Kabaciiiski J, Murawa Mi, Fryzowicz A. On the track of the ideal turnout: Electromyographic and kinematic analysis of the five classical ballet positions. PLOS One 2020; 15 (3): e0230654.
33. OzdincSA, Turan FN. Effects of ballet training of children in Turkey on foot anthropometric measurements and medial longitudinal arc development. Journal of the Pakistan Medical Association 2016; 66 (7): 869-74.
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