شبیه‌سازی بیومکانیکی ساق پای جوان ورزشکار و بررسی فشار اعمالی ساق‌بند اسپیسر الاستان بر اساس روش تن‌سنجی

نویسندگان

دانشگاه آزاد اسلامی، واحد علوم و تحقیقات تهران ، گروه مهندسی نساجی، تهران، ایران

چکیده
هدف تحقیق شبیه‌سازی بیومکانیکی پای ورزشکار و منسوج فشاری جهت اندازه‌گیری فشار اعمالی ساق‌بند فشاری بر پای جوان ورزشکار در جهت اعمال فشار بهینه و یکنواخت‌تر با تأمین حس راحتی بیشتر، هنگام پوشیدن بود. درروش تن‌سنجی مشخصات هندسی به‌دست‌آمده از تصاویر سیتی اسکن پای ورزشکار ورودی باکس نرم‌افزاری کد نویسی شده و با استفاده از نرم‌افزار پردازش مدل سه‌بعدی اولیه و مونتاژ عضو انجام شد. خواص مکانیکی پارچه فشاری ساق‌بند که از آزمایش‌ها تجربی اندازه‌گیری شده به باکس نرم‌افزاری وارد و عملیات شبیه‌سازی پوشیدن ساق‌پوش توسط نرم‌افزار آباکوس و بر اساس تکنیک المان محدود شبیه‌سازی شد. نتایج اندازه‌گیری فشار اندازه‌گیری شده بر پای داوطلب جوان ورزشکار توسط دستگاه کیکوهیم اندازه‌گیری و مقایسه گردید. نتایج حاصل از مقایسه مقادیر فشار اعمالی توسط ساق‌بند در حالت اندازه‌گیری شده و شبیه‌سازی بیانگر خطای بیشینه 44/ 14 درصد، مربوط به مقطع زیر زانو و نقطه پشت پا بوده و کمینه خطا 8 درصد مربوط به مقطع مچ پا و نقطه جلو پا است که باوجود فرضیات و منابع خطا در این شبیه‌سازی نتایج بیانگر دقت قابل‌قبول مقادیر فشار اندازه‌گیری شده در حالت شبیه‌سازی باحالت اندازه‌گیری شده است.

کلیدواژه‌ها


عنوان مقاله English

Biomechanical simulation of a young athlete's limb and evaluation of pressure properties of legging produce from elastic spacer fabric by anthropometric method

نویسندگان English

golnaz mousavi
Mehdi varsei
Abosaeed Rashidi
Reza Ghazisaeidi
standard organiz,quality assessment department 4 floor ation-
چکیده English

The purpose of this article is to biomechanically simulate athlete's leg and compression garment to measure the pressure on a young athlete's leg in order to apply more optimal and uniform pressure distribution while providing a greater sense of comfort when wearing.

The body condition and body shape of the athlete are measured by anthropometric method. Although Using a CT scan of the athlete's body (athlete's limb) and the mechanical properties of the pressure garment (leggings) that made of elastane spacer fabric was simulated by finite element technique. The results of measuring the real pressure on the young athlete's foot were measured and compared by a kikuhime device. The values of pressure applied by the leg in the real state and simulation indicate a maximum error of 14/44 percent (Cross section below the knee and the point behind the leg), a minimum error of 8 percent (Cross section of the ankle and the front point of the leg). Despite the assumptions and sources of error in this simulation, the results show that measured pressure values in the simulation mode with the real mode with incredible accuracy

کلیدواژه‌ها English

Anthropometric
Biomechanical Simulation
Compression Garment
Pressure Distribution
Finite Element
1. Liu, R. Guo, X. Lao, TT. et al. (2017). A critical review on compression textiles for compression therapy: textile-based compression interventions for chronic venous insufficiency. Textile Research Journal. 87: 1121–1141.
2. Sarmadi, A. Bagheri, R. Naseari pour, F.(2011). The Effects of KinesioTaping of leg and cognitive task on balanceResearch in Sport Medicine and Technology. 9 (2) :11-26. ( In Persian)
3. Xiong, Y. Xiaoming, T. (2018). Compression Garments for Medical Therapy and Sports. Polymers. 10(6): 663.
4. Mousavi, G., Varsei, M., Rashidi, R., Ghazisaeidi, R. (2021)., Experimental enalution of the compression garment producted from elastic spacer fabrics through real human limb. Journal of Industrial Textile. Publish Online.
5. Kaplan, S. Okur, A. (2012). Termal comfort performance of sports garments with objective and subjective measurements. Indian Journal of Fibre & Textile Research. 37: 46-54.
6. Hassan, M. Qashqary, kh. Hassan, A. Shady, E. Alansary, M. (2012). Influence of sports wear fabric properties on the health and performance of athletes. Fibers & Textiles in Eastern Europe. 93(4): 82-88.
7. Hill, J. Howatson, G. Someren, K. Leeder, J. Pedlar, C. (2014). Compression garments and recovery from exercise-induced muscle damage: a meta-analysis. British Journal of Sports Medicine. 48(18):1340-60.
8. Christopher, J. Julie, R. Geoffrey, M. (2020). Experimental evaluation and analytical model of the pressure generated by elastic compression garments on a deformable human limb analogue. Medical Engineering and Physics. 83:93-99.
9. Glanville, KM. Hamlin, MJ. (2012). Positive effect of lower body compression garments on subsequent 40-kM cycling time trial performance. The Journal of Strength & Conditioning Research. 26(2):480–6.
10. Burden, R. Glaister, M. (2012). The effects of ionized and nonionized compression garments on sprint and endurance cycling. Journal of Strength & Conditioning Research. 26(10):2837–43
11. Beliard, S. Chauveau, M. Moscatiello, T. Cros, F. Ecarnot, F. Becker, F. (2015). Compression garments and exercise:no influence of pressure applied. . Journal of Sports Science and Medicine.14(1):75-83.
12. Haleem, A. et al (2021). Biosensors applications in medical field: A brief review. Sensors International - Journal. 2. Open access.
13. Wang, Y. Liu, Y. Luo, S. Liao, Y. (2017). Pressure comfort sensation and discrimination on female body below waistline. The Journal of The Textile Institute. 40(5):1754-2340.
14. Xiao, J. H. Liao. Yi, Li. Quanhai, Li. Xinxing, Wu. (2011). A Review on Fabric Smoothness-roughness Sensation Studies. Journal of Fiber Bioengineering and Informatics. 4(2): 105- 114. 15.
15. Yah-el, H. et al (2014). Electrospun soy protein scaffolds as wound dressings:Enhanced reepithelialization in a porcine model of wound healing. Wound Medicine. 5:9-15.
16. Kowalski, K. et al. (2017). Influence of a compression garment on average and local changes in unit pressure. Fibres Text East Europe. 6(126): 68–74.
17. Hipler,U.C. Elsner, P). (2006). Biofunctional Textiles and the Skin.33. DOI:10.1159/isbn.978-3-318-01349-8.
18. Webster, J. Roberts, J. (2010). Comfort of cricket leg guards: a study of strap contact pressure. Procedia Engineering. 2(2):3385-3390
19. Gupta, D. Chattopadhyay, R. Bera, M. (2011). Comfort properties of pressure garments in extended state Indian Journal of Fibre and Textile Research. 36(4): 415-421
20. Cebulla, H. Diestel, O. Offermann, P. (2002). Fully fashioned biaxial weft knitted fabrics. Autex Research Journal. 2(1): 8-13.
21. Bourne, K. et al. (2020). Compression Garment Reduces Orthostatic Tachycardia and Symptoms in Patients With Postural Orthostatic Tachycardia Syndrome. JACC Journals (American College of Cardiology). 77(3): 285–296.
22. Niwaya, H. (1999). Evaluation technology of clothing comfortableness. Journal of Materials Chemistry. 7(5): 269–282
23. Liu, Y. Lv, L. Sub, B. Hu, H. Gu, B. (2006). Dynamic response of 3D biaxial spacer weft- knitted composite under transverse impact. Journal of Reinforced Plastics and Composites. 25(15): 1629-1641.
24. Gokarneshan, N. Velumani, K. (2018). Some significant advances in spacer fabric technology for newer areas of applications. Journal of Textile Science and Engineering. 8(1): 2165-8064.
25. Shuvo, I. Chakma, K. Toutant, D. (2018). Prospect of 3D warp knitted spacer fabric and its effect on pressure relieve for reducing the prevalence of pressure ulcers for immobile patients. Journal of Textile Science & Engineering. 8(1): 335-339.
26. Bruer, S. Powel, N. Smith, G. (2005). Three- dimensionally knit spacer fabrics: A review of production techniques and applications. Research Journal of Textile and Apparel, Technology and Management. 4(4):1-31.
27. Zhang, X. Yeung, K. Li, Y. (2002). Numerical simulation of 3D dynamic garment pressure. Textile Research Journal. 72(3):245-252.
28. Li, Y. Zhang, X. Yeung, K. (2003). A 3D biomechanical model for numerical simulation of dynamic mechanical interactions of bra and breast during wear. Journal of Japan Science Technology Information Aggregator, Electronic(J-STAGE). 59(1): 12-21.
29. Yeung, K. Li, Y. Zhang, X. (2004). A 3D Biomechanical human model for numerical simulation of garment–body dynamic mechanical interactions during wear. Journal of the Textile Institute. 95(1-6): 59-79.
30. Friis, E. Lakes, R. Park, J. (1988). Negative poisson's ratio polymeric and metallic foams. Journal of Materials Science. 23: 4406-4414.
31. Treloar, L. (2008). 42—The effect of test-piece dimension on the behavior of fabrics in shear. Journal of the Textile Institute Transactions, 56(10): T533-T550.
32. Li, Y., Dai, D. (2006). Biomechanical engineering of textiles and clothing. Woodhead Publishing.
33. Ajeli, S. Jeddi, A. (2014). Geometrically Poisson’s ration of the polyester double-bar warp-knitted structures on the jamming point. Journal of Textiles and Polymers. 2: 24.
34. Patyk, B. Korlinski, W. (2006). Physical and mathematical modelling of the phenomenon of Fur Knitting Compression, Fibers and Textile in Eastern Europe. 14 (4): 48-52.
35. . Ng, S.F., Hui, C.L. (2001). Pressure model of elastic for producing pressure garments., Textile Research Journal., 71(3): 275-279.