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      태권도 몸통돌려차기 시 무릎관절에 작용하는 전단력에 대한 분석 = Analysis of Knee Joint Shear Force During Taekwondo Roundhouse kicking

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      https://www.riss.kr/link?id=A105057782

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      다국어 초록 (Multilingual Abstract)

      The purpose of this study was to analyze knee joint shear force to predict the possibility of overuse injury on the ligaments which function to maintain the stability of the knee joint during Taekwondo roundhouse kicking. Sixteen Taekwondo sparring athletes who primarily use right leg for roundhouse kick were randomly selected and divided into two groups by sex(8 males and 8 females). The Mann-Whitney U test was performed to verify the difference between the two groups according to sex. Significance level (α) of all the statistical analyzes were set to .05. The results obtained in this study are as follows. 1. The maximum value of the forward shear force on the knee joint of kicking leg was larger (p=.007) in male group (.186±.029) than female group (.142±.027). Maximum value of backward was larger (p=.015) in male group (-.437±.088) than female group (-.334±.089). Also, the range of value was larger (p=.007) in male group (.623±.095) than female group (.476±.087). 2. The range of value of shear force on the knee joint of supporting leg was larger (p=.021) in male group (.517±.047) than female group (.461±.045). 3. The maximum value of the medial side shear force on the knee joint was larger (p=.006) in kicking leg (-.130±.051) than supporting leg (-.079±.041), and the range of value was larger (p=.008) in kicking leg (.277±.099) than supporting leg (.198±.061). 4. The maximum value of the forward shear force on the knee joint was larger (p<.001) in supporting leg (.272±.058) than kicking leg (.164±.035), and the percent time of maximum value of forward was faster (p<.001) in kicking leg (45.1±5.5) than supporting leg (66.1±4.9). Maximum value of backward was larger (p=.001) in kicking leg (-.385±.100) than supporting leg (-.217±.050), and the percent time of maximum value of backward was faster (p<.001) in kicking leg (40.9±11.7) than supporting leg (91.4±14.7).
      번역하기

      The purpose of this study was to analyze knee joint shear force to predict the possibility of overuse injury on the ligaments which function to maintain the stability of the knee joint during Taekwondo roundhouse kicking. Sixteen Taekwondo sparring at...

      The purpose of this study was to analyze knee joint shear force to predict the possibility of overuse injury on the ligaments which function to maintain the stability of the knee joint during Taekwondo roundhouse kicking. Sixteen Taekwondo sparring athletes who primarily use right leg for roundhouse kick were randomly selected and divided into two groups by sex(8 males and 8 females). The Mann-Whitney U test was performed to verify the difference between the two groups according to sex. Significance level (α) of all the statistical analyzes were set to .05. The results obtained in this study are as follows. 1. The maximum value of the forward shear force on the knee joint of kicking leg was larger (p=.007) in male group (.186±.029) than female group (.142±.027). Maximum value of backward was larger (p=.015) in male group (-.437±.088) than female group (-.334±.089). Also, the range of value was larger (p=.007) in male group (.623±.095) than female group (.476±.087). 2. The range of value of shear force on the knee joint of supporting leg was larger (p=.021) in male group (.517±.047) than female group (.461±.045). 3. The maximum value of the medial side shear force on the knee joint was larger (p=.006) in kicking leg (-.130±.051) than supporting leg (-.079±.041), and the range of value was larger (p=.008) in kicking leg (.277±.099) than supporting leg (.198±.061). 4. The maximum value of the forward shear force on the knee joint was larger (p<.001) in supporting leg (.272±.058) than kicking leg (.164±.035), and the percent time of maximum value of forward was faster (p<.001) in kicking leg (45.1±5.5) than supporting leg (66.1±4.9). Maximum value of backward was larger (p=.001) in kicking leg (-.385±.100) than supporting leg (-.217±.050), and the percent time of maximum value of backward was faster (p<.001) in kicking leg (40.9±11.7) than supporting leg (91.4±14.7).

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      국문 초록 (Abstract)

      본 연구의 목적은 태권도 겨루기선수들이 몸통돌려차기를 수행할 때 무릎관절의 안정성을 유지하기 위해 기능하는 십자인대 및 측부인대에 작용하는 전단력을 역동역학적 기법으로 분석하는 것이다. 연구대상자들은 오른발을 주 사용발로 하는 남, 녀 겨루기선수 각 8명, 총 16명이며, 성별에 따라 두 집단으로 구성하여 연구를 진행한 결과는 다음과 같다. 1. 차는 다리의 무릎관절에 작용하는 전후방향의 전단력에 대하여 전방최대값은 남자집단(.186±.029)이 여자집단(.142±.027)보다 크게 나타났으며(p=.007), 후방최대값은 남자집단(-.437±.088)이 여자집단(-.334±.089)보다 크게 나타났다(p=.015). 또한 값의 범위는 남자집단(.623±.095)이 여자집단(.476±.087)보다 크게 나타났다(p=.007). 2. 버팀다리의 무릎관절에 작용하는 전후방향의 전단력에 대하여 값의 범위에서 남자집단(.517±.047)이 여자집단(.461±.045)보다 크게 나타났다(p=.021). 3. 차는 다리와 버팀다리의 무릎관절에 좌우방향으로 작용하는 전단력에 대하여 좌측최대값은 차는 다리(-.130±.051)가 버팀다리(-.079±.041)보다 크게 나타났으며(p=.006), 값의 범위는 차는 다리(.277±.099)가 버팀다리(.198±.061)보다 크게 나타났다(p=.008).
      번역하기

      본 연구의 목적은 태권도 겨루기선수들이 몸통돌려차기를 수행할 때 무릎관절의 안정성을 유지하기 위해 기능하는 십자인대 및 측부인대에 작용하는 전단력을 역동역학적 기법으로 분석하...

      본 연구의 목적은 태권도 겨루기선수들이 몸통돌려차기를 수행할 때 무릎관절의 안정성을 유지하기 위해 기능하는 십자인대 및 측부인대에 작용하는 전단력을 역동역학적 기법으로 분석하는 것이다. 연구대상자들은 오른발을 주 사용발로 하는 남, 녀 겨루기선수 각 8명, 총 16명이며, 성별에 따라 두 집단으로 구성하여 연구를 진행한 결과는 다음과 같다. 1. 차는 다리의 무릎관절에 작용하는 전후방향의 전단력에 대하여 전방최대값은 남자집단(.186±.029)이 여자집단(.142±.027)보다 크게 나타났으며(p=.007), 후방최대값은 남자집단(-.437±.088)이 여자집단(-.334±.089)보다 크게 나타났다(p=.015). 또한 값의 범위는 남자집단(.623±.095)이 여자집단(.476±.087)보다 크게 나타났다(p=.007). 2. 버팀다리의 무릎관절에 작용하는 전후방향의 전단력에 대하여 값의 범위에서 남자집단(.517±.047)이 여자집단(.461±.045)보다 크게 나타났다(p=.021). 3. 차는 다리와 버팀다리의 무릎관절에 좌우방향으로 작용하는 전단력에 대하여 좌측최대값은 차는 다리(-.130±.051)가 버팀다리(-.079±.041)보다 크게 나타났으며(p=.006), 값의 범위는 차는 다리(.277±.099)가 버팀다리(.198±.061)보다 크게 나타났다(p=.008).

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      참고문헌 (Reference)

      1 신제민, "태권도 옆차기시 관절운동의 3차원분석" 한국체육학회 41 (41): 545-556, 2002

      2 한기훈, "여자 선수들의 전방십자인대 부상원인과 위험요인" 대한운동사협회 11 (11): 61-83, 2009

      3 Hewett, Timothy E, "Video analysis of trunk and knee motion during non-contact anterior cruciate ligament injury in female athletes : lateral trunk and knee abduction motion are combined components of the injury mechanism" 43 (43): 417-422, 2009

      4 Bahr, Roald, "Understanding injury mechanisms: a key component of preventing injuries in sport" 39 (39): 324-329, 2005

      5 Crowninshield, RD, "The strength and failure characteristics of rat medial collateral ligaments" 16 (16): 99-105, 1976

      6 Lohmander, L Stefan, "The long-term consequence of anterior cruciate ligament and meniscus injuries osteoarthritis" 35 (35): 1756-1769, 2007

      7 Robertson, G, "Research Methods in Biomechanics" Human Kinetics Publishers 2013

      8 Prentice, William, "Principles of athletic training" Mcgraw-Hill Education 2013

      9 Moreira, Pedro Vieira Sarmet, "Neuromuscular performance of bandal chagui: Comparison of subelite and elite taekwondo athletes" 2016

      10 Marshall, JL, "Knee ligament injuries--a diagnostic and therapeutic approach" 8 (8): 641-668, 1977

      1 신제민, "태권도 옆차기시 관절운동의 3차원분석" 한국체육학회 41 (41): 545-556, 2002

      2 한기훈, "여자 선수들의 전방십자인대 부상원인과 위험요인" 대한운동사협회 11 (11): 61-83, 2009

      3 Hewett, Timothy E, "Video analysis of trunk and knee motion during non-contact anterior cruciate ligament injury in female athletes : lateral trunk and knee abduction motion are combined components of the injury mechanism" 43 (43): 417-422, 2009

      4 Bahr, Roald, "Understanding injury mechanisms: a key component of preventing injuries in sport" 39 (39): 324-329, 2005

      5 Crowninshield, RD, "The strength and failure characteristics of rat medial collateral ligaments" 16 (16): 99-105, 1976

      6 Lohmander, L Stefan, "The long-term consequence of anterior cruciate ligament and meniscus injuries osteoarthritis" 35 (35): 1756-1769, 2007

      7 Robertson, G, "Research Methods in Biomechanics" Human Kinetics Publishers 2013

      8 Prentice, William, "Principles of athletic training" Mcgraw-Hill Education 2013

      9 Moreira, Pedro Vieira Sarmet, "Neuromuscular performance of bandal chagui: Comparison of subelite and elite taekwondo athletes" 2016

      10 Marshall, JL, "Knee ligament injuries--a diagnostic and therapeutic approach" 8 (8): 641-668, 1977

      11 Sakane, Masataka, "In situ forces in the anterior cruciate ligament and its bundles in response to anterior tibial loads" 15 (15): 285-293, 1997

      12 Serge Van Sint Jan, "Identifying the location of human skeletal landmarks: why standardized definitions are necessary--a proposal" Elsevier BV 20 (20): 659-660, 2005

      13 Meglan, D, "Human walking" 73-101, 1994

      14 Daniel J. Cleather, "Hip and knee joint loading during vertical jumping and push jerking" Elsevier BV 28 (28): 98-103, 2013

      15 Rob W. Bisseling, "Handling of impact forces in inverse dynamics" Elsevier BV 39 (39): 2438-2444, 2006

      16 Schatzmann, L, "Effect of cyclic preconditioning on the tensile properties of human quadriceps tendons and patellar ligaments" 6 (6): S56-S61, 1998

      17 Butler, DL, "Biomechanics of ligaments and tendons" 6 : 125-, 1978

      18 Woo, Savio L-Y, "Biomechanics of knee ligaments: injury, healing, and repair" 39 (39): 1-20, 2006

      19 Noyes, FR, "Biomechanical analysis of human ligament grafts used in knee-ligament repairs and reconstructions" 66 (66): 344-352, 1984

      20 Hewett, Timothy E, "Anterior cruciate ligament injuries in female athletes part 1, mechanisms and risk factors" 34 (34): 299-311, 2006

      21 Paolo de Leva, "Adjustments to Zatsiorsky-Seluyanov's segment inertia parameters" Elsevier BV 29 (29): 1223-1230, 1996

      22 Prodromos, Chadwick C, "A meta-analysis of the incidence of anterior cruciate ligament tears as a function of gender, sport, and a knee injury– reduction regimen" 23 (23): 1320-1325.e6, 2007

      23 Kinoshita, Madoka, "A KINEMATIC STUDY ON HOW TO KICK QUICKLY IN TAEKWONDO" 2016

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