각속도 300 °/sec에서 기능적 발목불안 유무에 따른 고유수용성감각, 발목 근력, 그리고 최고 회전력까지 걸리는 시간의 생체역학적 특성 차이
Different Biomechanical Characteristics in Proprioception, Muscle Strength, and Time to Peak Torque at Velocity of 300 °/sec of the Ankle Joint in People With or Without Functional Ankle Instability
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초록
The purpose of this study was to examine the differentiation of proprioception, invertor and evertor muscle strength, and time to peak torque at a velocity of 300 °/sec of the ankle joint in people with or without functional ankle instability (FAI). Nineteen subjects with a history of ankle sprain participated. All subjects were divided into FAI group (n1=9, Cumberland ankle instability tool (CAIT)≤24) and a control group (n2=10) based on their CAIT scores. Isokinetic dynamometer was used to measure the sense of active joint position of the ankle at mid-range and end-range of an inversion motion and invertor as well as the evertor muscle strength and time to peak torque at 300 °/s. The FAI group showed a statistically reduction in invertor and evertor muscle strength and time to peak torque when compared to the control group (p<.05). Muscle strength and time to peak torque of the invertor and evertor, as well as the sense of active joint position at end-range were also lower in the FAI group than in the control (p<.05). Correlations between CAIT score and position sense at end-range (r=-.577) and invertor muscle strength (r=.554) were statistically significant (p<.05). Individuals with FAI showed reduction in invertor and evertor muscle strength and recruitment time as well as in proprioception of the ankle joint. Thus, proprioception and invertor and evertor muscle strength of the ankle joint at fast angular velocity may be investigated when examining and planning care for individuals with FAI.
Abstract
The purpose of this study was to examine the differentiation of proprioception, invertor and evertor muscle strength, and time to peak torque at a velocity of 300 °/sec of the ankle joint in people with or without functional ankle instability (FAI). Nineteen subjects with a history of ankle sprain participated. All subjects were divided into FAI group (n1=9, Cumberland ankle instability tool (CAIT)≤24) and a control group (n2=10) based on their CAIT scores. Isokinetic dynamometer was used to measure the sense of active joint position of the ankle at mid-range and end-range of an inversion motion and invertor as well as the evertor muscle strength and time to peak torque at 300 °/s. The FAI group showed a statistically reduction in invertor and evertor muscle strength and time to peak torque when compared to the control group (p<.05). Muscle strength and time to peak torque of the invertor and evertor, as well as the sense of active joint position at end-range were also lower in the FAI group than in the control (p<.05). Correlations between CAIT score and position sense at end-range (r=-.577) and invertor muscle strength (r=.554) were statistically significant (p<.05). Individuals with FAI showed reduction in invertor and evertor muscle strength and recruitment time as well as in proprioception of the ankle joint. Thus, proprioception and invertor and evertor muscle strength of the ankle joint at fast angular velocity may be investigated when examining and planning care for individuals with FAI.
참고문헌 (42)
- Acus RW 3rd, "Perineural fibrosis of superficial peroneal nerve complicating ankle sprain: A case report", Foot Ankle, 11(4), pp.233~235 (1991)
- Arnold BL, "Concentric evertor strength differences and functional ankle instability: A meta-analysis", J Athl Train, 44(6), pp.653~662 (2009)
- Balduini FC, "Historical perspectives on injuries of the ligaments of the ankle", Clin Sports Med, 1(1), pp.3~12 (1982)
- Cameron MH, "Physical Rehabilitation: Evidence-based examination, evaluation, and intervention", pp.72~73 (2007), Saunders Elsevier
- Chu VW, "Differentiation of ankle sprain motion and common sporting motion by ankle inversion velocity", J Biomech, 43(10), pp.2035~2038 (2010)
- Collado H, "Eccentric reinforcement of the ankle evertor muscles after lateral ankle sprain", Scand J Med Sci Sports, 20(2), pp.241~246 (2010)
- David P, "Isokinetic testing of evertor and invertor muscles in patients with chronic ankle instability", J Appl Biomech (2013)
- de Noronha M, "Loss of proprioception or motor control is not related to functional ankle instability: An observational study", Aust J Physiother, 53(3), pp.193~198 (2007)
- Ebig M, "The effect of sudden inversion stress on EMG activity of the peroneal and tibialis anterior muscles in the chronically unstable ankle", J Orthop Sports Phys Ther, 26(2), pp.73~77 (1997)
- Ekstrand J, "The incidence of ankle sprains in soccer", Foot Ankle, 11(1), pp.41~44 (1990)
- Freeman MA, "The etiology and prevention of functional instability of the foot", J Bone Joint Surg Br, 47(4), pp.678~685 (1965)
- Grace TG, "Isokinetic muscle imbalance and knee-joint injuries. A prospective blind study", J Bone Joint Surg Am, 66(5), pp.734~740 (1984)
- Gutierrez GM, "Examining neuromuscular control during landings on a supinating platform in persons with and without ankle instability", Am J Sports Med, 40(1), pp.193~201 (2012)
- Hartsell HD, "Eccentric", concentric ratios at selected velocities for the invertor and evertor muscles of the chronically unstable ankle, 1999, pp.33(4), 255~258
- Hertel J, "Functional anatomy, pathomechanics, and pathophysiology of lateral ankle instability", J Athl Train, 37(4), pp.364~375 (2002)
- Hertel J, "Functional instability following lateral ankle sprain", Sports Med, 29(5), pp.361~371 (2000)
- Hertel J, "Sensorimotor deficits with ankle sprains and chronic ankle instability", Clin Sports Med, 27(3), pp.353~370 (2008)
- Hiller CE, "The cumberland ankle instability tool: A report of validity and reliability testing", Arch Phys Med Rehabil, 87(9), pp.1235~1241 (2006)
- Holmbäck AM, "Reliability of isokinetic ankle dorsiflexor strength measurements in healthy young men and women", Scand J Rehabil Med, 31(4), pp.229~239 (1999)
- Hopkins JT, "Alterations in evertor", invertor muscle activation and center of pressure trajectory in participantswith functional ankle instability, 2012, pp.22(2), 280~285
- Hubbard TJ, "Kinesthesia is not affected by functional ankle instability status", J Athl Train, 37(4), pp.481~486 (2002)
- Kannus P, "Treatment for acute tears of the lateral ligament of the ankle. Operation, cast, or early controlled mobilization", J Bone Joint Surg Am, 73(2), pp.305~312 (1991)
- Khin-Myo-Hla, "Effect of anesthesia of the sinus tarsi on peroneal reaction time in patients with functional instability of the ankle", Foot Ankle Int, 20(9), pp.554~559 (1999)
- Konradsen L, "Increased inversion angle replication error in functional ankle instability", Knee Surg Sports Traumatol Arthrosc, 8(4), pp.246~251 (2000)
- 임미영, "만성적 발목 불안정성이 있는 태권도 선수의 고관절과 발목 부위 근력", 운동과학, 19(4), pp.371~380 (2010), 한국운동생리학회
- Lentell G, "The contributions of proprioceptive deficits, muscle function, and anatomic laxity to functional instability of the ankle", J Orthop Sports Phys Ther, 21(4), pp.206~215 (1995)
- Levin O, "Sway activity and muscle recruitment order during transition from double to single-leg stance in subjects with chronic ankle instability", Gait Posture, 36(3), pp.546~551 (2012)
- Lin CW, "Neuromuscular training for chronic ankle instability", Phys Ther, 92(8), pp.987~991 (2012)
- Lin WH, "Ankle eversion to inversion strength ratio and static balance control in the dominant and non-dominant limbs of young adults", J Sci Med Sport, 12(1), pp.42~49 (2009)
- Nickson W, "Normative isokinetic data on the ankle invertors and evertors", Aust J Physiother, 33(2), pp.85~90 (1987)
- Nieuwenhuijzen PH, "Mechanically induced ankle inversion during human walking and jumping", J Neurosci Methods, 117(2), pp.133~140 (2002)
- O'Driscoll J, "Effect of a 6-week dynamic neuromuscular training programme on ankle joint function: A Case report", Sports Med Arthrosc Rehabil Ther Technol (2011)
- Palmieri-Smith RM, "Peroneal activation deficits in persons with functional ankle instability", Am J Sports Med, 37(5), pp.982~928 (2009)
- Pietrosimone BG, "Chronic ankle instability and corticomotor excitability of the fibularis longus muscle", J Athl Train, 47(6), pp.621~626 (2012)
- Pontaga I, "Ankle joint evertor-invertor muscle torque ratio decrease due to recurrent lateral ligament sprains", Clin Biomech (Bristol, Avon), 19(7), pp.760~762 (2004)
- Pourkazemi F, "Perceived ankle instability is not related to ankle joint position sense, movement detection and inversion", eversion peak power: An observational study, 2012, pp.5(1), O52~
- Rothstein JM, "Clinical uses of isokinetic measurements. Clinical issues", Phys Ther, 67(12), pp.1840~1844 (1987)
- Sekir U, "Effect of isokinetic training on strength, functionality and proprioception in athletes with functional ankle instability", Knee Surg Sports Traumatol Arthrosc, 15(5), pp.654~664 (2007)
- van Cingel RE, "Repeated ankle sprains and delayed neuromuscular response: Acceleration time parameters", J Orthop Sports Phys Ther, 36(2), pp.72~79 (2006)
- Willems T, "Proprioception and muscle strength in subjects with a history of ankle sprains and chronic instability", J Athl Train, 37(4), pp.487~493 (2002)
- Yeung MS, "An epidemiological survey on ankle sprain", Br J Sports Med, 28(2), pp.112~116 (1994)
- You SH, "Effects of circumferential ankle pressure on ankle proprioception, stiffness, and postural stability: A preliminary investigation", J Orthop Sports Phys Ther, 34(8), pp.449~460 (2004)