Brain activity associated with quadriceps strength deficits after anterior cruciate ligament reconstruction

被引:0
作者
Cody R. Criss
Adam S. Lepley
James A. Onate
Brian C. Clark
Janet E. Simon
Christopher R. France
Dustin R. Grooms
机构
[1] Ohio University,Translational Biomedical Sciences, Graduate College
[2] Ohio University,Ohio Musculoskeletal and Neurological Institute (OMNI), Grover Center W283, 1
[3] University of Michigan,School of Kinesiology; Exercise and Sport Science Initiative
[4] The Ohio State University,School of Health and Rehabilitation Sciences
[5] Ohio University,Department of Biomedical Sciences
[6] Ohio University,Division of Athletic Training, School of Applied Health Sciences and Wellness, College of Health Sciences and Professions
[7] Ohio University,Department of Psychology, College of Arts and Sciences
[8] Ohio University,Division of Physical Therapy, School of Rehabilitation and Communication Sciences, College of Health Sciences and Professions
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Scientific Reports | / 13卷
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摘要
Prolonged treatment resistant quadriceps weakness after anterior cruciate ligament reconstruction (ACL-R) contributes to re-injury risk, poor patient outcomes, and earlier development of osteoarthritis. The origin of post-injury weakness is in part neurological in nature, but it is unknown whether regional brain activity is related to clinical metrics of quadriceps weakness. Thus, the purpose of this investigation was to better understand the neural contributions to quadriceps weakness after injury by evaluating the relationship between brain activity for a quadriceps-dominated knee task (repeated cycles of unilateral knee flexion/extension from 45° to 0°), , and strength asymmetry in individuals returned to activity after ACL-R. Forty-four participants were recruited (22 with unilateral ACL reconstruction; 22 controls) and peak isokinetic knee extensor torque was assessed at 60°/s to calculate quadriceps limb symmetry index (Q-LSI, ratio of involved/uninvolved limb). Correlations were used to determine the relationship of mean % signal change within key sensorimotor brain regions and Q-LSI. Brain activity was also evaluated group wise based on clinical recommendations for strength (Q-LSI < 90%, n = 12; Q-LSI ≥ 90%, n = 10; controls, all n = 22 Q-LSI ≥ 90%). Lower Q-LSI was related to increased activity in the contralateral premotor cortex and lingual gyrus (p < .05). Those who did not meet clinical recommendations for strength demonstrated greater lingual gyrus activity compared to those who met clinical recommendations Q-LSI ≥ 90 and healthy controls (p < 0.05). Asymmetrically weak ACL-R patients displayed greater cortical activity than patients with no underlying asymmetry and healthy controls.
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