Section of Rheumatology, Rush Medical College, Rush University Medical Center, Chicago, Illinois, USA.
Curr Opin Rheumatol. 2010 Sep;22(5):544-50. doi: 10.1097/BOR.0b013e32833bd81f.
To review the role of biomechanics in the pathogenesis of lower-extremity osteoarthritis and recent advances in biomechanically active intervention strategies for osteoarthritis.
The conventional approach to treating knee osteoarthritis with analgesics and physical therapy has not been shown to alter the natural history of the disease, suggesting that novel strategies are necessary. Progression of lower-extremity osteoarthritis is mediated by aberrant biomechanics, which can be assessed using gait analyses and validated markers of dynamic knee loading such as the peak adduction moment (AddM) and adduction angular impulse (AddImp). Recognition of the mechanical component of osteoarthritis progression has led to intervention strategies that seek to reduce functional loads at the knee, and thereby, potentially, to palliate pain and retard disease progression.
Biomechanically active interventions have been demonstrated to reduce dynamic loading of the knees in patients with osteoarthritis, and are potentially promising strategies to treat symptoms as well as to alter disease progression in osteoarthritis.
探讨下肢骨关节炎发病机制中的生物力学作用,以及骨关节炎生物力学干预策略的最新进展。
用镇痛药和物理疗法治疗膝关节骨关节炎的传统方法并未显示能改变疾病的自然病程,这表明需要新的策略。下肢骨关节炎的进展是由异常的生物力学介导的,可以通过步态分析和验证的动态膝关节负荷标志物(如内收矩峰值和内收角冲量)来评估。对骨关节炎进展的力学成分的认识导致了干预策略的产生,这些策略旨在减少膝关节的功能负荷,从而有可能减轻疼痛和延缓疾病进展。
生物力学干预已被证明可降低骨关节炎患者膝关节的动态负荷,是治疗症状和改变骨关节炎疾病进展的有前途的策略。