Review Article
Knee Joint Biomechanics in Physiological Conditions and How Pathologies Can Affect It: A Systematic Review
Table 14
Overview over the biomechanical effects of SCI, stroke, and CP.
| Study | Knee disorders | Analysis | Effects |
| Barbeau et al. [102] | SCI | Kinematics | A lower knee ROM and peak knee-swing-flexion angle for SCI patients | Kinetics | A larger peak knee moment for SCI patients |
| Desrosiers et al. [103] | SCI | Kinetics | A lower knee power during uphill and downhill walking for SCI patients |
| Pepin et al. [104] | SCI | Kinematics | A longer knee flexion at good contact and maintain the longer flexion throughout the stance phase of walking for SCI patients. |
| Sridar et al. [109] | Stroke | Kinematics | A lower walking speed for stroke patients | Muscles | A lower quadriceps muscle moment and power for stroke patients |
| Chen et al. [112] | Stroke | Kinematics | A lower knee flexion in the swing phase of walking for poststroke patients |
| Stanhope et al. [113] | Stroke | Kinematics | Post-stroke patients can compensate their poor knee flexion in walking through faster speed |
| Marrocco et al. [114] | Stroke | Kinetics | A greater dynamic knee joint loading for stroke patients and no significant difference between the E-KFM/E-KAM of stroke and healthy subjects. |
| Novak et al. [115] | Stroke | Kinetics | A less energy transference in mid-stance of walking and a lower energy absorption in the late stance of walking for stroke patients |
| Lerner [19] and Thapa et al. [116] | CP | Kinetics | Crouch gait (characterized by excessive knee flexion in stance phase), walking inefficiency, and consumes much more energy |
| Hicks et al. [120] | CP | Kinematics | Minimum knee flexion angle during the stance phase exceeding 40 deg for CP patients |
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