PaperTime-dependent changes in the lumbar spine's resistancc to bending
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2022, Journal of Safety ResearchCitation Excerpt :By limiting the trunk flexion, the compression on the lumbar intervertebral discs and the amount of stretching in the posterior ligaments of the spine could be decreased (Ulrey & Fathallah, 2013). Furthermore, the laxity of the passive tissues could also increase with the cumulative mechanical low back load throughout the work, thereby increasing the range of motion of the trunk (Adams & Dolan, 1996; Adams, Dolan, & Hutton, 1987; Coenen et al., 2014). From this point of view, the PBSEs could prevent people from working at the limit flexion angle by limiting the motion of trunk during the lifting (Bonato et al., 2003; Ulrey & Fathallah, 2013).
About the impact of repetitive spine flexions due to labour on passive mechanics of the lumbar spine
2021, International Journal of Industrial ErgonomicsCitation Excerpt :Half an hour of palletising changes the stiffness of the passive lumbar torque-angle relation. In contrast to the creep of passive tissue evident with long-term loading (Adams and Dolan, 1996; Solomonow et al., 1999; Kurutz, 2006; Ker, 2007; Pearson et al., 2007) repetitive lumbar flexions provoked by palletising did not result in creep of the lumbar spine's passive mechanics in general, that is, we could not confirm our hypothesis of a right shift of the lumbar passive torque-angle relation. Accordingly, repetitive active flexion of the lumbar spine seems to affect the lumbar spine in a more complex manner than pure passive loading.
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