Study on the biomechanical effects of magnetic nanomaterials in body injury repair within the context of music intervention
Abstract
With the progression of science and technology, the application of magnetic nanomaterials in the medical domain has drawn increasing attention. Their remarkable high surface area and biocompatibility endow them with potential in the restoration of body tissues from a biomechanical perspective. This article explores the application of magnetic nanomaterials for the repair of body injuries under the influence of rhythmic music within the framework of biomechanics. The enhanced wavelet threshold denoising algorithm is employed to refine the rhythmic music, aiming to acquire music with better biomechanical-stimulating qualities. The subjects are randomly segregated into four cohorts, namely the control group (Group A), the magnetic nanomaterial group (Group B), the music intervention group (Group C), and the music intervention + magnetic nanomaterial group (Group D). The research findings manifested that, under otherwise identical conditions, the biomechanical recovery time of Group A subjects ranged from 9 to 10 days. For Group B subjects, it was between 7 and 8 days. Group C subjects had a biomechanical recovery time of 8 to 9 days, whereas that of Group D subjects was between 4 and 5 days. The P value among Group A, Group B, and Group C exceeded 0.05. However, the P value between Group D and Groups A, B, and C was less than 0.05, signifying that magnetic nanomaterials could substantially enhance the biomechanical repair efficacy of body injuries when combined with rhythmic music intervention.
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