Tibial nerve stiffness is related to maximum angle of ankle dorsiflexion
Hiyu MukaiiD, Jun UmeharaiD, Junya SaekiiD, Ko YanaseiD, Zimin WangiD, Hiroshige TateuchiiD, Noriaki IchihashiiD
Abstract
The maximum angle of ankle dorsiflexion is affected by the triceps surae muscle stiffness and stretch tolerance, which may be strongly reflected by the tibial nerve stiffness. However, no study has evaluated the triceps surae muscle and tibial nerve stiffness simultaneously or clarified their association with the maximum angle. The purpose of this study was to investigate the association between the maximum angle and both the stiffness. Forty-one healthy adults participated. The shear wave velocities of the triceps surae muscles and tibial nerve were measured at 5{degrees}, 15{degrees}, and 25{degrees} ankle dorsiflexion. Multiple linear regression analysis was performed using the forced entry method, specifying the shear wave velocities of the four tissues as the independent variables and the maximum angle as the dependent variable. This analysis was performed at each angle where the shear wave velocity was measured. Multiple linear regression analysis was also performed using the stepwise method, specifying the shear wave velocities of the tibial nerve at the three angles as the independent variables and the maximum angle as the dependent variable. Using the forced entry method, the shear wave velocity of the tibial nerve at each angle was significantly negatively associated with the maximum angle, whereas those of the muscles were not. Using the stepwise method, only the shear wave velocity of the tibial nerve at 25{degrees} was significantly negatively associated with the maximum angle. These results suggest that the tibial nerve stiffness in a greatly lengthened position determines the maximum angle of ankle dorsiflexion.
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