This article appeared in a journal published by Elsevier Ltd. Under Elsevier's copyright, mandated authors are not permitted to make work available in an institutional repository.This study used Monte Carlo methods to simulate the effects of variability and uncertainty in inertial body segment parameters (BSPs) on joint torques calculated using inverse dynamics. The average and standard deviation values of BSPs from previously published studies were used as inputs into the Monte Carlo simulation. Data from five groups were evaluated: cadaveric subjects; living subjects (Caucasian only); female living subjects (Caucasian only); male living subjects (Caucasian only); and living subjects (non-Caucasian). The differences in BSPs observed betwee...
Many studies have examined human segmental inertial parameters, but these studies have focused more ...
No author version of this publication is available. The published version is available by subscripti...
<div><p>Subject-specific musculoskeletal modeling can be applied to study musculoskeletal disorders,...
This study examined the effect of body segment parameter (BSP) perturbations on joint moments calcul...
International audienceThe purpose of the present study was to examine the influence of anthropometric...
Joint-specific power analyses are important in the assessment of cycling biomechanics but they cont...
Joint-specific power analyses are important in the assessment of cycling biomechanics but they conta...
The reliability of internal joint moment calculation in gait analysis during daily living activities...
International audienceIn biomechanics, calibration of body segment inertial parameters (BSIP) is cru...
Inverse dynamic techniques are used in gait analysis to calculate the net joint moments that the mus...
Biomechanical dynamics simulations facilitate the investigation of fundamental principles and concep...
Quantitative gait analysis can provide a description of joint kinematics and dynamics, and it is rec...
Inverse dynamics problems are usually solved in the analysis of human gait to obtain reaction forces...
Body segment parameters such as segment mass, centre of mass and moment of inertia, serve as importa...
Abstract—Variations in joint parameter (JP) values (axis posi-tions and orientations in body segment...
Many studies have examined human segmental inertial parameters, but these studies have focused more ...
No author version of this publication is available. The published version is available by subscripti...
<div><p>Subject-specific musculoskeletal modeling can be applied to study musculoskeletal disorders,...
This study examined the effect of body segment parameter (BSP) perturbations on joint moments calcul...
International audienceThe purpose of the present study was to examine the influence of anthropometric...
Joint-specific power analyses are important in the assessment of cycling biomechanics but they cont...
Joint-specific power analyses are important in the assessment of cycling biomechanics but they conta...
The reliability of internal joint moment calculation in gait analysis during daily living activities...
International audienceIn biomechanics, calibration of body segment inertial parameters (BSIP) is cru...
Inverse dynamic techniques are used in gait analysis to calculate the net joint moments that the mus...
Biomechanical dynamics simulations facilitate the investigation of fundamental principles and concep...
Quantitative gait analysis can provide a description of joint kinematics and dynamics, and it is rec...
Inverse dynamics problems are usually solved in the analysis of human gait to obtain reaction forces...
Body segment parameters such as segment mass, centre of mass and moment of inertia, serve as importa...
Abstract—Variations in joint parameter (JP) values (axis posi-tions and orientations in body segment...
Many studies have examined human segmental inertial parameters, but these studies have focused more ...
No author version of this publication is available. The published version is available by subscripti...
<div><p>Subject-specific musculoskeletal modeling can be applied to study musculoskeletal disorders,...