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wu upper extremity musculoskeletal model  (OpenSim Ltd)

 
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    Structured Review

    OpenSim Ltd wu upper extremity musculoskeletal model
    Opensim upper extremity <t>musculoskeletal</t> model shown from anterior, lateral, and posterior views, featuring 32 hill-type musculotendon actuators and 15 degrees of freedom across the shoulder, elbow, and wrist joints with subject-specific scaling. The views illustrate the complete muscle representation from different anatomical perspectives.
    Wu Upper Extremity Musculoskeletal Model, supplied by OpenSim Ltd, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/result/wu upper extremity musculoskeletal model/product/OpenSim Ltd
    Average 90 stars, based on 1 article reviews
    wu upper extremity musculoskeletal model - by Bioz Stars, 2026-04
    90/100 stars

    Images

    1) Product Images from "Muscle synergy analysis during badminton forehand overhead smash: integrating electromyography and musculoskeletal modeling"

    Article Title: Muscle synergy analysis during badminton forehand overhead smash: integrating electromyography and musculoskeletal modeling

    Journal: Frontiers in Sports and Active Living

    doi: 10.3389/fspor.2025.1596670

    Opensim upper extremity musculoskeletal model shown from anterior, lateral, and posterior views, featuring 32 hill-type musculotendon actuators and 15 degrees of freedom across the shoulder, elbow, and wrist joints with subject-specific scaling. The views illustrate the complete muscle representation from different anatomical perspectives.
    Figure Legend Snippet: Opensim upper extremity musculoskeletal model shown from anterior, lateral, and posterior views, featuring 32 hill-type musculotendon actuators and 15 degrees of freedom across the shoulder, elbow, and wrist joints with subject-specific scaling. The views illustrate the complete muscle representation from different anatomical perspectives.

    Techniques Used:

    Methodological framework comparing muscle synergies derived from experimental EMG and musculoskeletal modeling during BFOS, including data acquisition, signal processing, modeling, non-negative matrix factorization, and quantitative comparison of synergy components.
    Figure Legend Snippet: Methodological framework comparing muscle synergies derived from experimental EMG and musculoskeletal modeling during BFOS, including data acquisition, signal processing, modeling, non-negative matrix factorization, and quantitative comparison of synergy components.

    Techniques Used: Derivative Assay, Comparison

    Relationship between synergy number and global variance accounted for (VAF) from EMG (blue) and musculoskeletal model (red) during BFOS. Three synergies were optimal based on global VAF >90%, local VAF >75%, and <5% improvement with additional synergies ( p = 0.12, MANOVA).
    Figure Legend Snippet: Relationship between synergy number and global variance accounted for (VAF) from EMG (blue) and musculoskeletal model (red) during BFOS. Three synergies were optimal based on global VAF >90%, local VAF >75%, and <5% improvement with additional synergies ( p = 0.12, MANOVA).

    Techniques Used:

    Comparison of (A) synergy weight vectors and (B) activation coefficients between EMG (blue) and musculoskeletal model (red) during BFOS. Three distinct functional synergies were identified: Synergy 1 (trapezius-dominant for scapular stabilization during preparation and early acceleration), Synergy 2 (pectoralis/anterior deltoid for shoulder flexion/internal rotation during late acceleration and impact), and Synergy 3 (posterior shoulder muscles for extension/external rotation during follow-through). The x -axis in panel A represents muscle weights ranging from 0-1 for each muscle (abbreviations defined in <xref ref-type=Table 2 ), while panel ( C ) shows temporal activation patterns across normalized movement cycle (0-100%). Shaded areas represent standard error ( n = 20 participants). " title="... and (B) activation coefficients between EMG (blue) and musculoskeletal model (red) during BFOS. Three distinct functional synergies ..." property="contentUrl" width="100%" height="100%"/>
    Figure Legend Snippet: Comparison of (A) synergy weight vectors and (B) activation coefficients between EMG (blue) and musculoskeletal model (red) during BFOS. Three distinct functional synergies were identified: Synergy 1 (trapezius-dominant for scapular stabilization during preparation and early acceleration), Synergy 2 (pectoralis/anterior deltoid for shoulder flexion/internal rotation during late acceleration and impact), and Synergy 3 (posterior shoulder muscles for extension/external rotation during follow-through). The x -axis in panel A represents muscle weights ranging from 0-1 for each muscle (abbreviations defined in Table 2 ), while panel ( C ) shows temporal activation patterns across normalized movement cycle (0-100%). Shaded areas represent standard error ( n = 20 participants).

    Techniques Used: Comparison, Activation Assay, Functional Assay, Muscles



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    Image Search Results


    Opensim upper extremity musculoskeletal model shown from anterior, lateral, and posterior views, featuring 32 hill-type musculotendon actuators and 15 degrees of freedom across the shoulder, elbow, and wrist joints with subject-specific scaling. The views illustrate the complete muscle representation from different anatomical perspectives.

    Journal: Frontiers in Sports and Active Living

    Article Title: Muscle synergy analysis during badminton forehand overhead smash: integrating electromyography and musculoskeletal modeling

    doi: 10.3389/fspor.2025.1596670

    Figure Lengend Snippet: Opensim upper extremity musculoskeletal model shown from anterior, lateral, and posterior views, featuring 32 hill-type musculotendon actuators and 15 degrees of freedom across the shoulder, elbow, and wrist joints with subject-specific scaling. The views illustrate the complete muscle representation from different anatomical perspectives.

    Article Snippet: The computational framework employed the Wu upper extremity musculoskeletal model ( ) implemented in OpenSim (version 4.5), incorporating three degrees of freedom at the scapulothoracic, acromioclavicular, and glenohumeral joints.

    Techniques:

    Methodological framework comparing muscle synergies derived from experimental EMG and musculoskeletal modeling during BFOS, including data acquisition, signal processing, modeling, non-negative matrix factorization, and quantitative comparison of synergy components.

    Journal: Frontiers in Sports and Active Living

    Article Title: Muscle synergy analysis during badminton forehand overhead smash: integrating electromyography and musculoskeletal modeling

    doi: 10.3389/fspor.2025.1596670

    Figure Lengend Snippet: Methodological framework comparing muscle synergies derived from experimental EMG and musculoskeletal modeling during BFOS, including data acquisition, signal processing, modeling, non-negative matrix factorization, and quantitative comparison of synergy components.

    Article Snippet: The computational framework employed the Wu upper extremity musculoskeletal model ( ) implemented in OpenSim (version 4.5), incorporating three degrees of freedom at the scapulothoracic, acromioclavicular, and glenohumeral joints.

    Techniques: Derivative Assay, Comparison

    Relationship between synergy number and global variance accounted for (VAF) from EMG (blue) and musculoskeletal model (red) during BFOS. Three synergies were optimal based on global VAF >90%, local VAF >75%, and <5% improvement with additional synergies ( p = 0.12, MANOVA).

    Journal: Frontiers in Sports and Active Living

    Article Title: Muscle synergy analysis during badminton forehand overhead smash: integrating electromyography and musculoskeletal modeling

    doi: 10.3389/fspor.2025.1596670

    Figure Lengend Snippet: Relationship between synergy number and global variance accounted for (VAF) from EMG (blue) and musculoskeletal model (red) during BFOS. Three synergies were optimal based on global VAF >90%, local VAF >75%, and <5% improvement with additional synergies ( p = 0.12, MANOVA).

    Article Snippet: The computational framework employed the Wu upper extremity musculoskeletal model ( ) implemented in OpenSim (version 4.5), incorporating three degrees of freedom at the scapulothoracic, acromioclavicular, and glenohumeral joints.

    Techniques:

    Comparison of (A) synergy weight vectors and (B) activation coefficients between EMG (blue) and musculoskeletal model (red) during BFOS. Three distinct functional synergies were identified: Synergy 1 (trapezius-dominant for scapular stabilization during preparation and early acceleration), Synergy 2 (pectoralis/anterior deltoid for shoulder flexion/internal rotation during late acceleration and impact), and Synergy 3 (posterior shoulder muscles for extension/external rotation during follow-through). The x -axis in panel A represents muscle weights ranging from 0-1 for each muscle (abbreviations defined in <xref ref-type=Table 2 ), while panel ( C ) shows temporal activation patterns across normalized movement cycle (0-100%). Shaded areas represent standard error ( n = 20 participants). " width="100%" height="100%">

    Journal: Frontiers in Sports and Active Living

    Article Title: Muscle synergy analysis during badminton forehand overhead smash: integrating electromyography and musculoskeletal modeling

    doi: 10.3389/fspor.2025.1596670

    Figure Lengend Snippet: Comparison of (A) synergy weight vectors and (B) activation coefficients between EMG (blue) and musculoskeletal model (red) during BFOS. Three distinct functional synergies were identified: Synergy 1 (trapezius-dominant for scapular stabilization during preparation and early acceleration), Synergy 2 (pectoralis/anterior deltoid for shoulder flexion/internal rotation during late acceleration and impact), and Synergy 3 (posterior shoulder muscles for extension/external rotation during follow-through). The x -axis in panel A represents muscle weights ranging from 0-1 for each muscle (abbreviations defined in Table 2 ), while panel ( C ) shows temporal activation patterns across normalized movement cycle (0-100%). Shaded areas represent standard error ( n = 20 participants).

    Article Snippet: The computational framework employed the Wu upper extremity musculoskeletal model ( ) implemented in OpenSim (version 4.5), incorporating three degrees of freedom at the scapulothoracic, acromioclavicular, and glenohumeral joints.

    Techniques: Comparison, Activation Assay, Functional Assay, Muscles

    Opensim upper extremity musculoskeletal model shown from anterior, lateral, and posterior views, featuring 32 hill-type musculotendon actuators and 15 degrees of freedom across the shoulder, elbow, and wrist joints with subject-specific scaling. The views illustrate the complete muscle representation from different anatomical perspectives.

    Journal: Frontiers in Sports and Active Living

    Article Title: Muscle synergy analysis during badminton forehand overhead smash: integrating electromyography and musculoskeletal modeling

    doi: 10.3389/fspor.2025.1596670

    Figure Lengend Snippet: Opensim upper extremity musculoskeletal model shown from anterior, lateral, and posterior views, featuring 32 hill-type musculotendon actuators and 15 degrees of freedom across the shoulder, elbow, and wrist joints with subject-specific scaling. The views illustrate the complete muscle representation from different anatomical perspectives.

    Article Snippet: A validated OpenSim upper extremity model was implemented to simulate muscle activations via static optimization.

    Techniques: