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Virtual Soldier Research Program at The University of Iowa. Funded primarily by the US Army, we conduct basic and applied research for creating new technologies dealing with digital human modeling and simulation.
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2. Virtual Soldier Research Program at The University of Iowa Funded primarily by the US Army, we conduct basic and applied research for creating new technologies dealing with digital human modeling and simulation. We are a group of 36 people (faculty, staff, scientists, engineers, clinical researchers, and graduate students) that have come together to create this new technology.
4. Motion Prediction for Various Tasks
5. Upper-Body Motion with External Loads
6. Generalized Coordinates and Generalized Torques
7. Muscle Joint System
8. Joint Torque Prediction
9. Dynamic Equations of Motion
10. Muscle Energy Consumption
11. Muscle Energy Expenditure Rate
12. Why Energy?
13. Mathematical Formulation of Energy Consumption
14. Muscle Energy Rate in Joint Space
15. Realistic Upper-Body Motion Prediction
16. Realistic Upper-Body Motion Prediction
17. Realistic Upper-Body Motion Prediction
18. Example of Motion Prediction
19. Inverse Dynamics of Example Task
20. Local Biomechanical Analysis
21. Muscle force Distribution Example of one project is feeding to anotherExample of one project is feeding to another
22. Predicted Joint Mechanical Power
23. Prediction of Physiological Indexes
24. Developed realistic human model called SantosTM with 89 degrees of freedom. Conclusions
25. Developed realistic human model called SantosTM with 89 degrees of freedom.
Derived dynamic equation of motion and energy consumption formulation in joint space. Conclusions
26. Developed realistic human model called SantosTM with 89 degrees of freedom.
Derived dynamic equation of motion and energy consumption formulation in joint space.
Prediced realistic human motion based on energy minimization (less muscle fatigue).
Conclusions
27. Developed realistic human model called SantosTM with 89 degrees of freedom.
Derived dynamic equation of motion and energy consumption formulation in joint space.
Prediced realistic human motion based on energy minimization (less muscle fatigue).
Predicted joint torques and energy rate for biomechanical and physiological analysis. Conclusions
28. Thank you