Biomechanics of skeletal muscles
Author(s)
Bibliographic Information
Biomechanics of skeletal muscles
Human Kinetics, c2012
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Includes bibliographical references and index
Description and Table of Contents
Description
A reference for biomechanists, motor development specialists, muscle physiologists, exercise and sport scientists, ergonomists, biomechanical and biomedical engineers, and rehabilitation specialists. A text for graduate-level courses in biomechanics.
Table of Contents
Part I. Muscle Architecture and Mechanics
Chapter 1. Muscle Architecture
Muscle Fascicles and Their Arrangements
* Parallel Fibered and Fusiform Muscles
* Pennate Muscles
* Convergent and Circular Muscles
Muscle Fascicle Curvature: Frenet Frames
Fiber Architecture in the Fascicles
Muscle as a Fiber-Reinforced Composite
Fiber, Fascicle, and Muscle Length: Length-Length Ratios
* Fiber and Fascicle Length
* Length-Length Ratios
Muscle Path: Muscle Centroids
* Straight-Line Representation of Muscle Path
* Centroid Model of Muscle Path
* Curved and Wrapping Muscles
* Twisted Muscles
* Muscles Attaching to More Than Two Bones
Cross-Sectional Area, Physiological and Anatomical
Muscle Attachment Area
Summary
Questions for Review
Literature List
Chapter 2. Properties of Tendons and Passive Muscles
Biomechanics of Tendons and Aponeuroses
* Elastic Behavior
* Viscoelastic Behavior of Tendons
* Tendon Interaction With Surrounding Tissues
Mechanical Properties of Passive Muscles
* Muscle Tone: Equitonometry
* Mechanical Properties of Relaxed Muscles
On Joint Flexibility
Summary
Questions for Review
Literature List
Chapter 3. Mechanics of Active Muscle
Muscle Force Production and Transmission
* Experimental Methods
* Transition From Rest to Activity
* Transition From Activity to Rest: Muscle Relaxation
* Constancy of the Muscle Volume
* Force Transmission and Internal Deformations (Strain)
* Intramuscular Stress and Pressure
* Functional RelationsForce-Length Relations
* Force-Velocity Relations
* Force-Length-Velocity Relations
History Effects in Muscle Mechanics
* Force Depression After Muscle Shortening
* Effects of Muscle Release: Quick-Release and Controlled-Release Methods: Series Muscle Components
Summary
Questions for Review
Literature List
Chapter 4. Muscles as Force and Energy Absorbers
Muscle Mechanical Behavior During Stretch
* Dynamic Force Enhancement
* Residual Force Enhancement
Muscle Shortening After Stretch
* Work and Power During Shortening After Stretch
* Energy Consumption During Stretch and Efficiency of the Muscle Shortening After Stretch
Dissipation of Energy
Mechanical Muscle Models
* Hill-Type Model
* Model Scaling
Summary
Questions for Review
Literature List
Part II Muscles in the Body
Chapter 5. From Muscle Forces to Joint Moments
Force Transmission: From Muscle to Bone
* From Muscle to Tendon
* From Tendon to Bone
* Tendon Elasticity and Isometric Force-Length Relation
Force Transmission Via Soft Tissue Skeleton (Fascia)
* Structure of Fascia
* Muscle-Tendon-Fascia Attachments
* Fascia as Soft Tissue Skeleton (Ectoskeleton)
Muscle Moment Arms
* Muscle Moment Arm Vectors and Their Components
* Methods for Determination of Muscle Moment Arms
* Factors Affecting Muscle Moment Arm
* Transformation of Muscle Forces to Joint Moments: Muscle Jacobian
Summary
Questions for Review
Literature List
Chapter 6. Two-Joint Muscles in Human Motion
Two-Joint Muscles: A Special Case of Multifunctional Muscles
* Functional Features of Two-Joint Muscles
* Anatomical and Morphological Features of Two-Joint Muscles
Functional Roles of Two-Joint Muscles
* Kinetic Analysis of Two-Joint Muscles: Lombard's Paradox
* Kinematic Analysis of Two-Joint Muscles: Solution of Lombard's Paradox
Mechanical Energy Transfer and Saving by Two-Joint Muscles
* Tendon Action of Two-Joint Muscles
* Saving Mechanical Energy by Two-Joint Muscles
Summary
Questions for Review
Literature List
Chapter 7. Eccentric Muscle Action in Human Motion
Joint Power and Work as Measures of Eccentric Action
* Negative Power and Work at a Joint
* Total Negative Power and Work in Several Joints
* Negative Power of Center of Mass Motion
* Two Ways of Mechanical Energy Dissipation: Softness of Landing
Negative Work in Selected Activities
* Walking
* Stair Descent and Ascent
* Level, Downhill, and Uphill Running
* Landing
Joint Moments During Eccentric Actions
* Maximal Joint Moments During Eccentric Actions
* Force Changes During and After Stretch
* Residual Force Enhancement in Humans
Muscle Activity During Eccentric Actions
* Surface Electromyographic Activity During Eccentric Actions
* Motor Unit Activity During Eccentric Actions
* Electromechanical Delay
Physiological Cost of Eccentric Action
* Oxygen Consumption During Eccentric and Concentric Exercise
* Fatigue and Perceived Exertion During Eccentric Action
* Muscle Soreness After Eccentric Exercise
Reversible Muscle Action: Stretch-Shortening Cycle
* Enhancement of Positive Work and Power Production
* Mechanisms of the Performance Enhancement in the SSC
* Efficiency of Positive Work in SSC
Summary
Questions for Review
Literature List
Chapter 8. Muscle Coordination in Human Motion
Kinematic Redundancy and Kinematic Invariant Characteristics of Limb Movements
* Straight-Line Limb Endpoint Trajectory
* Bell-Shaped Velocity Profile8.1.3 Power Law
* Fitts' Law
* Principle of Least Action
Kinetic Invariant Characteristics of Limb Movements
* Elbow-Shoulder Joint Moment Covariation During Arm Reaching
* Minimum Joint Moment Change
* Orientation and Shape of the Arm Apparent Stiffness Ellipses
Muscle Redundancy
* Sources of Muscle Redundancy
* Invariant Features of Muscle Activity Patterns
The Distribution Problem
* Static Optimization
* Dynamic Optimization
* Inverse Optimization
* On Optimization Methods in Human Biomechanics and Motor Control
Summary
Questions for Review
Literature List
by "Nielsen BookData"