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Skeletal Muscle: Form and Function 2nd Revised edition [Hardback]

  • Formāts: Hardback, 432 pages, height x width: 279x216 mm, 201 black & white illustrations, 31 black & white halftones
  • Izdošanas datums: 01-Sep-2005
  • Izdevniecība: Human Kinetics Publishers
  • ISBN-10: 0736045171
  • ISBN-13: 9780736045179
Citas grāmatas par šo tēmu:
  • Formāts: Hardback, 432 pages, height x width: 279x216 mm, 201 black & white illustrations, 31 black & white halftones
  • Izdošanas datums: 01-Sep-2005
  • Izdevniecība: Human Kinetics Publishers
  • ISBN-10: 0736045171
  • ISBN-13: 9780736045179
Citas grāmatas par šo tēmu:
Aimed at undergraduate and higher level courses in physiology, as well as a professional resource for exercise physiologists and health practitioners. This new edition is meticulously researched and is the leading authority on the structure, alcctrophysiology and adaptability of human skeletal muscle. This book is unique in that it combines the basic sciences; anatomy, physiology, biophysics and chemistry, with clinical applications and interesting notes on applied aspects of this field of study. Each chapter ends with a section on clinical and other applied aspects of the information presented in that chapter, showing for example how specific defects of muscle or nerve cells can result in certain clinical disorders. Covers many topics including structures of the neuromuscular system, muscle function, fatugue, muscle training and injury and rehabilitation.

Recenzijas

"the leading authority on the structure, electrophysiology, and adaptability of human skeletal muscle." "www.SirReadaLot.org" " "Overall, this text will serve as a solid, comprehensive text for undergraduates and graduate students, and as a practical reference for its professional audience."" Coral Murrant Department of Human Health and Nutritional Science University of Guelph

Preface vii
Part I Structure and Development
1(84)
Muscle Architecture and Muscle Fiber Anatomy
3(19)
Muscle Architecture
4(3)
Muscle Connective Tissue
7(3)
Basement Membrane
10(1)
Plasmalemma
11(3)
Myofibrils
14(2)
Tubular Systems
16(2)
Nuclei and Mitochondria
18(1)
Applied Physiology
19(3)
The Motoneuron
22(10)
General Features of Motoneurons
23(1)
Motoneuron Soma
24(1)
Cytoskeletal Proteins in the Motoneuron
25(2)
Axon, Dendrites, and Glia
27(3)
Applied Physiology
30(2)
The Neuromuscular Junction
32(10)
General Features of the Neuromuscular Junction
32(2)
Muscle Fiber Acetylcholine Receptors
34(2)
The Basement Membrane at the Neuromuscular Junction
36(2)
Axon Terminal
38(3)
Applied Physiology
41(1)
Muscle Receptors
42(10)
The Muscle Spindle
42(6)
The Golgi Tendon Organ
48(1)
Free Nerve Endings
49(1)
Role of Muscle Receptors During Locomotor Activity
50(1)
Applied Physiology
50(2)
Muscle Formation
52(19)
Step 1: Mesoderm Is Induced From Ectoderm
53(1)
Step 2: A Portion of Mesoderm Forms Somites, Then Develops Into Skeletal Muscle
54(3)
Step 3: The Myogenic (Muscle-Forming) Cells Proliferate and Then Differentiate
57(3)
Step 4: The Body Plan Is Laid Down
60(2)
Step 5: Muscles Are Assembled
62(2)
Postnatal Development of Muscle
64(4)
Applied Physiology
68(3)
Development of Muscle Innervation
71(14)
Step 1: Inductive Signals Pass From Mesoderm to Ectoderm
71(1)
Step 2: The Neural Tube Forms From Thickening and Invagination of the Dorsal Ectoderm
72(1)
Step 3: Nerve Cells Proliferate and Then Migrate
73(2)
Step 4: Axons Grow Out From the Spinal Cord Along the Extracellular Matrix
75(2)
Step 5: The Axons Establish Connections With the Muscle Fibers
77(2)
Step 6: Redundant Synapses and Motoneurons Are Eliminated
79(4)
Applied Physiology
83(2)
Part II Putting Muscles to Work
85(139)
Ion Channels, Pumps, and Binding Proteins
87(23)
General Properties of Channels and Pumps
87(3)
Sodium Channels
90(2)
The Sodium Pump (Na+-K+ Pump)
92(4)
Potassium Channels
96(2)
Calcium Channels and Pumps
98(3)
Calcium-Binding Proteins
101(2)
Calcium Pumps
103(1)
Anion Channels
104(2)
Applied Physiology
106(4)
Axoplasmic Transport
110(8)
Confirmation and Categorization of Axoplasmic Transport
110(6)
Applied Physiology
116(2)
Resting and Action Potentials
118(19)
Resting Membrane Potential
118(7)
The Action Potential
125(7)
Applied Physiology
132(5)
Neuromuscular Transmission
137(14)
Acetylcholine Release
137(5)
Postsynaptic Events
142(1)
Applied Physiology
143(8)
Muscle Contraction
151(24)
Sliding Filament Theory of Muscle Contraction
151(3)
The Cross-Bridge Theory of Skeletal Muscle
154(2)
The Key Contractile Proteins: Myosin and Actin
156(4)
Excitation-Contraction Coupling
160(6)
The Contractile Response
166(3)
The Length Dependence of Force
169(1)
Dynamic Contractions
170(2)
Applied Physiology
172(3)
Motor Units
175(20)
Organization of Motor Units
176(6)
Physiological and Biochemical Properties of Motor Units
182(6)
Classification of Motor Units
188(4)
Applied Physiology
192(3)
Motor Unit Recruitment
195(13)
Detection of Motor Unit Activation
195(1)
The Size Principle
196(7)
Maximal Voluntary Contraction
203(4)
Applied Physiology
207(1)
Muscle Metabolism
208(16)
Energy Required for Muscle Contraction
208(1)
Replacing Adenosine Triphosphate
209(6)
Integration of the Metabolic Systems
215(2)
Regulation of the Metabolic Systems
217(2)
How Much Energy Is Needed?
219(1)
Applied Physiology
220(4)
Part III The Adaptable Neuromuscular System
224(117)
Fatigue
226(19)
Defining Fatigue
226(1)
Central Fatigue
227(1)
Peripheral Fatigue
228(5)
Excitation-Contraction Coupling Failure
233(3)
Biochemical Changes in Muscle Fibers
236(5)
Recovery From Fatigue
241(3)
Applied Physiology
244(1)
Loss of Muscle Innervation
245(12)
Changes in Motor Axons and Neuromuscular Junctions
245(4)
Changes in Muscle Fibers
249(5)
Applied Physiology
254(3)
Recovery of Muscle Innervation
257(14)
Nerve Regeneration
257(2)
Collateral Reinnervation
259(6)
Changes in the Muscle Fibers Following Reinnervation
265(1)
Motor Unit Properties Following Reinnervation
266(3)
Applied Physiology
269(2)
Trophism
271(13)
Motoneuron Effects on Muscle
271(6)
Muscle Effects on Motoneurons
277(4)
Applied Physiology
281(3)
Disuse
284(14)
Studies in Human Subjects
284(5)
Studies in Animals
289(6)
Applied Physiology
295(3)
Muscle Training
298(15)
Muscle Strength and Power
298(6)
Human Endurance Training
304(3)
Training Studies in Animals
307(3)
Adaptive Changes in DNA and RNA Processing
310(2)
Applied Physiology
312(1)
Injury and Repair
313(9)
Muscle Contraction-Induced Damage
314(2)
Muscle Injury From External Causes
316(3)
Applied Physiology
319(3)
Aging
322(19)
Changes in Muscle With Aging
322(7)
Motoneuron Changes in Aging
329(4)
Changes in Axons and Neuromuscular Junctions
333(3)
Applied Physiology
336(5)
Glossary of Terms 341(18)
References 359(48)
Index 407(14)
About the Authors 421
Brian MacIntosh is at the cutting edge of research in skeletal muscle and has published more than 50 papers and numerous book chapters in muscle and exercise physiology. He has been teaching undergraduate and graduate courses in these areas for 25 years and is a member of the American College of Sports Medicine. Phillip Gardiner is a former president of the Canadian Society for Exercise Physiology and previous co-editor of the Canadian Journal of Applied Physiology. He has published extensively in the area of neuromuscular adaptations and authored the book Neuromuscular Aspects of Physical Activity, also published by Human Kinetics. Alan McComas is emeritus professor of medicine at McMaster University in Hamilton, Ontario, Canada. He has more than 40 years of research experience in nerve and muscle.