Behavior and Its Neural Control in Gastropod MolluscsDuring the past quarter century, there has been a tremendous expansion in our knowledge about gastropods, their behavior and their neurobiology. We can understand a great deal about mammalian nervous systems by studying the relatively larger and simpler structure of the gastropod nervous system. Behavior and Its Neural Control in Gastropod Molluscs first reviews the broader aspects of molluscan biology and draws attention to the special features of the gastropod nervous system. The book then examines different types of behavior, reviewing progress in understanding the mechanisms of neural control, and emphasizing cases in which control can be attributed to identified neurons and identified neural circuits. |
Contents
3 | |
4 | |
7 | |
10 | |
12 | |
14 | |
The Central Nervous System | 17 |
22 Taxonomic Trends in CNS Organization | 21 |
Feeding | 76 |
72 Food Finding | 83 |
73 Central Pattern Generators | 92 |
74 Variations of Buccal Motor Programs | 99 |
75 Initiation and Modulation of Feeding | 103 |
76 Plasticity of Feeding Behavior | 115 |
Reproduction | 122 |
82 Sexually Selected Behaviors | 127 |
23 Structure of the Ganglia | 25 |
24 Unique Properties of Gastropod Neurons | 29 |
32 Mechanoreception and Nociception | |
33 Sensory Cells for Chemoreception Mechanoreception and Nociception | |
34 Photoreception | |
35 Gravireception | |
36 Magnetoreception | 3 |
Muscles and the Peripheral Nervous System | 5 |
42 Muscle Physiology | 8 |
43 Peripheral Contributions to the Control of Reflexes | 11 |
44 Cellular Elements and Plasticity in Peripheral Neural Circuits | 14 |
Regulation of the Internal Environment | 18 |
52 Control of the Lung in Pulmonates | 19 |
53 Blood Circulation | 23 |
54 Respiratory Pumping | 34 |
55 Water Regulation and Excretion | 37 |
Locomotion | 45 |
62 Crawling by Muscular Contractions | 47 |
63 Swimming | 51 |
64 Taxes and Other Orientations | 65 |
83 Finding Mates | 133 |
84 Nervous Control of Courtship and Copulation | 136 |
85 Egg Laying | 147 |
86 Mechanisms for the Control of EggLaying Behaviors | 161 |
Defense | 166 |
92 The Lines of Defense | 167 |
93 Withdrawal Reflexes | 170 |
94 Plasticity of Defensive Behaviors | 186 |
95 Chemical Defenses | 196 |
The Temporal Organization of Behavior | 201 |
102 Daily Cycles | 206 |
103 Endogenous Circadian Clocks | 211 |
104 Mechanisms of Oscillation and Entrainment in the Eye | 215 |
105 Multiple Influences on the Selection of Behaviors | 218 |
106 Singleness of Action | 224 |
References | 233 |
Taxonomic Index | 259 |
Neuron Index | 261 |
Subject Index | 263 |
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Common terms and phrases
abdominal ganglion Achatina action potentials activity animals APGWamide Aplysia californica axons bag-cells behavior body buccal mass Cephalaspidea cerebral ganglion Chase chemical circadian circuit Clione connections contractions defensive depolarization dorsal egg laying electrical elicited example excitation excitatory fibers FMRFamide function ganglia gastropod molluscs gastropods gill gland groups Haszprunar Helix aspersa Hermissenda identified increase ingestion inhibition inhibitory injections innervate interneurons Kandel Kupfermann Limax located locomotion Lymnaea stagnalis mantle cavity mating mechanisms mediated modulation molluscs motoneurons movements mucus muscle nerve nervous system neural nudibranch opisthobranchs organs pair parietal pedal ganglion penis peptides peripheral phase pleural ganglia Pleurobranchaea pneumostome predators procerebrum prosobranchs Pulmonata pulmonates radula receptors release respiratory pumping response rhythm role sensory neurons serotonin shell shown in Figure siphon withdrawal slugs snails species sperm spike statocyst stimulation studies Susswein swimming synaptic tentacles terrestrial tion torsion trigger Tritonia visceral whereas withdrawal reflex
Popular passages
Page 242 - HASZPRUNAR, G. (1988): On the origin and evolution of major gastropod groups. with special reference to the Streptoneura.
Page 242 - The fine morphology of the osphradial sense organs of the Mollusca. I. Gastropoda, Prosobranchia. Phil. Trans. R. Soc. Lond.
Page viii - ... one of which was weakly, into a small and ill-provided garden. After a short time the strong and healthy individual disappeared, and was traced by its track of slime over a wall into an adjoining well-stocked garden. Mr. Lonsdale concluded that it had deserted its sickly mate ; but after an absence of twenty-four hours it returned, and apparently communicated the result of its successful exploration, for both then started along the same track and disappeared over the wall.
Page 238 - Kaplan, SW, Kandel, ER and Hawkins, RD (1997). A simplified preparation for relating cellular events to behavior: mechanisms contributing to habituation, dishabituation, and sensitization of the Aplysia gillwithdrawal reflex. J Neurosci, 17(8), 2886-2899.
Page 92 - No intervals are admitted between one phase and its successor, or between the end of one cycle and the beginning of the next.
Page 238 - Neural mechanisms of motor program switching in the mollusc Pleurobranchaea. I. Central motor programs underlying ingestion, egestion, and the 'neutral...
Page 257 - Modulatory role for the serotonergic cerebral giant cells in the feeding system of the snail, Lymnaea. I. Fine wire recording in the intact animal and pharmacology. J Neurophysiol...
Page 236 - BENNETT & HM WEBB. 1960. A magnetic compass response of an organism. Biol. Bull. 119: 65-74. 22. BROWN, JR. FA & FH BARNWELL. 1961. Organismic orientation relative to magnetic axes, in responses to weak magnetic fields.