Great Deals on Used Textbooks & New Textbooks!               
My Account | Help Desk | Market Place Shopping Cart
Free shipping. Click here for details.
No items in cart.
Total: $0.00
Textbooks Sell Textbooks Books Supplies Medical Books College Apparel Movies Clearance
Search  Advanced >>
The Primate Nervous System, Part III,9780444500434
Other versions by this Author
Details>>

The Primate Nervous System, Part III


Edition: 1st
Author(s): ; kfelt; Bloom; Bjö; rklund
ISBN10:  044450043X
ISBN13:  9780444500434
Format:  Hardcover
Pub. Date:  10/26/1999
Publisher(s): Elsevier Science & Technology

Buy in Bulk
Send to a friend
New Price  $162.12
List Price $234.95
eVIP Price  $154.02
New Copy:  In Stock Usually Ships in 24 Hours.
Only 1 left at this sale price!
Order Now!
add remove
Rental Price  $153.20   What is a rental?
Due back on
 
Add Rental Book to Cart
eBook Price $247.85
What is an eBook?
Add eBook to Cart
Electronic Copy: Will be Delivered Electronically
Marketplace Price $384.95
List Price $234.95 Available in the eCampus Marketplace
Take 90 Days to Pay on $250 or more
with Quick, Easy, Secure
Subject to credit approval.
SummaryTable of Contents
This volume is the third and final part of the planned coverage of the neurochemical circuitry of the primate central nervous system. The five chapters included in this volume complement and integrate magnificently with the two prior volumes.


Included in the volume are the following: a two-fold exposition on the human forebrain, comprised of a comprehensive overview of the entire human forebrain, and a specific focus on the basal forebrain (a region critical for a wide range of human problems ranging from substance abuse to Alzheimer's disease), a critical synthesis of the primate basal ganglia (a region under intense scrutiny for the organization of motor programs, and for their dysfunctions in Parkinson's disease, Huntington's disease and other malfunctions), the chemical and anatomic details of the primate hippocampal formation in extenso, and lastly, a review of the rapidly growing literature on the mesocortical projection of dopaminergic circuits onto the primate frontal cortex ( a system highly linked to higher order mental abstractions, as well as the dysfunctions of schizophrenia).


Scholars will recognize that the laying out of these status reports on our still vastly incomplete examination of the primate brains is an opportunity for progress.


Scripps Research Institute, La Jolla, CA. Final part on this coverage of the neurochemical circuitry of the primate central nervous system. Discusses brain regions lying at the core of some of the most studied human neurological and psychiatric disorders. Includes illustrations and references.
The Human Basal Forebrain. Part I. an Overview
N. Sakamoto
J. Pearson
K. Shinoda
G.F. Alheid
J.S. de Olmos
L. Heimer
Introduction
1(1)
Surface topography
1(5)
Basal cortex
2(1)
Olfactory peduncle and olfactory tract
2(1)
Olfactory tubercle and anterior perforated space
3(3)
Olfactory trigone
6(1)
Overview of basal forebrain structures
6(5)
Area diagonalis (diagonal band of Broca) and basal nucleus of Meynert
6(1)
Olfactory bulb projection areas
7(1)
The claustrum
7(1)
Dorsal striatum and dorsal pallidum
8(1)
Ventral striatum and ventral pallidum
9(1)
Striatum in the temporal lobe
9(1)
Extended amygdala
10(1)
Amygdaloid body
11(1)
Small-celled islands
11(1)
Coronal sections through the basal forebrain
11(1)
Materials and methods
11(1)
Acknowledgements
12(1)
References
13(44)
Mini-atlas of coronal sections through the basal forebrain
15(42)
The Human Basal Forebrain. Part II.
L. Heimer
J.S. de Olmos
G.F. Alheid
J. Pearson
N. Sakamoto
K. Shinoda
J. Marksteiner
R.C. Switzer III
Introduction
57(7)
`Basalis' region
60(1)
`Basalkerncomplex' of Brockhaus
60(3)
Basal nucleus of Meynert
63(1)
Ventral striatopallidal system
64(29)
Ventral striatum
65(2)
The heterogeneity of ventral striatum
67(15)
Interface islands
82(7)
Core and shell subdivisions of the accumbens
89(1)
Ventral pallidum
90(3)
Extended amygdala
93(53)
Bed nucleus of stria terminalis
98(1)
Lateral division of bed nucleus
98(7)
Medial division of bed nucleus
105(1)
Sublenticular components of extended amygdala
105(2)
Central division of the sublenticular extended amygdala
107(7)
Medial division of sublenticular extended amygdala
114(1)
Centromedial amygdala
114(2)
Central amygdaloid nucleus
116(6)
Medial amygdaloid nucleus
122(2)
Stria terminalis components of the extended amygdala
124(1)
Supracapsular part of the stria terminalis
125(13)
Subcapsular part of the stria terminalis
138(6)
Transition areas between extended amygdala and the striatopallidal system
144(2)
Olfactory system
146(10)
Primary non-amygdaloid olfactory bulb projection areas
147(1)
Anterior olfactory nucleus (retrobulbar area)
147(1)
Primary olfactory cortex (`piriform cortex')
148(3)
Insular and temporopolar periallocortical areas
151(1)
Ventral striatum vs olfactory tubercle
152(1)
Olfactory association areas in the orbitofrontal cortex
153(1)
Olfactory amygdala
154(1)
Olfactory entorhinal field
155(1)
Superficial amygdala and the laterobasal complex
156(31)
General structure of the amygdala
156(5)
Superficial amygdala
161(1)
Is the superficial amygdala a cortical or subcortical structure?
161(1)
Superficial amygdala: a plethora of terms
162(7)
Review of superficial amygdaloid structures
169(7)
Laterobasal amygdaloid complex
176(2)
Lateral amygdaloid nucleus
178(3)
Basolateral amygdaloid nucleus
181(2)
The basomedial amygdaloid nucleus
183(2)
The paralaminar amygdaloid nucleus
185(1)
Intramedullary gray substance and intercalated (interface) islands
186(1)
Concluding remarks
187(1)
Appendix: comparison of nomenclature for the human amygdala
187(19)
Preface
187(1)
Footnotes to tables
188(18)
Acknowledgements
206(1)
Abbreviations
206(3)
References
209(18)
Chemical Architecture of the Basal Ganglia
A.M. Graybiel
J.B. Penney†
Introduction
227(1)
Systems approach to the basal ganglia
228(19)
The basal ganglia proper and their allied nuclei
228(3)
The connections of the basal ganglia: An overview
231(1)
The direct pathway
232(1)
The indirect pathway
232(3)
The striosomal output pathway
235(1)
General modular architecture of the striatum: striosomes and matrisomes
235(2)
Loop systems of the basal ganglia
237(3)
Transmitter-related compounds associated with basal ganglia pathways
240(5)
Neuropeptides in basal ganglia pathways
245(2)
Neurotransmitter-related compounds in striatal interneurons
247(1)
Functional concepts about the basal ganglia
247(10)
Movement disorders
247(1)
Ballism
248(1)
Parkinson's disease
249(3)
Huntington's disease
252(3)
Dystonia
255(1)
Neuropsychiatric disorders
256(1)
Chemically specified subsystems: receptor systems in the basal ganglia
257(10)
Receptors associated with basal ganglia afferents
258(1)
Glutamate receptors
258(3)
Dopamine receptors
261(1)
Serotoninergic receptors
262(1)
Adrenergic receptors
263(1)
Glycine receptors
263(1)
Receptors associated with intrinsic basal ganglia pathways
263(1)
GABA receptors
263(2)
Cholinergic receptors
265(1)
Adenosine receptors
265(1)
Opiate receptors
265(1)
Tachykinin receptors
266(1)
Cannabinoid receptors
266(1)
Somatostatin receptors
267(1)
Future directions
267(3)
Functional considerations: The involvement of basal ganglia dysfunction in the production of disordered movement
267(3)
Acknowledgement
270(1)
References
270(15)
Chemical Neuroanatomy of the Hippocampal Formation and the Perirhinal and Parahippocampal Cortices
Y. Kobayashi
D.G. Amaral
Introduction
285(8)
Why the hippocampal formation?
286(1)
Why include the perirhinal and parahippocampal cortices?
286(2)
Organization of the chapter
288(5)
Overview of the components of the medial temporal lobe
293(4)
Cytoarchitectonic organization of the hippocampal formation
297(7)
Regional and cytoarchitectonic features of the perirhinal and parahippocampal cortices
304(2)
An overview of the connectivity of the hippocampal formation
306(31)
Intrinsic connections of the hippocampal formation
306(30)
Connections between the perirhinal and parahippocampal cortices and the hippocampal formation
336(1)
Other extrinsic connections of the hippocampal formation
336(1)
Dentate gyrus
337(16)
Glutamate system
337(1)
Glutamate
337(1)
Glutamate receptors
337(1)
NMDA receptors
337(1)
AMPA/kainate receptors
338(1)
Metabotropic glutamate receptors
338(1)
Aspartate
339(1)
Cholinergic system
339(1)
Cholinergic fiber systems
339(1)
Molecular layer
339(1)
Granule cell layer
340(1)
Polymorphic cell layer
340(1)
Cholinergic receptor systems
341(1)
GABAergic system
341(1)
GABAergic fiber innervation
341(1)
GABAergic cell bodies
342(1)
GABAergic receptors
343(1)
Monoamines
343(1)
Noradrenaline
343(1)
Adrenaline
344(1)
Dopamine
344(1)
Serotonin
344(1)
Peptides
345(1)
Substance P
345(1)
Cholecystokinin
346(1)
Vasoactive intestinal peptide
346(1)
Neurotensin
346(1)
Somatostatin
346(1)
Neuropeptide Y
347(1)
Opioid peptides (dynorphin, enkephalin)
347(1)
Galanin
347(1)
Calcium-binding proteins
348(1)
Parvalbumin
348(2)
Calbindin
350(1)
Calretinin
350(1)
Hormone receptor sites
351(1)
Enzymes
351(1)
Cytochrome oxidase
351(1)
Nitric oxide synthase and NADPH-diaphorase
352(1)
Trophic factors
352(1)
Nerve growth factor
352(1)
Ciliary neurotrophic factor
353(1)
Brain-derived neurotrophic factor
353(1)
Hippocampus
353(13)
Glutamate system
353(1)
Glutamate
353(1)
NMDA receptors
353(1)
AMPA-kainate receptors
354(1)
Metabotropic glutamate receptors
354(1)
Aspartate
354(1)
Cholinergic system
355(1)
Cholinergic fiber systems
355(1)
Cholinergic receptors
356(1)
GABAergic system
356(1)
Fiber innervation
356(1)
GABAergic cell bodies
357(2)
GABAergic receptors
359(1)
Monoamines
359(1)
Noradrenaline
359(1)
Dopamine
359(1)
Serotonin
360(1)
Peptides
360(1)
Substance P
360(1)
Cholecystokinin
360(1)
Neurotensin
361(1)
Somatostatin
361(1)
Neuropeptide Y
361(1)
Opioid peptides
362(1)
Galanin
362(1)
Calcium-binding proteins
362(1)
Parvalbumin
362(1)
Distribution of parvalbumin-positive fibers
362(1)
Distribution of parvalbumin-positive cell bodies
363(1)
Calbindin
364(1)
Calretinin
365(1)
Hormone receptor sites
365(1)
Enzymes
365(1)
Cytochrome oxidase
365(1)
Nitric oxide synthase and NADPH-diaphorase
366(1)
Other enzymes
366(1)
Trophic factors
366(1)
Nerve growth factor
366(1)
Ciliary neurotrophic factor
366(1)
Brain-derived neurotrophic factor
366(1)
Subiculum
366(7)
Glutamate system
366(1)
Glutamate
366(1)
NMDA receptors
367(1)
AMPA-kainate receptors
367(1)
Metabotropic glutamate receptors
367(1)
Aspartate
367(1)
Cholinergic system
367(1)
Cholinergic fiber systems
367(1)
Cholinergic receptors
368(1)
GABAergic system
368(1)
Fiber innervation
368(1)
GABAergic cell bodies
368(1)
GABAergic receptors
368(1)
Monoamines
369(1)
Noradrenaline
369(1)
Dopamine
369(1)
Serotonin
369(1)
Peptides
369(1)
Substance P
369(1)
Cholecystokinin
369(1)
Neurotensin
369(1)
Somatostatin
370(1)
Neuropeptide Y
370(1)
Opioid peptides
370(1)
Galanin
370(1)
Calcium-binding proteins
370(1)
Parvalbumin
370(1)
Distribution of parvalbumin-positive fibers
370(1)
Distribution of parvalbumin-positive cells
371(1)
Calbindin
371(1)
Calretinin
371(1)
Hormone receptor sites
372(1)
Enzymes
372(1)
Cytochrome oxidase
372(1)
Nitric oxide synthase and NADPH-diaphorase
372(1)
Trophic factors
372(1)
Nerve growth factor
372(1)
Ciliary neurotrophic factor
372(1)
Brain-derived neurotrophic factor
372(1)
Presubiculum and parasubiculum
373(5)
Glutamate system
373(1)
AMPA receptors
373(1)
Cholinergic system
373(1)
Cholinergic fiber systems
373(1)
Presubiculum
373(1)
Parasubiculum
373(1)
Cholinergic receptors
374(1)
GABAergic system
374(1)
Fiber innervation
374(1)
GABAergic cell bodies
374(1)
GABAergic receptors
375(1)
Monoamines
375(1)
Noradrenaline
375(1)
Dopamine
375(1)
Serotonin
375(1)
Peptides
375(1)
Substance P
375(1)
Cholecystokinin
375(1)
Neurotensin
375(1)
Somatostatin
376(1)
Neuropeptide Y
376(1)
Opioid peptides
376(1)
Galanin
376(1)
Calcium-binding proteins
376(1)
Parvalbumin in the presubiculum
376(1)
Distribution of parvalbumin-immunoreactive fibers
376(1)
Distribution of parvalbumin-immunoreactive cells
376(1)
Parvalbumin in the parasubiculum
377(1)
Distribution of parvalbumin-immunoreactive fibers
377(1)
Distribution of parvalbumin-immunoreactive cells
377(1)
Calbindin
377(1)
Calretinin
377(1)
Hormone receptor sites
378(1)
Enzymes
378(1)
Cytochrome oxidase
378(1)
Nitric oxide synthase and NADPH-diaphorase
378(1)
Trophic factors
378(1)
Entorhinal cortex
378(10)
Glutamate system
378(1)
AMPA-kainate receptors
378(1)
Cholinergic system
379(1)
Cholinergic fiber systems
379(1)
Cholinergic receptors
380(1)
Muscarinic receptors
380(1)
Nicotinic receptors
380(1)
GABAergic system
381(1)
Fiber innervation
381(1)
GABAergic cell bodies
381(1)
Monoamines
382(1)
Noradrenaline
382(1)
Dopamine
382(1)
Serotonin
383(1)
Peptides
383(1)
Substance P
383(1)
Cholecystokinin
384(1)
Neurotensin
384(1)
Somatostatin
384(1)
Neuropeptide Y
385(1)
Opioid peptide
385(1)
Galanin
385(1)
Calcium-binding proteins
385(1)
Parvalbumin
385(1)
Distribution of parvalbumin-immunoreactive fibers
385(1)
Distribution of parvalbumin-immunoreactive cells
386(1)
Calbindin
386(1)
Calretinin
387(1)
Hormone receptor sites
387(1)
Enzymes
387(1)
Cytochrome oxidase
387(1)
Nitric oxide synthase and NADPH-diaphorase
387(1)
Trophic factors
388(1)
Nerve growth factor
388(1)
Ciliary neurotrophic factor
388(1)
Brain-derived neurotrophic factor
388(1)
Perirhinal cortex
388(2)
Glutamate system
388(1)
Cholinergic system
388(1)
GABAergic system
388(1)
Monoamines
388(1)
Noradrenaline
388(1)
Dopamine
389(1)
Serotonin
389(1)
Peptides
389(1)
Somatostatin
389(1)
Neuropeptide Y
389(1)
Calcium-binding proteins
389(1)
Parvalbumin
389(1)
Hormone receptor sites
389(1)
Enzymes
390(1)
Nitric oxide synthase and NADPH-diaphorase
390(1)
Trophic factors
390(1)
Nerve growth factor
390(1)
Parahippocampal cortex
390(1)
Glutamate system/cholinergic system/GABAergic system/monoamines
390(1)
Peptides
390(1)
Substance P
390(1)
Calcium-binding proteins
390(1)
Hormone receptor sites
390(1)
Enzymes
391(1)
Nitric oxide synthase and NADPH-diaphorase
391(1)
Trophic factors
391(1)
Concluding remarks
391(1)
Abbreviations
392(1)
References
393(10)
The Primate Mesocortical Dopamine System
P.S. Goldman-Rakic
C. Bergson
L.S. Krimer
M.S. Lidow
S.M. Williams
G.V. Williams
Introduction
403(1)
Primate specialization in the brainstem origin and organization of the mesocortical dopamine system
403(3)
Qualitative organization of the dopamine innervation of cerebral cortex
406(2)
Quantitative analysis of dopamine contacts on pyramidal and non-pyramidal neurons
408(1)
Electronmicroscopic evidence of dopamine synaptic triads and D1 receptor localization in spines
409(2)
Dopamine innervation of the microvasculature
411(1)
Dopamine D1 and D2 family of receptors in the cerebral cortex
412(4)
Localization of the D1 family of DA receptors in prefrontal cortex
412(1)
Localization of the D2 family of DA receptors in prefrontal cortex
413(3)
Role of dopamine receptors in cortical function
416(4)
Regulation of cortical dopamine receptors as targets of antipsychotic drugs
420(2)
Effect of antipsychotic medications on the D2 receptors in the primate cerebral cortex
420(2)
Summary and future directions
422(1)
References
423(6)
Subject Index 429

Recommended Titles
The Primate Nervous System, Part I
The Primate Nervous System, Part I
Retail Price: $279.95
Our Price: $272.95
 
Check Out These Items!
eCampus.com Pink Backpack eCampus.com Pink Backpack
Retail Price $28.95
Our Price $10.00
eCampus.com T-Shirt eCampus.com T-Shirt
Retail Price $14.99
Our Price $2.00
eCampus.com 4GB USB Drive eCampus.com 4GB USB Drive
Retail Price $32.95
Our Price $25.00
  Buy Textbooks
  Sell Textbooks
  College Apparel
  Shop by School
  Virtual Bookstores
  Order Status
  Shipping Rates
  Return Policy
  Marketplace Info
  F.A.S.T.
  Contact Us
  Privacy Policy
  Legal Notices
  Site Security
  Employment
  Help Desk
  eCampus Blog
  Affiliate Program
  Bulk Orders
  College Marketing
HACKER SAFE certified sites prevent over 99.9% of hacker crime.
eCampus.com blog follow eCampus.com on twitter find eCampus.com on facebook RSS Need Help? eService@ecampus.com   Copyright© 1999-2008     
.