R. Llinas – författare

Commentaries in the Neurosciences is a compilation of the commentaries segment featured in the Neuroscience journal. This book, however, does not provide a comprehensive account of all fields in neuroscience, but rather articles that highlight developments during the past years. The topics covered include chemistry and dynamics of neurotransmitter storage particles; release of central and peripheral neurotransmitters; and transmitters in the enteric nervous system. This book also discusses the properties of neuroreceptors; chemistry and connections of the cerebral cortex; and intracellular recording and ionic transmembrane currents. This text explains as well the invertebrate nervous systems; functions of the nervous system including neuro- and psychopharmacology; and the mind-body problem. This book will be of use not only to research workers interested in keeping updated with developments in different areas of the neurosciences, but also to advanced undergraduate and graduate students who are studying the nervous system.

In review, the amount of information available on the morphological and func­ tional properties of the frog nervous system is very extensive indeed and in certain areas is the only available source of information in vertebrates. Further­ more, much of the now classical knowledge in neurobiology was originally ob­ tained and elaborated in depth in this vertebrate. To cite only a few examples, studies of nerve conduction, neuromuscular transmission, neuronal integration, sense organs, development, and locomotion have been developed with great detail in the frog and in conjunction provide the most complete holistic descrip­ tion of any nervous system. Added to the above considerations, the ease with which these animals may be maintained (both as adults and during development) and the advantage of their lower cost as compared with other vertebrate forms make the frog one of the most important laboratory animals in neurobiology. With these thoughts in mind, we decided to compile this volume. Our goal in doing so was to assemble as much as possible of the information available on frog neurobiology and to have the different topics covered by authorities in each of the fields represented. To keep the handbook restricted to one volume, we found it necessary to omit the large field of amphibian muscle neurobiology, which has already been summarized in various other publications.

In review, the amount of information available on the morphological and func­ tional properties of the frog nervous system is very extensive indeed and in certain areas is the only available source of information in vertebrates. Further­ more, much of the now classical knowledge in neurobiology was originally ob­ tained and elaborated in depth in this vertebrate. To cite only a few examples, studies of nerve conduction, neuromuscular transmission, neuronal integration, sense organs, development, and locomotion have been developed with great detail in the frog and in conjunction provide the most complete holistic descrip­ tion of any nervous system. Added to the above considerations, the ease with which these animals may be maintained (both as adults and during development) and the advantage of their lower cost as compared with other vertebrate forms make the frog one of the most important laboratory animals in neurobiology. With these thoughts in mind, we decided to compile this volume. Our goal in doing so was to assemble as much as possible of the information available on frog neurobiology and to have the different topics covered by authorities in each of the fields represented. To keep the handbook restricted to one volume, we found it necessary to omit the large field of amphibian muscle neurobiology, which has already been summarized in various other publications.

Temporal coding in the brain documents a revolution now occurring in the neurosciences. How does parallel processing of information bind together the complex nature of the outer and our inner worlds? Do intrinsic oscillations and transient cooperative states of neurons represent the physiological basis of cognitive and motor functions of the brain? Some answers to these challenging issues are provided in this book by leading world experts of brain function. A common denominator of the works presented in this volume is the nature and mechanisms of neuronal cooperation in the temporal domain. The topics range from simple organisms to the human brain. The volume is intended for investigators and graduate students in neurophysiology, cognitive neuroscience, neural computation and neurology.