John W. Moore – författare

Classical conditioning (CC) refers to the general paradigm for scientific studies of learning and memory initiated by Pavlov and his followers. As a model system associative learning in human and animals, CC continues to play a central role in research and an expanding role in evaluating disorders of learning and memory (aging, drug abuse, teratology). The book is aimed at the growing population of scientists and medical specialists who employ CC methods.Despite the current high level of interest in CC within neuroscience. There is presently no single source that provides up-to-date comprehensive coverage of core topics. CC is a very large field. Nevertheless, some organisms and behaviors have dominated the neuroscience scene. Foremost of these are classical eyeblink conditioning (rats, cats, rabbits, and humans) and 'fear' conditioning. This handbook of CC focuses on these systems.

Classical conditioning (CC) refers to the general paradigm for scientific studies of learning and memory initiated by Pavlov and his followers. As a model system associative learning in human and animals, CC continues to play a central role in research and an expanding role in evaluating disorders of learning and memory (aging, drug abuse, teratology). The book is aimed at the growing population of scientists and medical specialists who employ CC methods.Despite the current high level of interest in CC within neuroscience. There is presently no single source that provides up-to-date comprehensive coverage of core topics. CC is a very large field. Nevertheless, some organisms and behaviors have dominated the neuroscience scene. Foremost of these are classical eyeblink conditioning (rats, cats, rabbits, and humans) and 'fear' conditioning. This handbook of CC focuses on these systems.

The third edition of a classic text originally by Frost and Pearson, that describes the fundamental principles and established practices that apply to the study and the rates and mechanisms of homogeneous chemical reactions in the gas phase and in solution. Incorporates new advances made during the past 20 years in the study of individual molecular collisions by molecular-beam, laser applications to experimental kinetics, theoretical treatments of reaction rates and our understanding of the principles that govern rates of reaction in solution. Presents numerous examples of the deduction of mechanism from experiment, including intimate details such as stereochemistry and the dependence of reaction pathway on the exact energy states of reacting particles.