Detailansicht

Synaptic Stress and Pathogenesis of Neuropsychiatric Disorders

ISBN/EAN: 9781493946327
Umbreit-Nr.: 9808099

Sprache: Englisch
Umfang: xiv, 355 S., 1 s/w Illustr., 48 farbige Illustr.,
Format in cm:
Einband: kartoniertes Buch

Erschienen am 03.09.2016
Auflage: 1/2014
€ 160,49
(inklusive MwSt.)
Lieferbar innerhalb 1 - 2 Wochen
  • Zusatztext
    • Recent studies show that changes in Glutamate/GABA synapses and related pathways may determine whether the synaptic plasticity that occurs as a response to stress is adaptive or maladaptive. Findings have shed new light on the mechanisms that determine the effects of stress on cognitive and affective function. Researchers have brought a wide range of techniques to bear on the study of this problem, including cutting-edge live imaging techniques, electrophysiology, glutamate release from isolated live synaptic terminals, development of transgenic and animal models and new behavioral methods. This book provides an overview of these recent findings and of the techniques used as well as a discussion of how the molecular, cellular, and functional effects of stress may trigger or precipitate neuropsychiatric disorders such as depression, schizophrenia, anxiety and PTSD.
  • Kurztext
    • An overview of the ways in which stress affects brain function or synaptic plasticity and can precipitate the onset of neuropsychiatric disorders. Recent research has shown that changes in glutamate/GABA synapses and related pathways are involved in determining whether the effects of a particular stressor will be adaptive or maladaptive. Among the topics discussed are the impact of behavioral stress and glucocorticoids on tripartite glutamate synapses and synaptic transmission, the way that psychiatric drugs affect these same mechanisms, and how the molecular/cellular/functional effects of stress may trigger disorders such as depression, schizophrenia, anxiety, and PTSD. The results presented have been obtained through a range of different and complementary methods including live imaging, electrophysiology, glutamate release from isolated live synaptic terminals, transgenic and animal models, and new behavioral methods.