Central regulation of energy metabolism with special reference to circadian rhythm

著者

書誌事項

Central regulation of energy metabolism with special reference to circadian rhythm

Katsuya Nagai and Hachiro Nakagawa

CRC Press, 1992

  • est.

タイトル別名

CRC central regulation of energy metabolism with special reference to circadian rhythm

大学図書館所蔵 件 / 全4件

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注記

Includes bibliographical references and index

内容説明・目次

内容説明

This excellent book describes the roles of the suprachiasmatic nucleus (SCN) of the hypothalamus as a regulatory center of homeostatic mechanism and a circadian oscillator in mammals, including humans. The authors emphasize two important points based on their findings: 1) SCN plays a critical role in central regulation of energy metabolism through which a constant supply of glucose to the central nervous system (CNS) is well maintained; and 2) neurons responsible for the regulation of energy metabolism are located in the ventrolateral part of the SCN and receive retinal neural inputs through both the retinohypothalamic tract and the geniculohypothalamic tract. The authors then discuss the evolutionary importance of these points to the survival of mammals on earth. Other topics examined include the involvement of light in the regulation of neural activity of the autonomic nervous system through the retina and SCN, in addition to the relation of the SCN with regulations of other autonomic nerve functions, such as blood pressure and body temperature. Central Regulation of Energy Metabolism with Special Reference to Circadian Rhythm is important reading for researchers and students in neuroendocrinologists, neurobiologists, biochemists, endocrinologists, physiologists, chronobiologists, psychologists, pharmacologists, and others interested in the topic.

目次

Preface. HOMEOSTATIC CONTROL OF ENERGY METABOLISM. HISTORICAL BACKGROUND OF HOMEOSTASIS. HOMEOSTATIC CONTROL OF ENERGY METABOLISM. Why Should Homeostasis of the Level of Blood Glucose be Maintained? Glycogen Storage in the Liver as a Source of Energy to the Brain. Food Intake. Gluconeogenesis. ROLE OF THE HYPOTHALAMUS IN CENTRAL REGULATION OF ENERGY METABOLISM. Hypothalamic Control of Food Intake. Hypothalamus and Glucose Metabolism. Hypothalamic Control of Fat Metabolism. Hypothalamic Control of Heat Production in Brown Adipose Tissue. Functional Relationship between the Hypothalamus and the Autonomic Nervous System in Regard to Energy Metabolism. INVOLVEMENT OF THE AUTONOMIC NERVOUS SYSTEM IN THE REGULATION OF ENERGY METABOLISM. TIME-DEPENDENT HYPERGLYCEMIC RESPONSE TO ENERGY DEFICIENCY IN THE BRAIN. Hyperglycemic Responses to Intracranial Injections of 2DG. Time Dependency of Hyperglycemic Responses to 2DG, MA, and GL Injections. Glucagon as a Causative Factor for the Hyperglycemic Response to 2DG. INVOLVEMENT OF THE ADRENAL MEDULLA IN THE HYPERGLYCEMIC RESPONSE. Suppression of Insulin Secretion by Intracranial Injections of 2DG, MA, and GL. EFFECTS OF ADRENERGIC BLOCKERS ON THE HYPERGLYCEMIC RESPONSE. CIRCADIAN RHYTHMS AND THEIR SIGNIFICANCES IN SURVIVIAL OF ANIMALS. TIME DEPENDENCY AND CIRCADIAN RHYTHMS. The Effects of Changing Environmental Factors on the Lives of Animals. Food Intake. CIRCADIAN RHYTHMS OF ANIMAL BEHAVIORS. Water Intake. Sleep and Wakefulness. Locomotive Activity. DAILY CHANGES IN METABOLISM. Energy Consumption and Respiratory Quotient. Enzyme Activities. Autonomic and Endocrinological Regulations of Energy Metabolism. The Autonomic Nervous System and Daily Changes in PEPCK Activity in a Normal Environment. Generation of Daily Change in Gluconeogenesis in Close Relation with Food Intake. CIRCADIAN RHYTHMS OF ENDOCRINE FUNCTIONS. Corticosteroids. Insulin and Glucagon. BODY TEMPERATURE. SUPRACHIASMATIC NUCLEUS AS A SITE OF THE CIRCADIAN CLOCK.

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