Like the unflinching gaze of Captain Ahab walking the deck of the Pequod, Alzheimer researchers have had their sights fixed firmly on the disease for many years. Now, as this volume amply demonstrates, accomplished researchers from other fields, who have thought deeply about cell biological problems are applying their insights to Alzheimer's disease. The contri butions here represent the text versions of the proceedings from the tenth "Colloque medecine et recherche" of the Fondation IPSEN devoted to research on Alzheimer's disease. The symposium, entitled "Alzheimer's Disease: Lessons from Cell Biology" was held in Paris on April 25, 1994. As is apparent from the varied backgrounds of the contributors, the scientific pursuit of Alzheimer's disease has begun to meld with more basic disciplines, particularly cell biology. While on the one hand, new areas of specialization are continuously emerging, the boundaries of older disciplines are increas ingly blurred. Perhaps for most of the years since the first descriptions of the disease in 1907, the science of Alzheimer's disease was descriptive, and lay in the province of pathologists. This time period, during which a great deal was learned about the topography of senile plaques and neurofibrillary tangles, culminated with an ultrastructural description of these hallmark structures. The modern era of Alzheimer's disease research opened with the iden tification of the component proteins in plaques and tangles.

Klappentext

This book brings together recent developments in Alzheimer's disease research with related discoveries in the field of cell biology. The book moves between basic cell biological concepts that form the underpinnings of modern Alzheimer's disease research, and current findings about proteins and cellular processes affected by the disease. Divided into three topics, the book addresses (1) protein trafficking, a problem that has become germane to the study of the amyloid precursor protein; (2) phosphorylation, a problem that underlies studies of the pathological transformation of tau to paired helical filaments; and (3) cell death, a pervasive problem in neurodegeneration.

Inhalt
Endocytotic Pathways in Neurons.- Mechanisms of Molecular Sorting in Polarized Cells: Relevance to Alzheimer's Disease.- Regulation of Receptor Trafficking by ras-Like GTPases.- Alzheimer's Disease and Hemorrhagic Stroke: Their Relationship to ?A4 Amyloid Deposition.- Combining In Vitro Cell Biology and In Vivo Mouse Modelling to Study the Mechanisms Underlying Alzheimer's Disease.- Implication of the Amyloid Precursor Protein in Neurite Outgrowth.- Physiological Production and Polarized Secretion of the Amyloid ?-Peptide in Epithelial Cells: A Route to the Mechanism of Alzheimer's Disease.- Regulation and Structure of the MAP Kinases ERK1 and ERK2.- Calcineurin as a Pivotal Ca2+-Sensitive Switching Element in Biological Responses: Implications for the Regulation of Tau Phosphorylation in Alzheimer's Disease.- Phosphorylation of Tau and Its Relationship with Alzheimer Paired Helical Filaments.- Posttranslational Modifications of the Tau in PHF: Phosphorylation and Ubiquitination.- Tau Variants in Aging and Neurodegenerative Disorders.- A Phosphorylated Tau Species Is Transiently Present in Developing Cortical Neurons and Is Not Associated with Stable Microtubules.- Modifications of Phosphorylated Tau Immunoreactivity Linked to Excitotoxicity in Neuronal Cultures.- Neurofilaments and Motor Neuron Disease.- Lurcher, Cell Death and the Cell Cycle.- Neuronal Death, Proinflammatory Cytokines and Amyloid Precursor Protein: Studies on Staggerer Mutant Mice.- Amyloid ?-Peptide Induces Necrotic Cell Death in PC12 Cells.- Linking Amyloid Precursor Protein Processing and Tau-Related Pathology in Alzheimer's Disease.