Drug Metabolism and Transport


Book Description

A compendium of proven experimental approaches and strategies for studying the bioactivation, detoxification, tissue distribution, and elimination of xenobiotics in the metabolism and/or transport of various chemicals. The authors address several of the major drug metabolizing systems, including the cytochrome P450 family, flavin-containing monooxygenases, glutathione, S-transferase, glucuronidation, N-acetylation, and sulfotransferases. Additional chapters present novel approaches to the study of: signaling pathways in the regulation of drug metabolism enzymes, how the modulation of thiols and other low molecular-weight cofactors can alter drug metabolism, and how modulation of drug metabolism pathways can influence antiviral therapy.




The Molecular and Cellular Basis of Neurodegenerative Diseases


Book Description

The Molecular and Cellular Basis of Neurodegenerative Diseases: Underlying Mechanisms presents the pathology, genetics, biochemistry and cell biology of the major human neurodegenerative diseases, including Alzheimer's, Parkinson's, frontotemporal dementia, ALS, Huntington's, and prion diseases. Edited and authored by internationally recognized leaders in the field, the book's chapters explore their pathogenic commonalities and differences, also including discussions of animal models and prospects for therapeutics. Diseases are presented first, with common mechanisms later. Individual chapters discuss each major neurodegenerative disease, integrating this information to offer multiple molecular and cellular mechanisms that diseases may have in common. This book provides readers with a timely update on this rapidly advancing area of investigation, presenting an invaluable resource for researchers in the field. - Covers the spectrum of neurodegenerative diseases and their complex genetic, pathological, biochemical and cellular features - Focuses on leading hypotheses regarding the biochemical and cellular dysfunctions that cause neurodegeneration - Details features, advantages and limitations of animal models, as well as prospects for therapeutic development - Authored by internationally recognized leaders in the field - Includes illustrations that help clarify and consolidate complex concepts







Research Awards Index


Book Description




Cellular and Molecular Physiology of Cell Volume Regulation


Book Description

The ability to regulate cell volume in the face of osmotic challenge is one of the most fundamental of cellular homeostatic mechanisms. Cellular and Molecular Physiology of Cell Volume Regulation is an integrated collection of articles describing key aspects of cell volume control. The book has been organized around concepts and cellular/molecular processes rather than around mechanisms of volume regulation in specific cell types in order to make it more accessible to a multidisciplinary audience of students, instructors, and researchers.




Cellular Mechanisms of Alzheimer's Disease


Book Description

This special topic issue of 'Neurodegenerative Diseases' contains contributions discussing the subject in-depth. 'Neurodegenerative Diseases' is a well-respected, international peer-reviewed journal in 'Neurobiology'. Special topic issues are included in the subscription.







Molecular and Cellular Mechanisms in Disease


Book Description

In spite of ingenious experiments, imaginative theories, and unshakable faith in supreme forces, there is no way to know how life began. What is certain is that in the course of the development of the universe existing sources of energy fused to generate atoms, and atoms mingled to become small molecules. At some point by chance or design-according to one's belief, but no one's evidence-small molecules such as hydrogen, oxygen, carbon dioxide, water, and ammonia reacted to yield larger molecules with the property most essential to life: self-replication. Such molecules had to achieve a proper balance between the stability needed for their survival in the environment and the mutability for the generation of many forms of life. How amino acids were created or how DNA, RNA, and proteins developed remains a mystery. But we know that a simple core of nucleic acid embedded in a protein coat made the simplest unit of life (except for viroids). Whether viruses are a primitive or degenerated form of life is not known. Once proteins appeared, their great structural plasticity allowed them to react with other elements such as sulfur, iron, copper, and zinc. After an incalculable number of years, some of the proteins became capable of catalyzing the synthesis of new nucleic acids, new proteins, and other compounds such as polysaccharides and lipids.