G Protein-Coupled Receptors in Drug Discovery

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ISBN 9780824725730
Cat# DK3001
 

Features

  • Describes the principal mechanisms for signal transduction through activation of GPCRs and their interactions with G proteins and other cellular proteins
  • Demonstrates the signal transduction mechanisms in detail with various examples
  • Covers specific areas of medicine such as cardiovascular disease, cancer, metabolic disease, and neurodegeneration and psychiatry
  • Explores high throughput screening methods for GPCRs that naturally play important roles in drug discovery
  • Discusses applied expression systems and in silico methods including application of bioinformatics and molecular modeling as tools to support structural biology approaches
  • Provides insight into the structural characterization and dynamics of GPCRs using rhodopsin as a model protein
  • Delineates the problems and recent development in crystallization of GPCRs and demonstrates how novel NMR methods can potentially be applied to GPCRs
  • Elucidates the importance of dimerization in relation to drug discovery
  • Contains a chapter on the continuous de-orphanization process of orphan GPCRs
  • Summary

    The broad range of G protein-coupled receptors (GPCRs) encompasses all areas of modern medicine and have an enormous impact on the process of drug development. Using disease-oriented methods to cover everything from screening to expression and crystallization, G Protein-Coupled Receptors in Drug Discovery describes the physiological roles of GPCRs and their involvement in various human diseases.

    The book presents current approaches in drug discovery that include target selection, establishment of screening and functional assays. It also covers recombinant GPCR expression for drug screening and structural biology, different methods for structural characterization of GPCRs, and the importance of bioinformatics. The book has been carefully edited to avoid overlapping information, some duplication has been intentionally permitted so that each chapter can function as an independent unit. Providing in-depth discussions on structure and dynamics of GPCRs, this book outlines the importance of the GPCRs to drug discovery in general and drug targets specifically.

    Daniel E. Levy, editor of the Drug Discovery Series, is the founder of DEL BioPharma, a consulting service for drug discovery programs. He also maintains a blog that explores organic chemistry.

    Table of Contents

    Introduction, K.H. Lundstrom and M.L. Chiu

    Biology of G Protein-Coupled Receptors, K. Lundstrom


    Introduction
    Families of GPCRs
    Coupling to G Proteins
    GPCR Desensitization
    Other Signaling Pathways
    Trafficking of GPCRs
    Resensitization
    Conclusions
    G Protein Coupled Receptors as Targets for Drug Discovery, T. Esbenshade
    Introduction
    GPCR Family Overview
    GPCR Tractability: Current Therapeutics
    GPCR Drug Discovery
    Novel GPCR Features and Impact on Drug Discovery Approaches
    Conclusions
    G Protein-Coupled Receptors as Cardiovascular Drug Targets, M. Scheinin and A. Snapir
    Cardiovascular Physiology, Pharmacology, and Therapeutics
    Drugs in Development and Novel Drugs Targets
    Receptor Subtypes as Novel Targets
    Receptor Gene Polymorphisms
    Concluding Remarks
    G Protein-Coupled Receptors and Cancer, M.J. Smit and R.A. Bakker
    Introduction
    Family A GPCRs
    Family C GPCRs
    Frizzled/Smoothened Family of GPCRs
    Virally Encoded GPCRs
    Orphan GPCRs
    Conclusions
    G Protein-Coupled Receptors in Metabolic Disease, R.M. Reilly and C.A. Collins
    Introduction
    Central Mediation of Feeding and Energy Homeostasis
    Peripheral Signals Affecting Nutrient Sensing and Utilization
    Conclusions
    G Protein-Coupled Receptors in CNS Drug Discovery, R. Raddatz and D.S. Hartman
    Introduction
    Psychiatric Diseases
    Pain and Analgesia
    Neurodegeneration
    Neuroendocrine Function
    Orphan GPCRs in the CNS
    Conclusions
    Recombinant G Protein-Coupled Receptors for Drug Discovery, K. Lundstrom
    Introduction
    Cell-Free Translation
    E. coli Expression
    Other Prokaryotic Systems
    Yeast Expression
    Insect Cells
    Mammalian Expression
    Comparison of Expression Systems
    Conclusions
    High Throughput Screening Assays for G Protein-Coupled Receptors, U. Warrior, S. Gopalakrishnan, J. Vanhauwe, and D. Burns
    Introduction
    Source of Material and Assay Diversity
    High Throughput Screening
    Receptor Binding Assays—General Considerations
    Functional GPCR Assays
    Inverse Agonists and Constitutive Activities
    Microphysiometer Assays
    Screening for Modulators of Orphan Receptors
    Conclusions
    Molecular Bioinformatics of Receptor Binding and Activation, K.P. Willey, H. Obermann, and J.B. Procter
    Not All 7TM Receptors are GPCRs
    Receptor Classification by Ligand Size
    Ligand Diversity Conforms to Receptor Phylogeny
    Structural Flexibilities of Membrane Receptors
    Molecular Bioinformatics in Drug Discovery
    Sequence and Structural Searches for an Activation Mechanism
    The Cysteine Shuffle
    Redox Control of Receptor Activation
    Smells Rank as the Smallest 7TMR Agonists
    Bioinformatics with Biological Sense
    Structure and Dynamics of G Protein-Coupled Receptors, J. Klein-Seetharaman and M.C. Loewen
    Introduction
    Structure, Stability, Dynamics, and Conformational Changes of Rhodopsin
    Structures, Dynamics, and Conformational Changes of GPCRs
    Conclusions
    Towards Crystallization of G Protein-Coupled Receptors, M.L. Chiu and M.P. MacWilliams
    Introduction
    Overexpression and Purification
    Detergent Selection
    Sample Preparation
    Crystallization Methods
    Micelles and Bicelles
    Lipidic Mesophases
    Bicelles, Lipopeptides, and Nanodiscs
    Crystallization
    Case Study: Rhodopsin
    Conclusions
    Novel Solid-State NMR Methods for Structural Studies on G Protein-Coupled Receptors, A. Lange and M. Baldus
    Introduction
    High-Resolution Solid State NMR
    Sample Preparation
    Applications
    Conclusions and Outlook
    Structural Genomics Initiatives, K. Lundstrom
    Introduction
    Structural Genomics Programs on Membrane Proteins
    Structural Genomics Initiatives Including GPCRs
    MePNet Approach
    Conclusions
    Molecular Basis of Dimerization of Family A G Protein-Coupled Receptors, G. Milligan
    Introduction
    Quarternary Structure of Family A GPCRs
    Consequences of the Dimerization of the Family A GPCRs
    The Mechanisms of Dimerization of the Family A GPCRs
    Conclusions
    Orphan Receptors: Promising Targets for Drug Discovery, Y. Saito, Z. Wang, and O. Civelli
    Introduction
    Search for Endogenous Ligands of Orphan GPCRs
    Example of Deorphanization: The MCH Systems and Its Impact on Drug Discovery
    Conclusions and Perspectives
    Index

    Editorial Reviews

    "The most widely used and safest medicines today are ligands to GPCRs such as antihypertensives, antihistamines, antipsychotics, antidepressants, analgesics, and antiviral agents. Orphan GPCRs whose endogenous ligands and function is not known continue to hold additional promise in the treatment of diabetes, obesity, and major depression...new knowledge on expression structure and function of GPCRs represents significant progress in the development of future medicines."
    — Tamas Bartfai, The Scripps Research Institute, La Jolla, California

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