UID:
edoccha_9960161240902883
Format:
1 online resource (255 pages)
ISBN:
0-12-809237-8
Note:
Front Cover -- ARTHROPOD VECTOR: CONTROLLER OF DISEASE TRANSMISSION:VOLUME 1: VECTOR MICROBIOME AND INNATE IMMUNITY OF ARTHROPODS -- ARTHROPOD VECTOR: CONTROLLER OF DISEASE TRANSMISSION:VOLUME 1: VECTOR MICROBIOME AND INNATE IMMUNITY OF ARTHROPODS -- Copyright -- Contents-Volume 1 -- Contents-Volume 2 -- List of Contributors -- Preface -- 1 - The Site of the Bite: Addressing Knowledge Gaps in Vector Transmission of Diseases -- VECTORS: THE NEGLECTED PART OF THE EQUATION -- IDENTIFYING THE RESEARCH GAPS -- ROLE OF IMMUNE CELL SUBSETS IN THE ESTABLISHMENT OF VECTOR-BORNE INFECTIONS -- EFFECT OF VECTOR INNATE IMMUNITY AND HUMAN-DERIVED IMMUNE MOLECULES ON THE TRANSMISSION OF VECTOR-BORNE PATHOGENS -- DROSOPHILA-A USEFUL MODEL FOR VECTORS? -- ARTHROPOD VECTORS AND DISEASE TRANSMISSION: TRANSLATIONAL ASPECTS -- TRANSLATIONAL CONSIDERATIONS FOR NOVEL VECTOR MANAGEMENT APPROACHES -- KEYSTONE SYMPOSIA ON MOLECULAR AND CELLULAR BIOLOGY-THE ARTHROPOD VECTOR: THE CONTROLLER OF TRANSMISSION -- CONCLUSIONS -- References -- 2 - Conservation and Convergence of Immune Signaling Pathways With Mitochondrial Regulation in Vector Arthropod Physiology -- HISTORICAL IMPORTANCE OF INSECTS IN OUR UNDERSTANDING OF DISEASE -- THE BLOOD-FEEDING INTERFACE -- ANCIENT REGULATORY PATHWAYS OF HOMEOSTASIS: IIS, TGF-Β, MAPK -- The Pathways: IIS, TGF-β, MAPK -- IIS, TGF-β, and MAPK Regulation of Mitochondrial Function -- IIS, TGF-β, and MAPK Regulation of Mitochondrial Biogenesis and Turnover -- MITOCHONDRIAL DYNAMICS CONTROLS DIVERSE PHYSIOLOGIES THAT ARE KEY TO VECTOR COMPETENCE -- SUMMARY -- References -- 3 - Wolbachia-Mediated Immunity Induction in Mosquito Vectors -- INTRODUCTION -- Maternal Transmission of Wolbachia -- Wolbachia-Mediated Cytoplasmic Incompatibility -- Wolbachia-Mediated Pathogen Interference -- Wolbachia-Associated Fitness.
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WOLBACHIA-MEDIATED IMMUNE INDUCTIONS -- Wolbachia Recognition by Hosts -- Wolbachia Regulates Host Toll and Imd Signaling Pathways -- Wolbachia Induces Production of Reactive Oxygen Species -- The Interaction of Wolbachia With MicroRNAs -- THE ROLE OF WOLBACHIA-INDUCED IMMUNITY IN PATHOGEN INTERFERENCE -- THE ROLE OF WOLBACHIA-INDUCED IMMUNITY IN SYMBIOSIS FORMATION -- THE IMPACT OF WOLBACHIA-INDUCED IMMUNITY ON MICROBIOTA -- EVOLUTION OF WOLBACHIA-MEDIATED IMMUNE INDUCTIONS AND ITS IMPACT ON DISEASE CONTROL -- TRANSLATIONAL OPPORTUNITIES FOR DISEASE CONTROL AND PREVENTION -- FUTURE RESEARCH DIRECTIONS -- References -- 4 - Modulation of Mosquito Immune Defenses as a Control Strategy -- INTRODUCTION -- THE GENETIC BASIS OF VECTOR COMPETENCE AND ITS LINK TO MOSQUITO IMMUNITY -- CURRENT KNOWLEDGE OF ANTIPARASITE IMMUNE REACTIONS IN THE MOSQUITO VECTOR -- Antimalarial Immunity in the Midgut Lumen -- Antimalarial Immunity Against Parasites Traversing the Midgut Epithelium -- Antimalarial Immunity Against Developing Malaria Oocysts -- Antimalarial Immunity Against Sporozoites in Hemolymph and Salivary Glands -- THE REGULATION OF ANTI-PARASITE IMMUNITY BY CANONICAL SIGNAL TRANSDUCTION PATHWAYS -- The Toll Pathway Controls Immune Reactions Targeting Broad Classes of Pathogens -- The Immunodeficiency (Imd) Pathway Is a Major Regulator of Gut Immunity -- The JAK/STAT Pathway Regulates the Antiviral Response and Cellular and Gut Immunity -- Mitogen-Activated Protein Kinase Signaling Affects Mosquito Midgut Homeostasis and Hemocyte Proliferation -- ERK Signaling -- Ras Also Signals Through the PI3K/Akt Pathway -- Jun-N-Terminal Kinase/p38 Signaling -- CREATING MALARIA-REFRACTORY MOSQUITOES IN THE LABORATORY: THE PROOF OF PRINCIPLE -- Transient Inhibition of Plasmodium spp. Development by RNAi -- Inherited Boosting of Antiparasite Immunity in Mosquitoes.
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Overexpression of Antimicrobial Peptides -- Overexpression of Immune Pathway Transcription Factors -- Overexpression of Immune Pathway Modulators -- Overexpression of Plasmodium Parasite Opsonins -- THE CHALLENGES AND OPPORTUNITIES FOR BOOSTING MOSQUITO IMMUNITY IN THE FIELD -- References -- 5 - Molecular Mechanisms Mediating Immune Priming in Anopheles gambiae Mosquitoes -- INTRODUCTION -- ESSENTIAL COMPONENTS IN THE ESTABLISHMENT OF IMMUNE MEMORY -- Gut Bacteria and the Establishment of Immune Priming -- Hemocytes as Key Mediators in Early- and Late-phase Antiplasmodial Immunity -- MOSQUITO-PARASITE COMPATIBILITY AND THE STRENGTH OF THE PRIMING RESPONSE -- MOLECULAR FACTORS MEDIATING THE ESTABLISHMENT AND MAINTENANCE OF INNATE IMMUNE PRIMING -- Evokin, a Bioactive Lipid Carrier, Is Critical in Immune Priming -- Eicosanoids in Hemocyte Differentiation and Activation -- The Role of Immune Signaling Pathways in the Establishment of Immune Priming -- The Effect of Priming on Vectorial Capacity -- CONCLUSIONS AND FUTURE PERSPECTIVES -- TAKE-HOME MESSAGES -- Acknowledgments -- References -- 6 - The Mosquito Immune System and Its Interactions With the Microbiota: Implications for Disease Transmission -- INTRODUCTION -- THE MOSQUITO INNATE IMMUNE SYSTEM -- Overview -- Pattern Recognition and Immune Signaling -- Pathogen Killing: Lysis, Phagocytosis, and Melanization -- THE MOSQUITO MICROBIOTA -- MICROBIOTA-IMMUNE SYSTEM INTERACTIONS -- PERSPECTIVE -- Acknowledgments -- References -- 7 - Using an Endosymbiont to Control Mosquito-Transmitted Disease -- THE BIOLOGY OF WOLBACHIA PIPIENTIS -- THE USE OF WOLBACHIA IN MOSQUITO CONTROL PROGRAMS -- Population Suppression -- Population Replacement -- PRERELEASE CONSIDERATIONS -- Generating and Evaluating a Wolbachia-Infected Line -- Planning, Modeling, and Community Engagement -- FIELD DEPLOYMENT.
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SELECTING THE RIGHT WOLBACHIA STRAIN -- Effects of Wolbachia in Different Host Species -- The Wolbachia Density Trade-Off -- PATHOGEN INTERFERENCE VERSUS PATHOGEN ENHANCEMENT -- THE FUTURE -- References -- 8 - Effect of Host Blood-Derived Antibodies Targeting Critical Mosquito Neuronal Receptors and Other Proteins: Disruption of Vector Physiology and Potential for Disease Control -- KEY LEARNING POINTS -- BACKGROUND -- Vaccine Studies Against Concealed Antigens to Reduce the Survival of Ticks and Blood-Feeding Insects -- Antibody Translocation Across the Insect Midgut and Binding of Concealed Antigens -- Insights From the Activity and Targets of Invertebrate Peptide Toxins -- Insights From Autoimmune Channelopathies in Vertebrates -- CURRENT ADVANCES IN ANTIMOSQUITO ANTIBODY DEVELOPMENT -- FUTURE RESEARCH DIRECTIONS -- Understanding Basic Vector Biology by Disrupting Protein Function In Vivo -- Translational Opportunities for Disease Control and Prevention -- CONCLUSION -- References -- 9 - Role of the Microbiota During Development of the Arthropod Vector Immune System -- SPECTRUM OF VECTOR-MICROBE INTERACTIONS -- ENVIRONMENTALLY ACQUIRED COMMENSAL BACTERIA SUPPORT THEIR HOST'S DEVELOPMENT -- MICROBIOME INFLUENCES ON ARTHROPOD HOST VECTOR COMPETENCE -- MUTUALISTIC ENDOSYMBIONTS SUPPORT THEIR HOST'S DEVELOPMENT -- THE TSETSE FLY AS A MODEL SYSTEM FOR STUDYING SYMBIONT CONTRIBUTIONS TO HOST IMMUNE SYSTEM DEVELOPMENT -- Generation of Dysbiotic Tsetse -- Wigglesworthia's Role in the Development of Tsetse's Cellular Immune Response -- Wigglesworthia and the Development of Tsetse Gut Barriers That Modulate Trypanosome Infection Outcomes -- SUMMARY AND CONCLUDING THOUGHTS -- References -- 10 - Host-Microbe Interactions: A Case for Wolbachia Dialogue -- INTRODUCTION -- IMPACT OF WOLBACHIA ON MOSQUITO SMALL RNAS.
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MANIPULATION OF HOST MIRNAS AS REGULATORS OF GENES INVOLVED IN WOLBACHIA MAINTENANCE -- EFFECT OF ALTERATIONS OF HOST MIRNAS BY WOLBACHIA ON HOST-VIRUS INTERACTIONS -- SMALL RNAS AS MEDIATORS OF DIALOGUE BETWEEN HOST AND WOLBACHIA -- CONCLUSIONS -- Acknowledgments -- References -- 11 - The Gut Microbiota of Mosquitoes: Diversity and Function -- INTRODUCTION -- ACQUISITION AND COMMUNITY DIVERSITY OF THE MOSQUITO GUT MICROBIOTA -- Bacterial Diversity in the Gut Is Low -- Most Gut Bacteria Are Acquired From the Environment -- Some Gut Bacteria Can Be Acquired Directly -- The Gut as a Habitat for Microbes -- FUNCTIONS OF THE GUT MICROBIOTA IN MOSQUITOES -- Vector Competence -- Wolbachia Transmission -- Nutrient Acquisition and Digestion -- Development and Survival -- Oviposition and Egg Hatching -- CONCLUDING REMARKS -- Acknowledgments -- References -- Further Reading -- 12 - Targeting Dengue Virus Replication in Mosquitoes -- INTRODUCTION: WHY TARGET DENGUE VIRUS IN MOSQUITOES? -- MOSQUITOES NATURALLY TARGET DENGUE VIRUS REPLICATION -- STRATEGIES TO ENHANCE TARGETING OF DENGUE VIRUS REPLICATION IN MOSQUITOES -- SUMMARY AND FUTURE DIRECTIONS -- References -- 13 - Paratransgenesis Applications: Fighting Malaria With Engineered Mosquito Symbiotic Bacteria -- INTRODUCTION -- GENETIC MANIPULATION OF MOSQUITO VECTORIAL COMPETENCE -- ANOPHELES GUT MICROBIOTA -- IMPACT OF MICROBIOTA ON ANOPHELES PHYSIOLOGY AND PATHOGEN TRANSMISSION -- FIGHTING MALARIA TRANSMISSION WITH PARATRANSGENESIS -- Basic Requirements for Paratransgenesis -- Effector Molecules -- Fighting Malaria With Engineered Symbionts -- CONCLUSION AND REMARKS -- Acknowledgments -- References -- 14 - Insulin-Like Peptides Regulate Plasmodium falciparum Infection in Anopheles stephensi -- INTRODUCTION -- THE BIOLOGY OF THE INSULIN-LIKE PEPTIDES -- Structure and Function of Insulin-Like Peptides.
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Insulin-Like Peptides, Infection, and Immunity.
Additional Edition:
ISBN 0-12-805350-X
Language:
English
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