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ویرایش: نویسندگان: Stephen T. Abedon, Benjamin H. Burrowes, Malcolm L. McConville, David R. Harper سری: ISBN (شابک) : 9783319419855, 9783319419879 ناشر: Springer سال نشر: 2018 تعداد صفحات: [1200] زبان: English فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود) حجم فایل: 26 Mb
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در صورت تبدیل فایل کتاب Bacteriophages: Biology, Technology, Therapy به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.
توجه داشته باشید کتاب باکتریوفاژها: زیست شناسی، فناوری، درمان نسخه زبان اصلی می باشد و کتاب ترجمه شده به فارسی نمی باشد. وبسایت اینترنشنال لایبرری ارائه دهنده کتاب های زبان اصلی می باشد و هیچ گونه کتاب ترجمه شده یا نوشته شده به فارسی را ارائه نمی دهد.
این اولین کار مرجع اصلی که به کاربردهای صنعتی و پزشکی چندگانه باکتریوفاژها اختصاص یافته است، بینش نظری و عملی را در زمینه نوظهور بیوتکنولوژی باکتریوفاژ ارائه می دهد. این کتاب به معرفی زیست شناسی، اکولوژی و تاریخ باکتریوفاژ می پردازد و آخرین فناوری ها و ابزارها در تشخیص باکتریوفاژ، بهینه سازی سویه و نانوتکنولوژی را مرور می کند. استفاده از باکتریوفاژها در ایمنی مواد غذایی، کشاورزی و مناطق مختلف درمانی به تفصیل مورد بحث قرار گرفته است. این کتاب به عنوان راهنمای ضروری برای محققان میکروبیولوژی کاربردی، بیوتکنولوژی و پزشکی از دانشگاه و صنعت است.
This first major reference work dedicated to the mannifold industrial and medical applications of bacteriophages provides both theoretical and practical insights into the emerging field of bacteriophage biotechnology. The book introduces to bacteriophage biology, ecology and history and reviews the latest technologies and tools in bacteriophage detection, strain optimization and nanotechnology. Usage of bacteriophages in food safety, agriculture, and different therapeutic areas is discussed in detail. This book serves as essential guide for researchers in applied microbiology, biotechnology and medicine coming from both academia and industry.
Preface Contents About the Editors Contributors Part I: Introduction to Bacteriophages: Biology, Technology, Therapy Introduction to Bacteriophages Bacteriophages On the Nature of Bacteriophages Antibiotics: From Savior to Crisis Antibiotics: A Biological Approach References Part II: Bacteriophage Biology Structure and Function of Bacteriophages Introduction Overview of Phage Families The Leviviridae Family of Single-Stranded RNA Phages Assembly Structure The Microviridae Family of Single-Stranded DNA Phages Assembly Structure The Inoviridae Family of Filamentous, Single-Stranded DNA Phages Assembly Structure The Cystoviridae Family of Double-Stranded RNA Phages Assembly Structure Overview of Bacteriophages Containing Double-Stranded DNA Genomes The Tectiviridae Family Assembly Structure The Corticoviridae Family Assembly Structure Overview of Order Caudovirales Caudovirales Head Assembly Caudovirales Head Structure Podoviridae Tail Assembly and Structure Siphoviridae Tail Assembly Siphoviridae Tail Structure Myoviridae Tail Assembly Myoviridae Tail Structure Conclusions and Perspectives Cross-References References Adsorption: Phage Acquisition of Bacteria Introduction Free Virions to Virocells Movement of Free Phages Virion Diffusion Non-diffusive Movement Encounter Attachment Overview Adsorption Factors and Reversible Attachment Irreversible Attachment Adsorption Kinetics Importance of Phage Titers Adsorption Rate Constants How Fast Adsorption Is Fast Enough? Adsorption Rate Constant Determination Genome Translocation Conclusion Cross-References References Temperate Phages, Prophages, and Lysogeny Introduction Lysogeny and Lysogenic Cycles Stably Associating with Host Bacteria Benefiting the Lysogen Lysis-Lysogeny Decisions Induction Immunity Lysogenic Conversion and Morons Bacteriophage Lambda The Lysogeny Decision Lambda and Lambdoid Genomes Prophages P2 and P2-Likes P2 Virion and Genome P2 Lysogeny Temperate Phages of Staphylococci and Streptococci Staphylococcal Phages Morphological Families and Classification Streptococcal Phages Morphological Families and Classification Role of Prophages in Modulation of Bacterial Host Biology and Evolution Toxins and Virulence Factors Encoded by Prophages Staphylococcus aureus Clostridium botulinum Vibrio cholerae Corynebacterium diphtheriae Streptococcus pyogenes Conclusions References Bacteriophage-Mediated Horizontal Gene Transfer: Transduction Introduction Overview of Transduction Historical Perspectives on Horizontal Gene Transfer in Bacteria The Discovery of Transformation The Discovery of Conjugation The Discovery of Transduction Examples of Transducing Phages Bacteriophage P1 Bacteriophage P22 Lambda (λ) Mu Phage Features Important for Transduction Host DNA Degradation DNA Packaging Method Mobile Genetic Elements Within Phage Genomes Integration Site Specificity Examples of Transduction Hijackers Gene Transfer Agents Phage-Inducible Chromosomal Islands Methods to Detect and Characterize Transducing Particles Phenotypic Changes of the Bacterial Host Phenotypic Changes of the Transducing Particle Genotypic Changes of the Bacterial Host Genotypic Changes of the Transducing Particle Potential Risks to Human Health Posed by Transduction Transduction and the Spread of Antibiotic Resistance Genes Transduction and the Implications to Phage Therapy Conclusions Cross-References References Genetics and Genomics of Bacteriophages Introduction The Nature of Bacteriophage Genomes: Evolution and Mosaicism Main Structural Features Structural Components of Tailed Bacteriophages Structural Components of PFP Bacteriophages Bacteriophage T4 Hallmark Genes and Variability Hallmark Genes and Bacteriophage Evolution Comparative Genomics Bacterial Comparative Genomics: The Impact of Bacteriophages Comparative Genomics of Bacteriophages: Phylogeny and Evolution Comparative Genomics and Bacteriophage Taxonomy Comparative Metagenomics Functional Genomics Functional Genomics and Genetic Characterization Site-Directed Mutagenesis (SDM) and Gene Knockouts Transcriptomics Host Response to Bacteriophage Infection Discussion and Future Perspectives References Bacteriophage Discovery and Genomics Introduction Phage Discovery and Genomics as a Platform for Science Education The Phage Hunters Integrating Research and Education (PHIRE) Program The Mycobacterial Genetics Course The Science Education Alliance Phage Hunters Advancing Genomics and Evolutionary Science (SEA-PHAGES) Program A View of Bacteriophage Genetic Diversity Concluding Remarks Cross-References References Bacteria-Phage Antagonistic Coevolution and the Implications for Phage Therapy The Coevolutionary Process and the Red Queen´s Race Experimental Studies of Bacteria-Bacteriophage Antagonistic Coevolution Mechanisms of Bacterial Resistance to Lytic Bacteriophage and Phage Counter-Resistance Effects of Resistance and Counter-Resistance on Fitness and Phenotype (Co)Evolutionary Considerations of Phage Therapy Cross-References References Bacteriophage Ecology Introduction Phage Presence in Nature Viable Phage Counts Phage Total Counts Nucleic Acid Sequence-Based Determinations Linking Phages to Bacteria via Metagenomics Biogeography Phage Prevalence Within Environments Phage Movement Phage Distributions Within Environments Phage Population Ecology Phage Life Cycles as Ecological Phenomena Virion Durability Virion Attachment Affinity Evasion of Host Defenses Phage Latent Periods Phage Burst Size Phage Community Ecology Predators, Parasites, or Parasitoids? Killing the Winner Phage Exploitation of Biofilm-Associated Bacteria Phage Ecosystem Ecology Summary Cross-References References Bacteriophage Pharmacology and Immunology Introduction Safety Considerations in Phage Choice for Phage Therapy Avoiding Temperate Phages Avoiding Phages Encoding Virulence Factors Avoiding Transducing Phages Summary: Safety Considerations Phage Therapy Pharmacology Basics Pharmacokinetics and Pharmacodynamics Pharmacokinetics in More Detail Conceptualizing Pharmacology Passive Treatment Versus Active Treatment Passive Phage Therapy Active Penetration Active Phage Therapy Summarizing Phage Therapy Pharmacological Phenomena Phage Interactions with Immune Systems Overview of Immunity Adaptive Immunity Innate Immunity Effects of Immune Response on Phage Pharmacokinetics Relation of Immune Response to Phage Pharmacodynamics Conclusion Cross-References References Phage Infection and Lysis Introduction Productive, Reductive, and Destructive Phage Infections Phage-Productive Infections Phage-Reductive Infections Phage-Destructive Infections Phage Growth Parameters Latent Periods Burst Sizes Utility for Phage Therapy Strictly Lytic Phages for Phage Therapy Infection The Eclipse Phage Gene Expression Phage Genomes and Replication The Latent Period Continues. . . . . .And Continues? The Rise Host Physiology Considerations Virion Release Holin-Mediated Lysis from Within Lysis-Mediating Phage Proteins Antiholins Inhibition of Peptidoglycan Production Chronic Release Determination of Phage Growth Parameter Values Virion Durability Determination Eclipse, Latent Period, Burst Size, and Rise Phage Population Growth Rates Continuous Culture Plaques Conclusion Cross-References References Part III: History of Bacteriophages The Discovery of Bacteriophages and the Historical Context Discovery in Science: No Eureka Moment Microbes Before Twort and d´Herelle Viruses Filters ``Fact Making´´: Bacterial Lysis and ``Lytic Principles´´ Cultures, Cells, Microbial Mutations Twort and d´Herelle: The Canonical Account The Canonical History of Bacteriophage Becoming Phage: 1920-1940 Phage Discovery Completed Discovery and Priority Revisited Cross-References References Early Therapeutic and Prophylactic Uses of Bacteriophages Introduction: A Brief History Phage Therapy for Wound Treatment, Surgery, and Dermatology Phage Therapy for Treatment of Enteric Infections Prophylactic Use of Phages Intravenous Staphylococcal Bacteriophage: The Highest Achievement of the Georgian Scientists Conclusions References Part IV: Bacteriophage Technology Isolation of Bacteriophages Glossary Introduction Basic Phage Isolation Techniques Biases in Isolation Spot Testing Increasing Phage Concentrations Generation of Pure Isolates and Phage Stocks Storing Isolated Phages Where to Hunt for Phages Isolation from the Environment Common Sources for Isolation of Therapeutic Phages Isolation from Lysogens Isolation from Diverse Environments Resulting Phage Phenotypes Altered Procedures and Their Effect on Host Range Plaque Morphology Indicates Diverse Phage Characteristics Phage Isolation for Biotechnology Implications for the Use of Phages as Antimicrobials High-Throughput (HTP) Phage Isolation Conclusions Cross-References References Bacteriophage Use in Molecular Biology and Biotechnology Early Contributions to Molecular Biology Early Studies of Phage Chemical Composition and Physical Structure Spontaneous Mutation and Heredity Phage Growth and Plaque Formation Phage Typing Phage Amplification and MALDI-TOF MS for Bacterial Identification The Discovery of Lysogeny and Prophages The First Unequivocal Demonstration of Lysogeny The Discovery of Phage λ and the Beginning of Prophage Genome Mapping The Discovery of Phage P1 Used in Bacterial Transduction The Discovery of Site-Specific Recombination and Its Applications The Campbell Model of Phage Integration The Determination of Attachment Sites on Host and Phage DNA Molecules The Development of Site-Specific Integrating Plasmids Discovery of the Cre/LoxP System in Phage P1 Applications of the Cre/Lox System in Genetically Engineered Mice Discovery of Bacterial DNA Restriction and Modification Systems Discovery of the Restriction/Modification Phenomenon Discovery of the Role of Methylation in Restriction/Modification The First Identification of a Specific Restriction Site in Bacterial DNA The Development of Molecular Cloning The Development of Restriction Mapping The Discovery of Viral Metabolic Products The Discovery of Thymineless Death and Its Implications for Chemotherapy Research The Role of Phages in Understanding Gene Structure, Expression, and Regulation Luria and Delbruck´s ``Fluctuation Test´´ Shows That Spontaneous Mutations Occur in Bacterial Genes Hershey and Chase Demonstrate That DNA Is the Hereditary Material Benzer Maps the Fine Structure of Genes in the Phage T4 rII Region The Discovery that Messenger RNA Is a Direct Product of Genes The Determination of the Genetic Code The First Observation of Gene Regulation Due to a Repressor Factor (The PaJaMo Experiment) The First Isolation and Characterization of a Repressor Factor Involved in Gene Regulation Isolation of the ρ Termination Factor and Characterization of Termination/Antitermination in λ The Construction of a Synthetic Genetic Regulatory Circuit that Exhibits Complex Behavior Refactoring Phages to Learn About Complex Genetic Regulatory Circuits at the Organismal Level Conclusion Systems Biology Evolution Ecology Cross-References References Detection of Bacteriophages: Phage Plaques Introduction Plaques Initiating Plaques Bacterial Lawns, Plaques, and Spots Plaque-Forming Units Too Many or Too Few Plaques Plaques Versus Spots Plaque Formation Phage Clumped Dispersion Bacterial Clumped Dispersion Plaque Size Plaque-Based Phage Characterization Efficiency of Plating Efficiency of Center of Infection Mixed-Indicator Technique Conclusions References Detection of Bacteriophages: Statistical Aspects of Plaque Assay Introduction Overview TFTC and TNTC Spot Counts Versus Plate Counts Number of Repeats Utility of Trimmed Means Number of Dilution Series Utility of Larger Volumes When Comparisons Matter Conclusions Cross-References References Detection of Bacteriophages: Electron Microscopy and Visualization Introduction Electron Microscopy Initial Electron Microscopy of Phages Staining Metal Shadowing Negative Staining Thin-Sectioning, Room-Temperature and Cryogenic Frozen-Hydrated Specimens, Unstained and Negatively Stained Scanning Electron and Helium-Ion Microscopy Scanning Transmission Electron Microscopy, Dark-Field In Situ, Liquid-Cell Electron Microscopy Analytical Electron Microscopy Two-Dimensional Image Averaging and Diffraction Three Dimensions from Two Immuno-EM Conclusion References Detection of Bacteriophages: Sequence-Based Systems Introduction Overview of Sequencing Methods Short-Read Platforms Long-Read Platforms A Note on Sequence Data and Sharing Applications of Sequencing-Based Detection Methods Gene-Based Detection of Bacteriophages Cyanophages T4-Like Phages T7-Like Phages Gokushoviruses Other Potential Signature Genes Genome Sequencing Sequence-Based Identification of Prophages Metagenomics-Based Detection of Bacteriophages Conclusions Cross-References References Novel Approaches for Detection of Bacteriophage Mass Spectrometry Raman Spectroscopy Summary Cross-References References Bacteriophages in Nanotechnology: History and Future Introduction Bacteriophage Capsids Phage Virions and Phage Proteins in Biosensors Attachment of Whole, Non-modified Virions Attachment of Phage Proteins Signal Transduction Methods Phage Display Phages in Nanostructured Materials Applications Using Whole Phages Applications Using Phage Display-Generated Peptides or Proteins Whole Phage in Structured Materials Phage Catalysts Phages as Drug Delivery Carriers Phage-Containing Antibacterial Materials Challenges to Commercialization Conclusion Glossary References The Selection and Optimization of Phage Hosts Introduction Phage Propagation Surrogate Hosts Prophages Reducing Host Toxicity Endotoxin Conclusion References Bacteriophage Manufacturing: From Early Twentieth-Century Processes to Current GMP What Is GMP, and When Is It Needed? Definition of GMP History of GMP Guidelines, Need, Definition, and Place of Bacteriophage Evolution of GMP: Current Guidelines and Discrepancies Between Regions History of Phage Production. How It Was Handled Until Now Applying GMP to Bacteriophages General Considerations Cell Culture Media AOF, No Animal, or Human-Origin Material Biological Material Choice Phage Banking Cell Banking Manufacturing Why Prefer Single Use to Stainless Steel? Upstream Process: Phage Production Downstream Process: Phage Purification Formulation, Fill, and Finish Control Quality Cell Substrate Quality Control Bacteriophage QC Phage Host Range Host Cell Protein Endotoxins and Pyrogens Transmission Electron Microscopy Genome Sequence RFLP (Restriction Fragment Length Polymorphism) RAPD (Random Amplified Polymorphic DNA) Phage DS Infectious Titer Stability Studies Future of the Regulation for Phage-Based Drug Products Perspectives of Phage Manufacturing Impact of GMO Phage Manufacturing Perspective About Phage Quality Control Conclusion Cross-References Glossary References Intellectual Property Issues for Bacteriophages Patents and Patenting What Is a Patent? Why Apply for a Patent? Patentability and Freedom-to-Operate Assessments What Is Needed to Apply for a Patent? Novelty, Inventive Step, and the Undue Burden Unity of the Invention Elements of a Typical Patent Application From Filing to Grant After Award Timing and Patent Terms First to File Versus First to Invent Safe Harbors and Extinct Submarines Future Developments Patenting of Bacteriophages Patenting Natural (Unmodified) Bacteriophages Patenting Genetically Modified Bacteriophages Patenting Novel Processes or Technologies Bacteriophage Patents Accessing Bacteriophage Patents Online Glossary References Bacteriophage as Biocontrol Agents Introduction Biological Control Bacteriophages in Nontherapeutic Biological Control Efficacy of Biological Control The Damage Threshold: A Biocontrol Concept IPM The Kinetics of Biological Control Implications for Clinical Trials Nature of the Agent Summary Cross-References Glossary References Part V: Agriculture, Food, and Environmental Use of Bacteriophages Bacteriophages as Bio-sanitizers in Food Production and Healthcare Settings Introduction Phages as Bio-sanitizers on Food Contact Surfaces Phages as Bio-sanitizers for Listeria monocytogenes Phages as Bio-sanitizers for Other Foodborne Pathogens Escherichia Coli O157:H7 Salmonella spp. Phages as Bio-sanitizers in Hospital Settings Phage Components as Bio-sanitizers or Sanitizing Adjuncts Phage Application Approaches Conclusion and Future Directions References Biofilm Applications of Bacteriophages Applications of Bacteriophages to Biofilms and Surface-Attached Bacteria Introduction Biofilms in Food Industrial Settings Prevalence of Biofilms Biofilm Formation on Surfaces Impact of Biofilms in Different Food Industry Settings Dairy Industry Poultry Industry Red Meat Industry Seafood Industry Fresh Fruit and Vegetable Industry Currently Used Removal Strategies Bacteriophage Application to Biofilms and Other Surface-Attached Bacteria Formed in the Food Industry Application of Bacteriophages to Equipment Surfaces and to Working Surfaces and to Enhance Equipment Performance Application of Bacteriophages to Foods Fresh-Cut Fruits and Vegetables Red and Poultry Meats Dairy Products Single Bacteriophage Versus Cocktail Approach and Other Approaches Challenges that Bacteriophages Face in Industrial Environments Bacteriophages and Biofilms in the Clinical Setting Background Bacteriophage-Biofilm Interactions Applications Conclusion Cross-References References Industrial Processes Involving Bacteriophages Introduction Highly Complex Bacterial Culture-Driven Bioprocesses Bioprocesses Driven by Well Defined, Mixed Cultures Monocultures in Industrial Biotechnology: Pharmaceutical Catalysts, Bacterial Biomass, and Green Chemistry Pharmaceutical Bioprocesses Phage Growth in Bioprocesses Prophages in Bioprocesses Bacteriophage Contamination Troubleshooting and Prevention Bacteriophages as Antibacterials in Bioprocesses Conclusions Cross-References References Crop Use of Bacteriophages Management of Plant Bacterial Diseases Use of Bacteriophages in Agriculture Factors that Challenge Use of Phages Bacteriophages and the Bacterial Carrier System Phage as Infectious Bacteriostatic Particles Application Challenges in Agriculture Historical Perspective on the Phage Delivery System Avoidance of Host Resistance and Other Considerations Field Application of Carrier-Phage Cross-References References Food Safety Introduction Food and Microorganisms Limiting Food Contamination Food Legislation Enhances Safety Trends Towards Industrialized Convenience Foods Bacteriophages and Food Safety Bacteriophages for the Biological Control of Gram-Negative Bacteria Treatment of Poultry by Campylobacteriophage Control of Salmonella enterica Using Bacteriophage Bacteriophage for the Control of Escherichia coli Phages Infecting Yersinia enterocolitica Cronobacter sakazakii Pseudomonas aeruginosa Legionella pneumophila Vibrio parahaemolyticus Control of Gram-Positive Bacteria by Bacteriophage Treatment Listeriophages Are Well Suited for Biocontrol Bacteriophages for the Control of Staphylococcus aureus Control of Bacillus cereus in Food Future Perspectives Conclusion Glossary References Bacteriophage Utilization in Animal Hygiene Introduction Brief History of Phage Use in Animal Hygiene Live Animal Pathogen Reduction Treatments Phages as a Strategy to Improve Hygiene in Live Animals Challenges to Phage Treatment of Live Animals Poultry Specific Issues and Phage Usage Poultry Health Swine Specific Issues and Phage Usage Swine Health Ruminant Specific Issues and Phage Usage Hide-Specific Spray Treatments for Cattle Cattle Health Conclusions and the Future Cross-References References Part VI: Therapeutic Use of Bacteriophages Current Updates from the Long-Standing Phage Research Centers in Georgia, Poland, and Russia Introduction Current Status of Georgian Research History Spin-Off Entities International Collaboration Targeting Antibiotic-Resistant Bacteria Treatment of Cystic Fibrosis-Associated Infections Treatment of Urinary Tract Infections Targeting Infected Wounds Conclusions: Georgian Phage Therapy Current Status of Polish Research The Hirszfeld Institute Progress of the Phage Therapy Unit 2012-2017 Immunological Responses to Phages The Hirszfeld Institute´s Phage Collection Plasmid-Prophage-Free Hosts for Optimal Therapeutic Phage Preparations Our Published Output Conclusions: Polish Phage Therapy Acknowledgments: Polish Phage Therapy Current Status of Russian Research Background Russian Phage Therapy Research and Implementation Conclusions: Russian Phage Therapy References The Use of Bacteriophages in Veterinary Therapy Introduction History of Bacteriophages in Veterinary Use Systemic Escherichia coli Infections Systemic Salmonella Infections Intestinal E. coli Infections Intestinal Salmonella Infections Intestinal Campylobacter Infections Other Systemic Infections Other Infections Use in the Food Production Chain Applications, Potential, and Problems Regulatory Approval Cross-References References Enzybiotics: Endolysins and Bacteriocins Endolysins, the Model Enzybiotic Lysis from Without Endolysin Structure Bacteriolytic Mechanism Antimicrobial Development of Endolysins Specificity and Resistance Toxicity Immunogenicity Synergy Endolysin Applications Medicine Food Safety Agriculture Endolysin Engineering Approaches Chimeragenesis Directed Evolution Structure-Guided Site-Directed Mutagenesis Gram-Negative Engineering Approaches Targeting Intracellular Pathogens Regulatory Aspects of Endolysins Other Phage-Based Enzybiotics Particulate Bacteriocins Applications in Crop Health Applications in Medicine Engineering Particulate Bacteriocins Concluding Remarks Cross-References References Phage Display Technology and the Development of Phage-Based Vaccines Phage Display Technology Introduction Combinatorial Chemistry and Display Phage Technology Combinatorial Chemistry Phage Display Technology Display Phage Affinity Selection Amplification Bias Subtractive Panning Biopanning Apparatus Characterization of Selected Ligands Phage Capture Assay Western Blot Analysis Inhibition ELISA DNA Sequence Analysis Conclusion Phage as Delivery Vehicles Introduction Preparation of Modified Phages Modification of Coat Proteins Modification and Addition of Nonstructural Genes Synthetic Phages Applications of Modified Phages Phages as Vaccine Delivery Vehicles Phage-Mediated Protein Vaccines Phage DNA Vaccines Phages as Gene Therapy Vectors Conclusion Development of Monoclonal Antibody Mimics Introduction Small Peptide Mimics of mAbs Mimotopes Selection of mAb Mimics (Anti-epitopic Peptides) Peptide-Based Cytotoxicity Conclusion References Phage Therapy Collaboration and Compassionate Use Introduction Regulation of Compassionate Phage Therapy General Process of Compassionate Phage Therapy Establishing Medical Need and Complying with Regulations Identifying Sources of Phages Phage Susceptibility Testing Preparing Phages for the Patient Administering Phages to the Patient Coordinating Compassionate Phage Therapy Costs of Compassionate Phage Therapy Recent Examples of Compassionate Phage Therapy Diabetic Toe Ulcers (US/Georgia Collaboration) Disseminated Acinetobacter Infection (US Collaboration) Posttransplant Burkholderia Infection (US/Canada Collaboration) Other US Cases Polymicrobial Bone Infection (Israel/US Collaboration) Engineered Phage Therapy (UK/US Collaboration) Global Crowdsourcing of Klebsiella Phages (Finland/US/Israel/UK/Switzerland Collaboration) New Systems Created to Facilitate Compassionate Phage Therapy Phage Therapy at the Queen Astrid Military Hospital Phage Directory Center for Innovative Phage Applications and Therapeutics (IPATH) Vitalis Phage Therapy Summary and Concluding Remarks Cross-References References Clinical Trials of Bacteriophage Therapeutics Introduction From Antibiotics to Phage From East to West Modern Phage Trials to Date P. areuginosa Chronic Otitis Externa Chronic Venous Leg Ulcers Immunoresponse in HIV Patients E. coli Pediatric Diarrhea: The Bangladesh Trials Burn Wound Infections S. aureus Diabetic Toe Ulcers S. aureus Chronic Rhinosinusitis Case Reports Phage Therapy Unit, Wroclaw, Poland PhagoBioDerm The Eliava Institute and Medical Tourism Hurdles to the Development of Phage Therapy in the Western World Regulatory Framework Finances Resistance Biological Considerations Recommendations Conclusion Cross-References References Selection of Disease Targets for Phage Therapy Introduction Current Position Issues in the Selection of the Target Disease Bacterial Nature of the Underlying Disease Unmet Need Limited Range of Bacterial Targets Bacteria Causing the Disease Are Identified Bacteria Targeted Are Responsible for the Observed Pathology Availability of Model Systems for Preclinical Work Practicality of Clinical Trials Accessibility of the Bacterial Target The Effect of Bacterial Numbers Issues in the Selection of Bacteriophages Availability of Bacteriophages Suitability of Bacteriophages for Therapeutic Use Lysogeny Transduction and Toxin Carriage Host Range Other Issues with Bacteriophage Mixtures Storage and Stability Commercial Considerations Suitability of Product Considerations on the Nature of Bacteriophages Summary Glossary References Regulatory Considerations for Bacteriophage Therapy Products: USA Background Regulatory Oversight of Biological Products Chemistry, Manufacturing, and Controls for Bacteriophage Products Expanded Access to Investigational Drugs for Treatment Use Defined Bacteriophage Products Versus Bacteriophage Banks Conclusions References Regulatory Aspects of the Therapeutic Use of Bacteriophages: Europe Background Regulatory Oversight and Development Guidance Regulatory Framework Development Guidance Quality Parameters Non-clinical and Clinical Development Phage Therapy Modalities and Ongoing Research Activities Access Issues Conclusion References Index