Opportunistic Premise Plumbing Pathogens

This document was uploaded by one of our users. The uploader already confirmed that they had the permission to publish it. If you are author/publisher or own the copyright of this documents, please report to us by using this DMCA report form.

Simply click on the Download Book button.

Yes, Book downloads on Ebookily are 100% Free.

Sometimes the book is free on Amazon As well, so go ahead and hit "Search on Amazon"

Legionella pneumophila, Pseudomonas aeruginosa, and Mycobacterium avium are water-borne opportunistic premise plumbing pathogens (OPPPs) that cause human disease of great economic cost. The incidence and prevalence of OPPP-disease caused by these three exemplary OPPPs is increasing at alarming rates.

As the first book-length review of OPPPs, this book describes the shared characteristics of the emerging group of water-borne pathogens that are normal inhabitants of drinking water systems and premise plumbing. It discusses the selective conditions of drinking water distribution systems and premise plumbing that have led to the emergence of OPPPs. The text also reviews the results of the studies that describe microbial adaptations leading to survival, persistence, and growth in drinking water distribution systems and premise plumbing.

Author(s): Joseph O. Falkinham III
Publisher: Jenny Stanford Publishing
Year: 2023

Language: English
Pages: 239
City: Singapore

Cover
Half Title
Title Page
Copyright Page
Table of Contents
Preface
Acknowledgments
Chapter 1: Introduction to OPPPs
Chapter 2: Public Health Impact of OPPPs
Chapter 3: Characteristics of Premise Plumbing
3.1: Introduction
3.2: Premise Plumbing Surface Area
3.3: High Surface-to-Volume Ratio
3.4: Water Heater
3.5: Premise Pipe Materials
3.6: Premise Plumbing Age
3.7: Water Hardness and Nutrient
3.8: Water Usage and Variable Flow Rates
3.9: Water Residence Time
3.10: Low Disinfectant Residual
3.11: Organics and Metals Leach from Premise Plumbing
3.12: Stagnation
3.13: Dead Ends
3.14: Convective Mixing in Distal Pipes
3.15: Resident Microbiome in Premise Plumbing
Chapter 4: Established OPPPs
4.1: Legionella pneumophila
4.1.1: L. pneumophila Epidemiology and Diseases
4.1.2: Risk Factors for L. pneumophila Disease
4.1.3: L. pneumophila Sources and Ecology
4.1.3.1: Sources of L. pneumophila
4.1.4: Ecology of L. pneumophila in the Built Environment
4.1.4.1: Premise plumbing temperature
4.1.4.2: Premise plumbing chlorine
4.1.4.3: Oxygen levels in premise plumbing
4.1.5: Long-Term Survival of Legionella
4.1.6: Strain Typing L. pneumophila
4.1.6.1: Methods for strain typing
4.1.6.2: Genome evolution during L. pneumophila infection
4.1.7: Transmission of L. pneumophila
4.1.8: Controlling L. pneumophila in Premise Plumbing
4.2: Pseudomonas aeruginosa
4.2.1: Introduction
4.2.2: Epidemiology, Diseases, and Risk Factors
4.2.3: Sources and Ecology
4.2.4: Transmission
4.2.5: Physiological Ecology
4.2.6: Disinfection of Pseudomonas aeruginosa
4.2.7: Genome Variation and Population Diversity
4.2.8: Pseudomonas aeruginosa as an Indicator for OPPPs
4.2.9: Notes on the Burkholderia cepacia Complex
4.2.9.1: Introduction
4.2.9.2: Burkholderia cepacia infection and transmissibility
4.2.9.3: Burkholderia cepacia ecology
4.3: Mycobacterium avium Complex
4.3.1: Introduction
4.3.2: The MAC
4.3.3: Diseases, Epidemiology, and Risk Factors
4.3.4: Transmission Pathways
4.3.5: Habitats and Sources of the MAC
4.3.6: Physiological Ecology of the MAC
4.4: Amoebae and Protozoa
4.4.1: Introduction
4.4.2: Diseases and Risk Factors of Amoebae
4.4.3: Amoebae Ecology and Sources
4.4.4: Amoebae Transmission Pathways
4.4.4.1: Airway infection
4.4.4.2: Dermal infection
4.4.4.3: Ocular infection
4.4.5: Physiologic Ecology
4.4.6: Naegleria fowleri
4.4.6.1: Naegleria fowleri diseases and risk factors
4.4.6.2: Naegleria fowleri ecology, sources, and transmission
Chapter 5: Opportunistic Premise Plumbing Pathogens as Amoebae-Resisting Microorganisms
5.1:
Introduction to Amoebae-Resisting Bacteria
5.1.1: Phagocytic Microorganisms
5.1.2: ARB−PRB
5.2: Shared Habitats of Amoebae and OPPPs
5.2.1: Coincidence of L. pneumophila and Amoebae
5.2.2: Growth of Legionella pneumonia in Amoebae
5.3: OPPPs Isolated by Amoebal Co-Culture
5.3.1: OPPP Co-Culture
5.3.2: Resuscitation of Viable but Nonculturable (VBNC) L. pneumophila by A. castellanii
5.3.3: Residence of Mycobacterium spp. in Protozoa
5.4: Physiologic Ecology of Amoebae−OPPPs Interaction
5.4.1: Predation-Pressure and Nutrient Availability Influence PRB
5.4.2: Determinants of Phagocytosis
5.4.3: Coexistence of Amoebae and L. pneumophila
5.5: Consequences of Residence of OPPPs in Amoebae
5.5.1: Growth Stimulation of T. pyriformis by M. avium
5.5.2: Effect on OPPPs Carried by Amoebae
5.5.2.1: Increased ARM survival upon intra-amoebal residence
5.5.2.2: Increased ARM virulence upon intra-amoebal residence
5.5.2.3: Growth of L. pneumophila in amoebae
Chapter 6: Common Features and Sources of Opportunistic Premise Plumbing Pathogens
6.1: Introduction
6.2: Shared OPPP Characteristics Relevant to Survival, Persistence, and Growth in Premise Plumbing
6.2.1: Disinfectant Resistance
6.2.2: Surface Adherence and Biofilm Formation
6.2.3: Growth in Premise Plumbing at Low Organic Carbon Concentrations
6.2.4: Growth at Low-Oxygen Concentrations
6.2.5: High-Temperature Tolerance
6.2.6: Desiccation Tolerance
6.2.7: OPPP Survival and Growth in Amoebae
6.2.8: Adaptation to Novel Environmental Stress
6.3: Selection for OPPPs
6.3.1: Selection for Disinfectant Resistance
6.3.2: Selection in Estuaries
6.3.3: Selection Due to Slow Growth
6.3.4: Surface Adherence and Biofilm Formation
6.3.5: OPPPs are ARMs
6.3.6: Thermal Tolerance
6.3.7: Growth and Survival under Low Oxygen and Anaerobic Conditions
6.4: Sources of OPPPs
6.4.1: Common OPPP Sources
6.4.2: Novel OPPP Sources
6.4.2.1: Granular-activated charcoal (carbon) filters as OPPP sources
6.4.2.2: Refrigerator water and ice as OPPP sources
6.4.2.3: Dental units and water as OPPP sources
6.4.2.4: Operating room heater-coolers as OPPP sources
6.5: Transmission of OPPPs
Chapter 7: Introduction to Emerging Opportunistic Premise Plumbing Pathogens
7.1: Stenotrophomonas maltophilia
7.1.1: Diseases and Risk Factors of S. maltophilia
7.1.2: Ecology and Habitats of S. maltophilia
7.1.3: Source Tracking and Fingerprinting of S. maltophilia
7.1.4: Genetic Variability of S. maltophilia
7.1.5: Physiological Ecology of S. maltophilia
7.2: Acinetobacter baumannii
7.2.1: Introduction
7.2.2: Epidemiology and Costs of A. baumannii Infection
7.2.3: Risk Factors for A. baumannii Infection
7.2.4: Sources of A. baumannii
7.2.5: Transmission of A. baumannii
7.2.6: Physiological Ecology of A. baumannii
7.2.7: Genome Reorganization of A. baumannii
7.3: Sphingomonas paucimobilis
7.3.1: Introduction to Sphingomonas spp.
7.3.2: S. paucimobilis Infections and Risk Factors
7.3.3: Epidemiology and S. paucimobilis Infection Sources
7.3.4: Unique S. paucimobilis Features
7.3.5: Ecology of S. paucimobilis
7.4: Methylobacterium Species
7.4.1: Introduction
7.4.2: Disease and Risk Factors
7.4.3: Methylobacterium spp. Epidemiology and Infection Sources
7.4.4: Ecology of Methylobacterium spp.
7.4.5: Methylobacterium spp. as Anti-OPPP Bacteria
7.5: Segniliparus Species
7.5.1: Introduction
7.5.2: Disease and Risk Factors
7.5.3: Unique Segniliparus spp. Features
7.5.4: Ecology and Sources of Segniliparus spp.
7.6: Cupriavidus spp.
7.6.1: Introduction
7.6.2: Disease and Risk Factors
7.6.3: Epidemiology and Cupriavidus Infection Sources
7.6.4: Unique Cupriavidus Structural Features
7.6.5: Ecology of Cupriavidus spp.
Chapter 8: Factors Selecting for Opportunistic Premise Plumbing Pathogens in Premise Plumbing
8.1: Introduction
8.2: Physiochemical Factors Selecting for OPPPs in Premise Plumbing
8.2.1: Surface Adherence and Biofilm Formation
8.2.2: Disinfectant Resistance
8.2.3: Low Organic Matter Concentration
8.2.4: Stagnation and Low Oxygen
8.2.5: Amoebae Predation
8.2.6: Heat Tolerance
8.2.7: Desiccation Resistance of OPPPs
8.3: Genetic Factors Influencing OPPPs in Premise Plumbing
8.3.1: Genome Reorganization
8.3.2: Horizontal Gene Transmission
8.3.3 Survival Benefit of Genome Reorganization
Chapter 9: Detection, Isolation, and Source Tracking of OPPPs
9.1: Distinguishing between Premise Plumbing Pathogens and Contaminants
9.2: Sources of OPPPs
9.3: Selective Media for Recognized OPPPs
9.4: The Question of Cultivation versus DNA-Based Detection
9.5: The Problem of VBNC State
9.6: Detection and Isolation of Novel OPPPs
9.6.1: Selection for ARMs
9.6.2: Selection for Disinfectant-Resistant Microorganisms
9.6.3: Selection of Biofilm-Forming Microorganisms
9.6.4: Heat Resistance
9.6.5: Growth at Low Oxygen
9.6.6: Desiccation Resistance
9.7: Source Tracking
9.7.1: Sample Selection
9.7.2: Fingerprinting
Chapter 10: OPPP Notification and Challenges to Current Water Treatment Practices
10.1: Introduction
10.2: Notification
10.3: Challenges to Current Water Treatment Practices
10.3.1: OPPP Numbers Increase from a Point Source
10.3.2: What Samples to Collect for OPPP Monitoring?
10.3.3: Unknown Dose-Response Values
10.3.4: OPPP Numbers Do Not Correlate with E. coli, Fecal Coliforms, and Heterotrophic Plate Count
10.3.5: Is Pseudomonas aeruginosa a Surrogate or Indicator for OPPPs?
10.3.6: Disinfection Following E. coli Guidance Selects for OPPPs
Chapter 11: Management and Remediation of OPPPs
11.1: Introduction
11.2: HACCP Analysis of Hospital Mycobacterium chimaera Outbreaks
11.2.1: Hazard Analysis
11.2.2: Critical Control Points
11.2.3: Critical Limits
11.2.4: Monitoring Procedures
11.2.5: Corrective Actions
11.2.6: Record Keeping
11.2.7: Verification
11.3: Remediation Measures for Water Systems, Buildings, and Homes
11.3.1: Measures by Water System Operators
11.3.2: Measures by Building Owners or Managers
11.3.3: Management and Remediation in Hospitals and Healthcare Facilities
11.3.4: Management and Remediation by Homeowners
11.3.5: Speculative Remediation Measures
Case Studies
Index