Genetic and phylogenetic analysis of Vibrio parahaemolyticus reveals distinct differences in strains from the Pacific Northwest of the U.S.

Similar documents
Bacterial Emerging Risks to Seafood Safety WORKSHOP "SEAFOOD AND EMERGING FOOD SAFETY ISSUES"

Marine vibrio s summary of food safety concerns regarding trade of bivalve molluscs from USA to EU

Vibrio parahaemolyticus in the United States,

Vibrio parahaemolyticus

Vibrio outbreak and surveillance: Maryland's collaborative approach

LECTURE OUTLINE. The genus Vibrio Vibrio cholerae Epidemiology of cholera Pathogenesis. Vaccine development Ecology of V. cholerae

BIOTECHNOLOGY Vol. IX - Molecular Tools for Improving Seafood Safety - Karunasagar, Iddya MOLECULAR TOOLS FOR IMPROVING SEAFOOD SAFETY

Population Structure of Clinical and Environmental Vibrio parahaemolyticus from the Pacific Northwest Coast of the United States

10/9/2017 4:49:36 PM. I. Purpose

Eelgrass Wasting Disease: an Overview

Evaluation of Low Temperature Depuration for Reducing Vibrio parahaemolyticus in Oysters

CLIMATE CHANGE, HARMFUL ALGAL BLOOMS AND HEALTH RISKS IN ONE HEALTH CONTEXT

Epidemiology of Vibrio Infection in Texas,

Vibrio Infections in Louisiana: Twenty-Five Years of Surveillance

Phenotypic and genotypic characterization of Canadian clinical isolates of. Vibrio parahaemolyticus to 2009

Vibrio bacteria. What are they? Politics of Vibrios Vibrio Management Plans What can we do?

Massachusetts 2014 Vibrio parahaemolyticus Presentation

Vibrio surveillance in the CIDT Era

Incidence and Abundance of Pathogenic Vibrio Species in the Great Bay Estuary, New Hampshire

Updates on PulseNet International Activities

Sushanta K. Bhowmik, Gururaja P. Pazhani, and Thandavarayan Ramamurthy. Correspondence should be addressed to Thandavarayan Ramamurthy;

a) SSR with core motif > 2 and repeats number >3. b) MNR with repeats number>5.

New genomic typing method MLST

Genotype Is Correlated with but Does Not Predict Virulence of Vibrio vulnificus Biotype 1 in Subcutaneously Inoculated, Iron Dextran-Treated Mice

Determination of Molecular Phylogenetics of Vibrio parahaemolyticus Strains by Multilocus Sequence Typing

Environmental Investigations of Vibrio parahaemolyticus in Oysters after Outbreaks in Washington, Texas, and New York (1997 and 1998)

Vibrio cholerae Serogroup O1

General Characteristics of Vibrio, Aeromonas and Plesiomonas

AN ABSTRACT OF THE THESIS OF

Outbreak of Vibrio parahaemolyticus Gastroenteritis Associated with Alaskan Oysters

Effect on Human Cells of Environmental Vibrio parahaemolyticus Strains Carrying Type III Secretion System 2

Acidification on Some Harvested Species in the Salish Sea

Isolation, identification and molecular characterization of Vibrio parahaemolyticus from fish samples in Kolkata

Vibrio parahaemolyticus is a marine bacterium which is also

Frequently Asked Questions about Vibrio in Florida 1

Bacteria Affect Seafood Quality and Safety (part 3)

The 12 Most Unwanted Bacteria

東南アジア 中部太平洋海域と港湾における Vibrio parahaemolyticus の分布

Comparative genomics of E. coli and Shigella:

Distribution Ecology attempts to explain the restricted and generally patchy distribution of species

WGS Works! Shared Mission Different Roles APPLICATIONS SEQUENCING (WGS) Non-regulatory. Regulatory CDC. FDA and USDA. Peter Gerner-Smidt, MD ScD

Dinophysis acuminata in Delaware s Inland Bays and coastal waters

Is Whole Genome Sequencing Really Replacing Traditional Microbiology?

Environmental Health Insights. Visual Analytics of Surveillance Data on Foodborne Vibriosis, United States,

New York State Health Department's experience with implementing Whole Genome Cluster Analysis for Salmonella outbreak investigations


Infectious Salmon Anemia

Waterborne Pathogens from Non-Human Sources and their Public Health Implications

Genetic Characterization of Vibrio vulnificus Strains from Tilapia Aquaculture in Bangladesh

Characteristics and Pathogenicity for Eel Anguilla japonica of Vibrio vulnificus Isolated from Oyster, Sediment and Seawater of Korea Coast

Diversity of Ostreid Herpesvirus and its Impact on Oyster Farming. Kimberly S. Reece

Nonculturable State of Vibrio vulnificus

U.S. Food & Drug Administration Center for Food Safety & Applied Nutrition Foodborne Pathogenic Microorganisms and Natural Toxins Handbook

Epidemiology of Seafood-Associated Infections in the United States

MODELING THE EFFECTS OF FREEZING RATES, STORAGE TEMPERATURES AND TIMES ON INACTIVATION OF Vibrio vulnificus

Disease Detectives - Division C

SAFETY AND EFFICACY RESULTS AFTER VACCINATION WITH ALPHA MARINE Vibject.

Assessment of Trace Metals in Tissues of Geoduck Clams from Eastern Puget Sound

Water-related diseases

Climate, Infectious Disease and Human Health in an Era of Climate Change

Monitoring and controlling viral contamination of shellfish

Master's Theses and Graduate Research

Principles of Disease and Epidemiology

JAMA. 2000;284: In 1975, following several foodborne disease outbreaks, including typhoid fever, that were caused by contaminated

NEW JERSEY SHELLFISHERIES COUNCIL

Tenacibaculosis of farmed fish in Southern Europe

Evaluation of Vibrio control

SELECTED OBSERVATIONS OF CORALS AND SPONGES

Progress Report. Mississippi Center for Food Safety and Post-Harvest Technology

Risk of transmission of Vibrio parahaemolyticus in foods

The University of Arizona 4/17/2008

Epidemiology of Vector-Borne Diseases Laura C. Harrington, PhD

Virulence Gene- and Pandemic Group-Specific Marker Profiling of Clinical Vibrio parahaemolyticus Isolates

Plankton Lab 11/14 Integrated Science 1 Redwood High School Name: Period:

Campylobacter jejuni

Molecular typing insight on diversity and antimicrobial resistance of Campylobacter jejuni from Belgian chicken meat

Bacterial Mechanisms of Pathogenicity

Lessons Learned from an Outbreak: E. coli O157:H7 linked to Romaine Lettuce National Investigation and Communication Process

Cholera. By Cate Turner. Name Common Name: Cholera Etiologic agent: V ibrio cholerae (1)

STEC Whole Genome Sequencing Project

Summer Climate and Western Spruce Budworm Outbreaks in the Pacific Northwest

Ocean Acidification Workshop Ignite Slides December 3 rd, 2014

The Role of Marine Mammals in Marine Ecosystems -- part II. Lisa T. Ballance SIO 133 Marine Mammal Biology Spring 2018

Request for Report for Projects Awarded in 2013 and 2014 by. Mississippi Center for Food Safety and Post-Harvest Technology

University of Warwick institutional repository:

Prevalence of Vibrio Species Isolated from Fecal Specimens of Patients with Diarrhea in Siriraj Hospital during

The Role of Marine Mammals in Marine Ecosystems -- part II. Lisa T. Ballance SIO 133 Marine Mammal Biology Spring 2015

Indonesia s challenges and needs in improving national capabilities for disease surveillance, detection and diagnosis and public health systems:

Disease Detectives 60-Minute Health & Life Science Lesson Interactive Video Conference Grades: Disease Detectives: An Exercise In Epidemiology

Vibrio Cholerae (non-o1, non-o139)

Background - aquaculture. Vaccination of fish Present status and future challenges. Background - vaccines. salmonid fish in Norway

Vibrio Infections including Cholera rev Apr 2017

Epidemiological knowledge by genotyping Chlamydia trachomatis: an overview of recent achievements. Björn Herrmann

Testing of Great Bay Oysters for Two Protazoan Pathogens

VIRAL GASTRO-ENTERITIS

PART A. True/False. Indicate in the space whether each of the following statements are true or false.

Exploring the evolution of MRSA with Whole Genome Sequencing

A Survey of Cadmium in Pacific Oysters: Distribution, Influencing Factors and Ways to Minimize Concentrations. Aimee Christy

Vibrio aestuarianus, a pathogen of oyster Crassostrea gigas? Epidemiology study and bacterial characterization

Transcription:

Western Washington University Western CEDAR Salish Sea Ecosystem Conference 2014 Salish Sea Ecosystem Conference (Seattle) May 2nd, 8:30 AM - 10:00 AM Genetic and phylogenetic analysis of Vibrio parahaemolyticus reveals distinct differences in strains from the Pacific Northwest of the U.S. Rohinee Paranjpye United States. National Marine Fisheries Service, rohinee.paranjpye@noaa.gov Jeffery Turner United States. National Marine Fisheries Service William Nilsson United States. National Marine Fisheries Service Gladys Yanagida United States. National Marine Fisheries Service Mark Strom United States. National Marine Fisheries Service Follow this and additional works at: http://cedar.wwu.edu/ssec Part of the Terrestrial and Aquatic Ecology Commons Paranjpye, Rohinee; Turner, Jeffery; Nilsson, William; Yanagida, Gladys; and Strom, Mark, "Genetic and phylogenetic analysis of Vibrio parahaemolyticus reveals distinct differences in strains from the Pacific Northwest of the U.S." (2014). Salish Sea Ecosystem Conference. 4. http://cedar.wwu.edu/ssec/2014ssec/day3/4 This is brought to you for free and open access by the Conferences and Events at Western CEDAR. It has been accepted for inclusion in Salish Sea Ecosystem Conference by an authorized administrator of Western CEDAR. For more information, please contact westerncedar@wwu.edu.

Genetic and phylogenetic analysis of Vibrio parahaemolyticus reveals distinct differences in strains from the Pacific Northwest of the U.S. Rohinee Paranjpye, Jeffery Turner, William Nilsson, Gladys Yanagida and Mark Strom

Vibrio parahaemolyticus Gram-negative, halophilic bacteria Natural inhabitant of marine estuarine habitats Wide temperature and salinity range Accumulate in shellfish through filter-feeding C. Stehr V.p on crab shell

Vibrio parahaemolyticus Most common non-cholerae disease causing Vibrio in the U.S. PNW Accounts for over 50% of reported Vibrio infections in the U.S. Illnesses under-reported (1 in~140 cases reported) Infection by consumption of raw shellfish harboring the bacterium Severe, self-limiting gastroenteritis, some wound infections Not all strains pathogenic Pacific(PNW) 4% other 96% V.parahaemolyticus 24% V. parahaemolyticus Gulf 9% other 5% V. vulnificus Atlantic 11% other 84% V.parahaemolyticu s Strains that are tdh+/trh+ are considered potentially pathogenic 70% V. vulnificus CDC, MMWR, 2013

Emergence of a pandemic serotype O4:K12 O4:K12 O3:K6

V. parahaemolyticus (Vp) in the Pacific Northwest of the U.S. 120 Vp-related illnesses in Washington State 100 # of confirmed cases 80 60 40 20 0 Current risk models utilizing temperature and presence of total (tl+) or tdh+ Vp have not been predictive for illness in the Pacific Northwest Decreasing time after harvest to refrigeration not significantly effective at reducing illness frequency Need a better understanding of the environmental factors Better markers for predicting pathogenic strains Source WDOH

Vibrio-risk management Early warning Harvest conditions Environmental factors Preparation Pathogen presence Post harvest treatment Host factors Pathogen genetics

Development of early warning tools for prediction of Vp increase in the Pacific Northwest of the U.S. Ecological factors abiotic (T, Sal, nutrients etc) biotic (e.g. plankton) hydrodynamic models?? Pathogen variation strain differences virulence markers

Comparison of environmental variables PNW, GC, MD Shellfish growing areas in WA

Effect of environmental variables on Vp populations All locations: Temp correlated with tlh, but not tdh or trh PNW Higher Sal Lower T, chla, SPM Higher tdh, trh in sediments MD Widest T range Gulf Highest T and SPM Differences in Vv:Vp ratios Differences in correlation of Vibrio abundances and predictor variables depending on geographic location Johnson et al. 2012. AEM 78:7249.

Precise environmental variables that trigger increases in pathogenic V. parahaemolyticus still unclear Risk assessment models will likely need to take into account differences in geographic locations Johnson et al. 2012. AEM 78:7249.

Genetic diversity of V. parahaemolyticus strains from the Pacific Northwest and identification of biomarkers that can be used for detection of potentially pathogenic isolates

Genetic diversity of clinical and environmental Vp isolates Clinical and environmental isolates (150) PNW, and other geographic regions Genotyping 22 genes (e.g. hemolysins {tdh, trh},pandemic markers, T3SS, gbpa) REP-PCR-Finger print analysis Multilocus Sequence Typing (MLST) Genome sequencing and comparison-23 strains

Cluster analysis of V. parahaemolyticus isolates Genotyping Includes pandemic isolate E tdh- trh- PNW-C(tdh+ trh+) PNW-E(tdh+) + other C

Differences in pathogenic Vp strains in the PNW from the pandemic strain-rep- PCR Genotypic comparison of selected isolates with clinical isolates from WA state and world-wide Rep-PCR (Repetitive extragenic palindromic PCR) environmental clinical The majority of clinical isolates from the PNW have a similar profile that is distinct from that of the pandemic strain

Multilocus sequence typing 78 clinical and environmental isolates Typing based on DNA sequences of 7 housekeeping genes (dnaa, dtds, gyrb, pnta, pyrc, reca, tnaa) Different sequences assigned to distinct alleles-alleles at 7 loci define ST

Population structure of V. parahaemolyticus from the Pacific Northwest pandemic strain PNW clinicals ST36 PNW population semi-clonal: 2 large clades Environmental clade clonally related to the pandemic strain tdh+/trh- strains clinical strains from other geographic regions PNW clinical clade endemic strains from PNW (tdh+,trh+) At least 5 other clinical sequence types identified 3 new ST s ST417 Sequenced 23 representative strains ST65 New ST s ST43 Turner et al. 2013 PLoS ONE

Are the tdh+ trh- environmental isolates likely to be pathogenic? Comparison of virulence profiles of strains using zebrafish model of infection Virulence based on survival time *Poster: Zebrafish as a model for Vibrio parahaemolyticus virulence. Paranjpye et al. Publication: Paranjpye et al.2013. Microbiology. 129:2615.

Comparison of virulence of V. parahaemolyticus isolates* Source Genotype Survival time (h) MLST(ST) Water (WA) tdh+/trh- 22.0 ± 0 3 Plankton (WA) tdh+/trh- 22.0 ± 0 3 Clinical RIMD2210633 (pandemic) tdh+/trh- 6.15 ± 1.11 3 Strains with the same genotype or ST may vary in virulence Significant concentration of tdh+/trh- environmental isolates from the PNW may not be pathogenic *using the zebrafish model

Summary Majority of strains causing clinical infections in the PNW distinct from pandemic complex Strains with profiles similar to that of the pandemic complex present in the PNW environment Presence of tdh+ by itself is not an adequate predictor of virulence

Future directions Assess the correlation of the potentially pathogenic strains from the PNW with specific environmental factors Identify and validate the genetic and virulence markers that differentiate V. parahaemolyticus strains from the PNW and those of the pandemic strain Utilize the information to develop more refined risk assessment models early warning systems

NWFSC Acknowledgements Washington State Department of Health Eric Landis (FDA) Asta Johnson Stanley Biryukov Jessica Thompson Evan Yount Vera Trainer Brian Bill Richard Lillie Laura Weigand Cari Franz-West Rick Porso Brian Hiatt Gina Olson University of Southern Mississippi Crystal Johnson University of Southern Mississippi Jay Grimes University of Maryland Rita Colwell, Anwar Huq