National Institute for Public Health and the Environment ViTAL WP5 Data analysis Progress report Centre for Infectious Disease Control Laboratory for Zoonoses.

Slides:



Advertisements
Similar presentations
3.2 Environmental transmission of pathogens Where do the pathogens come from? How do pathogens in excreta contaminate the environment? Learning objective:
Advertisements

Societal Cost of Foodborne Illness Buzby, et al USDA Economic Research Service, 1996 © Infocus Learning Systems
Foodbook: Canadian Food Exposure Study to Strengthen Outbreak Response
The research leading to these results has received funding from the European Community's Seventh Framework Programme (FP7/ ) under grant agreement.
Putting Principles into Practice: Useful Case Studies th Street, N.W., Suite 750, Washington, DC, 20005, USA
EUREPGAP The European Principles of Food Safety. Increasing awareness of food safety in consumers greater variety of foods available for the consumer.
National Institute for Public Health and the Environment Persistence and Inactivation of Norovirus in Fresh Produce Chains Katharina Verhaelen.
Jeanette A. Thurston-Enriquez
Foodborne Norovirus Outbreaks
Foodborne Outbreak Investigation, Hanoi, Vietnam 01 – 05 June 2009 Foodborne Diseases Integrating efforts from feed to food Dr Danilo Lo Fo Wong.
Food Safety Risk Assessment - PubH of 40 Overview of 3 published risk assessments Don Schaffner, Ph.D. Rutgers, The State University of NJ.
Silvia Alonso, DVM MSc PhD Dipl ECVPH Post-doctoral scientist, Food safety and zoonoses team, ILRI MoreMilkiT Project Review and Planning Tanga, Tanzania.
Public health risks represented by certain composite products containing food of animal origin Pietro Stella - Unit on Biological Hazards SCoFCAH – 19.
INTRODUCTION Outbreaks of food-borne disease have increasingly been linked to the consumption of vegetables. Consumers’ demands for fresh and minimally.
1 Thailand Researches in Microbiological Risk Assessment : Past & Present Suphachai Nuanualsuwa n DVM, MPVM, PhD.
DIARRHEA MODULE FOR TEACHERS.
Balancing Microbial and Chemical Risks Waterborne cholera, diarrhea, and other diseases – Both developing and industrial countries Water disinfection vs.
Apple Cider Food Safety Workshop FDA’s Good Agricultural Practices Dr. Michelle A. Smith July 15, 1999.
Who’s Minding the Store - The Current State of Food Safety and How It Can Be Improved Devon Zagory, Ph.D. Senior Vice President Food Safety & Quality Programs.
DEVELOPMENT OF THE TOOLS FOR PCR-DETECTION OF HEPATITIS A AND C VIRUSES IN INTRAHOSPITAL VIRAL CONTAMINATION RESEARCH. 1 D. I. Ivanovsky Virology Institute,
Good Agricultural Practices (GAP) for Fresh Fruit and Vegetable Growers New England Extension Food Safety Partnership Project funded by USDA CSREES – Project.
Framework for a microbiological risk assessment to assess virus safety of blood products for feed Dr Lourens Heres.
Risk-based (planning of) official controls & the MANCP outcome of the pilot-WG (November 2011) 1.
FDA Tree Nut Risk Assessment and Human Salmonellosis
What happens in the body after the microbes that produce illness are swallowed? After they are swallowed, there is a delay, called the incubation period,
ENVR 191 Food Safety and Foodborne Disease Lecture 1 December 3, 1999 Mark D. Sobsey.
Presentation 4.8 Safety assurance of Physalis (Cape gooseberry) for export purposes.
Food Safety is for Everyone Module One Written and developed by: Lorraine Harley, Assistant Professor University of Maryland Extension Calvert/Charles/St.
“The HACCP Approach to Analyzing and Managing Food Safety” January 10, 2008.
Managing Contamination Through Chain to Improve Public Health Outcomes Birds, Bacteria & Baselines.
S URVIVAL AND ELIMINATION OF ADENOVIRUSES P ULAWY, A PRIL 2010.
Norovirus San Diego County Department of Environmental Health.
United States Department of Agriculture Food Safety and Inspection Service FSIS Foodborne Illness Investigations: Current Thinking Scott A. Seys, MPH Chief,
Evaluating FAO Work in Emergencies Protecting Household Food Security and Livelihoods.
Food Safety is for Everyone Module One Written and developed by: Lorraine Harley, Family and Consumer Sciences Educator University of Maryland Extension.
1 Janice Attrill, Specialist Adviser, Animal Products MPI Update for NZFMA – Nov 2013 Salmonella.
FOOD AND AGRICULTURE ORGANIZATION OF THE UNITED NATIONS Statistics Related to Food Safety and Quality Food and Nutrition Division. FAO.
Integrated monitoring and control of foodborne viruses in European food supply chains VITAL Wim H. M. van der Poel.
1 The Protocol on Water and Health: making a difference The Protocol on Water and Health: where health, environment, and development policies meet Prof.
Module 3 Risk Analysis and its Components. Risk Analysis ● WTO SPS agreement puts emphasis on sound science ● Risk analysis = integrated mechanism to.
1 Point of Sale (WP 4): progress of the work Artur Rzeżutka National Veterinary Research Institute Pulawy, Poland.
Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains.
The efficacy of preservation methods to reduce the level of viruses is subdivided into methods: 1. To hinder microbial growth during storage 2. To inactivate.
Modeling for Quantitative Microbial Risk Assessment
3.2 Environmental transmission of pathogens Where do the pathogens come from? How do pathogens in excreta contaminate the environment? Learning objective:
1 Janice Attrill, Specialist Adviser, Animal Products Update for NZFMA - March 2013.
Pathogen Reduction Dialogue Panel 2 HACCP Impacts on Contamination Levels in Meat and Poultry Products: FSIS Perspective Delila R. Parham, DVM Office of.
Rosa S. Rolle, Ph.D Senior Agro-Industries and Post-harvest Officer
USDA, ARS Workshop Poultry Food Assess Risk Model (Poultry FARM)
Lettuce, EHEC and Irrigation Water: Apply FDA-iRISK for Rapid Risk Assessment Yuhuan Chen, Sherri Dennis, Karin Hoelzer, and Régis Pouillot Food and Drug.
Overview of Post-Harvest Food Safety in ARS
CSREES and Food Safety Research Mary E. Torrence DVM, Ph.D., DACVPM, FACE National Program Leader for Food Safety.
Using risk assessment to evaluate risk-based microbiological criteria Introduction Microbiological criteria (MCs) are increasingly used as an instrument.
Figure 1 P176: A Quantitative Risk Assessment Model for Salmonella and Whole Chickens at Retail Thomas P. Oscar, Agricultural Research Service, USDA, 1124.
FOOD SAFETY. FOODBORNE ILLNESS Target: I will be able to identify the steps necessary to take for food safety. Pg. 71 Foodborne Illness: Illness caused.
For more information: Tel Fax
Environmental Risk Analysis Chapter 6 © 2004 Thomson Learning/South-Western.
Quantitative Microbial Risk Assessment: Main concepts & application in Environmental Health and sanitation Dr Nguyen-Viet Hung Center for Public Health.
Training on Quantitative Health Risk Assessment (QHRA) QHRA : The Context, Concept and Development M. Feroze Ahmed Professor of Civil/Environmental Engineering.
User Resources for the: One Health Harmful Algal Bloom System (OHHABS) and National Outbreak Reporting System (NORS) Updated: 06/15/2016.
FDA Commissioner’s Fellow
7 Institutional Food Services.
Infectious Agent : Pathogens
3.2 Environmental transmission of pathogens
E. Coli & Fresh Produce: Some Lessons Learned
Food Safety and Food Borne Illnesses
Giardia.
Food Safety Interventions
Survival of hepatitis A and E viruses in soil samples
EU Food Safety Requirements: - Hygiene of Foodstuffs -
Presentation transcript:

National Institute for Public Health and the Environment ViTAL WP5 Data analysis Progress report Centre for Infectious Disease Control Laboratory for Zoonoses and Environmental Microbiology Ana Maria de Roda Husman, Martijn Bouwknegt, Saskia Rutjes, Katharina Verhaelen and Froukje Lodder

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis Human and Animal viruses Human sources of pathogenic viruses -HAdV -NoV, HEV, HAV > Feed back into QVRA Animal sources of pathogenic viruses -PAdV, BPyV > To trace sources of contamination and to target interventions

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis Virus contamination and reduction in food production chain ProcessingPrimary production Retail hAdV pAdV bPyV HAV NoV HEV Indicator virus Pathogenic virus

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis GANTT diagram (excl. possible extension) T5.1 Data Gathering Workshop T5.2 Analysis of gathered data T5.3 Modular Process Risk Model (MPRM) development T5.4 Prioritization of risk assessment criteria T5.5 Assessment of foodborne virus risks along the developed MPRM T5.6 Quantitative Viral Risk Assessment on intervention measures

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis T5.1 and T5.2 Workshop and Analysis of gathered data Type of data -Virus concentrations in sources of contamination, during processing and at point-of-sale -Consumption of shellfish, fresh produce, soft fruits and pork meat products -Dose-respons relationships for HAV, HEV, NoV Quality of data Quantification of viruses Tool to collect data Data analysis tool

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis T5.3 Development of Modular Process Risk Models (MPRM) Steps Definition of the statement of purpose, the (microbial) hazard and the food product Description of the food pathway Building the MPRM model structure by splitting up the food pathway into the modules Collection of the available data and expert opinions according to the model structure developed Selection of the model to be used for each module Plug the available data into the model Exposure assessment

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis T5.4 Prioritization of risk assessment criteria Virus concentration in contamination source Methodology of virus detection -Volume tested -Recovery -Detection limit Natural inactivation pre-harvest -Sunlight -Temperature etc. Treatment post-harvest -Disinfection -High pressure -Radiation Consumption Dose-response

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis Deliverables (excl. possible extension)

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis D5.1 Guidance document on data collection and analysis Different food chains Different phases 1.Identification of sampling points 2.Sample sizes 3.Virus detection by (RT-)PCR Changed to Individual Guidance documents Subject to further discussion by Martijn

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis D5.2 Tool for data analysis

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis D5.3 Document on available models Literature review prepared in the first year On Vital website

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis D5.4 Risk assessment model Models needed for selected production chains -Soft fruits -Salad vegetables -Pork meat -Shellfish Target viruses -NoV -HAV -HEV

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis D5.4 Possible RA model outcome Boxplot of the probability of NoV infection based on oyster monitoring data and household outbreak data (Rodriguez manuscript in preparation) Distribution of norovirus PDU concentration per oyster in outbreak case Risk of NoV infection and risk of illness per number of oysters consumed for screening data f ( D; α, β) = 1 – 1F1(α, α + β; −D)

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis Manure Irrigation water Washing Harvesters’ hands Freezing Fresh soft fruits Surface / Ground waters Natural Inactivation Latrines Production ProcessingPoint-of-Sale Chlorination Soft fruit products Door handles Packaging MODULE Frozen soft fruits D5.5 Modular Process Risk Model

Integrated Monitoring and Control of Foodborne Viruses in European Food Supply Chains National Institute for Public Health and the Environment WP5 Data Analysis End of project deliverables D5.6 Comparison of assessed risks Data needed from data gathering labs Data collection sheet D5.7 Data gap analysis Produced from D5.3 and D5.6 D5.8 Intervention strategies and their efficiency In conjunction with T6.2 and in addition to D5.6