Last Friday Brand Castle, LLC announced a recall of 25 oz and 32 oz glass jars of its Brand Castle and Sisters’ Gourmet cookie and brownie mix due to concern over E. coli contamination. The voluntary recall is in cooperation with the recall being conducted by ADM Milling, as the company is a supplier of flour to Brand Castle. There is a full list of the affected products, along with product photos, in a company announcement on FDA’s website.
Another customer of ADM Milling Co., King Arthur Flour, Inc., is voluntarily recalling its five-pound bags of unbleached all-purpose flour due to potential contamination with E. coli O26. The recall affects 14,218 cases of product with six specific lot codes and “best used by” dates of 12/07/19, 12/08/19 and 12/14/19. According to a King Arthur Flour company announcement, ADM Milling notified them that certain wheat used to make the above-mentioned product lots has been linked to an ongoing E.coli outbreak. King Arthur Flour states that this recall does not affect its products sold through the company’s website, Baker’s Catalogue or its Baker’s Store in Norwich, VT.
Just a couple of weeks ago, ADM Milling expanded its flour recall to include all five-pound bags of Bakers Corner All Purpose Flour, which is packaged by ALDI.
Consumers are advised to discard the product or return them to the place of purchase for a credit or refund.
To cap off a tumultuous year for foodborne illnesses, the end of 2018 saw a rather large E. coli outbreak that affected several different types of lettuce. In all, about 62 people got sick in the United States, with another 29 affected in Canada. The outbreak was traced back to a farm in California thanks to a specific DNA fingerprint in the E. coli. It started in a water reservoir and spread to the nearby crops.
Unfortunately, the event was only one of two separate incidents involving romaine lettuce last year. Another E.coli outbreak was traced back to a source in Arizona. Are these outbreaks more common than we realize? The CDC estimates that 48 million Americans fall ill each year from foodborne pathogens. Of those who get sick, 128,000 have to be hospitalized, and about 3,000 perish.
It’s clear that the industry as a whole needs to buckle down and find more effective solutions, not just for preventing outbreaks but also for mitigating damage when they happen. A new level of safety and management can be achieved with the help of many new, innovative technologies.
The following are some of the technology tools shaping the future of food safety and quality management fields.
As a result of the E. coli outbreak, Walmart implemented blockchain technology to track leafy greens and boost supply chain transparency. The systems and infrastructure is anticipated to be in place by the end of 2019.
Blockchain is a secure, digital ledger. It holds information about various transactions and data, all of which are carried out on the network. It’s called a blockchain because each data set within the network is a chunk or “block,” and they’re all linked to one another—hence the chain portion of the name. What this allows for is complete transparency throughout the supply chain, because you can track goods from their origin all the way to distribution and sale.
Each block is essentially a chunk of information, and when it’s entered into the chain, it cannot be altered, modified or manipulated. It’s simply there for viewing publicly. You cannot alter information contained within a single block without modifying the entire chain—which operates much like a peer-to-peer network and is split across many devices and servers.
This unique form of security establishes trust, accuracy and a clear representation of what’s happening. It allows a company to track contaminated foods along their journey, stopping them before they contaminate other goods or reach customers.
Thanks to the rising popularity of ready-to-eat meals, the industry is under pressure to adopt preservation and pasteurization methods. Particularly, they must be able to sanitize foods and package them with minimal exposure and bacteria levels. This practice allows them to stay fresh for longer and protects customers from potential foodborne illness.
Infrared heating is a method of surface pasteurization, and has been used for meats such as ham. Infrared lamps radiate heat at low temperatures, effectively killing surface bacteria and contaminants. The idea is to decontaminate or sanitize the surface of foods before final packaging occurs.
Industrial IoT and Smart Sensors
The food and beverage industry has a rather unique challenge with regard to supply chain operations. Food may be clean and correctly handled at the source with no traces of contamination, but it’s then passed on to a third party, which changes the game. Maybe a refrigerated transport breaks down, and the food within is thawed out. Perhaps a distributor doesn’t appropriately store perishable goods, resulting in serious contamination.
This transportation stage can be more effectively tracked and optimized with the help of modern IoT and smart, connected sensors. RFID tags, for instance, can be embedded in the packaging of foods to track their movements and various stats. Additional sensors can monitor storage temps, travel times, unexpected exposure, package tears and more.
More importantly, they’re often connected to a central data processing system where AI and machine learning platforms or human laborers can identify problematic changes. This setup allows supply chain participants to take action sooner in order to remedy potential problems or even pull contaminated goods out of the supply.
They can also help cut down on fraud or falsified records, which is a growing problem in the industry. Imagine an event where an employee says that a package was handled properly via forms or reporting tools, yet it was exposed to damaging elements. The implications of even simple fraud can be significant. Technology that automatically and consistently reports information—over manual entry—can help eliminate this possibility altogether.
NGS refers to a high-throughput DNA sequencing process that is now available to the food industry as a whole. It’s cheaper, more effective and takes a lot less time to complete, which means DNA and RNA sequencing is more accessible to food companies and suppliers now than it ever has been.
NGS can be used to assess and sequence hundreds of different samples at a time at rates of up to 25 million reads per experiment. What that means is that monitoring teams can accurately identify foodborne pathogens and contamination at the speed of the modern market. It is also a highly capable form of food safety measurement and is quickly replacing older, molecular-based methods like PCR.
Ultimately, NGS will lead to vastly improved testing and measurement processes, which can identify potential issues faster and in higher quantities than traditional methods. The food industry will be all the better and safer for it.
The Market Is Ever Evolving
While these technologies are certainly making a splash—and will shape the future of the food safety industry—they do not exist in a vacuum. There are dozens of other technologies and solutions being explored. It is important to understand that many new technologies could rise to the surface even within the next year.
The good news is that it’s all meant to improve the industry, particularly when it comes to the freshness, quality and health of the goods that consumers eat.
The food industry is beginning to transition into an era of big data and analytics unlike anything the industry has ever experienced. However, while the evolution of big data brings excitement and the buzz of new possibilities, it also comes coupled with an element of confusion due to the lack of tools for interpretation and lack of practical applications of the newly available information.
As we step into this new era and begin to embrace these changes, we need to invest time to educate ourselves on the possibilities before us, then make informed and action-oriented decisions on how to best use big data to move food safety and quality into the next generation.
Stephanie Pollard will be presenting “The Power of Advanced NGS Technology in Routine Pathogen Testing” at the 2018 Food Safety Consortium | November 13–15One of the big questions for big data and analytics in the food safety industry is the exact origins of this new data. Next Generation Sequencing (NGS) is one new and disruptive technology that will contribute significantly to a data explosion in our industry.
NGS-based platforms offer the ability to see what was previously impossible with PCR and other technologies. These technologies generate millions of sequences simultaneously, enabling greater resolution into the microbial ecology of food and environmental surfaces.
This represents a seismic shift in the food safety world. It changes the age-old food microbiology question from: “Is this specific microbe in my sample?” to “what is the microbial makeup of my sample?”
Traditionally, microbiologists have relied on culture-based technologies to measure the microbial composition of foods and inform risk management decisions. While these techniques have been well studied and are standard practices in food safety and quality measures, they only address a small piece of a much bigger microbial puzzle. NGS-based systems allow more complete visibility into this puzzle, enabling more informed risk management decisions.
With these advances, one practical application of NGS in existing food safety management systems is in routine pathogen testing. Routine pathogen testing is a form of risk assessment that typically gives a binary presence/absence result for a target pathogen.
NGS-based platforms can enhance this output by generating more than the standard binary result through a tunable resolution approach. NGS-based platforms can be designed to be as broad, or as specific, as desired to best fit the needs of the end user.
Imagine using an NGS-based platform for your routine pathogen testing needs, but instead of limiting the information you gather to yes/no answers for a target pathogen, you also obtain additional pertinent information, including: Serotype and/or strain identification, resident/transient designation, predictive shelf-life analysis, microbiome analysis, or predictive risk assessment.
By integrating an NGS-based platform into routine pathogen testing, one can begin to build a microbial database of the production facility, which can be used to distinguish resident pathogens and/or spoilage microbes from transient ones. This information can be used to monitor and improve existing or new sanitation practices as well as provide valuable information on ingredient quality and safety.
This data can also feed directly into supplier quality assurance programs and enable more informed decisions regarding building partnerships with suppliers who offer superior products.
Similarly, by analyzing the microbiome of a food matrix, food producers can identify the presence of food spoilage microbes to inform more accurate shelf-life predictions as well as evaluate the efficacy of interventions designed to reduce those microbes from proliferating in your product (e.g. modified packaging strategies, storage conditions, or processing parameters).
Envision a technology that enables all of the aforementioned possibilities while requiring minimal disruption to integrate into existing food safety management systems. NGS-based platforms offer answers to traditional pathogen testing needs for presence/absence information, all the while providing a vast amount of additional information. Envision a future in which we step outside of our age-old approach of assessing the safety of the food that we eat via testing for the presence of a specific pathogen. Envision a future in which we raise our standards for safety and focus on finding whatever is there, without having to know in advance what to look for.
Every year we learn of new advancements that challenge the previously limited view on the different pathogens that survive and proliferate on certain food products and have been overlooked (e.g., Listeria in melons). Advanced NGS technologies allow us to break free of those associations and focus more on truly assessing the safety and quality of our products by providing a deeper understanding of the molecular makeup of our food.
On June 1, Food Safety Tech is hosting a web seminar (also penned a “virtual conference”) about food hazards in the realm of pathogens and allergens. “Food Hazards: Detection, Mitigation & Control” begins at 11 am ET, kicking off with a presentation from Mickey Parish, Ph.D., senior science advisor at CFSAN, about the agency’s policy on Listeria monocytogenes. The following is a preview of what you’ll learn during the complimentary event (that’s right, it’s free for all attendees).
Critical Elements for a Successful Pathogen Environmental Monitoring Program
Nearly every segment of the food and pet food industries are either working on implementing pathogen environmental monitoring programs (PEMPs), or are working to optimize programs already in existence. Programs are increasing in complexity with many now covering multiple environmental pathogens, hygienic facility zones and sampling zones. Regulators and customers are stepping up requirements for aggressive, science-based PEMPs. The seven most critical elements for a successful PEMP will be discussed. These elements include: management commitment, determining the need for and stringency of the program, risk evaluation, sampling plan, sampling methods, data management and corrective actions.
Allergen Detection & Control
While global market demand for free-from food products is increasing, undeclared and mislabelled allergens, sulphites and gluten, throughout the supply chain, continue to be the number one cause of consumer product recalls.
To meet the varied regulatory landscape and protect consumers, effective preventative management systems must be implemented, verified and validated. What are the challenges, risks and opportunities for manufacturers and retailers to protect their brands? This informative session will provide insights into:
Government regulations and how management systems can align with the Food Safety Modernization Act (FSMA) and the Safe Food for Canadians Act
Successful interventions and protocols to reduce the risk of gluten and allergen related recalls
Differences between Management System/ Process and Product Third-Party Certifications
Pathogen Mitigation: Sanitary Design in Facilities and Sanitation Methods
This presentation will go into detail regarding pathogen mitigation strategies for food processing facilities. The relationship between hygienic design and sanitation as they factor into pathogen mitigation will also be discussed. The presentation will then examine various sanitation methods and how they can be applied within the food industry to help eliminate and control pathogens.
Each educational session will be followed by a technology spotlight and an interactive Q&A between attendees and speakers. Don’t miss out on this event—Register here!
Clear Labs has been especially vocal about the potential of NGS, as the company has built itself on an NGS platform with capabilities that include GMO testing, pathogen detection and ingredient authenticity. The company just announced a pilot program for its NGS platform that aims to bring the technology into the realm of routine food safety testing. Mahni Ghorashi, co-founder of Clear Labs, recently discussed the program with Food Safety Tech.
Food Safety Tech: Is the platform entering the pilot the same as the technology we talked about in the Q&A,“New Whole Genome Sequencing Test Monitors Threat of Pathogens” a couple of years back?. If so, have there been developments since? If this is a different platform, how long has it been in development and what is the novelty and advantages?
Mahni Ghorashi: That’s a good question, and I understand why this could be a little confusing, especially for someone who has followed the development of Clear Labs over the years. (Thank you!).
The current platform being piloted is based on the same fundamental technology we’ve always had, but we have built it out considerably and adapted it for routine food safety testing.
At its core, our platform is based on industry-leading NGS technology paired with IP-protected bioinformatics. It’s always been backed by the world’s largest reference database for genomic food markers and food sample metadata.
Over the last year and a half, we’ve built capabilities into the core platform that allow our system to be deployed at high testing volumes for food safety testing, at scale.
We’ve built in robotics and automation to make this system truly “end-to-end” and to speed the process from start to finish.
We’ve reduced the cost by another order of magnitude, with faster turnaround time and greater accuracy than competing market products.
In short, the latest version of the platform is the first automated system that takes advantage of advanced DNA sequencing, bioinformatics, and robotics.
This pilot represents a new era for Clear Labs and the food safety industry at large. While our tests have always been higher-resolution and higher-accuracy than PCR, we now believe we can compete with the turnaround times and cost of PCR.
FST: What is the duration of the pilot study? What is the goal of the pilot?
Ghorashi: The goal of the pilot study is to demonstrate that NGS is ready to be adopted as the new standard for routine food safety testing. We believe that our pilot study will also help the industry to fully appreciate how NGS technologies will modernize food safety programs, without changing the way food safety is conducted today.
The pilots last for two weeks. Because our platform is for high-volume, routine safety testing, it doesn’t take long to have tested a statistically significant number of samples. We’re able to quickly provide our customers with a report comparing our results to that of their legacy, PCR-based tests.
FST: What feedback have you received about the platform thus far? What is its potential?
Ghorashi: The feedback we’ve gotten has been overwhelmingly positive. We can’t talk specifics until the pilot is complete, but I can tell you in broad terms that our early pilot customers have been overwhelmingly enthusiastic.
The potential is enormous. This NGS platform—the first of its kind—is going to usher in a new era of food safety testing.
Traditional techniques have high rates false negatives and false positives. In 2015, a study from the American Proficiency Institute on about 18,000 testing results from 1999 to 2013 for Salmonella found false negative rates between 2% and 10% and false positive rates between 2% and 6%. Several Food Service Labs claim false positive rates of 5% to 50%.
False positives can create a resource-intensive burden on food companies. Reducing false negatives is important for public health as well as isolating and decontaminating the species within a facility.
The costs savings, but even more important the peace of mind that comes from a near fail-proof system is invaluable to the leading food brand and service labs we’ve been working with.
FST: What are the clearest areas of impact for NGS in food safety?
Ghorashi: The impact of NGS is going to be felt broadly because it will replace existing PCR systems for high-throughput safety testing. Across the food industry, wherever there are PCR systems, we will soon see NGS-based system that will be more comprehensive, accurate, and cost-effective.
And unlike some PCR techniques that can only detect up to five targets on one sample at a time, the targets for NGS platforms are nearly unlimited, with up to 25 million reads per sample, with 200 or more samples processed at the same time. This results in a major difference in the amount of information yielded.
FST: Do you have any additional comments on the pilot program or NGS in general?
Ghorashi: While I can’t talk about specific customers, I should note that our pilot program is already deployed across half of the U.S.’s third-party service labs as well as major food production companies engaged in high-volume, routine safety testing.
The majority of the food safety industry is well aware of how transformative NGS systems can be for both their food safety programs and their bottom line. This pilot will go a long ways toward demonstrating that NGS technology has arrived for primetime in the food safety industry.
We’re still accepting applications for the pilot, and we’re excited to help brands recognize the value of and move forward with this vital progression in testing. After the pilot phase, we’ll be rolling out the full platform at IAFP in July of this year.
Rose Acre Farms has voluntarily recalled eggs from its farm in Hyde County, North Carolina following an investigation by FDA, CDC and other agencies involving Salmonella illnesses. FDA testing determined that eggs produced from this farm are connected to 22 cases of Salmonella Braenderup infections; the CDC is confirming illness information with state health departments.
The exact amount of eggs recalled totals 206,749,248.
The eggs are sold under several brand names, including Coburn Farms, Country Daybreak, Food Lion, Glenview, Great Value, Nelms, and Sunshine Farms, as well as restaurants.
FDA is advising restaurants and retailers that they should not sell or use any recalled shell eggs. In addition, they should take measures to avoid cross-contamination of the food processing environment and equipment by washing and sanitizing display cases and refrigerators regularly, washing and sanitizing cutting boards, surfaces and utensils, and washing hands with hot water and soap after any cleaning or sanitation process. Consumers are advised not to eat the recalled eggs.
Stephen Ostroff, M.D. deputy commissioner for foods and veterinary medicine, sounds excited about the promise of blockchain. He also continues to enthusiastically wave the flag for whole genome sequencing (WGS) in solving foodborne illness cases. At the recent GMA Science Forum, Ostroff shared his usual update on incidents involving pathogens, agency progress in inspections and FSMA, and what the future holds.
The 2018 Food Safety Supply Chain conference features a Blockchain panel discussion | June 12–13 | Learn morePathogens
“There’s been essentially zero change in incidents of pathogens, and in some [cases there have been] increases—despite the fact that we’ve been doing quite a bit to improve the profile of food safety in the United States,” said Ostroff. This isn’t the first time that Ostroff pointed to the fact that foodborne illness is resistant to change, but he still emphasized the disappointment that industry is “way off” from the Healthy People 2020 target rate for pathogens established by the government. “None of these are close to where we thought we would be,” he said, referring to the government’s established target rates for Campylobacter, E.coli O157, Listeria, Salmonella, Vibrio and Yersinia.
Ostroff has previously pointed to improved diagnostics and surveillance systems as being partially responsible for a lack of improvement in the number of foodborne illness cases (due to higher detection rates), but during this particular presentation he brought attention to culture independent diagnostic tests (CIDTs)—which he said are having a “major impact on data collected in FoodNet.” CIDT is relatively new and is more rapid than the culture method, but it doesn’t allow for subtyping or antimicrobial resistance testing.
According to Ostroff, CIDTs have major implications for folks who work in food safety. The overall incidence of infection with foodborne pathogens is not decreasing, and the use of CIDTs makes assessment of trends difficult. CIDTs appear to be finding infections previously undiagnosed or unrecognized. In addition, they could affect the agency’s ability to monitor FSMA impact measures.
The agency continues to look at inspection data from both the perspective of the number of inspections and their outcomes. During FY 2017, there were 1253 domestic and 146 foreign inspections. For FY 2018, there have already been 1610 domestic inspections to date.
In January, FDA issued new enforcement discretion for certain provisions in four FSMA rules. This included resolving issues related to the “farm” definition, requirements for food contact substances under FSVP, and certain written assurances in place for the Preventive Controls (human and animal) rule until FDA comes up with a practical solution to issues raised by stakeholders, Ostroff said.
Oversight of Food Imports
FDA continues to take a risk-based approach to FSVP and overseas inspections. Part of these efforts includes the agency’s systems recognition program where it looks at other mature food safety systems around the world to recognize countries that have programs similar to the United States. Thus far FDA has recognized Australia, Canada and New Zealand food safety systems; It is currently in the process of evaluating European Union members.
Intentional Adulteration Rule
The International Adulteration rule continues to be a hot topic of discussion, especially as it relates to associated costs. FDA is actively working on putting out a draft guidance that will discuss how to conduct vulnerability assessments, along with its interpretation of the rule, according to Ostroff. Part one of the draft should be out “in the very near future”, he said. He added that the agency is trying to be flexible with the rule and although food defense is an important component of food safety, companies should never do anything in the context of food defense that could pose a food safety risk.
Whole Genome Sequencing
WGS provides more precise identification at a genetic level and helps expedite recognition and response time for nearly all current foodborne illness and outbreak investigations. “It’s the new normal—it’s here and it’s here big time,” said Ostroff, adding that the GenomeTrakr network has more than 167,000 isolates sequences in the database and is becoming more and more powerful. “It’s amazing what this tool can do,” he said, citing two recent cases involving strains of Salmonella in papayas and kratom.
“I think blockchain can be really transformational in the world of food safety,” said Ostroff, calling it “traceability on steroids without question”. He thinks the technology could also be useful in addressing food fraud and economically motivated adulteration, and provide more consumer transparency. Right now the FDA is looking very closely at blockchain in context of traceability and FSMA.
3M Food Safety has launched the 3M Molecular Detection Assay 2 – Campylobacter with 3M Campylobacter Enrichment Broth. Poultry producers now have a complete solution for simultaneous monitoring of poultry for both Salmonella and Campylobacter. It can perform up to 96 tests of multiple types in a 60-minute run.
The Enrichment Broth requires just five steps and eliminates the need for microaerophilic incubation, supplements, blood, organic solvents or autoclaving the broth, only requiring the addition of sterile water.
Shiga toxin-producing E. coli in dry flour, and then romaine lettuce. E. coli O104 in fenugreek sprout seeds. Recent announcements of foodborne illness outbreaks have begun involving unusual combinations of bacteria and foods. These out-of-the-ordinary outbreaks and recalls are a small but growing part of the 600 million documented food poisonings that occur worldwide every year according to the World Health Organization. Preventing outbreaks from these new combinations of pathogen and food demand a range of accurate tests that can quickly identify these bacteria. Over the past several years, outbreaks from unusual sources included:
E. coli O121 (STEC) in flour: Last summer, at least 29 cases of a E. coli O121 infection were announced in six Canadian provinces. The source arose from uncooked flour, a rare source of such infections because typically flour is baked into final products. Eight people were hospitalized, and public health officials have now included raw, uncooked flour as well as raw batter and dough as a source of this type of infection.
E. coli O104:H4 in fenugreek sprouts: One of Europe’s biggest recent outbreaks (affecting more than 4,000 people in Germany in 2011, and killing more than 50 worldwide) was originally thought to be caused by a hemorrhagic (EHEC) E. coli strain that from cucumbers, but was but was later found to be from an enteroaggregative E. coli (EAEC) strain in imported fenugreek seeds—the strain had acquired the genes to produce Shiga toxins.
Mycoplasma in New Zealand dairy cows: While not unusual in cattle, the incident reported in August marks the pathogen’s first appearance in cows in New Zealand, a country known for strict standards on agricultural hygiene. The microorganism is not harmful to people, but can drastically impact livestock herds.
Listeria monocytogenes in food sources: Listeria monocytogenes causes fewer but more serious incidence of food poisoning due to a higher death rate compared to Salmonella and Campylobacter. Whereas Listeria has been historically associated with dairy and ready to eat cooked meat products, recent outbreaks have been associated with fruit, and the FDA, CDC and USDA are conducting a joint investigation of outbreaks in frozen as well as in fresh produce.
Listeria in cantaloupe: In 2011, one of the worst foodborne illnesses recorded in the United States killed 20 and sickened 147, from Listeria monocytogenes that was found in contaminated cantaloupes from a farm in Colorado. The outbreak bloomed when normal background levels of the bacteria grew to deadly concentrations in multiple locations, from transport trucks to a produce washer that was instead designed for potatoes.
The outbreaks underscore the fundamental need to have a robust food safety program. Bacteria can colonize many different locations and the opportunity is created by a change in processing methods and/or consumer use or misuse of products. So robust risk assessment and preventative QA procedures need to be frequently reviewed and supported by appropriate surveillance methods.
Food safety and public health agencies like the European Food Safety Authority (EFSA) or the CDC have employed a wide range of detection and identification tests, ranging from pulse field gel electrophoresis (PFGE), traditional cell culture, enzyme immunoassay, and the polymerase chain reaction (PCR). In the case of Germany’s fenugreek-based E. coli outbreak, the CDC and EFSA used all these techniques to verify the source of the contamination.
These tests have certain advantages and disadvantages. Cell culture can be very accurate, but it depends on good technique and usually takes a long time to present results. PFGE provides an accurate DNA fingerprint of a target bacteria, but cannot identify all strains of certain microorganisms. Enzyme immunoassays are precise, but can produce false-positive results in certain circumstances and require microbiological laboratory expertise. PCR is very quick and accurate, but doesn’t preserve an isolate for physicians to test further for pathogenic properties.
Identification of the pathogens behind foodborne contamination is crucial for determining treatment of victims of the outbreak, and helps public health officials decide what tools are necessary to pinpoint the outbreak’s cause and prevent a recurrence. Rapid methods such as the polymerase chain reaction (PCR), which can quickly and accurately amplify DNA from a pathogen and make specific detection easier, are powerful tools in our efforts to maintain a safe food supply.
Recently, scientists and a third-party laboratory showed that real-time PCR assays for STEC and E. coli O157:H7 could detect E. coli O121, O26 and O157:H7 in 25-g samples of flour at levels satisfying AOAC method validation requirements. The results of the study demonstrated that real-time PCR could accurately detect stx, eae and the appropriate E. coli serotype (O121, O26 or O157:H7) with no statistical difference from the FDA’s Bacteriological Analytical Manual (BAM) cell culture method.
Agencies like the World Health Organization and CDC have repeatedly stated that historical records of food poisoning represent a very small percentage of true incidents occurring every year worldwide. Many of today’s most common food pathogens, like Listeria monocytogenes, E. coli O157:H7 or Campylobacterjejuni, were unknown 30 years ago. It’s not clear yet if unusual sources of contamination arise from increasing vigilance and food safety testing, or from an increasingly interdependent, globally complex food supply. No matter the reason, food producers, processors, manufacturers, distributors and retailers need to keep their guard up, using the optimum combination of tools to protect the public and fend off food pathogens.
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