Citation: Thomas Bintsis. Foodborne pathogens[J]. AIMS Microbiology, 2017, 3(3): 529-563. doi: 10.3934/microbiol.2017.3.529
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The association between the consumption of food and human diseases was recognized very early and it was Hippocrates (460 B.C.) who reported that there is a strong connection between food consumed and human illness [1]. Foodborne pathogens (e.g. viruses, bacteria, parasites) are biological agents that can cause a foodborne illness event. A foodborne disease outbreak is defined as the occurrence of two or more cases of similar illness resulting from the ingestion of a common food [2].
Foodborne illness occurs when a pathogen is ingested with food and establishes itself (and usually multiplies) in the human host, or when a toxigenic pathogens establishes itself in a food product and produces a toxin, which is then ingested by the human host. Thus, foodborne illness is generally classified into: (a) foodborne infection and (b) foodborne intoxication. In foodborne infections, since an incubation period is usually involved, the time from ingestion until symptoms occur is much longer than that of foodborne intoxications.
More than 200 different food-borne diseases have been identified [3]. The most severe cases tend to occur in the very old, in the very young, in those who have compromised immune system function, and in healthy people exposed to a very high dose of an organism [2]. The symptoms, onset of symptoms and the most common responsible microorganisms for the major foodborne illnesses are shown on Table 1.
Approximate onset time to symptoms | Predominant symptoms | Associated organism or toxin |
1–7 h, mean 2–4 h | Nausea, vomiting, retching, diarrhea, abdominal pain, prostration | Staphylococcus aureus and its enterotoxins |
8–16 h (2–4 h if emesis predominant) | Vomiting or diarrhea, depending on whether diarrheic or emetic toxin present; abdominal cramps; nausea | Bacillus cereus (emetic toxin) |
12–48 h | Nausea, vomiting, watery non-bloody diarrhea, dehydration | Norovirus |
2–36 h (mean 6–12 h) | Abdominal cramps, diarrhea, putrefactive diarrhea (Cl. perfringens), sometimes nausea and vomiting | Clostridium perfringens |
6–96 h (usually 1–3 days) | Fever, abdominal cramps, diarrhea, vomiting, headache | Salmonella spp., Shigella spp., E. coli |
6 h to 5 days | Abdominal cramps, diarrhea, vomiting, fever, malaise, nausea, headache, dehydration | Vibrio cholearae (O1 and non-O1), Vibrio parahaemolyticus |
1–10 (median 3–4) days | Diarrhea (often bloody), abdominal pain, nausea, vomiting, malaise, fever (uncommon with E. coli O157:H7) | Enterohaemorrhagic E. coli, Campylobacter spp. |
3–5 days | Fever, vomiting, watery non-inflammatory diarrhea | Rotavirus, Astrovirus, enteric Adenovirus |
3–7 days | Fever, diarrhea, abdominal pain | Yersinia enterocolitica |
1 to several weeks | Abdominal pain, diarrhea, constipation, headache, drowsiness, ulcers, variable—often asymptomatic | Entamoeda histolytica |
3–6 months | Nervousness, insomnia, hunger pains, anorexia, weight loss, abdominal pain, sometimes gastroenteritis | Taenia saginata, Taenia solium |
2 h to 6 days, usually 12–36 h | Vertigo, double or blurred vision, loss or light reflex, difficulty in swallowing, dry mouth, weakness, respiratory paralysis | Clostridium botulinum and its neurotoxins |
4–28 days | Gastroenteritis, fever, oedema around eyes, perspiration, muscular pain, chills, prostration, laboured breathing | Trichinella spiralis |
7–28 days | Malaise, headache, fever, fever, cough, nausea, vomiting, constipation, abdominal pain, chills, rose spots, bloody stools | Salmonella Tympi |
10–13 days | Fever, headache, myalgia, rash | Toxoplasma gondii |
Varying periods | Fever, chills, headache, arthalgia, prostration, malaise, swollen lymph nodes and other specific symptoms of disease in question | Listeria monocytogenes, Campylobacter jejuni |
After: [5,6]. |
In the European Union (EU) for the year 2015, 26 member states reported a total of 4,362 food-borne outbreaks, including waterborne outbreaks. Overall, these outbreaks caused 45,874 cases of illness (209 more than 2014), 3,892 hospitalisations (2,546 less than 2014) and 17 deaths (10 less than 2014) [4]. The overall reporting rate of food-borne outbreaks in the EU was 0.95 per 100,000 population, which represents a slight decrease compared with data provided for 2014 [4]. Most of the outbreaks reported in 2015 were caused by bacterial agents (33.7% of all outbreaks), in particular Salmonella spp. (21.8% of all outbreaks) and Campylobacter spp. (8.9% of all outbreaks), even though the reporting of outbreaks involving these agents has been declining over the recent years. Bacterial toxins ranked second among the causative agents in food-and waterborne outbreaks and were reported in 19.5% of the total outbreaks while viruses, which were the agents most frequently reported in 2014, accounted for 9.2% of total outbreaks in 2015 [4]. Parasites and other causative agents, in particular histamine, were reported in less than 3% of the outbreaks. Furthermore, for a third of the reported outbreaks (34%) the causative agent remained unknown [4].
The implicated food vehicles were mostly of animal origin, in particular eggs and egg products and pig meat (both accounting for 10% of all strong-evidence outbreaks), broiler meat (9%) and cheese (8%) followed by fish and fish products (7%), milk and dairy products (5%), bovine meat (4%) and crustaceans (3%) [4]. In 2015, Salmonella spp. in eggs was associated with the highest number of reported foodborne outbreaks and was among the top-5 food-pathogen combinations in terms of the overall number of cases of illness and hospitalisations in outbreaks. However, the number of reported outbreaks caused by Salmonella spp. and associated with the consumption of "eggs and egg products" has been decreasing in the last 5 years [4]. Household was by far the most frequent place of exposure. In strong-evidence foodborne outbreaks, Salmonella spp. was the most common agent reported in private households, whereas, "bacterial toxins other than Clostridium botulinum toxins", viruses and other causative agents were more frequently reported in public settings such as canteens, workplace catering, restaurants and pubs [4].
The characteristics of the most important foodborne pathogens, the illnesses they cause, together with some of the most important outbreaks they have been implicated are studied in this review.
Bacteria are the most common cause of foodborne diseases and exist in a variety of shapes, types and properties. Some pathogenic bacteria are capable of spore formation and thus, highly heat-resistant (e.g. Clostridium botulinum, C. perfringens, Bacillus subtilus, Bacillus cereus) [7]. Some are capable of producing heat-resistant toxins (e.g. Staphylococcus aureus, Clostridium botulinum). Most pathogens are mesophilic with optimal growth temperature range from 20 ℃ to 45 ℃. However, certain foodborne pathogens (i.e. psychrotrophs), such as Listeria monocytogenes, and Yersinia enterocolitica are capable of growth under refrigerated conditions or temperatures less than 10 ℃ [7].
Bacillus cereus are members of the family Bacillaceae; they are Gram-positive, motile rods, and they have the ability to form spores [7]. Most Bacillus spp. are found throughout the environment, including soils, fresh and marine water environments. Spores produced by B. cereus possess appendages and/or pili and are more hydrophobic than any other Bacillus spores. These properties enable the spores to adhere to many different types of surfaces and to resist removal during cleaning and sanitation [8]. Vegetative cells of B. cereus grow at temperatures ranging from 4–15 to 35–55 ℃ but prefer 30–40 ℃, depending on the strain [9]. The organism grows at pH 4.9–9.3, but the inhibitory effect of pH is reduced in foods as evidenced by limited growth on meat at pH 4.35 [5,7] The minimum aw, for growth has been established at 0.93, but it has been suggested to use 0.912 as the minimum required for growth, because fried rice tends to have aw values ranging from 0.912 to 0.961 and readily supports B. cereus growth [8,10].
B. cereus produces two types of toxins, the emetic (vomiting) and the diarrhoeal one, causing two types of illness. The emetic syndrome is caused by emetic toxin produced by the bacteria during the growth phase in the food. The diarrhoeal syndrome is caused by diarrhoeal toxins produced during growth of the bacteria in the small intestine. The rapid onset of the emetic type is characterized by nausea and vomiting while the late onset of the diarrheal type is characterized by diarrhea and abdominal pain. Both syndromes (i.e., diarrheal and emetic) are a result of B. cereus endospores surviving the cooking process, after which germination and subsequent proliferation of vegetative cells occurs at some point during storage. Foods that are frequently implicated in B. cereus diarrheic food poisoning include meat products, soups, vegetables, puddings, sauces, milk and milk products [8]. Symptoms are characterized by abdominal pain, nausea, and diarrhea after an incubation period of approximately 8–16 h (Table 1). Diarrheal syndrome symptoms generally persist no longer than 12–24 h. After a 1–5 h incubation period, emetic syndrome symptoms include primarily nausea and vomiting and persist for 6–24 h (Table 1). Foods implicated in B. cereus emetic food poisoning include fried and cooked rice, pasta, noodles, and pastry [8]. The diarrheal syndrome type of food poisoning results from the action of a thermolabile enterotoxic complex, whereas the emetic syndrome type involves the action of a thermostable toxin.
Due to the formation of adhesive endospores, B. cereus is commonly present in food production environments and then spreading to all kinds of foods. They produce a range of virulence factors that may cause unpleasant disease in humans when present in food or the gastrointestinal tract and it is one of the major foodborne pathogenic bacteria, although in most cases disease is mild and of short duration [11].
Genetic and genomic analyses have revealed that B. cereus is very similar to Bacillus anthracis and that some strains have plasmids resembling the toxin plasmids of Bacillus anthracis. 310 genomes have been completed up to now according to the data retrieved from NCBI, 2017. The median total length of the genome is 5.6626 Mb [12].
B. cereus related food poisoning is not a notifiable disease in most countries; therefore, incidence data is limited. It is recognized that there may be significant under reporting of B. cereus illness due to the generally mild, short duration and self-limiting symptoms, however, fatal incidences have been reported [11]. It is estimated that B. cereus caused 0.7% of foodborne illness among the 31 major pathogens in the US [13,14].
In a study for B. cereus outbreaks [15] were most often attributed to rice dishes (50%); fried rice was the most common type of rice dish (68%). Rice dishes were most commonly cooked and served immediately (42%) or were part of large, solid masses of food (33%) [15]. Twenty-four percent of B. cereus outbreaks were associated with meat or poultry dishes. Meat or poultry dishes were cooked and served immediately (50%), roasted (33%), or part of liquid or semisolid mixtures (17%) [15].
In an outbreak at a birthday party in Bari, Italy, the characteristics were consistent with available reports on foodborne outbreaks caused by B. cereus [16]. The short incubation period and the predominance of vomiting suggested an emetic toxin. The distribution of cases by time of onset suggested a common source of contamination by a bacteria or a toxin. B. cereus was isolated from basmati rice and fecal specimens. Poor food handling and storage was most probably the cause of the outbreak [16].
At a college sport day in Thailand, 470 individuals were ill with vomiting, nausea, and abdominal pain; approximately half of the individuals reported diarrhea [17]. The ingestion of cream-filled eclairs was significantly associated with illness and the mean incubation period was 3.2 hours, which suggested a preformed toxin in the food; initial laboratory investigation indicated presence of B. cereus [17]. B. cereus was reported as a major causative agent of foodborne illness in the Netherlands in 2006 (causing 5.4% of the foodborne outbreaks) and in Norway in 2000 (causing 32% of foodborne outbreaks) [17]. Pasta salad and spaghetti leftovers were the cause of two outbreaks, where the clinical data and the rapid onset of symptoms, together with the microbiological and molecular study, pointed to B. cereus as the causative agent [18,19].
Campylobacter spp. are members of the family Campylobacteriaceae and Campylobacter jejuni is one of the most common causes of diarrheal illness. C. jejuni is responsible for approximately 850,000 illnesses, 8,500 hospitalizations, and 76 deaths in the US each year [13]. The World Health Organization (WHO) estimates that ~1% of the population of Western Europe will be infected with campylobacters each year [20]. Extensively found throughout nature, C. jejuni can colonize the intestines of both mammals and birds, and transmission to humans occurs via contaminated food products. This organism can invade the epithelial layer by first attaching to epithelial cells, then penetrating through them. Diarrhea results from damage to the epithelial cells. Systemic infections can also occur causing more severe illnesses [12]. 932 genomes have been completed up to now according to the data retrieved from NCBI. The median total length of the genome is 1.686 Mb [12].
Campylobacter spp. are small (0.2–0.9 μm wide and 0.2–5.0 μm long), spiral formed, Gram-negative bacteria with 18 species, six sub-species and two biovars [20]. Campylobacter genomes are relatively unstable; several mechanisms that may lead to this genetic instability have been proposed, including bacteriophage activity, DNA recombination and transformation [5]. They are very different from other pathogens associated with foodborne disease in that they are essentially microaerophilic, growing best in an atmosphere containing approximately 10% CO2 and approximately 5% O2. The species pathogenic for man also have a rather narrow temperature range for growth with a maximum temperature of ~46 ℃ and a minimum of 30 ℃. These are classified as thermophilic campylobacters [20].
In 2015, Campylobacter continued to be the most commonly reported gastrointestinal bacterial pathogen in humans in the EU and has been so since 2005 [4]. The number of reported confirmed cases of human campylobacteriosis was 229,213, a 5.8% decrease compared with the rate in 2014 [4].
Campylobacter spp. are part of the normal intestinal flora of a wide variety of healthy domestic and wild animals, including cattle, sheep, goats, pigs, chickens, ducks, geese, wild birds, dogs, cats, rodents, and marine mammals, and are often found associated with bodies of water such as water troughs and streams. Most cases of campylobacteriosis are associated with eating raw or undercooked poultry meat, unpasteurized milk, contaminated water, or from cross-contamination of other foods by these items. All animals used for food can be campylobacter-positive as can many companion species (domestic pets). Samples from the natural environment, such as groundwater, will also frequently contain these pathogens [21]. Ready-to-eat fresh produce contaminated with enteric pathogens presents a risk to consumers. However, its importance as a source of campylobacters is unclear. The number of documented foodborne outbreaks associated with raw fruits, vegetables and unpasteurised fruit juices has increased. Such foods can present a campylobacteriosis risk to public health as a consequence of using contaminated irrigation or washing water.
When stressed, campylobacters enter a "viable but non-culturable state", characterized by uptake of amino acids and maintenance of an intact outer membrane but inability to grow on selective media; such organisms, however, can be transmitted to animals [22,23].
In June 2012, 44 persons who attended a wedding reception in Sweden became ill [24]. The outbreak investigation identified chicken liver pâtè as the suspected source of the infection; the liver pâtè had been deliberately undercooked, lightly fried to keep the right texture and mixed with spices [24]. Several Campylobacter spp. outbreaks associated with consumption of poultry liver pâtè have been described, especially in the UK [25,26,27,28,29], but also in other countries such as Australia [24] and US [30].
A serious outbreak of Campylobacter spp. was associated with the consumption of raw milk [31]. C. jejuni was isolated in 50 of 88 raw milk samples in New Zealand after a gastrointestinal illness among children in two different camp sites [31]. A drink prepared with raw milk was associated with an outbreak of C. jejuni enteritis involving more than 500 participants in a jogging rally in Switzerland, with an attack rate of over 75%. An outbreak of C. jejuni enteritis followed the consumption of unpasteurized milk at an attack rate of around 50%; there were cases in all age groups, with the highest number in the 1 to 10 year old group [31]. C. coli was isolated from a 9-year-old British boy with persistent diarrhea, whose family had consumed raw goat's milk from a local farm. C. jejuni and E. coli were found in the feces of goats from the farm, and C. jejuni was identified in samples of bulk milk [31].
In October 2013, public health authorities in Australia were notified of a suspected outbreak of gastroenteritis in students and guests following a catered function at a university residential college; a total of 56 cases of gastroenteritis, including seven laboratory-confirmed cases of C. jejuni infection, were identified in 235 eligible respondents [32]. C. jejuni diversity in epidemiologically related human and food isolates recovered during outbreaks linked to poultry liver [32].
Clostridium spp. are spore-forming bacteria, members of the family Bacillaceae and includes obligately anaerobic or aerotolerant, sporeforming rods that do not form spores in the presence of air and, at least in early stages of growth, are usually Gram-positive. In most species, vegetative cells appear as straight or curved rods, varying from short coccoid rods to long filamentous forms with rounded, tapered, or blunt ends, that occur singly, in pairs, or in various chain lengths [7]. Clostridia are found throughout the environment but are most prevalent in the soil and in the intestinal tract of animals. The characteristic shape of clostridia is attributed to the presence of endospores that develop under conditions unfavorable for vegetative growth and distend single cells terminally or sub-terminally [7]. The endospores of many species are extremely sturdy and survive extended boiling in water and exposure to air. Spores germinate under conditions favorable for vegetative growth, such as anaerobiosis and presence of organic substrates [7].
Cl. botulinum are motile by means of peritrichous flagella and produce botulinum neurotoxins, the most lethal poison known. There are seven types of botulinum neurotoxin, A through G, based on the antigenic specificity of the toxin produced by each strain [5]. Types A, B, E, and F causing botulism in humans, types C and D causing botulism in birds and mammals, and type G, which has yet to be clearly implicated in a botulism case [5,7]. Thermal processing is the most common method used to produce shelf-stable, low-acid, moist foods by inactivating Cl. botulinum spores.
From the evolutionary perspective, clostridia are considered to be the most ancient bacteria. It is believed that present day Mollicutes (Eubacteria) have evolved regressively (i.e., by genome reduction) from gram-positive clostridia-like ancestors with a low GC content in DNA. Several species of clostridia (e.g., Cl. perfringens, Cl. botulinum, Cl. tetani) are known opportunistic toxin-producing pathogens in animals and humans [12]. Some species are capable of producing organic solvents (acetone, ethanol, etc.), molecular hydrogen and other useful compounds. There are also species that can fix molecular nitrogen and thus are important participants in biological turnaround of nitrogen compounds in nature. The most common and widely distributed are strains and serovars of Cl. botulinum that produce type A toxin. This toxin finds its use in various applications requiring neuroparalitic intervention, including cosmetology (Botox®). 177 genomes have been completed up to now according to the data retrieved from NCBI. The median total length of the genome is 3.898 Mb [12].
Cl. botulinum is present in soils, freshwater, marine sediments, and the intestinal tracts of animals. Food sources commonly sampled include primarily honey, which should not be fed to infants less than 1 year of age, as well as fish, meats, vegetables, and infant foods. A variety of foods, such as canned corn, peppers, green beans, soups, beets, asparagus, mushrooms, ripe olives, spinach, tuna fish, chicken and chicken livers, liver pate, luncheon meats, ham, sausage, stuffed eggplant, lobster, and smoked and salted fish have been associated with botulinum toxin [5].
Traditionally, foodborne botulism has been associated with underprocessed and abused sausages or home canned foods; however, in recent years botulism has been acquired through the consumption of contaminated foods such as potato salad, sauteed onions, garlic sauce, cheese, yogurt, bean paste, and olives.
Symptoms of botulinum neurotoxin ingestion appear 12–36 h after consumption of contaminated food and initially may include nausea and vomiting (Table 1). However, these symptoms are followed by the more characteristic neurological signs including visual impairment and acute flaccid paralysis that begins with the muscles of the face, head, and pharynx, descending to involve muscles of the thorax and extremities and leading to possible death from respiratory failure caused by upper airway or diaphragm paralysis [7]. The minimum toxic dose of Cl. botulinum neurotoxin has not been determined, but from a human health and food safety standpoint, there should be no tolerance either for the neurotoxin itself or for conditions allowing growth of the organism in foods [7].
Botulinum neurotoxin is synthesized during cellular growth and is subsequently released during cell lysis, where proteolytic cleavage activates the molecule [7]. There are four categories of botulism, which include the classic foodborne botulism derived from the ingestion of preformed toxin in foods, wound botulism resulting from toxin production after organism growth in an infected wound, infant botulism from toxin elaboration in the intestinal tract of infants, and botulism due to intestinal colonization in older children and adults with intestinal disorders or complications resulting in a lack of microbial competition [7]. Botulinum neurotoxin introduced in any of these categories is transported via the bloodstream to neuromuscular junctions, where the toxin irreversibly binds to receptors on peripheral nerve endings and subsequently is internalized into the nerve cell [7].
Recent developments in whole genome sequencing have made a substantial contribution to understanding the genomes, neurotoxins and biology of Cl. botulinum Group Ⅰ (proteolytic Cl. botulinum) and Cl. botulinum Group Ⅱ (non-proteolytic Cl. botulinum). Two different approaches were used to study genomics in these bacteria; comparative whole genome microarrays and direct comparison of complete genome DNA sequences [33].
The failure to effectively apply the botulinum cook (121 ℃ for 3 min) to canned or bottled foods has led to many outbreaks of foodborne botulism associated with Cl. botulinum Group Ⅰ. For example, a large outbreak in Thailand in 2006 (209 cases) was associated with consumption of inadequately home-canned bamboo shoots [33]. Inadequate thermal processing of cans of a commercial hot dog chilli sauce in 2007 in US was associated with eight botulism cases, and initially led to the recall of 39 million cans, then an expanded recall of 111 million cans [34]. Temperature abuse of foods intended to be stored chilled has also been responsible for several severe outbreaks of foodborne botulism, including those associated with commercial chilled carrot juice [35] and commercial chicken enchiladas [33,36].
Clostridium perfringens, previously known as Clostridium welchii, belongs to the family Bacillaceae and is an important cause of foodborne disease. They are nonmotile, encapsulated rod-shaped cells that produce protein toxins and form spores resistant to various environmental stresses such as radiation, desiccation, and heat [7]. Vegetative cells grow at temperatures ranging from 6 to 50 ℃ but prefer an optimum temperature between 43 and 47 ℃. Growth requires a minimum aw, of 0.93, a sodium chloride concentration less than 5–8% depending on the strain, and a pH of 5.0–9.0, although 6.0–7.2 is preferred [7,10].
Cl. perfringens are the most prevalent Clostridium species found in human clinical specimens, excluding faeces, and has been implicated in simple wound infections to myonecrosis, clostridial cellulitis, intra-abdominal sepsis, gangrenous cholecystitis, postabortion infection, intravascular hemolysis, bacteremia, pneumonia, thoracic and subdural empyema, and brain abscesses [7,8]. The spores and cells of the organism are frequently associated with dust contamination on many surfaces, including foods such as meat and shellfish, as a result of its ubiquity throughout the environment [7].
Cl. perfringens are estimated to be the second most common bacterial causes of foodborne illness in the US, causing one million illnesses each year [37]. Local, state, and territorial health departments voluntarily report Cl. perfringens outbreaks to the US CDC through the Foodborne Disease Outbreak Surveillance System. From 1998 to 2010,289 confirmed outbreaks of Cl. perfringens illness were reported with 15,208 illnesses, 83 hospitalizations, and eight deaths [37]. The number of outbreaks reported each year ranged from 16 to 31 with no apparent trend over time [37]. The annual number of outbreak-associated illnesses ranged from 359 to 2,173, and the median outbreak size was 24 illnesses [37]. Restaurants (43%) were the most common setting of food preparation; other settings included catering facility (19%), private home (16%), prison or jail (11%), and other (10%) [37]. Among the 144 (50%) outbreaks attributed to a single food commodity, beef was the most common commodity (66 outbreaks, 46%), followed by poultry (43 outbreaks, 30%), and pork (23 outbreaks, 16%) [37]. Outbreaks caused by Cl. perfringens occur regularly, are often large, and can cause substantial morbidity yet are preventable if contamination of raw meat and poultry products is prevented at the farm or slaughterhouse or, after contamination, if these products are properly handled and prepared, particularly in restaurants and catering facilities [37].
Foodborne illness almost always is a result of temperature abuse, and in many instances, the food vehicle has been improperly cooked meat or meat product that has been left to cook and/or cool too slowly or has undergone insufficient reheating, allowing surviving spores to germinate leading to vegetative cell proliferation. After ingestion and an incubation period of 7–30 h, symptoms typically include cramping and abdominal pain, although nausea and vomiting may also ensue, persisting for 24–48 h [7].
Five toxin-producing types of Cl. perfringens have been identified (A through E), and all produce an alpha-toxin (phospholipase) that plays a role in myonecrosis [7]. Type B strains produce beta-and epsilon-toxins, type D strains also produce epsilon-toxin, and type E strains produce an iota-toxin [7]. Almost all reported cases of foodborne gastroenteritis in the US that involve Cl. perfringens are a result of type A infection after the ingestion of highly contaminated foods with greater than 106–107 viable vegetative cells, which undergo sporulation in the small intestine and produce enterotoxin [7]. The enterotoxin produced during sporulation is released with the spores during cell lysis. After release, the enterotoxin binds to epithelial cells, causing cytotoxic cell membrane damage and subsequent alteration of permeability, leading to diarrhea and abdominal cramping [7].
An outbreak of Cl. perfringens occurred in a care home and fifteen residents reported illness. The likely cause was consumption of mince and vegetable pie and/or gravy [38]. There were a number of issues with food served, in particular the mince products had been cooked, cooled, reheated and served again over a period of several days; fecal sampling revealed the presence of Cl. perfringens enterotoxin gene and four samples were indistinguishable by fluorescent amplified fragment length polymorphism, indicating a likely common source [38]. The operator of the home was charged with three offences under the General Food Regulations 2004 and the Food Hygiene (England) Regulations 2006 and was convicted on all counts [38]. Epidemiological evidence can be used to help prosecute businesses with food safety offences in such circumstances [38].
The genus Cronobacter consists of a diverse group of Gram-negative bacilli and comprises seven species: Cronobacter sakazakii, Cronobacter malonaticus, Cronobacter muytjensii, Cronobacter turicensis, Cronobacter dublinensis, Cronobacter universalis, and Cronobacter condimenti [39].
Among these, Cr. sakazakii, formerly Enterobacter sakazakii, is associated with infant septicemia, meningitis, and necrotizing enterocolitis. Originally isolated from powdered formula, it has also been shown to compartmentalize cerebral ventricles and cause brain abcesses in neonates. This species produces a yellow pigment when grown at 30 ℃, but this fades at 37 ℃ [12]. 49 genomes have been completed up to now according to the data retrieved from NCBI. The median total length of the genome is 4.5475 Mb [12].
Infections in elderly and immunocompromised adults have also been reported [40], and the epidemiology of these cases suggests that other potential sources of contamination exist, such as the home environment [41] and retail foods (e.g. dried milk powder, dried meats, legumes, nuts, dried flours and spices) [42]. Although Cronobacter spp. have been detected in this wide assortment of foods, only contaminated powdered infant formula has been linked epidemiologically with infant infections and outbreaks caused by Cr. sakazakii [43]. The source of this contamination is thought to be powdered infant formula manufactured under poor Good Manufacturing Practice (GMP); however, extrinsic contamination of opened cans and human carriage may also be possible [39].
Escherichia coli is a Gram-negative, non-spore forming rod. It may or may not be mobile; some rods are flagellated and some are not [43]. The organism is a facultative anaerobe and ferments simple sugars such as glucose to form lactic, acetic, and formic acids; the optimum pH for growth is 6.0 to 8.0; however, growth can occur as low as pH 4.3 and as high as 9 to 10 pH [43].
E. coli comprise a large and diverse group of bacteria. Most strains of E. coli are harmless; other strains have acquired characteristics, such as the production of toxins, which make them pathogenic to humans [44]. 5351 genomes have been completed up to now according to the data retrieved from NCBI. The median total length of the genome is 5.171 Mb [12]. Pathogenic variants of E. coli (pathovars or pathotypes) cause much morbidity and mortality worldwide; many of these pathotypes are a major public health concern as they have low infectious doses and are transmitted through ubiquitous mediums, including food and water [45]. Transmission of E. coli occurs when food or water that is contaminated with feces of infected humans or animals is consumed. Contamination of animal products often occurs during the slaughter and processing of animals [44]. The use of manure from cattle or other animals as fertilizer for agricultural crops can contaminate produce and irrigation water [44]. E. coli can survive for long periods in the environment and can proliferate in vegetables and other foods.
Pathogenic E. coli have been categorized into six groups according to the pathogenic mechanism: (1) Enteropathogenic E. coli (EPEC); (2) Enterohemorrhagic E. coli (EHEC, also known as Shiga toxin—producing E. coli [STEC] and formerly referred to as verotoxin-producing E. coli [VTEC]); (3) Enterotoxigenic E. coli (ETEC); (4) Enteroaggregative E. coli (EAggEC); (5) Enteroinvasive E. coli (EIEC); and (6) Attaching and Effacing E. coli (A/EEC) [44,45].
STEC infection can cause episodes of mild to severe diarrhea, and 5–10% of infections develop into Hemolytic Uremic Syndrome (HUS)—a severe complication marked by profuse bleeding that can lead to kidney failure and death. STEC strain O157:H7 is estimated to cause 63,000 illnesses, 2,100 hospitalizations, and 20 deaths each year [13]. The principal reservoir for this zoonotic pathogen is the intestinal tract of cattle, but other animals may also serve as reservoirs. O157:H7 emerged as a significant public health threat in 1982 during two outbreaks of disease that investigators associated with the consumption of undercooked ground meat [13]. A wide variety of foods, including fresh produce, have since served as a vehicle for E. coli O157:H7 outbreaks. Food producers must report the presence of E. coli O157:H7 to health authorities [13].
In 1982, an investigation by the CDC of two outbreaks of severe bloody diarrhea, associated with the same fast-food restaurant chain, led to the identification of a strain of E. coli, one that expressed O-antigen 157 and H-antigen 7, that had not previously been recognized as a pathogen [46]. Subsequently, this strain was shown to belong to a category of E. coli that produce toxins which are similar to Shiga toxin of Shigella dysenteriae and distinct from previously described E. coli heat-stable and heat-labile toxins. As data were accumulating on the role of E. coli O157:H7 as a pathogen, parallel work in Canada was uncovering high rates of infection with this and other Shiga toxin-producing E. coli in patients with the HUS [44]. Subsequent research has indicated that E. coli O157:H7 is the cause of 85–95% of cases of hemolytic uremic syndrome in North America, and that non-O157 Shiga toxin-producing E. coli are responsible for another 5–15% [47].
In 2015, 5,901 confirmed cases of STEC infections were reported in the EU [4]. The EU notification rate was 1.27 cases per 100,000 population, which was slightly lower than the notification rate in 2014. The EU notification rate following the large outbreak in 2011 was higher in 2012–2015 than before the outbreak but stabilised in the last 2 years in 2014–2015 [4]. In 2011, a rare strain of E. coli O104:H4 caused the second largest and the deadliest outbreak of E. coli-associated disease ever recorded. Between May 21 and July 22,2011, more than 4,000 people became ill in 16 countries, and 50 individuals died [48]. By the time the outbreak ended in early July, 2011, there were reports of more than 4,000 illnesses, 800 cases of HUS, and 50 deaths in Germany and 15 other countries [49]. The outbreak was unusual because of the high proportion of adult patients (~25%) with HUS and the frequent development of neurological symptoms in these patients [50]. Research suggests that these clinical characteristics were due to the unique combination of traits carried by the pathogen, which included features typical of enteroaggregative E. coli and the capacity to produce Shiga toxin [50]. This strain also has a distinct set of additional virulence and antibiotic-resistance factors [50]. In addition, eight deaths due to STEC infection were reported in the EU which resulted in an EU case fatality of 0.2% among the 3,352 confirmed cases for which this information was provided. As in previous years, the most commonly reported STEC serogroup in 2015 was O157 (41.7%), although its relative proportion compared to other serogroups declined. This is possibly an effect of increased awareness and of more laboratories testing for other serogroups. Serogroup O157 was followed by serogroups O26, O103, O91, O145, O146 and O128.
The proportion of non-typable STEC strains continued to increase in 2015 [4]. Since a 1993 outbreak associated with hamburgers purchased from a fast food chain resulted in more than 500 laboratory-confirmed infections with E. coli O157:H7 and at least 4 deaths [51], several interventions have been introduced to reduce the contamination of beef during processing and in the retail and restaurant industries [52].
In 2006, investigators linked at least 183 illnesses and one death to the consumption of fresh spinach contaminated with E. coli O157:H7 [53]. Among the ill persons, 95 (52%) were hospitalized and 29 (16%) had HUS [53]. In response to the growing outbreak—which included cases across 26 states and Canada—FDA advised consumers to stop eating all uncooked, fresh spinach, or products containing uncooked spinach [53]. Epidemiological studies traced the contamination to a single shift at a Natural Selections Foods processing plant in San Juan Batista, California, which had produced 42,000 bags of pre-washed and ready-to-eat baby spinach [54]. Based on isolates from contaminated produce from sick consumers, investigators matched the outbreak strain to environmental samples from a single field of organic spinach in central California [55]. Environmental sampling revealed the presence of the outbreak strain in river water and the feces of cattle and wild pigs less than 1 mile away from the spinach field [55,56].
Interestingly, for the outbreak in Germany, investigators initially identified fresh produce—including leafy greens, tomatoes, and cucumbers as likely sources [57]. Traceback studies of disease clusters in five German provinces that were affected early in the outbreak pointed to sprouts produced by an organic grower in Lower Saxony [58]. A smaller, second wave of illnesses around the French city of Bordeaux also resulted from the consumption of sprouts, and patient isolates from both outbreaks were identical [59]. It was later discovered that sprout seeds associated with both outbreaks had a common origin in a 16.5 tons shipment of fenugreek seeds from Egypt [59]. Upon the shipment's arrival in Germany in 2009, various distributors in Germany and other European countries subdivided, packaged, repackaged, and widely distributed these seeds as part of thousands of packets of "seed mixes" [59]. Despite extensive recall efforts, the complex chain of packaging and distribution may mean that contaminated seeds could remain on store shelves until their expiration date in 2014 [59]. The pathogen was not isolated from any remaining batches of the suspect seeds, and questions remain as to the source and reservoir of the contaminating pathogen [60].
Flour and flour-based mixes have been suspected or implicated as the source of other foodborne Salmonella and STEC O157 outbreaks [61,62]. Evidence obtained at one restaurant showed that dessert pizzas were made with the same dough mix used in traditional pizzas, but used thicker dough and might have been undercooked at some locations [62]. On May 31,2016, General Mills recalled several sizes and varieties of flours due to possible E. coli contamination; in June 2016, laboratory testing by FDA isolated STEC O121 in open samples of General Mills flour collected from the homes of ill people in Arizona, Colorado, and Oklahoma [62]. This outbreak is a reminder that is it not safe to taste or eat raw dough or batter; flour or other ingredients used to make raw dough or batter can be contaminated with STEC and other germs that can make people sick [62].
Listeria monocytogenes is one of the leading causes of death from food-borne pathogens especially in pregnant women, newborns, the elderly, and immuno-compromised individuals [63]. Infections in pregnant women can be devastating to the fetus, resulting in miscarriages, stillbirths, and birth defects [63]. It is found in environments such as decaying vegetable matter, sewage, water, and soil, and it can survive extremes of both temperatures (1–45 ℃) and salt concentration marking it as an extremely dangerous food-born pathogen, especially on food that is not reheated and is carried asymptomatically by numerous animal species. The bacterium has been found in a variety of raw foods, such as uncooked meats and vegetables, as well as in foods that become contaminated after cooking or processing. It can spread from the site of infection in the intestines to the central nervous system and the fetal-placental unit. It can cause meningitis (inflammation of the membrane surrounding spinal cord and brain), gastroenteritis (inflammation of mucous membranes of stomach and intestine), and septicemia (systemic spread of bacteria and toxins in the blood) can result from infection [63]. It has 13 serotypes, including 1/2a, 1/2b, 1/2c, 3a, 3b, 3c, 4a, 4ab, 4b, 4c, 4d, 4e, and 7; among them, serotypes 1/2a, 1/2b, and 4b have been associated with the vast majority of foodborne infections [5]. 1243 genomes have been completed up to now according to the data retrieved from NCBI. The median total length of the genome is 2.974 Mb [12].
Listeriosis is a serious infection usually caused by eating food contaminated with L. monocytogenes. Although it is a relatively rare disease with a high mortality rate (20–30 %) that makes it one of the deadliest food-borne threats [64]. Unlike many other foodborne pathogens, Listeria multiplies in cold environments such as refrigerators [65]. It can quickly spread in damp buildings, dripping off pipes or ceilings onto food. Once Listeria bacteria get into a food-processing factory, they can live there for years, sometimes contaminating food products [64,65].
In the EU for the year 2015, 28 member states reported 2,206 confirmed human cases of listeriosis [4]. The EU notification rate was 0.46 cases per 100,000 population, which was similar to 2014 [4]. There was a statistically significant increasing trend of listeriosis over 2008–2015; nineteen member states reported 270 deaths due to listeriosis in 2015, which was the highest annual number of deaths reported since 2008 [4]. The EU case fatality was 17.7% among the 1,524 confirmed cases with known outcome [4]. Listeriosis infections were most commonly reported in the elderly population in the age group over 64 years old and particularly in the age group over 84 years [4].
It is estimated that L. monocytogenes causes on average 1,591 episodes of domestically acquired food-borne illnesses, 1,455 hospitalizations, and 255 deaths annually in the US [13]. Over the last 10 to 15 years, increasing evidence suggests that persistence of L. monocytogenes in food processing plants for years or even decades is an important factor in the transmission of this foodborne pathogen and the root cause of a number of human listeriosis outbreaks. L. monocytogenes persistence in other food-associated environments (e.g., farms and retail establishments) may also contribute to food contamination and transmission of the pathogen to humans [13].
Although the available data clearly indicate that L. monocytogenes persistence at various stages of the food chain contributes to contamination of finished products, continued efforts to quantitatively integrate data on L. monocytogenes persistence (e.g., meta-analysis or quantitative microbial risk assessment) will be needed to advance our understanding of persistence of this pathogen and its economic and public health impacts [66].
Whole apples have not been previously implicated in outbreaks of foodborne bacterial illness. A nationwide listeriosis outbreak associated with caramel apples was investigated [67]. Outbreak-associated cases were compared with non-outbreak-associated cases and environmental investigations were performed; 35 outbreak-associated cases were identified in 12 states; 34 (97%) were hospitalized and seven (20%) died [67]. This outbreak highlights the importance of minimizing produce contamination with L. monocytogenes; investigators should perform single-interviewer open-ended interviews when a food is not readily identified [67].
L. monocytogenes is killed by pasteurization and cooking; however, in some Ready-To-Eat (RTE) foods contamination may occur after factory cooking but before packaging. RTE foods pose higher risk for listeriosis as they are ingested without any further processing, such as cooking, that would kill L. monocytogenes. Many of these foods use refrigeration, among other methods, to restrict bacterial growth during their shelf-life. While these standard practices work well for most bacteria, they are not adequate for Listeria control as the organism is capable of growth at refrigeration temperature and is often tolerant to freezing temperature, high salt and low pH [68]. RTE products, such as delicatessen (deli) meats and soft cheeses have repeatedly been identified by foodborne disease control programs as sources of outbreaks and products that put humans at risk for listeriosis. Although, most listeriosis cases tend to be sporadic in occurrence, outbreaks do occur frequently. Due to the global phenomenon of outbreaks associated with Listeria in deli meats and cheese, it requires an urgent attention from national and international authorities through rigorous procedures for its identification, surveillance procedures that can bring more awareness to the general public [68].
One of the largest and deadliest multi-state outbreaks of listeriosis in the US occurred in late summer of 2011. The incident marked the first time that Listeria spp. contamination had been linked to whole cantaloupe and one of the few times it had been linked to fresh produce [69]. 146 Individuals had become ill after being infected with the outbreak strain of listeria; 29 deaths and 1 miscarriage had also been attributed to the infection [69]. In response to the CDC outbreak investigation, the cantaloupe producer, announced a voluntary recall of the 300,000 cases of cantaloupes harvested and produced between July and September [69]. The recall included 1.5 to 4.5 million melons that were distributed at supermarkets and chain stores in at least 28 states [69]. FDA inspectors cited unsanitary conditions—such as old, corroded, and difficult-to-clean equipment and standing pools of water—and the absence of processing steps to cool the melons before cold storage as likely contributors to contamination [69].
This group of Enterobactericiae have pathogenic characteristics and are one of the most common causes of enteric infections (food poisoning) worldwide. They were named after the scientist Dr. Daniel Salmon who isolated the first organism, Salmonella choleraesuis, from the intestine of a pig [7]. The genus Salmonella is divided into two species that can cause illness in humans: S. enterica and S. bongori [5]. Salmonella is further subdivided into serotypes, based on the Kaufmann-White typing scheme first published in 1934, which differentiates Salmonella strains by their surface and flagellar antigenic properties. Salmonella spp. are commonly referred to by their serotype names. For example, Salmonella enterica subsp. enterica is further divided into numerous serotypes, including S. Enteritidis and S. Typhimurium [5]. Certain serovars of Salmonella enterica are responsible for more serious diseases such as Typhoid fever. The presence of several pathogenicity islands (PAIs) that encode various virulence factors allows Salmonella spp. to colonize and infect host organisms. There are two important PAIs, Salmonella pathogenicity island 1 and 2 (SPI-1 and SPI-2) that encode two different type Ⅲ secretion systems for the delivery of effector molecules into the host cell that result in internalization of the bacteria which then leads to systemic spread. 5323 Salmonella enterica genomes have been completed up to now according to the data retrieved from NCBI. The median total length of the genome is 4.783 Mb [12].
Salmonella spp. are the leading bacterial causes of food-borne illness in the US [13]. The CDC estimates that more than 1 million people in the US contract Salmonella each year, with an average of 19,000 hospitalizations and 380 deaths [13]. Salmonella spp. live in the intestines of most livestock and many wild animals. Salmonella spp. infection usually occurs when a person eats food contaminated with the feces of animals or humans carrying the bacteria. Salmonella outbreaks are commonly associated with eggs, meat, and poultry, but these bacteria can also contaminate other foods such as fruits and vegetables. More recently, the CDC has reported a total of 258 persons infected with the outbreak strain of Salmonella Bareilly (247 persons) or Salmonella Nchanga (11 persons) from 24 states and the District of Columbia [70]. Thirty-two ill persons have been hospitalized, and no deaths have been reported. Collaborative investigation efforts of state, local, and federal public health agencies indicate that a frozen raw yellow fin tuna product, known as Nakaochi Scrape, from Moon Marine USA Corporation is the likely source of this outbreak [70].
In EU for the year 2015, a total of 94,625 confirmed salmonellosis cases (126 fatal) were reported by 28 member states, resulting in an EU notification rate of 21.2 cases per 100,000 population. This represented a 1.9% increase in the EU notification rate compared with 2014. There was a statistically significant decreasing trend of salmonellosis in the 8-year period between 2008 and 2015 [4]. As in previous years, the two most commonly reported Salmonella serovars in 2014 were S. Enteritidis and S. Typhimurium, representing 45.7% and 15.8%, respectively, of all reported serovars in confirmed human cases. Cases of Salmonella Infantis, the fourth most common serovar continued to decrease in 2015. Cases of Salmonella Stanley still remained, as in the last 2 years, at a higher level than before the large outbreak reported in 2011–2012 [4].
In 1994,138,000 gallons of ice cream were contaminated by Salmonella. This "single batch" of ice cream was consumed by individuals in 15 states, where it sickened an estimated 225,000 individuals [71]. Salmonella spp. contamination of peanuts and peanut products led to one of the largest product recalls in US history. More than 714 people in 46 states were sickened in this outbreak and 9 individuals died [72]. Investigators traced the contamination to a single facility that produced peanuts, peanut butter, and peanut paste; more than 200 companies used these foodstuffs as ingredients in a variety of other products, such as brownie products, cake and pie products, candy products, cereal products, cookie products, cracker products, prepackaged meals, snack mix products, ice cream, pet food, and topping products [72]. The recall extended to more than 3,900 products [72,73]. In 2008, 1,450 individuals in 43 states and the District of Columbia became ill from salmonellosis and two patients died after consuming jalape o and serrano peppers imported from Mexico; investigations traced the contaminated peppers to one farm in Mexico, but the source of contamination is unknown [73].
Pathogens may be passively internalized during produce processing, and this occurred in 1999, when mangoes imported to the US from Brazil were treated to kill possible Mediterranean fruit fly by dipping them in hot water, after which they were chilled in a cold-water bath [74]. The cold water was not treated, it was not potable and it was contaminated with Salmonella Newport, which infected 78 people in 13 states [74,75]. During 1973–2011, of the 1,965 outbreaks of salmonella where a food vehicle was implicated, 96 were attributed to beef, accounting for 3,684 illnesses [76].
In EU between 2014 and 2015, a total of 162 cases, mostly from France, followed by Belgium, the Netherlands, Spain, Denmark and Sweden were reported, including 86 (53%) women [77]. Using whole genome sequencing (WGS), the cause was identified as Salmonella enterica serotype Chester; S. Chester was more likely to have eaten in a restaurant and visited the coast of Morocco [77]. Outbreaks associated with S. Chester have been reported: in Australia, associated with sea turtle meat in 1998 and with tap water in 2005; in the US, associated with frozen meals (cheesy chicken and rice) in 2010 and in Canada, associated with headcheese in 2010 [78,79,80,81].
The genus Shigella is a member of the family Enterobacteriaceae and possesses four serogroups that have been traditionally treated as species: serogroup A as Shigella dysenteriae, serogroup B as Shigella flexneri, serogroup C as Shigella boydii, and, serogroup D as Shigella sonnei. Whereas serogroups A, B, and C consist of 38 serotypes, serogroup D possesses only one [7]. Shigella are non-motile, non-spore-forming, facultative anaerobic Gram-negative rods. They can grow at temperatures ranging from 6 to 48 ℃, but prefer 37 ℃, and S. sonnei appears to be able to tolerate lower temperatures better than the other serogroups. Optimum growth occurs between pH 6.0 and 8.0, although growth has been reported between pH 4.8 and 9.3 [10].
Shigella spp. are closely related to E. coli in their DNA homology and share some biochemical characteristics as well as reactivity to some of the same antibodies, but despite these similarities, their differentiation should be considered clinically significant based, at least in part, on differences in symptoms expressed by infected individuals [7]. Shigella spp. are found most frequently in environments of compromised sanitation and poor hygiene, and although the primary route of transmission is by person-to-person contact, shigellosis can occur after the ingestion of focally contaminated water or food [7]. Shigella spp. have not been associated with one specific type of food; foods associated with outbreaks of shigellosis have included milk, salads, chicken, shellfish, and other fresh produce served at a wide range of establishments including restaurants, homes, schools, sorority houses, commercial airlines, cruise ships and military mess halls [10]. Approximately 20% of all shigellosis cases in the US are related to international travel (i.e. travelers diarrhea), with S. sonnei being the most prevalent and S. flexneri being the second most common in developed countries [82]. However, in developing countries, S. flexneri and S. dysenteriae type 1 are the most common serogroups, with S. dysenteviae type 1 having been involved in a lengthy epidemic in southern Africa and major epidemics in other parts of Africa, in Asia and in Central America [12]. These epidemics have resulted in high morbidity and mortality rates, especially in malnourished children, immuno-compromised individuals, and the elderly [12].
All Shigella serogroups can cause gastrointestinal infections after an incubation period of 12–50 h, after which time individuals experience watery diarrhea in conjunction with fever, fatigue, malaise, and abdominal cramps (Table 1). Although dysentery can be caused by all four Shigella serogroups, S. dysenteriae type 1 is the most frequent cause of epidemic dysentery and is associated with a particularly severe form of the illness that may be accompanied by other complications including HUS [82].
Twenty-one (32%) of 65 football players and staff developed shigellosis that was associated with consumption of cold sandwiches; the sandwiches were prepared at the airline flight kitchen [83]. Confirmed or probable shigellosis was identified among 240 passengers on 219 flights to 24 states, the District of Columbia, and four countries between September 14 and October 13 [83].
Outbreaks associated with fresh produce have emerged as an important public health concern. On 10 August 1998, the Ontario Ministry of Health was notified of a family of three persons with S. sonnei infection who attended a food fair during July 31-August 3 [84]. Laboratory-based surveillance identified 32 additional persons with S. sonnei infection who had eaten at a specific kiosk at the fair or at the restaurant that had supplied the kiosk [84]. Foodhandlers at six (75%) of the eight implicated restaurants reported washing parsley before chopping it; usually parsley was chopped in the morning and left at room temperature, sometimes until the end of the day, before it was served to customers [84].
Staphylococcus aureus are nonmotile, gram-positive cocci that appear singly or in pairs, tetrads, short chains, or characteristic "grapelike" clusters. Staphylococci are facultative anaerobes that, with the exception of Staphylococcus saccharolyticus and Staph. aureus subsp. anaerobius, grow more rapidly under aerobic conditions [7]. Staphylococcus spp. are widespread throughout nature and can be found on the skin and skin glands of mammals and birds, in addition to the mouth, blood, mammary glands, and intestinal, genitourinary, and upper respiratory tracts of infected hosts [7]. Outside the body, Staph. aureus can survive for long periods of time in a dry state, and have been isolated from air, dust, sewage, and water, making it one of the most resistant non-spore-forming pathogens [5]. In addition to environmental sources of infection, some reported Staph. aureus containing foods include ground beef, pork sausage, ground turkey, salmon steaks, oysters, shrimp, cream pies, milk, and delicatessen salads [7].
Staph. aureus grow, depending on the strain, at temperatures ranging from 7 to 47.8 ℃ and produce enterotoxins between 10 and 46 ℃ but prefer an optimum temperature between 40 and 45 ℃. The bacterium grows between pH 4.5 and 9.3, with an optimum between 7.0 and 7.5, and is very tolerant to high levels of salt (>10% sodium chloride); enterotoxin production requires a minimum aw of 0.86, whereas growth has been demonstrated at an αw of 0.83 [5,7,10].
Staph. aureus typically causes infections involving the skin, such as boils, cellulitis, impetigo, and postoperative wound infections, but can also be associated with more serious infections like bacteremia, pneumonia, osteomyelitis, cerebritis, meningitis, and abscesses of muscle, urogenital tract, central nervous system, and various abdominal organs [7]. Toxic shock syndrome, a condition resembling septic shock and resulting from the production of toxic shock syndrome toxin 1, has been attributed to Staph. aureus infection [7]. Humans are the major reservoir for Staph. aureus, and contamination of food can occur through direct contact, indirectly by skin fragments, or through respiratory tract droplets, with most staphylococcal food poisoning cases being traced to food contamination during preparation because of inadequate refrigeration, inadequate cooking or heating, or poor personal hygiene. After ingestion of the enterotoxin and an incubation period of less than 6 and up to 10 h, symptoms may include vomiting, nausea, abdominal cramps, headache, dizziness, chills, perspiration, general weakness, muscular cramping and/or prostration, and diarrhea that may or may not contain blood [7]. The CDC estimates that, in the US, staphylococcal food poisoning causes approximately 241,188 illnesses, 1,064 hospitalizations, and 6 deaths each year [5].
The presence of Staph. aureus in food may be considered a public health hazard because of its ability to produce enterotoxin and the risk of subsequent food poisoning. Although there are nine identified staphylococcal enterotoxins, designated as A, B, C1, C2, C3, D, E, F, and G, types A and D are responsible for the majority of the outbreaks [85]. Staphylococcal enterotoxins are included in a larger family of toxins, known as pyrogenic toxins, that have the unique ability to act as superantigens, thereby stimulating an extraordinarily high percentage of T cells. They are difficult to inactivate with heat, because temperatures required to inactivate them are higher than those needed to kill the organism [7]. Staphylococcal enterotoxin A is more heat sensitive than enterotoxins B or C and requires heating at 80 or 100 ℃ for 180 or 60 s, respectively, to cause a loss in serological reactivity [7].
The genus Vibrio, belonging to the family Vibrionaceae, contains more than 35 species, of which nearly half have been described in the last 20 years and more than one-third are pathogenic to humans [7]. Organisms in this genus are non-spore-forming, primarily motile, facultatively anaerobic, Gram-negative straight or curved rods. All pathogenic Vibrio species, including Vibrio cholerae, Vibrio parahaemolyticus, and Vibrio vulnificus, require sodium for optimum growth. They are found primarily in brackish or marine environments located in tropical or temperate areas, because their incidence decreases significantly as water temperature falls below 20 ℃ [7]. V. cholerae are also motile by means of a single polar-sheathed flagellum; these curved rods thrive in their environmental reservoir as part of the microflora found in estuaries. In addition to its primary environmental source, V. cholerae has been isolated from areas not associated with a marine or brackish water supply, including freshwater lakes and rivers and from birds and herbivores [7]. Vibrio cholerae O1 is composed of the classic biogroup that has been isolated during previous pandemics and El Tor, which is the predominant biogroup of the current pandemic [86].
The optimum temperature for growth of V. cholerae is between 30 and 37 ℃, although growth can occur between 10 and 43 ℃. Vibrio cholerae grow at pH 5.0–9.6 but prefer a pH of 7.6. They grow at a aw of at least 0.97 but prefer 0.984. Optimum growth occurs in an environment with a sodium chloride concentration of 0.5%, although V. cholerae growth can occur at concentrations of 0.1–4.0% [10].
V. cholerae typically gain entrance into the human body through ingestion of a contaminated food, such as mollusks (raw oysters) or crustaceans eaten raw, undercooked, or even contaminated after cooking, or exposure of an open wound to a contaminated water source. Conditions resulting from V. cholerae O1 infection range from asymptomatic to the most severe form known as "cholera gravis" and in part depend on which biogroup is involved, because 75% of the El Tor biogroup and 60%) of the classic biogroup lead to asymptomatic infections [7]. Additionally, the El Tor biogroup results in severe disease in 2% of the infected individuals and mild or moderate disease in 23% whereas the classic biogroup produces severe disease in 11%, of individuals and mild or moderate disease in 30% [87].
After an incubation period of several hours to 5 days, depending on inoculum size and the amount of food ingested, typical symptoms include muscle cramping caused as a result of severe dehydration (fluid loss up to 500–1000 ml/h) resulting from vomiting, increased peristalsis followed by loose stools progressing to watery stools, and mucus-flecked diarrhea that is characteristic of cholera [88]. In addition to dehydration, other complications may include hypovolemic shock, hypoglycemia, and metabolic acidosis [88].
The disease caused by V. cholerae O139 Bengal is clinically identical to the symptoms exhibited by V. cholerae O1-infected individuals. Other V. cholerae serogroups, in addition to V. cholerae O1 and V. cholerae O139 Bengal, are known as non O1, non agglutinating vibrios or noncholera vibrios and are not known to cause epidemic disease. However, noncholera vibrios are known to cause self-limiting gastroenteritis and also may cause wound infections, bacteremia, and septicemia when associated with a preexisting liver condition [89]. The infectious dose of V. cholerae is approximately 1011, but with the ingestion of food, the infectious dose is reduced to about 106 depending on the buffering capacity of the food [87].
Food sources implicated as vehicles of transmission for Vibrio parahaemolyticus include crabs, prawns, scallops, seaweed, oysters, and clams [7]. V. parahaemolyticus grow at temperatures between 5 and 44 ℃, with an optimum temperature and pH for growth between 30 and 37 ℃ and 7.6 and 8.6, respectively; the organism will grow in an environment at pH 4.8–11.0, in sodium chloride concentrations of 0.5–10.0%, and in environments with a minimum aw of 0.94; however, it prefers a concentration of sodium chloride in the range of 2 to 4% and a αw of 0.981 [7,10].
V. parahaemolyticus is the Vibrio species most frequently isolated from clinical samples obtained in the US [7]. Gastroenteritis is typically associated with consumption of raw, inadequately cooked, or cooked but recontaminated seafood. After a 4 to 96 h incubation period, symptoms of V. parahaemolyticus induced gastroenteritis include nausea, vomiting, headache, abdominal cramps, slight fever, chills, and watery diarrhea that is occasionally bloody [7]. Additional symptoms, after exposure to contaminated water, may include infected wounds, eyes, and ears [7].
Although symptoms are usually self-limiting, lasting only 2–3 days, severe cases may result in dysentery, primary septicemia, or cholera-like illness with the possibility of death [87]. The presence of a pre-existing condition (e.g., liver disease, alcoholism, diabetes mellitus, antacid medication, peptic ulcer disease, immune disorder, etc.) greatly enhances the likelihood of developing a clinical syndrome such as gastroenteritis, wound infection, or septicemia [7]. V. parahaemolyticus possess four hemolytic components, including a thermostable direct hemolysin (TDH), a thermolabile direct hemolysin, phospholipase A, and lysophospholipase [7]. V. parahaemolyticus are invasive and can penetrate the lamina propria and enter circulation, as they have been found in the heart, spleen, pancreas, and liver [85].
During the past two decades in China, V. parahaemolyticus has been the most common cause of the bacterial foodborne outbreaks and among the leading causes of bacterial foodborne disease outbreak in many Asian countries, including Japan and India [88]. For the years 2003–2008 V. parahaemolyticus gastroenteritis outbreaks in 12 provinces were investigated from China National Foodborne Diseases Surveillance Network. 322 gastroenteritis outbreaks due to V. parahaemolyticus were reported, resulting in 9,041 illnesses and 3,948 hospitalizations [89]. A single food commodity was implicated in 187 (58%) outbreaks, of which 58 (31%) involved meat and meat products, and 52 (28%) involved aquatic products [89]. Outbreaks most frequently occurred in restaurants (39%), cafeterias (30%), and private residences (15%); to prevent and control V. parahaemolyticus gastroenteritis outbreaks, food workers and consumers should receive training on avoiding cross contamination of ready-to-eat foods with uncooked seafoods, particularly in warm weather months [89].
V. parahaemolyticus infection has been considered the leading cause of bacterial illnesses mainly associated with seafood consumption in Guangdong province in China [90]. From 2010 to 2014, 71 outbreaks due to V. parahaemolyticus were reported China National Foodborne Diseases Surveillance Network, resulting in 933 illnesses and 117 hospitalizations without death [90]. A food item was implicated if V. parahaemolyticus was isolated from food or based on epidemiologic evidence; aquatic products (27 outbreaks, 38.0%), meat and meat products (9 outbreaks, 12.7%), plant-based foods (6 outbreaks, 8.4%), mixed foods (5 outbreaks, 7.0%) were the most commonly implicated foods. Outbreaks most frequently occurred in restaurants (50.7%), private residents (21.1%), and cafeteria (12.7%) [90]. In order to prevent V. parahaemolyticus outbreaks caused by cross contamination, improper cooking and improper storage in high-temperature seasons, regulations for seafood safety from the production stage to the consumption stage should be strengthened [90].
Consumption of raw shellfish, primarily oysters, was linked to several multistate V. parahaemolyticus illness outbreaks in the US [88]. Animal-based (i.e. meats, such as poultry, internal organs, beef, deli meat and cured meat, and aquatic products, such as crustacean, mollusks and fish) foods were the most common single commodity reported (61%), followed by mixed foods (19%), and other foods (17%) [88].
The genus Yersinia belongs to the family Enterobacteriaceae and includes 10 established species, although only 3 are considered pathogenic to either humans or animals. Yersinia pestis is the causative agent of plague, Yersinia pseudotuberculosis is primarily an animal pathogen but may infect humans after the ingestion of contaminated food or water, and Yersinia enterocolitica has surfaced as a cause of foodborne gastroenteritis in humans [7,91]. Yersinia spp. are Gram-negative or gram-variable, non-spore-forming rods that grow under both aerobic and anaerobic conditions but are considered facultative anaerobes. With the exception of Y. pestis, all Yersinia spp. possess peritrichous flagella and are motile at 22–30 ℃ but not at 37 ℃ [7].
Twenty-six member states reported 7,202 confirmed cases of yersiniosis in 2015, making it the third most commonly reported zoonosis in the EU [4]. The EU notification rate was 2.20 cases per 100,000 population which was 6.8% higher than in 2014 [4]. There was a statistically significant decreasing 8-year trend in 2008–2015; Y. enterocolitica was the most common species reported to be isolated from human cases [4]. The most common serotype was O:3 followed by O:9 and O:5, 27. No fatalities were reported among the 4,304 confirmed yersiniosis cases for which this information was reported in 2015 [4].
Y. enterocolitica are widely distributed throughout the environment and have been isolated from raw milk, sewage-contaminated water, soil, seafood, humans, and many warm-blooded animals such as poultry and, most importantly, pigs [7]. As a psychrotroph, Y. enterocolitica may pose a health hazard in contaminated refrigerated foods, although under refrigeration temperatures the pathogen is usually outgrown by other competing psychrotrophs [92].
Y. enterocolitica grow at temperatures between 0 and 45 ℃ but prefer an optimum temperature between 25 and 30 ℃ [7]. This psychrotroph can survive alkaline conditions as well as any other gram-negative bacterium but does not survive well in acidic environments, because growth occurs between pH 4.0 and 10.0, with pH 7.6 being optimum [7]. Additionally, Y. enterocolitica can grow in the presence of sodium chloride at concentrations as high as 5% [7,10].
Not all serotypes of Y. enterocolitica are enteropathogenic, and the specific serotypes of Y. enterocolitica involved in hunian yersiniosis are prevalent primarily in swine. Ingestion of contaminated water or food. more specifically raw or undercooked pork, is a source of foodborne infection in humans, resulting in symptoms appearing after an incubation period of a few days to a week. Intestinal yersiniosis may persist for 1–2 weeks in adults and as long as 4 weeks in children and may include symptoms such as watery, sometimes bloody, stools or bloody diarrhea in conjunction with fever, vomiting, and abdominal pain [5,7]. Immunocompromised individuals and children under the age of 15 are most commonly infected, and extraintestinal infections associated with yersiniosis include septicemia, meningitis, Reiter syndrome, myocarditis, glomerulonephritis, thyroiditis, and erythema nodosum [85,91]. Y. enterocolitica toxin is heat stable, resists enzymatic degradation, remains stable during prolonged storage, and is of similar pH stability as the thermostable enterotoxin produced by ETEC [92].
In July 2011, a cluster of Y. enterocolitica infections was detected in southwestern Pennsylvania, US [92]. The outbreak was investigated for the source, in order to prevent further transmission; twenty-two persons were diagnosed with yersiniosis; 16 of whom reported consuming pasteurized dairy products from a local dairy [92]. Because consumption of pasteurized milk is common and outbreaks have the potential to become large, public health interventions such as consumer advisories or closure of the dairy must be implemented quickly to prevent additional cases if epidemiological or laboratory evidence implicates pasteurized milk as the outbreak source [92]. In addition, Y. enterocolitica serogroup O:8 was isolated from 24 fecal specimens of 21 patients and 3 kitchen staff in an outbreak in Japan; fresh vegetable salad was confirmed as the incrimination food of this outbreak [93].
Viruses are particulate in nature and multiply only in other living cells. Thus, they are incapable of survival for long periods outside the host. More than 100 types of enteric viruses have been shown to cause foodborne illness; the most common foodborne virus pathogens are Hepatitis A and Noroviruses. These viruses are frequently transmitted via food; bivalve molluscs, such as clams, cockles, mussels, and oysters, are especially prone to transmit viruses. The waters in which they grow are increasingly subject to human fecal contamination, sometimes from sewage discharges and sometimes from infected shellfish harvesters. The shellfish collect viruses in the course of their filter feeding activity. Human viruses do not infect these species, but they are harbored for days or weeks in the shellfish digestive tract and are apparently more difficult to remove than bacteria during processes intended to cleanse the shellfish (e.g. depuration) [94,95]. Unlike many other seafoods, shellfish are usually eaten with their digestive tracts in place. They are often eaten raw or lightly cooked. Shellfish, unlike other foods, may also protect viruses from thermal inactivation during cooking [96].
Hepatitis A virus particles are environmentally hardy organisms that can be transmitted by contaminated food, water, environmental surfaces (e.g., contaminated table tops, cooking utensils) and through direct or indirect person-to-person contact [5]. Hepatitis A cannot grow in the environment, however, they are considered to be extremely stable under a wide range of environmental conditions, including freezing, heat, chemicals, and desiccation [5]. Although Hepatitis A share some major characteristics with other genera of the picornavirus family, it is sufficiently different that it is classified as the only species in the genus Hepatovirus [97]. There are six Hepatitis A genotypes (Ⅰ-Ⅵ), as determined by RNA sequence analysis. Genotypes Ⅰ, Ⅱ, and Ⅲ contain strains associated with human infections, with the majority of human strains grouped within genotypes Ⅰ and Ⅲ. The virus is comprised of single positive-stranded RNA genome of approximately 7.5 kilobases and is a non-enveloped (i.e., no lipid-containing envelope), hydrophobic virus 22 to 30 nm in size [5].
The first recorded outbreak of shellfish-associated viral disease resulted from storing clean oysters in a fecally contaminated harbor while awaiting sale [98,99]. Over 600 cases of Hepatitis A resulted. More recently, outbreaks of viral gastroenteritis and Hepatitis A have been associated with eating usually uncooked shellfish. A clam-associated outbreak of Hepatitis A in Shanghai may have been the largest recorded outbreak of foodborne disease in history, with 292,301 cases [98]. Sporadic viral illnesses associated with shellfish have also been demonstrated [99]; it is difficult to avoid bias entirely in such studies because, at least in coastal states, a diagnosis of Hepatitis A regularly leads to asking the patient about shellfish consumption, to the exclusion of other foods. Shellfish-growing waters are typically monitored for fecal contamination by testing for bacteria of the fecal coliform group or for Escherichia coli. The presence of these bacteria, however, has been shown to be a poor predictor of the presence of human enteric viruses [100]. Unfortunately, no more accurate index of the presence of viruses in shellfish or their growing waters has yet been identified. Because it has no other way to guarantee the safety of raw cockles, the U.K. government allows their sale only if cooked by an approved method.
In 2003, a series of Hepatitis A outbreaks resulted in 1,000 cases of illness across multiple states and 3 deaths. The outbreaks were linked to green onions imported from four farms in Mexico where hepatitis A is endemic and the FDA subsequently banned imports from these farms [101].
The multinational Hepatitis A outbreaks occurring in Europe in 2013 and 2014 with over 1,400 cases linked to fresh and frozen strawberries and berry mix evidenced the usefulness of virus sequencing to link sporadic cases reported in different EU countries in outbreaks [102,103]. However, due to different sequencing practices and protocols in EU, the interpretation of the sequencing results was often challenging and untimely. Molecular data based on WGS are increasingly replacing the numerous different methodologies currently in use in human and veterinary reference laboratories for outbreak investigation and attribution modeling. These methods have the potential for early identification of foodborne organisms with epidemic character and the resulting data is beginning to be integrated into risk assessment studies. The epidemic potential of a virus genotype or even a subtype, may vary considerably, and is a function of its inherent genetic characteristics and their capacity to mutate, survive and spread through the food chain.
The numbers of reported foodborne illnesses are fewer than actually occur because the CDC's passive data collection system records only illnesses occurring as outbreaks, rather than those occurring sporadically. Hepatitis A, which is notoriously under reported in the US [104], is the only foodborne viral disease in which official reporting is mandatory for all diagnosed cases. Thus, records of the incidence of the other viral diseases are certain to be less accurate.
Norovirus cause the majority of acute viral gastroenteritis cases worldwide, including an estimated 5.4 million episodes of foodborne illnesses in the US annually [13]. In addition, according to the WHO, Norovirus is nowadays the leading cause of acute gastroenteritis among children less than 5 years of age who seek medical care [105].
Noroviruses are nonenveloped viruses with a diameter of 30–35 nm and a single-stranded RNA genome of approximately 7.5 kb. The viruses are very diverse and are classified into six genogroups of which only three cause infection in humans; within these genogroups, 30 genotypes have been described to date [106]. Recent improvements to diagnostic techniques have allowed researchers to describe the significant contribution of this highly infectious RNA virus to the burden of food-borne illness, particularly as the cause of numerous outbreaks of food-borne disease in community settings such as nursing homes, hospitals, the military, and cruise ships [107,108].
Fecal-oral spread is the primary mode of transmission. The virus's abilities to withstand a wide range of temperatures (from freezing to 60 ℃) and to persist on environmental surfaces and food items contribute to rapid dissemination, particularly via secondary spread (via food handlers or to family members) [108]. Food can be contaminated at the source (via contaminated water) or during preparation [108]. Prevention of infection is difficult because these viruses can persist on environmental surfaces and food items. Comparison of Norovirus sequences collected from around the world over the past decade have raised the possibility that pandemic strains of Norovirus are spread through foods sold internationally, or through person-to-person contact when travelers carry the virus [108,109]. Recent evidence suggests the possibility of animal reservoirs, but direct zoonotic transmission appears to be rare [110].
Cruise ships provide ideal conditions for the introduction and the rapid, global spread of Norovirus infection. Thousands of passengers from different geographic areas are transported in close quarters to multiple destinations around the world. Passengers and crew often disembark at multiple ports throughout the cruise where they can sample the local foods and culture. Cruise ships account for 10% of all reported outbreaks of Norovirus in the US [13]. With the average carrying capacity of a cruise ship now exceeding 2,500 passengers and crew, these outbreaks often affect a large number of people. In 2010, outbreaks of diarrhea and vomiting among passengers and crew on the Celebrity Cruise ship "Mercury" occurred during three consecutive sailings. More than 10–22% of the passengers and 2–4% of the crew fell ill during each trip, resulting in a total of 1,058 cases of illness over the course of a month [111].
An outbreak of Norovirus gastroenteritis that affected as many as 24 players and staff members from 13 National Basketball Association teams were affected with gastroenteritis symptoms was reported [112]. Four of 5 stool specimens from ill players and staff tested positive for Norovirus genogroup Ⅱ, with the majority of illness occurring during the first week of December 2010; epidemiologic and laboratory evidence strongly suggested that person to person transmission occurred within at least 1 team during this outbreak [112].
In another study, 286 fecal specimens from 88 oyster-associated gastroenteritis outbreaks were examined for the presence of 10 human enteric viruses using antigenic or genetic detection methods in order to determine the prevalence of these infections [113]. All virus-positive patients were over 18 years old. The most common enteric virus in outbreaks (96.6%) and fecal specimens (68.9%) was Norovirus, indicating a high prevalence of Norovirus infection associated with the consumption of raw or under-cooked oysters. Rapid identification of pathogens is important for the development of means for control and prevention. The results of the present study will be useful to establish an efficient approach for the identification of viral pathogens in oyster-associated gastroenteritis in adults [113].
Norovirus outbreaks occur frequently in EU and it can be difficult to establish whether apparently independent outbreaks have the same origin [114]. Six outbreaks linked to frozen raspberries, were investigated separately over a period of 3 months. In one outbreak at a hospital canteen, frozen raspberries was associated with illness by cohort investigation. Bags of raspberries suspected to be the source were positive for genogroup Ⅰ and Ⅱ Noroviruses, one typable virus was genotype GI.6 [114]. These molecular investigations showed that the apparently independent outbreaks were the result of one contamination event of frozen raspberries. The contaminated raspberries originated from a single producer in Serbia and were originally not considered to belong to the same batch. The outbreaks led to consultations and mutual visits between producers, investigators and authorities. Further, Danish legislation was changed to make heat-treatment of frozen raspberries compulsory in professional catering establishments [115].
Foodborne viruses cause considerable morbidity and mortality. Controlling them still means relying on good personal and food hygiene, good agricultural practice, post-harvest controls and effective management of human sewage to prevent onward transmission [115]. The role of the asymptomatic food handlers in contributing to Norovirus outbreaks is becoming increasingly clear, with up to one-quarter of outbreaks attributable to them; handwashing with soap and water remains the best method for removing Norovirus from fingers [115]. However, hand sanitizers formulations supplemented with urea and citric acid may be more effective against viruses such as Norovirus [116].
Risk assessment for transmission of emerging viruses through the food chain should include consideration of all means by which food could pose a hazard, that is not just consumption. New technologies have demonstrated the widespread nature of viral contamination in the food chain, but this does not necessarily correlate with the risk of disease. Finally, understanding people's knowledge and behaviour is just as important as understanding virus characteristics and epidemiology when assessing risks of foodborne transmission [114].
Parasites are one-celled microorganisms without a rigid cell wall, but with an organized nucleus. They are larger than bacteria. Like viruses, they do not multiple in foods, only in hosts. The transmissible form of these organisms is termed a cyst. Parasites are organisms that derive nourishment and protection from other living organisms known as hosts. They may be transmitted from animals to humans, from humans to humans, or from humans to animals. Several parasites have emerged as significant causes of foodborne and waterborne illness. These organisms live and reproduce within the tissues and organs of infected human and animal hosts, and are often excreted in faeces. The most common foodborne parasites are Cyclospora cayetanensis, Toxoplasma gondii and Trichinella spiralis.
In 2015,156 confirmed trichinellosis and 41 cases of congenital toxoplasmosis were reported in the EU. The EU notification was 0.03 cases per 100,000 population, and decreased by 57.1% compared with 2014 when the highest notification rate was reported since 2010 [4]. Lithuania reported the highest notification rate followed by Romania and Bulgaria. France reported data with 2-year delay, 216 confirmed congenital toxoplasmosis cases in 2014 [4].
The significant burden in low-and middle-income countries where cycles of parasitic infection are highly specific to food sources all over the world has been emphasized [118]. 357 million cases, 33,900 deaths and 2.94 million disability-adjusted life years (DALYs) are due to enteric protozoa of which 67.2 million cases, 5,560 deaths and 492,000 DALYs are attributable to foodborne transmission [118].
Cyclosporra cayetanensis are protozoan parasites, belonging to the family Eimeriidae, that inhabit the small intestine, where they spend the intermediary life cycle stages in the cytoplasm of enterocytes and subsequently produce oocysts containing two sporocysts encapsulating four sporozoites [7]. After subsequent shedding of the oocysts, 7–15 days are required for sporulation to occur. 2 genomes of C. cayetanensis have been completed up to now according to the data retrieved from NCBI. The median total length of the genome is 44.2991 Mb [12].
C. cayetanensis is capable of causing prolonged illness (6 weeks or longer) in both immunocompromised and immunocompetent individuals, with characteristic symptoms including nonbloody diarrhea, nausea, vomiting, anorexia, bloating, abdominal cramping, malaise, fever, and fatigue [7].
Between 1996 and 1998 C. cayetanensis was identified as the etiologic agent in several outbreaks in the US and Canada involving raspberries, baby lettuce, and basil. Currently in the US, C. cayetanensis is estimated to cause about 15,000 cases of foodborne illness annually [3].
In 1996, 1,465 persons in 20 states, the District of Columbia, and two Canadian provinces became ill after consuming fresh raspberries that were imported from Guatemala and infected with the parasite C. cayetanensis [119].
Toxoplasma gondii is a protozoan parasite member of the phylum Apicomplexa, and an obligate intracellular pathogen that is the causal agent of toxoplasmosis in humans. T. gondii uses cats as its primary reservoir and any other warm-blooded animal as an intermediate host [7]. The protozoan may be present as tachyzoites, bradyzoites, or sporozoites, which are the three stages of its life cycle. Tachyzoites and bradyzoites occur in body tissues, where the tachyzoites proliferate and destroy infected host cells and the bradyzoites multiply within tissue cysts. Sporozoites are shed, within oocysts, in cat feces where they sporulate after 1–5 days, surviving for months by utilizing their ability to resist disinfectants, freezing, and drying [7]. 17 genomes of T. gondii have been completed up to now according to the data retrieved from NCBI. The median total length of the genome is 64.1936 Mb [12].
In humans, T. gondii can be acquired in several ways, including the ingestion of contaminated food or water containing the oocyst, contaminated blood transfusion or organ transplantation, transplacental transmission, or accidental tachyzoite inoculation. T. gondii infections typically result from the ingestion of cysts in raw or undercooked meat, with fresh pork and beef appearing to be the primary sources [7]. Toxoplasmosis can result from the ingestion of as few as 100 tissue cysts or oocysts, at which time cyst walls rupture, releasing the sporozoites or bradyzoites to move through the intestinal epithelium and circulate throughout the body [7]. Sporozoites and bradyzoites transform into tachyzoites and begin to rapidly multiply intracellularly, and after host cell death, the tachyzoites invade adjacent cells and repeat the reproduction process; these tachyzoites, by means of the host immune response, are forced to transform back into bradyzoites and form cysts in the local tissue, where they can remain throughout the life of the host organism [7]. Toxoplasmosis symptoms include fever, rash, headache, muscle aches and pain, and swelling of the lymph nodes and may persist for more than a month [5].
T. gondii is one of the world's most common parasites. Although cats are the only known host in which the parasite can complete its life cycle, this parasite can use almost all warm-blooded vertebrates, including humans, as hosts. T. gondii infections are estimated to cause approximately 87,000 illnesses, 4,400 hospitalizations, and 330 deaths each year in the US, making it the second leading cause of foodborne mortality in the US and the third leading cause of food-borne hospitalizations [13]. The most common sources of toxoplasma are undercooked meat, animal feces, and transmission from mother to unborn child. While most people infected with toxoplasma experience no symptoms, unborn children (who contract it from their mothers) and adults with compromised immune systems risk serious side effects. An estimated 22.5% of the US population over the age of 12 has been infected with toxoplasma. For some countries, this figure is as high as 95%.
Of particular concern are women of childbearing age who have not acquired immunity against this parasite since it can be transmitted via placenta to the fetus (congenital toxoplasmosis). The consequences of congenital toxoplasmosis range from mild to severe to fatal and include: mental retardation, seizures, blindness and death [13]. T. gondii is highly amenable to experimental manipulation in the laboratory, and serves as a model system for genetic exploration of parasite biology and host-parasite interactions; this organism has been successfully used in transformation studies with genes from the closely related apicomplexan relative Plasmodium falciparum [13].
Trichinella spirulis is a parasitic roundworm belonging to the Phylum Nematoda, responsible for most human trichinosis infections. Besides humans, T. spiralis can infect most carnivorous mammals. 2 genomes of T. spiralis have been completed up to now according to the data retrieved from NCBI. The median total length of the genome is 56.7757 Mb [12].
The adult worms are 1.4–1.8 mm in size and are found embedded in the epithelium of the host's small intestine, where females and males mate [7]. Female adults pass larvae into the blood stream and these reach muscle fiber where they encyst; larvae encysted in muscle remain viable for a long time [7]. The symptoms and pathogenicity are mainly due to the migrating and encystment process which cause pain, fever, edema, neurological disorders and even death. Adult nematodes live in the duodenal and jejunal mucosal epithelium, where they can exist for up to 8 weeks before they are expelled; during this transient period, adult female nematodes can release approximately 1,500 larvae into the bloodstream to travel around the body and subsequently enter muscle tissue, where they can survive for several years [7]. In skeletal muscle, larvae develop, mature, and undergo encapsulation in a calcified wall 6–18 months later. Both the larval and the adult stages are passed from the same host. Encysted larvae remain viable for up to 10 years and are freed by the stomach enzymes of the new host after the ingestion of the encysted flesh [7].
Symptoms, after an incubation period of 3–14 days, include nonspecific gastroenteritis, nausea, vomiting, headaches, fever, visual deficiencies, difficulty breathing, chills, night sweating, eosinophilia, myalgia, and circumorbital edema [7]. The nematode can be thermally inactivated, and therefore the USDA recommends cooking pork products to an internal temperature of 76.7 ℃ [7]. Currently in the US, T. spiralis is estimated to cause about 52 cases of foodborne illness annually, with a case fatality rate of 0.003 [3].
The WHO Foodborne Disease Burden Epidemiology Reference Group provided in 2015 an estimate of global foodborne disease incidence, mortality, and disease burden in terms of DALYs [105]. The global burden of foodborne hazards was 33 million DALYs in 2010; 40% affecting children under 5 years of age. The US CDC estimated that each year roughly 48 million people in the US gets sick, 128,000 are hospitalized, and 3,000 die from foodborne diseases [120]. The number of confirmed cases, hospitalizations and deaths caused by the most common foodborne pathogens reported in the Foodborne Diseases Active Surveillance Network, US, 2015 is shown in Table 2. These major foodborne pathogens also represent an important economic concern; the annual economic impact in the US from health loss alone is estimated as more than $USD 77 billion [122]. A single outbreak from E. coli O104 in Germany was estimated to cost more than $USD 3.5 billion in medical costs and a further $USD 304 million was paid by the European Commission for crop losses due to not selling the fresh produce [123]. The economic impact of food safety outbreaks on food businesses has been analysed recently [124].
Pathogen | No of cases | Hospitalizations (%) | Deaths (%) |
Campylobacter spp. | 6,309 | 1,065 (17) | 11 (0.2) |
Listeria spp. | 116 | 111 (96) | 15 (12.9) |
Salmonella spp. | 7,728 | 2,074 (27) | 32 (0.4) |
Shigella spp. | 2,688 | 619 (23) | 1 (0.0) |
Shiga toxin-producing Escherichia coli O157 | 463 | 180 (39) | 3 (0.6) |
Shiga toxin-producing Escherichia coli non-O157 | 796 | 126 (16) | 1 (0.1) |
Vibrio spp. | 192 | 47 (24) | 5 (2.6) |
Yersinia spp. | 139 | 37 (27) | 1 (0.7) |
Parasites | 1,676 | 272 (16) | 8 (0.5) |
Total | 20,107 | 4,531 | 77 |
After: [121]. |
Continued surveillance for foodborne disease outbreaks is important to reveal trends in the foods, regions and pathogens associated. In this field, genotype and subtype information from food contaminant strains is required to trace the transmission source, and to characterize and compare strains. The use of WGS as a tool for subtyping foodborne pathogen isolates has considerable potential for improving the detection of foodborne disease outbreaks, rapidly [125]. Furthermore, as suggested by subtyping data, different strains of foodborne pathogens are differently associated with human disease and such differences can be attributed, among others, to the hardy nature of certain strains enabling them to survive and proliferate in food-related environments, or to their increased virulence towards humans [126,127,128]. Hence, strain variability data can also facilitate the assessment of the relationships among various characteristics of foodborne pathogens including their virulence, distribution and epidemiology [129].
From the studies reviewed, the foods implicated in foodborne outbreaks are: fish and seafood [70,88,89,90,94,95,96,113], liver pâtè [24,25,26,27,28,29,30], chicken products [33,36], meat and meat products [37,51,52,68,76], ice cream [71], raw milk [31], rice dishes [15,16], pasta and pasta salad [18,19], peanuts [72], flour [61,62], cold sandwiches [83], fruit juices [35] and fresh produce [49,50,53,54,55,56,57,58,59,60,67,69,73,74,75,84,93,101,102,103,114]. Fresh produce have attracted great attention during the last 20 years, and it seems that there is some weakness of available international networks, as detection and real-time data show [130].
Risk-based food safety approach is significantly different, compared to the classical hazard-based approach, leading to a major shift in thinking about the ways that science and policy-making in food safety should interplay [131]. In this context, a food safety management system is aiming to estimate the risks to human health from food consumption and to identify, select and implement mitigation strategies in order to control and reduce these risks. According to the Codex Alimentarius, risk analysis is a process consisting of three components: risk assessment, risk management and risk communication [132,133]. It is now generally recognized that the new approach allows for a sharper diagnosis of food safety problems and the identification of effective mitigation strategies to properly deal with them [132].
Foodborne diseases are a global issue, and a unified and joint approach by all countries and the relevant international organizations is a prerequisite for the identification and control of all emerging foodborne problems that threaten human health and international trade [134]. Most foodborne illnesses are preventable despite being complex in their biology, analysis and epidemiology. Certainly, a combination of knowledge and skills across disciplines is required. Public health agencies, regulatory agencies, the food industry and consumers need to make continuous efforts to prevent contamination of foods on the farm, in processing, in restaurants and homes. With suitable food safety education programs for all involved people, numbers of cases of foodborne illnesses could be minimized.
The author declares no conflict of interests in this paper.
[1] | Hutt PB, Hutt PB II (1984) A history of government regulation of adulteration and misbranding of food. Food Drug Cosm Law J 39: 2–73. |
[2] | CDC, What is a foodborne disease outbreak and why do they occur, 2012. Available from: http://www.cdc.gov/foodsafety/facts.html#whatisanoutbreak. |
[3] |
Mead PS, Slutsker L, Dietz V, et al. (1999) Food-related illness and death in the United States. Emerg Infect Dis 5: 607–625. doi: 10.3201/eid0505.990502
![]() |
[4] | EFSA (European Food Safety Authority) and ECDC (European Centre for Disease Prevention and Control) (2016) The European Union summary report on trends and sources of zoonoses, zoonotic agents and food-borne outbreaks in 2015. EFSA J 14: 4634–4865. |
[5] | FDA, Bad Bug Book, Foodborne Pathogenic Microorganisms and Natural Toxins, Second Edition, 2012. Available from: https://www.fda.gov/Food/FoodborneIllnessContaminants/CausesOfIllnessBadBugBook/. |
[6] | IFT (2004) Bacteria associated with foodborne diseases. Institute of food technologists-Scientific Status Summary. August 2004: 1–25. |
[7] | Bacon RT, Sofos JN (2003) Characteristics of Biological Hazards in Foods, In: Schmidt RH, Rodrick GE, Editors, Food Safety Handbook, New Jersey: John Wiley & Sons, Inc., 157–195. |
[8] | Rajkowski KT, Smith JL (2001) Update: Food Poisoning and Other Diseases Induced by Bacillus cereus, In: Hui YH, Pierson MD, Gorham JR, Editors, Foodborne Disease Handbook, New York: Markel Dekker, Inc., 61–76. |
[9] |
Andersson A, Rönner U, Granum PE (1995) What problems does the food industry have with the spore-forming pathogens Bacillus cereus and Clostridium perfringens? Int J Food Microbiol 28: 145–155. doi: 10.1016/0168-1605(95)00053-4
![]() |
[10] | ICMSF (1996) Micro-organisms in Foods 5, Characteristics of Microbial Pathogens, New York: Kluwer Academic/Plenum Publishers. |
[11] |
Arnesen LPS, Fagerlund A, Granum PE (2008) From soil to gut: Bacillus cereus and its food poisoning toxins. FEMS Microbiol Rev 32: 579–606. doi: 10.1111/j.1574-6976.2008.00112.x
![]() |
[12] | NCBI, National Centre for Biotechnology Information, 2017. Available at: https://www.ncbi.nlm.nih.gov/genome. |
[13] |
Scallan E, Hoekstra RM, Angulo FJ, et al. (2011) Foodborne illness acquired in the United States -major pathogens. Emerg Infect Dis 17: 7–15. doi: 10.3201/eid1701.P11101
![]() |
[14] |
Scallan E, Griffin PM, Angulo FJ, et al. (2011) Foodborne illness acquired in the United States-unspecified agents. Emerg Infect Dis 17: 16–22. doi: 10.3201/eid1701.P21101
![]() |
[15] |
Bennett SD, Walsh KA, Gould LH (2013) Foodborne disease outbreaks caused by Bacillus cereus, Clostridium perfringens, and Staphylococcus aureus-United States, 1998–2008. Clin Infect Dis 57: 425–433. doi: 10.1093/cid/cit244
![]() |
[16] | Martinelli D, Fortunato F, Tafuri S, et al. (2013) Lessons learnt from a birthday party: a Bacillus cereus outbreak, Bari, Italy, January 2012. Ann 1st Super Sanità 49: 391–394. |
[17] | Wijnands LM, Bacillus cereus associated food borne disease: quantitative aspects of exposure assessment and hazard characterization, Dissertation, Wageningen University, 2008. Available at: http://library.wur.nl/WebQuery/wurpubs/366677. |
[18] |
Naranjo M, Denayer S, Botteldoorn N, et al. (2011) Sudden death of a young adult associated with Bacillus cereus food poisoning. J Clin Microb 49: 4379–4381. doi: 10.1128/JCM.05129-11
![]() |
[19] |
Dierick K, Coillie EV, Swiecicka I, et al. (2005) Fatal family outbreak of Bacillus cereus-associated food poisoning. J Clin Microbiol 43: 4277–4279. doi: 10.1128/JCM.43.8.4277-4279.2005
![]() |
[20] |
Humphrey T, O'Brien S, Madsen M (2007) Campylobacters as zoonotic pathogens: A food production perspective. Int J Food Microbiol 117: 237–257. doi: 10.1016/j.ijfoodmicro.2007.01.006
![]() |
[21] |
Schaffner N, Zumstein J, Parriaux A (2004) Factors influencing the bacteriological water quality in mountainous surface and groundwaters. Acta Hydroch Hydrob 32: 225–234. doi: 10.1002/aheh.200300532
![]() |
[22] |
Sean F, Altekruse SF, Stern NJ, et al. (1999) Campylobacter jejuni-An emerging foodborne pathogen. Emerg Infect Dis 5: 28–35. doi: 10.3201/eid0501.990104
![]() |
[23] |
Stern N, Jones D, Wesley I, et al. (1994) Colonization of chicks by non-culturable Campylobacter spp. Lett Appl Microbiol 18: 333–336. doi: 10.1111/j.1472-765X.1994.tb00882.x
![]() |
[24] |
Lahti E, Löfdahl M, Agren J, et al. (2017) Confirmation of a Campylobacteriosis outbreak associated with chicken liver pâtè using PFGE and WGS. Zoon Public Health 64: 14–20. doi: 10.1111/zph.12272
![]() |
[25] |
Abid MH, Wimalarathna J, Mills L, et al. (2013) Duck liver-associated outbreak of Campylobacteriosis among humans, United Kingdom, 2011. Emerg Infect Dis 19: 1310–1313. doi: 10.3201/eid1908.121535
![]() |
[26] | Edwards DS, Milne LM, Morrow K, et al. (2013) Campylobacteriosis outbreak associated with consumption of undercooked chicken liver pâte in the East of England, September 2011: identification of a dose-response risk. Epidemiol Infect 142: 352–357. |
[27] |
Farmer S, Keenan A, Vivancos R (2012) Food-borne Campylobacter outbreak in Liverpool associated with cross contamination from chicken liver parfait: Implications for investigation of similar outbreaks. Public Health 126: 657–659. doi: 10.1016/j.puhe.2012.02.004
![]() |
[28] |
Forbes KJ, Gormley FJ, Dallas JF, et al. (2009) Campylobacter immunity and coinfection following a large outbreak in a farming community. J Clin Microbiol 47: 111–116. doi: 10.1128/JCM.01731-08
![]() |
[29] | Inns T, Foster K, Gorton R (2010) Cohort study of a Campylobacteriosis outbreak associated with chicken liver parfait, United Kingdom, June 2010. Euro Surveill 15: 19704. |
[30] | CDC (2013) Multistate outbreak of Campylobacter jejuni infections associated with undercooked chicken livers-northeastern United States, Centers for Disease Control and Prevention. MMWR 62: 874–876. |
[31] | Franco DA, Williams CE (2001) Campylobacter jejuni, In: Hui YH, Pierson MD, Gorham JR, Editors, Foodborne Disease Handbook, New York: Markel Dekker, Inc., 83–105. |
[32] |
Moffatt CRM, Greig A, Valcanis M, et al. (2016) A large outbreak of Campylobacter jejuni infection in a university college caused by chicken liver pâté, Australia, 2013. Epidemiol Infect 144: 2971–2978. doi: 10.1017/S0950268816001187
![]() |
[33] |
Carter AT, Peck MW (2015) Genomes, neurotoxins and biology of Clostridium botulinum Group I and Group II. Res Microbiol 166: 303–317. doi: 10.1016/j.resmic.2014.10.010
![]() |
[34] |
Juliao PC, Maslanka S, Dykes J, et al. (2013) National outbreak of type A foodborne botulism associated with a widely distributed commercially canned hot dog chili sauce. Clin Infect Dis 56: 376–382. doi: 10.1093/cid/cis901
![]() |
[35] |
Marshall KM, Nowaczyk L, Raphael BH, et al. (2014) Identification and genetic characterization of Clostridium botulinum serotype A strains from commercially pasteurized carrot juice. Food Microbiol 44: 149–155. doi: 10.1016/j.fm.2014.05.009
![]() |
[36] | King LA (2008) Two severe cases of bolulism associated with industrially produced chicken enchiladas, France, August 2008. Euro Surveillance 13: 2418–2424. Available from: http://www.eurosurveillance.org/ViewArticle.aspx?ArticleId=18978. |
[37] |
Grass JE, Gould LH, Mahon BE (2013) Epidemiology of foodborne disease outbreaks caused by Clostridium perfringens, United States, 1998–2010. Foodborne Pathog Dis 10: 131–136. doi: 10.1089/fpd.2012.1316
![]() |
[38] |
Acheson P, Bell V, Gibson J, et al. (2016) Enforcement of science-using a Clostridium perfringens outbreak investigation to take legal action. J Public Health 38: 511–515. doi: 10.1093/pubmed/fdv060
![]() |
[39] | Jaradat ZW, Mousa WA, Elbetieha A, et al. (2014) Cronobacter spp.-opportunistic food-borne pathogens. A review of their virulence and environmental-adaptive traits. J Med Microbiol 63: 1023–1037. |
[40] |
Healy B, Cooney S, O'Brien S, et al. (2010) Cronobacter (Enterobacter sakazakii): An opportunistic foodborne pathogen. Foodborne Path Dis 7: 339–350. doi: 10.1089/fpd.2009.0379
![]() |
[41] |
Kandhai MC, Reij MW, van Puyvelde K, et al. (2004) A new protocol for the detection of Enterobacter sakazakii applied to environmental samples. J Food Protect 67: 1267–1270. doi: 10.4315/0362-028X-67.6.1267
![]() |
[42] |
Hochel I, Rüzicková H, Krásny L, et al. (2012) Occurence of Cronobacter spp. in retail foods. J Appl Microbiol 112: 1257–1265. doi: 10.1111/j.1365-2672.2012.05292.x
![]() |
[43] | Mitscherlich E, Marth EH (1984) Microbial Survival in the Environment: Bacteria and Rickettsiae Important in Human and Animal Health, Berlin: Springer-Verlag. |
[44] |
Garcia A, Fox JG, Besser TE (2010) Zoonotic enterohemorrhagic Eschericia coli: A one health perspective. ILAR J 51: 221–232. doi: 10.1093/ilar.51.3.221
![]() |
[45] |
Croxen MA, Law RJ, Scholz R, et al. (2013) Recent advances in understanding enteric pathogenic Escherichia coli. Clin Microbiol Rev 26: 822–880. doi: 10.1128/CMR.00022-13
![]() |
[46] | Wells JG, Davis BR, Wachsmuth IK, et al. (1983) Laboratory investigation of hemorrhagic colitis outbreaks associated with a rare Escherichia coli serotype. J Clin Microbiol 18: 512–520. |
[47] | Armstrong GL, Hollingsworth J, Morris JG (1996) Emerging foodborne pathogens: Escherichia coli O157:H7 as a model of entry of a new pathogen into the food supply of the developed world Epidemiol Rev 18: 29–51. |
[48] | Rasko DA, Webster DR, Sahl JW, et al. (2011) Origins of the E. coli strain causing an outbreak of hemolytic-uremic syndrome in Germany. New Engl J Med 365: 709–717. |
[49] |
Blaser MJ (2011) Deconstructing a lethal foodborne epidemic. New Engl J Med 365: 1835–1836. doi: 10.1056/NEJMe1110896
![]() |
[50] | Frank C, Faber MS, Askar M, et al. (2011) Large and ongoing outbreak of haemolytic uraemic syndrome, Germany, May 2011. Euro Surveill 16: S1–S3. |
[51] | CDC (Centers for Disease Control and Prevention) (1993) Update: Multistate outbreak of Escherichia coli O157:H7 infections from hamburgers-western United States, 1992–1993. MMWR 42: 258–263. |
[52] | FSIS (Food Safety and Inspection Service), Guidance for minimizing the risk of Escherichia coli O157:H7 and Salmonella in beef slaughter operations, 2002. Available from: http://www.haccpalliance.org/sub/food-safety/BeefSlauterGuide.pdf. |
[53] | CDC (2006) Ongoing multistate outbreak of Escherichia coli serotype O157:H7 infections associated with consumption of fresh spinach-United States, September 2006. MMWR 55: 1045–1046. |
[54] | Weise E, Schmit J (2007) Spinach recall: 5 faces. 5 agonizing deaths. 1 year later. USA Today: 24. |
[55] |
Jay MT, Colley M, Carychao D, et al. (2007) Escherichia coli O157:H7 in feral swine near spinach fields and cattle, central California coast. Emerg Infect Dis 13: 1908–1911. doi: 10.3201/eid1312.070763
![]() |
[56] |
Berger CN, Sodha SV, Shaw RK, et al. (2010) Fresh fruit and vegetables as vehicles for the transmission of human pathogens. Environ Microbiol 12: 2385–2397. doi: 10.1111/j.1462-2920.2010.02297.x
![]() |
[57] | Frank C, Werber D, Cramer JP, et al. (2011b) Epidemic profile of shiga-toxin-producing Escherichia coli O104:H4 outbreak in Germany. New Engl J Med 365: 1771–1780. |
[58] | Kupferschmidt K (2011) As E. coli outbreak recedes, new questions come to the fore. Science 33: 27. |
[59] | EFSA (2011) Technical report: Tracing seeds, in particular fenugreek (Trigonella foenum-graecum) seeds, in relation to the shiga toxin-producing E. coli (STEC) O104:H4 2011 outbreaks in Germany and France. EFSA Supporting Publications 8: 176. |
[60] | EFSA (2011) Scientific report of the EFSA: Shiga toxin-producing E. coli (STEC) O104:H4 2011 outbreaks in Europe: Taking stock. EFSA J 9: 2390–2412. |
[61] | CDC (2016) Multistate outbreak of Shiga toxin-producing Escherichia coli infections linked to flour. Atlanta, GA: US Department of Health and Human Services, Centers for Disease Control and Prevention. Available from: https://www.cdc.gov/ecoli/2016/o121-06-16/index.html. |
[62] |
Zhang G, Ma L, Patel N, et al. (2007) Isolation of Salmonella typhimurium from outbreak-associated cake mix. J Food Protect 70: 997–1001. doi: 10.4315/0362-028X-70.4.997
![]() |
[63] |
Buchanan RL, Goris LGM, Hayman MM, et al. (2017) A review of Listeria monocytogenes: An update on outbreaks, virulence, dose-response, ecology, and risk assessments. Food Control 75: 1–13. doi: 10.1016/j.foodcont.2016.12.016
![]() |
[64] |
Jemmi T, Stephen R (2006) Listeria monocytogenes: food-borne pathogen and hygiene indicator. Rev Sci Tech 25: 571–580. doi: 10.20506/rst.25.2.1681
![]() |
[65] |
Ghandhi M, Chikindas ML (2007) Listeria: A foodborne pathogen that knows how to survive. Int J Food Microbiol 113: 1–15. doi: 10.1016/j.ijfoodmicro.2006.07.008
![]() |
[66] |
Ferreira V, Wiedmann M, Teixaira P, et al. (2014) Listeria monocytogenes persistence in food-associated environments: Epidemiology, strain characteristics, and implications for public health. J Food Protect 77: 150–170. doi: 10.4315/0362-028X.JFP-13-150
![]() |
[67] |
Angelo KM, Conrad AR, Saupe A, et al. (2017) Multistate outbreak of Listeria monocytogenes infections linked to whole apples used in commercially produced, prepackaged caramel apples: United States, 2014–2015. Epidemiol Infect: 145: 848–856. doi: 10.1017/S0950268816003083
![]() |
[68] |
Raheem D (2016) Outbreaks of listeriosis associated with deli meats and cheese: an overview. AIMS Microbiol 2: 230–250. doi: 10.3934/microbiol.2016.3.230
![]() |
[69] | FDA, Environmental Assessment: Factors Potentially Contributing to the Contamination of Fresh Whole Cantaloupe Implicated in a Multi-State Outbreak of Listeriosis, 2011. Available from: https://www.fda.gov/Food/RecallsOutbreaksEmergencies/Outbreaks/ucm276247.htm. |
[70] | CDC, Multistate Outbreak of Salmonella Bareilly and Salmonella Nchanga Infections Associated with a Raw Scraped Ground Tuna Product (Final Update), 2012. Available from: https://www.cdc.gov/salmonella/bareilly-04-12/. |
[71] |
Hennessy TW, Hedberg CW, Slutsker L, et al. (1996) A national outbreak of Salmonella enteritidis infections from ice cream. New Engl J Med 334: 1281–1286. doi: 10.1056/NEJM199605163342001
![]() |
[72] |
Cavallaro E, Date K, Medus C, et al. (2011) Salmonella Typhimurium infections associated with peanut products. New Engl J Med 365: 601–610. doi: 10.1056/NEJMoa1011208
![]() |
[73] |
Maki DG (2009) Coming to grips with foodborne infection-peanut butter, peppers, and nationwide Salmonella outbreaks. New Engl J Med 360: 949–953. doi: 10.1056/NEJMp0806575
![]() |
[74] |
Penteado AL, Eblen BS, Miller AJ (2004) Evidence of salmonella internalization into fresh mangos during simulated postharvest insect disinfestation procedures. J Food Protect 67: 181–184. doi: 10.4315/0362-028X-67.1.181
![]() |
[75] |
Sivapalasingam SE, Barrett A, Kimura S, et al. (2003) A multistate outbreak of Salmonella enterica serotype newport infection linked to mango consumption: Impact of water-dip disinfestation technology. Clin Infect Dis 37: 1585–1590. doi: 10.1086/379710
![]() |
[76] |
Laufer AS, Grass J, Holt K, et al. (2015) Outbreaks of Salmonella infections attributed to beef-United States, 1973–2011. Epidemiol Infect 143: 2003–2013. doi: 10.1017/S0950268814003112
![]() |
[77] | Fonteneau L, Da Silva NJ, Fabre L (2017) Multinational outbreak of travel-related Salmonella Chester infections in Europe, summers 2014 and 2015. Eurosurveill 22: 1–11. |
[78] | O'Grady KA, Krause V (1999) An outbreak of salmonellosis linked to a marine turtle. Headache 30: 324–327. |
[79] | Group OFW (2006) OzFoodNet: enhancing foodborne disease surveillance across Australia: quarterly report, 1 October to 31 December 2005.Commun Dis Intell Q Rep 30: 148–153. |
[80] | CDC (2013) Multistate outbreak of Salmonella chester infections associated with frozen meals -18 states. MMWR 62: 979–982. |
[81] | Taylor J, Galanis E, Wilcott L, et al. (2012) Salmonella chester outbreak investigation team. An outbreak of salmonella chester infection in Canada: rare serotype, uncommon exposure, and unusual population demographic facilitate rapid identification of food vehicle. J Food Protect 75: 738–742. |
[82] | Vargas M, Gascon J, De Anta MTJ, et al (1999) Prevalence of Shigella enterotoxins 1 and 2 among Shigella strains isolated from patients with traveler's diarrhea. J Clin Microbiol 37: 3608–3611. |
[83] |
Hedberg CW, Levine WC, White KE, et al. (1992) An international foodborne outbreak of Shigellosis associated with a commercial airline. JAMA 268: 3208–3212. doi: 10.1001/jama.1992.03490220052027
![]() |
[84] | CDC (1999) Outbreaks of Shigella sonnei Infection Associated with Eating Fresh Parsley-United States and Canada, July-August 1998. Available from: https://www.cdc.gov/mmwr/preview/mmwrhtml/00056895.htm. |
[85] | Mossel DAA, Corry JE, Struijk CB, et al. (1995) Essentials of the microbiology of foods. A textbook for advanced studies, Chichester: John Wiley and Sons, 146–150. |
[86] | Kaper JB, Morris JG, Levine MM (1995) Cholera. Clin Microbiol Rev 8: 48–86. |
[87] |
Janda JM, Brenden R, De Benedetti JA, et al. (1988) Current perspectives on the epidemiology and pathogenesis of clinically significant Vibrio spp. Clin Microbiol Rev 1: 245–267. doi: 10.1128/CMR.1.3.245
![]() |
[88] |
Wu Y, Wen J, Ma Y, et al. (2014) Epidemiology of foodborne disease outbreaks caused by Vibrio parahaemolyticus, China, 2003–2008. Food Control 46: 197–202. doi: 10.1016/j.foodcont.2014.05.023
![]() |
[89] | Ma C, Deng X, Ke C, et al. (2013) Epidemiology and etiology characteristics of foodborne outbreaks caused by Vibrio parahaemolyticus during 2008–2010 in Guangdong Province, China. Foodborne Pathog Dis 11: 21–29. |
[90] |
Chen J, Zhang R, Qi X, et al. (2017) Epidemiology of foodborne disease outbreaks caused by Vibrio parahaemolyticus during 2010–2014 in Zhejuang Province, China. Food Control 77: 110–115. doi: 10.1016/j.foodcont.2017.02.004
![]() |
[91] | Cary JW, Linz JE, Bhatnagar D (2000) Microbial Foodborne Diseases: Mechanisms of Pathogenesis and Toxin Synthesis, Lancaster: Technomic Publishing Co, Inc. |
[92] |
Longenberger AH, Gronostaj MP, Yee GY, et al. (2014) Yersinia enterocolitica infections associated with improperly pasteurized milk products: southwest Pennsylvania, March–August, 2011. Epidemiol Infect 142: 1640–1650. doi: 10.1017/S0950268813002616
![]() |
[93] | Konishi N, Ishitsuka R, Yokoyama K, et al. (2016) Two outbreaks of Yersinia enterocolitica O:8 infections in Tokyo and the characterization of isolates. J Japan Assoc Infect Dis 90: 66–72. |
[94] |
Grohman GS, Murphy AM, Christopher PJ, et al. (1981) Norwalk virus gastroenteritis in volunteers consuming depurated oysters. Aust J Exp Biol Med Sci 59: 219–228. doi: 10.1038/icb.1981.17
![]() |
[95] | Power UF, Collins JK (1989) Differential depuration of polivirus, Escherichia coli, and a coliphage by the common mussel, Mytilus edulis. Appl Environ Microbiol 55: 1386–1390. |
[96] | Digirolamo R, Liston J, Matches JR (1970) Survival of virus in chilled, frozen, and processed oysters. Appl Environ Microbiol 20: 58–63. |
[97] |
Cuthbert JA (2001) Hepatitis A: Old and new. Clin Microbiol Rev 14: 38–58. doi: 10.1128/CMR.14.1.38-58.2001
![]() |
[98] |
Halliday ML, Lai LY, Zhou TK, et al. (1991) An epidemic of Hepatitis A attributable to the ingestion of raw clams in Shanghai, China. J Infect Dis 164: 852–859. doi: 10.1093/infdis/164.5.852
![]() |
[99] |
Koff RS, Grady GF, Chalmers TC, et al. (1967) Viral Hepatitis in a group of Boston hospitals-Importance of exposure to shellfish in a nonepidemic period. New Engl J Med 276: 703–710. doi: 10.1056/NEJM196703302761301
![]() |
[100] | Wait DA, Sobsey MD (1983) Method for recovery of enteric viruses from estuarine sediments with chaotropic agents. Appl Environ Microbiol 46: 379–385. |
[101] | CDC (2003) Hepatitis A outbreak associated with green onions at a restaurant-Monaca, Pennsylvania, 2003. MMWR 52: 1155–1157. |
[102] |
Chiapponi C, Pavoni E, Bertasi B, et al. (2014) Isolation and genomic sequence of hepatitis A virus from mixed frozen berries in Italy. Food Environ Virol 6: 202–206. doi: 10.1007/s12560-014-9149-1
![]() |
[103] |
Montano-Remacha C, Ricotta L, Alfonsi V, et al. (2014) Hepatitis A outbreak in Italy, 2013: a matched case-control study. Euro Surveill 19: 20906. doi: 10.2807/1560-7917.ES2014.19.37.20906
![]() |
[104] |
Blackwell JH, Cliver DO, Callis JJ, et al. (1985) Foodborne viruses: Their importance and need for research. J Food Protect 48: 717–723. doi: 10.4315/0362-028X-48.8.717
![]() |
[105] | WHO (2015) WHO estimates of the global burden of foodborne diseases. Geneva. |
[106] |
Iturriza-Gomara M, O'Brien SJ (2016) Foodborne viral infections. Curr Opin Infect Dis 29: 495–501. doi: 10.1097/QCO.0000000000000299
![]() |
[107] | Estes MK, Prasad BV, Atmar RL (2006) Noroviruses everywhere: Has something changed? Curr Opin Infect Dis 19: 467–474. |
[108] |
Glass RI, Parashar UD, Estes MK (2009) Norovirus gastroenteritis. New Engl J Med 361: 1776–1785. doi: 10.1056/NEJMra0804575
![]() |
[109] |
Verhoef L, Kouyos RD, Vennema H, et al. (2011) An integrated approach to identifying international foodborne norovirus outbreaks. Emerg Infect Dis 17: 412–418. doi: 10.3201/eid1703.100979
![]() |
[110] | Koopmans M (2008) Progress in understanding norovirus epidemiology. Curr Opin Infect Dis 21: 544–552. |
[111] |
McCarter YS (2009) Infectious disease outbreaks on cruise ships. Clin Microbiol Newsl 31: 161–168. doi: 10.1016/j.clinmicnews.2009.10.001
![]() |
[112] |
Desai R, Yen C, Wikswo M, et al. (2011) Transmission of norovirus among NBA players and staff, Winter 2010–2011. Clin Infect Dis 53: 1115–1117. doi: 10.1093/cid/cir682
![]() |
[113] |
Iritani N, Kaida A, Abe N, et al. (2014) Detection and genetic characterization of human enteric viruses in oyster-associated gastroenteritis outbreaks between 2001 and 2012 in Osaka City, Japan. J Med Virol 86: 2019–2025. doi: 10.1002/jmv.23883
![]() |
[114] |
Müller L, Schultz AC, Fonager J, et al. (2015) Separate norovirus outbreaks linked to one source of imported frozen raspberries by molecular analysis, Denmark, 2010–2011. Epidemiol Infect 143: 2299–2307. doi: 10.1017/S0950268814003409
![]() |
[115] |
Tuladhar E, Hazeleger WC, Koopmans M, et al. (2015) Reducing viral contamination from finger pads: handwashing is more effective than alcohol-based hand disinfectants. J Hosp Infect 90: 226–234. doi: 10.1016/j.jhin.2015.02.019
![]() |
[116] |
Ionidis G, Hubscher J, Jack T, et al. (2016) Development and virucidal activity of a novel alcohol-based hand disinfectant supplemented with urea and citric acid. BMC Infect Dis 16: 77. doi: 10.1186/s12879-016-1410-9
![]() |
[117] |
Iturriza-Gomara M, O'Brien SJ (2016) Foodborne viral infections. Curr Opin Infect Dis 29: 495–501. doi: 10.1097/QCO.0000000000000299
![]() |
[118] |
Murray CJL, Vos T, Lozano R, et al. (2012) Disability-adjusted life years (DALYs) for 291 diseases and injuries in 21 regions, 1990–2010: a systematic analysis for the global burden of disease study 2010. Lancet 380: 2197–2223. doi: 10.1016/S0140-6736(12)61689-4
![]() |
[119] |
Tauxe RV (2002) Emerging foodborne pathogens. Int J Food Microbiol 78: 31–41. doi: 10.1016/S0168-1605(02)00232-5
![]() |
[120] | CDC , Global diahrrea burden, 2015. Available from: http://www.cdc.gov/healthywater/global/diarrhea-burden.html/. |
[121] | JenniferY, Huang MPH, Olga L, et al. (2016) Infection with pathogens transmitted commonly through food and the effect of increasing use of culture-independent diagnostic tests on surveillance-Foodborne diseases active surveillance network, 10 U.S. Sites, 2012–2015. MMWR 65: 368–371. |
[122] |
Scharff RL (2012) Economic burden from health losses due to foodborne illness in the United States. J Food Protect 75: 123–131. doi: 10.4315/0362-028X.JFP-11-058
![]() |
[123] | Flynn D, Germany's E. coli outbreak most costly in history, Food safety news, 2011. Available from: http://www.foodsafetynews.com/2011/06/europes-o104-outbreak-most-costly-in-history/. |
[124] |
Hussain MA, Dawson CO (2013) Economic impact of food safety outbreaks on food businesses. Foods 2: 585–589. doi: 10.3390/foods2040585
![]() |
[125] |
Bergholz TM, Switt AIM, Wiedmann M (2014) Omics approaches in food safety: fulfilling the promise? Trends Microbiol 22: 275–281. doi: 10.1016/j.tim.2014.01.006
![]() |
[126] |
Sauders BD, Mangione K, Vincent C, et al. (2004) Distribution of Listeria monocytogenes molecular subtypes among human and food isolates from New York State shows persistence of human disease-associated Listeria monocytogenes strains in retail environments. J Food Protect 67: 1417–1428. doi: 10.4315/0362-028X-67.7.1417
![]() |
[127] |
Velge P, Cloeckaert A, Barrow P (2005) Emergence of Salmonella epidemics: the problems related to Salmonella enterica serotype Enteritidis and multiple antibiotic resistance in other major serotypes. Vet Res 36: 267–288. doi: 10.1051/vetres:2005005
![]() |
[128] |
Lianou A, Koutsoumanis KP (2013) Strain variability of the behavior of foodborne bacterial pathogens: A review. Int J Food Microbiol 167: 310–321. doi: 10.1016/j.ijfoodmicro.2013.09.016
![]() |
[129] |
Velge P, Roche SM (2010) Variability of Listeria monocytogenes virulence: a result of the evolution between saprophytism and virulence? Future Microbiol 5: 1799–1821. doi: 10.2217/fmb.10.134
![]() |
[130] |
Yeni F, Yavas S, Alpas H, et al. (2016) Most common foodborne pathogens and mycotoxins on fresh produce: A review of recent outbreaks. Crit Rev Food Sci 56: 1532–1544. doi: 10.1080/10408398.2013.777021
![]() |
[131] |
Barlow SM, Boobis AR, Bridges J, et al. (2015) The role of hazard- and risk-based approaches in ensuring food safety. Trends Food Sci Technol 46: 176–188. doi: 10.1016/j.tifs.2015.10.007
![]() |
[132] | Koutsoumanis KP, Aspridou Z (2015) Moving towards a risk-based food safety management. Curr Opin Food Sci 12: 36–41. |
[133] | CAC (1999) CAC/GL-30: Principles and Guidelines for the Conduct of Microbiological Risk Assessment. Codex Alimentarius Commission. |
[134] | Van de Venter T (2000) Emerging food-borne diseases: a global responsibility. Food Nutr Agr 26: 4–13. |
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4. | Xuetong Fan, Wenli Wang, Quality of fresh and fresh-cut produce impacted by nonthermal physical technologies intended to enhance microbial safety, 2020, 1040-8398, 1, 10.1080/10408398.2020.1816892 | |
5. | Ashwag Shami, Manal Mostafa, Kamel A. Abd-Elsalam, 2021, 9780128219102, 551, 10.1016/B978-0-12-821910-2.00011-4 | |
6. | Md. Akil Hossain, Hae-Chul Park, Kwang-Jick Lee, Sung-Won Park, Seung-Chun Park, JeongWoo Kang, In vitro synergistic potentials of novel antibacterial combination therapies against Salmonella enterica serovar Typhimurium, 2020, 20, 1471-2180, 10.1186/s12866-020-01810-x | |
7. | Rocio Arreguin-Campos, Kathia L. Jiménez-Monroy, Hanne Diliën, Thomas J. Cleij, Bart van Grinsven, Kasper Eersels, Imprinted Polymers as Synthetic Receptors in Sensors for Food Safety, 2021, 11, 2079-6374, 46, 10.3390/bios11020046 | |
8. | Maria Valentina Ignat, Liana Claudia Salanță, Oana Lelia Pop, Carmen Rodica Pop, Maria Tofană, Elena Mudura, Teodora Emilia Coldea, Andrei Borșa, Antonella Pasqualone, Current Functionality and Potential Improvements of Non-Alcoholic Fermented Cereal Beverages, 2020, 9, 2304-8158, 1031, 10.3390/foods9081031 | |
9. | Maryam Naseri, Mohsen Mohammadniaei, Yi Sun, Jon Ashley, The Use of Aptamers and Molecularly Imprinted Polymers in Biosensors for Environmental Monitoring: A Tale of Two Receptors, 2020, 8, 2227-9040, 32, 10.3390/chemosensors8020032 | |
10. | R. Preethi, D. Shweta, J. A. Moses, C. Anandharamakrishnan, Conductive hydro drying as an alternative method for egg white powder production, 2021, 39, 0737-3937, 324, 10.1080/07373937.2020.1788073 | |
11. | Anna Jakubczyk, Monika Karaś, Kamila Rybczyńska-Tkaczyk, Ewelina Zielińska, Damian Zieliński, Current Trends of Bioactive Peptides—New Sources and Therapeutic Effect, 2020, 9, 2304-8158, 846, 10.3390/foods9070846 | |
12. | Rebeca S. Rodriguez, Tana L. O’Keefe, Clarice Froehlich, Riley E. Lewis, Trever R. Sheldon, Christy L. Haynes, Sensing Food Contaminants: Advances in Analytical Methods and Techniques, 2021, 93, 0003-2700, 23, 10.1021/acs.analchem.0c04357 | |
13. | Ruyuan Zhang, Tarun Belwal, Li Li, Xingyu Lin, Yanqun Xu, Zisheng Luo, Nanomaterial‐based biosensors for sensing key foodborne pathogens: Advances from recent decades, 2020, 19, 1541-4337, 1465, 10.1111/1541-4337.12576 | |
14. | Urszula Złotek, Anna Jakubczyk, Kamila Rybczyńska-Tkaczyk, Paula Ćwiek, Barbara Baraniak, Sławomir Lewicki, Characteristics of New Peptides GQLGEHGGAGMG, GEHGGAGMGGGQFQPV, EQGFLPGPEESGR, RLARAGLAQ, YGNPVGGVGH, and GNPVGGVGHGTTGT as Inhibitors of Enzymes Involved in Metabolic Syndrome and Antimicrobial Potential, 2020, 25, 1420-3049, 2492, 10.3390/molecules25112492 | |
15. | Anna Jakubczyk, Urszula Złotek, Urszula Szymanowska, Kamila Rybczyńska-Tkaczyk, Krystyna Jęderka, Sławomir Lewicki, In vitro Antioxidant, Anti-inflammatory, Anti-metabolic Syndrome, Antimicrobial, and Anticancer Effect of Phenolic Acids Isolated from Fresh Lovage Leaves [Levisticum officinale Koch] Elicited with Jasmonic Acid and Yeast Extract, 2020, 9, 2076-3921, 554, 10.3390/antiox9060554 | |
16. | Manuela Cassotta, Tamara Yuliett Forbes-Hernández, Ruben Calderón Iglesias, Roberto Ruiz, Maria Elexpuru Zabaleta, Francesca Giampieri, Maurizio Battino, Links between Nutrition, Infectious Diseases, and Microbiota: Emerging Technologies and Opportunities for Human-Focused Research, 2020, 12, 2072-6643, 1827, 10.3390/nu12061827 | |
17. | Anqi Chen, Danhui Wang, Sam R. Nugen, Juhong Chen, An Engineered Reporter Phage for the Fluorometric Detection of Escherichia coli in Ground Beef, 2021, 9, 2076-2607, 436, 10.3390/microorganisms9020436 | |
18. | Omar Al-Mahmood, William C. Bridges, Xiuping Jiang, Angela M. Fraser, A longitudinal study: Microbiological evaluation of two halal beef slaughterhouses in the United States, 2021, 125, 09567135, 107945, 10.1016/j.foodcont.2021.107945 | |
19. | Georgios Dougas, Athanassios Tsakris, Stavroula Beleri, Eleni Patsoula, Maria Linou, Charalambos Billinis, Joseph Papaparaskevas, Molecular Evidence of a Broad Range of Pathogenic Bacteria in Ctenocephalides spp.: Should We Re-Examine the Role of Fleas in the Transmission of Pathogens?, 2021, 6, 2414-6366, 37, 10.3390/tropicalmed6010037 | |
20. | Xiuquan Shi, Liang Yu, Cui Lin, Ke Li, Jihua Chen, Hong Qin, Biotin exposure–based immunomagnetic separation coupled with sodium dodecyl sulfate, propidium monoazide, and multiplex real-time PCR for rapid detection of viable Salmonella Typhimurium, Staphylococcus aureus, and Listeria monocytogenes in milk, 2021, 00220302, 10.3168/jds.2020-19887 | |
21. | Xiao Liu, Yunfei Li, Rong Zhang, Lulu Huangfu, Guihong Du, Qisen Xiang, Inactivation effects and mechanisms of plasma-activated water combined with sodium laureth sulfate (SLES) against Saccharomyces cerevisiae, 2021, 0175-7598, 10.1007/s00253-021-11227-9 | |
22. | Ana Jurinjak Tušek, Anita Šalić, Davor Valinger, Tamara Jurina, Maja Benković, Jasenka Gajdoš Kljusurić, Bruno Zelić, The power of microsystem technology in the food industry – Going small makes it better, 2021, 68, 14668564, 102613, 10.1016/j.ifset.2021.102613 | |
23. | Afia Boumail, Alex Eyraud, Mounia Akassou, Mélanie Geffroy, Jean-Félix Sicard, Renaud Tremblay, Sergiy Olishevskyy, Validation of a Modified Version of Actero™ Salmonella Enrichment Media for Rapid Detection of Salmonella spp. in Environmental and Food Samples, 2020, 103, 1060-3271, 1326, 10.1093/jaoacint/qsaa026 | |
24. | Noureddine Benkeblia, In the landscape of SARS‐CoV ‐2 and fresh fruits and vegetables: The fake and hidden transmission risks , 2021, 0149-6085, 10.1111/jfs.12898 | |
25. | Kamelia M. Osman, Anthony D. Kappell, Ahmed Orabi, Khalid S. Al-Maary, Ayman S. Mubarak, Turki M. Dawoud, Hassan A. Hemeg, Ihab M. I. Moussa, Ashgan M. Hessain, Hend M. Y. Yousef, Krassimira R. Hristova, Poultry and beef meat as potential seedbeds for antimicrobial resistant enterotoxigenic Bacillus species: a materializing epidemiological and potential severe health hazard, 2018, 8, 2045-2322, 10.1038/s41598-018-29932-3 | |
26. | Brahmaiah Pendyala, Ankit Patras, Vybhav Vipul Sudhir Gopisetty, Michael Sasges, UV-C inactivation of microorganisms in a highly opaque model fluid using a pilot scale ultra-thin film annular reactor: Validation of delivered dose, 2021, 294, 02608774, 110403, 10.1016/j.jfoodeng.2020.110403 | |
27. | Ahmad Y. Hassan, Janet T. Lin, Nicole Ricker, Hany Anany, The Age of Phage: Friend or Foe in the New Dawn of Therapeutic and Biocontrol Applications?, 2021, 14, 1424-8247, 199, 10.3390/ph14030199 | |
28. | Kassiani Mellou, Maria Kyritsi, Anthi Chrysostomou, Theologia Sideroglou, Theano Georgakopoulou, Christos Hadjichristodoulou, Clostridium perfringens Foodborne Outbreak during an Athletic Event in Northern Greece, June 2019, 2019, 16, 1660-4601, 3967, 10.3390/ijerph16203967 | |
29. | Rutchanee Rodpai, Oranuch Sanpool, Tongjit Thanchomnang, Arporn Wangwiwatsin, Lakkhana Sadaow, Weeraya Phupiewkham, Patcharaporn Boonroumkaew, Pewpan M. Intapan, Wanchai Maleewong, Suzanne L. Ishaq, Investigating the microbiota of fermented fish products (Pla-ra) from different communities of northeastern Thailand, 2021, 16, 1932-6203, e0245227, 10.1371/journal.pone.0245227 | |
30. | Kálmán Imre, Viorel Herman, Adriana Morar, Scientific Achievements in the Study of the Occurrence and Antimicrobial Susceptibility Profile of Major Foodborne Pathogenic Bacteria in Foods and Food Processing Environments in Romania: Review of the Last Decade, 2020, 2020, 2314-6133, 1, 10.1155/2020/5134764 | |
31. | Thomas Bintsis, Microbial pollution and food safety, 2018, 4, 2471-1888, 377, 10.3934/microbiol.2018.3.377 | |
32. | Shima Mohammadi Pelarti, Leila Karimi Zarehshuran, Laleh Babaeekhou, Maryam Ghane, Antibacterial, anti-biofilm and anti-quorum sensing activities of Artemisia dracunculus essential oil (EO): a study against Salmonella enterica serovar Typhimurium and Staphylococcus aureus, 2021, 0302-8933, 10.1007/s00203-020-02138-w | |
33. | Peuli Nath, Alamgir Kabir, Somaiyeh Khoubafarin Doust, Zachary Joseph Kreais, Aniruddha Ray, Detection of Bacterial and Viral Pathogens Using Photonic Point-of-Care Devices, 2020, 10, 2075-4418, 841, 10.3390/diagnostics10100841 | |
34. | Samer Kharroubi, Nivin A. Nasser, Marwa Diab El-Harakeh, Abdallah Alhaj Sulaiman, Issmat I. Kassem, First Nation-Wide Analysis of Food Safety and Acceptability Data in Lebanon, 2020, 9, 2304-8158, 1717, 10.3390/foods9111717 | |
35. | Hong Qin, Xiuquan Shi, Liang Yu, Ke Li, Jianwu Wang, Jihua Chen, Fei Yang, Haiyan Xu, Huilan Xu, Multiplex real-time PCR coupled with sodium dodecyl sulphate and propidium monoazide for the simultaneous detection of viable Listeria monocytogenes, Cronobacter sakazakii, Staphylococcus aureus and Salmonella spp. in milk, 2020, 108, 09586946, 104739, 10.1016/j.idairyj.2020.104739 | |
36. | Patricia Combarros-Fuertes, Leticia M. Estevinho, Rita Teixeira-Santos, Acácio G. Rodrigues, Cidália Pina-Vaz, Jose M. Fresno, M. Eugenia Tornadijo, Antibacterial Action Mechanisms of Honey: Physiological Effects of Avocado, Chestnut, and Polyfloral Honey upon Staphylococcus aureus and Escherichia coli, 2020, 25, 1420-3049, 1252, 10.3390/molecules25051252 | |
37. | Luc Van Puyvelde, Abdallah Aissa, Sujogya Kumar Panda, Wim M. De Borggraeve, Marie Jeanne Mukazayire, Walter Luyten, Bioassay-guided isolation of antibacterial compounds from the leaves of Tetradenia riparia with potential bactericidal effects on food-borne pathogens, 2021, 273, 03788741, 113956, 10.1016/j.jep.2021.113956 | |
38. | Iva Šikuten, Petra Štambuk, Željko Andabaka, Ivana Tomaz, Zvjezdana Marković, Domagoj Stupić, Edi Maletić, Jasminka Karoglan Kontić, Darko Preiner, Grapevine as a Rich Source of Polyphenolic Compounds, 2020, 25, 1420-3049, 5604, 10.3390/molecules25235604 | |
39. | Kadry Z. Ghanem, Mohamed Z. Mahran, Manal M. Ramadan, Hassan Z. Ghanem, Mohamed Fadel, Mohamed H. Mahmoud, A comparative study on flavour components and therapeutic properties of unfermented and fermented defatted soybean meal extract, 2020, 10, 2045-2322, 10.1038/s41598-020-62907-x | |
40. | Veronica R. Campbell, Mariam S. Carson, Amelia Lao, Kajal Maran, Eric J. Yang, Daniel T. Kamei, Point-of-Need Diagnostics for Foodborne Pathogen Screening, 2021, 26, 2472-6303, 55, 10.1177/2472630320962003 | |
41. | Hagen Frickmann, Juliane Alker, Jessica Hansen, Juan Carlos Dib, Andrés Aristizabal, Gustavo Concha, Ulrich Schotte, Simone Kann, Seasonal Differences in Cyclospora cayetanensis Prevalence in Colombian Indigenous People, 2021, 9, 2076-2607, 627, 10.3390/microorganisms9030627 | |
42. | Pooja Sharma, Jetsada Wichaphon, Wannaporn Klangpetch, Antimicrobial and antioxidant activities of defatted Moringa oleifera seed meal extract obtained by ultrasound-assisted extraction and application as a natural antimicrobial coating for raw chicken sausages, 2020, 332, 01681605, 108770, 10.1016/j.ijfoodmicro.2020.108770 | |
43. | Arin Gucchait, Pradip Shit, Anup Kumar Misra, Concise synthesis of a tetrasaccharide related to the repeating unit of the cell wall O-antigen of Salmonella enterica O60, 2020, 76, 00404020, 131412, 10.1016/j.tet.2020.131412 | |
44. | Olga Kosakowska, Zenon Węglarz, Ewelina Pióro-Jabrucka, Jarosław L. Przybył, Karolina Kraśniewska, Małgorzata Gniewosz, Katarzyna Bączek, Antioxidant and Antibacterial Activity of Essential Oils and Hydroethanolic Extracts of Greek Oregano (O. vulgare L. subsp. hirtum (Link) Ietswaart) and Common Oregano (O. vulgare L. subsp. vulgare), 2021, 26, 1420-3049, 988, 10.3390/molecules26040988 | |
45. | Astha Thakali, Jean D. MacRae, A review of chemical and microbial contamination in food: What are the threats to a circular food system?, 2021, 194, 00139351, 110635, 10.1016/j.envres.2020.110635 | |
46. | Chrysa Voidarou, Athanasios Alexopoulos, Anastasios Tsinas, Georgios Rozos, Athina Tzora, Ioannis Skoufos, Theodoros Varzakas, Eugenia Bezirtzoglou, Effectiveness of Bacteriocin-Producing Lactic Acid Bacteria and Bifidobacterium Isolated from Honeycombs against Spoilage Microorganisms and Pathogens Isolated from Fruits and Vegetables, 2020, 10, 2076-3417, 7309, 10.3390/app10207309 | |
47. | Iwona Kawacka, Agnieszka Olejnik-Schmidt, Marcin Schmidt, Anna Sip, Natural Plant-Derived Chemical Compounds as Listeria monocytogenes Inhibitors In Vitro and in Food Model Systems, 2020, 10, 2076-0817, 12, 10.3390/pathogens10010012 | |
48. | Monika Novak Babič, Cene Gostinčar, Nina Gunde-Cimerman, Microorganisms populating the water-related indoor biome, 2020, 104, 0175-7598, 6443, 10.1007/s00253-020-10719-4 | |
49. | Gözde Ekici, Emek Dümen, 2019, 10.5772/intechopen.82375 | |
50. | Max Weston, Shu Geng, Rona Chandrawati, Food Sensors: Challenges and Opportunities, 2021, 2365-709X, 2001242, 10.1002/admt.202001242 | |
51. | Shu-Chuan Kuo, Yih-Ming Weng, Food safety knowledge, attitude, and practice among elementary schoolchildren in southern Taiwan, 2021, 122, 09567135, 107818, 10.1016/j.foodcont.2020.107818 | |
52. | Moamen M. Elmassry, Ahmed Zayed, Mohamed A. Farag, Gut homeostasis and microbiota under attack: impact of the different types of food contaminants on gut health, 2020, 1040-8398, 1, 10.1080/10408398.2020.1828263 | |
53. | J. Michael Janda, Sharon L. Abbott, The Changing Face of the Family Enterobacteriaceae (Order: “Enterobacterales”): New Members, Taxonomic Issues, Geographic Expansion, and New Diseases and Disease Syndromes, 2021, 34, 0893-8512, 10.1128/CMR.00174-20 | |
54. | Shimaa Eissa, Mohammed Zourob, Ultrasensitive peptide-based multiplexed electrochemical biosensor for the simultaneous detection of Listeria monocytogenes and Staphylococcus aureus, 2020, 187, 0026-3672, 10.1007/s00604-020-04423-3 | |
55. | Shu-Chuan Kuo, Yih-Ming Weng, Effects of food safety education on knowledge, attitude, and practice of schoolchildren in southern Taiwan: A propensity score-matched observational study, 2021, 124, 09567135, 107360, 10.1016/j.foodcont.2020.107360 | |
56. | Ana María Díez-Pascual, Antimicrobial Polymer-Based Materials for Food Packaging Applications, 2020, 12, 2073-4360, 731, 10.3390/polym12040731 | |
57. | Miklós Takó, Erika Beáta Kerekes, Carolina Zambrano, Alexandra Kotogán, Tamás Papp, Judit Krisch, Csaba Vágvölgyi, Plant Phenolics and Phenolic-Enriched Extracts as Antimicrobial Agents against Food-Contaminating Microorganisms, 2020, 9, 2076-3921, 165, 10.3390/antiox9020165 | |
58. | Raquel G. Barbosa, H. Pieter J. van Veelen, Vanessa Pinheiro, Tom Sleutels, Willy Verstraete, Nico Boon, Shuang-Jiang Liu, Enrichment of Hydrogen-Oxidizing Bacteria from High-Temperature and High-Salinity Environments, 2020, 87, 0099-2240, 10.1128/AEM.02439-20 | |
59. | Hüsnü Aslan, Maiken Engelbrecht Petersen, Alberto De Berardinis, Maja Zacho Brunhede, Nasar Khan, Alberto Vergara, Birgitte Kallipolitis, Rikke Louise Meyer, Activation of the Two-Component System LisRK Promotes Cell Adhesion and High Ampicillin Tolerance in Listeria monocytogenes, 2021, 12, 1664-302X, 10.3389/fmicb.2021.618174 | |
60. | Palraj Kalimuthu, Juan F. Gonzalez-Martinez, Dainius Jakubauskas, Marité Cárdenas, Tautgirdas Ruzgas, Javier Sotres, Battery-free radio frequency wireless sensor for bacteria based on their degradation of gelatin-fatty acid composite films, 2021, 00134686, 138275, 10.1016/j.electacta.2021.138275 | |
61. | Karolinny Cristiny de Oliveira Vieira, Hevelin Regiane Augusto da Silva, Isabela Poletto Masselli Rocha, Emmanuel Barboza, Lizziane Kretli Winkelstroter Eller, Foodborne pathogens in the omics era, 2021, 1040-8398, 1, 10.1080/10408398.2021.1905603 | |
62. | Rajashri Banerji, Astha Karkee, Poonam Kanojiya, Sunil D. Saroj, Pore‐forming toxins of foodborne pathogens, 2021, 1541-4337, 10.1111/1541-4337.12737 | |
63. | Marco Cossu, Luigi Ledda, Andrea Cossu, Emerging trends in the photodynamic inactivation (PDI) applied to the food decontamination, 2021, 144, 09639969, 110358, 10.1016/j.foodres.2021.110358 | |
64. | Sasha Badul, Akebe L. K. Abia, Daniel G. Amoako, Keith Perrett, Linda A. Bester, Sabiha Y. Essack, From the Farms to the Dining Table: The Distribution and Molecular Characteristics of Antibiotic-Resistant Enterococcus spp. in Intensive Pig Farming in South Africa, 2021, 9, 2076-2607, 882, 10.3390/microorganisms9050882 | |
65. | Long-Xian Zhang, Rong-Jun Wang, Guang-Hui Zhao, Jun-Qiang Li, 2021, 9780128216163, 45, 10.1016/B978-0-12-821616-3.00006-0 | |
66. | Oliver Handorf, Viktoria Isabella Pauker, Thomas Weihe, Jan Schäfer, Eric Freund, Uta Schnabel, Sander Bekeschus, Katharina Riedel, Jörg Ehlbeck, Plasma-Treated Water Affects Listeria monocytogenes Vitality and Biofilm Structure, 2021, 12, 1664-302X, 10.3389/fmicb.2021.652481 | |
67. | Meihan Tao, Juhong Chen, Kang Huang, Bio-based Antimicrobial Delivery Systems for Improving Microbial Safety and Quality of Raw or Minimally Processed Foods, 2021, 22147993, 10.1016/j.cofs.2021.04.011 | |
68. | Zunaira Iqbal, Shahzaib Ahmed, Natasha Tabassum, Riya Bhattacharya, Debajyoti Bose, Role of probiotics in prevention and treatment of enteric infections: a comprehensive review, 2021, 11, 2190-572X, 10.1007/s13205-021-02796-7 | |
69. | Martin Aduah, Frederick Adzitey, Daniel Gyamfi Amoako, Akebe Luther King Abia, Rejoice Ekli, Gabriel Ayum Teye, Amir H. M. Shariff, Nurul Huda, Not All Street Food Is Bad: Low Prevalence of Antibiotic-Resistant Salmonella enterica in Ready-to-Eat (RTE) Meats in Ghana Is Associated with Good Vendors’ Knowledge of Meat Safety, 2021, 10, 2304-8158, 1011, 10.3390/foods10051011 | |
70. | Dhary Alewy Almashhadany, 2021, 10.5772/intechopen.97391 | |
71. | Haftom Baraki Abraha, Kwang‐Pyo Kim, Desta Berhe Sbhatu, Bacteriophages for detection and control of foodborne bacterial pathogens—The case of Bacillus cereus and their phages , 2021, 0149-6085, 10.1111/jfs.12906 | |
72. | Lucas D. Dias, Mirella Romanelli V. Bertolo, Fernanda Alves, Clara M.G. de Faria, Murilo Álison V. Rodrigues, Letícia Keller B.C. Lopes, Ana Maria de Guzzi Plepis, Luiz Henrique C. Mattoso, Stanislau Bogusz Junior, Vanderlei S. Bagnato, Preparation and characterization of curcumin and pomegranate peel extract chitosan/gelatin-based Films and their photoinactivation of bacteria, 2022, 31, 23524928, 103791, 10.1016/j.mtcomm.2022.103791 | |
73. | Hoda R.A. El-Zehery, Rashed A. Zaghloul, Hany M. Abdel-Rahman, Ahmed A. Salem, K.A. El-Dougdoug, Novel strategies of essential oils, chitosan, and nano- chitosan for inhibition of multi-drug resistant: E. coli O157:H7 and Listeria monocytogenes, 2022, 29, 1319562X, 2582, 10.1016/j.sjbs.2021.12.036 | |
74. | Halil YALÇIN, Mehmet KALE, Oğuz GÜRSOY, Hasbi Sait SALTIK, Yusuf YILMAZ, Mezbahalar ve Et İşleme Tesislerinin Çalışanları ile Alet ve Ekipmanlarında Rotavirus Astrovirus Varlığı, 2022, 1304-7582, 132, 10.24323/akademik-gida.1149769 | |
75. | Tapasi Manna, Anup Kumar Misra, Synthesis of the sialic acid-containing tetrasaccharide repeating unit corresponding to the cell wall O-antigen of Escherichia coli O131 strain, 2022, 521, 00086215, 108668, 10.1016/j.carres.2022.108668 | |
76. | Sandhya Sadanandan, Meenakshi V. S, Keerthana Ramkumar, Neeraja P. Pillai, Anuvinda P, Sreelekshmi P. J, Devika V, Ramanunni K, Jeevan Sankar R, M.M. Sreejaya, Biorecognition elements appended gold nanoparticle biosensors for the detection of food-borne pathogens - A review, 2023, 148, 09567135, 109510, 10.1016/j.foodcont.2022.109510 | |
77. | Rozita Vaskoska, 2022, 978-90-8686-381-5, 247, 10.3920/978-90-8686-933-6_12 | |
78. | Erhan KEYVAN, Hidayet TUTUN, Hatice Ahu KAHRAMAN, Erdi ŞEN, Ahu DEMİRTAŞ, Soner DÖNMEZ, Ali Özhan AKYÜZ, Determination of Time Dependent Antibacterial Activities of Curcumin, Carvacrol and Styrax Liquidus on Salmonella Enteritidis, 2021, 1300-0861, 10.33988/auvfd.911244 | |
79. | Mahmoud E. Elsayed, Marwa I. Abd El-Hamid, Attia El-Gedawy, Mahmoud M. Bendary, Reham M. ELTarabili, Majid Alhomrani, Abdulhakeem S. Alamri, Saleh A. Alghamdi, Marwa Arnout, Dalal N. Binjawhar, Mohammad M. Al-Sanea, Amira I. Abousaty, New Insights into Listeria monocytogenes Antimicrobial Resistance, Virulence Attributes and Their Prospective Correlation, 2022, 11, 2079-6382, 1447, 10.3390/antibiotics11101447 | |
80. | Ichraf Chérif, Fatma Mbarek, Fatma Ezzahra Majdoub, Slim Smaoui, Khaoula Elhadef, Moufida Chaari, Patricia de la Presa, Salah Ammar, ZnO nanoparticles as an antibacterial agent against foodborne pathogens and adsorbent for the removal of Congo red dye: effect of heating time, 2022, 135, 1878-5190, 2719, 10.1007/s11144-022-02285-9 | |
81. | Karthikeyan Kandasamy, Miftakhul Jannatin, Yu-Chie Chen, Rapid Detection of Pathogenic Bacteria by the Naked Eye, 2021, 11, 2079-6374, 317, 10.3390/bios11090317 | |
82. | Cláudia S. Marques, Susana Sousa, António Castro, Vânia Ferreira, Paula Teixeira, José M. Correia da Costa, Protozoa as the “Underdogs” for Microbiological Quality Evaluation of Fresh Vegetables, 2022, 12, 2076-3417, 7145, 10.3390/app12147145 | |
83. | Mari Cruz Manzaneque-López, Christian M. Sánchez-López, Pedro Pérez-Bermúdez, Carla Soler, Antonio Marcilla, Dietary-Derived Exosome-like Nanoparticles as Bacterial Modulators: Beyond MicroRNAs, 2023, 15, 2072-6643, 1265, 10.3390/nu15051265 | |
84. | Nicharee Wisuthiphaet, Xu Yang, Glenn M. Young, Nitin Nitin, Quantitative Imaging of Bacteriophage Amplification for Rapid Detection of Bacteria in Model Foods, 2022, 13, 1664-302X, 10.3389/fmicb.2022.853048 | |
85. | B. Velebit, B. Lakicevic, A. A. Semenova, N. M. Revutskaya, Yu. K. Yushina, V. V. Nasonova, Factors influencingmicrobial transmission in a meat processing plant, 2021, 6, 2414-441X, 183, 10.21323/2414-438X-2021-6-2-183-190 | |
86. | Nayeon Ki, Jinshil Kim, Inseong Jo, Yongseong Hyun, Sangryeol Ryu, Nam-Chul Ha, Isocitrate binds to the itaconic acid–responsive LysR-type transcriptional regulator RipR in Salmonella pathogenesis, 2022, 298, 00219258, 102562, 10.1016/j.jbc.2022.102562 | |
87. | Rajesh Bhatia, Addressing challenge of zoonotic diseases through One Health approach, 2021, 153, 0971-5916, 249, 10.4103/ijmr.IJMR_374_21 | |
88. | Kevin Tsai, Vivian Hoffmann, Sheillah Simiyu, Oliver Cumming, Glorie Borsay, Kelly K. Baker, Bacteroides Microbial Source Tracking Markers Perform Poorly in Predicting Enterobacteriaceae and Enteric Pathogen Contamination of Cow Milk Products and Milk-Containing Infant Food, 2022, 12, 1664-302X, 10.3389/fmicb.2021.778921 | |
89. | Ibrahim Musa Moi, Zuhairu Ibrahim, Bashir Mohammed Abubakar, Yahaya Mohammed Katagum, Auwal Abdullahi, Gandi Ajibji Yiga, Badamasi Abdullahi, Ibrahim Mustapha, Jallaba Ali, Zinat Mahmud, Hamisu Maimusa, Halima Oge Katagum, Aisha Muhammad Malami, Aminu Mustapha, Istifanus Ayuba, 2023, Chapter 1, 978-1-80355-903-2, 10.5772/intechopen.105694 | |
90. | Fu-An Yang, Yi-Ting Wu, Yen-Wenn Liu, Wei-Ching Liao, Hybridization chain reaction-assisted enzyme cascade genosensor for the detection of Listeria monocytogenes, 2023, 254, 00399140, 124193, 10.1016/j.talanta.2022.124193 | |
91. | Pasquale Mulé, Sofianne Gabrielli, Alex Nguyen, Connor Prosty, Moshe Ben-Shoshan, 2022, 9780081005965, 10.1016/B978-0-323-96018-2.00013-4 | |
92. | Yan Yu, Kingsley Katleho Mokoena, Crystal Ethan, 2022, Chapter 4, 978-981-19-0870-5, 53, 10.1007/978-981-19-0872-9_4 | |
93. | Samira Yousefizadeh, Majid Aminzare, hassan hassanzadazar, Synergistic Antioxidant and Antimicrobial Effects of the Thymoquinone and Eugenol Combination, 2022, 8, 2476-5481, 110, 10.52547/jhehp.8.2.110 | |
94. | Nayeon Ki, Inseong Jo, Yongseong Hyun, Jinwook Lee, Nam-Chul Ha, Hyun-Myung Oh, Crystal structure of the phage-encoded N-acetyltransferase in complex with acetyl-CoA, revealing a novel dimeric arrangement, 2022, 60, 1976-3794, 746, 10.1007/s12275-022-2030-2 | |
95. | Erfan Jahani, Laleh Babaeekhou, Maryam Ghane, Chemical composition and antibacterial properties of Zataria multiflora Bioss and Mentha longifolia essential oils in combination with nisin and acid acetic , 2021, 45, 0145-8892, 10.1111/jfpp.15742 | |
96. | Rita Cava-Roda, Amaury Taboada-Rodríguez, Antonio López-Gómez, Ginés Benito Martínez-Hernández, Fulgencio Marín-Iniesta, Synergistic Antimicrobial Activities of Combinations of Vanillin and Essential Oils of Cinnamon Bark, Cinnamon Leaves, and Cloves, 2021, 10, 2304-8158, 1406, 10.3390/foods10061406 | |
97. | Dinaol Belina, Yonas Hailu, Tesfaye Gobena, Tine Hald, Patrick Murigu Kamau Njage, Prevalence and epidemiological distribution of selected foodborne pathogens in human and different environmental samples in Ethiopia: a systematic review and meta-analysis, 2021, 3, 2524-4655, 10.1186/s42522-021-00048-5 | |
98. | Astha Thakali, Jean D. MacRae, Cindy Isenhour, Travis Blackmer, Composition and contamination of source separated food waste from different sources and regulatory environments, 2022, 314, 03014797, 115043, 10.1016/j.jenvman.2022.115043 | |
99. | You Zhou, Meishen Ren, Pengfei Zhang, Dike Jiang, Xueping Yao, Yan Luo, Zexiao Yang, Yin Wang, Application of Nanopore Sequencing in the Detection of Foodborne Microorganisms, 2022, 12, 2079-4991, 1534, 10.3390/nano12091534 | |
100. | Min Yap, Danilo Ercolini, Avelino Álvarez-Ordóñez, Paul W. O'Toole, Orla O'Sullivan, Paul D. Cotter, Next-Generation Food Research: Use of Meta-Omic Approaches for Characterizing Microbial Communities Along the Food Chain, 2022, 13, 1941-1413, 361, 10.1146/annurev-food-052720-010751 | |
101. | Emmanuel O. Njoga, Stanley U. Ilo, Obichukwu C. Nwobi, Onyinye S. Onwumere-Idolor, Festus E. Ajibo, Chinwe E. Okoli, Ishmael F. Jaja, James W. Oguttu, Ismail Ayoade Odetokun, Pre-slaughter, slaughter and post-slaughter practices of slaughterhouse workers in Southeast, Nigeria: Animal welfare, meat quality, food safety and public health implications, 2023, 18, 1932-6203, e0282418, 10.1371/journal.pone.0282418 | |
102. | Danli Wu, Mengdi Dai, Yongqing Shi, Qingqing Zhou, Ping Li, Qing Gu, Purification and characterization of bacteriocin produced by a strain of Lacticaseibacillus rhamnosus ZFM216, 2022, 13, 1664-302X, 10.3389/fmicb.2022.1050807 | |
103. | Mst. Sonia Parvin, Md. Yamin Ali, Amit Kumar Mandal, Sudipta Talukder, Md. Taohidul Islam, Sink survey to investigate multidrug resistance pattern of common foodborne bacteria from wholesale chicken markets in Dhaka city of Bangladesh, 2022, 12, 2045-2322, 10.1038/s41598-022-14883-7 | |
104. | Dabolé Bernard, Yaya Hassana, Moussa Djaouda, Matcheme Mathieu, Wakayansam Bouba Romeo, Koubala Benoît, Atia Tul Wahab, Antibacterial effects of a new triterpenoid saponin from roots of Gardenia ternifolia Schumach. & Thonn (Rubiaceae), 2022, 4, 22117156, 100366, 10.1016/j.rechem.2022.100366 | |
105. | Ke-Jia Wu, Chun Wu, Min Fang, Beibei Ding, Pin-Pin Liu, Meng-Xin Zhou, Zhi-Yong Gong, Dik-Lung Ma, Chung-Hang Leung, Application of metal–organic framework for the adsorption and detection of food contamination, 2021, 143, 01659936, 116384, 10.1016/j.trac.2021.116384 | |
106. | Ting Zhang, Hai-tao Li, Xuhan Xia, Jun Liu, Yunhao Lu, Mohammad Rizwan Khan, Sha Deng, Rosa Busquets, Guiping He, Qiang He, Jiaqi Zhang, Ruijie Deng, Direct Detection of Foodborne Pathogens via a Proximal DNA Probe-Based CRISPR-Cas12 Assay, 2021, 69, 0021-8561, 12828, 10.1021/acs.jafc.1c04663 | |
107. | Natalia Wrońska, Nadia Katir, Katarzyna Miłowska, Nisrine Hammi, Marta Nowak, Marta Kędzierska, Aicha Anouar, Katarzyna Zawadzka, Maria Bryszewska, Abdelkrim El Kadib, Katarzyna Lisowska, Antimicrobial Effect of Chitosan Films on Food Spoilage Bacteria, 2021, 22, 1422-0067, 5839, 10.3390/ijms22115839 | |
108. | Mohamed Taha Yassin, Ashraf Abdel-Fattah Mostafa, Abdulaziz Abdulrahman Al Askar, In Vitro Evaluation of Biological Activities and Phytochemical Analysis of Different Solvent Extracts of Punica granatum L. (Pomegranate) Peels, 2021, 10, 2223-7747, 2742, 10.3390/plants10122742 | |
109. | Nafiseh Kazemifard, Behzad Rezaei, Zeinab Saberi, 2022, Chapter 7, 978-981-16-8332-9, 169, 10.1007/978-981-16-8333-6_7 | |
110. | Carla Pereira, João F. Marques, Sílvia Reis, Pedro Costa, Ana P. Martins, Carlos A. Pinto, Jorge A. Saraiva, Adelaide Almeida, Combined Effect of Phage phT4A and Pressure-Based Strategies in the Inhibition of Escherichia coli, 2022, 11, 2079-6382, 211, 10.3390/antibiotics11020211 | |
111. | Maria Antónia Nunes, Josman Dantas Palmeira, Diana Melo, Susana Machado, Joana Correia Lobo, Anabela Sílvia Guedes Costa, Rita Carneiro Alves, Helena Ferreira, Maria Beatriz Prior Pinto Oliveira, Chemical Composition and Antimicrobial Activity of a New Olive Pomace Functional Ingredient, 2021, 14, 1424-8247, 913, 10.3390/ph14090913 | |
112. | Fateme Amani, Atefe Rezaei, Hajar Akbari, Cristian Dima, Seid Mahdi Jafari, Active Packaging Films Made by Complex Coacervation of Tragacanth Gum and Gelatin Loaded with Curcumin; Characterization and Antioxidant Activity, 2022, 11, 2304-8158, 3168, 10.3390/foods11203168 | |
113. | Rajapandiyan Krishnamoorthy, Hany M. Yehia, Meera Moydeen Abdul Hameed, Vaiyapuri Subbarayan Periyasamy, Mohammad A. Alshuniaber, Abdulhakeem Alzahrani, Ali A. Alshatwi, Ultrasonic-assisted food grade nanoemulsion preparation from clove bud essential oil and evaluation of its antioxidant and antibacterial activity, 2022, 11, 2191-9550, 974, 10.1515/gps-2022-0083 | |
114. | P.V.V.P. Prudhvi, Sudarshanna Kar, Piyush Sharma, Jyotsana Patel, Siba Prasad Nayak, 2023, 9780323959919, 189, 10.1016/B978-0-323-95991-9.00001-1 | |
115. | I N Lykov, M A Kakharova, V S Kureber, A E Yurova, Research of antibiotic resistance of microorganisms isolated from fruits and vegetables, 2021, 839, 1755-1307, 042003, 10.1088/1755-1315/839/4/042003 | |
116. | Maryam Mousavizadegan, Aida Alaei, Morteza Hosseini, 2022, Chapter 5, 978-981-16-7028-2, 109, 10.1007/978-981-16-7029-9_5 | |
117. | KahYen Claire Yeak, Philippe Palmont, Gilles Rivière, Nawel Bemrah, Heidy M.W. den Besten, Marcel H. Zwietering, Microbial and chemical hazard identification in infant food chains, 2022, 2, 26670097, 100010, 10.1016/j.gpeds.2022.100010 | |
118. | Athira John, Klementina Pušnik Črešnar, Dimitrios N. Bikiaris, Lidija Fras Zemljič, Colloidal Solutions as Advanced Coatings for Active Packaging Development: Focus on PLA Systems, 2023, 15, 2073-4360, 273, 10.3390/polym15020273 | |
119. | Maria Simone Soares, Miguel Vidal, Nuno F. Santos, Florinda M. Costa, Carlos Marques, Sónia O. Pereira, Cátia Leitão, Immunosensing Based on Optical Fiber Technology: Recent Advances, 2021, 11, 2079-6374, 305, 10.3390/bios11090305 | |
120. | M. Yasir, A. Nawaz, S. Ghazanfar, M. K. Okla, A. Chaudhary, Wahidah H. Al, M. N. Ajmal, H. AbdElgawad, Z. Ahmad, F. Abbas, A. Wadood, Z. Manzoor, N. Akhtar, M. Din, Y. Hameed, M. Imran, Anti-bacterial activity of essential oils against multidrug-resistant foodborne pathogens isolated from raw milk, 2024, 84, 1678-4375, 10.1590/1519-6984.259449 | |
121. | Sumyya Hariri, Detection of Escherichia coli in Food Samples Using Culture and Polymerase Chain Reaction Methods, 2022, 2168-8184, 10.7759/cureus.32808 | |
122. | Jessica Vaca, Aurelio Ortiz, Estibaliz Sansinenea, A study of bacteriocin like substances comparison produced by different species of Bacillus related to B. cereus group with specific antibacterial activity against foodborne pathogens, 2023, 205, 0302-8933, 10.1007/s00203-022-03356-0 | |
123. | Minglu Wang, Jiarui Cui, Ying Wang, Liu Yang, Zhenzhen Jia, Chuanjie Gao, Hongyan Zhang, Microfluidic Paper-Based Analytical Devices for the Determination of Food Contaminants: Developments and Applications, 2022, 70, 0021-8561, 8188, 10.1021/acs.jafc.2c02366 | |
124. | Jung-Whan Chon, Kun-Ho Seo, Binn Kim, Jekang Her, Dongkwan Jeong, Kwang-Young Song, Evaluation of Commercial Disinfectants for Efficacy at Inactivating Enterobacter sakazakii (Cronobacter spp.) in Water: A Preliminary Study, 2021, 39, 2733-4554, 104, 10.22424/jdsb.2021.39.3.104 | |
125. | Siguo Li, Zhao Peng, Yan Zhou, Jinzhou Zhang, Time series analysis of foodborne diseases during 2012–2018 in Shenzhen, China, 2022, 17, 1661-5751, 83, 10.1007/s00003-021-01346-w | |
126. | Sandile Phinda Songca, Applications of Nanozymology in the Detection and Identification of Viral, Bacterial and Fungal Pathogens, 2022, 23, 1422-0067, 4638, 10.3390/ijms23094638 | |
127. | Yunfang Ma, Yanqing Ma, Lei Chi, Shaodan Wang, Dianhe Zhang, Qisen Xiang, Lauric arginate ethyl ester: An update on the antimicrobial potential and application in the food systems, 2023, 14, 1664-302X, 10.3389/fmicb.2023.1125808 | |
128. | Mayra Aguirre Garcia, Nabila Haddad, 2022, 9781789450842, 97, 10.1002/9781119986980.ch4 | |
129. | Marcelo Assis, Luiz Gustavo P. Simoes, Guilherme C. Tremiliosi, Lara Kelly Ribeiro, Dyovani Coelho, Daniel T. Minozzi, Renato I. Santos, Daiane C. B. Vilela, Lucia Helena Mascaro, Juan Andrés, Elson Longo, PVC-SiO2-Ag composite as a powerful biocide and anti-SARS-CoV-2 material, 2021, 28, 1022-9760, 10.1007/s10965-021-02729-1 | |
130. | Anny Camargo, Enzo Guerrero-Araya, Sergio Castañeda, Laura Vega, María X. Cardenas-Alvarez, César Rodríguez, Daniel Paredes-Sabja, Juan David Ramírez, Marina Muñoz, Intra-species diversity of Clostridium perfringens: A diverse genetic repertoire reveals its pathogenic potential, 2022, 13, 1664-302X, 10.3389/fmicb.2022.952081 | |
131. | Rodrigo Duarte-Casar, Jessica Robalino-Vallejo, María Fernanda Buzetta-Ricaurte, Marlene Rojas-Le-Fort, Toward a characterization of Ecuadorian ceviche: much more than shrimp, 2022, 9, 2352-6181, 10.1186/s42779-022-00131-w | |
132. | Shahenda S. Elshafie, Hazem S. Elshafie, Rasha M. El Bayomi, Ippolito Camele, Alaa Eldin M. A. Morshdy, Evaluation of the Antimicrobial Activity of Four Plant Essential Oils against Some Food and Phytopathogens Isolated from Processed Meat Products in Egypt, 2022, 11, 2304-8158, 1159, 10.3390/foods11081159 | |
133. | Vincent Linderhof, Thijs de Lange, Stijn Reinhard, The Dilemmas of Water Quality and Food Security Interactions in Low- and Middle-Income Countries, 2021, 3, 2624-9375, 10.3389/frwa.2021.736760 | |
134. | Sakda Jampasa, Nattaya Ngamrojanavanich, Sirirat Rengpipat, Orawon Chailapakul, Kurt Kalcher, Sudkate Chaiyo, Ultrasensitive electrochemiluminescence sensor based on nitrogen-decorated carbon dots for Listeria monocytogenes determination using a screen-printed carbon electrode, 2021, 188, 09565663, 113323, 10.1016/j.bios.2021.113323 | |
135. | Dan Liu, Weiming Gu, Lu Wang, Jianxia Sun, Photodynamic inactivation and its application in food preservation, 2021, 1040-8398, 1, 10.1080/10408398.2021.1969892 | |
136. | May Mohammed Ali, Masar R. Al-Mousawi, Rasha A. Abidalmutalib Aljabawi, Studying the Penetration Ability of Various Pathogenic Bacteria into Raw Beef Meat Surface and the Antibacterial Effect of Ozonated Water, 2022, 16, 09737510, 1252, 10.22207/JPAM.16.2.54 | |
137. | Xin Gao, Yong Yang, Xiaolei Liu, Fengyan Xu, Yang Wang, Lei Liu, Yaming Yang, Mingyuan Liu, Xue Bai, Rajnish Sharma, Extracellular vesicles from Trichinella spiralis: Proteomic analysis and protective immunity, 2022, 16, 1935-2735, e0010528, 10.1371/journal.pntd.0010528 | |
138. | Noor N. Haider, Ammar B. Altemimi, Saher S. George, Ahmed Adel Baioumy, Ahmed Ali Abd El-Maksoud, Antonella Pasqualone, Tarek Gamal Abedelmaksoud, Nutritional Quality and Safety Characteristics of Imported Biscuits Marketed in Basrah, Iraq, 2022, 12, 2076-3417, 9065, 10.3390/app12189065 | |
139. | Svetlana Merenkova, Oksana Zinina, Irina Potoroko, Fermented Plant Beverages Stabilized with Microemulsion: Confirmation of Probiotic Properties and Antioxidant Activity, 2022, 8, 2311-5637, 723, 10.3390/fermentation8120723 | |
140. | Aleksandra Duda-Chodak, Tomasz Tarko, Katarzyna Petka-Poniatowska, Antimicrobial Compounds in Food Packaging, 2023, 24, 1422-0067, 2457, 10.3390/ijms24032457 | |
141. | Senakpon Isaïe Ulrich Mevo, Md. Ashrafudoulla, Md. Furkanur Rahaman Mizan, Si Hong Park, Sang‐Do Ha, Promising strategies to control persistent enemies: Some new technologies to combat biofilm in the food industry—A review, 2021, 20, 1541-4337, 5938, 10.1111/1541-4337.12852 | |
142. | Ge Zhao, Paul Joseph Kempen, Tao Zheng, Tim Holm Jakobsen, Shuangqing Zhao, Liuyan Gu, Christian Solem, Peter Ruhdal Jensen, Synergistic bactericidal effect of nisin and phytic acid against Escherichia coli O157:H7, 2023, 144, 09567135, 109324, 10.1016/j.foodcont.2022.109324 | |
143. | Hongqiang Lou, Xusheng Li, Xiusheng Sheng, Shuiqin Fang, Shaoye Wan, Aihua Sun, Haohao Chen, Development of a Trivalent Construct Omp18/AhpC/FlgH Multi Epitope Peptide Vaccine Against Campylobacter jejuni, 2022, 12, 1664-302X, 10.3389/fmicb.2021.773697 | |
144. | Andrea Durofil, Naga Raju Maddela, Reinier Abreu Naranjo, Matteo Radice, Evidence on antimicrobial activity of essential oils and herbal extracts against Yersinia enterocolitica - A review, 2022, 47, 22124292, 101712, 10.1016/j.fbio.2022.101712 | |
145. | Ondrej Chlumsky, Sabina Purkrtova, Hana Michova, Hana Sykorova, Petr Slepicka, Dominik Fajstavr, Pavel Ulbrich, Jitka Viktorova, Katerina Demnerova, Antimicrobial Properties of Palladium and Platinum Nanoparticles: A New Tool for Combating Food-Borne Pathogens, 2021, 22, 1422-0067, 7892, 10.3390/ijms22157892 | |
146. | Bindu Modi, Hari Timilsina, Sobika Bhandari, Ashma Achhami, Sangita Pakka, Prakash Shrestha, Devilal Kandel, Dhan Bahadur GC, Sabina Khatri, Pradhumna Mahat Chhetri, Niranjan Parajuli, Ahmed Al-Alawi, Current Trends of Food Analysis, Safety, and Packaging, 2021, 2021, 2314-5765, 1, 10.1155/2021/9924667 | |
147. | Shimaa N. Edris, Ahmed Hamad, Dina A. B. Awad, Islam I. Sabeq, Prevalence, antibiotic resistance patterns, and biofilm formation ability of Enterobacterales recovered from food of animal origin in Egypt, 2023, 22310916, 403, 10.14202/vetworld.2023.403-413 | |
148. | Suni Mary Varghese, Salvatore Parisi, Rajeev K. Singla, A. S. Anitha Begum, 2022, Chapter 5, 978-3-031-06303-9, 31, 10.1007/978-3-031-06304-6_5 | |
149. | Fatma Abdelrahman, Rutuja Gangakhedkar, Gokul Nair, Gamal El-Didamony, Ahmed Askora, Vikas Jain, Ayman El-Shibiny, Pseudomonas Phage ZCPS1 Endolysin as a Potential Therapeutic Agent, 2023, 15, 1999-4915, 520, 10.3390/v15020520 | |
150. | Eman F. Abdel-Lati, Gehan Kassim, Impacts of Sodium Salt Substitution on Sensory and Safety Characteristics of Two Food Models (Beef Burger and Tallaga Cheese), 2022, 17, 18119743, 33, 10.3923/ijds.2022.33.40 | |
151. | Sirijan Santajit, Thida Kong-ngoen, Witawat Tunyong, Pornpan Pumirat, Sumate Ampawong, Nitat Sookrung, Nitaya Indrawattana, Occurrence, antimicrobial resistance, virulence, and biofilm formation capacity of Vibrio spp. and Aeromonas spp. isolated from raw seafood marketed in Bangkok, Thailand, 2022, 22310916, 1887, 10.14202/vetworld.2022.1887-1895 | |
152. | Iris George, Karthika Raveendran, Murugadas Vaiyapuri, Anna Sherin, Devi Sanjeev, Suraji Kumar, Visnuvinayagam Sivam, Manikantha Benala, Mukteswar Prasad Mothadaka, Madhusudana Rao Badireddy, Gene sequencing analysis of tailed phages identified diverse (Kayfunavirus and Berlinvirus) coliphages in aquatic niche against AMR Escherichia coli, 2022, 204, 0302-8933, 10.1007/s00203-022-03055-w | |
153. | Fangbin Xiao, Weiqiang Li, Hengyi Xu, Advances in magnetic nanoparticles for the separation of foodborne pathogens: Recognition, separation strategy, and application, 2022, 21, 1541-4337, 4478, 10.1111/1541-4337.13023 | |
154. | Rohit Thirumdas, Inactivation of viruses related to foodborne infections using cold plasma technology, 2022, 42, 0149-6085, 10.1111/jfs.12988 | |
155. | Isabella Csadek, Ute Vankat, Julia Schrei, Michelle Graf, Susanne Bauer, Brigitte Pilz, Karin Schwaiger, Frans J. M. Smulders, Peter Paulsen, Treatment of Ready-To-Eat Cooked Meat Products with Cold Atmospheric Plasma to Inactivate Listeria and Escherichia coli, 2023, 12, 2304-8158, 685, 10.3390/foods12040685 | |
156. | Massimo Corsalini, Francesco Inchingolo, Gianna Dipalma, Angelika Elzbieta Wegierska, Ioannis Alexandros Charitos, Maria Assunta Potenza, Antonio Scarano, Felice Lorusso, Alessio Danilo Inchingolo, Monica Montagnani, Luigi Santacroce, Botulinum Neurotoxins (BoNTs) and Their Biological, Pharmacological, and Toxicological Issues: A Scoping Review, 2021, 11, 2076-3417, 8849, 10.3390/app11198849 | |
157. | Kathryn Whitehead, Lisa I. Pilkington, Anthony J. Slate, Fabien Saubade, Mohsin Amin, Adrian Lutey, Laura Gemini, Rainer Kling, Luca Romoli, The cleanability of laser etched surfaces with repeated fouling using Staphylococcus aureus and milk, 2023, 137, 09603085, 145, 10.1016/j.fbp.2022.11.007 | |
158. | Dima Faour-Klingbeil, 2022, 9780128224175, 227, 10.1016/B978-0-12-822417-5.00002-7 | |
159. | Amreen Bashir, Peter A. Lambert, Yvonne Stedman, Anthony C. Hilton, Combined Effect of Temperature and Relative Humidity on the Survival of Salmonella Isolates on Stainless Steel Coupons, 2022, 19, 1660-4601, 909, 10.3390/ijerph19020909 | |
160. | Carelene Lakhan, Neela Badrie, Adash Ramsubhag, Lisa Indar, Detection of Foodborne Pathogens in Acute Gastroenteritis Patient’s Stool Samples Using the BioFire® FilmArray® Gastrointestinal PCR Panel in the Republic of Trinidad and Tobago, West Indies, 2022, 10, 2076-2607, 1601, 10.3390/microorganisms10081601 | |
161. | Míria Benetati Delgado Bertéli, Lillian Barros, Filipa S. Reis, Isabel C. F. R. Ferreira, Jasmina Glamočlija, Marina Soković, Juliana Silveira do Valle, Giani Andrea Linde, Suelen Pereira Ruiz, Nelson Barros Colauto, Antimicrobial activity, chemical composition and cytotoxicity of Lentinus crinitus basidiocarp, 2021, 12, 2042-6496, 6780, 10.1039/D1FO00656H | |
162. | Krishnan Meenambigai, Ranganathan Kokila, Kandasamy Chandhirasekar, Ayyavu Thendralmanikandan, Durairaj Kaliannan, Kalibulla Syed Ibrahim, Shobana Kumar, Wenchao Liu, Balamuralikrishnan Balasubramanian, Arjunan Nareshkumar, Green Synthesis of Selenium Nanoparticles Mediated by Nilgirianthus ciliates Leaf Extracts for Antimicrobial Activity on Foodborne Pathogenic Microbes and Pesticidal Activity Against Aedes aegypti with Molecular Docking, 2022, 200, 0163-4984, 2948, 10.1007/s12011-021-02868-y | |
163. | Rebecca Dan-zaria Mshelia, Nathan Isaac Dibal, Samaila Musa Chiroma, Food irradiation: an effective but under-utilized technique for food preservations, 2022, 0022-1155, 10.1007/s13197-022-05564-4 | |
164. | Ellen W. Evans, Elizabeth C. Redmond, Nisreen Alwan, Sanja Ilic, Awareness and Attitudes of Student Dietitians in Lebanon, UK and USA towards Food Safety, 2021, 10, 2304-8158, 1875, 10.3390/foods10081875 | |
165. | Alfi Sophian, Ratna Purwaningsih, Muindar Muindar, Eka Putri Juniarti Igirisa, Muhammad Luthfi Amirullah, Detection of Salmonella typhimurium ATCC 14028 in Powder Prepared Traditional Medicines Using Real-Time PCR, 2021, 4, 26214814, 178, 10.33084/bjop.v4i3.1838 | |
166. | Hatice Ahu KAHRAMAN, Hidayet TUTUN, Erhan KEYVAN, Burcu Menekşe BALKAN, Investigation of Chemical, Antibacterial and Antiradical Properties of Home-made Apple and Grape Vinegars, 2021, 1300-0861, 10.33988/auvfd.865309 | |
167. | Maria Z. Tsimidou, Stella A. Ordoudi, Fani Th. Mantzouridou, Nikolaos Nenadis, Tamara Stelzl, Michael Rychlik, Nastasia Belc, Claudia Zoani, Strategic Priorities of the Scientific Plan of the European Research Infrastructure METROFOOD-RI for Promoting Metrology in Food and Nutrition, 2022, 11, 2304-8158, 599, 10.3390/foods11040599 | |
168. | Arshied Manzoor, Sadeeya Khan, Aamir Hussain Dar, Vinay Kumar Pandey, Rafeeya Shams, Saghir Ahmad, G. Jeevarathinam, Manoj Kumar, Punit Singh, R. Pandiselvam, Recent insights into green antimicrobial packaging towards food safety reinforcement: A review, 2023, 0149-6085, 10.1111/jfs.13046 | |
169. | Emma Dester, Kaily Kao, Evangelyn C. Alocilja, Detection of Unamplified E. coli O157 DNA Extracted from Large Food Samples Using a Gold Nanoparticle Colorimetric Biosensor, 2022, 12, 2079-6374, 274, 10.3390/bios12050274 | |
170. | Xiran Li, Xavier F. Hospital, Eva Hierro, Manuela Fernández, Lina Sheng, Luxin Wang, Formation of Listeria monocytogenes persister cells in the produce-processing environment, 2023, 390, 01681605, 110106, 10.1016/j.ijfoodmicro.2023.110106 | |
171. | Cennet Pelin BOYACİ GUNDUZ, Mehmet Fatih CENGİZ, ASSESSMENT OF FOOD SAFETY DURING COVID-19 PANDEMIC, 2022, 2651-4621, 10.38001/ijlsb.1039126 | |
172. | Seyed Mohammad Hassan Mortazavi, Mandeep Kaur, Asgar Farahnaky, Peter J. Torley, A. Mark Osborn, The pathogenic and spoilage bacteria associated with red meat and application of different approaches of high CO2 packaging to extend product shelf-life, 2021, 1040-8398, 1, 10.1080/10408398.2021.1968336 | |
173. | Camilly Fratelli Pereira, Leonardo Ribeiro, Monica Masako Nakamoto, Monize Burck, Anna Rafaela Cavalcante Braga, 2022, 978-1-83916-781-2, 431, 10.1039/9781839168048-00431 | |
174. | Luma Akil, Hafiz Anwar Ahmad, Socioeconomic impacts of COVID-19 pandemic on foodborne illnesses in the United States, 2023, 7, 2542-4904, em0128, 10.29333/ejeph/12585 | |
175. | Agata Lange, Ewa Sawosz, Karolina Daniluk, Mateusz Wierzbicki, Artur Małolepszy, Marcin Gołębiewski, Sławomir Jaworski, Bacterial Surface Disturbances Affecting Cell Function during Exposure to Three-Compound Nanocomposites Based on Graphene Materials, 2022, 12, 2079-4991, 3058, 10.3390/nano12173058 | |
176. | Madangchanok Imchen, VT Anju, Siddhardha Busi, Mahima S. Mohan, Pattnaik Subhaswaraj, Madhu Dyavaiah, Ranjith Kumavath, Metagenomic insights into taxonomic, functional diversity and inhibitors of microbial biofilms, 2022, 265, 09445013, 127207, 10.1016/j.micres.2022.127207 | |
177. | Zemichael Gizaw, Alemayehu Worku Yalew, Bikes Destaw Bitew, Jiyoung Lee, Michael Bisesi, Fecal indicator bacteria along multiple environmental exposure pathways (water, food, and soil) and intestinal parasites among children in the rural northwest Ethiopia, 2022, 22, 1471-230X, 10.1186/s12876-022-02174-4 | |
178. | Hartati Soetjipto, November Rianto Aminu, 2022, Chapter 9, 978-3-030-99475-4, 191, 10.1007/978-3-030-99476-1_9 | |
179. | Rashad R. Al-Hindi, Addisu D. Teklemariam, Mona G. Alharbi, Ibrahim Alotibi, Sheren A. Azhari, Ishtiaq Qadri, Turki Alamri, Steve Harakeh, Bruce M. Applegate, Arun K. Bhunia, Bacteriophage-Based Biosensors: A Platform for Detection of Foodborne Bacterial Pathogens from Food and Environment, 2022, 12, 2079-6374, 905, 10.3390/bios12100905 | |
180. | Marijana Popović, Franko Burčul, Maja Veršić Bratinčević, Nikolina Režić Mužinić, Danijela Skroza, Roberta Frleta Matas, Marija Nazlić, Tonka Ninčević Runjić, Maja Jukić Špika, Ana Bego, Valerija Dunkić, Elda Vitanović, In the Beginning Was the Bud: Phytochemicals from Olive (Olea europaea L.) Vegetative Buds and Their Biological Properties, 2023, 13, 2218-1989, 237, 10.3390/metabo13020237 | |
181. | Rubén Cebrián, Marta Martínez-García, Matilde Fernández, Federico García, Manuel Martínez-Bueno, Eva Valdivia, Oscar P. Kuipers, Manuel Montalbán-López, Mercedes Maqueda, Advances in the preclinical characterization of the antimicrobial peptide AS-48, 2023, 14, 1664-302X, 10.3389/fmicb.2023.1110360 | |
182. | Fazly Ann Zainalabidin, Nik Nur Najiha Nik Sabri, Yaya Rukayadi, Effect of Psidium guajava L. leaf extract on beef quality at different storage temperatures, 2022, 29, 2231-7546, 149, 10.47836/ifrj.29.1.17 | |
183. | Sofia Romão, Ana Bettencourt, Isabel A. C. Ribeiro, Novel Features of Cellulose-Based Films as Sustainable Alternatives for Food Packaging, 2022, 14, 2073-4360, 4968, 10.3390/polym14224968 | |
184. | 2022, 9781119809517, 207, 10.1002/9781119809548.ch26 | |
185. | Arpron Leesombun, Ladawan Sariya, Jarupha Taowan, Chowalit Nakthong, Orathai Thongjuy, Sookruetai Boonmasawai, Natural Antioxidant, Antibacterial, and Antiproliferative Activities of Ethanolic Extracts from Punica granatum L. Tree Barks Mediated by Extracellular Signal-Regulated Kinase, 2022, 11, 2223-7747, 2258, 10.3390/plants11172258 | |
186. | Reham F. El-Kased, Dina M. El-Kersh, GC–MS Profiling of Naturally Extracted Essential Oils: Antimicrobial and Beverage Preservative Actions, 2022, 12, 2075-1729, 1587, 10.3390/life12101587 | |
187. | Yanan Cao, Cheng Ye, Cong Zhang, Guohao Zhang, Haiming Hu, Zhigang Zhang, Haitian Fang, Junping Zheng, Hongtao Liu, Simultaneous detection of multiple foodborne bacteria by loop-mediated isothermal amplification on a microfluidic chip through colorimetric and fluorescent assay, 2022, 134, 09567135, 108694, 10.1016/j.foodcont.2021.108694 | |
188. | Sultan Ali, Abdullah F. Alsayeqh, Review of major meat-borne zoonotic bacterial pathogens, 2022, 10, 2296-2565, 10.3389/fpubh.2022.1045599 | |
189. | V.L. Almli, M. Galler, T. Møretrø, S. Langsrud, M.Ø. Gaarder, Ø. Ueland, Safe week, unsafe weekend? Consumers’ self-reported food safety practices and stomach sickness in cabin environments of varying infrastructure levels, 2022, 142, 09567135, 109215, 10.1016/j.foodcont.2022.109215 | |
190. | Abdallah M. Zeid, Abubakar Abdussalam, Saima Hanif, Saima Anjum, Baohua Lou, Guobao Xu, Recent advances in microchip electrophoresis for analysis of pathogenic bacteria and viruses, 2023, 44, 0173-0835, 15, 10.1002/elps.202200082 | |
191. | Freddy Bayas-Chac, Maribel Bermeo-San, Byron Herrera-Ch, Favian Bayas-More, Antimicrobial and Antioxidant Properties of Tropaeolum tuberosum Extracts from Ecuador, 2022, 21, 16823974, 321, 10.3923/ajps.2022.321.327 | |
192. | Nathan S. Long, James E. Wells, Elaine D. Berry, Jerrad F. Legako, Dale R. Woerner, Guy H. Loneragan, Paul R. Broadway, Jeff A. Carroll, Nicole C. Burdick Sanchez, Samodha C. Fernando, Carley M. Bacon, Cory L. Helmuth, Taylor M. Smock, Jeff L. Manahan, Ashley A. Hoffman, Kristin E. Hales, Metaphylactic antimicrobial effects on occurrences of antimicrobial resistance in Salmonella enterica, Escherichia coli and Enterococcus spp. measured longitudinally from feedlot arrival to harvest in high-risk beef cattle, 2022, 133, 1365-2672, 1940, 10.1111/jam.15691 | |
193. | Kasturi Selvam, Mohamad Ahmad Najib, Muhammad Fazli Khalid, Mehmet Ozsoz, Ismail Aziah, CRISPR-Cas Systems-Based Bacterial Detection: A Scoping Review, 2022, 12, 2075-4418, 1335, 10.3390/diagnostics12061335 | |
194. | Sotiriοs Ι. Εkonomou, Shwe Soe, Alexandros Ch. Stratakos, An explorative study on the antimicrobial effects and mechanical properties of 3D printed PLA and TPU surfaces loaded with Ag and Cu against nosocomial and foodborne pathogens, 2023, 137, 17516161, 105536, 10.1016/j.jmbbm.2022.105536 | |
195. | Manjeet Sharan, Pankaj Dhaka, Jasbir Singh Bedi, Randhir Singh, Nitin Mehta, Characterization of chicken eggs associated Escherichia coli and Staphylococcus aureus for biofilm production and antimicrobial resistance traits, 2023, 1049-5398, 1, 10.1080/10495398.2023.2171423 | |
196. | Karla Cristina P. Cruz, Laura O. Enekegho, David T. Stuart, Bioengineered Probiotics: Synthetic Biology Can Provide Live Cell Therapeutics for the Treatment of Foodborne Diseases, 2022, 10, 2296-4185, 10.3389/fbioe.2022.890479 | |
197. | El Sayed Hassan Atwaa, Magdy Ramadan Shahein, Hanan A. Radwan, Nahed S. Mohammed, Maha A. Aloraini, Nisreen Khalid Aref Albezrah, Maha A. Alharbi, Haitham Helmy Sayed, Mamdouh Abdelmegid Daoud, Ehab Kotb Elmahallawy, Antimicrobial Activity of Some Plant Extracts and Their Applications in Homemade Tomato Paste and Pasteurized Cow Milk as Natural Preservatives, 2022, 8, 2311-5637, 428, 10.3390/fermentation8090428 | |
198. | Tamanna Ramesh, Upasana Hariram, A. Srimagal, Jatindra K. Sahu, Applications of light emitting diodes and their mechanism for food preservation, 2023, 0149-6085, 10.1111/jfs.13040 | |
199. | Rasoul Mirzaei, Elahe Dehkhodaie, Behnaz Bouzari, Mandana Rahimi, Abolfazl Gholestani, Seyed Reza Hosseini-Fard, Hossein Keyvani, Ali Teimoori, Sajad Karampoor, Dual role of microbiota-derived short-chain fatty acids on host and pathogen, 2022, 145, 07533322, 112352, 10.1016/j.biopha.2021.112352 | |
200. | Mahdieh Raeeszadeh, Hamed Gravandi, Abolfazl Akbari, Determination of some heavy metals levels in the meat of animal species (sheep, beef, turkey, and ostrich) and carcinogenic health risk assessment in Kurdistan province in the west of Iran, 2022, 29, 0944-1344, 62248, 10.1007/s11356-022-19589-x | |
201. | Junho Lee, Hee Kyoung Kang, Hyeonsook Cheong, Yoonkyung Park, A Novel Antimicrobial Peptides From Pine Needles of Pinus densiflora Sieb. et Zucc. Against Foodborne Bacteria, 2021, 12, 1664-302X, 10.3389/fmicb.2021.662462 | |
202. | Zisheng Luo, Yating Lu, Yuhao Sun, Yiru Wang, Bin Su, Xingyu Lin, Digital recombinase polymerase amplification in hydrogel nanofluidic chip for ultrafast and precise quantification of pathogens in fresh food, 2022, 367, 09254005, 132051, 10.1016/j.snb.2022.132051 | |
203. | Tareq M. Osaili, Balsam Qubais Saeed, Sadi Taha, Ahmed Omar Adrees, Fayeza Hasan, Knowledge, Practices, and Risk Perception Associated with Foodborne Illnesses among Females Living in Dubai, United Arab Emirates, 2022, 11, 2304-8158, 290, 10.3390/foods11030290 | |
204. | Elna M. Buys, B.C. Dlamini, James A. Elegbeleye, N.N. Mehlomakulu, 2023, 9780128194706, 515, 10.1016/B978-0-12-819470-6.00064-0 | |
205. | Supratim Mahapatra, Vinish Ranjan Srivastava, Pranjal Chandra, Nanobioengineered Sensing Technologies Based on Cellulose Matrices for Detection of Small Molecules, Macromolecules, and Cells, 2021, 11, 2079-6374, 168, 10.3390/bios11060168 | |
206. | Jolanta Kowalonek, Natalia Stachowiak, Kinga Bolczak, Agnieszka Richert, Physicochemical and Antibacterial Properties of Alginate Films Containing Tansy (Tanacetum vulgare L.) Essential Oil, 2023, 15, 2073-4360, 260, 10.3390/polym15020260 | |
207. | Ondrej Chlumsky, Heidi J. Smith, Albert E. Parker, Kristen Brileya, James N. Wilking, Sabina Purkrtova, Hana Michova, Pavel Ulbrich, Jitka Viktorova, Katerina Demnerova, Evaluation of the Antimicrobial Efficacy of N-Acetyl-l-Cysteine, Rhamnolipids, and Usnic Acid—Novel Approaches to Fight Food-Borne Pathogens, 2021, 22, 1422-0067, 11307, 10.3390/ijms222111307 | |
208. | Penka Petrova, Alexander Arsov, Flora Tsvetanova, Tsvetomila Parvanova-Mancheva, Evgenia Vasileva, Lidia Tsigoriyna, Kaloyan Petrov, The Complex Role of Lactic Acid Bacteria in Food Detoxification, 2022, 14, 2072-6643, 2038, 10.3390/nu14102038 | |
209. | Fatima Ezahra Annanouch, Juan Casanova-Cháfer, Aanchal Alagh, Miriam Alvarado, Ernesto González, Eduard Llobet, 2022, 9780128245545, 657, 10.1016/B978-0-12-824554-5.00022-7 | |
210. | Lourenço Pinto de Rezende, Joana Barbosa, Paula Teixeira, Analysis of Alternative Shelf Life-Extending Protocols and Their Effect on the Preservation of Seafood Products, 2022, 11, 2304-8158, 1100, 10.3390/foods11081100 | |
211. | Lin Lin, Chencheng Luo, Changzhu Li, Xiaochen Chen, Haiying Cui, A Novel Biocompatible Ternary Nanoparticle with High Antibacterial Activity: Synthesis, Characterization, and Its Application in Beef Preservation, 2022, 11, 2304-8158, 438, 10.3390/foods11030438 | |
212. | Abdel Hamid El Bilbeisi, Ayoub Al-Jawaldeh, Ali Albelbeisi, Samer Abuzerr, Ibrahim Elmadfa, Lara Nasreddine, Association of household food insecurity with dietary intakes and nutrition-related knowledge, attitudes, and practices among parents, aged ≥ 18 years in Gaza Strip, Palestine: A descriptive study, 2022, 8, 24058440, e09582, 10.1016/j.heliyon.2022.e09582 | |
213. | Ellen Kiarely Souza, Filipe S. Pereira‐Dutra, Matheus A. Rajão, Felipe Ferraro‐Moreira, Taynná C. Goltara‐Gomes, Tamires Cunha‐Fernandes, Julia da Cunha Santos, Elisa B. Prestes, Warrison A. Andrade, Dario S. Zamboni, Marcelo T. Bozza, Patrícia T. Bozza, Lipid droplet accumulation occurs early followingSalmonellainfection and contributes to intracellular bacterial survival and replication, 2022, 117, 0950-382X, 293, 10.1111/mmi.14844 | |
214. | Noah A. Doshna, Joshua E. Herskovitz, Halle N. Redfearn, Julie M. Goddard, Antimicrobial Active Packaging Prepared by Reactive Extrusion of ε-Poly l-lysine with Polypropylene, 2022, 2, 2692-1944, 391, 10.1021/acsfoodscitech.1c00280 | |
215. | Helena Dela, Beverly Egyir, Ayodele O. Majekodunmi, Eric Behene, Clara Yeboah, Dominic Ackah, Richard N. A. Bongo, Bassirou Bonfoh, Jakob Zinsstag, Langbong Bimi, Kennedy Kwasi Addo, Muhammad Hussnain Siddique, Diarrhoeagenic E. coli occurrence and antimicrobial resistance of Extended Spectrum Beta-Lactamases isolated from diarrhoea patients attending health facilities in Accra, Ghana, 2022, 17, 1932-6203, e0268991, 10.1371/journal.pone.0268991 | |
216. | Sabrina Petrucci, Connor Costa, David Broyles, Emre Dikici, Sylvia Daunert, Sapna Deo, On-site detection of food and waterborne bacteria – Current technologies, challenges, and future directions, 2021, 115, 09242244, 409, 10.1016/j.tifs.2021.06.054 | |
217. | Robert Egessa, Antimicrobial peptides from freshwater invertebrate species: potential for future applications, 2022, 49, 0301-4851, 9797, 10.1007/s11033-022-07483-1 | |
218. | Veronica Folliero, Maria Ricciardi, Federica Dell’Annunziata, Concetta Pironti, Massimiliano Galdiero, Gianluigi Franci, Oriana Motta, Antonio Proto, Deployment of a Novel Organic Acid Compound Disinfectant against Common Foodborne Pathogens, 2022, 10, 2305-6304, 768, 10.3390/toxics10120768 | |
219. | Babak Pakbin, Wolfram Manuel Brück, Samaneh Allahyari, John W. A. Rossen, Razzagh Mahmoudi, Antibiotic Resistance and Molecular Characterization of Cronobacter sakazakii Strains Isolated from Powdered Infant Formula Milk, 2022, 11, 2304-8158, 1093, 10.3390/foods11081093 | |
220. | Prabhat K. Talukdar, Mahfuzur R. Sarker, Characterization of Putative Sporulation and Germination Genes in Clostridium perfringens Food-Poisoning Strain SM101, 2022, 10, 2076-2607, 1481, 10.3390/microorganisms10081481 | |
221. | Waqas Asghar, Aqsa Akhtar, Hafiz Ubaid ur Rahman, Abdul Sami, Nauman Khalid, Global perspective on food fraud with special emphasis on the prevalence of food fraud practices and policies in Pakistan, 2022, 2372-8639, 10.1002/wfp2.12056 | |
222. | Reena Kumari, Nitish Sharma, Sanjukta Samurailatpam, Amit Kumar Rai, Sudhir P. Singh, 2022, Chapter 9, 978-981-16-7028-2, 195, 10.1007/978-981-16-7029-9_9 | |
223. | Maryam Mousavizadegan, Amirreza Roshani, Morteza Hosseini, 2022, Chapter 3, 978-981-16-8332-9, 47, 10.1007/978-981-16-8333-6_3 | |
224. | Simge Aktop, Hacer Aslan, Pınar Şanlıbaba, 2023, 9780323998956, 127, 10.1016/B978-0-323-99895-6.00007-1 | |
225. | Hyeri Kim, Eun Sol Kim, Jin Ho Cho, Minho Song, Jae Hyoung Cho, Sheena Kim, Gi Beom Keum, Jinok Kwak, Hyunok Doo, Sriniwas Pandey, Seung-Hwan Park, Ju Huck Lee, Hyunjung Jung, Tai Young Hur, Jae-Kyung Kim, Kwang Kyo Oh, Hyeun Bum Kim, Ju-Hoon Lee, Exploring the Microbial Community and Functional Characteristics of the Livestock Feces Using the Whole Metagenome Shotgun Sequencing, 2023, 33, 1017-7825, 51, 10.4014/jmb.2209.09013 | |
226. | Shenbagavalli Kathiravan, Karthika Lakshmi Servarayan, Ellairaja Sundaram, Vasantha Vairathevar Sivasamy, 2022, Chapter 5, 978-981-16-8332-9, 91, 10.1007/978-981-16-8333-6_5 | |
227. | Truong Huynh Anh Vu, Chu Van Hai, Huynh Yen Ha, Nguyen Hoang Khue Tu, Antibiotic Resistance in Salmonella Isolated from Ho Chi Minh City (Vietnam) and Difference of Sulfonamide Resistance Gene Existence in Serovars, 2021, 15, 09737510, 2244, 10.22207/JPAM.15.4.46 | |
228. | Harsh Kumar, Kanchan Bhardwaj, Natália Cruz-Martins, Eugenie Nepovimova, Patrik Oleksak, Daljeet Singh Dhanjal, Sonali Bhardwaj, Reena Singh, Chirag Chopra, Rachna Verma, Prem Parkash Chauhan, Dinesh Kumar, Kamil Kuča, Applications of Fruit Polyphenols and Their Functionalized Nanoparticles Against Foodborne Bacteria: A Mini Review, 2021, 26, 1420-3049, 3447, 10.3390/molecules26113447 | |
229. | Maryam GHANE, Laleh BABAEEKHOU, Masumeh SHAMS, Antimicrobial activity of Rhus Coriaria L. and Salvia Urmiensis bunge against some food-borne pathogens and identification of active components using molecular networking and docking analyses, 2022, 42, 1678-457X, 10.1590/fst.08221 | |
230. | Łukasz Łopusiewicz, Paweł Kwiatkowski, Emilia Drozłowska, Production and Characterization of Yogurt-Like Fermented Beverage Based on Camelina (Camelina sativa L.) Seed Press Cake, 2022, 12, 2076-3417, 1085, 10.3390/app12031085 | |
231. | Emma Dester, Evangelyn Alocilja, Current Methods for Extraction and Concentration of Foodborne Bacteria with Glycan-Coated Magnetic Nanoparticles: A Review, 2022, 12, 2079-6374, 112, 10.3390/bios12020112 | |
232. | Anna Egorova, Andrey Shelenkov, Konstantin Kuleshov, Nina Kulikova, Aleksey Chernyshkov, Igor Manzeniuk, Yulia Mikhaylova, Vasiliy Akimkin, Plasmid Composition, Antimicrobial Resistance and Virulence Genes Profiles of Ciprofloxacin- and Third-Generation Cephalosporin-Resistant Foodborne Salmonella enterica Isolates from Russia, 2023, 11, 2076-2607, 347, 10.3390/microorganisms11020347 | |
233. | Patricia Cabrales-Arellano, Edward Park, Martha Minor, Efren Delgado, Delia Valles-Rosales, Heidi Taboada, José Espiritu, Jianzhong Su, Young Ho Park, Rapid identification of Staphylococcus aureus based on a fluorescence imaging/detection platform that combines loop mediated isothermal amplification assay and the smartphone-based system, 2022, 12, 2045-2322, 10.1038/s41598-022-25190-6 | |
234. | Omar A. Al-Mahmood, Angela M. Fraser, Molecular Detection of Salmonella spp. and E. coli non-O157:H7 in Two Halal Beef Slaughterhouses in the United States, 2023, 12, 2304-8158, 347, 10.3390/foods12020347 | |
235. | Mohamed Taha Yassin, Ashraf Abdel-Fattah Mostafa, Abdulaziz Abdulrahman Al-Askar, Shaban R.M. Sayed, In vitro antimicrobial activity of Thymus vulgaris extracts against some nosocomial and food poisoning bacterial strains, 2022, 115, 13595113, 152, 10.1016/j.procbio.2022.02.002 | |
236. | Baoya Wang, Wenjuan Dong, Liyan Ma, Yonghui Dong, Shanmei Wang, Youhua Yuan, Qiong Ma, Junhong Xu, Wenjuan Yan, Jing Nan, Qi Zhang, Wenbo Xu, Bing Ma, Yafei Chu, Jiangfeng Zhang, Li Li, Yi Li, Prevalence and Genetic Diversity of Clostridium perfringens Isolates in Hospitalized Diarrheal Patients from Central China, 2021, Volume 14, 1178-6973, 4783, 10.2147/IDR.S338593 | |
237. | Sofia Michailidou, Fotini Trikka, Konstantinos Pasentsis, George Economou Petrovits, Mary Kyritsi, Anagnostis Argiriou, Insights into the evolution of Greek style table olives microbiome stored under modified atmosphere: Biochemical implications on the product quality, 2021, 130, 09567135, 108286, 10.1016/j.foodcont.2021.108286 | |
238. | Jessen George, Suriyanarayanan Sarvajayakesavalu, Dev Raj Joshi, Vijayraja Dhanraj, Hima Haridasan, Aswathi K. Raghav, Fatemeh Mohammadzadeh, 2022, chapter 20, 9781799873563, 456, 10.4018/978-1-7998-7356-3.ch020 | |
239. | Timothy Sentongo, Desiree Sierra Velez, Phuong Huynh, Ruba Abdelhadi, Alvin Chan, Praveen Goday, Sara Karjoo, Sivan Kinberg, Russell Merritt, Nikhil Pai, Ruben E Quiros-Tejeira, Debora Duro, Managing the Impact of Cronobacter sakazakii, the Nemesis of Powdered Formula, 2022, 75, 0277-2116, 113, 10.1097/MPG.0000000000003508 | |
240. | Xiaoying Zheng, Chun Yuan, Yang Zhang, Shanjie Zha, Fan Mao, Yongbo Bao, Prediction and characterization of a novel hemoglobin-derived mutant peptide (mTgHbP7) from Tegillarca granosa, 2022, 125, 10504648, 84, 10.1016/j.fsi.2022.05.007 | |
241. | Engidaw Abebe, Getachew Gugsa, Meselu Ahmed, Nesibu Awol, Yalew Tefera, Shimelis Abegaz, Tesfaye Sisay, Ali M. Somily, Occurrence and antimicrobial resistance pattern of E. coli O157:H7 isolated from foods of Bovine origin in Dessie and Kombolcha towns, Ethiopia, 2023, 17, 1935-2735, e0010706, 10.1371/journal.pntd.0010706 | |
242. | Adriana H. Gargiulo, Stephany G. Duarte, Gabriela Z. Campos, Mariza Landgraf, Bernadette D. G. M. Franco, Uelinton M. Pinto, Food Safety Issues Related to Eating In and Eating Out, 2022, 10, 2076-2607, 2118, 10.3390/microorganisms10112118 | |
243. | Ben Ma, Kelly Bright, Luisa Ikner, Christian Ley, Saba Seyedi, Charles P. Gerba, Mark D. Sobsey, Patrick Piper, Karl G. Linden, UV Inactivation of Common Pathogens and Surrogates Under 222 nm Irradiation from KrCl* Excimer Lamps , 2022, 0031-8655, 10.1111/php.13724 | |
244. | Sureeporn Suriyaprom, Pascale Mosoni, Sabine Leroy, Thida Kaewkod, Mickaël Desvaux, Yingmanee Tragoolpua, Antioxidants of Fruit Extracts as Antimicrobial Agents against Pathogenic Bacteria, 2022, 11, 2076-3921, 602, 10.3390/antiox11030602 | |
245. | Thanawat Pattananandecha, Sutasinee Apichai, Jakaphun Julsrigival, Fumihiko Ogata, Naohito Kawasaki, Chalermpong Saenjum, Antibacterial Activity against Foodborne Pathogens and Inhibitory Effect on Anti-Inflammatory Mediators’ Production of Brazilin-Enriched Extract from Caesalpinia sappan Linn, 2022, 11, 2223-7747, 1698, 10.3390/plants11131698 | |
246. | Sofia Michailidou, Eleftherios Pavlou, Konstantinos Pasentsis, Jonathan Rhoades, Eleni Likotrafiti, Anagnostis Argiriou, Microbial profiles of Greek PDO cheeses assessed with amplicon metabarcoding, 2021, 99, 07400020, 103836, 10.1016/j.fm.2021.103836 | |
247. | Rezvan Golmoradi Zadeh, Sajjad Asgharzadeh, Atieh Darbandi, Amir Aliramezani, Faramarz Masjedian Jazi, Characterization of bacteriocins produced by Lactobacillus species against adhesion and invasion of Listeria monocytogenes isolated from different samples, 2022, 162, 08824010, 105307, 10.1016/j.micpath.2021.105307 | |
248. | Rocio Arreguin-Campos, Kasper Eersels, Joseph W. Lowdon, Renato Rogosic, Benjamin Heidt, Manlio Caldara, Kathia L. Jiménez-Monroy, Hanne Diliën, Thomas J. Cleij, Bart van Grinsven, Biomimetic sensing of Escherichia coli at the solid-liquid interface: From surface-imprinted polymer synthesis toward real sample sensing in food safety, 2021, 169, 0026265X, 106554, 10.1016/j.microc.2021.106554 | |
249. | Nattawut Leelakanok, Arpa Petchsomrit, Janthima Methaneethorn, Suphannika Prateepjarassaeng Pornwattanakavee, Medication selection for the treatment of acute infective diarrhea in Thai pharmacies: a qualitative study, 2021, 29, 2289-0882, 206, 10.12793/tcp.2021.29.e22 | |
250. | Rasha ELKENANY, Rasha ELTAYSH, Mona ELSAYED, Mohamed ABDEL-DAIM, Radwa SHATA, Characterization of multi-resistant Shigella species isolated from raw cow milk and milk products, 2022, 84, 0916-7250, 890, 10.1292/jvms.22-0018 | |
251. | Vijay K. Juneja, Neetu Kumra Taneja, Sheetal Thakur, 2023, 9780081005965, 10.1016/B978-0-12-822521-9.00089-7 | |
252. | Chalita Jainonthee, Warangkhana Chaisowwong, Phakamas Ngamsanga, Anuwat Wiratsudakul, Tongkorn Meeyam, Duangporn Pichpol, A Cutoff Determination of Real-Time Loop-Mediated Isothermal Amplification (LAMP) for End-Point Detection of Campylobacter jejuni in Chicken Meat, 2022, 9, 2306-7381, 122, 10.3390/vetsci9030122 | |
253. | So Young Oh, Alice Chateau, Anastasia Tomatsidou, Derek Elli, Haley Gula, Olaf Schneewind, Dominique Missiakas, Modeling gastrointestinal anthrax disease, 2023, 09232508, 104026, 10.1016/j.resmic.2023.104026 | |
254. | Amir Ali Anvar, Hamed Ahari, Maryam Ataee, Antimicrobial Properties of Food Nanopackaging: A New Focus on Foodborne Pathogens, 2021, 12, 1664-302X, 10.3389/fmicb.2021.690706 | |
255. | Jasmina Vidic, Marisa Manzano, V. Samuel Raj, Ramendra Pati Pandey, Chung-Ming Chang, Comparative meta-analysis of antimicrobial resistance from different food sources along with one health approach in Italy and Thailand, 2023, 16, 23527714, 100477, 10.1016/j.onehlt.2022.100477 | |
256. | Kiran Kumar Bhukya, Bhima Bhukya, Muhammad Hussnain Siddique, Unraveling the probiotic efficiency of bacterium Pediococcus pentosaceus OBK05 isolated from buttermilk: An in vitro study for cholesterol assimilation potential and antibiotic resistance status, 2021, 16, 1932-6203, e0259702, 10.1371/journal.pone.0259702 | |
257. | Shu-Yao Tsai, Yu-Ming Liu, Zhi-Wei Lin, Chun-Ping Lin, Antimicrobial activity effects of electrolytically generated hypochlorous acid-treated pathogenic microorganisms by isothermal kinetic simulation, 2023, 148, 1388-6150, 1613, 10.1007/s10973-022-11727-4 | |
258. | Anna Jakubczyk, Kaja Kiersnowska, Begümhan Ömeroğlu, Urszula Gawlik-Dziki, Krzysztof Tutaj, Kamila Rybczyńska-Tkaczyk, Magdalena Szydłowska-Tutaj, Urszula Złotek, Barbara Baraniak, The Influence of Hypericum perforatum L. Addition to Wheat Cookies on Their Antioxidant, Anti-Metabolic Syndrome, and Antimicrobial Properties, 2021, 10, 2304-8158, 1379, 10.3390/foods10061379 | |
259. | Elena G. Olson, Tomasz Grenda, Anuradha Ghosh, Steven C. Ricke, 2023, 9780128194706, 378, 10.1016/B978-0-12-819470-6.00023-8 | |
260. | Ilenia Tinebra, Roberta Passafiume, Dario Scuderi, Antonino Pirrone, Raimondo Gaglio, Eristanna Palazzolo, Vittorio Farina, Effects of Tray-Drying on the Physicochemical, Microbiological, Proximate, and Sensory Properties of White- and Red-Fleshed Loquat (Eriobotrya Japonica Lindl.) Fruit, 2022, 12, 2073-4395, 540, 10.3390/agronomy12020540 | |
261. | Bo Li, Kaixi Zheng, Jiaqi Lu, Dandan Zeng, Qisen Xiang, Yunfang Ma, Antibacterial characteristics of oregano essential oil and its mechanisms against Escherichia coli O157:H7, 2022, 16, 2193-4126, 2989, 10.1007/s11694-022-01393-3 | |
262. | Mst. Rokshana Rabeya, Md. Hasan Bin Zihad, Md. Anis Fakir, Most. Sabina Khatun, Jinnat Jahan Rakhi, Ashraful Islam, Rashedul Islam, Md. Abdullah Saeed Khan, Mohammad Delwer Hossain Hawlader, Luigi Schiavo, A Community-Based Cross-Sectional Study about the Knowledge, Attitude, and Practices of Food Safety Measures among Rural Households in Bangladesh, 2022, 2022, 2090-0732, 1, 10.1155/2022/7814370 | |
263. | Iwona Kawacka, Agnieszka Olejnik-Schmidt, Marcin Schmidt, Nonhemolytic Listeria monocytogenes—Prevalence Rate, Reasons Underlying Atypical Phenotype, and Methods for Accurate Hemolysis Assessment, 2022, 10, 2076-2607, 483, 10.3390/microorganisms10020483 | |
264. | Srusti Udayakumar, Dissanayake M. D. Rasika, Hasitha Priyashantha, Janak K. Vidanarachchi, Chaminda Senaka Ranadheera, Probiotics and Beneficial Microorganisms in Biopreservation of Plant-Based Foods and Beverages, 2022, 12, 2076-3417, 11737, 10.3390/app122211737 | |
265. | Thaís Silveira Bueno, Márcia Regina Loiko, Marina Roth Vidaletti, Júlia Alves de Oliveira, Tiago Fetzner, Cristine Cerva, Lucas Brunelli de Moraes, Silvia De Carli, Franciele Maboni Siqueira, Rogério Oliveira Rodrigues, Mario de Menezes Coppola, Sidia Maria Callegari‐Jacques, Fabiana Quoos Mayer, Multidrug‐resistant Escherichia coli from free‐living pigeons ( Columba livia ): Insights into antibiotic environmental contamination and detection of resistance genes , 2022, 69, 1863-1959, 682, 10.1111/zph.12957 | |
266. | Asma Nadia Ahmad Faris, Mohamad Ahmad Najib, Muhammad Najmi Mohd Nazri, Amir Syahir Amir Hamzah, Ismail Aziah, Nik Yusnoraini Yusof, Rohimah Mohamud, Irneza Ismail, Fatin Hamimi Mustafa, Colorimetric Approach for Nucleic Acid Salmonella spp. Detection: A Systematic Review, 2022, 19, 1660-4601, 10570, 10.3390/ijerph191710570 | |
267. | Anna Jakubczyk, Urszula Złotek, Kamila Rybczyńska-Tkaczyk, Influence of Elicitation and Drying Methods on Anti-Metabolic Syndrome, and Antimicrobial Properties of Extracts and Hydrolysates Obtained from Elicited Lovage (Levisticum officinale Koch), 2021, 13, 2072-6643, 4365, 10.3390/nu13124365 | |
268. | Ping Li, Han Jiang, Jiayi Xiong, Mengqi Fu, Xianpu Huang, Boxun Huang, Qing Gu, 2022, Chapter 7, 978-1-80355-309-2, 10.5772/intechopen.102086 | |
269. | Alline Laiane Borges Dias, Cassia Cristina Fernandes, Jonathan Henrique de Souza, Carlos Henrique Gomes Martins, Felipe Fernandes Moreira, Antônio Eduardo Miller Crotti, Mayker Lazaro Dantas Miranda, Antibacterial activity of essential oils from Brazilian plants and their major constituents against foodborne pathogens and spoilage bacteria, 2022, 34, 1041-2905, 195, 10.1080/10412905.2022.2032424 | |
270. | Xuan Weng, Cheng Zhang, Hai Jiang, Advances in microfluidic nanobiosensors for the detection of foodborne pathogens, 2021, 151, 00236438, 112172, 10.1016/j.lwt.2021.112172 | |
271. | Feifei Sun, Jing Zhang, Qingli Yang, Wei Wu, Quantum dot biosensor combined with antibody and aptamer for tracing food-borne pathogens, 2021, 5, 2399-1399, 10.1093/fqsafe/fyab019 | |
272. | Barbato Domenico, De Paula Baer Alice, Lia Lorenza, Giada La Torre, Rosario A. Cocchiara, Cristina Sestili, Angela Del Cimmuto, Giuseppe La Torre, 2022, Chapter 10, 978-3-030-83159-2, 209, 10.1007/978-3-030-83160-8_10 | |
273. | Mokhtar Nosrati, Reza Ranjbar, Investigation of the antibacterial and biofilm inhibitory activities of Prangos acaulis (DC.) Bornm in nanoparticulated formulation, 2022, 33, 0957-4484, 385103, 10.1088/1361-6528/ac78f1 | |
274. | Fikirte Lemma, Haile Alemayehu, Andrew Stringer, Tadesse Eguale, Bo Han, Prevalence and Antimicrobial Susceptibility Profile of Staphylococcus aureus in Milk and Traditionally Processed Dairy Products in Addis Ababa, Ethiopia, 2021, 2021, 2314-6141, 1, 10.1155/2021/5576873 | |
275. | Ahmad A. Hussien, Adnan H. Abdellattif, Ali A. Abumunshar, Ahmad Samara, Labib Sharif, Abdulsalam Alkaiyat, Amer A. Koni, Sa’ed H. Zyoud, Food Safety Concerns and Practices Among Palestinian University Students: A Cross-Sectional Study, 2022, 12, 2158-2440, 215824402211194, 10.1177/21582440221119490 | |
276. | Vasanti Suvarna, Arya Nair, Rashmi Mallya, Tabassum Khan, Abdelwahab Omri, Antimicrobial Nanomaterials for Food Packaging, 2022, 11, 2079-6382, 729, 10.3390/antibiotics11060729 | |
277. | Renmao Tian, Melissa Widel, Behzad Imanian, The Light Chain Domain and Especially the C-Terminus of Receptor-Binding Domain of the Botulinum Neurotoxin (BoNT) Are the Hotspots for Amino Acid Variability and Toxin Type Diversity, 2022, 13, 2073-4425, 1915, 10.3390/genes13101915 | |
278. | Ramila Cristiane Rodrigues, Thaysa Leite Tagliaferri, Tiago Antônio de Oliveira Mendes, Potential of the endogenous and artificially inserted CRISPR-Cas system for controlling virulence and antimicrobial resistance of food pathogens, 2023, 2, 2772753X, 100229, 10.1016/j.focha.2023.100229 | |
279. | Thi Thanh-Qui Nguyen, Man Bock Gu, An ultrasensitive electrochemical aptasensor using Tyramide-assisted enzyme multiplication for the detection of Staphylococcus aureus, 2023, 228, 09565663, 115199, 10.1016/j.bios.2023.115199 | |
280. | Andreea Lanciu Dorofte, Cristian Dima, Alina Ceoromila, Andreea Botezatu, Rodica Dinica, Iulia Bleoanca, Daniela Borda, Controlled Release of β-CD-Encapsulated Thyme Essential Oil from Whey Protein Edible Packaging, 2023, 13, 2079-6412, 508, 10.3390/coatings13030508 | |
281. | Antuo Hu, Liangyu Kong, Zhaoxin Lu, Haibo Zhou, Xiaomei Bie, Construction of a LAMP-CRISPR assay for the detection of Vibrio parahaemolyticus, 2023, 09567135, 109728, 10.1016/j.foodcont.2023.109728 | |
282. | Minxia Fan, Tojofaniry Fabien Rakotondrabe, Guilin Chen, Mingquan Guo, Advances in microbial analysis: based on volatile organic compounds of microorganisms in food, 2023, 03088146, 135950, 10.1016/j.foodchem.2023.135950 | |
283. | Iwona Kawacka, Bernadeta Pietrzak, Marcin Schmidt, Agnieszka Olejnik-Schmidt, Listeria monocytogenes Isolates from Meat Products and Processing Environment in Poland Are Sensitive to Commonly Used Antibiotics, with Rare Cases of Reduced Sensitivity to Ciprofloxacin, 2023, 13, 2075-1729, 821, 10.3390/life13030821 | |
284. | Jessica G. Vorse, Colleen T. Moody, Lyle C. Massoia, Jennifer J. Perry, Kristin M. Burkholder, Carrie J. Byron, Effect of post-harvest processing methods on the microbial safety of edible seaweed, 2023, 0921-8971, 10.1007/s10811-023-02937-w | |
285. | Olayinka A. Aiyegoro, 2022, 9780081005965, 10.1016/B978-0-323-85125-1.00167-8 | |
286. | Bono Nethathe, Phato Avheani Matsheketsheke, Mpho Edward Mashau, Shonisani Eugenia Ramashia, Microbial safety of ready-to-eat food sold by retailers in Thohoyandou, Limpopo province, South Africa, 2023, 9, 2331-1932, 10.1080/23311932.2023.2185965 | |
287. | Ayman Elbehiry, Adil Abalkhail, Eman Marzouk, Ahmed Elnadif Elmanssury, Abdulaziz M. Almuzaini, Hani Alfheeaid, Mohammed T. Alshahrani, Nasser Huraysh, Mai Ibrahem, Feras Alzaben, Farhan Alanazi, Mohammed Alzaben, Sulaiman Abdulaziz Anagreyyah, Abdulraheem Mousa Bayameen, Abdelmaged Draz, Akram Abu-Okail, An Overview of the Public Health Challenges in Diagnosing and Controlling Human Foodborne Pathogens, 2023, 11, 2076-393X, 725, 10.3390/vaccines11040725 | |
288. | Michal Kajsik, Peter Durovka, Maria Kajsikova, Diana Rusnakova, Tomas Szemes, Hana Drahovska, Catherine Putonti, Complete Genome Sequence of New Cronobacter- Specific Bacteriophage Dev_CS701 , 2023, 2576-098X, 10.1128/mra.00034-23 | |
289. | Lam Ngan, Pham Trinh, Tran Quy, Do Khang, Antimicrobial Evaluation of Melaleuca alternifolia and Melaleuca citrina Essential Oils Against Listeria monocytogenes and Escherichia coli Applied in Disinfection, 2023, 22, 16823974, 316, 10.3923/ajps.2023.316.326 | |
290. | Niki Mougiou, Antiopi Tsoureki, Spyros Didos, Ioanna Bouzouka, Sofia Michailidou, Anagnostis Argiriou, Microbial and Biochemical Profile of Different Types of Greek Table Olives, 2023, 12, 2304-8158, 1527, 10.3390/foods12071527 | |
291. | Aleksandra Maria Kocot, Yves Briers, Magdalena Plotka, Phages and engineered lysins as an effective tool to combat Gram‐negative foodborne pathogens, 2023, 1541-4337, 10.1111/1541-4337.13145 | |
292. | Radwan S. Farag, Layla S. Tawfeek, 2022, 22, 9786197603521, 55, 10.5593/sgem2022V/6.2/s25.08 | |
293. | Helena Dela, Beverly Egyir, Eric Behene, Hamdiya Sulemana, Rodalyn Tagoe, Ronald Bentil, Richard N.A. Bongo, Bassirou Bonfoh, Jakob Zinsstag, Langbong Bimi, Kennedy Kwasi Addo, Microbiological quality and antimicrobial resistance of Bacteria species recovered from ready-to-eat food, water samples, and palm swabs of food vendors in Accra, Ghana, 2023, 396, 01681605, 110195, 10.1016/j.ijfoodmicro.2023.110195 | |
294. | Rachid Amaiach, Sanae Lairini, Mouhcine Fadil, Moussa Benboubker, Rabia Bouslamti, Soukaina El Amrani, Abdelhakim El Ouali Lalami, Alejandro Castillo, Microbiological Profile and Hygienic Quality of Foodstuffs Marketed in Collective Catering in Central Morocco, 2023, 2023, 2314-5765, 1, 10.1155/2023/2820506 | |
295. | Yuting Shang, Gaowa Xing, Haifeng Lin, Yucheng Sun, Shulang Chen, Jin-Ming Lin, Rapid Detection of Multiplex Foodborne Bacteria Using Real-Time Rpa Sensing Micro-Platform, 2022, 1556-5068, 10.2139/ssrn.4165920 | |
296. | Raina Jain, Prashant Bagade, Kalpana Patil‐Doke, Ganesh Ramamurthi, 2023, 9781119775584, 1, 10.1002/9781119776406.ch1 | |
297. | Robert G. Hjort, Cicero C. Pola, Raquel R.A. Soares, Daniela A. Oliveira, Loreen Stromberg, Jonathan C. Claussen, Carmen L. Gomes, 2023, 9780081005965, 10.1016/B978-0-12-822521-9.00187-8 | |
298. | Mohammed Aladhadh, A Review of Modern Methods for the Detection of Foodborne Pathogens, 2023, 11, 2076-2607, 1111, 10.3390/microorganisms11051111 | |
299. | Mohsen M. El-Sherbiny, Reny P. Devassy, Mohamed E. El-Hefnawy, Soha T. Al-Goul, Mohammed I. Orif, Mohamed H. El-Newehy, Facile Synthesis, Characterization, and Antimicrobial Assessment of a Silver/Montmorillonite Nanocomposite as an Effective Antiseptic against Foodborne Pathogens for Promising Food Protection, 2023, 28, 1420-3049, 3699, 10.3390/molecules28093699 | |
300. | Ranish Shrestha, Sunil Shrestha, Asmita Priyadarshini Khatiwada, Bhuvan KC, Ranjit Sah, 2023, Chapter 49-1, 978-3-030-74786-2, 1, 10.1007/978-3-030-74786-2_49-1 | |
301. | Rossi Indiarto, Arif Nanda Irawan, Edy Subroto, Meat Irradiation: A Comprehensive Review of Its Impact on Food Quality and Safety, 2023, 12, 2304-8158, 1845, 10.3390/foods12091845 | |
302. | Urszula Złotek, Anna Jakubczyk, Kamila Rybczyńska‐Tkaczyk, Impact of elicitation and drying methods on biological activities of lovage essential oil, 2023, 0950-5423, 10.1111/ijfs.16464 | |
303. | Vahid Eskandari, Saeideh Mehmandoust, Zahra Farahani, Negin Poorbeik Mohammad, Amin Hadi, Liposomes/Nanoliposomes and Surfaced-Enhanced Raman Scattering (SERS): A Review, 2023, 09242031, 103536, 10.1016/j.vibspec.2023.103536 | |
304. | Hazem Ramadan, Maha Al-Ashmawy, Ahmed M. Soliman, Mohammed Elbediwi, Islam Sabeq, Mona Yousef, Abdelazeem M. Algammal, Lari M. Hiott, Mark E. Berrang, Jonathan G. Frye, Charlene R. Jackson, Whole-genome sequencing of Listeria innocua recovered from retail milk and dairy products in Egypt, 2023, 14, 1664-302X, 10.3389/fmicb.2023.1160244 | |
305. | Saba Beigh, Ali Mahzari, Read A. Alharbi, Rahaf A. Al-Ghamdi, Hanan E. Alyahyawi, Hind A. Al-Zahrani, Saeedah Al-Jadani, A Retrospective Study of Epidemiological Correlations of Food, Drug and Chemical Poisoning in Al-Baha, Western Saudi Arabia, 2023, 11, 2227-9032, 1398, 10.3390/healthcare11101398 | |
306. | M.C. Varadaraj, Vishweshwaraiah Prakash, 2023, 9780081005965, 10.1016/B978-0-12-822521-9.00190-8 | |
307. | Sümeyye ŞAHİN, Özlem KILIÇ, Antioxidant and antibacterial activities of essential oils and aromatic waters of some plants grown in the highlands, 2021, 5, 2618-5946, 133, 10.31015/jaefs.2021.2.1 | |
308. | Maria Teresa Rocchetti, Pasquale Russo, Nicola De Simone, Vittorio Capozzi, Giuseppe Spano, Daniela Fiocco, Immunomodulatory Activity on Human Macrophages by Cell-Free Supernatants to Explore the Probiotic and Postbiotic Potential of Lactiplantibacillus plantarum Strains of Plant Origin, 2023, 1867-1306, 10.1007/s12602-023-10084-4 | |
309. | Abidemi Oluranti Ojo, Olga de Smidt, Microbial Composition, Bioactive Compounds, Potential Benefits and Risks Associated with Kombucha: A Concise Review, 2023, 9, 2311-5637, 472, 10.3390/fermentation9050472 | |
310. | Zhihang Liao, Shanshan Chen, Lanlan Zhang, Sujie Li, Yan Zhang, Xunan Yang, Microbial assemblages in water hyacinth silages with different initial moistures, 2023, 00139351, 116199, 10.1016/j.envres.2023.116199 | |
311. | Nethma Samadhi Ranathunga, Kaushalya Nadeeshani Wijayasekara, Edirisinghe Dewage Nalaka Sandun Abeyrathne, Application of bio-preservation to enhance food safety: A review, 2023, 30, 1738-7248, 179, 10.11002/kjfp.2023.30.2.179 | |
312. | Cristina Rodriguez-Quijada, Casandra Lyons, Maria Sanchez-Purra, Charles Santamaria, Brianna M. Leonardo, Sara Quinn, Michael F. Tlusty, Michael Shiaris, Kimberly Hamad-Schifferli, Gold Nanoparticle Paper Immunoassays for Sensing the Presence of Vibrio parahaemolyticus in Oyster Hemolymph, 2023, 2470-1343, 10.1021/acsomega.3c00853 | |
313. | Leonard I Uzairue, Olufunke B Shittu, Olufemi E Ojo, Tolulope M Obuotor, Grace Olanipekun, Theresa Ajose, Ronke Arogbonlo, Nubwa Medugu, Bernard Ebruke, Stephen K Obaro, Antimicrobial resistance and virulence genes of invasive Salmonella enterica from children with bacteremia in north-central Nigeria, 2023, 11, 2050-3121, 205031212311753, 10.1177/20503121231175322 | |
314. | Alma Mejri, Ahmed Hichem Hamzaoui, Hamza Elfil, Abdelmoneim Mars, 2023, Chapter 7, 978-3-031-28941-5, 145, 10.1007/978-3-031-28942-2_7 | |
315. | Elif Atay, Aylin Altan, Nanomaterial interfaces designed with different biorecognition elements for biosensing of key foodborne pathogens, 2023, 1541-4337, 10.1111/1541-4337.13179 | |
316. | Abdi Wira Septama, Aprilia Nur Tasfiyati, Eldiza Puji Rahmi, Ibrahim Jantan, Rizna Triana Dewi, Amit Jaisi, Antibacterial, bacteriolytic, and antibiofilm activities of the essential oil of temu giring (Curcuma heyneana Val.) against foodborne pathogens, 2023, 1082-0132, 108201322311780, 10.1177/10820132231178060 | |
317. | Fatemeh Davodabadi, Shekoufeh Mirinejad, Sonia Fathi‐Karkan, Mahdi Majidpour, Narges Ajalli, Roghayeh Sheervalilou, Saman Sargazi, Dominika Rozmus, Abbas Rahdar, Ana M. Diez‐Pascual, Aptamer‐functionalized quantum dots as theranostic nanotools against cancer and bacterial infections: A comprehensive overview of recent trends, 2023, 8756-7938, 10.1002/btpr.3366 | |
318. | Yaqi Song, Min Chen, Zhongyu Yan, Lu Han, Leiqing Pan, Kang Tu, A Novel Nanoplatform Based on Biofunctionalized MNPs@UCNPs for Sensitive and Rapid Detection of Shigella, 2023, 11, 2227-9040, 309, 10.3390/chemosensors11050309 | |
319. | Maria Schirone, Antonello Paparella, 2023, 9780081005965, 10.1016/B978-0-12-822521-9.00215-X | |
320. | Donglei Lu, Jikai Liu, Hong Liu, Yunchang Guo, Yue Dai, Junhua Liang, Lili Chen, Lizi Xu, Ping Fu, Ning Li, Epidemiological Features of Foodborne Disease Outbreaks in Catering Service Facilities — China, 2010–2020, 2023, 5, 2096-7071, 479, 10.46234/ccdcw2023.091 | |
321. | Tracy Ann Bruce-Tagoe, Michael K. Danquah, Bioaffinity Nanoprobes for Foodborne Pathogen Sensing, 2023, 14, 2072-666X, 1122, 10.3390/mi14061122 | |
322. | Fortunatus Masanja, Ke Yang, Yang Xu, Guixiang He, Xiaolong Liu, Xin Xu, Xiaoyan Jiang, Xin Luo, Robert Mkuye, Yuewen Deng, Liqiang Zhao, Bivalves and microbes: a mini-review of their relationship and potential implications for human health in a rapidly warming ocean, 2023, 10, 2296-7745, 10.3389/fmars.2023.1182438 | |
323. | Madeleine Jönsson, Leila Allahgholi, Marilyn Rayner, Eva Nordberg Karlsson, Exploration of high-pressure processing (HPP) for preservation of the Swedish grown brown macroalgae Saccharina latissima, 2023, 3, 2674-1121, 10.3389/frfst.2023.1150482 | |
324. | Ahmet Akif Kizilkurtlu, Erhan Demirbas, Hatice Esra Agel, Electrochemical aptasensors for pathogenic detection toward point‐of‐care diagnostics, 2023, 0885-4513, 10.1002/bab.2485 | |
325. | Neha Farid, Amna Waheed, Simran Motwani, Synthetic and natural antimicrobials as a control against food borne pathogens: A review, 2023, 9, 24058440, e17021, 10.1016/j.heliyon.2023.e17021 | |
326. | Muktiningsih Nurjayadi, Irvan Maulana, Nabila Alya Pramudiyasih, Ratna Nur Kusumawati, Maharaniaska Azzahra, Niken Kurnia Liman, Muhammad Arkent Sangkara, Esnawan Wibisono, Fera Kurniadewi, Vira Saamia, Dwi Anna Oktaviani Saputro, I. Made Wiranatha, Hesham Ali El-Enshasy, 2023, 2705, 0094-243X, 030014, 10.1063/5.0126314 | |
327. | Bhoirob Gogoi, Neehasri Kumar Chowdhury, Suprity Shyam, Reshma Choudhury, Mitali Chetia, Tanushree Basumatary, Hemen Sarma, 2023, 9781119867302, 389, 10.1002/9781119867333.ch26 | |
328. | Divek V.T. Nair, Shijinaraj Manjankattil, Claire Peichel, Wayne Martin, Annie M. Donoghue, Kumar Venkitanarayanan, Anup Kollanoor Johny, Effect of Plant-Derived Antimicrobials, Eugenol, Carvacrol, and β-Resorcylic Acid against Salmonella on Organic Chicken Wings and Carcasses, 2023, 00325791, 102886, 10.1016/j.psj.2023.102886 | |
329. | Hongchen Zhang, Yujun Zhai, Kewei Chen, Hui Shi, Adhesion of Escherichia coli O157:H7 during sublethal injury and resuscitation: Importance of pili and surface properties, 2023, 115, 07400020, 104329, 10.1016/j.fm.2023.104329 | |
330. | Siphosethu Magqupu, Chenaimoyo L.F. Katiyatiya, Obert C. Chikwanha, Phillip E. Strydom, Cletos Mapiye, Quality and safety of pork sold in the informal urban street markets of the Cape Metropole, South Africa, 2023, 204, 03091740, 109270, 10.1016/j.meatsci.2023.109270 | |
331. | Nadin Younes, Hadi M. Yassine, Katerina Kourentzi, Patrick Tang, Dmitri Litvinov, Richard C. Willson, Laith J. Abu-Raddad, Gheyath K. Nasrallah, A review of rapid food safety testing: using lateral flow assay platform to detect foodborne pathogens, 2023, 1040-8398, 1, 10.1080/10408398.2023.2217921 | |
332. | Joyce Siwila, The Triple Food-borne Protozoan Parasites: Cryptosporidium spp., Giardia duodenalis, Cyclospora cayetanensis—Hope in Transmission Reduction, 2023, 2196-5471, 10.1007/s40588-023-00199-1 | |
333. | Fareed Ahmad, Muhammad Usman Ghani Khan, Ahsen Tahir, Farhan Masud, Deep ensemble approach for pathogen classification in large-scale images using patch-based training and hyper-parameter optimization, 2023, 24, 1471-2105, 10.1186/s12859-023-05398-7 | |
334. | Qwait AlGabbani, Abdullah F. Shater, Rasha Assiri, Ghadah Asaad Assiri, Alaa Asaad Assiri, Raafat T. M. Makhlof, Mohammad A. Alsaad, Samia S. Alkhalil, Rawabi Mohamed Almuhimed, Hailah M. Almohaimeed, Hayfa AlDughaishem, Differential effects of methanolic extracts of clove, ginger, garlic and eucalyptus essential oils on anti-parasitic partitivities of G. lamblia and E. histolytica: an in vitro study, 2023, 2037-4631, 10.1007/s12210-023-01173-1 | |
335. | Dong-Mei Liu, Chen Dong, Gold nanoparticles as colorimetric probes in food analysis: Progress and challenges, 2023, 429, 03088146, 136887, 10.1016/j.foodchem.2023.136887 | |
336. | Gregory Dale Kearney, 2023, 9780081005965, 10.1016/B978-0-12-822521-9.00249-5 | |
337. | Wellington Luis Reis Costa, Emília Turlande Sêneca Ribeiro dos Santos, Moara de Santana Martins Rodgers, Lia Muniz Barretto Fernandes, Elmiro Rosendo do Nascimento, Salmonella spp. in non-edible animal products: a burden on the broiler industry, 2023, 26, 1981-6723, 10.1590/1981-6723.14622 | |
338. | Sepideh Fathi, Nazila Jalilzadeh, Mohammad Amini, Dariush Shanebandi, Behzad Baradaran, Fatemeh Oroojalian, Ahad Mokhtarzadeh, Prashant Kesharwani, Amirhossein Sahebkar, Surface plasmon resonance-based oligonucleotide biosensor for Salmonella Typhi detection, 2023, 00032697, 115250, 10.1016/j.ab.2023.115250 | |
339. | Bo Wang, Hang Wang, Xubin Lu, Xiangfeng Zheng, Zhenquan Yang, Recent Advances in Electrochemical Biosensors for the Detection of Foodborne Pathogens: Current Perspective and Challenges, 2023, 12, 2304-8158, 2795, 10.3390/foods12142795 | |
340. | Akvilė Pažarauskaitė, Estefanía Noriega Fernández, Izumi Sone, Morten Sivertsvik, Nusrat Sharmin, Combined Effect of Citric Acid and Polyphenol-Rich Grape Seed Extract towards Bioactive Smart Food Packaging Systems, 2023, 15, 2073-4360, 3118, 10.3390/polym15143118 | |
341. | Tina Hesabizadeh, Kidon Sung, Miseon Park, Steven Foley, Angel Paredes, Stephen Blissett, Gregory Guisbiers, Synthesis of Antibacterial Copper Oxide Nanoparticles by Pulsed Laser Ablation in Liquids: Potential Application against Foodborne Pathogens, 2023, 13, 2079-4991, 2206, 10.3390/nano13152206 | |
342. | Alaa M. Mansour, Mohamed A. Nossair, Faten S. Soliman, Rasha Gomaa Tawfik, Engy Elekhnawy, Hayder M. Al-Kuraishy, Gaber El-Saber Batiha, Mohamed H. Mahmoud, Athanasios Alexiou, Michael M. Shawky, Escherichia coli isolates from meat and abattoirs environment in Egypt: molecular characterization and control by nanosilver particles, 2023, 0960-3123, 1, 10.1080/09603123.2023.2243828 | |
343. | Rui Dias Costa, Vanessa Silva, Ana Leite, Margarida Saraiva, Teresa Teixeira Lopes, Patrícia Themudo, Joana Campos, Madalena Vieira-Pinto, Salmonella spp., Escherichia coli and Enterobacteriaceae Control at a Pig Abattoir: Are We Missing Lairage Time Effect, Pig Skin, and Internal Carcass Surface Contamination?, 2023, 12, 2304-8158, 2910, 10.3390/foods12152910 | |
344. | Viet Thanh Tran, Tran Bao Nguyen, Ha Chi Nguyen, Nga H.N. Do, Phung K. Le, Recent applications of natural bioactive compounds from Piper betle (L.) leaves in food preservation, 2023, 154, 09567135, 110026, 10.1016/j.foodcont.2023.110026 | |
345. | Mohammad Hashemi, Mustafa Salayani, Asma Afshari, Hossein Samadi Kafil, Seyyed Mohammad Ali Noori, The Global Burden of Viral Food-borne Diseases: A Systematic Review, 2023, 24, 13892010, 1657, 10.2174/1389201024666230221110313 | |
346. | Yuting Shang, Gaowa Xing, Haifeng Lin, Yucheng Sun, Shulang Chen, Jin-Ming Lin, Development of nucleic acid extraction and real-time recombinase polymerase amplification (RPA) assay integrated microfluidic biosensor for multiplex detection of foodborne bacteria, 2024, 155, 09567135, 110047, 10.1016/j.foodcont.2023.110047 | |
347. | Bhaskar Das, Bhaskar Kalita, Risha Hazarika, Sanjukta Patra, 2023, Chapter 3, 978-3-031-30682-2, 53, 10.1007/978-3-031-30683-9_3 | |
348. | Tshepo Mafokwane, Appolinaire Djikeng, Lucky T. Nesengani, John Dewar, Olivia Mapholi, Andrew Day, Gastrointestinal Infection in South African Children under the Age of 5 years: A Mini Review, 2023, 2023, 1687-630X, 1, 10.1155/2023/1906782 | |
349. | Zahra Ramezani, Fatemeh Sedaghati, Roghayeh Heiran, 2023, 978-1-83916-714-0, 221, 10.1039/9781839169564-00221 | |
350. | Sarina Abdul Halim-Lim, Khalisa Mohamed, Firdaus Muhammad Sukki, Wahyudi David, Ungku Fatimah Ungku Zainal Abidin, Adi Ainurzaman Jamaludin, Food Safety Knowledge, Attitude, and Practices of Food Handlers in Restaurants in Malé, Maldives, 2023, 15, 2071-1050, 12695, 10.3390/su151712695 | |
351. | Constantinos E. Salmas, Areti Leontiou, Eleni Kollia, Konstantinos Zaharioudakis, Anna Kopsacheili, Learda Avdylaj, Stavros Georgopoulos, Vassilios K. Karabagias, Andreas Karydis-Messinis, George Kehayias, Charalampos Proestos, Aris E. Giannakas, Active Coatings Development Based on Chitosan/Polyvinyl Alcohol Polymeric Matrix Incorporated with Thymol Modified Activated Carbon Nanohybrids, 2023, 13, 2079-6412, 1503, 10.3390/coatings13091503 | |
352. | Cecil Antony, Tamilarasam Selvaraj, Dinesh Mohanakrishnan, Praveen Kumar Ghodke, Sathiya Sivaprakasam, Amit Kumar Sharma, 2024, 9781119791904, 273, 10.1002/9781119792888.ch9 | |
353. | Gamal M. Hamad, Haneen Samy, Taha Mehany, Sameh A. Korma, Michael Eskander, Rasha G. Tawfik, Gamal E. A. EL-Rokh, Alaa M. Mansour, Samaa M. Saleh, Amany EL Sharkawy, Hesham E. A. Abdelfttah, Eman Khalifa, Utilization of Algae Extracts as Natural Antibacterial and Antioxidants for Controlling Foodborne Bacteria in Meat Products, 2023, 12, 2304-8158, 3281, 10.3390/foods12173281 | |
354. | Mohamed El-Newehy, Badr M. Thamer, Meera Moydeen Abdulhameed, Anis Ahamed, Hany El-Hamshary, Biofabricated Gold Nanoparticles with Antibacterial and Antibiofilm Activities Against Foodborne Bacterial Pathogens Using Pseudomonas aeruginosa Metabolic Extract, 2023, 1574-1443, 10.1007/s10904-023-02836-0 | |
355. | Adekunle Lawrence Bello, Usman Oladipo Adekanye, Ochuko Orakpoghenor, Talatu Patience Markus, Knowledge, attitude and practices of abattoir workers and veterinarians toward meat safety in abattoir or slaughter slabs within Uyo Metropolis, Akwa Ibom State, Nigeria, 2023, 8, 2456-2688, 30, 10.25259/JHSR_4_2023 | |
356. | Mohammad Melebari, Incidence of Potential Pathogenic Bacteria at Restaurants in Al-Mandaq City, Saudi Arabia: First Study, 2023, 17, 09737510, 1916, 10.22207/JPAM.17.3.57 | |
357. | Khudija Malik, Hussan Ibne Shoukani, Sabayyel Hassan, Saima Bibi, Syeda Asma Bano, Isolation of Facultative Anaerobic Bacterial Pathogens from Canned Food and Use of Lactobacillus Plantarum as A Bio-Control Agent, 2023, 2709-2798, 13, 10.54393/pbmj.v6i08.911 | |
358. | Babak Pakbin, Zahra Amani, Zahra Rahimi, Somayeh Najafi, Behnaz Familsatarian, Alireza Khakpoor, Wolfram Manuel Brück, Thomas B. Brück, Prevalence of Foodborne Bacterial Pathogens and Antibiotic Resistance Genes in Sweets from Local Markets in Iran, 2023, 12, 2304-8158, 3645, 10.3390/foods12193645 | |
359. | Magdalena Gantner, Eliza Kostyra, Special Issue on the Latest Research on Flavor Components and Sensory Properties of Food during Processing and Storage, 2023, 12, 2304-8158, 3761, 10.3390/foods12203761 | |
360. | Jing-Bo Zhen, Rui-Biao Wang, Yu-Heng Zhang, Feng Sun, Li-Hao Lin, Zhi-Xin Li, Yang Han, Yi-Xin Lu, De'Broski R. Herbert, Effects of Trichinella spiralis and its serine protease inhibitors on autophagy of host small intestinal cells , 2023, 0019-9567, 10.1128/iai.00103-23 | |
361. | Mohamed Amine Gacem, Kamel Krantar, Sawsen Hadef, Badreddine Boudjemaa, 2024, 9780323952514, 107, 10.1016/B978-0-323-95251-4.00003-X | |
362. | Radhika A Dudhane, Nandkishor J Bankar, Yogendra P Shelke, Ankit K Badge, The Rise of Non-typhoidal Salmonella Infections in India: Causes, Symptoms, and Prevention, 2023, 2168-8184, 10.7759/cureus.46699 | |
363. | Karanveer Singh, Navneet Singh Aulakh, Bhanu Prakash, Strategic detection of food contaminants using nanoparticle‐based paper sensors, 2023, 0149-6085, 10.1111/jfs.13089 | |
364. | Oghenebrorhie Mavis Oghenochuko, Rachael Oluwatosin Kolawole, Olasunkanmi Peter Olajide, Adeyinka Olamide Agbato, Aflatoxin, bacterial and heavy metal load in Scomber scombrus and Clupea harengus from two selected coldroom facilities in Kwara State, Nigeria, 2023, 40, 21483140, 201, 10.12714/egejfas.40.3.07 | |
365. | Davide Buzzanca, Elisabetta Chiarini, Ilaria Mania, Francesco Chiesa, Valentina Alessandria, Aureimonas altamirensis: First Isolation from a Chicken Slaughterhouse in Italy Followed by Genotype and Phenotype Evaluations, 2023, 14, 2036-7481, 1319, 10.3390/microbiolres14030089 | |
366. | A.M. Al-Rawe, O.K.G. Al-Jomaily, Y.I. Yousif, S.A. Shaban, A.A. Suleiman, Comparative Genomics, Phylogenetic and Functional Analysis of Yersinia enterocolitica, a Gastrointestinal Pathogen, with Other Soil-Borne Bacteria Causing Diseases, 2023, 85, 2616-9258, 31, 10.15407/microbiolj85.05.031 | |
367. | Ewelina Bigoraj, Iwona Kozyra, Agnieszka Kaupke, Zbigniew Osiński, James Lowther, Artur Rzeżutka, Prevalence and quantitative assessment of foodborne viruses on the imported mussels in Polish market, 2023, 09567135, 110145, 10.1016/j.foodcont.2023.110145 | |
368. | Celina Eugenio Bahule, Luiza Helena da Silva Martins, Beni Jequicene Mussengue Chaúque, Felipe Trindade, Héctor Herrera, Isa Rebecca Chagas da Costa, Paulo Henrique de Oliveira Costa, Ynara da Costa Fonseca, Rafael Borges da Silva Valadares, Alessandra Santos Lopes, Metaproteomics revealing microbial diversity and activity in the spontaneous fermentation of maize dough, 2024, 435, 03088146, 137457, 10.1016/j.foodchem.2023.137457 | |
369. | Francisco A.G. Soares Silva, Marta Carvalho, Teresa Bento de Carvalho, Miguel Gama, Fátima Poças, Paula Teixeira, Antimicrobial activity of in-situ bacterial nanocellulose-zinc oxide composites for food packaging, 2023, 40, 22142894, 101201, 10.1016/j.fpsl.2023.101201 | |
370. | Nada Elgiddawy, Hany Abd El-Raheem, Samah Husseiny, C. Waleed M. A. El Rouby, 2023, 978-1-83767-067-3, 427, 10.1039/BK9781837671847-00427 | |
371. | Ayalew Kassahun, Cor Verdouw, Jeroen Roomer, A framework for modelling and designing transparency systems: A case of a Vietnamese pork supply chain, 2023, 9, 24058440, e21095, 10.1016/j.heliyon.2023.e21095 | |
372. | Public Health assessment of consumers on knowledge of foodborne zoonoses in Umuahia, Abia State: A pilot study, 2023, 2811-1346, 31, 10.54328/covm.josvas.2022.111 | |
373. | Suja E, Sathyanarayana N. Gummadi, Advances in the applications of Bacteriophages and phage products against food-contaminating bacteria, 2023, 1040-841X, 1, 10.1080/1040841X.2023.2271098 | |
374. | Lingyan Zheng, Wen Jin, Ke Xiong, Hongmin Zhen, Mengmeng Li, Yumeng Hu, Nanomaterial-based biosensors for the detection of foodborne bacteria: a review, 2023, 0003-2654, 10.1039/D3AN01554H | |
375. | Fazal Mehmood Khan, Jie-Hua Chen, Rui Zhang, Bin Liu, A comprehensive review of the applications of bacteriophage-derived endolysins for foodborne bacterial pathogens and food safety: recent advances, challenges, and future perspective, 2023, 14, 1664-302X, 10.3389/fmicb.2023.1259210 | |
376. | B Roja, S Saranya, L Thamanna, P Chellapandi, Inferring molecular mechanisms of host-microbe-drug interactions in the human gastrointestinal tract, 2023, 25901249, 100027, 10.1016/j.meomic.2023.100027 | |
377. | Chen Liyun, Xiumei Li, Jingyi Chen, Ranxun Lin, Yuhan Mai, Yuxin Lin, Guodong Wang, Zheng Chen, Wei Zhang, Jiang Wang, Cai Yuan, Longguang Jiang, Peng Xu, Mingdong Huang, Formulation with zinc acetate enhances curcumin's inherent and photodynamic antimicrobial effects for food preservation, 2023, 09567135, 110200, 10.1016/j.foodcont.2023.110200 | |
378. | Jinbin Zhao, Yulan Guo, Xueer Ma, Shitong Liu, Chunmeng Sun, Ming Cai, Yuyang Chi, Kun Xu, The Application of Hybridization Chain Reaction in the Detection of Foodborne Pathogens, 2023, 12, 2304-8158, 4067, 10.3390/foods12224067 | |
379. | Hassana Yaya, Bernard Dabolé, Matthieu Matcheme, Jean Noël Nyemb, Djaouda Moussa, Fru Godloves Chi, Rabia Farooq, Benoît Bargui Koubala, Tul-Wahab Atia, Alessandro Venditti, Ternifoliasaponin, a new triterpenoid saponin from the roots of Gardenia ternifolia Schumach & Thonn (Rubiaceae) , 2023, 1478-6419, 1, 10.1080/14786419.2023.2276388 | |
380. | Mohamed Boundor, Beata Bielska, Nadia Katir, Natalia Wrońska, Katarzyna Lisowska, Maria Bryszewska, Katarzyna Miłowska, Abdelkrim El Kadib, Viologen Cross-Linked Chitosan Hydrogel as Biobased Antiseptic Surface-Coating Materials, 2023, 2637-6105, 10.1021/acsapm.3c01808 | |
381. | Olja Šovljanski, Aleksandra Ranitović, Ana Tomić, Nenad Ćetković, Ana Miljković, Anja Saveljić, Dragoljub Cvetković, Synergistic Strategies of Heat and Peroxyacetic Acid Disinfection Treatments for Salmonella Control, 2023, 12, 2076-0817, 1336, 10.3390/pathogens12111336 | |
382. | Karolina Stefanowska, Magdalena Woźniak, Jerzy Majka, Anna Sip, Lucyna Mrówczyńska, Wojciech Kozak, Renata Dobrucka, Izabela Ratajczak, Chitosan Films with Caffeine and Propolis as Promising and Ecofriendly Packaging Materials, 2023, 13, 2076-3417, 12351, 10.3390/app132212351 | |
383. | Gözde Bayer, Amirreza Shayganpour, Ilker S. Bayer, Efficacy of a New Alcohol-Free Organic Acid-Based Hand Sanitizer against Foodborne Pathogens, 2023, 11, 2305-6304, 938, 10.3390/toxics11110938 | |
384. | Abdi W Septama, Yuandani Yuandani, Nur A Khairunnisa, Halimah R Nasution, Dinda S Utami, Rhesi Kristiana, Ibrahim Jantan, Antibacterial, bacteriolytic, antibiofilm, and synergistic effects of the peel oils of Citrus microcarpa and Citrus x amblycarpa with tetracycline against foodborne Escherichia coli , 2023, 76, 1472-765X, 10.1093/lambio/ovad126 | |
385. | Rithy CHRUN, Hasika MITH, Siveng MENG, Sreypov LONG, Pichpunleu BORN, Yasuhiro INATSU, Assessing Prevalence and Antibiotic Resistance of Escherichia coli and Other Enterobacteriaceae Isolated from Cambodian Fermented Fish and Vegetables, 2023, 57, 0021-3551, 311, 10.6090/jarq.57.311 | |
386. | Tracy Ann Bruce-Tagoe, Shyju Bhaskar, Ruchita Rao Kavle, Jaison Jeevanandam, Caleb Acquah, Godfred Ohemeng-Boahen, Dominic Agyei, Michael K. Danquah, Advances in aptamer-based biosensors for monitoring foodborne pathogens, 2023, 0022-1155, 10.1007/s13197-023-05889-8 | |
387. | Sadeeya Khan, Yaya Rukayadi, Ahmad Haniff Jaafar, Nurul Hawa Ahmad, Antibacterial potential of silver nanoparticles (SP-AgNPs) synthesized from Syzygium polyanthum (Wight) Walp. against selected foodborne pathogens, 2023, 24058440, e22771, 10.1016/j.heliyon.2023.e22771 | |
388. | Annu Mishra, Souradeep Roy, Naasrin Israel Shaikh, Pooja Malave, Ankita Mishra, Anish Alam, Yashswee Ghorpade, Mohd Rahil Hasan, Recent advances in multiplex aptasensor detection techniques for food-borne pathogens: A comprehensive review of novel approaches, 2023, 25901370, 100417, 10.1016/j.biosx.2023.100417 | |
389. | Laure Meurice, Laurent Filleul, Aurélie Fischer, Annie Burbaud, Gauthier Delvallez, Laure Diancourt, Sophie Belichon, Benjamin Clouzeau, Denis Malvy, Magali Oliva-Labadie, Coralie Bragança, Hendrik Wilking, Rafaela Franca, Greg Martin, Gauri Godbole, Mathieu Tourdjman, Nathalie Jourdan-Da Silva, Foodborne botulism outbreak involving different nationalities during the Rugby World Cup: critical role of credit card data and rapid international cooperation, France, September 2023, 2023, 28, 1560-7917, 10.2807/1560-7917.ES.2023.28.47.2300624 | |
390. | Jaime Valdiviezo-Marcelo, Nancy Maribel Arana-Torres, Edwin Jorge Vega-Portalatino, Luis Alberto Ruiz-Flores, Carmen Tamariz-Angeles, Percy Olivera-Gonzales, Miriam Marleni Rosales-Cuentas, Luis Alfredo Espinoza-Espinoza, Technological potential of native lactic acid bacteria isolated from Swiss-type artisanal cheese (Ancash, Peru) for their application in food, 2023, 7, 2571-581X, 10.3389/fsufs.2023.1212229 | |
391. | Lorena G. Calvo, Aly Castillo, Rosa-Antía Villarino, José Luis R. Rama, Ana G. Abril, Trinidad de Miguel, Study of the Antibacterial Activity of Rich Polyphenolic Extracts Obtained from Cytisus scoparius against Foodborne Pathogens, 2023, 12, 2079-6382, 1645, 10.3390/antibiotics12111645 | |
392. | Karishma Niveria, Monika Yadav, Kapil Dangi, Priyanka Singh, Anita K. Verma, Jagat Rakesh Kanwar, 2023, Chapter 15, 978-981-19-9604-7, 307, 10.1007/978-981-19-9605-4_15 | |
393. | Adil Abalkhail, Frequency and Antimicrobial Resistance Patterns of Foodborne Pathogens in Ready-to-Eat Foods: An Evolving Public Health Challenge, 2023, 13, 2076-3417, 12846, 10.3390/app132312846 | |
394. | T. Mapeka, M. Sandasi, E. Ncube, A. Viljoen, S. van Vuuren, Enhancing the antimicrobial efficacy of common herbs and spices through an optimized polyherbal approach, 2024, 164, 02546299, 91, 10.1016/j.sajb.2023.11.030 | |
395. | Esraa T. Amer, Ahmed A. Tayel, Ahmed I. Abd El Maksoud, Mohammed Alsieni, Hend A. Gad, Mona A. Assas, Asmaa Abdella, Dalia Elebeedy, Antibacterial Potentialities of Chitosan Nanoparticles Loaded with Salvianolic Acid B and Tanshinone IIA, 2023, 2191-1630, 10.1007/s12668-023-01263-2 | |
396. | Victor Enwemiwe, Abiodun Oladipo, Mary Otuosorochukwu Nnyia, Joyce Oluwatimilehin Ayodeji, Onome Ejeromedoghene, Michael Alowakennu, Godswill Okeoghene Tesi, Trace metals encapsulated biopolymers as nanobiocides for crop protection: A review, 2024, 7, 27730506, 100113, 10.1016/j.jtemin.2023.100113 | |
397. | Lisa Purk, Melina Kitsiou, Christina Ioannou, Hani El Kadri, Katherine M. Costello, Jorge Gutierrez Merino, Oleksiy Klymenko, Eirini G. Velliou, Unravelling the impact of fat content on the microbial dynamics and spatial distribution of foodborne bacteria in tri-phasic viscoelastic 3D models, 2023, 13, 2045-2322, 10.1038/s41598-023-48968-8 | |
398. | Israa M. S. AL-Kadmy, Suhad Abbas Abid, Sarah Naji Aziz, Zahraa Al-Kadmy, Ahmed Suhail, Sawsan Sajid Al-Jubori, Eman Natiq Naji, Eman alhomaidi, Ramadan Yahia, Abdelazeem M. Algammal, Gaber El-Saber Batiha, Helal F. Hetta, The secrets of environmental Pseudomonas aeruginosa in slaughterhouses: Antibiogram profile, virulence, and antibiotic resistance genes, 2023, 0015-5632, 10.1007/s12223-023-01116-1 | |
399. | Thi Ngoc Diep Trinh, Kieu The Loan Trinh, Nae Yoon Lee, Microfluidic advances in food safety control, 2024, 176, 09639969, 113799, 10.1016/j.foodres.2023.113799 | |
400. | Shima Yousefi, Weria Weisany, Seyed Ebrahim Hosseini, Mehran Ghasemlou, Mechanisms of nanoencapsulation to boost the antimicrobial efficacy of essential oils: A review, 2023, 0268005X, 109655, 10.1016/j.foodhyd.2023.109655 | |
401. | Alexis N. Omar, Anastasia Chirnside, Kalmia E. Kniel, Evaluation of White Rot Fungus to Control Growth of Escherichia coli in Cattle Manure, 2023, 0362028X, 100206, 10.1016/j.jfp.2023.100206 | |
402. | Yanhong Chen, Ling-Xiao Liu, Xiaolin Liu, Weisen Yu, Xiaojing Ma, Zhi-Wen Lei, Weixing Ma, Ling-Li Meng, Yun-Guo Liu, Analysis on Foodborne Pathogen Contamination of Food Samples in Longnan City from 2013 to 2022, 2023, 1535-3141, 10.1089/fpd.2023.0036 | |
403. | Paola Di Matteo, Rita Petrucci, Antonella Curulli, Not Only Graphene Two-Dimensional Nanomaterials: Recent Trends in Electrochemical (Bio)sensing Area for Biomedical and Healthcare Applications, 2023, 29, 1420-3049, 172, 10.3390/molecules29010172 | |
404. | Ian K. Daniel, Obadiah M. Njue, Yasser M. Sanad, Antimicrobial Effects of Plant-Based Supplements on Gut Microbial Diversity in Small Ruminants, 2023, 13, 2076-0817, 31, 10.3390/pathogens13010031 | |
405. | João Gilberto Meza Ucella-Filho, Mario Sérgio Lorenço, Bruna Rafaella Ferreira da Silva, Vanuzia Rodrigues Fernandes Ferreira, Jessica Raquel Borges Monteiro, Nicolly Soares Ferreira, Maria das Graças Cardoso, Rodrigo Rezende Kitagawa, Juliana Alves Resende, Ananias Francisco Dias Junior, Roberta Hilsdorf Piccoli, Fábio Akira Mori, Exploring the potential of tannin-rich tree bark extracts in combating foodborne diseases and gastric cancer, 2024, 57, 22124292, 103559, 10.1016/j.fbio.2023.103559 | |
406. | Hikaru Tago, Yoshiaki Maeda, Yusuke Tanaka, Hiroya Kohketsu, Tae-Kyu Lim, Manabu Harada, Tomoko Yoshino, Tadashi Matsunaga, Tsuyoshi Tanaka, Line image sensor-based colony fingerprinting system for rapid pathogenic bacteria identification, 2024, 09565663, 116006, 10.1016/j.bios.2024.116006 | |
407. | Sara B. Mohammed, Abdelrahman M. A. Elseory, 2024, Chapter 9, 978-3-031-46715-8, 207, 10.1007/978-3-031-46716-5_9 | |
408. | Teodora Pariza, Min Jung Cho, Food safety in Latin American informal food establishments, 2024, 4, 2673-4524, 10.3389/frsus.2023.1325060 | |
409. | Uswatun Hasanah, Ikhsanul Khairi, Akbardiansyah Akbardiansyah, Nabila Ukhty, Anhar Rozi, Sri Ayu Insani, Kelayakan dasar UMKM pengolahan ikan di Kecamatan Pulau Banyak, Aceh Singkil, 2023, 26, 2354-886X, 485, 10.17844/jphpi.v26i3.46013 | |
410. | Obaydah Abd Alkader Alabrahim, Salim Alwahibi, Hassan Mohamed El-Said Azzazy, Improved antimicrobial activities of Boswellia sacra essential oils nanoencapsulated into hydroxypropyl-beta-cyclodextrins, 2024, 2516-0230, 10.1039/D3NA00882G | |
411. | Chalermkiat Jirarungsatian, Pravate Tuitemwong, Isaratat Phung-On, Yingyot Poo-arporn, Sirirat Wachiralurpan, Magnetic properties and electron oxidation state transition of immunomagnetic nanoparticles specifically captured with the target bacteria, 2024, 11, 2053-1591, 015004, 10.1088/2053-1591/ad112b | |
412. | James P. Adamson, Clare Sawyer, Gemma Hobson, Emily Clark, Laia Fina, Oghogho Orife, Robert Smith, Chris Williams, Harriet Hughes, Allyson Jones, Sarah Swaysland, Oluwaseun Somoye, Ryan Phillips, Junaid Iqbal, Israa Mohammed, George Karani, Daniel Rhys Thomas, An outbreak of Salmonella Typhimurium associated with the consumption of raw liver at an Eid al-Adha celebration in Wales (UK), July 2021, 2024, 152, 0950-2688, 10.1017/S0950268823001887 | |
413. | Muhammad Abubakar Ahmad, M A Rukayya, B A Zulaihat, A Mahmoud Aminu, Assessment of the Microbial Quality of Food Sold in Some Restaurants within Katsina Metropolis, 2023, 8, 2814-1822, 56, 10.47430/ujmr.2382.007 | |
414. | Goutam Chowdhury, Falguni Debnath, Mainak Bardhan, Alok Kumar Deb, Rama Bhuina, Sudipta Bhattacharjee, Koushik Mondal, Kei Kitahara, Shin-ichi Miyoshi, Shanta Dutta, Asish K. Mukhopadhyay, Foodborne Outbreak by Salmonella enterica Serovar Weltevreden in West Bengal, India, 2024, 1535-3141, 10.1089/fpd.2023.0064 | |
415. | Kah Yen Claire Yeak, Alexander Dank, Heidy M.W. den Besten, Marcel H. Zwietering, A web-based microbiological hazard identification tool for infant foods, 2024, 178, 09639969, 113940, 10.1016/j.foodres.2024.113940 | |
416. | Nida Firdous, Shabbir Ahmad, Umar Farooq, Aliza Batool, Muhammad Usman, Muhammad Sibt-e-Abbas, Zafar Iqbal, Muhammad Asim Ijaz Sidhu, Tahira Siddique, 2023, chapter 8, 9798369308196, 175, 10.4018/979-8-3693-0819-6.ch008 | |
417. | Alka Rohilla, Vikram Kumar, Jayesh J. Ahire, Unveiling the persistent threat: recent insights into Listeria monocytogenes adaptation, biofilm formation, and pathogenicity in foodborne infections, 2024, 0022-1155, 10.1007/s13197-023-05918-6 | |
418. | N. Nagashri, L. Archana, Ramya Raghavan, 2024, chapter 5, 9798369319062, 75, 10.4018/979-8-3693-1906-2.ch005 | |
419. | Aswathy Jayakumar, Sabarish Radoor, Jun Tae Kim, Jyotishkumar Parameswaranpillai, Suchart Siengchin, 2024, 9780323918664, 405, 10.1016/B978-0-323-91866-4.00017-2 | |
420. | Muhammad Qasim Javed, Igor Kovalchuk, Dmytro Yevtushenko, Xianqin Yang, Kim Stanford, Relationship between Desiccation Tolerance and Biofilm Formation in Shiga Toxin-Producing Escherichia coli, 2024, 12, 2076-2607, 243, 10.3390/microorganisms12020243 | |
421. | Aswin Rafif Khairullah, Shendy Canadya Kurniawan, Sri Agus Sudjarwo, Mustofa Helmi Effendi, Agus Widodo, Ikechukwu Benjamin Moses, Abdullah Hasib, Reichan Lisa Az Zahra, Maria Aega Gelolodo, Dyah Ayu Kurniawati, Katty Hendriana Priscilia Riwu, Otto Sahat Martua Silaen, Daniah Ashri Afnani, Sancaka Cashyer Ramandinianto, Kinship analysis of mecA gene of methicillin-resistant Staphylococcus aureus isolated from milk and risk factors from the farmers in Blitar, Indonesia, 2024, 22310916, 216, 10.14202/vetworld.2024.216-225 | |
422. | Xiran Li, Hongye Wang, Hisham Abdelrahman, Anita Kelly, Luke Roy, Luxin Wang, Profiling and source tracking of the microbial populations and resistome present in fish products, 2024, 413, 01681605, 110591, 10.1016/j.ijfoodmicro.2024.110591 | |
423. | Shanta Paul, Tanim Jabid Hossain, Ferdausi Ali, Md Elias Hossain, Tasneem Chowdhury, Ibrahim Khalil Faisal, Jannatul Ferdouse, Assessment of the in-vitro probiotic efficacy and safety of Pediococcus pentosaceus L1 and Streptococcus thermophilus L3 isolated from Laban, a popular fermented milk product, 2024, 206, 0302-8933, 10.1007/s00203-023-03812-5 | |
424. | Amin N. Olaimat, Asma’ O. Taybeh, Anas Al-Nabulsi, Murad Al-Holy, Ma’mon M. Hatmal, Jihad Alzyoud, Iman Aolymat, Mahmoud H. Abughoush, Hafiz Shahbaz, Anas Alzyoud, Tareq Osaili, Mutamed Ayyash, Kevin M. Coombs, Richard Holley, Common and Potential Emerging Foodborne Viruses: A Comprehensive Review, 2024, 14, 2075-1729, 190, 10.3390/life14020190 | |
425. | Shangyan Chen, Hao Zheng, Shengping Yang, Yonggang Qi, Wei Li, Sini Kang, Han Hu, Qiang Hua, Yongkang Wu, Zhijie Liu, Antimicrobial activity and mechanism of α-copaene against foodborne pathogenic bacteria and its application in beef soup, 2024, 00236438, 115848, 10.1016/j.lwt.2024.115848 | |
426. | Fangfang Liu, Auke J. van Heel, Oscar P. Kuipers, Engineering circular bacteriocins: structural and functional effects of α-helix exchanges and disulfide introductions in circularin A, 2024, 15, 1664-302X, 10.3389/fmicb.2024.1337647 | |
427. | Aswin Rafif Khairullah, Shendy Canadya Kurniawan, Agus Widodo, Mustofa Helmi Effendi, Abdullah Hasib, Otto Sahat Martua Silaen, Sancaka Chasyer Ramandinianto, Ikechukwu Benjamin Moses, Katty Hendriana Priscilia Riwu, Sheila Marty Yanestria, Muhammad Esa Erlang Samodra, Daniah Ashri Afnani, A Comprehensive Review of Toxoplasmosis: Serious Threat to Human Health, 2024, 17, 1874-9445, 10.2174/0118749445281387240202094637 | |
428. | Sunjoo Choi, Ye Seop Park, Kyung Won Lee, Yu Jin Park, Hee Ju Jang, Dong-Myung Kim, Tae Hyeon Yoo, Sensitive Methods to Detect Single-Stranded Nucleic Acids of Food Pathogens Based on Cell-Free Protein Synthesis and Retroreflection Signal Detection, 2024, 0021-8561, 10.1021/acs.jafc.3c07785 | |
429. | Busra Turanoglu, Mehmet Akif Omeroglu, Mustafa Ozkan Baltaci, Gulsah Adiguzel, Ahmet Adiguzel, Determination of foodborne pathogens in minced beef by real-time PCR without culture enrichment, 2024, 219, 01677012, 106896, 10.1016/j.mimet.2024.106896 | |
430. | Nathália Fernandes, Ana Sofia Faria, Laís Carvalho, Altino Choupina, Carina Rodrigues, Ursula Gonzales-Barron, Vasco Cadavez, Genetic Identification and Technological Potential of Indigenous Lactic Acid Bacteria Isolated from Alheira, a Traditional Portuguese Sausage, 2024, 13, 2304-8158, 598, 10.3390/foods13040598 | |
431. | Ovinuchi Ejiohuo, Helen Onyeaka, Kingsley C. Unegbu, Obinna G. Chikezie, Omowale A. Odeyemi, Adebola Lawal, Olumide A. Odeyemi, Nourishing the Mind: How Food Security Influences Mental Wellbeing, 2024, 16, 2072-6643, 501, 10.3390/nu16040501 | |
432. | Eliseo Sánchez-Loredo, Leonardo Sepúlveda, Jorge E. Wong-Paz, Lissethe Palomo-Ligas, Raúl Rodriguez-Herrera, Cristóbal N. Aguilar, Juan A. Ascacio-Valdés, Ellagitannins from Eucalyptus camaldulensis and their potential use in the food industry, 2024, 2, 83, 10.37349/eff.2024.00027 | |
433. | Shaibi Saleem, Faizan Ahmad, Shams Tabrez Khan, 2024, Chapter 3, 978-3-031-51416-6, 45, 10.1007/978-3-031-51417-3_3 | |
434. | Xiaotong Wei, Yuanyuan Hu, Chaomin Sun, Shimei Wu, Characterization of a Novel Antimicrobial Peptide Bacipeptin against Foodborne Pathogens, 2024, 0021-8561, 10.1021/acs.jafc.4c00573 | |
435. | Obaydah Abd Alkader Alabrahim, Hassan Mohamed El-Said Azzazy, Antimicrobial Activities of Pistacia lentiscus Essential Oils Nanoencapsulated into Hydroxypropyl-beta-cyclodextrins, 2024, 2470-1343, 10.1021/acsomega.3c07413 | |
436. | Jessica Chiang, Julia Robertson, Cushla M McGoverin, Simon Swift, Frédérique Vanholsbeeck, Rapid detection of viable microbes with 5-cyano-2,3-di-(p-tolyl)tetrazolium chloride and 5(6)-carboxyfluorescein diacetate using a fibre fluorescence spectroscopy system, 2024, 135, 1365-2672, 10.1093/jambio/lxae047 | |
437. | Ramesha N. Wishna-Kadawarage, Rita M. Hickey, Maria Siwek, In-vitro selection of lactic acid bacteria to combat Salmonella enterica and Campylobacter jejuni in broiler chickens, 2024, 40, 0959-3993, 10.1007/s11274-024-03946-8 | |
438. | Moran Morelli, Marta Cabezuelo Rodríguez, Karla Queiroz, A high-throughput gut-on-chip platform to study the epithelial responses to enterotoxins, 2024, 14, 2045-2322, 10.1038/s41598-024-56520-5 | |
439. | Bona Yun, Xinyu Liao, Jinsong Feng, Tian Ding, Machine learning-enabled prediction of antimicrobial resistance in foodborne pathogens, 2024, 22, 1947-6337, 10.1080/19476337.2024.2324024 | |
440. | Mengzhu Cao, Wei Deng, Ziyu Zhu, Chongbo Ma, Jing Bai, Mohammed Y. Emran, Ahmed Kotb, Mimi Sun, Ming Zhou, A Fully Integrated Handheld Electrochemical Sensing Platform for Point-of-Care Testing of Escherichia coli O157:H7, 2024, 0003-2700, 10.1021/acs.analchem.4c00776 | |
441. | Ashish Kapoor, Shravan Kumar, Adarsh Kumar Arya, Vartika Nishad, Hera Fatma, Anshika Gupta, Sakshi Singh, 2024, 9780323955867, 223, 10.1016/B978-0-323-95586-7.00010-1 | |
442. | Didem Nur Unal, Cem Erkmen, Bengi Uslu, 2024, 9780323955867, 75, 10.1016/B978-0-323-95586-7.00004-6 | |
443. | Arifah Arina Syairah Janudin, Ya Chee Lim, Minhaz Uddin Ahmed, 2024, 9780323955867, 161, 10.1016/B978-0-323-95586-7.00008-3 | |
444. | Ozge Selcuk, Cem Erkmen, Nazlı Şimşek, Gözde Aydoğdu Tığ, Bengi Uslu, 2024, 9780323955867, 99, 10.1016/B978-0-323-95586-7.00005-8 | |
445. | Yanying Wang, Ting Zheng, Xianming Li, Peng Wu, Integrating Recombinase Polymerase Amplification and Photosensitization Colorimetric Detection in One Tube for Fast Screening of C. sakazakii in Formula Milk Powder, 2024, 0003-2700, 10.1021/acs.analchem.4c01130 | |
446. | Rossana Roila, Sara Primavilla, David Ranucci, Roberta Galarini, Fabiola Paoletti, Caterina Altissimi, Andrea Valiani, Raffaella Branciari, The Effects of Encapsulation on the In Vitro Anti-Clostridial Activity of Olive Mill Wastewater Polyphenolic Extracts: A Promising Strategy to Limit Microbial Growth in Food Systems, 2024, 29, 1420-3049, 1441, 10.3390/molecules29071441 | |
447. | Saja Hamaideh, Amin N. Olaimat, Murad A. Al-Holy, Ahmad Ababneh, Hafiz Muhammad Shahbaz, Mahmoud Abughoush, Anas Al-Nabulsi, Tareq Osaili, Mutamed Ayyash, Richard A. Holley, The Influence of Technological Shifts in the Food Chain on the Emergence of Foodborne Pathogens: An Overview, 2024, 4, 2673-8007, 594, 10.3390/applmicrobiol4020041 | |
448. | Limny Esther Pérez-Jiménez, Erik Ramírez-Morales, Laila Nayzzel Muñoz-Castellanos, Lizeth Rojas-Blanco, Francisco Paraguay-Delgado, Influence of Cu content in CeO2 nanoparticles on their antibacterial properties, 2024, 0928-0707, 10.1007/s10971-024-06363-3 | |
449. | Sandul Yasobant, Shahzad Ali, Deepak Saxena, Daniela Patricia Figueroa, Mohiuddin Md. Taimur Khan, Editorial: The One Health approach in the context of public health, 2024, 12, 2296-2565, 10.3389/fpubh.2024.1353709 | |
450. | Felix Kwashie Madilo, Angela Parry-Hanson Kunadu, Kwaku Tano-Debrah, Firibu Kwesi Saalia, Unathi Kolanisi, Barbara Speranza, Diversity of Production Techniques and Microbiology of African Cereal-Based Traditional Fermented Beverages, 2024, 2024, 1745-4557, 1, 10.1155/2024/1241614 | |
451. | Ashley L. Cooper, Alex Wong, Sandeep Tamber, Burton W. Blais, Catherine D. Carrillo, Analysis of Antimicrobial Resistance in Bacterial Pathogens Recovered from Food and Human Sources: Insights from 639,087 Bacterial Whole-Genome Sequences in the NCBI Pathogen Detection Database, 2024, 12, 2076-2607, 709, 10.3390/microorganisms12040709 | |
452. | Fatma Beyazit, Mehmet Yakup Arica, Ilkay Acikgoz-Erkaya, Cengiz Ozalp, Gulay Bayramoglu, Quartz crystal microbalance–based aptasensor integrated with magnetic pre-concentration system for detection of Listeria monocytogenes in food samples, 2024, 191, 0026-3672, 10.1007/s00604-024-06307-2 | |
453. | Rui Kang, Shangpeng Sun, Qin Ouyang, Jiaxing Huang, Bosoon Park, 3D-GhostNet: A novel spatial-spectral algorithm to improve foodborne bacteria classification coupled with hyperspectral microscopic imaging technology, 2024, 411, 09254005, 135706, 10.1016/j.snb.2024.135706 | |
454. | Mi-Na Park, Sang-Gu Yeo, Junhyuk Park, Yoomi Jung, Se-Min Hwang, Usefulness and Limitations of PFGE Diagnosis and Nucleotide Sequencing Method in the Analysis of Food Poisoning Pathogens Found in Cooking Employees, 2024, 25, 1422-0067, 4123, 10.3390/ijms25074123 | |
455. | Simone Esposito, Francesco Coletta, Giovanna Di Maiolo, Filomena Lo Chiatto, Pasquale Rinaldi, Anna Lanza, Getano Panico, Crescenzo Sala, Antonio Tomasello, Romolo Villani, A rare symptom of foodborne botulism: dysgeusia. Case report and clinical review, 2024, 2282-2054, 10.4081/ecj.2024.12322 | |
456. | Martina Vršanská, Lucie Veselá, Irena Baláková, Ester Kovaříková, Eva Jansová, Aleš Knoll, Stanislava Voběrková, Lea Kubíčková, Magdalena Daria Vaverková, A comprehensive study of food waste management and processing in the Czech Republic: Potential health risks and consumer behavior, 2024, 927, 00489697, 172214, 10.1016/j.scitotenv.2024.172214 | |
457. | Olga María Bonilla-Luque, Beatriz Nunes Silva, Youssef Ezzaky, Arícia Possas, Fouad Achemchem, Vasco Cadavez, Úrsula Gonzales-Barron, Antonio Valero, Meta-analysis of antimicrobial activity of Allium, Ocimum, and Thymus spp. confirms their promising application for increasing food safety, 2024, 09639969, 114408, 10.1016/j.foodres.2024.114408 | |
458. | Neelima Dahal, Caroline Peak, Carl Ehrett, Jeffrey Osterberg, Min Cao, Ralu Divan, Pingshan Wang, Microwave Flow Cytometric Detection and Differentiation of Escherichia coli, 2024, 24, 1424-8220, 2870, 10.3390/s24092870 | |
459. | Eon-Bee Lee, Kyubae Lee, Woodfordia fruticosa fermented with lactic acid bacteria impact on foodborne pathogens adhesion and cytokine production in HT-29 cells, 2024, 15, 1664-302X, 10.3389/fmicb.2024.1346909 | |
460. | Faiza Yahia, Farah Nasri, Lyes Douadji, Atef Thamri, Deqiang Wang, Chaker Tlili, 2024, 978-1-83767-081-9, 127, 10.1039/BK9781837673421-00127 | |
461. | Mensah-Agyei Grace Oluwatoyin, Adaramola Feyisara Banji, Akpan Nevillah Nice, Egbeobawaye Jennifer Orobosa, Akeredolu Abosede Abolanle, Enitan Seyi Samson, Ajibade Oluwatosin, Bacterial Diversity, Antibiogram and Nutritional Assessment of Cowhide (Ponmo) in Ilishan-Remo Central Market, Nigeria, 2024, 24058440, e30882, 10.1016/j.heliyon.2024.e30882 | |
462. | Shahna Fathima, Walid G. Al Hakeem, Revathi Shanmugasundaram, Dr. Vasanthakumar Periyannan, Dr. Ranganathan Varadhan, Ramesh K Selvaraj, Effect of 125% and 135% arginine on the growth performance, intestinal health, and immune responses of broilers during necrotic enteritis challenge, 2024, 00325791, 103826, 10.1016/j.psj.2024.103826 | |
463. | Patsara Thongmee, Sawinee Ngernpimai, Oranee Srichaiyapol, Urairat Mongmonsin, Saowapak Teerasong, Nicha Charoensri, Molin Wongwattanakul, Aroonlug Lulitanond, Waewta Kuwatjanakul, Lumyai Wonglakorn, Rinjong Promsorn Kendal, Apiwat Chompoosor, Jureerut Daduang, Patcharaporn Tippayawat, The Evaluation of a Lateral Flow Strip Based on the Covalently Fixed “End-On” Orientation of an Antibody for Listeria monocytogenes Detection, 2024, 0003-2700, 10.1021/acs.analchem.4c00533 | |
464. | Sotiriοs Ι. Ekonomou, Sue Kageler, Alexandros Ch Stratakos, The effect of 3D printing speed and temperature on transferability of Staphylococcus aureus and Escherichia coli during 3D food printing, 2024, 122, 07400020, 104561, 10.1016/j.fm.2024.104561 | |
465. | Isma Neggazi, Pilar Colás‐Medà, Inmaculada Viñas, Isabel Alegre, Microbiological quality and safety of non‐treated fresh and squeezed juices from supermarkets in Lleida, Spain, 2024, 0950-5423, 10.1111/ijfs.17198 | |
466. | Adriana Silva, Vanessa Silva, João Paulo Gomes, Anabela Coelho, Rita Batista, Cristina Saraiva, Alexandra Esteves, Ângela Martins, Diogo Contente, Lara Diaz-Formoso, Luis M. Cintas, Gilberto Igrejas, Vítor Borges, Patrícia Poeta, Listeria monocytogenes from Food Products and Food Associated Environments: Antimicrobial Resistance, Genetic Clustering and Biofilm Insights, 2024, 13, 2079-6382, 447, 10.3390/antibiotics13050447 | |
467. | Chunlei Shi, Shimo Kang, Foodborne Pathogenic Bacteria: Prevalence and Control—Volume I, 2024, 13, 2304-8158, 1531, 10.3390/foods13101531 | |
468. | Arezoo Ebrahimi, Anna Abdolshahi, 2024, 9780323917490, 235, 10.1016/B978-0-323-91749-0.00023-X | |
469. | Alison E. Mather, Matthew W. Gilmour, Stuart W. J. Reid, Nigel P. French, Foodborne bacterial pathogens: genome-based approaches for enduring and emerging threats in a complex and changing world, 2024, 1740-1526, 10.1038/s41579-024-01051-z | |
470. | Laura Cardozo-Herrera, Laura Vásquez-Jaramillo, Nathalia Correa-Valencia, A systematic review on the WHO Global Priority Pathogens (GPP) List reported in animals, products, and by-products in Colombia, 2024, 37, 01200690, 10.17533/udea.rccp.v37n3a4 | |
471. | Gulay Bayramoglu, Veli Cengiz Ozalp, Mehmet Yakup Arica, Aptamer-based magnetic isolation and specific detection system for Listeria monocytogenes from food samples, 2024, 203, 0026265X, 110892, 10.1016/j.microc.2024.110892 | |
472. | Chitika Pudaruth, Susheela Biranjia-Hurdoyal, Food Safety Knowledge and Practice in the Era of Dark Kitchens, 2024, 2960-1428, 3, 10.59786/bmtj.223 | |
473. | Atalanti Christou, Constantina Stavrou, Christodoulos Michael, George Botsaris, Vlasios Goulas, New Insights into the Potential Inhibitory Effects of Native Plants from Cyprus on Pathogenic Bacteria and Diabetes-Related Enzymes, 2024, 15, 2036-7481, 926, 10.3390/microbiolres15020061 | |
474. | Dina A. Awad, Hazem A. Masoud, Ahmed Hamad, Climate changes and food-borne pathogens: the impact on human health and mitigation strategy, 2024, 177, 0165-0009, 10.1007/s10584-024-03748-9 | |
475. | Cynthia Esinam Segbedzi, Edward Wilson Ansah, Daniel Apaak, Timothy Omara, Assessing the Safety of Hotel Food: Knowledge, Attitude, and Practices of Food Handlers, 2024, 2024, 0146-9428, 10.1155/2024/7361284 | |
476. | Aslia Asif, Jung-Sheng Chen, Bashir Hussain, Gwo-Jong Hsu, Jagat Rathod, Shih-Wei Huang, Chin-Chia Wu, Bing-Mu Hsu, The escalating threat of human-associated infectious bacteria in surface aquatic resources: Insights into prevalence, antibiotic resistance, survival mechanisms, detection, and prevention strategies, 2024, 265, 01697722, 104371, 10.1016/j.jconhyd.2024.104371 | |
477. | Kuljinder Kaur, Surinder Singh, Rajwinder Kaur, Impact of antibiotic usage in food-producing animals on food safety and possible antibiotic alternatives, 2024, 4, 29501946, 100097, 10.1016/j.microb.2024.100097 | |
478. | O. V. Gaus, M. A. Livzan, D. A. Gavrilenko, At an appointment with a patient with diarrhea: the doctor’s algorithm of actions, 2024, 2658-5790, 154, 10.21518/ms2024-213 | |
479. | Sotirios I. Ekonomou, Anastasia Kyriakoudi, Saliha Saad, Ioannis Mourtzinos, Alexandros Ch. Stratakos, 2024, Chapter 14, 978-3-031-60716-5, 335, 10.1007/978-3-031-60717-2_14 | |
480. | Zhao Wang, Jing Du, Wenyu Ma, Xinjie Diao, Qi Liu, Guorong Liu, Bacteriocins attenuate Listeria monocytogenes–induced intestinal barrier dysfunction and inflammatory response, 2024, 108, 0175-7598, 10.1007/s00253-024-13228-w | |
481. | Kamonrat Phopin, Sirirat Luk-in, Waralee Ruankham, Tanittha Chatsuwan, Rongpong Plongla, Papitcha Jongwachirachai, Suphissara Sathuphong, Chayatis Nuttavuttisit, Tanawut Tantimongcolwat, Duplex PCR-lateral flow immunoassay for rapid and visual screening of Salmonella spp. and Vibrio cholerae for food safety assurance and hygiene surveillance, 2024, 00236438, 116362, 10.1016/j.lwt.2024.116362 | |
482. | David A. Vargas, Rossy Bueno López, Diego E. Casas, Andrea M. Osorio-Doblado, Karla M. Rodríguez, Nathaly Vargas, Sara E. Gragg, Mindy M. Brashears, Markus F. Miller, Marcos X. Sanchez-Plata, Modernization Data Analysis and Visualization for Food Safety Research Outcomes, 2024, 14, 2076-3417, 5259, 10.3390/app14125259 | |
483. | Filipe Arruda, Ana Lima, Tanner Wortham, Alexandre Janeiro, Tânia Rodrigues, José Baptista, José S. Rosa, Elisabete Lima, Sequential Separation of Essential Oil Components during Hydrodistillation of Fresh Foliage from Azorean Cryptomeria japonica (Cupressaceae): Effects on Antibacterial, Antifungal, and Free Radical Scavenging Activities, 2024, 13, 2223-7747, 1729, 10.3390/plants13131729 | |
484. | Azza Mutwakil, Abdalbasıt Marıod, Elfatih Eldowma, Bacterial Foodborne Diseases in Sudan: A Review, 2022, 2459-1459, 10.33808/clinexphealthsci.1098014 | |
485. | Rethinasamy Velazhahan, Abdullah Mohammed Al-Sadi, Mostafa I. Waly, Sathish Babu Soundra Pandian, Jamal Al-Sabahi, Khalid Al-Farsi, Aflatoxin B1 Detoxification and Antioxidant Effect of Selected Omani Medicinal Plants against Aflatoxin B1-Induced Oxidative Stress Pathogenesis in the Mouse Liver, 2024, 14, 2076-3417, 5378, 10.3390/app14135378 | |
486. | Danlei Liu, Zilei Zhang, Zhiyi Wang, Liang Xue, Fei Liu, Ye Lu, Shiwei Yu, Shumin Li, Huajun Zheng, Zilong Zhang, Zhengan Tian, Transposase-Assisted RNA/DNA Hybrid Co-Tagmentation for Target Meta-Virome of Foodborne Viruses, 2024, 16, 1999-4915, 1068, 10.3390/v16071068 | |
487. | Satti Venu Gopala Kumari, Kannan Pakshirajan, G. Pugazhenthi, Application of active and environment-friendly poly (3-hydroxybutyrate)/grapeseed oil/MgO nanocomposite packaging for prolonging the shelf-life of cherry tomatoes (Solanum lycopersicum L. var. cerasiforme), 2024, 41, 23525541, 101681, 10.1016/j.scp.2024.101681 | |
488. | José Mário Sousa, Ana Barbosa, Daniela Araújo, Joana Castro, Nuno Filipe Azevedo, Laura Cerqueira, Carina Almeida, Evaluation of Simultaneous Growth of Escherichia coli O157:H7, Salmonella spp., and Listeria monocytogenes in Ground Beef Samples in Different Growth Media, 2024, 13, 2304-8158, 2095, 10.3390/foods13132095 | |
489. | Jiahao Wang, Yuqing Zheng, Hongkai Huang, Ya Ma, Xiaojuan Zhao, An overview of signal amplification strategies and construction methods on phage-based biosensors, 2024, 191, 09639969, 114727, 10.1016/j.foodres.2024.114727 | |
490. | Sandro C. Oliveira, Maria S. Soares, Bárbara V. Gonçalves, Andreia C. M. Rodrigues, Amadeu M. V. M. Soares, Rita G. Sobral, Nuno F. Santos, Jan Nedoma, Pedro L. Almeida, Carlos Marques, Liquid crystal immunosensors for the selective detection of Escherichia coli with a fast analysis tool, 2024, 12, 2327-9125, 1564, 10.1364/PRJ.524660 | |
491. | Xingxing Liu, Wenxu Yuan, Heng Xiao, Recent progress on DNAzyme-based biosensors for pathogen detection, 2024, 1759-9660, 10.1039/D4AY00934G | |
492. | Kah Yen Claire Yeak, Alberto Garre, Jeanne-Marie Membré, Marcel H. Zwietering, Heidy M.W. den Besten, Systematic risk ranking of microbiological hazards in infant foods, 2024, 09639969, 114788, 10.1016/j.foodres.2024.114788 | |
493. | Wenxia Bai, Jie Chen, Dong Chen, Yike Zhu, Kairui Hu, Xiaoyu Lin, Junlin Chen, Dafeng Song, Sensitive and rapid detection of three foodborne pathogens in meat by recombinase polymerase amplification with lateral flow dipstick (RPA-LFD), 2024, 422, 01681605, 110822, 10.1016/j.ijfoodmicro.2024.110822 | |
494. | Kannan Badri Narayanan, Rakesh Bhaskar, Sung Soo Han, Bacteriophages: Natural antimicrobial bioadditives for food preservation in active packaging, 2024, 01418130, 133945, 10.1016/j.ijbiomac.2024.133945 | |
495. | Weipan Peng, Yajie Liu, Minghui Lu, Xinyue Li, Yutong Liang, Roumeng Wang, Wenlu Zhang, Shuli Man, Long Ma, Advances in surface-enhanced Raman scattering detection of foodborne pathogens: From recognition-based fingerprint to molecular diagnosis, 2024, 518, 00108545, 216083, 10.1016/j.ccr.2024.216083 | |
496. | Laingshun Huoy, Sireyvathanak Vuth, Sophanith Hoeng, Chilean Chheang, Phalla Yi, Chenda San, Panha Chhim, Sopacphear Thorn, Bunsopheana Ouch, Dengrachda Put, Lyna Aong, Kongkea Phan, Leila Nasirzadeh, Siteng Tieng, Erik Bongcam-Rudloff, Susanna Sternberg Lewerin, Sofia Boqvist, Prevalence of Salmonella spp. in meat, seafood, and leafy green vegetables from local markets and vegetable farms in Phnom Penh, Cambodia, 2024, 07400020, 104614, 10.1016/j.fm.2024.104614 | |
497. | Jianxing Feng, Zhenqing Guo, Runli Li, Chaoqun Zhang, Ting Du, Xiang Li, Xuewei Yang, Junchen Zhuo, Yanmin Liang, Yaru Han, Jianlong Wang, Shuo Shi, Wentao Zhang, Visible light-responsive vitamin B2 functionalized ZnO with dual-mechanism bactericidal effects for perishable agrofood preservation, 2024, 496, 13858947, 154209, 10.1016/j.cej.2024.154209 | |
498. | Tomasz M. Karpiński, Marcin Ożarowski, Plant Organic Acids as Natural Inhibitors of Foodborne Pathogens, 2024, 14, 2076-3417, 6340, 10.3390/app14146340 | |
499. | Angela Perdomo, Alexandra Calle, Assessment of microbial communities in a dairy farm from a food safety perspective, 2024, 423, 01681605, 110827, 10.1016/j.ijfoodmicro.2024.110827 | |
500. | Adenike A. Akinsemolu, Helen N. Onyeaka, 2024, Chapter 16, 978-981-97-2427-7, 489, 10.1007/978-981-97-2428-4_16 | |
501. | Mildred Osei-Kwarteng, Matthew Chidozie Ogwu, Gustav K. Mahunu, Newlove Akowuah Afoakwah, 2024, Chapter 6, 978-981-97-2427-7, 151, 10.1007/978-981-97-2428-4_6 | |
502. | Jing Ding, Ning Xu, Jing Wang, Yushu He, Xuelin Wang, Mingyuan Liu, Xiaolei Liu, Plancitoxin-1 mediates extracellular trap evasion by the parasitic helminth Trichinella spiralis, 2024, 22, 1741-7007, 10.1186/s12915-024-01958-2 | |
503. | Yigithan Balta, Oktay Yerlikaya, Protective Effect of the Use of Bioprotective Culture in Kefir Production Against Escherichia coli and Enterococcus feacalis Contamination, 2024, 22124292, 104813, 10.1016/j.fbio.2024.104813 | |
504. | Shimelis Teshome Ayalneh, Biruk Yeshitela Beshah, Yeonji Jeon, Seifegebriel Teshome, Tomas Getahun, Solomon Gebreselassie, Se Eun Park, Mekonnen Teferi, Woldaregay Erku Abegaz, Tsegaye Alemeyhu, Extended-Spectrum β-Lactamase and carbapenemase-producing Escherichia coli O157:H7 among diarrheic patients in Shashemene, Ethiopia, 2024, 19, 1932-6203, e0306691, 10.1371/journal.pone.0306691 | |
505. | Olugbenga Balogun, Hye Won Kang, Bioactivities and Applications of Fruit Byproducts and Their Phytochemicals: A Mini Review, 2024, 8755-9129, 1, 10.1080/87559129.2024.2383429 | |
506. | Cristina Pablos, Javier Marugán, Rafael van Grieken, Jeremy W. J. Hamilton, Nigel G. Ternan, Patrick S. M. Dunlop, Assessment of Photoactivated Chlorophyllin Production of Singlet Oxygen and Inactivation of Foodborne Pathogens, 2024, 14, 2073-4344, 507, 10.3390/catal14080507 | |
507. | Kinga Hyla, Izabela Dusza, Aneta Skaradzińska, Recent Advances in the Application of Bacteriophages against Common Foodborne Pathogens, 2022, 11, 2079-6382, 1536, 10.3390/antibiotics11111536 | |
508. | Shiv Dutta Lawaniya, Anjali Awasthi, Prashanth W. Menezes, Kamlendra Awasthi, Detection of Foodborne Pathogens Through Volatile Organic Compounds Sensing via Metal Oxide Gas Sensors, 2024, 2751-1219, 10.1002/adsr.202400101 | |
509. | Mongkol Techakasikornpanich, Kulachart Jangpatarapongsa, Duangporn Polpanich, Nadia Zine, Abdelhamid Errachid, Abdelhamid Elaissari, Biosensor Technologies: DNA-Based Approaches for Foodborne Pathogen Detection, 2024, 01659936, 117925, 10.1016/j.trac.2024.117925 | |
510. | Kelly Johanna Lozano-Villegas, Iang Schroniltgen Rondón-Barragán, Todd R. Callaway, Virulence and Antimicrobial‐Resistant Gene Profiles of Salmonella spp. Isolates from Chicken Carcasses Markets in Ibague City, Colombia, 2024, 2024, 1687-918X, 10.1155/2024/4674138 | |
511. | Shabnam Ameenudeen, S Hemalatha, Emergence of Microfluidic Platforms as Point of Care Diagnostics for the Detection of Plant and Foodborne Pathogens, 2024, 2198-641X, 10.1007/s40495-024-00366-y | |
512. | Mengyuan Liu, Jun-Hu Cheng, Haigang Zhao, Chongchong Yu, Jingzhu Wu, Targeting the outer membrane of gram-negative foodborne pathogens for food safety: compositions, functions, and disruption strategies, 2024, 1040-8398, 1, 10.1080/10408398.2024.2397462 | |
513. | Tugba Cebeci, Elif Seren Tanrıverdi, Barış Otlu, A first study of meat-borne enterococci from butcher shops: prevalence, virulence characteristics, antibiotic resistance and clonal relationship, 2024, 0165-7380, 10.1007/s11259-024-10516-8 | |
514. | Eliane Cristina Lombardi, Sana Ullah, Carlos Augusto Fernandes de Oliveira, Rapid detection and occurrence of foodborne pathogens in minimally processed vegetables: a review, 2024, 0950-5423, 10.1111/ijfs.17507 | |
515. | Biruk Alemu Gemeda, Michel Dione, Guy Ilboudo, Ayalew Assefa, Valerie Lallogo, Delia Grace, Theodore J. D. Knight-Jones, Food safety and hygiene knowledge, attitudes and practices in street restaurants selling chicken in Ouagadougou, Burkina Faso, 2024, 8, 2571-581X, 10.3389/fsufs.2024.1448127 | |
516. | Oluwaferanmi Esther Bamisi, Clement Olusola Ogidi, Bamidele Juliet Akinyele, Antimicrobial metabolites from Probiotics, Pleurotus ostreatus and their co-cultures against foodborne pathogens isolated from ready-to-eat foods, 2024, 74, 1869-2044, 10.1186/s13213-024-01776-5 | |
517. | Swati Soni, Anvil Jennifer W., Christine Kurian, Prapti Chakraborty, Kuppusamy Alagesan Paari, Food additives and contaminants in infant foods: a critical review of their health risk, trends and recent developments, 2024, 6, 2661-8974, 10.1186/s43014-024-00238-4 | |
518. | V. Sathiya, K. Nagalakshmi, K. Raju, R. Lavanya, Tracking perishable foods in the supply chain using chain of things technology, 2024, 14, 2045-2322, 10.1038/s41598-024-72617-3 | |
519. | Seong Bin Park, Yan Zhang, Innovative Multiplex PCR Assay for Detection of tlh, trh, and tdh Genes in Vibrio parahaemolyticus with Reference to the U.S. FDA’s Bacteriological Analytical Manual (BAM), 2024, 13, 2076-0817, 774, 10.3390/pathogens13090774 | |
520. | Haoming Yang, Song Yan, Tianxi Yang, Electrospun Nanofiber-Based Biosensors for Foodborne Bacteria Detection, 2024, 29, 1420-3049, 4415, 10.3390/molecules29184415 | |
521. | Huanhuan Li, Arul Murugesan, Muhammad Shoaib, Wei Sheng, Quansheng Chen, Functionalized metal-organic frameworks with biomolecules for sensing and detection applications of food contaminants, 2024, 1040-8398, 1, 10.1080/10408398.2024.2406482 | |
522. | Debarati Bhowmik, Jonathan James Stanely Rickard, Raz Jelinek, Pola Goldberg Oppenheimer, Resilient sustainable current and emerging technologies for foodborne pathogen detection, 2024, 2753-8095, 10.1039/D4FB00192C | |
523. | Kenneth Nnamdi Anueyiagu, Chibuzor Gerald Agu, Uzal Umar, Bruno Silvester Lopes, Antimicrobial Resistance in Diverse Escherichia coli Pathotypes from Nigeria, 2024, 13, 2079-6382, 922, 10.3390/antibiotics13100922 | |
524. | Chdinma Adanna Okafor, Impact and interventions of waterborne and foodborne illnesses caused by bacterial pathogens in Nigeria: A review, 2024, 10, 26022834, 316, 10.3153/FH24030 | |
525. | Hakan Temiz, 2024, 29, 978-605-335-878-7, 415, 10.69860/nobel.9786053358787.29 | |
526. | Medina Mulat, Dagim Jirata Birri, Tilahun Kibret, Wongelawit Moges Alemu, Alene Geteneh, Wude Mihret, Food Safety Knowledge, Attitude, and Hygienic Practices of Food Handlers in Yeka Sub-city, Addis Ababa, Ethiopia: A Descriptive Cross-sectional Study, 2024, 18, 1178-6302, 10.1177/11786302241288855 | |
527. | Richard Harding-Crooks, Amanda Jones, Darren Smith, Séamus Fanning, Edward M. Fox, Profiling the Enterobacterales community isolated from retail foods in England, 2024, 0362028X, 100369, 10.1016/j.jfp.2024.100369 | |
528. | Thirumalairajan Subramaniam, Gomathi Velu, Girija Kesavan, Sathyamoorthy Pon, Critical Review on Multifunctional Nanostructure Based Electrochemical Immunosensors for Foodborne Pathogens, 2024, 2692-1944, 10.1021/acsfoodscitech.3c00624 | |
529. | V. Uma Maheshwari Nallal, A. Usha Raja Nanthini, D. Illakiam, B. Ravindran, Vinitha Ebenezer, M. Razia, 2024, 9781394263141, 511, 10.1002/9781394263172.ch21 | |
530. | Kittipat Chotchindakun, Songphon Buddhasiri, Panwong Kuntanawat, Enhanced Growth and Productivity of Arthrospira platensis H53 in a Nature-like Alkalophilic Environment and Its Implementation in Sustainable Arthrospira Cultivation, 2024, 16, 2071-1050, 8627, 10.3390/su16198627 | |
531. | Ndukwe Maduka, Ositadinma Chinyere Ugbogu, A review on microorganisms and mycotoxin contamination of selected ‘swallow meals’ - Potential health risks to consumers, 2024, 10, 24058440, e39311, 10.1016/j.heliyon.2024.e39311 | |
532. | Yolla Rona Mustika, Mustofa Helmi Effendi, Yulianna Puspitasari, Hani Plumeriastuti, Aswin Rafif Khairullah, Kurnia Nisa Kinasih, Identification of Escherichia coli Multidrug Resistance in Cattle in Abattoirs, 2024, 7, 2581-012X, 19, 10.20473/jmv.vol7.iss1.2024.19-32 | |
533. | Sheetal Negi, Sarika Sharma, Ready to Eat Food: A Reason for Enhancement in Multidrug Resistance in Humans, 2024, 14, 2228-5881, 504, 10.34172/apb.2024.023 | |
534. | Manisha Behera, Sachinandan De, Soma M. Ghorai, The Synergistic and Chimeric Mechanism of Bacteriophage Endolysins: Opportunities for Application in Biotherapeutics, Food, and Health Sectors, 2024, 1867-1306, 10.1007/s12602-024-10394-1 | |
535. | Abdi Wira Septama, Eldiza Puji Rahmi, Aprilia Nur Tasfiyati, Nur Aini Khairunnisa, Halimah Raina Nasution, Nilesh Nirmal, Sofna Dewita Sari Banjarnahor, Dadang Priyatmojo, Chemical profiles and antibacterial actions of Zanthoxylum acanthopodium DC. Essential oil growing in Indonesia, 2025, 180, 0367326X, 106300, 10.1016/j.fitote.2024.106300 | |
536. | Lik Tong Tan, Nurul Farhana Salleh, Marine Cyanobacteria: A Rich Source of Structurally Unique Anti-Infectives for Drug Development, 2024, 29, 1420-3049, 5307, 10.3390/molecules29225307 | |
537. | Sarbanding Sane, Sophie Deli Tene, Abou Abdallah Malick Diouara, Seynabou Coundoul, Malick Mbengue, Yakhya Dieye, Bacterial community in fresh fruits and vegetables sold in streets and open-air markets of Dakar, Senegal, 2024, 24, 1471-2180, 10.1186/s12866-024-03622-9 | |
538. | Shanting Zhang, WeiWei Zhu, Xin Zhang, LiangHui Mei, Jian Liu, Fangbin Wang, Machine learning-driven fluorescent sensor array using aqueous CsPbBr3 perovskite quantum dots for rapid detection and sterilization of foodborne pathogens, 2025, 483, 03043894, 136655, 10.1016/j.jhazmat.2024.136655 | |
539. | Engidaw Abebe, Getachew Gugsa, Meselu Ahmed, Nesibu Awol, Yalew Tefera, Shimelis Abegaz, Occurrence, associated risk factors and antimicrobial resistance patterns of Staphylococcus aureus and methicillin resistant S. aureus from foods of bovine origin in Dessie and Kombolcha towns, Ethiopia, 2024, 8, 2571-581X, 10.3389/fsufs.2024.1422850 | |
540. | Alice Njolke Mafe, Great Iruoghene Edo, Raghda S. Makia, Ogunyemi Ayobami Joshua, Patrick Othuke Akpoghelie, Tayser Sumer Gaaz, Agatha Ngukuran Jikah, Emad Yousif, Endurance Fegor Isoje, Ufuoma Augustina Igbuku, Dina S. Ahmed, Arthur Efeoghene Athan Essaghah, Huzaifa Umar, A review on food spoilage mechanisms, food borne diseases and commercial aspects of food preservation and processing, 2024, 5, 2772753X, 100852, 10.1016/j.focha.2024.100852 | |
541. | Abhishek Futane, Vigneswaran Narayanamurthy, Baranitharan Ethiraj, Kirupa Muthuvelu, 2025, 9780443134531, 219, 10.1016/B978-0-443-13453-1.00013-9 | |
542. | Chitika Pudaruth, Susheela Biranjia-Hurdoyal, Food Safety Knowledge and Practice in the Era of Dark Kitchens, 2024, 2, 2960-1428, 50, 10.59786/bmtj.217 | |
543. | Muhammad Sheraz, Xiao-Feng Sun, Yongke Wang, Jiayi Chen, Le Sun, Recent Developments in Aptamer-Based Sensors for Diagnostics, 2024, 24, 1424-8220, 7432, 10.3390/s24237432 | |
544. | M. Sravanthi, Y. Muralidhar, P. Ramya, K. Sudheer, 2024, 9781800625013, 173, 10.1079/9781800625037.0010 | |
545. | Lourenço Pinto de Rezende, Joana Bastos Barbosa, Teresa Bento de Carvalho, Ivone Vaz-Moreira, Maria João P. Monteiro, Paula Teixeira, Impact of Red Wine Vinegar-Based Solution on Bacterial Communities of Squid and Shrimp Skewers: A Classic and Genomic Approach, 2024, 1935-5130, 10.1007/s11947-024-03685-6 | |
546. | Yaxin Wang, Xiuhong Liu, Chenduo Huang, Weipeng Han, Pengchao Gu, Ruxian Jing, Qing Yang, Antibiotic resistance genes and virulence factors in the plastisphere in wastewater treatment plant effluent: Health risk quantification and driving mechanism interpretation, 2025, 271, 00431354, 122896, 10.1016/j.watres.2024.122896 | |
547. | Christian Anumudu, Helen Onyeaka, Chiemerie Ekwueme, Abarasi Hart, Folayemi Isaac-Bamgboye, Taghi Miri, Advances in the Application of Infrared in Food Processing for Improved Food Quality and Microbial Inactivation, 2024, 13, 2304-8158, 4001, 10.3390/foods13244001 | |
548. | Noorudeen Paringamalai, Syed Tajudeen Syed Ameen, Abdul Matheen Ibrahim, Jahangir Ahmed, Karthikeyan Ramalingam, Sekar Vijayakumar, Comprehensive study of Biginelli’s compounds show antibacterial activity against Vibrio parahaemolyticus of two strains: In vitro and computational approaches, 2024, 08824010, 107213, 10.1016/j.micpath.2024.107213 | |
549. | Nainee Goyal, Anshuman Chandra, Manu Vashistha, Anand Prakash Singh, Vijay Kumar Goel, Nagendra Singh, 2024, Chapter 9, 978-981-97-9633-5, 199, 10.1007/978-981-97-9634-2_9 | |
550. | Noura Ait-Mimoune, Fatima Kada, Houda Drider, Antimicrobial and Antioxidant activities of Algerian Juniperus phoenicea and Salvia officinalis Essential Oils, 2023, 67, 2594-0317, 122, 10.29356/jmcs.v67i2.1921 | |
551. | Diptikanta Acharya, Sagarika Satapathy, Sandhyarani Patra, Goutam Jha, Somanath Sahoo, T. Gayatri, 2024, Chapter 10, 978-981-97-9633-5, 235, 10.1007/978-981-97-9634-2_10 | |
552. | Rumi Mahata, Subhabrata Das, Kaustav Tripathi, Sujata Maiti Choudhury, Molecular insights into the therapeutic attributes of carvacrol: Special emphasis on anti-carcinogenicity and future perspectives, 2025, 2, 30504759, 100099, 10.1016/j.nexres.2024.100099 | |
553. | Shuxiang Liu, Md Rashidur Rahman, Hejun Wu, Wen Qin, Yanying Wang, Gehong Su, Development and application of hydrogels in pathogenic bacteria detection in foods, 2025, 2050-750X, 10.1039/D4TB01341G | |
554. | Lixia Wang, Junqing Bai, Ziliang Liu, Yonglei Jiang, Jun Wang, X-ray irradiation as a potential postharvest treatment for maintaining the quality of lily (Lilium davidii var. unicolor) bulbs and predicting shelf life using an artificial neural network, 2024, 09639969, 115635, 10.1016/j.foodres.2024.115635 | |
555. | Antonella Zizza, Alessandra Fallucca, Marcello Guido, Vincenzo Restivo, Marco Roveta, Cecilia Trucchi, Foodborne Infections and Salmonella: Current Primary Prevention Tools and Future Perspectives, 2024, 13, 2076-393X, 29, 10.3390/vaccines13010029 | |
556. | Mohamed Gouda, Mai M. Khalaf, Manal F. Abo Taleb, Ibtisam Alali, Hany M. Abd El-Lateef, Formulation of sustainable, biodegradable chitosan films enriched with Origanum majorana extract as an eco-friendly antimicrobial food packaging for possible food preservation, 2025, 01418130, 139658, 10.1016/j.ijbiomac.2025.139658 | |
557. | M. Dayana Senthamarai, V. Edwin Hillary, M.R. Rajan, S. Antony Ceasar, S. Ignacimuthu, Phyto-synthesis of selenium nanoparticles using Mentha spicata (mint) extract and its larvicidal and antibacterial activities, 2025, 28, 12268615, 102370, 10.1016/j.aspen.2025.102370 | |
558. | Hannah Yuna Lee, Abeer Abujamous, Catherine Baxley, Chyer Kim, Eco‐Friendly Membrane Technology: Unlocking Antibacterial Potential of Biowaste Materials Against Foodborne Pathogens, 2025, 45, 0149-6085, 10.1111/jfs.70007 | |
559. | Prasad Mamidi, Kshama Gupta, Clinical Predictors of Mortality in Vikruta Vyadhi Vignaneeyam Chapter of Ashtanga Sangraha: An Exploratory Review, 2024, 3, 2949-8007, 12, 10.4103/jahas.jahas_15_24 | |
560. | Weifan Wu, Kevin Mis Solval, Jinru Chen, Inhibition of Salmonella enterica and Enterohemorrhagic Escherichia coli by Ethanolic Extracts of Pomegranate Peels, 2025, 16, 2036-7481, 13, 10.3390/microbiolres16010013 | |
561. | Emad H. El-Bilawy, Islam Mamdouh, Said Behiry, Islam I. Teiba, Evaluating the antibacterial efficacy of bee venom against multidrug-resistant pathogenic bacteria: Escherichia coli, Salmonella typhimurium, and Enterococcus faecalis, 2025, 41, 0959-3993, 10.1007/s11274-024-04248-9 | |
562. | Getachew Derbew Belay, Amare Bihon Asfaw, Hagazi Fantay Tadesse, Asma Seid, Zoonotic Disease: Knowledge, Attitude and Practice of Dairy Farm Owner in Wolaita Sodo District, Ethiopia, 2025, 11, 2053-1095, 10.1002/vms3.70197 | |
563. | Andreia Massamby, Su-lin L. Leong, Bettina Müller, Lucas Tivana, Volkmar Passoth, Custódia Macuamule, Mats Sandgren, Microbial Contamination and Food Safety Aspects of Cassava Roasted Flour (“Rale”) in Mozambique, 2025, 13, 2076-2607, 168, 10.3390/microorganisms13010168 | |
564. | Xiaowu Jiang, Abubakar Siddique, Li Chen, Lexin Zhu, Haiyang Zhou, Li Na, Chenghao Jia, Yan Li, Min Yue, Genomic and resistome analysis of Salmonella enterica isolates from retail markets in Yichun city, China, 2025, 23527714, 100967, 10.1016/j.onehlt.2025.100967 | |
565. | Zeus Saldaña-Ahuactzi, Francisco Javier Gómez-Montaño, Janet Morales-Chávez, Rafael A. Salinas, Claudia Reyes-Betanzo, Marlon Rojas-López, Ateet Dutt, Abdú Orduña-Díaz, Advancing foodborne pathogen detection: a review of traditional and innovative optical and electrochemical biosensing approaches, 2025, 192, 0026-3672, 10.1007/s00604-024-06924-x | |
566. | Shixin Yan, Yuling Xiao, Ruijuan Shen, Jiazhe Cheng, Yuling Zhang, Nan Wu, Jinhao Chen, Jie Chen, Peng Zhang, Jia Geng, Simultaneous detection of dual targets Escherichia coli and Salmonella enteritidis using enzyme‐free strand displacement reaction, 2025, 4, 2769-643X, 10.1002/mba2.70002 | |
567. | Muhammad Usman Qamar, Kaneez Fizza, Muhammad Ismail Chughtai, Muhammad Shafique, Bibigul Seytkhanova, Ayaz Yktiyarov, Zikria Saleem, Sana Mustafa, Zainab Tufail, Mahnoor Chaudhry, Tawaf Ali Shah, Ahmad Mohammad Salamatullah, Mohammed Bourhia, Food Safety Concerns in Pakistan: Monitoring of Antimicrobial-Resistant Bacteria and Residue Contamination in Commercially Available Fish and Poultry Meat Samples, 2025, 1535-3141, 10.1089/fpd.2024.0117 | |
568. | Marcin Pigłowski, Alberto Nogales, Maria Śmiechowska, Hazards in Products from Northern Mediterranean Countries Reported in the Rapid Alert System for Food and Feed (RASFF) in 1997–2021 in the Context of Sustainability, 2025, 17, 2071-1050, 889, 10.3390/su17030889 | |
569. | Abdi Keba, Alganesh Tola, Kerry E. Kaylegian, Muluken Kebede, Ashagrie Zewdu, Impact of hygienic milk production training on knowledge, attitudes and practices of women farmers in the central highlands of Ethiopia, 2025, 8, 2571-581X, 10.3389/fsufs.2024.1539559 | |
570. | Bingcheng Li, Yalu An, Fangru Nan, Xudong Liu, Jia Feng, Shulian Xie, Optimizing ultrasonic extraction of polysaccharides from Spirulina platensis and evaluating their antioxidant and antibacterial activities in acidic environments, 2025, 01418130, 140478, 10.1016/j.ijbiomac.2025.140478 | |
571. | Masooma Farrukh, Ayesha Munawar, Zeenat Nawaz, Nazim Hussain, Ahmer Bin Hafeez, Piotr Szweda, Antibiotic resistance and preventive strategies in foodborne pathogenic bacteria: a comprehensive review, 2025, 1226-7708, 10.1007/s10068-024-01767-x | |
572. | Xinlei Liang, Zhishang Wang, Jiang Wu, Guoqiang Liu, Yiming Wang, Na Lu, Dongping Liu, Inactivation of E. coli on cabbage by humidified air dielectric barrier discharge plasma, 2025, 100, 0031-8949, 025609, 10.1088/1402-4896/adaaae | |
573. | Mozhgan Derakhshan-Sefidi, Fereshteh Eidy, Somayyeh Nadi-Ravandi, Sareh Bagheri-Josheghani, Maryam Mirfakhraei, Prevalence of common diarrheagenic enterobacteriaceae in Iran (2000–2023): a systematic review and meta-analysis, 2025, 25, 1471-230X, 10.1186/s12876-025-03634-3 | |
574. | Francisco Jiménez-Jiménez, Antonio Valero, 2025, Chapter 8, 978-1-0716-4111-8, 155, 10.1007/978-1-0716-4112-5_8 | |
575. | Zhenxu Shi, Zhimin Guo, Siqi Li, Chenxiao Jiang, Jianfeng Wang, Xuming Deng, Hongtao Liu, Jiazhang Qiu, Purpurin suppresses Salmonella invasion of host cells by reducing the secretion of T3SS-1 effector proteins, 2025, 15, 2045-2322, 10.1038/s41598-025-86822-1 | |
576. | Kiyana Fatemi, Sie Yon Lau, Reza Fatemi, Ranil Coorey, Zoheir Heshmatipour, Lip Yong Chung, Siaw Fui Kiew, Paper-based biosensing using single-stranded oligonucleotide aptamers for enhanced food safety, 2025, 141, 08891575, 107331, 10.1016/j.jfca.2025.107331 | |
577. | Daohong Zhang, Deepak Kukkar, Ki-Hyun Kim, Monika Chhillar, Advancement in the Synthesis and Nanocomposite Formation of Upconversion Nanomaterials in the Fluorescence Detection of Food Contaminants, 2025, 1935-5130, 10.1007/s11947-025-03760-6 | |
578. | Soudeh Shiri, Kamaladin Gharanjig, Azar Tahghighi, Mozhgan Hosseinnezhad, Masoud Etezad, Formulation and characterization of BBR loaded niosomes using saponin as a nonionic biosurfactant investigating synergistic effects to enhance antibacterial activity, 2025, 15, 2045-2322, 10.1038/s41598-025-87950-4 | |
579. | Harsh Kumar, Shivani Guleria, Nidhi Sethi, Richard Cimler, Ashok Kumar Pathera, Daljeet Singh Dhanjal, Sivakumar Manickam, Dinesh Kumar, Eugenie Nepovimova, Enhancing meat safety and quality: Innovations in protein-based sensing technologies for contaminant detection, 2025, 09567135, 111208, 10.1016/j.foodcont.2025.111208 | |
580. | Zeeshan Rafi, Hamda Khan, Arbab Husain, Afreen Khanam, Ahmed Alafnan, Ahmed Alobaida, Uzma Shahab, Irfan Ahmad, Saheem Ahmad, Food contamination and the emerging application of nanobiosensors in food safety, 2025, 90, 0022-1147, 10.1111/1750-3841.70073 | |
581. | Seonmi Kim, Hyunjin Son, An outbreak of Clostridium perfringens infection on a training ship anchored in Busan, Korea, 2024, 46, 2092-7193, e2024086, 10.4178/epih.e2024086 | |
582. | Oluwafemi Bamidele Daramola, Richard Kolade Omole, Bolanle Adenike Akinsanola, Emerging applications of biorecognition elements-based optical biosensors for food safety monitoring, 2025, 1, 3005-1851, 10.1007/s44397-025-00003-3 | |
583. | So Yeon Kim, Young-Sun Yun, Kwang-Jun Lee, Jonghyun Kim, Vera Tesic, Rapid and sensitive isolation of Campylobacter jejuni using immunomagnetic separation from patient specimens exposed to oxygen , 2025, 2165-0497, 10.1128/spectrum.01907-24 | |
584. | Vasita Lapee-e, Suphachai Nuanualsuwan, Lalitphan Hongtanee, Abdulhadee Yakoh, Paper-based CRISPR-Cas diagnostics: A comprehensive review of advances and applications in disease detection, 2025, 211, 0026265X, 113055, 10.1016/j.microc.2025.113055 | |
585. | Soumyajit Das, Neel Koul, Lubhan Cherwoo, Ranjana Bhatia, Hema Setia, Conjugated Polymer-Based Smart Biosensors for Pathogen Detection in Food Sector, 2025, 1936-9751, 10.1007/s12161-025-02764-4 | |
586. | Shuyi Feng, Aishwarya Rao, Abani K. Pradhan, 2025, 9780323907477, 41, 10.1016/B978-0-323-90747-7.00004-1 | |
587. | Huimei Zeng, Xingyao Wang, Jiyu Tang, Peina Liu, Shen Zhang, Hongwei Chu, Bo Chen, Ming Ma, Proteomic and metabolomic analyses reveal the antibacterial mechanism of Cannabidiol against gram-positive bacteria, 2025, 315, 18743919, 105411, 10.1016/j.jprot.2025.105411 | |
588. | Reena Francy Biju, Jaffrin G, Jobisha J, Matharasi A, Surya Prabha A, Vinisha V, Mary Linet J, Arul Martin Mani J, Structural, Spectroscopic, Thermal and Morphological Evaluation of Biogenic ZnO/Ag Nanocomposite using Moringa oleifera Seed Extract for Enhanced Antimicrobial Efficacy, 2025, 10, 26670224, 100850, 10.1016/j.chphi.2025.100850 | |
589. | Adriana Elena ANIȚĂ, Cristina Mihaela RÎMBU , Valentina CREȚU , Nicolae STARCIUC , Bianca Elena BAISAN , Adriana Valentina TRANDAF , Maxim BÎRSA , Dragoș Constantin ANIȚĂ , CROSS-BORDER COLLABORATION BETWEEN ROMANIA AND REPUBLIC OF MOLDOVA FOR FOOD-BORNE PATHOGENS DETECTION IN RETAIL MEAT, 2024, 67, 14547406, 96, 10.61900/SPJVS.2024.01.17 | |
590. | Van Dan Nguyen, Gayathri Sureshkumar, Tae Seok Seo, Integrated microfluidic device of DNA extraction, recombinase polymerase amplification and micro-capillary electrophoresis for sample-to-answer detection of Salmonella Typhimurium, 2025, 09254005, 137625, 10.1016/j.snb.2025.137625 | |
591. | Betsy Foxman, Elizabeth Salzman, Chelsie Gesierich, Sarah Gardner, Michelle Ammerman, Marisa Eisenberg, Krista Wigginton, Wastewater surveillance of antibiotic-resistant bacteria for public health action: potential and challenges, 2024, 0002-9262, 10.1093/aje/kwae419 | |
592. | Chou-Yi Hsu, Sofiene Mansouri, Jasur Rizaev, Gaurav Sanghvi, Dmitry Olegovich Bokov, Jaswinder Kaur, Indu Sharma, Pranchal Rajput, Yasser Fakri Mustafa, Layth Hussein, Synergistic effect between bacteriophages and nanozymes for hybrid dual recognition of pathogenic bacteria from water, food, and agricultural samples: promising new tools for sensitive and specific biosensing, 2025, 2040-3364, 10.1039/D5NR00146C | |
593. | Wanying Zhu, Yuhe Dong, Tong Wu, Tao Jiang, Ying Xiao, Xi Yu, Tian Zhong, Synergies of Plant-derived Compounds in Controlling Foodborne Microorganisms: Antimicrobial Mechanisms, Determination Methods and Combined Effects, 2025, 8755-9129, 1, 10.1080/87559129.2025.2469594 | |
594. | Mustafa Erbakan, Muharrem Taşdemir, Fatih Şenaslan, Oğuz Yunus Sarıbıyık, Influence of Silver Doping and Anodization Current Density on Aluminum Surface Properties and Surface Adhesion of Staphylococcus aureus and Escherichia coli, 2025, 0743-7463, 10.1021/acs.langmuir.5c00698 | |
595. | Elena Gatta, Elena Abd El, Marco Brunoldi, Muhammad Irfan, Tommaso Isolabella, Dario Massabò, Franco Parodi, Paolo Prati, Virginia Vernocchi, Federico Mazzei, Viability studies of bacterial strains exposed to nitrogen oxides and light in controlled atmospheric conditions, 2025, 15, 2045-2322, 10.1038/s41598-025-94898-y | |
596. | Jeongmin Lee, Hyejin Cho, Kwang-sun Kim, Surface-displaying protein from Lacticaseibacillus paracasei–derived extracellular vesicles: Identification and utilization in the fabrication of an endolysin-displaying platform against Staphylococcus aureus, 2025, 13858947, 162196, 10.1016/j.cej.2025.162196 | |
597. | Dong Van Quyen, Pham Thi Lanh, Lee Gahyun, Nguyen Thi Hoa, Man Hong Phuoc, Isolation and phylogenetic analysis of Staphylococcus aureus strains isolated from meat in traditional markets in Ha Noi, 2025, 47, 2815-5920, 63, 10.15625/2615-9023/21635 | |
598. | Xicen Jiang, Biological mechanisms, pharmacological and pathological activities, and quality optimization of gingerols and shogaols, 2025, 127, 17564646, 106773, 10.1016/j.jff.2025.106773 | |
599. | Nicole Severino, Claudia Reyes, Yumeris Fernandez, Vasco Azevedo, Luis Enrique De Francisco, Rommel T. Ramos, Luis Orlando Maroto-Martín, Edian F. Franco, Bacterial Foodborne Diseases in Central America and the Caribbean: A Systematic Review, 2025, 16, 2036-7481, 78, 10.3390/microbiolres16040078 | |
600. | Slavica Vesković, 2025, Chapter 2, 978-3-031-85088-2, 5, 10.1007/978-3-031-85089-9_2 | |
601. | Gayathri Sureshkumar, Van Dan Nguyen, Hiep Van Nguyen, Thi Thuy Huong Nguyen, Tae Seok Seo, An integrated and self-regulating microfluidic device for real-time multiplex detection of Escherichia coli O157:H7 and Salmonella enterica sp., 2025, 437, 09254005, 137758, 10.1016/j.snb.2025.137758 | |
602. | L.F.A. Anand Raj, A Annushrie, S.Karthick Raja Namasivayam, Anti bacterial efficacy of photo catalytic active titanium di oxide (TiO2) nanoparticles synthesized via green science principles against food spoilage pathogenic bacteria, 2025, 29501946, 100331, 10.1016/j.microb.2025.100331 | |
603. | M. Veerapagu, M. S. Mohamed Jaabir, K. Aravinthan, K. R. Jeya, Amita Suneja Dang, Pooja Suneja, A. Sankara Narayanan, 2025, Chapter 24, 978-1-0716-4381-5, 201, 10.1007/978-1-0716-4382-2_24 | |
604. | Rupal Dhariwal, Khemraj Deshmukh, Aditya Upadhyay, Nil Patil, Bindiya Upadhyay, Komal Janiyani, Harjeet Singh, Mukul Jain, 2025, 978-1-83767-452-7, 46, 10.1039/9781837677047-00046 | |
605. | Vanshika Chandel, Bharti Minhas, Naveen Minhas, Neelam Kaushik, 2025, Chapter 22, 978-1-0716-4381-5, 179, 10.1007/978-1-0716-4382-2_22 | |
606. | Purwaniati Purwaniati, Muhammad Insanu, Maria Immaculata Iwo, Rahmana Emran Kartasasmita, The Antimicrobial activity of Ginggiang (Leea aequata L.) leaf extract as Preservative and Antiseptic, 2025, 0974-360X, 1154, 10.52711/0974-360X.2025.00166 | |
607. | Qiyi Yuan, Charmaine Ng, Shin Giek Goh, Wei Ching Khor, Glendon Hong Ming Ong, Kyaw Thu Aung, Karina Yew-Hoong Gin, Evaluation of public health impact risks associated with bacterial antimicrobial resistome in tropical coastal environments, 2025, 282, 00431354, 123621, 10.1016/j.watres.2025.123621 | |
608. | Felix Kwashie Madilo, Emmanuel Letsyo, 2025, Chapter 3, 978-1-0716-4381-5, 27, 10.1007/978-1-0716-4382-2_3 | |
609. | Eric S. Donkor, Famous K. Sosah, Alex Odoom, Bernard T. Odai, Angela Parry-Hanson Kunadu, How Long Do Microorganisms Survive and Persist in Food? A Systematic Review, 2025, 13, 2076-2607, 901, 10.3390/microorganisms13040901 | |
610. | Amete Mihret Teshale, Woldaregay Erku Abegaz, Binyam Moges Azmeraye, Desalegne Degefaw, Devin LaPolt, Zelalem Bonger, Alem Abrha Kalayu, Eyasu Tigabu, Lina Gazu, Getnet Yimer, Ebba Abate, Estifanos Tsige, Geremew Tasew, Yadeta Dessie, Gashaw Biks, James A. Barkley, Ariel V. Garsow, Aaron Beckiewicz, Silvia Alonso, Barbara Kowalcyk, Ben Pascoe, Prevalence of Shiga toxin-producing Escherichia coli, Salmonella, and Campylobacter species among diarrheal patients from three major hospitals in Ethiopia, 2025, 5, 2767-3375, e0004407, 10.1371/journal.pgph.0004407 | |
611. | Zainab Matar, Zainura Zainon Noor, Adnan Al‐Hindi, Brian Yuliarto, Recent Advances in Paper‐Based Nano‐Biosensors for Waterborne Pathogen Detection: Challenges and Solutions, 2025, 1612-1872, 10.1002/cbdv.202403451 | |
612. | Anowar Khasru Parvez, Fatema Tuz Jubyda, Joyoshrie Karmakar, Airen Jahan, Nayeem-E. Akter, Mohammed Ayaz, Tabassum Kabir, Shahina Akter, Md Amdadul Huq, Antimicrobial potential of biopolymers against foodborne pathogens: An updated review, 2025, 204, 08824010, 107583, 10.1016/j.micpath.2025.107583 | |
613. | Md. Sajjad Hossain, Md. Zahir Mahmud, Rakibul Islam, Pias Sarker, Manjur-E-Elahi Shimul, Assessment of food safety knowledge, attitudes and practices of untrained fish vendors in Rajshahi City, Bangladesh, 2025, 4, 29498244, 100629, 10.1016/j.foohum.2025.100629 | |
614. | Mengmeng Wang, Li Zheng, Fan Sun, Qingdan Ye, Pei Liang, Kun Pang, Zihong Ye, Yufeng Wang, Revolutionizing Escherichia coli detection in real samples with digital SERS aptamer sensor technology, 2025, 339, 13861425, 126314, 10.1016/j.saa.2025.126314 | |
615. | Blessing Oteta Simon, Nnabueze Darlington Nnaji, Christian Kosisochukwu Anumudu, Job Chinagorom Aleke, Chiemerie Theresa Ekwueme, Chijioke Christopher Uhegwu, Francis Chukwuebuka Ihenetu, Promiselynda Obioha, Onyinye Victoria Ifedinezi, Precious Somtochukwu Ezechukwu, Helen Onyeaka, Microbiome-Based Interventions for Food Safety and Environmental Health, 2025, 15, 2076-3417, 5219, 10.3390/app15095219 | |
616. | Ádám Kerek, Ábel Szabó, Ákos Jerzsele, Antimicrobial Susceptibility Profiles of Escherichia coli Isolates from Clinical Cases of Ducks in Hungary Between 2022 and 2023, 2025, 14, 2079-6382, 491, 10.3390/antibiotics14050491 | |
617. | Sarmad Ghazi Al-Shawi, Elham Kadhim Nasser, A.K. Kareem, Muath Suliman, Amar Shankar, Subhashree Ray, Parul Chaudhary, Krishan Kumar Sah, Heyder Abbasi, Hanen Mahmod Hulail, Smartphone-integrated lateral flow assays for food safety assessment: Recent trends and future perspectives, 2025, 0026265X, 113978, 10.1016/j.microc.2025.113978 | |
618. | Handang Widantara, Dian Meididewi Nuraini, Ekky Ilham Romadhona, Sutanti Sutanti, Morsid Andityas, Prevalence Estimates of Anisakis spp. Infection in Fish From Indonesia: A Systematic Review and Meta‐Analysis, 2025, 0140-7775, 10.1111/jfd.14140 | |
619. | Peilin Liu, Chenpeng Shi, Yanwei Wang, Huiming Gao, Shan Wang, Pengfei Ai, Simultaneous quantitative detection of viable Salmonella spp., Shiga toxin-producing Escherichia coli, Bacillus cereus, and Listeria monocytogenes in milk through multiplex real-time PCR, 2025, 00220302, 10.3168/jds.2025-26278 |
Approximate onset time to symptoms | Predominant symptoms | Associated organism or toxin |
1–7 h, mean 2–4 h | Nausea, vomiting, retching, diarrhea, abdominal pain, prostration | Staphylococcus aureus and its enterotoxins |
8–16 h (2–4 h if emesis predominant) | Vomiting or diarrhea, depending on whether diarrheic or emetic toxin present; abdominal cramps; nausea | Bacillus cereus (emetic toxin) |
12–48 h | Nausea, vomiting, watery non-bloody diarrhea, dehydration | Norovirus |
2–36 h (mean 6–12 h) | Abdominal cramps, diarrhea, putrefactive diarrhea (Cl. perfringens), sometimes nausea and vomiting | Clostridium perfringens |
6–96 h (usually 1–3 days) | Fever, abdominal cramps, diarrhea, vomiting, headache | Salmonella spp., Shigella spp., E. coli |
6 h to 5 days | Abdominal cramps, diarrhea, vomiting, fever, malaise, nausea, headache, dehydration | Vibrio cholearae (O1 and non-O1), Vibrio parahaemolyticus |
1–10 (median 3–4) days | Diarrhea (often bloody), abdominal pain, nausea, vomiting, malaise, fever (uncommon with E. coli O157:H7) | Enterohaemorrhagic E. coli, Campylobacter spp. |
3–5 days | Fever, vomiting, watery non-inflammatory diarrhea | Rotavirus, Astrovirus, enteric Adenovirus |
3–7 days | Fever, diarrhea, abdominal pain | Yersinia enterocolitica |
1 to several weeks | Abdominal pain, diarrhea, constipation, headache, drowsiness, ulcers, variable—often asymptomatic | Entamoeda histolytica |
3–6 months | Nervousness, insomnia, hunger pains, anorexia, weight loss, abdominal pain, sometimes gastroenteritis | Taenia saginata, Taenia solium |
2 h to 6 days, usually 12–36 h | Vertigo, double or blurred vision, loss or light reflex, difficulty in swallowing, dry mouth, weakness, respiratory paralysis | Clostridium botulinum and its neurotoxins |
4–28 days | Gastroenteritis, fever, oedema around eyes, perspiration, muscular pain, chills, prostration, laboured breathing | Trichinella spiralis |
7–28 days | Malaise, headache, fever, fever, cough, nausea, vomiting, constipation, abdominal pain, chills, rose spots, bloody stools | Salmonella Tympi |
10–13 days | Fever, headache, myalgia, rash | Toxoplasma gondii |
Varying periods | Fever, chills, headache, arthalgia, prostration, malaise, swollen lymph nodes and other specific symptoms of disease in question | Listeria monocytogenes, Campylobacter jejuni |
After: [5,6]. |
Pathogen | No of cases | Hospitalizations (%) | Deaths (%) |
Campylobacter spp. | 6,309 | 1,065 (17) | 11 (0.2) |
Listeria spp. | 116 | 111 (96) | 15 (12.9) |
Salmonella spp. | 7,728 | 2,074 (27) | 32 (0.4) |
Shigella spp. | 2,688 | 619 (23) | 1 (0.0) |
Shiga toxin-producing Escherichia coli O157 | 463 | 180 (39) | 3 (0.6) |
Shiga toxin-producing Escherichia coli non-O157 | 796 | 126 (16) | 1 (0.1) |
Vibrio spp. | 192 | 47 (24) | 5 (2.6) |
Yersinia spp. | 139 | 37 (27) | 1 (0.7) |
Parasites | 1,676 | 272 (16) | 8 (0.5) |
Total | 20,107 | 4,531 | 77 |
After: [121]. |
Approximate onset time to symptoms | Predominant symptoms | Associated organism or toxin |
1–7 h, mean 2–4 h | Nausea, vomiting, retching, diarrhea, abdominal pain, prostration | Staphylococcus aureus and its enterotoxins |
8–16 h (2–4 h if emesis predominant) | Vomiting or diarrhea, depending on whether diarrheic or emetic toxin present; abdominal cramps; nausea | Bacillus cereus (emetic toxin) |
12–48 h | Nausea, vomiting, watery non-bloody diarrhea, dehydration | Norovirus |
2–36 h (mean 6–12 h) | Abdominal cramps, diarrhea, putrefactive diarrhea (Cl. perfringens), sometimes nausea and vomiting | Clostridium perfringens |
6–96 h (usually 1–3 days) | Fever, abdominal cramps, diarrhea, vomiting, headache | Salmonella spp., Shigella spp., E. coli |
6 h to 5 days | Abdominal cramps, diarrhea, vomiting, fever, malaise, nausea, headache, dehydration | Vibrio cholearae (O1 and non-O1), Vibrio parahaemolyticus |
1–10 (median 3–4) days | Diarrhea (often bloody), abdominal pain, nausea, vomiting, malaise, fever (uncommon with E. coli O157:H7) | Enterohaemorrhagic E. coli, Campylobacter spp. |
3–5 days | Fever, vomiting, watery non-inflammatory diarrhea | Rotavirus, Astrovirus, enteric Adenovirus |
3–7 days | Fever, diarrhea, abdominal pain | Yersinia enterocolitica |
1 to several weeks | Abdominal pain, diarrhea, constipation, headache, drowsiness, ulcers, variable—often asymptomatic | Entamoeda histolytica |
3–6 months | Nervousness, insomnia, hunger pains, anorexia, weight loss, abdominal pain, sometimes gastroenteritis | Taenia saginata, Taenia solium |
2 h to 6 days, usually 12–36 h | Vertigo, double or blurred vision, loss or light reflex, difficulty in swallowing, dry mouth, weakness, respiratory paralysis | Clostridium botulinum and its neurotoxins |
4–28 days | Gastroenteritis, fever, oedema around eyes, perspiration, muscular pain, chills, prostration, laboured breathing | Trichinella spiralis |
7–28 days | Malaise, headache, fever, fever, cough, nausea, vomiting, constipation, abdominal pain, chills, rose spots, bloody stools | Salmonella Tympi |
10–13 days | Fever, headache, myalgia, rash | Toxoplasma gondii |
Varying periods | Fever, chills, headache, arthalgia, prostration, malaise, swollen lymph nodes and other specific symptoms of disease in question | Listeria monocytogenes, Campylobacter jejuni |
After: [5,6]. |
Pathogen | No of cases | Hospitalizations (%) | Deaths (%) |
Campylobacter spp. | 6,309 | 1,065 (17) | 11 (0.2) |
Listeria spp. | 116 | 111 (96) | 15 (12.9) |
Salmonella spp. | 7,728 | 2,074 (27) | 32 (0.4) |
Shigella spp. | 2,688 | 619 (23) | 1 (0.0) |
Shiga toxin-producing Escherichia coli O157 | 463 | 180 (39) | 3 (0.6) |
Shiga toxin-producing Escherichia coli non-O157 | 796 | 126 (16) | 1 (0.1) |
Vibrio spp. | 192 | 47 (24) | 5 (2.6) |
Yersinia spp. | 139 | 37 (27) | 1 (0.7) |
Parasites | 1,676 | 272 (16) | 8 (0.5) |
Total | 20,107 | 4,531 | 77 |
After: [121]. |