scholarly journals A Review on Bacterial Food-Borne Disease

2019 ◽  
Vol 10 (4) ◽  
pp. 3223-3228 ◽  
Author(s):  
Abbas Mayar Hezam ◽  
Ahmed Sabah Al-Jasimme ◽  
Faiza Kadhum Emran

Food-borne illness are diseases happened because eating polluted water or nutriment containing microbes or their toxins. This paper reviews previous studies of foodborne illness, particularly foodborne illness happened because bacteria which represent 66% of problems. Vibrosis, Shigellosis, Bacillosis, Listerosis Salmonellosis, Botulism, and staphylococcal food poisoning are the main dietary disease happened because of bacteria. Bacteria in nutrition will increase beneath optimal cases and secrete poison in nutrition. After swallowing, poisons were absorbed by Intestinal epithelial lining that make natural harm to tissues. In certain cases, poisons are transmitted to tissues or devices like the central nervous system, kidney nor liver where they can cause damage. Foods carried diseases are divided into two collections which are food infection and poisoning. Food infection is happened because eating food, including fertile pathogens that secrete toxins in the intestine only, while poisoning is acquired by eating poison formed by pathogens (secrete toxins directly in the food). The most clinical sign of food poisoning are abdominal cramps, diarrhea, vomiting, nausea, and headache. Diagnosis of foodborne illnesses carried by a patient’s record and the symptoms. Protection of foodborne diseases can be depended on food safety control during the production, processing, and distribution, secession of uncooked from cooked food, cooking carefully, and save food at a safe temperature.

2010 ◽  
Vol 78 (10) ◽  
pp. 4286-4293 ◽  
Author(s):  
Jihong Li ◽  
Bruce A. McClane

ABSTRACT Clostridium perfringens type A food poisoning is the second most commonly identified bacterial food-borne illness. Sporulation contributes to this disease in two ways: (i) most food-poisoning strains form exceptionally resistant spores to facilitate their survival of food-associated stresses, and (ii) the enterotoxin (CPE) responsible for the symptoms of this food poisoning is synthesized only during sporulation. In Bacillus subtilis, four alternative sigma factors mediate sporulation. The same four sigma factors are encoded by C. perfringens genomes, and two (SigE and SigK) have previously been shown to be necessary for sporulation and CPE production by SM101, a transformable derivative of a C. perfringens food-poisoning strain (K. H. Harry, R. Zhou, L. Kroos, and S. B. Melville, J. Bacteriol. 2009, 191:2728-2742). However, the importance of SigF and SigG for C. perfringens sporulation or CPE production had not yet been assessed. In the current study, after confirming that sporulating wild-type SM101 cultures produce SigF (from a tricistronic operon) and SigG, we prepared isogenic sigF- or sigG-null mutants. Whereas SM101 formed heat-resistant, phase-refractile spores, spore formation was blocked in the sigF- and sigG-null mutants. Complementation fully restored sporulation by both mutants. By use of these mutants and complementing strains, CPE production was shown to be SigF dependent but SigG independent. This finding apparently involved regulation of the production of SigE and SigK, which Harry et al. showed to be necessary for CPE synthesis, by SigF. By combining these findings with those previous results, it is now apparent that all four alternative sigma factors are necessary for C. perfringens sporulation, but only SigE, SigF, and SigK are needed for CPE synthesis.


2003 ◽  
Vol 57 (10) ◽  
pp. 479-485
Author(s):  
Suzana Dimitrijevic-Brankovic

Food poisoning is the one of the main health hazards even today. More than 200 known diseases are transmitted through food. The causes of foodborne illness include viruses, bacteria, parasites, toxins, metals, and prions and the symptoms of foodborne illness range from mild gastroenteritis to life-threatening neurological, hepatic and renal syndromes.The prevention of food poisonings represents very serious task for food manufacturers. Beside food control according to the concept "from the farm to the table" there is increased need for the development of new technology for longer shelf lifes of food. Food fermented by lactic acid bacteria (LAB) and traditionally considered to be safe. There are many substances produced by LAB that affect the shelf life of fermented food, by active suppression of poisoning microorganisms growth. Because of that, the LAB is recently considered as bioprotective agents that have important role in food safety.


1998 ◽  
Vol 61 (4) ◽  
pp. 419-424 ◽  
Author(s):  
CHRISTOPH CAVADINI ◽  
CHRISTIAN HERTEL ◽  
WALTER P. HAMMES

The potential of lysostaphin-producing strains of Lactobacillus curvatus (Lys+) to prevent food-borne illness by Staphylococcus aureus was investigated under practical conditions. A response surface model was developed to estimate the effect of pH, temperature, and salt concentration on the lysostaphin activity. The model was applied to fermenting sausages, and a 90% reduction of lysostaphin activity at ripening was predicted. The residual activity was sufficiently high to reduce staphylococcal counts by 104 to 105 CFU/g within 2 to 3 days to below the level of detection. These results were obtained in pilot scale experiments with L. curvatus (Lys+) as a starter culture and S. aureus as well as Staphylococcus carnosus as model contaminants. The applicability of L. curvatus (Lys+) as a protective culture was studied in a mayonnaise-based meat salad. Upon incubation at 25°C the staphylococci were rapidly killed within 24 h, whereas in the presence of the isogenic Lys− strain the staphylococci grew up to numbers of 107 CFU/g.


2001 ◽  
Vol 64 (6) ◽  
pp. 899-902 ◽  
Author(s):  
WON-CHANG LEE ◽  
MYEONG-JIN LEE ◽  
JIN-SUK KIM ◽  
SOON-YOUNG PARK

The average prevalence of reported foodborne illness from 1981 to 1995 was 2.44 per 100,000 population in Korea, and 28.01 in Japan. The mean case fatality rate in Korea was 0.74% and in Japan, 0.03%. When both prevalence and case fatality rates in Korea and Japan were compared during the same period, the prevalence in Japan was much higher than that in Korea. However, the case fatality rate of patients in Korea was much higher than that in Japan. The distribution of monthly and seasonal patterns of foodborne illness outbreaks strongly indicate the outbreaks may be associated with climatic conditions, frequencies of national holidays, and vacation seasons. Comparison study indicates that the foodborne illness outbreaks in Korea most frequently involved homemade foods (47% of the total cases); in Japan, restaurants accounted for 31.3%. Food-borne illness cases of bacterial origin in Korea were 59.3% of the total and included Salmonella spp. (20.7%), Vibrio (17.4%), Staphylococcus (9.7%), pathogenic Escherichia coli (2.4%), and other species (9.1%); in Japan, 72.8% of the total cases and the majority of the bacterial foodborne illness was caused by Vibrio (32.3%), Staphylococcus (15.9%), Salmonella (14.2%), pathogenic E. coli (3.0%), and other species (7.2%). In conclusion, the outbreaks of foodborne illness in Korea and Japan may be mainly caused by improper food handling, and their occurrences may be differentiated according to food sources.


2021 ◽  
Vol 11 (8) ◽  
pp. 38-43
Author(s):  
Kinga Ruszel ◽  
Robert Dubel ◽  
Wiktoria Chodun ◽  
Barbara Nieradko-Iwanicka

Salmonella infection causes morbidity and mortality throughout the world with the host immune response varying depending on whether the infection is acute and limited, or systemic and chronic. Global Salmonella infection, especially in developing countries, is a health and economic burden. These pathogen are responsible for millions of cases of food-borne illness each year, with substantial costs measured in hospitalizations and lost productivity. The growing number of bacteria resistant to the antibiotics commonly used to treat infections with this bacterium increases the use of alternative treatments. The species Lactobacillus and Bifidobacterium are the most commonly used probiotics to treat infectious diseases, including antibiotic diarrhea and traveler's diarrhea.It is a Gram-negative, non-spore-forming, rod-shaped and facultative anaerobic bacterium. However, they have the ability to survive inside infected cells. These bacteria cause various clinical forms of disease. The most dangerous sticks of typhoid fever (Salmonella typhi) and paradurium (Salmonella paratyphi) multiply only in the human body and cause a very serious infectious disease - typhoid fever. In turn, non-malignant salmonella, Salmonella bongori and countless serological varieties of Salmonella enterica colonize the digestive tract of many animal species and are pathogenic to humans, causing gastroenteritis, i.e. acute salmonellosis, sometimes classified as food poisoning. All Salmonella infections begin with ingestion with contaminated food or water.


2018 ◽  
Vol 192 ◽  
pp. 03009
Author(s):  
Sumonthip KongtunJanphuk

This research was aim to analyzed the detection and enumeration of the dangerous food borne pathogens in cooked food that causes food poisoning and infectious diseases from the restaurants surround area of King Mongkut’s University of Technology North Bangkok, Bangkok, THAILAND. Pot-stewed pork (Palow-Moo;PL) and Fried basil pork (Kapraw-Moo;PK) from five restaurants were collected and analyzed for food borne pathogens. The Analysis of bacterial contamination in that food by used to the methodology of Microbiology and diagnosis bacteria by Biochemistry methodology. The result were indicated that the cooked food from five restaurants contaminated with bacteria caused the risk of gastrointestinal disease as follows : PL dishes the microorganisms were founded between 1×105 to 3×108 colony/gram, MPN values in the ranges of Escherichia coli were infected < 3 to 64 and MPN values of Staphylococcus aureus < 3 to 43. There were founded Salmonella spp. 5 samples, Pseudomonas aeruginosa 4 samples, Shigella spp. 4 samples, Bacillus cereus 2 samples, Proteus spp. 2 sample and Micrococcus spp. 1 sample. In the PK dished, the total number of bacteria were founded between 5×103 to 2×108colony/gram, MPN values in the range of E.coli and S.aureus were infected < 3 to 39 and < 3 to 28. The results showed that the cooked food from five restaurants are contaminated with bacterial caused food poisoning and the risk of gastrointestinal diarrhea at the different levels.


1993 ◽  
Vol 17 ◽  
pp. 31-35
Author(s):  
E. M. Cooke

AbstractThere are several sources of information on food-borne illness in the United Kingdom. These include laboratory and clinical reports and the results of special studies and surveys.The data are collected, analysed and published, amongst other places, in the Communicable Disease Report and the Public Health Laboratory Service/State Veterinary Service (PHLS/SVS) Salmonella Update. In the latter, animal and human data are brought together. Reported cases of food poisoning represent a small proportion of the total load of disease but are valuable as an indication of trends. The data produced from these sources in relation to salmonellosis, listeriosis, campylobacter and E. coli 0157 infection are described, as are some data about the costs of human salmonellosis. Possible approaches to the reduction of these economically important human diseases are described against a background of the existing advisory and legal structures.


1969 ◽  
Vol 15 (3) ◽  
Author(s):  
Henry Miller

The largest outbreak of food-borne illness in a decade sickened over 1400 people in various parts of the United States in 2008. Originally thought to be caused by tomatoes contaminated with Salmonella saintpaul, an investigation by federal agencies found that Mexican jalapeno peppers and possibly serrano peppers were the culprits.These sorts of outbreaks are not at all rare: A search for ‘food poisoning’ on the website of the US Centers for Disease Control and Prevention (CDC) (on 10 November 2008) yielded more than 5300 hits, and the CDC estimates that each year 76 million cases of food-borne illness occur and more than 300 000 persons are hospitalised and 5000 die. This raises various questions of importance to consumers. Who or what is responsible for the problem? How does such contamination occur, and what can be done to prevent recurrences?Unfortunately, growers of fresh produce cannot protect us 100 per cent of the time. Modern farming operations – especially the larger ones – already employ strict standards and safeguards designed to keep food free of pathogens. And most often they’re highly effective: Americans’ food is not only the least expensive but also the safest, in the history of humankind.The vast majority of food poisoning results from consumers’ improper handling of food – in particular, from inadequately cooking chicken or permitting the juices from raw poultry to contaminate other foods.Because agriculture is an outdoor activity and subject to myriad unpredictable challenges, there are limits to how safe we can make it. If the goal is to make a cultivated field completely safe from microbial contamination, the only definitive solution is to pave it over and build a parking lot on it. But we’d only be trading very rare agricultural mishaps for fender-benders.Nor can we rely on processors to remove the pathogens from food in every case. The 2006 spinach-based outbreak of illness served as a reminder that our faith in processor labels such as ‘triple washed’ and ‘ready to eat’ must be tempered with at least a little scepticism. Processors were quick to proclaim the cleanliness of their own operations and deflect blame toward growers. But all of those in the food chain share responsibility for food safety and quality.In fairness to processors, there is ample evidence to suggest that no amount of washing will rid produce entirely of all pathogens. The reason is that the contamination may occur not on the plant, but in it. Exposure to Salmonella, E. coli or other microorganisms at key stages of the growing process may allow them to be introduced into the plant's vascular system.In the longer term, technology has an important role – or more accurately, it would have if only the organic food advocates and other activists would permit it. The Food and Drug Administration recently added fresh spinach and iceberg lettuce to the short list of foods that companies can irradiate to kill off many dangerous pathogens. (Regulators had already approved irradiation of meat, poultry, spices, oysters, clams and mussels.) Food irradiation is an important, safe and effective tool that has been vastly under-used, largely due to opposition from the organic food lobby. Their resistance is scandalous – and murderous: ‘If even 50% of meat and poultry consumed in the United States were irradiated, the potential impact of food borne disease would be a reduction [of] 900,000 cases and 300 deaths’, according to Michael Osterholm, Director of the Center for Infectious Disease Research at the University of Minnesota.But irradiation is not a panacea. Although it quite effectively kills the bacteria, it does not inactivate the potent toxins secreted by certain bacteria such as Staphylococcus aureus and Clostridium botulinum, and the approved doses are too low to kill most viruses. The toxins can cause serious illness or death even in the absence of live bacteria themselves.There is technology available today that can both inhibit microorganisms’ ability to grow within plant cells and block the effects of the biochemical and structural features that enable bacteria to cause disease. This same technology can be employed to produce antibodies that can be administered to infected patients to neutralise toxins and other harmful molecules and can even be used to produce therapeutic proteins (such as lactoferrin and lysozyme) that are safe and effective treatments for diarrhoea, the primary symptom of food poisoning.But organic producers won’t embrace this triple-threat technology, even if it would keep their customers from food-borne illness. The technology in question is recombinant DNA technology, or gene-splicing (also known as ‘genetic modification’, or GM) – an advance the organic lobby has repeatedly vilified and rejected.For organic marketers and food activists, the irony is more bitter than fresh-picked radicchio. The technology that offers a potent new weapon to assure the safety of foods is the one they’ve fought hardest to forestall and confound.In view of the huge burden of illnesses and deaths caused by bacteria and viruses in food, will the organic lobby rethink their opposition to biotechnology? Will they begin to appreciate the ways in which this technology can save lives and advance their industry? Will they permit science, common sense and decency to trump ideology? When figs can fly.


2021 ◽  
Vol 81 (4) ◽  
pp. 940-953
Author(s):  
A. R. Ishaq ◽  
M. Manzoor ◽  
A. Hussain ◽  
J. Altaf ◽  
S. ur Rehman ◽  
...  

Abstract Nowadays food borne illness is most common in people due to their epidemic nature. These diseases affect the human digestive system through bacteria, viruses and parasites. The agents of illness are transmitted in our body through various types of food items, water and uncooked. Pathogens show drastic changes in immunosuppressant people. This review gives general insights to harmful microbial life. Pakistan is a developed country and because of its improper food management, a lot of gastrointestinal problems are noted in many patients. Bacteria are most common agents to spread diarrhoea, villi infection, constipation and dysenteric disease in human and induce the rejection of organ transplant. Enhancement of their lifestyle, properly cooked food should be used and to overcome the outbreak of the diseases.


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