Salmonella Muenchen

The paper should examine the influences, effects, and outcomes of a vaccine, an antimicrobial, or a disease caused by a microorganism. The paper must incorporate research, data, and information from the CDC, WHO, and literary sources. A minimum of five credible references must be utilized in the paper. Each student must research and report on a different vaccine, antimicrobial, or disease. The paper must be typed with 1” margins, double spacing, and a 12-point Times Roman font. The paper should also include a reference list.
The American Psychological Association format must also be utilized for the paper. The paper should be between five and seven pages in length (not including the cover page, abstract, references, exhibits, etc.)

ANSWER

The Influences, Effects, and Outcomes of Salmonella Muenchen

Introduction

Salmonella Muenchen is a rod-shaped, flagellated, facultative anaerobic bacterium. Salmonella enterica serovar Muenchen is a subtype of Salmonella enterica, the primary host of which is chickens. After the identification of Salmonella Muenchen, it has been found in many countries worldwide. This paper will discuss the influences, effects, and outcomes of Salmonella Muenchen on humans and the environment. Salmonella enterica serovar Muenchen is a zoonotic pathogen that can infect animals and humans (Dyda, Nguyen, Chughtai, and MacIntyre, 2020). The main reservoir of Salmonella Muenchen has been shown to cause human salmonellosis, an infection of the gastrointestinal tract that can lead to fever, vomiting, and diarrhea. In severe cases, it can lead to death. Salmonella Muenchen has been shown to have several different effects on the environment. These include contamination of soil and water and causing death in wild birds and other animals.

The Influences of Salmonella Muenchen

According to WHO, an outbreak of a disease entails the existence of circumstances of illness excessively of what would generally be seen in a distinct community, season, and geographic area. Outbreaks are seen through infectious causes that directly spread from one individual to another, from contact with the animal reservoir, and environmental causes. Early reporting and detecting such events significantly reduce an emerging disease’s health and economic and social impact.

More than 2,500 serovars of non-typhoidal are considered probable foodborne pathogens. Salmonella entrica serovar Muenchen is among the top serovars that lead to causing salmonellosis in human beings (Yin et al., 2022). According to CDC, Salmonella Muenchen accounts for about two percent of Salmonellosis cases within the U.S. The serovar in human beings was reported in the 1960s, with multiple outbreaks being reported by the CDC over the decades.

The first multistate outbreak of Salmonella Muenchen infection was linked to raw alfalfa sprouted in Wisconsin (Centers for Disease Control and Prevention). More than 157 outbreak-related illnesses were recognized in seven states that sprouted from alfalfa. Collaborative investigation efforts of local, state, and federal regulatory and public health officials indicated that alfalfa sprouted from many infected seeds, probably leading to the outbreak. Considerably, sprouts are known to lead to foodborne outbreaks and illness. Another multistate outbreak was linked to unpasteurized orange juice and marijuana use. For instance, unpasteurized juice was a transmission vehicle in atleast 15 outbreaks in the U.S (Salomão, 2018). The orange juice inhibited bacterial growth, but the outbreaks illustrated otherwise.

In 2016, the CDC stated that there were 13 people from four different states: Missouri, Kansas, and Pennsylvania, were infected with the Salmonella Muenchen strain (Krug et al., 2020). Antimicrobial resistance to the number of classes of antimicrobials, such as expanded spectrum cephalosporin, has also increased and is linked with dairy products. Antimicrobial resistance, such as Salmonella Muenchen, has played a major role in antimicrobial resistance ecology and have significant progress in clinical disease. As non-typhoidal salmonellosis, Salmonella can be isolated from environmental sources, food, humans, and animals, with all the isolates being considered potentially pathogenic.

Effects of Salmonella Muenchen

Salmonella Muenchen causes significant mortality and morbidity, with annual statistics indicating a million cases of enteric fever and gastroenteritis. In the United States, more than 800,000 to 4 million salmonella infections lead to about 500 deaths annually. Salmonella Muenchen is a rarely isolated serotype that accounts for about 1.6 percent of human Salmonella.

Salmonella infections are usually presented with diarrhea, fever, and abdominal cramping. The main victims of salmonella infections are the immune-compromised, elderly, and young children. Chapple et al., (2017) demonstrate a case with an unusual representation of Salmonella Muenchen. The case report shows the association of salmonella Muenchen serovar with myocarditis and rhabdomyolysis. Rhabdomyolysis is a severe medical condition that can result in fatal and permanent disability. At the same time, myocarditis is heart muscle inflammation that can lead to reduced ability of the heart to pump blood. The case shows how Salmonella Muenchen has the capacity of presenting in a range of individuals with varying complications that extend more than the gastrointestinal symptoms.

Salmonella Muenchen is a bacteria that can cause severe illness in humans and animals. The most common symptoms of infection include fever, diarrhea, and vomiting. The infection can sometimes lead to more serious complications, such as dehydration, sepsis, and death. Humans can contract Salmonella Muenchen through contact with contaminated food or water. This can happen if the food or water is tainted with an ill animal’s feces. People can also become infected by handling infected animals or their feces. Animals can also be infected with Salmonella Muenchen. The bacteria can spread through the animal’s environment, such as its food and water.

The human gastrointestinal microbiota is a complex microorganism that has gained much attention since it impacts human disease and health. The current insights into the interaction between the host, its microbiota, and Salmonella indicated that it allows them to compete with gut microbiota and inflamed intestines (Bennett, Dolin, and Blaser, 2019). This means that the genes can be horizontally transferred between the microbial communities and pathogens, which leads to changes in bacterial behavior and structure. The interplay between the pathogens and microbial communities can result in high risks to human health. Salmonella infection results in changes in gut microbiota composition, certain gut bacterial harvest molecules that act as signals or nutrients to aid in limiting or promoting salmonella growth.

Outcomes of Salmonella Muenchen

Salmonella entrica is considered the leading cause of foodborne infections in developing and industrialized countries. The bacterial species consists of highly diverse species that are more than two thousand six hundred antigenically-distinct serovars that can lead to varying clinical manifestations in a broad range of hosts (Bennett, Dolin, and Blaser, 2019). Human infection results in varying clinical outcomes, ranging from acute self-limited enter colitis, asymptomatic infection, bloodstream infection, and invasive systemic salmonellosis to other life-threatening conditions such as typhoid fever and enteric. Salmonella entrica infections are still a leading cause of mortality and morbidity.

There are several different ways in which Salmonella Muenchen can affect its environment. One way is through the contamination of soil and water. This bacteria can contaminate both surface water and groundwater. In addition, it can contaminate food crops grown in contaminated soil. This can lead to the spread of the bacteria to humans and other animals. Another way Salmonella Muenchen can affect its environment is through the death of animals. This bacteria is often transmitted to these animals through contaminated food or water. Once infected, these animals can suffer from a range of symptoms, including fever, vomiting, and diarrhea. In severe cases, death can occur.

The final way in which Salmonella Muenchen can impact its environment is through the development of resistance to antibiotics. This can occur when the bacteria come into contact with antibiotics that are used to treat other infections. Over time, the bacteria can develop a resistance to these antibiotics, making them more difficult to treat. All of these factors combine to make Salmonella Muenchen a significant threat to human and animal health. People must be aware of the risks posed by this bacteria and take steps to avoid coming into contact with it.

Salmonella entrica has developed a number of resistance in the first-line antibiotics in most developing countries. They first resisted chloramphenicol and ampicillin, which resulted in epidemics. Considerably, the human infection of Salmonella Muenchen leads to extreme intestinal inflammation that results in diarrhea. This increases the opportunity for ongoing survival and transmission of the pathogen.

Conclusion

Being non-typhoidal salmonellosis, Salmonella Muenchen moves to pose a global danger to human health, primarily leading to food-producing animals and foodborne illnesses, which are the principal reservoirs for most pathogenic serovars. Salmonella Muenchen is a human and animal pathogen leading to foodborne infection. It leads to clinical manifestations in a broad range of hosts and leads to varying clinical outcomes. Salmonella infection leads to fever, diarrhea, and stomach cramps. The symptoms are usually evident after six to six days once they are infected, lasting between four to seven days. However, some people fail to develop symptoms for several weeks after they are infected. The control of Salmonella Muenchen requires the control of food animals and animal feed due to direct and indirect contact with animals in farm environments, veterinary clinics, and zoological gardens.

References

Bennett, J. E., Dolin, R., & Blaser, M. J. (2019). Mandell, Douglas, and bennett’s principles and practice of infectious diseases E-book. Elsevier Health Sciences.

Centers for Disease Control and Prevention (CDC). (2016). Multistate outbreak of Salmonella infections linked to alfalfa sprouts from one contaminated seed lot (final update).

Chapple, W., Martell, J., Wilson, J. S., & Matsuura, D. T. (2017). A case report of Salmonella Muenchen enteritis causing rhabdomyolysis and myocarditis in a previously healthy 26-year-old man. Hawai’i Journal of Medicine & Public Health, 76(4), 106.

Dyda, A., Nguyen, P. Y., Chughtai, A., & MacIntyre, C. R. (2020). Changing epidemiology of Salmonella outbreaks associated with cucumbers and other fruits and vegetables. Global Biosecurity, 2(1).

Krug, M., Chapin, T., Danyluk, M., Goodrich-Schneider, R., Schneider, K., Harris, L., & Worobo, R. (2020). Outbreaks of Foodborne Disease Associated with Fruit and Vegetable Juices, 1922–2019: FSHN12-04/FS188, rev. 6/2020. EDIS, 2020(5).

Salomão, B. D. C. M. (2018). Pathogens and spoilage microorganisms in fruit juice: an overview. Fruit juices, 291-308.

Yin, Z., Liu, J., Du, B., Ruan, H. H., Huo, Y. X., Du, Y., & Qiao, J. (2020). Whole-genome-based survey for polyphyletic serovars of Salmonella enterica subsp. enterica provides new insights into public health surveillance. International journal of molecular sciences, 21(15), 5226.