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  • Mini Review   
  • Otolaryngol (Sunnyvale), Vol 12(10)
  • DOI: 10.4172/2161-119X.1000486

Otolaryngology Research: Gram-positive Bacterial Infection of the Head and Neck Region

Chee Yong*
Department of Otolaryngology, Dalian Medical University, China
*Corresponding Author: Chee Yong, Department of Otolaryngology, Dalian Medical University, China, Tel: 867420834156, Email: Yongchee@gmail.com

Received: 28-Sep-2022 / Manuscript No. ocr-22-77061 / Editor assigned: 01-Oct-2022 / PreQC No. ocr-22-77061 / Reviewed: 15-Oct-2022 / QC No. ocr-22-77061 / Revised: 22-Oct-2022 / Manuscript No. ocr-22-77061 / Published Date: 31-Oct-2022 DOI: 10.4172/2161-119X.1000486

Abstract

The goal of the study was to better understand head and neck infections caused by Gram-positive bacteria utilising computer tomography (CT) based on mathematical models (electronic health). For the research, a total of 180 clinical patients with head and neck space infections were gathered. The use of a CT/MRI scan was chosen to diagnose the condition. The development of a mathematical model for use in CT imaging followed. By condensing the information, including background knowledge, bacterial culture, source and degree of infection, severe consequences, and other aspects, the cause and treatment effect were examined. The findings demonstrated that the mathematical modelbased CT/MRI imaging can accurately identify the disease and track its progression. Patients with head and neck infections were more likely to be men than women, and older patients were more prevalent than younger patients. 42 patients overall or 23.3% of all patients experienced significant problems. Following respiratory obstruction, pneumonia, pericarditis, orbital infection, and multiple organ failure in terms of frequency was descending mediastinitis. The head and neck region was full of infection-causing agents. Dental infection was the primary contributor, accounting for 137 cases (76.1% of the total) and being the main cause. Odontogenic infections among them included periodontal disease, wisdom tooth pericoronitis, and tooth apical periodontitis. Iatrogenic infections, traumatic foreign bodies, and glandular infections were among additional sources of infection. The submandibular region, together with the masseter space, cheek space, and sublingual space, was the area of the head and neck most frequently affected by illness. Inferior mediastinitis and respiratory obstruction were the two most serious side effects of head and neck infection. Streptococcus viridans, Staphylococcus aureus, and Klebsiella pneumonia were the predominant pathogens grown. In laboratory tests, individuals with serious sequelae had considerably greater WBC and hs-CRP values than patients with a common head and neck infection. The most often prescribed antibiotics in the clinical management of patients with severe problems were Imipenem and ornidazole. To sum up, head and neck space infection is a dangerous infectious condition that may be life-threatening and calls for prompt and efficient medical care.

Keywords

Head and neck space infection; Risk factors; E-health; Mathematical model; Gram infection; Otolaryngology

Introduction

Illness of the possible facial space of the head and neck, which is a frequent clinical infection, is referred to as "head and neck space infection" particularly. The head and neck contain unique tissue structures including tonsils and salivary glands as well as the start of the digestive and respiratory systems, which are connected to the outside world through the mouth and nose. Microorganisms can thrive and reproduce in these tissues and organs because of the proper humidity and temperature conditions. The microorganisms in the head and neck often maintain a dynamic equilibrium with the body. Ecological problems will become endogenous or exogenous when the balance is upset. In oral and maxillofacial surgery, a head and neck area infection is a frequent emergency. If the infection is not treated quickly, it can spread to various areas of the head and neck and result in a number of potentially fatal consequences, including descending necrotizing mediastinitis and respiratory obstruction [1].

The head and neck have numerous comparable facial areas that are cellulite-filled and serve as a conduit for the development of infection. When bacteria enter one gap, they may travel down these pathways to other gaps that are related to it, causing multiple gap infections and worse symptoms. However, the respiratory tract will be compressed and pushed by the infection as it travels to the anterior tracheal space, parapharyngeal space, and posterior pharyngeal space, leading to varying degrees of respiratory obstruction. Serious cervical mediastinal abscess will develop if the infection is allowed to continue spreading to the mediastinum [2].

Bacteria can easily enter the blood circulation system through the valve-less veins in the triangle area of the head and neck where there is significant blood flow, spread into the skull, and cause harmful complications such sepsis and brain abscess. Additionally, infections can spread through the dense network of lymph nodes in the head and neck, leading to side effects such lymphangitis. When these consequences are severe, they could be fatal. In order to effectively treat the infection and avoid significant sequelae, clinical evaluation of the severity and prognosis of a head and neck area infection is crucial. The location and extent of head and neck infections are frequently determined clinically using CT (computed tomography) and MRI tests due to the rapid improvement of e-health (electronic health) [3].

Currently, studies have shown that MRI has a high sensitivity, specificity, and accuracy in the early detection of lumbar space infection. Both the morphological changes of each component in the spinal canal and the pathological characteristics of lumbar intervertebral space infection can be precisely evaluated, providing a strong foundation for therapeutic treatment. Additionally, a mathematical model is developed for use in CT imaging so that the distance between detector units can be determined with less error [4]. However, this model has some limitations in the assessment of complications, making it simple to postpone treatment and have negative effects, including endangering life safety. In conclusion, the study's analysis of head and neck infections began with imaging data. Then, statistical information on clinical data was gathered, and several risk factors for head and neck infections and significant sequelae were compared. Finally, in order to make more specific suggestions for early clinical prevention, judgement treatment, and intervention, the impact of pertinent clinical parameters on treatment and prognosis was investigated [5].

Materials and Method

Data about the patient was recorded by consulting their medical records. General information about age, gender, pathogenic factors such infection source and bacterial culture findings, imaging tests, surgical treatment options, and treatment outcomes were all included in the text. White blood cell count, high-sensitivity C-reactive protein, procalcitonin, blood sugar, and other tests were performed in the lab. Depending on whether there were difficulties, the patients were split into two groups: group A consisted of those without complications, while group B was made up of those who had complications [6]. The efficacy evaluation was split into three sections to aid in research and statistics: Recovery I. Manifestations: The patient's body temperature was normal without any symptoms and symptoms including swelling of the soft tissues in the head and neck entirely or almost completely disappeared. II. Improvement. Symptoms: Although signs like swelling, redness, and soreness in the soft tissues of the head and neck had mostly vanished, there was still a slight discomfort and a trace of discharge. Third: Failure Symptoms: The swelling, redness, and pain in the soft tissues of the head and neck had not changed appreciably, nor had the lesion's inflammatory area shrunk or even enlarged [7].

180 head and neck space infections in total were chosen for this investigation. The sickness was more contagious among the elderly. The primary cause is the older patients' decreased autoimmune function, which is frequently accompanied by systemic illnesses including diabetes, hypertension, and rheumatism. According to studies, young individuals and old people have various types of harmful germs. Elderly people are more likely to develop multi-space infections of the head and neck due to increased antibiotic resistance brought on by the widespread use of antibiotics [8]. Studies already conducted have demonstrated that the key to a disease's prognosis and therapy is an early diagnosis. In this study, CT was a mandatory examination for all patients and played a critical role in the diagnosis of infection and the location of abscess. Compared to MRI, enhanced CT imaging based on the mathematical model has received widespread recognition for its performance in the diagnosis of head and neck infection.

The head and neck space infection was primarily seen in the enhanced CT based on the development of the mathematical model as soft tissue swelling or honeycomb soft tissue shadows, blurred edges, local empyema, irregular gas shadows between the tissue, and narrowed airway due to compression, among other symptoms. With great accuracy, the imaging error value was minimal [9]. The most common symptoms of head and neck area infections on enhanced CT include soft tissue edoema, sometimes known as honeycomb soft tissue shadows, blurring margins, local empyema, shadows of erratic gas between tissues, and airway compression and narrowing. An enhanced CT scan can detect abscesses with poor drainage and determine whether additional surgical debridement and drainage are necessary. This scan is crucial for disease surveillance. As a result, the patients in this study required further CT scans following surgical therapy.

There are numerous possible causes of head and neck infections.Patients admitted to otolaryngology, for instance, are typically pharyngeal in origin, while those admitted to oral and maxillofacial surgery are typically odontogenic in origin. The source of the infection was statistically summarised in this study. The majority of patients had pharyngeal and odontogenic infections, with a proportion of dental infections as high as 76.1%. Multiple places can be affected by head and neck space infections, but 125 cases0or 69.4%-of them included the submandibular space, which was consistent (2019) [10]. In Heim's study, the mandible was the site of around 90% of the lesions caused by an odontogenic space infection. The outcomes of pathogen cultures performed on patients with head and neck infections have changed as a result of the increased use of antibiotics. Another significant obstacle to the use of antibiotics is drug-resistant microorganisms. The frequency of head and neck space infections gradually declines with the use of antibiotics, but a small number of cases still involve substantial difficulties in diagnosis and treatment, such as mediastinal infection and respiratory tract obstruction, 42 significant complications-or 23.3%-of the 180 individuals with head and neck infections included in this study.

Early action is therefore necessary in the management of head and neck area infections in order to decrease the likelihood of consequences [11]. In 42 patients who had severe head and neck infections, pulmonary obstruction and descending mediastinal infection were the most frequent diagnoses; cardiac arrest and shock were less frequent. A total of 34 strains, primarily the aerobic Klebsiella pneumonia and Streptococcus viridans, were cultivated from 42 patients with severe sequelae. Since there were so many highly infected specimens and the bacteria were actively reproducing, it's possible that the 42 patients with severe sequelae had a greater detection rate of harmful bacteria than individuals with common head and neck infections. The aerobic Klebsiella pneumonia was the most frequently found. Monitoring of the two indices, WBC and hs-CRP, was the main focus of this investigation. It was discovered that individuals with severe problems had significantly higher WBC and hs-CRP values than normal patients. More severe symptoms were suggested by higher levels of WBC and hs-CRP, showing that these two markers can be used as observational indicators to assess the patient's state [12].

Conclusion

An acute infection that is particularly prevalent is head and neck space infection. The most frequent significant side effects include respiratory obstruction and descending mediastinal infection. Elderly people who have common ailments like diabetes are more susceptible to the illness. Odontogenic infection, which frequently affects the submandibular space, is the leading cause of infection in the head and neck region. The keys to increasing the cure rate are prompt incision and drainage procedures, prudent antibiotic use, prompt primary lesion therapy, and symptomatic treatment. The keys to preventing head and neck space infections and their significant sequelae are strengthening oral health education, prompt treatment of tooth-related disorders, and aggressive treatment of basic conditions including diabetes and hypertension. However, it's important to recognise that the study has several limitations. The results will have less power because of the limited sample size and uneven numbers between the two groups.Therefore, in order to increase the reliability of the results, a larger sample size is required in the follow-up.

Conflict of Interest

None

Acknowledgments

None

References

  1. Russell MD, Russell MS (2018) Urgent Infections of the Head and Neck. Med Clin North Am 102:1109-1120.
  2. Google Scholar, Crossref, Indexed at

  3. Heim N, Faron A, Wiedemeyer V, Reich R, Martini M et al (2017) Microbiology and antibiotic sensitivity of head and neck space infections of odontogenic origin. Differences in inpatient and outpatient management. J Craniomaxillofac Surg 45:1731-1735.
  4. Google Scholar, Crossref, Indexed at

  5. Jayagandhi S, Cheruvu SC, Manimaran V, Mohanty S (2019) Deep Neck Space Infection. J Otolaryngol Head Neck Surg 71:923-926.
  6. Google Scholar, Indexed at

  7. Heim N, Warwas FB, Wiedemeyer V, Wilms CT, Reich RH et al (2019) Martini The role of immediate versus secondary removal of the odontogenic focus in treatment of deep head and neck space infections. Clin Oral Investig, 23:2921-2927.
  8. Google Scholar, Crossref, Indexed at

  9. Tapiovaara L, Bäck L, Aro K (2017) Comparison of intubation and tracheotomy in patients with deep neck infection. Eur Arch Otorhinolaryngol, 274:3767-3772.
  10. Google Scholar, Crossref, Indexed at

  11. Lin S, Melki S, Lisgaris MV, Ahadizadeh EN, Zender CA (2017) Post-operative MRSA infections in head and neck surgery. Am J Otolaryngol 38:417-421.
  12. Google Scholar, Crossref, Indexed at

  13. Saginur R, Odell PF, Poliquin JF (1988) Antibiotic prophylaxis in head and neck cancer surgery. J Otolaryngol 17:78-80.
  14. Google Scholar, Crossref, Indexed at

  15. Warnakulasuriya S (2009) Global epidemiology of oral and oropharyngeal cancer.Oral Oncology. 45:309-316.
  16. Google Scholar, Crossref, Indexed at

  17. Bose P, Brockton NT, Dort JC (2013) Head and neck cancer: from anatomy to biology. Int J Can 133:2013-2023.
  18. Google Scholar, Crossref, Indexed at

  19. Joseph AW, Souza GD (2012) Epidemiology of human papillomavirus-related head and neck cancer. Otolaryngol Cli No Am 45:739-764.
  20. Google Scholar, Crossref, Indexed at

  21. Nichols AC, Yoo J, Palma DA (2012) frequent mutations in TP53 and CDKN2A found by next-generation sequencing of head and neck cancer cell lines. Arc Otolaryngol 138:732-739.
  22. Google Scholar, Crossref, Indexed at

  23. Lucs AV, Saltman B, Chung CH, Steinberg BM, Schwartz DL et al (2013) Opportunities and challenges facing biomarker development for personalized head and neck cancer treatment. Head and Neck. 35:294-306.
  24. Google Scholar, Crossref, Indexed at

Citation: Yong C (2022) Otolaryngology Research: Gram-positive Bacterial Infection of the Head and Neck Region. Otolaryngol (Sunnyvale) 12: 486. DOI: 10.4172/2161-119X.1000486

Copyright: © 2022 Yong C. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.

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