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The Journal of International Medical Research logoLink to The Journal of International Medical Research
. 2020 Oct 27;48(10):0300060520963983. doi: 10.1177/0300060520963983

Risk of Clostridium tetani infection in an elderly patient following hemorrhoid ligation

Xiaofei Lai 1, Felycia Fernanda Hosyanto 2, Lei Xu 3,
PMCID: PMC7604989  PMID: 33107774

Abstract

Tetanus after gastrointestinal surgery is an extremely rare but very dangerous disease caused by infection with Clostridium tetani. Tetanus can occur due to bacterial infection during surgery or dressing change, or the bacteria may exist in the patient’s intestines and be discharged with feces. This report describes a 71-year-old woman who developed tetanus 3 days after a hemorrhoidal ligation. Clinicians need to be aware of symptoms of C. tetani infection that might present in patients who have undergone gastrointestinal procedures.

Keywords: Tetanus, hemorrhoid, gastrointestinal surgery, Clostridium tetani, elderly, vaccination

Introduction

Tetanus is common in low- and middle-income countries but rare in high-income countries.1 This preventable disease occurs mostly in the elderly and children because of their low immunity. Neonatal tetanus refers to tetanus that occurs within 28 days of birth. China has carried out neonatal tetanus monitoring but there is a lack of accurate research on the incidence of tetanus in the general population. Tetanus infections usually occur following infection of a wound. However, infections through hemorrhoid surgeries or other gastrointestinal surgeries are rare. The incidence of postoperative tetanus is 0% to 3.5%, most frequently occurring after intra-abdominal surgery, with about one reported case every year in the United States and one case every 7 years in Canada.2 Despite the low number of cases, preventing postoperative tetanus is important because infection can be fatal. Such infections usually develop within 24 hours. In this paper, we present a case of generalized tetanus after hemorrhoid ligation.

Case Report

A 71-year-old woman was admitted to our hospital on 6 October 2019 because of trismus (lockjaw) and dysphagia. Ten days before admission, the patient had undergone hemorrhoid ligation at a local county people’s hospital. In the early morning on the third day after operation, the patient was unable to speak clearly and she had a stiff neck. On the fourth postoperative day, the patient had difficulty opening her mouth. The stomatology department suspected inflammation and administered antibiotics. After 8 hours, the symptoms of the patient worsened and the trismus and spasm gradually spread from the neck to the lower extremities; the patient did not lose consciousness during the course of the disease. The patient was transferred to a higher-level hospital but no obvious abnormality was found by cranial computed tomography scan. With a diagnosis of tetanus being considered, the patient was transferred to our hospital for treatment. On admission, her body temperature was 36.8°C, blood pressure was 154/84 mmHg, pulse rate was 47 beats/minute, and respiratory rate was 22 breaths/minute. Skin wounds were not found except for the surgical wound. The patient was conscious but unable to open her mouth, and she had trismus and limited tongue extension. Cervical stiffness was present, abdominal muscles were slightly tense, and the muscle tension of both upper and lower extremities increased intermittently. Convulsion and seizure were obvious when the muscles of the extremities were touched. A diagnosis of generalized tetanus was made. The patient was sent to the intensive care unit and underwent tracheal intubation. Tetanus antitoxin and human tetanus immunoglobulin were used to neutralize the tetanospasmin, and penicillin and ornidazole were administered to inhibit the proliferation of Clostridium tetani. Other treatments were administered in accordance with the patient’s symptoms. Seventy-eight days after admission, the patient could walk on flat ground for 100 m unaided. She was discharged and continued to strengthen the lower limb muscles and improve function at home. The patient gave verbal informed consent for publication of this case report.

During treatment, the patient developed several complications. She developed repeated pulmonary infection: Staphylococcus aureus and Klebsiella pneumoniae were cultured in sputum, and carbapenem-resistant Acinetobacter baumannii were cultured in bronchoalveolar lavage fluid. Meropenem and other sensitive antibiotics were administered as the antibacterial treatments. She also had a urinary tract infection and dysuria, caused by Proteus mirabilis, for which levofloxacin was prescribed. Anemia and abnormalities of blood coagulation function were diagnosed and were treated by repeated infusion of red blood cells and blood. She developed hypoproteinemia, which was resolved by infusion of human serum albumin and gastric hydrolyzed whey protein, and oral ulcers, which were treated by local application of basic fibroblast growth factor. Finally, because of the long hospitalization and confinement to bed, the patient developed lower limb muscle atrophy and loss of motor ability, as well as left posterior venous thrombosis and double calf tendon vein thrombosis. Although the patient was treated using anticoagulation with low-molecular-weight heparin, this condition was not fully recovered by the time she was discharged.

Discussion

The bacterial species that causes tetanus is Clostridium tetani. Bacteria of the genus Clostridium are gram-positive obligate anaerobes. The spores are widely distributed in the soil and environment. Although the spores cannot reproduce, they disappear after entering the human body and can transform into the reproductive form of C. tetani, which release tetanospasmin and cause disease. Clostridium tetani can enter human body through damaged skin or mucous membranes, especially with contaminants such as rust, soil, and stool. Infection is common in narrow and deep wounds such as those resulting from epidermal wounds, surgical procedures, insect bites, dental infections, compound fractures, chronic sores and infections, and intravenous drug abuse. These wounds are prone to anaerobic conditions that favor growth of C. tetani.

We searched English-language articles from 1964 to 2020 in PubMed for relevant case reports and articles. We used the MeSH keyword “tetanus,” combined with “digestive system surgical procedures,” “surgical procedure operative,” and “hemorrhoid.” All of the relevant articles were reviewed, and their reference lists were examined for other relevant articles. Other articles were obtained and reviewed from these reference lists. We found 19 case reports of tetanus following gastrointestinal procedures.318 Table 1 outlines the findings and case summaries. In a study of 2422 patients with tetanus, 21.9% of patients did not have significant wound invasion, and it has been speculated that C. tetani may also invade the body through small abrasions.19 Tetanus may also occur through co-infection with other bacteria.20 There are 20 cases, including ours, of tetanus obtained after gastrointestinal procedures, although infection can occur after other surgeries, such as functional endoscopic sinus surgery21 or plastic surgery22. The procedures included resection of small intestine (four cases), cholecystectomy (five cases), cholecystectomy with bile duct exploration (two cases), sigmoidoscopic polypectomy (one case), operation for pericecal abscess due to appendix perforation (one case), drainage of perianal abscess (one case), gastrectomy and transverse colectomy (one case), pyloroplasty and oversewing of duodenal ulcer (one case), exploratory laparotomy (one case), and hemorrhoid ligation (three cases). There are two explanations for C. tetani infection after gastrointestinal surgeries: (1) infection can occur during surgery or dressing change, or (2) C. tetani may exist in human and animal intestines20 and be discharged with feces. Wounds are prone to contamination with feces following gastrointestinal surgery. Aerobic and facultative anaerobic bacteria consume local oxygen and provide the anaerobic microenvironment that is conducive to growth and reproduction of C. tetani. Therefore, hemorrhoids or other gastrointestinal surgeries are high-risk procedures for C. tetani infection. Even though it is rare, doctors should be aware of the early clinical signs caused by C. tetani infection in the gastrointestinal tract, such as dysphagia, trismus, neck stiffness or pain, and muscle twitch.

Table 1.

Summary of case reports identified in the literature of tetanus following gastrointestinal procedures.

Operation Reference Age (years) and sex Latent time (days) Initial symptoms Definitive Tetanus immunization Outcome Country
Resection of small intestine (n = 4) Furui et al., 19983 75 M 1 Jerking, limb rigidity Opisthotonus No Alive Japan
Clay et al., 19644 61 M 2 Jerking Opisthotonus NM Alive USA
Mori et al., 20125 84 F 3 Leg rigidity Opisthotonus No Alive Japan
Strypstein et al., 20196 79 F 2 Neck stiffness, trismus Opisthotonus, trismus NM Alive Belgium
Cholecystectomy (n = 5) Crokaert et al., 19847 44 NM 6 Neck and face pain, stiffness Opisthotonus NM NM Belgium
Parker et al., 19848 47 F 10 NM Trismus Uncertain Alive UK
Parker et al., 19848 59 F 17 Spastic gait NM NM Dead UK
O’Riordain et al., 19919 46 M 11 Abdominal spasm, pain, fever, mild trismus Trismus No Dead Ireland
Mayall et al., 199810 68 M NM NM NM NM Dead Australia
Cholecystectomy with bile duct exploration (n = 2) Lennard et al., 198411 49 F 12 Subcostal pain, abdominal distension Opisthotonus No Alive UK
Lennard et al., 198411 66 F 16 Abdominal pain Trismus No Alive UK
Sigmoidoscopicpolypectomy (n = 1) Segel et al., 196912 55 F 10 Jerking Trismus No Alive South Africa
Operation for pericecal abscess due to perforation of the appendix (n = 1) Federmann et al., 198913 57 M 12 Uncertain Uncertain Uncertain Alive German
Drainage of perianal abscess (n = 1) Myers et al., 198414 62 M 10 Limb rigidity, restlessness Trismus No Alive USA
Gastrectomy, traverse colectomy (n = 1) Fleshner et al., 198815 48 M 21 Abdominal pain, fever Trismus, opisthotonus No Alive USA
Pyloroplasty and oversewing of duodenal ulcer (n = 1) Katz et al., 200016 77 F 8 Painless trismus Trismus Uncertain Alive Canada
Exploratory laparotomy (n = 1) Parker et al., 19848 65 F 12 NM NM No Dead UK
Hemorrhoids ligation (n = 3) Murphy et al., 197817 33 F 7 Dysphagia, neck pain Trismus No Alive UK
Kasher et al., 200718 63 F 4 Dysphagia Trismus No Alive USA
Present case, 2019 71 F 3 Trismus, dysphagia Trismus, opisthotonus No Alive China

NM: Not mentioned.

Tetanus is a deadly yet vaccine-preventable disease, and it is more common in elderly patients than in younger individuals. According to Table 1, all patients were adults and 58% were elderly; 4 of the 18 patients with known outcomes died as a result of C. tetani infection. The lower immunity of older adults might explain the more severe symptoms. In China, the tetanus vaccine was licensed in 1982.23 Even before the vaccine was licensed in China, immunization targeting children was planned in the 1970s, although it was never carried out. Almost all patients with tetanus in the United States were born in 1940 or earlier because the tetanus vaccine used in the United States was approved in 1940.24 A similar situation exists in the United Kingdom, where all patients with tetanus were born before the tetanus vaccine was approved in 1961.25 All patients from Japan and Canada who developed postoperative tetanus were born before vaccines were licensed in 196826 and 194027 in those countries, respectively. Many adults who were born before vaccine licensing did not receive the tetanus vaccine; consequently, they were at higher risk of developing tetanus. The tetanus vaccine can be monovalent, such as tetanus toxoid; combined with diphtheria toxoid or low-dose diphtheria toxoid as a bivalent vaccine; or in a trivalent combination with diphtheria and pertussis toxoid,28 such as DTaP in children or Tdap in adolescents and adults.29 Aside from diphtheria and pertussis, some countries have combined tetanus toxoid vaccine with hepatitis B, polio, or Haemophilus influenza type B vaccines. Even though the tetanus vaccine has a good protective effect on young people, the concentration of tetanus antibody declines with age. Therefore, regular boosters for the tetanus vaccine targeting adults should be implemented in China.

Conclusion

The incidence of tetanus after gastrointestinal surgery is rare, but when it occurs, the mortality rate is high. Patients who survive can develop drug-resistant bacterial infections, anemia, hypoproteinemia, and complications such as muscle atrophy, which can seriously affect quality of life. Therefore, surgeons need to pay attention to patients with tetanus-related symptoms after gastrointestinal procedures so that they can diagnose the infection and administer appropriate medical treatments early. In addition, we suggest preoperative testing for tetanus antibodies, and preoperative tetanus vaccine and tetanus antitoxin injection to be administered before gastrointestinal surgeries, particularly for the elderly or individuals who have never been vaccinated against tetanus.

Footnotes

Declaration of conflicting interest: The author(s) declared no potential conflicts of interest with respect to the research, authorship, and/or publication of this article.

Funding: The author(s) disclosed receipt of the following financial support for the research, authorship, and/or publication of this article: This work was supported by the grants of Youth Program of National Science Foundation of China (81901582) and Chongqing Municipal Science and Technology Commission (cstc2017jcyjAX0409).

ORCID iDs

Xiaofei Lai https://orcid.org/0000-0002-7230-1617

Lei Xu https://orcid.org/0000-0002-5959-8735

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