Literature DB >> 36158470

Rare case of compartment syndrome provoked by inhalation of polyurethane agent: A case report.

Jun Ho Choi1, Hyun Myung Oh1, Jae Ha Hwang2, Kwang Seog Kim3, Sam Yong Lee3.   

Abstract

BACKGROUND: The most common causes of compartment syndrome in the lower extremities include lower limb fractures, trauma-induced crushing injuries, severe burns, and non-traumatic factors. However, there have been no reports of compartment syndrome secondary to toxic inhalation. CASE
SUMMARY: A 59-year-old man, who lost consciousness after applying polyurethane-based paint on a water tank, was brought to the emergency room. The initial blood test showed apparent rhabdomyolysis. One day later, pain and swelling in both legs were observed, and the physical examination confirmed the presence of compartment syndrome. Double-incision fasciotomy was performed on both legs. Frequent dressings and negative pressure wound treatment were done on both legs, and skin grafting was performed after healthy granulation tissue had been identified. No other complications were observed after treatment. However, symptoms of peroneal neuropathy, particularly limited ankle dorsiflexion and reduced sensation on the lower extremities, were observed.
CONCLUSION: Workers using polyurethane agents should wear gas masks and be evaluated for compartment syndrome and rhabdomyolysis secondary to toxic inhalation. ©The Author(s) 2022. Published by Baishideng Publishing Group Inc. All rights reserved.

Entities:  

Keywords:  Case report; Compartment syndrome; Hypoxia; Peroneal neuropathies; Polyurethanes; Rhabdomyolysis

Year:  2022        PMID: 36158470      PMCID: PMC9372838          DOI: 10.12998/wjcc.v10.i22.8003

Source DB:  PubMed          Journal:  World J Clin Cases        ISSN: 2307-8960            Impact factor:   1.534


Core Tip: Compartment syndrome secondary to non-traumatic etiology is often diagnostically challenging based solely on history taking and may be misdiagnosed in the absence of comprehensive physical evaluation. Moreover, to date, no study has reported compartment syndrome caused by inhalation toxicity. We report a rare case of compartment syndrome secondary to polyurethane inhalation.

INTRODUCTION

According to Matsen, compartment syndrome occurs when increased pressure within a limited space compromises the circulation and function of tissues within that space[1]. It is a medical emergency, that necessitates immediate intervention, to avoid complications, such as muscle ischemia, neuropathy, and necrosis, which may result in limb amputation[2]. Compartment syndrome is a common complication of lower extremity fractures, trauma-induced crush injuries, severe burns, and some non-traumatic conditions[3]. Compartment syndrome secondary to a non-traumatic etiology is difficult to diagnose based on history taking only, and it may be misdiagnosed, based on an incomplete physical evaluation. Moreover, there have been no studies documenting the development of compartment syndrome secondary to inhalation toxicity. This study reports a rare case of compartment syndrome secondary to polyurethane inhalation.

CASE PRESENTATION

Chief complaints

A 59-year-old man, who lost consciousness after applying polyutherane-based paint to a water tank, was brought to the emergency department.

History of present illness

The patient was found lying prone in the tank one hour after he had entered. He did not wear a mask to protect against the inhalation of harmful chemicals while painting the water tank (a closed space of 32000 L).

History of past illness

The patient denied a history of diseases that could have triggered such a medical condition such as intense physical activities.

Personal and family history

The patient had no previous disease history.

Physical examination

There were no noted signs of trauma in the lower extremities and other regions of the body.

Laboratory examinations

The initial blood test results suggested rhabdomyolysis with an increased serum creatine kinase of 15250 IU/L and myoglobin greater than 20000 IU/L. The blood urea nitrogen and creatinine values remained within the normal range, but the alanine transaminase and aspartate transaminase reached up to 917 and 3765 IU/L, respectively. The electrocardiogram showed sinus tachycardia with nonspecific T wave abnormalities, which indicated an electrolyte imbalance without significant cardiac injuries.

Imaging examinations

No imaging studies were performed.

FINAL DIAGNOSIS

One day after admission, the patient developed pain and edema of the lower extremities, and the physical examination confirmed the presence of compartment syndrome. It is characterized by pain, pallor, paresthesia, pulselessness, and paralysis, which are typically referred to as the 5Ps of compartment syndrome (Figure 1). The intracompartmental pressure in the lower extremities ranged from 100 to 130 mmHg in all fascial compartments.
Figure 1

Clinical photograph showing bilateral lower leg compartment syndrome characterized by tense and painful swelling.

Clinical photograph showing bilateral lower leg compartment syndrome characterized by tense and painful swelling.

TREATMENT

The patient was admitted to the intensive care unit (ICU), and extensive hydration and hyperbaric oxygen therapy were initiated to manage the acute drug intoxication syndrome, accompanied by rhabdomyolysis. No glucocorticoid or dehydration diuretics were administered during the patient’s course in ICU. Bilateral lower extremity fasciotomy was performed on the lateral and medial aspects of the extremities to relieve the pressure in the anterior, lateral, superficial posterior, and deep posterior compartments (Figure 2). The pain, pallor, and paresthesia improved in both lower extremities postoperatively. Frequent dressing changes using betadine-soaked gauze and weekly serial debridement were performed for wound management.
Figure 2

Intraoperative photograph of the medial and lateral aspects of both lower limbs after fasciotomy.

Intraoperative photograph of the medial and lateral aspects of both lower limbs after fasciotomy. One month later, the dressing method was shifted to negative-pressure wound therapy. Growth of healthy granulation tissue within the wound was observed three months later, and meshed split-thickness skin grafting was performed (Figure 3).
Figure 3

Meshed split-thickness skin graft was used to cover the defect area.

Meshed split-thickness skin graft was used to cover the defect area.

OUTCOME AND FOLLOW-UP

The patient showed no other signs of compartment syndrome. However, he developed symptoms of peroneal neuropathy, particularly limited ankle dorsiflexion and sensory loss in areas of the lower extremities innervated by the peroneal nerve. Nerve conduction studies were performed to evaluate the motor and sensory functions of the left and right lower extremities (Table 1). The patient’s symptoms gradually improved, but complete recovery of the nerve functions has not been achieved. Therefore, further physical treatment is required.
Table 1

Electrodiagnostic testing results. Initial test results done right after the fasciotomy suggested that the patient developed both peroneal and tibial neuropathy

Needle electromyography
Initial
After eight months
Right lower limbExtensor digitorumBrevisSpontaneous activityAbnormal activitySilent
MUAPsNo MUAPsNo MUAPs
Abductor hallucisSpontaneous activityAbnormal activityAbnormal activity
MUAPsNo MUAPsNo MUAPs
Tibialis anterior Spontaneous activity-Silent
MUAPs-DIP, normal MUAPs
Peroneus longusSpontaneous activity-Abnormal activity
MUAPs-PIP, normal MUAPs
Gastrocnemius (medial head)Spontaneous activity-Silent
MUAPs-DIP, normal MUAPs
Left lower limbExtensor digitorumbrevisSpontaneous activityAbnormal activitySilent
MUAPsNo MUAPsNo MUAPs
Abductor hallucisSpontaneous activityAbnormal activityAbnormal activity
MUAPsNo MUAPsDIP, normal MUAPs
Tibialis anteriorSpontaneous activity-Abnormal activity
MUAPs-DIP, normal MUAPs
Peroneus longusSpontaneous activity-Silent
MUAPs-PIP, normal MUAPs
Gastrocnemius (medial head)Spontaneous activity-Abnormal activity
MUAPs-DIP, polyphasic MUAPs

MUAP: Motor unit action potential; DIP: Discrete interference pattern; PIP: Partial interference pattern. The full test was not completed due to the wound status. Electromyography done eight months after suggested that the patient developed both incomplete peroneal and tibial neuropathy. Motor unit action potential and conduction study indicated that the left lower limb had some regeneration evidence, but no significant changes were observed compared to the previous test.

Electrodiagnostic testing results. Initial test results done right after the fasciotomy suggested that the patient developed both peroneal and tibial neuropathy MUAP: Motor unit action potential; DIP: Discrete interference pattern; PIP: Partial interference pattern. The full test was not completed due to the wound status. Electromyography done eight months after suggested that the patient developed both incomplete peroneal and tibial neuropathy. Motor unit action potential and conduction study indicated that the left lower limb had some regeneration evidence, but no significant changes were observed compared to the previous test.

DISCUSSION

Polyurethane polymers are highly stable materials that are primarily used in fabrics and paints[4]. Due to its high risk of respiratory toxicity, routine room ventilation or working outside is advised when using polyurethane polymers[5]. Polyurethane inhalation within a closed space without a protective mask possibly resulted in the loss of consciousness and rhabdomyolysis in this patient. Rhabdomyolysis is associated with traumatic and non-traumatic etiologies, including infections, drugs, and toxin inhalation[6]. Carbon monoxide (CO), one of the most common environmental toxins, has reportedly caused various medical conditions, including muscle injury and consequent rhabdomyolysis[7]. In this case, the rhabdomyolysis was attributed to polyurethane inhalation-induced injury, which was similar to that associated with CO intoxication. However, a similar clinical presentation has not been reported in previous studies. The underlying mechanism behind polyurethane-induced muscle injury remains unknown. Melandri et al[8] presented a case of prolonged hypoxia due to opiate overdose, resulting in rhabdomyolysis and myocardial damage. This was similar to the present case in that toxic inhalation induced hypoxia, rhabdomyolysis, and compartment syndrome. Acute compartment syndrome of the extremities most commonly results from traumatic injuries, such as long bone fractures, severe burns, and crush injuries[9]. Additional risk factors include age, sex, and bleeding tendency[10]. It is difficult to diagnose, particularly in patients with a vague history and no identifiable cause. In the present case, the causal relationship between polyurethane inhalation and compartment syndrome was not established. However, other attributable causes were not identified for the patient’s disease. Therefore, toxic inhalation was likely involved in the development of rhabdomyolysis and compartment syndrome[11]. Polyurethane-induced asphyxiation likely induced prolonged hypoxia and consequent muscle injury[12]. The accurate diagnosis and prompt management of acute compartment syndrome are important to avoid permanent neurological and functional injuries of the extremities, fatal necrosis, and even amputation. Eliminating the probable cause by performing an emergency reduction of the long bone fractures, followed by immediate fasciotomy (the only available treatment for compartment syndrome), is indicated in patients suspected of acute compartment syndrome[13,14]. Double-incision fasciotomy is the most frequently used technique because it allows access to all four compartments of the lower extremities[15]. In the present case, an immediate fasciotomy was performed at the time of consultation for surgical intervention. Although nerve injury was not observed intraoperatively, the patient developed peroneal neuropathy later in the course of treatment.

CONCLUSION

Workers, using polyurethane agents in confined spaces, must wear protective gear, including a gas mask. A thorough physical evaluation is essential to avoid a missed diagnosis and to exclude toxic inhalation-induced rhabdomyolysis in patients, presenting with compartment syndrome. Considering other diagnoses and radiological evaluation findings is an appealing option, but the subsequent delay results in unwanted complications. Therefore, rhabdomyolysis and compartment syndrome should be considered in the differential diagnosis, and fasciotomy should be the preferred treatment option in patients with the aforementioned clinical presentation.
  13 in total

1.  Fasciotomy in the treatment of the acute compartment syndrome.

Authors:  G W Sheridan; F A Matsen
Journal:  J Bone Joint Surg Am       Date:  1976-01       Impact factor: 5.284

Review 2.  Acute compartment syndromes.

Authors:  S J Mubarak; A R Hargens
Journal:  Surg Clin North Am       Date:  1983-06       Impact factor: 2.741

3.  Compartment syndrome in children and adolescents.

Authors:  Brian E Grottkau; Howard R Epps; Carla Di Scala
Journal:  J Pediatr Surg       Date:  2005-04       Impact factor: 2.545

4.  Acute compartment syndrome. Who is at risk?

Authors:  M M McQueen; P Gaston; C M Court-Brown
Journal:  J Bone Joint Surg Br       Date:  2000-03

5.  Abnormally increased intramuscular pressure in human legs: comparison of two experimental models.

Authors:  J Styf; P Wiger
Journal:  J Trauma       Date:  1998-07

6.  Diagnosis and management of compartmental syndromes.

Authors:  F A Matsen; R A Winquist; R B Krugmire
Journal:  J Bone Joint Surg Am       Date:  1980-03       Impact factor: 5.284

7.  Does open fasciotomy contribute to morbidity and mortality after acute lower extremity ischemia and revascularization?

Authors:  D S Rush; S B Frame; R M Bell; E E Berg; M D Kerstein; J L Haynes
Journal:  J Vasc Surg       Date:  1989-09       Impact factor: 4.268

Review 8.  The other medical causes of rhabdomyolysis.

Authors:  Ronald C Allison; D Lawrence Bedsole
Journal:  Am J Med Sci       Date:  2003-08       Impact factor: 2.378

9.  Myocardial damage and rhabdomyolysis associated with prolonged hypoxic coma following opiate overdose.

Authors:  R Melandri; G Re; C Lanzarini; C Rapezzi; O Leone; I Zele; G Rocchi
Journal:  J Toxicol Clin Toxicol       Date:  1996

10.  Single and Dual-Incision Fasciotomy of the Lower Leg.

Authors:  Keerat Singh; Jesse E Bible; Hassan R Mir
Journal:  JBJS Essent Surg Tech       Date:  2015-11-11
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