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Indian J Anaesth. 2009 April; 53(2): 214–218.
PMCID: PMC2900109

Bone Cement Implantation Syndrome: A Report of Four Cases

Abstract

Summary

Cardiovascular collapse following use of methylmethacrylate for lower limb surgeries has been reported. However there are no reports of cement reaction following shoulder arthroplasty. We report series of four patients exhibiting cement reaction. Two of our patients had cardiovascular collapse following cement insertion during hip arthroplasty. Severe hemodynamic derangement and transient hypoxemia was observed during cemented arthroplasty of shoulder and knee respectively. Peripheral vasodilatory effects of the cement monomer, fat and marrow embolism and activation of the clotting cascade in the lungs, all contribute to cement reaction. Early and aggressive resuscitation with use of vasopressors, establishment of invasive hemodynamic monitoring and surgical modifications are the key to prevention of catastrophic outcome.

Keywords: Bone cement, Complications, Joint replacement surgeries

Introduction

Methylmethacrylate when used as cementing agent in arthroplasty has been associated with hypotension, hypoxia13 and intraoperative cardiac arrest in 0.6 to 1.0% patients4,5. The possible association between use of methylmethacrylate and cardiac arrest is unproven and more recently the importance of intraoperative fat embolization during cement insertion has been high-lighted2,4,67. Peripheral vasodilatation effect of the cement monomer, fat and marrow embolism, and activation of the clotting cascade in the lungs, all contribute to syndrome complex8,9 called as bone cement implantation syndrome (BCIS).

Hazards of using methylmethacrylate for fixation of components of a total hip arthroplasty1013 and during total knee replacement with the use of devices for intramedullary alignment or with stemmed components have been reported1416.

During review of literature we did not come across cement reaction following shoulder arthroplasty.

We are presenting four case reports of cement reaction in patients exhibiting symptomatology of different severity undergoing cemented arthroplasty. This report provides further clinical evidence of the risks and consequences of fat embolization and strategies to minimize morbidity and mortality.

Case 1

A 70-year-old female presented to the operating room with intertrochanteric fracture right femur for total hip replacement. She had history of occasional dyspnea and hypertension managed with amlodipine 5mg OD. Preoperative biochemical and hematological profile was within acceptable limits. Electrocardiogram was unremarkable and dobutamine stress echocardiogram was negative for provocable ischemia with normal ventricular size, functions and left ventricular ejection fraction of 65%. Surgery was conducted in combined spinal epidural anaesthesia(CSE) in left lateral position. Patient's hemodynamic parameters were stable following CSE.

Liquid methylmethacrylate (20gm) was injected into the medullary canal using cement gun and long stem femoral prosthesis was inserted. Approximately 4 minutes after insertion of the stem the patient had uprolling of eye-balls. Patient's peripheral pulses disappeared and blood pressure was not recordable. ECG monitor showed arrhythmias with electromechanical dissociation. Endotracheal intubation was done and cardiopulmonary resuscitation was started after turning the patient supine. 5ml epinephrine (1:10000) was given intravenous and repeated at regular intervals (total 25ml).

After 25minutes of external cardiac massage, infusion of crystalloid and vasopressors, spontaneous cardiac rhythm and satisfactory blood pressure could be achieved. Patient was on epinephrine (0.2mcg.kg−1 min−1) and norepinephrine (0.3mcg.kg−1 min−1) infusion. An arterial line and subclavian central venous line was inserted. The wound was closed rapidly and patient was transferred to the intensive care unit (ICU).

On arrival to ICU patient was unconscious, orotracheally intubated, pulse 130beats.min−1, BP 90/40 mmHg on epinephrine and norepinephrine infusion and SpO2 97% oxygen on artificial ventilatory support with FiO2 1.0. Vasopressin infusion (0.03 IU.min−1) was added later to maintain mean blood pressure above 65mmHg.

Postoperative ECG was normal and echocardiography showed good L.V. function (LVEF 65%) with no regional wall motion abnormality and mildly raised pulmonary artery systolic pressure. Troponin T test was negative and cardiac enzymes were normal. Patient became conscious after six hours and had to be sedated using midazolam infusion 1mg.hr−1. Urine output decreased after 12 hours and injection frusemide infusion (20mg.hr−1) was started. Serial arterial blood gases after the cardiac arrest showed progressive metabolic acidosis, despite excellent oxygenation. Sodium bicarbonate infusion (20meq.hr−1) was added and increased as per requirement.

After prolonged efforts of resuscitation for 22 hours, patient had pulseless ventricular tachycardia which could not be reverted and she died.

Case 2

A 76-year-old woman presented for total hip replacement of right side. She had previously sustained a right intertrochanteric fracture, which had been repaired with a dynamic hip screw with plate. She had previous history of hypertension and burns with multiple contractures and scars. The preoperative biochemical and hematological profile, electrocardiogram and echocardiogram were within acceptable limits. Right internal jugular vein was cannulated and combined spinal epidural anaesthesia was given. Patient was hemo-dynamically stable with acceptable SpO2 and EtCO2 before starting surgery. Surgery was performed in left lateral position.

No systemic effects were noted after fixation of acetabular component with cement. Four minutes after injection of liquid methylmethacrylate (20gm) into the intramedullary canal with an injection gun and fixation of long stem femoral prosthesis, systolic blood pressure decreased to 40mmHg, patient had bradycardia (heart rate 30/min) with atrial and ventricular ectopics with respiratory arrest. Orotracheal intubation was performed and lungs were ventilated using 100% oxygen after turning patient supine. Atropine 1.2mg and mephentermine 15mg was given intravenously followed by epinephrine in 5mcg increments. Sinus rhythm returned and decreased blood pressure was treated using crystalloids and colloids and norepinephrine infusion (0.2 mcg.kg.−1min−1). ABG analysis revealed metabolic acidosis and after correction of acid base status, patient's spontaneous effort and reflexes came back. In next 30 minutes patient became conscious. When all vital parameters were found normal norepinephrine infusion was tapered off and extubation was done. Patient was transferred to the ICU of observation. Post-operative hematological and biochemical parameters were found to be normal. Subsequently she had smooth recovery and was transferred to the ward next day.

Case 3

A 74-year-old woman with previous history of hypertension presented to the hospital with secondary osteoarthritis of right shoulder and surgeons planned total shoulder replacement. Her preoperative biochemical and hematological profile was within normal limits. Surgery was done under general anaesthesia with tracheal intubation and controlled ventilation. Pulse, ECG, SpO2, EtCO2 were monitored. Patient was kept in sitting position for surgery. After insertion of methylmethacrylate and cemented implant, blood pressure decreased (BP 59/43mmHg), EtCO2 decreased to 4mmHg and SpO2 dropped to 60%. Cardiovascular examination did not reveal any murmur. Patient was turned to the supine position and was successfully resuscitated with 100% oxygen; intravenous administration of fluids, mephentermine (in 10mg increments, i.v., total dose 30mg) and epinephrine 5mcg. Reversal from anaesthesia and postoperative course was uneventful.

Case 4

A 74-year-old woman with no history of medical problems presented to the hospital with secondary osteoarthritis left knee. She was posted for total knee replacement (TKR). Surgery was done under combined spinal epidural anaesthesia in supine position. Tourniquet was used during surgery which took 64 minutes. At the time of deflation of tourniquet, SpO2 decreased to 65%. Blood pressure and pulse remained stable and consciousness was not obtunded. 100% oxygen was administered using anaesthesia machine and it took 4 minutes for the SpO2 to increase above 90%. Postoperatively patient remained confused for 6 hours and required prolonged oxygen therapy for 48 hours. Serial ABG's were normal excepting increased alvelo-arterial oxygen difference.

In all four cases fluid management was done as per perioperative fluid therapy guidelines.

Discussion

Transient hypotension occurs in approximately one-third of patients during cemented hip arthroplasty5,6.

Case 1 had BCIS with fatal outcome 22 hours after initial cardiovascular collapse. This patient was hemodynamically stable although on inotropic support. Postoperative ECG and echocardiogram did not show any change. Metabolic acidosis was promptly corrected. This is in contrary to the documented literature which states that BCIS is a time-limited process17 and healthy hearts can recover within minutes, even from large embolic loads associated with cemented implantation. BCIS is reversible even in elderly, critically ill patients, if their hemodynamic stability is maintained by supportive therapy18. We maintained supportive therapy but could not salvage the patient.

Case 2 also had BCIS with severe hypotension and respiratory arrest. Endotracheal intubation and artificial ventilation was required and because of prompt resuscitation, patient recovered with out any residual sequel.

Case 3 had BCIS during shoulder replacement. She had hypotension but patient recovered immediately due to institution of fluid and vasopressor therapy. In literature search we did not come across any report of BCIS during shoulder replacement.

Case 4 had hypoxemia after knee arthroplasty without any hypotension and bradycardia. This patient required oxygen supplementation (initially 100% and then via venturi mask FiO2 0.5) for 48 hours to maintain SpO2 more than 97%. Presence of tourniquet modified the time of events and limited the vasodilatory consequences of cement insertion, but it could not prevent embolization and BCIS19.

All 4 cases were females. At our centre 65% cases operated for joint replacement surgeries are females. There is more incidence of osteoporosis and osteoar-thritis in females but no relation of gender for occurrence of cement embolism.

Toxic effects of methylmethacrylate were considered the major cause of hemodynamic instability during arthroplasty surgery1,14. However, this hypothesis has not been supported by animal studies. Greater than 30 times the level of methylmethacrylate is required to create hemodynamic changes as seen in humans1,14,20.

Absorbed monomer temporarily lowers blood pressure after insertion of bone cement, there is little evidence indicating that monomer causes severe systemic reactions21. Orsini et al postulated that the pressurizing effect of bone cement or inert bone wax produces high intramedullary pressures1.

Hemodynamic effects of medullary fat embolism, rather than the toxic effects of the cement itself cause BCIS17,22,23. The endogenous cannabinoids, anandamide (ANA) and 2-arachidonylglycerol (2-AG) are reported to be strong vasodilators and play a role in the hypotension associated with BCIS16.

In all cases it was the effect of fat embolization due to cement insertion. Studies have ruled out direct toxic effect of cement monomer1,14,20.

Cement placement results in sealing and prosthesis insertion causes pressurization of intramedullary canal1. High intramedullary pressure (often>300mmHg) forces medullary fat into the blood vessels. This embolic load can cause systemic, life-threatening hypotension1,17,2325, pulmonary hypertension14,17,23,25, increased central venous pressure25, pulmonary edema14, bronchoconstriction14, hypoxemia1,14,23,25,27, decreased EtCO224,27, cardiac dysrhythmia27, cardiogenic shock27, cardiac arrest27, sudden death27, hypothermia27, thrombocytopenia27 etc. Less hemodynamic disturbances are seen in uncemented arthroplasty as lower intramedullary pressures, fewer and smaller emboli are produced17. These evidences support an embolic etiology as the mechanism for cardiac arrest during arthroplasty involving the use of cement2.

Venous embolization can be detected by transesophageal echocardiography (TEE) during cemented total hip arthroplasty20,26. TEE might have been useful in the management, but was not readily available to the operation theatres at the time these cases occurred and is not routinely used at this centre.

Anaesthetic management of the bone implantation syndrome is supportive. Administration of 100% inspired oxygen with control of airway, invasive hemodynamic monitoring, aggressive volume therapy and use of vasopressors is required2,18. Surgical modifications to prevent excessive cement pressurization are paramount in avoiding or minimizing BCIS as complete elimination of the embolic phenomenon is probably impossible2,18,27. Prophylactic use of antihistaminics or steroids for treatment of cement embolism could not be found in the literature search.

To conclude BCIS is a significant cause of morbidity and mortality in orthopedic surgery. High index of suspicion and close monitoring is required at the time of cement insertion for early clinical diagnosis. Surgical modifications, early and aggressive resuscitation with use of vasopressors and invasive haemodynamic monitoring are the key to the prevention of catastrophic outcome.

References

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