Long-Term Outcome of Fulminant Myocarditis as Compared with Acute (Nonfulminant) Myocarditis
Robert E. McCarthy, M.D., John P. Boehmer, M.D., Ralph H. Hruban, M.D., Grover M. Hutchins, M.D., Edward K. Kasper, M.D., Joshua M. Hare, M.D., and Kenneth L. Baughman, M.D.
Background Lymphocytic myocarditis causes left ventricular dysfunctionthat may be persistent or reversible. There are no clinicalcriteria that predict which patients will recover ventricularfunction and which cases will progress to dilated cardiomyopathy.We hypothesized that patients with fulminant myocarditis mayhave a better long-term prognosis than those with acute (nonfulminant)myocarditis.
Methods We identified 147 patients considered to have myocarditisaccording to the findings on endomyocardial biopsy and the Dallashistopathological criteria. Fulminant myocarditis was diagnosedon the basis of clinical features at presentation, includingthe presence of severe hemodynamic compromise, rapid onset ofsymptoms, and fever. Patients with acute myocarditis did nothave these features. The incidence of the end point of thisstudy, death or heart transplantation, was ascertained by contactwith the patient or the patient's family or by a search of theNational Death Index. The average period of follow-up was 5.6years.
Results A total of 15 patients met the criteria for fulminantmyocarditis, and 132 met the criteria for acute myocarditis.Among the patients with fulminant myocarditis, 93 percent werealive without having received a heart transplant 11 years afterbiopsy (95 percent confidence interval, 59 to 99 percent), ascompared with only 45 percent of those with acute myocarditis(95 percent confidence interval, 30 to 58 percent; P=0.05 bythe log-rank test). Fulminant myocarditis was an independentpredictor of survival after adjustments were made for age, histopathologicalfindings, and hemodynamic variables. The rate of transplantation-freesurvival did not differ significantly between the patients consideredto have borderline myocarditis and those considered to haveactive myocarditis according to the Dallas histopathologicalcriteria.
Conclusions Fulminant myocarditis is a distinct clinical entitywith an excellent long-term prognosis. Aggressive hemodynamicsupport is warranted for patients with this condition.
Lymphocytic myocarditis remains a poorly characterized disorder.Approximately 10 percent of patients with cardiomyopathy ofrecent onset who undergo endomyocardial biopsy have this condition,which is presumed to be caused by viral infection.1,2 The clinicalcourse of patients with lymphocytic myocarditis varies; somepatients have subclinical disease,3 some present with fulminantdisease, which is frequently fatal,4,5,6 and others have indolentdisease that progresses to dilated cardiomyopathy.7,8
Although a histopathological classification system, referredto as the Dallas criteria, has been widely applied in the diagnosisof myocarditis since 1987,9 whether these criteria alone canbe used to predict outcome in patients with lymphocytic myocarditishas been controversial.10 Currently, there are no clinical criteriathat reliably predict which patients with myocarditis are likelyto recover.
In a study of 35 patients, Lieberman et al. classified myocarditisas either fulminant or acute (nonfulminant) on the basis ofclinicopathological criteria, including the severity of illnessat presentation.11 Paradoxically, the patients with fulminantmyocarditis, though more severely ill at presentation, weremore likely to recover left ventricular function than were thosewith acute myocarditis. Supporting this observation are severalcase reports of patients with fulminant myocarditis whose ventriculardysfunction resolved after aggressive pharmacologic support,mechanical circulatory support, or both.12,13,14,15 Despitethese observations, the long-term outcome of patients with fulminantmyocarditis has not been determined. In a prospective study,we used clinical features to classify patients with myocarditisdiagnosed by biopsy in order to test the hypothesis that patientswith fulminant myocarditis have better long-term survival thanpatients with acute myocarditis.
Methods
Patients
The study was approved by the Joint Committee on Clinical Investigationof Johns Hopkins Hospital. Patients with cardiomyopathy of recentonset (those who had had symptoms for less than 12 months) orunexplained ventricular arrhythmia who underwent endomyocardialbiopsy at Johns Hopkins Hospital between July 1, 1984, and June30, 1997, were eligible to participate. Patients were identifiedthrough a search of the Johns Hopkins pathology data base forall cases of myocarditis diagnosed by endomyocardial biopsy.To be included in this study, patients had to meet the followingcriteria: evidence of "borderline" myocarditis (indicated bylymphocytic infiltration without myocyte necrosis) or "active"myocarditis (indicated by lymphocytic infiltration with myocytenecrosis) on biopsy, according to the Dallas histopathologicalcriteria; absence of any underlying disorder known to be associatedwith myocarditis; and left ventricular dysfunction (definedas an ejection fraction of 40 percent) documented by echocardiography,radionuclide ventriculography, or contrast ventriculography.All the patients were seen by a member of the cardiomyopathyservice at Johns Hopkins Hospital. It has been a universal policyof this hospital to perform endomyocardial biopsy in all patientswith cardiomyopathy of recent onset that is not due to ischemia.Because of concern about the heterogeneity of myocarditis inchildren, we excluded patients younger than 15 years of agefrom the study. Likewise, we excluded eight patients with chronicactive myocarditis, a syndrome that is characterized by thepresence of replacement fibrosis or giant cells in histopathologicalspecimens, which may be a different entity from lymphocyticmyocarditis.11
Clinical Classification
The patients were classified as having fulminant myocarditisor acute myocarditis according to the criteria of Liebermanand colleagues.11 Clinical classification, based on data fromthe medical record, was undertaken by investigators who hadno knowledge of the patients' follow-up status. All patientswith fulminant myocarditis had severe hemodynamic compromiserequiring high doses of vasopressors (5 µg of dopamineor dobutamine per kilogram of body weight per minute) or a leftventricular assist device. In addition, at least two of thefollowing clinical features had to be present for histopathologicallyborderline or active myocarditis to be classified as fulminant:fever, distinct onset of symptoms of heart failure (fatigue,dyspnea on exertion or at rest, or edema that could be datedspecifically to a one-to-two-day period), and a history consistentwith the presence of a viral illness within the two weeks beforehospitalization. The patients with borderline or active myocarditiswere classified as having an acute presentation if they hadan indistinct onset of symptoms of heart failure (symptoms thatcould be dated to a period of weeks to months), were hemodynamicallystable or required only low doses of vasopressors (<5 µgof dopamine or dobutamine per kilogram per minute) to improverenal perfusion, and had no fever.
Endomyocardial Biopsy and Right-Heart Catheterization
Biopsy specimens were taken from the right ventricular septum,with the use of either a modified StanfordCaves bioptome(Scholten Surgical, Redwood City, Calif.) or a disposable bioptome(Maxxim Medical, Athens, Tex.), by way of the right internaljugular vein. At least five specimens were obtained from eachpatient, immediately fixed in 10 percent formalin, embeddedin paraffin, sectioned, stained with hematoxylin and eosin,and reviewed at a minimum of four section levels by one of twocardiac pathologists who used the Dallas criteria to determinewhether myocarditis was present. The reviewing pathologistswere not aware of the clinical characteristics of the patients.
After the biopsy specimens were obtained, the patients underwentright-heart catheterization. A thermodilution SwanGanzcatheter (Baxter Healthcare, Irvine, Calif.) was placed withthe use of fluoroscopy, and right atrial, right ventricular,pulmonary arterial, and pulmonary-capillary wedge pressureswere recorded. Cardiac output, calculated with the use of thethermodilution technique (the average of three measures withless than 10 percent variability), was recorded.
End Point and Follow-Up
The end point of this study was death or cardiac transplantation.The occurrence of death or cardiac transplantation was determinedthrough direct contact with the patient or the family of thepatient, review of the patient's medical record, search of theNational Death Index, or all three. The National Death Indexis a central computerized index of records of death compiledfrom data submitted by the vital-statistics offices of everystate to the National Center for Health Statistics. The reliabilityof the National Death Index as a means of establishing vitalstatus has been validated.16 The negative predictive value ofa search of the National Death Index is higher than 99 percent.17Consequently, patients whom we could not contact and who werenot matched through the search of the National Death Index (7patients with fulminant myocarditis and 41 with acute myocarditis,P=0.25 by Fisher's exact test) were presumed to be alive asof December 31, 1996 (the last date for which data were availablein the index); data on these patients were censored after thisdate.
Statistical Analysis
Between-group analysis of categorical variables was performedwith the two-tailed Fisher's exact test. Student's t-test wasused to analyze continuous variables. Survival curves were generatedaccording to the KaplanMeier method and were comparedwith use of the log-rank statistic. Multivariate analysis wasperformed with the use of the Cox proportional-hazards modelfor censored data. Mean pulmonary-artery pressure and cardiacoutput were analyzed as continuous variables. All analyses weretwo-tailed. All analyses were performed with the use of Statastatistical software (version 4.0, Stata, College Station, Tex.).
Results
Between July 1, 1984, and June 30, 1997, a total of 1757 patientswith cardiomyopathy of recent onset or unexplained ventriculararrhythmia underwent endomyocardial biopsy at the study hospital;252 of these patients had histopathological evidence of myocarditis.Of these 252 patients, 147 had no other condition known to beassociated with myocardial inflammation and thus made up thestudy population. The base-line characteristics of the patientsare shown in Table 1. Table 2 presents the conditions associatedwith myocardial inflammation in the 90 patients at least 15years of age who were excluded from the study (15 patients youngerthan 15 years of age were also excluded).
Table 2. Clinical Reasons for Exclusion from the Study.
Fifteen patients (10 percent) had fulminant myocarditis, andthe remaining 132 had acute myocarditis. Two patients with fulminantmyocarditis required circulatory assistance with a mechanicaldevice; the remainder were receiving high-dose vasopressors.Patients with fulminant myocarditis were younger, were lesslikely to have borderline myocarditis on biopsy, and had a higherheart rate at rest, a lower mean arterial pressure, and a higherright atrial pressure than those with acute myocarditis. Therewere no other significant differences in hemodynamic or demographiccharacteristics between the two groups.
During an average follow-up of 5.6 years (5.7 years for thepatients with acute myocarditis [range, 4 days to 12 years];5.3 years for those with fulminant myocarditis [range, 15 daysto 11 years]), 48 patients died and 7 received a heart transplant.The five-year rate of transplantation-free survival for allthe patients with myocarditis was 70 percent (95 percent confidenceinterval, 61 to 77 percent). Only one patient with fulminantmyocarditis died, and this death occurred during the index hospitalization.No patient with fulminant myocarditis received a heart transplant.
Figure 1 shows unadjusted transplantation-free survival accordingto the clinicopathological classification. Among the patientswith fulminant myocarditis, 93 percent were alive without havingreceived a transplant at one year (95 percent confidence interval,59 to 99 percent). In contrast, 85 percent of the patients withacute myocarditis were alive without having received a transplantat one year (95 percent confidence interval, 78 to 90 percent).Furthermore, whereas 93 percent of the patients with fulminantmyocarditis remained alive without having received a transplantat the end of 11 years (95 percent confidence interval, 59 to99 percent), only 45 percent of those with acute myocarditis(95 percent confidence interval, 30 to 58 percent) were stillliving without having received a transplant 11 years after theinitial biopsy. The long-term transplantation-free survivalof the patients with fulminant myocarditis was significantlybetter than that of the patients with acute myocarditis (P=0.05by the log-rank test).
Figure 1. Unadjusted Transplantation-free Survival According to Clinicopathological Classification.
Patients with fulminant myocarditis were significantly less likely to die or require heart transplantation during follow-up than were patients with acute myocarditis (P=0.05 by the log-rank test).
Figure 2 shows unadjusted transplantation-free survival accordingto histopathological classification (borderline myocarditisvs. active myocarditis). Among the patients with borderlinemyocarditis, 87 percent survived one year (95 percent confidenceinterval, 76 to 93 percent), as compared with 85 percent ofthose with active myocarditis (95 percent confidence interval,75 to 91 percent). At five years, 69 percent of the patientswho had borderline myocarditis on initial biopsy were alive(95 percent confidence interval, 55 to 79 percent), as were71 percent of those who had active myocarditis on initial biopsy(95 percent confidence interval, 59 to 79 percent). There wasno significant difference in survival between the patients withborderline myocarditis on biopsy and those with active myocarditis(P=0.38 by the log-rank test).
Figure 2. Unadjusted Transplantation-free Survival According to the Dallas Histopathological Criteria.
Long-term survival did not differ significantly according to the degree of inflammation on biopsy (P=0.38 by the log-rank test).
To determine whether fulminant myocarditis was an independentpredictor of long-term transplantation-free survival, we performeda multivariate analysis using the Cox proportional-hazards model.We included variables that were either distributed differentlybetween the fulminant-myocarditis and acute-myocarditis groups(histopathological status, age, heart rate, mean arterial pressure,and right atrial pressure) or that are clinically relevant topatients with heart failure (cardiac output, mean pulmonarypressure, and pulmonary-capillary wedge pressure). The presenceof fulminant myocarditis was an independent predictor of long-termtransplantation-free survival (hazard ratio for death or transplantation,0.10; 95 percent confidence interval, 0.01 to 0.88) after adjustmentswere made for age, severity of inflammation, and hemodynamicvariables (Table 3). Long-term transplantation-free survivalalso correlated with higher cardiac output and lower mean pulmonary-arterypressure.
Table 3. Independent Predictors of Long-Term Transplantation-free Survival in Patients with Histopathologically Defined Active Myocarditis or Borderline Myocarditis.
Figure 3 shows cases of fulminant myocarditis and cases of acutemyocarditis as a proportion of the total number of patientswith recent onset of heart failure who underwent endomyocardialbiopsy per fiscal year. The number of cases of acute myocarditishas declined since the 1980s (P<0.001 for annual trend).In contrast, the number of cases of fulminant myocarditis hasbeen relatively stable and has averaged one case per year.
Figure 3. Cases of Acute Myocarditis and Fulminant Myocarditis as a Percentage of Biopsies Performed, 1985 through 1996.
Both the absolute number and the proportion of cases classified as acute myocarditis declined over time (P<0.001 for annual trend). In contrast, the number and proportion of cases classified as fulminant myocarditis remained relatively stable.
Discussion
The purpose of this study was to determine whether a clinicopathologicalclassification scheme provides useful prognostic informationabout patients with myocarditis. We have shown that patientswith fulminant myocarditis have a clinical course that is distinctfrom that of patients with acute myocarditis. Fulminant myocarditisis characterized by critical illness at presentation but excellentlong-term survival. In contrast, patients with acute myocarditisare less ill initially but have a progressive course that leadsto death or the need for cardiac transplantation. Having fulminantmyocarditis was an independent predictor of transplantation-freesurvival even after adjustments were made for the severity ofinflammation, age, and clinically relevant hemodynamic variables.
Our data agree with previous reports from the Myocarditis TreatmentTrial2 and Grogan et al.10 that myocarditis causes substantialmortality. The mortality rate one year after presentation withmyocarditis in these studies was about 20 percent. The one-yearmortality rate among the patients with acute myocarditis inour study (15 percent) does not differ appreciably from earlierestimates.
We observed a decline in the incidence of acute myocarditisover time. Non-poliovirus enteroviruses are considered to bethe predominant cause of myocarditis.18 These agents are knownto produce endemic as well as epidemic patterns of infection.19Interestingly, the decline in the incidence of acute myocarditisthat we observed mirrors the decline in the number of isolatesof non-poliovirus enteroviruses reported by the Centers forDisease Control and Prevention,20 suggesting that the declinein the incidence of acute myocarditis that we observed may beexplained by patterns of enteroviral infection.21
In contrast with the incidence of acute myocarditis, the incidenceof fulminant myocarditis remained stable over time. The reasonfor this stability is not clear. It may be that fulminant myocarditisis caused by an enterovirus, such as coxsackievirus B4, thatis associated predominantly with endemic patterns of infection.22In mice, coxsackievirus B4 produces a disease similar to fulminantmyocarditis.23 Alternatively, fulminant myocarditis may be dueto infection by another type of virus. There is mounting evidencethat adenoviruses may have a greater role in virus-related heartdisease than previously thought.24,25 Finally, it is possiblethat fulminant myocarditis is not due to viral infection atall but, rather, is an autoimmune disorder.26
Despite the fact that endomyocardial biopsy has been shown tohave a low negative predictive value in the diagnosis of myocarditis,27,28it has a high positive predictive value. We included only patientswith histopathologically defined borderline or active myocarditisin this study so as to reduce the likelihood of bias due tomisclassification. Consequently, our findings may not be applicableto patients who do not undergo biopsy or who do not have histopathologicalevidence of inflammation. However, we would be inclined to beginaggressive treatment if a patient had a clinical picture thatsuggested fulminant myocarditis, regardless of the histopathologicalfindings.
During the period of our study, the pharmacologic treatmentof heart failure has improved. Our data do not include all thevarious therapies patients may have received over the 13-yearperiod of this study. Given that patients with fulminant myocarditisrecover early, improvements in long-term medical therapy areunlikely to account for the observed survival benefit in thisgroup of patients in our study. Other potential confoundingfactors, such as heavy alcohol use, could also contribute toa survival effect. However, Herskowitz et al. have previouslyreported that the prevalence of heavy alcohol use in a subgroupof the patients with myocarditis whom we studied is low.1
Patients with fulminant myocarditis are critically ill at presentation.Although most of the patients in this study could be treatedadequately with high-dose vasopressors, two patients requiredtemporary circulatory support with a left ventricular assistdevice. Given that patients with fulminant myocarditis haveexcellent long-term survival, an aggressive approach that mayinclude mechanical circulatory assistance is warranted.
In conclusion, clinical characteristics can be used to identifypatients with histopathological features of primary myocarditiswhose ventricular function is likely to improve; such patientswould not be well served by cardiac transplantation. Fulminantmyocarditis is a distinct entity, characterized by severe hemodynamiccompromise at presentation but an excellent long-term prognosis.These findings have important implications for the managementof acute heart failure.
Supported in part by a grant (KO8-HL03238) from the NationalInstitutes of Health (to Dr. Hare). Dr. McCarthy was an AmericanCollege of CardiologyMerck Cardiology Fellow and alsoreceived support from Hoechst Marion Roussel.
Source Information
From the Division of Cardiology (R.E.M., E.K.K., J.M.H., K.L.B.) and the Department of Pathology (R.H.H., G.M.H.), Johns Hopkins Hospital, Baltimore; and the Division of Cardiology, Hershey Medical Center, Hershey, Pa. (J.P.B.).
Address reprint requests to Dr. Hare at Johns Hopkins Hospital, 600 N. Wolfe St., Carnegie 568, Baltimore, MD 21287, or at jhare{at}mail.jhmi.edu.
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Fulminant Myocarditis
Khairy P., Infante-Rivard C., Karcic A., Conrad A. R., Conraads V., Hare J. M., McCarthy R. E., Baughman K. L.
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N Engl J Med 2000;
343:298-300, Jul 27, 2000.
Correspondence
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