Literature DB >> 32775632

A Rare Complication of Seasonal Influenza: Case Report and a Brief Review of the Literature.

Irsa Munir1, Talha Mehmood1, Amena Fatima Mohiuddin1, Moro O Salifu1, Isabel M McFarlane.   

Abstract

Acute viral myositis is a rare condition that is commonly defined with influenza A, B, and enterovirus in the United States of America. Viral myositis complicated by rhabdomyolysis is even less common but requires prompt attention and diagnosis to prevent complications. We describe the occurrence of acute viral myositis complicated by rhabdomyolysis in a young 43-year-old man that lead to acute renal failure. It also highlights that clinicians should keep in mind that viral upper respiratory infections can be complicated with various clinical manifestations that could extend beyond respiratory symptoms.

Entities:  

Keywords:  acute kidney injury; influenza; myositis; rhabdomyolysis; viral myositis

Year:  2020        PMID: 32775632      PMCID: PMC7413175     

Source DB:  PubMed          Journal:  Am J Med Case Rep        ISSN: 2374-2151


Introduction

Acute viral myositis is a rare defined complication of influenza [1,2,3]. Viral myositis occurs in the early recovery phase of influenza [4]. Cases have been defined with both influenza A and B [1-10]. In most cases, patients present with an isolated elevation of serum creatine kinase levels. Most of the cases are in the pediatric population, however viral myositis is universally found in the adult population as well [1,3]. During the influenza pandemic of 2009, there are many reported cases in adults as well [5,6,7] Some rare cases of rhabdomyolysis and severe myositis associated with influenza infections are also defined in the literature [6-12]. Cases of rhabdomyolysis are more commonly associated with influenza A [1,5,6,7,8,9]. The pathophysiology leading to myositis is unclear and several hypotheses have been postulated. Several studies listed the three possible mechanisms responsible for triggering muscle breakdown and in severe cases leading to rhabdomyolysis which include direct muscle invasion by the influenza virus, viral toxins causing direct muscle damage and cytokine storm triggered by the immunologic reaction [11,13,14]. Viral studies have also shown the NB protein found in influenzas B may have myotropic properties and can serve as an entity for viral entry [15]. Here, we present an interesting case of rhabdomyolysis and acute renal failure in a 43-year-old man who was diagnosed with influenza B.

Case Presentation

A 43-year-old man with no significant past medical history presented to our Institution with a four-day history of fevers, myalgias, cough, arthralgias, and generalized weakness. On the initial presentation, the patient was febrile to 102° F with an oxygen saturation of 88%. His labs were significant for normal leukocyte count with a left shift, elevated creatinine, transaminitis, and hypocalcemia. The lactate was 2.4 mmol/L. His procalcitonin was inconclusive at 0.55 ng/ml. Initial creatinine kinase (CK) was 1289 ng/ml. Blood cultures were drawn. The initial chest X-ray showed minimal left lower lobe atelectasis. A chest CT scan showed left lower lobe consolidation with a focus of right lower lobe consolidation as well. The patient was started on intravenous fluids as well as ceftriaxone and azithromycin due to underlying concern for pneumonia. The patient was then admitted for further work-up. The respiratory viral panel was positive for influenza B. Urinalysis was positive for red blood cells and proteinuria. Blood cultures and sputum cultures were negative. Urine legionella and urine streptococcal antigens were negative as well. The patient was continued on IV antibiotics however, his hospital course got complicated by up trending creatinine and CK, worsening edema, decreased urine output with a change in urine color to dark brown. Some further testing was done including urine myoglobin and urine osmolality which were abnormal. In the setting of worsening acute renal injury, proteinuria and hematuria implying a glomerular cause of AKI, nephrology and rheumatology services were consulted. Renal biopsy was done to delineate the underlying pathophysiology. Thyroid function tests were within normal limits. As per rheumatology recommendations, an extensive workup for autoimmune causes was done. The patient was tested for ANA, Anti ds-DNA, LKM Ab, complement levels, anti-smooth muscle cells Ab, p-ANCA, c-ANCA, Anti Jo-1 antibodies, glomerular basement membrane antibodies, anti-streptolysin-1 antibodies and myositis panel which came back negative. Extensive lab work up lacked enough evidence to suggest a rheumatological connective tissue disease in this previously young healthy male with negative serologies and acute presentation. Clinical history of acute onset of symptoms is also not typical of an inflammatory autoimmune myopathy, furthermore it is also atypical for an inflammatory myopathy to present with glomerular disease. Patient’s kidney function deteriorated and required the need for urgent hemodialysis in the setting of hypocalcemia and fluid overload. His CK levels were trended daily. A week after starting hemodialysis, CK levels and creatinine levels started to downtrend. The urine output improved, and peripheral edema decreased. Two weeks after initiating hemodialysis, the dialysis catheter was removed. During a follow-up visit two weeks after discharge, the kidney function continued to show improvement with creatinine level dropping to 1.64mg/dL. The kidney biopsy findings were significant for acute tubular necrosis with tubular casts, a plausible explanation was tubular injury secondary to myoglobin.

Direct Immunofluorescence

The glomeruli have no staining with antisera specific for IgG, IgA, IgM, C1q, kappa light chains, and lambda light chains. The glomeruli have granular mesangial, mostly hilar, staining with anti-serum specific for C3 (1+). Scattered interstitial plasma cell cytoplasmic reactivity with antisera specific for IgG, kappa light chains and lambda light chains are present. Weak tubulointerstitial fibrinogen usual reactivity is present and usual reactivity with antiserum specific for albumin is present

Discussion

Acute viral myositis complicated by rhabdomyolysis is rare but can be a very serious and life-threatening complication of influenza infection which presents itself as a global burden every year [1-11]. It has been defined with the following virus: influenza [1-12,15], coxsackievirus [13], Epstein-Barr virus[16], adenovirus[17], echovirus [18], cytomegalovirus[19], measles virus [20], varicella-zoster virus [21], human immunodeficiency virus [22], dengue virus [23], parainfluenza [24], and herpes simplex virus [25]. According to one study, the most common viral agent responsible for viral-induced rhabdomyolysis is the influenza virus reported in 33% of cases [26]. In another retrospective study of the pediatric population, 38% of cases of rhabdomyolysis were viral induced [27]. Some studies highlighted that elevated CK levels are associated with worse complications as a result of influenza infection and this trend was noted in the 2009 pandemic of influenzas infection [28,29]. For diagnosis of rhabdomyolysis, a preceding viral infection is a clue with elevated CK levels. With underlying rhabdomyolysis, it is not uncommon to get very high levels of CK levels >100,000 U/L. Also, transaminitis, elevated creatinine, and myoglobinuria are present as a sequel. It is more likely to detect an underlying virus responsible early in the course of infection. In the detection of viral myositis, a muscle biopsy is not a helpful tool as it can be normal or inconclusive [13,26]. The mechanism responsible for causing viral myositis is not clear, there is some hypothesis that suggests the following likely underlying mechanisms: The virus causing direct myocyte invasion. Interestingly, many muscle biopsies done for diagnostic purposes are either normal or inconclusive and, in most cases, a virus has not been detected. One study demonstrated the expression of alpha 2,3 and alpha 2,6- linked sialic acid receptors on muscle cells, which are the same as located on respiratory epithelial cells [10,30]. Toxic cytokines that are released by the human body as a result of infection, one study of viral-induced rhabdomyolysis reported elevated levels of tumor necrosis factor in the serum. TNF has shown to cause muscle breakdown in some experimental studies done on animals [10,13]. Immunological reaction due to viral infection causing myocyte breakdown. Studies have proposed antigenic mimicry, the release of sequestered antigen or T cells with dual T cells receptors arising in response to infection as underlying possible immunologic reactions [10,14]. Viral myositis is one of the less common complications of influenza infection seen especially in children however, it has been increasingly reported among adults as well. Clinicians should keep in consideration the possibility of rhabdomyolysis in a patient with influenza presenting with generalized body aches, myalgias, and dark urine. Healthcare providers play a significant role in creating awareness about the importance of influenza vaccination. On large study from Japan during the influenza season, 2013–2014 involving more than 300,000 subjects between the ages of 1–64 years demonstrated significant prevention of influenza onset and more effectiveness in reducing the secondary risk of influenza complications [31]. Another study from the 2015–2016 influenza predominant season in the United States demonstrated the protective effects of influenza vaccination for all age groups. It reduced influenza-related hospitalization by 51% in patients who are at risk of developing a serious infection or complications due to underlying comorbidities [32]. Keeping in view that influenza poses a global burden every year, awareness and patient education should be encouraged among our patient population to increase the number of vaccinated individuals in order to prevent both the risk of serious infections and its complications.
Table 1.

Complete Blood Count

Laboratory dataReference RangeAdmission1st week2nd week3rd week
White blood cells (K/ul)3.80 – 10.506.7611.859.475.60
Red blood cells (M/ul)4.20 – 5.806.244.073.814.31
Hemoglobin (g/dl)13.0 – 17.017.111.310.511.7
Hematocrit (%)39.0 – 50.050.432.831.736.8
Mean corpuscular volume (fl)80.0 – 100.080.883.280.685.4
Mean corpuscular hemoglobin (pg)27.0 – 34.027.427.827.627.1
MCHC (gm/dl)32.0 – 36.033.934.533.131.8
RDW (%)10.3 – 14.512.412.813.012.7
Platelets (K/ul)150 – 400186367396539
Neutrophil (%)43.0 – 77.080.478.975.643.3
Lymphocyte (%)13.0 – 44.09.210.511.342.3
Monocyte (%)2.0 – 14.07.78.110.19.6
Eosinophil (%)0.0 – 6.00.751.41.83.0
Basophil (%)2.00.520.30.21.4
Neutrophil Abs (K/ul)1.80 – 7.407.79.357.162.42
Lymphocyte Abs (K/ul)1.00-3.301.251.072.37
Monocyte Abs (K/ul)0.00 – 0.900.960.960.54
Eosinophil Abs (K/ul)0.00 – 0.500.160.170.17
Basophil Abs (K/ul)0.00 – 0.200.030.020.08
Immature Gran (%)0.0 – 1.50.4
MPV9.29.3

MCHC mean corpuscular hemoglobin concentration RDW red cell distribution width Abs absolute count.

Table 2.

Comprehensive metabolic panel

SerumReference RangeOn Admission1st week2nd week3rd week2 weeks follow-up
Anion gap (mEq/L)5 – 152125171814
Sodium (mmol/L)136 – 146133129136140137
Potassium (mmol/L)3.5 – 5.04.65.55.43.94.7
Chloride (mmol/L)98 – 10690759697101
Bicarbonate (mmol/L)24 – 312229232522
Blood Urea Nitrogen (mg/dl)8.0 – 23.042124.081.057.033
Creatinine (mg/dl)0.70 – 1.203.2116.8614.635.841.64
Glucose (mg/dl)70 – 99109867991102
ALT (SGPT) U/L0 – 31455343107
AST (SGOT) U/L10 – 35188237971
Alk Phos U/L25 – 125729495
Total bilirubin (mg/dl)0.0 – 1.20.70.40.4
Calcium (mg/dl)8.8 – 10.27.26.69.28.510.1
Total protein (g/dl)6.4 – 8.37.55.06.1
Albumin (g/dl)2.8 – 5.74.12.53.1
Phosphorous (mg/dl)2.5 – 4.52.50
Magnesium (mg/dl)1.60 – 2.6011.07.7
GFR - AA (ml/min/1.73m2>=60.025.83.84.512.958
GFR Non-AA (ml/min/1.73m2)>=60.021.33.13.710.650
Creatine Kinase (ng/ml)20 – 2001289>22,00010,873382

ALT alanine aminotransferase

AST aspartate aminotransferase, Alk Ph alkaline phosphatase, AA African American.

Table 3.

Urinalysis

Day 1Day 5
Specific gravity1.0181.016
Protein>=300>=300
Glucose100100
KetonesNegativeTrace
BilirubinNegativeNegative
BloodLargeLarge
Urobilinogen0.20.2
NitriteNegativeNegative
Leukocyte esteraseTraceTrace
Squam. epithelial cells0 – 50 – 5
White blood cells10 – 2010 – 20
Red blood cells10 – 5010 – 20
BacteriaNone SeenNone Seen
Hyaline Cast0 – 5None Seen
pH5.57.0
AppearanceCloudyCloudy
ColorDark YellowDark Yellow
Table 4.

Other Labs

SerumReference RangePatient
Thyroid-stimulating hormone (uIU/ml)0.270 – 4.2002.830
Free thyroxine (ng/dl)0.93 – 1.701.17
Triiodothyronine (mg/dl)80.0 – 20055
Serum osmolality (mOsm/kg)275 – 295292
Serum myoglobin (ng/ml)16 – 9649660
ESR (mm/hr)0 – 1525
CRP (mg/l)1.00 – 4.00134.12
Procalcitonin (ng/ml)0.00 – 0.500.55
Sjogren’s antibodies (SS-A, SS-B) (Al)< +0.9< 0.2
LKM- antibodies (units)0 – 20< 20.1
Anti-smooth muscle Cells Antibodies< 1: 20< 1:20
Anti-nuclear Antibodies< 1: 80Negative
Anti-streptolysin O Ab (IU/ml)0 – 199136
c- ANCA AbNegativeNegative
Atypical ANCA AbNegativeNegative
p- ANCA AbNegativeNegative
Complement 3 (mg/dl)86 – 184100
Complement 4 (mg/dl)20 – 5838
Anti-Ds DNA Ab (IU/ml)<=29<12
Anti-Jo 1 Ab (units)<20<20
Anti- GBM Ab (Al)<1.0<1.0
Urine Studies
Urine Osmolality (mOsm/kg)300 – 1000246
Urine myoglobin (mcg/L)<=21>5000
24-hour urine creatinine (mg/dl)39 – 259212.55
Protein/creatinine ratio22 – 128889
Urine sodium (mmol/L)<60<60
Urine chloride (mmol/L)<60<60
Urine potassium (mmol/L)23.5
MyoMarker™ Panel 3
Anti Jo-1 Ab (Units)<20<20
PL-7NegativeNegative
PL-12NegativeNegative
EJNegativeNegative
OJNegativeNegative
SRPNegativeNegative
MI-2NegativeNegative
TIF GAMMA (P155/140) (Units)<20<20
MDA-5 (P140) (CADM-140) (Units)<20<20
NXP-2 (P140) (units)<20<20
Anti-PM/SCI-100 AB (Units)<20<20
Fibrillarin (U3 RNP)NegativeNegative
U2 snRNPNegativeNegative
Anti-U1-RNP (units)<20<20
KUNegativeNegative
Anti-SS-A 52 KD, IGG (Units)<20<20
Immunoglobulin Panel
Immunoglobulin G610 – 1660 mg/dl969
Immunoglobulin A84 – 499 mg/dl217
Immunoglobulin M35 – 242 mg/dl27
Immunoglobulin Kappa FLC0.33 – 1.94 mg/dl11.24
Immunoglobulin Lambda FLC0.57 −2.63 mg/dl6.93
Kappa Lambda FLC ratio0.26 – 1.601.62

Ab antibody, ESR erythrocyte sedimentation rate, CRP C-reactive protein, ANCA anti-nuclear cytoplasmic antibodies FLC free light chains.

  32 in total

1.  Pneumonia and respiratory failure from swine-origin influenza A (H1N1) in Mexico.

Authors:  Rogelio Perez-Padilla; Daniela de la Rosa-Zamboni; Samuel Ponce de Leon; Mauricio Hernandez; Francisco Quiñones-Falconi; Edgar Bautista; Alejandra Ramirez-Venegas; Jorge Rojas-Serrano; Christopher E Ormsby; Ariel Corrales; Anjarath Higuera; Edgar Mondragon; Jose Angel Cordova-Villalobos
Journal:  N Engl J Med       Date:  2009-06-29       Impact factor: 91.245

2.  Prevention of Influenza Hospitalization Among Adults in the United States, 2015-2016: Results From the US Hospitalized Adult Influenza Vaccine Effectiveness Network (HAIVEN).

Authors:  Jill M Ferdinands; Manjusha Gaglani; Emily T Martin; Don Middleton; Arnold S Monto; Kempapura Murthy; Fernanda P Silveira; H Keipp Talbot; Richard Zimmerman; Elif Alyanak; Courtney Strickland; Sarah Spencer; Alicia M Fry
Journal:  J Infect Dis       Date:  2019-09-13       Impact factor: 5.226

3.  Rhabdomyolysis associated with 2009 influenza A(H1N1).

Authors:  Estela Ayala; Frank T Kagawa; John H Wehner; James Tam; Daya Upadhyay
Journal:  JAMA       Date:  2009-11-04       Impact factor: 56.272

4.  Acute rhabdomyolysis coincident with primary HIV-1 infection.

Authors:  A Mahé; A Bruet; E Chabin; J P Fendler
Journal:  Lancet       Date:  1989-12-16       Impact factor: 79.321

Review 5.  2009 H1N1 influenza.

Authors:  Seth J Sullivan; Robert M Jacobson; Walter R Dowdle; Gregory A Poland
Journal:  Mayo Clin Proc       Date:  2009-12-10       Impact factor: 7.616

6.  Myoglobinuria associated with herpes-group viral infections.

Authors:  J J Schlesinger; D Gandara; K G Bensch
Journal:  Arch Intern Med       Date:  1978-03

7.  Acute dengue myositis with rhabdomyolysis and acute renal failure.

Authors:  Sourya Acharya; Samarth Shukla; S N Mahajan; S K Diwan
Journal:  Ann Indian Acad Neurol       Date:  2010-07       Impact factor: 1.383

8.  [Rhabdomyolysis and acute renal failure in human influenza A H1N1 mediated infection].

Authors:  Raúl Carrillo-Esper; Sofía Ornelas-Arroyo; Estela Pérez-Bustos; Jesús Sánchez-Zúñiga; Misael Uribe-Esquivel
Journal:  Gac Med Mex       Date:  2009 Nov-Dec       Impact factor: 0.302

9.  Severe rhabdomyolysis and acute renal failure following recent Coxsackie B virus infection.

Authors:  F Fodili; E F H van Bommel
Journal:  Neth J Med       Date:  2003-05       Impact factor: 1.422

10.  Correction to: Influenza vaccination effectiveness for people aged under 65 years in Japan, 2013/ 2014 season: application of a doubly robust method to a large-scale, real-world dataset.

Authors:  Natsumi Shibata; Shinya Kimura; Takahiro Hoshino; Hisashi Urushihara
Journal:  BMC Infect Dis       Date:  2019-08-12       Impact factor: 3.090

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