Fehmi Hindilerden1, Ipek Yonal-Hindilerden2, Emre Akar1, Zuhal Yesilbag3 and Kadriye Kart-Yasar3.
1 University of Health Sciences Bakırkoy Dr. Sadi Konuk Training and Research Hospital, Hematology Clinic, Istanbul, Turkey.
2 Istanbul University Istanbul Medical Faculty, Department of Internal Medicine, Division of Hematology, Istanbul, Turkey.
3
University of Health Sciences Bakırkoy Dr.Sadi Konuk Training and
Research Hospital, Department of Microbiology and Infectious Diseases,
Istanbul, Turkey..
Corresponding
author: Ipek Yonal-Hindilerden. Department of Internal
Medicine, Division of Hematology, Istanbul University Istanbul
Medical Faculty, Istanbul, 34093, Turkey. Tel:+905356875992. E-mail:
ipekyonal@hotmail.com
Published: July 1, 2020
Received: May 30, 2020
Accepted: June 23, 2020
Mediterr J Hematol Infect Dis 2020, 12(1): e2020053 DOI
10.4084/MJHID.2020.053
This is an Open Access article distributed
under the terms of the Creative Commons Attribution License
(https://creativecommons.org/licenses/by-nc/4.0),
which permits unrestricted use, distribution, and reproduction in any
medium, provided the original work is properly cited.
|
To the editor,
In December 2019, a novel pneumonia syndrome was identified in patients clustered around the Seafood Market in Wuhan, China.[1]
This novel coronavirus was named as Severe Acute Respiratory Syndrome
Coronavirus 2 (SARS-CoV-2). Infection with SARS-CoV-2 leads to the
syndrome of Coronavirus Disease 2019 (COVID-19). The clinical spectrum
of symptomatic Covid-19 cases ranges from mild to critically ill.[1]
While the majority of patients have mild symptoms without pneumonia or
mild pneumonia, 14% of patients present with severe pneumonia, 5% of
patients develop a critical disease with acute respiratory distress
syndrome (ARDS), cardiac injury, renal injury, or multiorgan failure.[1]
Autoimmune disorders including immune thrombocytopenia, Guillain-Barré
and antiphospholipid syndrome have been recognized in the context of
Covid-19 infection.[2-4]
Autoimmune hemolytic
anemia (AIHA) is a rare autoimmune disorder characterized by
autoantibodies that react with self red blood cells and result in their
destruction. Warm agglutinin disease accounts for the majority of AIHA
and is generally mediated by IgG antibodies to the Rh system of
erythrocytes. Pathogens associated with warm agglutinin disease include
human immunodeficiency virus (HIV), hepatitis C virus (HCV), and
infectious mononucleosis. Association of AIHA with COVID-19 infection
has been rarely reported.[5,6]
We here report, to
the best of our knowledge, the second COVİD-19 patient presenting with
AIHA in the absence of an associated underlying disorder.
A
56-year-old male with a medical history of hypertension came to the
emergency department with headache, loss of smell and fatigue. He
reported contact with a case known to have Covid-19. On physical
examination, he had no fever, and his respiratory rate was 12/minute.
His oxygen saturation (SpO2) on ambient air was 97%. Reverse
transcriptase PCR assay detected the presence of SARS-CoV-2 RNA in the
nasopharyngeal swab. Azithromycin 500 mg on day 1 plus 250 mg daily on
days 2-5 was started, and the patient was discharged. Four days later,
he was admitted to the emergency department with dyspnea, cough, and
progressive fatigue. He was subicteric and had tachypnea. His vital
signs were as follows: temperature 37.5°C, pulse 112/minute, and
respiratory rate of 20 breaths/minute. His SpO2 on ambient air was 91%.
On auscultation, breath sounds were reduced with fine bibasilar
crackles. Chest computed tomography (CT) showed patchy peripheral
ground-glass opacities in both lungs; these findings were compatible
with moderate Covid-19 pneumonia (Figure 1).
Screening for viral respiratory PCR panel, blood, and urine cultures
remained negative. Complete blood count showed the following: Hgb 4,3
g/dL, Htc 12%, total leukocyte count 43930/mm3, neutrophil 35690/mm3, lymphocyte 4800/mm3 and platelet count 497,000/mm3.
The following were abnormal on laboratory tests: creatinine 1.81 mg/dl,
lactate dehydrogenase (LDH) 2529 U/L (135-248), C-reactive protein
(CRP) 21 mg/L (0–5), serum ferritin 3428 ug/L (23-336), total bilirubin
2,95 mg/dl (0-1,2), unconjugated bilirubin 2,27 mg/dl (0-1,2) and
haptoglobin 11.5 mg/dl (30-200). D-dimer was increased (4.87 μg/ml;
normal range, 0 to 0.5). Our patient had reticulocytosis of 10%
(0.60%-1.83%), with an absolute reticulocyte count of 230×109/L (29.5-87.3×109/L). Peripheral blood smear showed nucleated red blood cells, spherocytes, and polychromasia (Figure 2).
Direct Coombs test was 4+ for IgG and C3d. Since he had progressive
Covid-19 infection, favirapivir 1,600 mg twice daily on day 1, followed
by 600 mg twice daily for a total duration of 5 days, was
initiated. It was considered that the patient developed secondary AIHA
triggered by Covid-19. So, other viral, autoimmune, and malignant
diseases were screened and found to be negative. Taking into
consideration his active Covid-19 disease, the medical staff
administered intravenous immunoglobulin (IVIG) at 1 g/kg/day for two
consecutive days to treat the AIHA. However, on the third day of IVIG,
the patient remained transfusion dependent with a Hgb of 5 gr/dl. Thus,
prednisolone 1 mg/kg/day was started. By the 8th
day of prednisolone on day 12 of admission, he was completely
transfusion independent and symptom-free with the resolution of his
pneumonia. On the day of discharge on the 14th day of admission, his complete blood count was as follows: Hgb 8,5 g/dL, total leukocyte count 12130/mm3, neutrophil 9800/mm3, lymphocyte 1450/mm3, and platelet count 437,000/mm3.
At discharge, LDH and unconjugated bilirubin decreased to 600 IU/L and
0,49 mg/dl, respectively. His control nasopharyngeal swab sample for
Covid-19 was negative. One week after discharge on the 17th day of prednisolone, his Hgb was 10,7 gr/dl. The reticulocyte count and LDH were normal (75×109/L and 238 IU/L, respectively). A steroid taper was planned.
|
Figure 1.
Chest computed tomography shows patchy peripheral ground glass
opacities in both lungs, findings compatible with moderate Covid-19
pneumonia. |
|
Figure 2. Peripheral blood smear showed spherocytes with a) polychromasia and b) nucleated red blood cells. |
Rare cases have been reported in the context of Covid-19.[5,6] Yet, the exact mechanism of the AIHA associated with the novel coronavirus is not known. Lazarian G. et al. reported [7]
cases of warm and cold AIHA associated with Covid-19 disease, in which
the median time between the first Covid-19 symptoms and AIHA onset was
9 days (range 4 to 13 days).[5] Lopez C. et al. reported another case where AIHA occurred during the worsening of symptoms of Covid-19 infection.[6]
Similarly, our case developed AIHA after the appearance of the symptoms
of infection. Furthermore, in accordance with previously reported case
series, our patient showed elevated markers of inflammation (i.e.,
ferritin, CRP, D-dimers) at the time of AIHA onset.[5] We consider that AIHA in our patient was virus-associated and linked with the hyperinflammatory state.
Our
patient had a direct Coombs test positive for IgG and C3d.
Similarly, Lopez C. et al. reported direct Coombs test positive for IgG
and C3 in a Covid-19 patient who had a history of congenital
thrombocytopenia.[6] As in our case, warm antibodies were detected in 4 of the 7 cases in the report by Lazarian G. et al..[5]
Of the four patients with warm antibodies in the report above, two
patients had chronic lymphocytic leukemia, and 1 had IgG kappa
monoclonal gammopathy of undetermined significance (MGUS). At that
report, only one case with warm autoantibodies had no related
hematological disorder.[5] Autoimmune diseases,
including systemic lupus erythematosus, other viral pathogens, and
malignant disorders as the underlying cause of AIHA, were screened and
excluded. We concluded that AIHA in our patient was Covid-19 driven.
The
treatment modalities for the four warm AIHA cases in the report of
Lazarian G. et al. included corticosteroids (n=3), rituximab (n=1)
for corticosteroid failure, and blood transfusion (n=1).[5]
Because of the short follow-up period, two of the three patients
receiving corticosteroids had been non-evaluable for response.[5]
Our patient developed warm antibody AIHA during Covid-19
infection. He had been on azithromycin for four days on admission.
Not only azithromycin associated AIHA has not been reported, but also
it is unusual for any drug to lead to AIHA in such a short period.
Therefore, it is most likely that AIHA in our patient was triggered by
Covid-19 infection. In our patient, glucocorticosteroids were not
administered as the first choice to treat AIHA since the Centers
for Disease Control (CDC) and World Health Organization (WHO)
recommended against the use of glucocorticoids in Covid-19 patients
because of the potential immunosuppressive effect of steroids and their
potential to decrease viral shedding.[7] Thus, we administered IVIG as 1st
line treatment to treat AIHA. However, our patient did not respond to
IVIG, a finding consistent with the current guidelines regarding the
therapy of AIHA, which report a scarce response to IVIG.[8] In line with our observation, Lopez C. et al. reported a case with no response to IVIG.[6]
In our patient, Hgb levels stabilized and improved under prednisolone.
Partial response, defined by Hgb greater than 10 g/dl with no need of
transfusion, was achieved. Rituximab treatment could also be considered
in unresponsive patients.
To the best of our knowledge, eight cases with AIHA and Covid-19 have been reported.[5,6]
Seven of these cases have a related pathology (chronic lymphocytic
leukemia (n=2), marginal zone lymphoma (n=2), MGUS (n=1), prostate
cancer (n=1) and congenital thrombocytopenia (n=1) that may be
associated with AIHA.[5,6] Only one of the reported
patients had no underlying pathology. Our case is the second Covid-19
case with AIHA with no underlying disorder.
Glucocorticoids are considered the mainstay of treatment of newly diagnosed primary AIHA,[8]
but they have a dubious effect on the outcome of Covid-19. Recent
reports have reported good outcomes in Covid-19 patients with
corticosteroids suggesting that corticosteroids may prevent the
progression of Covid-19 disease to severe hyperreactive forms. These
findings supported the use of steroids in the early acute phase of
Covid-19.[9-11] Authors, however, emphasize that
specific studies are warranted to confirm this hypothesis. On the other
hand, 'WHO' does not currently recommend corticosteroids in viral
diseases, including Covid-19 as the glucocorticoid-mediated stimulation
of the hypothalamic-pituitary-adrenal axis can also drive lymphopenia,
or it may promote exaggerated pro-inflammatory responses that
eventually result in worsening of the pathogenic condition. The
Randomised Evaluation of Covid-19 (RECOVERY) trial compared
anti-inflammatory steroid (dexamethasone) with lopinavir/ritonavir,
hydroxychloroquine, and azithromycin and reported that dexamethasone
causes a reduction of the mortality of 30% in Covid-19 patients
requiring ventilation or oxygen.[12] Our findings
imply that corticosteroids could be used with success in AIHA triggered
by Covid-19, and corticosteroids should be tapered after stabilization
of the blood count. He showed marked response to corticosteroids after
failure to IVIG with no adverse events attributed to corticosteroids
and wıth a favorable evolutıon of lung involvement.
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