Literature DB >> 32659385

Incidence of invasive pulmonary aspergillosis among critically ill COVID-19 patients.

Frederic Lamoth1, Emmanouil Glampedakis2, Noémie Boillat-Blanco2, Mauro Oddo3, Jean-Luc Pagani3.   

Abstract

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Year:  2020        PMID: 32659385      PMCID: PMC7348600          DOI: 10.1016/j.cmi.2020.07.010

Source DB:  PubMed          Journal:  Clin Microbiol Infect        ISSN: 1198-743X            Impact factor:   8.067


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To the Editor, The devastating pandemia of the novel Coronavirus Disease 2019 (COVID-19) resulting from the emergence of SARS-CoV-2 is of particular concern because of the development of acute respiratory distress syndrome (ARDS), which is associated with high mortality rates. Besides the impact of viral pneumonia itself, the prognosis can be affected by other infectious complications, such as ventilator-associated bacterial pneumonia or fungal infections. Previous reports of a significant risk of invasive pulmonary aspergillosis (IPA) among patients with severe Influenza raises questions about a similar association with COVID-19 [1]. IPA among ICU patients is often insidious, which results in delayed diagnosis and poor prognosis if not actively searched for. At our center (Lausanne University Hospital), serial weekly monitoring of serum galactomannan was part of our standard of care procedure for all patients admitted in the ICU with confirmed COVID-19 (defined as a positive PCR on a nasopharyngeal swab or a lower respiratory sample: bronchial aspirate or broncho-alveolar lavage fluid [BAL]). Bronchial aspirates for detection of bacterial or fungal superinfections were regularly performed in patients under mechanical ventilation. Bronchoscopy and BAL were performed when clinically indicated. Fungal cultures were incubated for 7 days at 30°C on Sabouraud selective media. Galactomannan testing (Platelia Aspergillus EIA, Bio-Rad) was performed in serum and BAL considering a positive result for an optical density index of 0.5 and 1, respectively. Diagnosis of probable IPA was assessed according to the recent definitions of Influenza-associated IPA [2]. Because bronchoscopy and BAL sampling were minimized in the setting of COVID-19 unless clearly indicated (due to the risk of aerosolization), results of bronchial aspirates cultures were also considered for defining a putative IPA category (Aspergillus spp. recovered from culture of ≥2 consecutive bronchial aspirates in the absence of bronchoscopy and BAL sample). Cases with a single positive Aspergillus culture of bronchial aspirate were classified as colonization or “undetermined”. A total of 118 patients were admitted to ICUs with confirmed COVID-19 between March 6th and May 11th 2020, and 80 of them underwent mechanical ventilation. Among them, 3 (3.8%) patients fulfilled the criteria of IPA (one probable and two putative cases), as described in Table 1 . There was no patient classified as colonization/undetermined.
Table 1

Characteristics of patients with COVID-19 and subsequent invasive pulmonary aspergillosis (IPA)

Age/sexUnderlying conditionsTiming of IPA (days) from: COVID-19 diagnosis1/ICU admission/Start of mechanical ventilationClinical criteriaRadiological criteria (chest CT)Mycological criteria2 and IPA classificationAntifungal therapy outcome
55 y.o./maleHypertension, obesity, type 2 diabetes7 days/7 days/6 daysWorsening respiratory conditions after initial improvement despite broad-spectrum ABTMultiple consolidationsCulture (asp): A. fumigatus(3 consecutive samples)PCR3 (asp): A. fumigatus (1.5E6 cp/ml)Putative IPAVoriconazoleAlive at day 17 (discharged from hospital)
65 y.o./maleHypertension, obesity, pulmonary fibrosis8 days/3 days/3 daysPersistent fever and worsening respiratory conditions despite broad-spectrum ABTInterstitial infiltrates and ground glass opacitiesCulture (asp): A. fumigatus(5 consecutive samples)Positive serum GM (0.73)Positive serum BDG: 360 pg/mlProbable IPAVoriconazoleDeath at day 22
66 y.o./maleAsthma13 days/8 days/6 daysWorsening respiratory conditions despite broad-spectrum ABTMultiple consolidationsCulture (asp): A. fumigatus (2 consecutive samples)Putative IPAVoriconazoleAlive at day 28 (discharged from hospital)

IPA: invasive pulmonary aspergillosis, y.o.: years old, ICU: intensive care units, ABT: antibacterial therapy CT: computed tomography, asp: bronchial aspirate, GM: galactomannan (results expressed in optical density index).

Date of first positive PCR for SARS-CoV-2 from nasopharyngeal swab or lower respiratory sample.

Mycological criteria were adapted from definitions of Influenza-associated IPA [2]: i) probable IPA: positive galactomannan in serum (≥0.5), or positive galactomannan in bronchoalveolar lavage (BAL) fluid (≥1.0), or positive culture for Aspergillus spp. In BAL, ii) putative IPA: positive culture for Aspergillus spp. in ≥2 consecutive bronchial aspirates, in the absence of bronchoscopy or BAL, iii) colonization/undetermined: positive culture for Aspergillus spp. in a single bronchial aspirate.

Specific Aspergillus fumigatus quantitative PCR, results expressed in copies (cp) per ml.

Characteristics of patients with COVID-19 and subsequent invasive pulmonary aspergillosis (IPA) IPA: invasive pulmonary aspergillosis, y.o.: years old, ICU: intensive care units, ABT: antibacterial therapy CT: computed tomography, asp: bronchial aspirate, GM: galactomannan (results expressed in optical density index). Date of first positive PCR for SARS-CoV-2 from nasopharyngeal swab or lower respiratory sample. Mycological criteria were adapted from definitions of Influenza-associated IPA [2]: i) probable IPA: positive galactomannan in serum (≥0.5), or positive galactomannan in bronchoalveolar lavage (BAL) fluid (≥1.0), or positive culture for Aspergillus spp. In BAL, ii) putative IPA: positive culture for Aspergillus spp. in ≥2 consecutive bronchial aspirates, in the absence of bronchoscopy or BAL, iii) colonization/undetermined: positive culture for Aspergillus spp. in a single bronchial aspirate. Specific Aspergillus fumigatus quantitative PCR, results expressed in copies (cp) per ml. None of the IPA patients had predisposing host conditions according to the definitions of the European Organization for Research and Treatment of Cancer (EORTC) and Mycoses Study Group (MSG) [3]. However, they received tocilizumab for treatment of the COVID-19 inflammatory conditions within 4 days from IPA diagnosis. All three patients experienced worsening respiratory conditions despite broad-spectrum antibacterial therapy and no other pathogens were isolated in concomitant cultures except for one case (Haemophilus influenzae). All three patients were treated with voriconazole with a favorable outcome for two of them and a fatal issue for one of them. None of the other patients received empirical antifungal therapy for suspected IPA or anti-mold active prophylaxis. The association of IPA with severe COVID-19 remains an important question to elucidate. A Dutch-Belgian study previously showed an incidence of IPA of 14% among non-immunocompromised ICU patients with severe Influenza compared to only 5% in those with non-Influenza community-acquired pneumonia [1]. Similarly, the lung injury and cytokine storm observed in COVID-19 could predispose to IPA. The occurrence of probable/putative IPA among ICU COVID-19 has been previously reported among smaller cohorts of patients under mechanical ventilation (N = 13 to 31) with a prevalence of 19% to 35% [[4], [5], [6], [7]]. Our larger cohort of consecutive COVID-19 patients requiring mechanical ventilation (n = 80) suggests a much lower incidence (3.8%), which did not differ from that observed in the population of ICU patients with community-acquired pneumonia of all causes except Influenza in the Dutch-Belgian study [1]. However, the actual incidence is difficult to assess because IPA diagnosis can be missed in this setting. The screening strategy in our cohort included weekly monitoring of galactomannan in serum, which provided positive results in only one case. A limitation was that bronchoscopy and BAL were performed in a relatively small proportion of patients (28%). Therefore, the diagnosis of putative IPA was also considered in two patients with repeated positive fungal cultures of bronchial aspirates in the absence of BAL sampling. The fact that these patients experienced worsening clinical and radiological respiratory conditions despite broad-spectrum antibacterial therapy argues against simple colonization. Some IPA cases could have been missed in the absence of BAL sampling and galactomannan testing in BAL. The role of tocilizumab (monoclonal antibody targeting the interleukine-6 receptor) in favoring IPA can be questioned. The three IPA cases reported here received tocilizumab, as it was the case for most patients of the present cohort. While tocilizumab is frequently use for the treatment of auto-immune diseases, no association with IPA has been previously reported in the literature. Further prospective studies are warranted to assess the actual incidence, risk factors and impact of IPA in severe COVID-19.

Funding

There was no external source of funding for this study.

Authors′ contributions

F. Lamoth: conceptualization, methodology, formal analysis, investigation, writing original draft. E. Glampedakis: formal analysis, investigation, writing (review-editing). N Boillat-Blanco: investigation, writing (review-editing). M. Oddo: investigation, writing (review-editing). J. L. Pagani: formal analysis, investigation, writing (review-editing).

Ethical statement

COVID-19 patients were included in an institutional registry for the purpose of epidemiological description, which was approved by the “Commission d’éthique du Canton de Vaud” (2020-0401).

Transparency declaration

All authors: none to declare with respect to the present work. F. Lamoth reports personal fees from , outside the submitted work.
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