Literature DB >> 34302291

COVID-19 and mucormycosis superinfection: the perfect storm.

Jaffar A Al-Tawfiq1,2,3,4, Saad Alhumaid5, Abeer N Alshukairi6, Mohamad-Hani Temsah7, Mazin Barry8, Abbas Al Mutair9,10,11, Ali A Rabaan12, Awadh Al-Omari13,14, Raghavendra Tirupathi15,16, Manaf AlQahtani17,18,19, Salma AlBahrani20, Kuldeep Dhama21.   

Abstract

BACKGROUND: The recent emergence of the Coronavirus Disease (COVID-19) disease had been associated with reports of fungal infections such as aspergillosis and mucormycosis especially among critically ill patients treated with steroids. The recent surge in cases of COVID-19 in India during the second wave of the pandemic had been associated with increased reporting of invasive mucormycosis post COVID-19. There are multiple case reports and case series describing mucormycosis in COVID-19.
PURPOSE: In this review, we included most recent reported case reports and case-series of mucormycosis among patients with COVID-19 and describe the clinical features and outcome.
RESULTS: Many  of the mucormycosis reports were eported from India, especially in COVID-19 patients who were treated and recovered patients. The most commonly reported infection sites were rhino-orbital/rhino-cerebral mucormycosis. Those patients  were diabetic and had corticosteroids therapy for controlling the severity of COVID-19, leading to a higher fatality in such cases and complicating the pandemic scenario. The triad of severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2), corticosteroid use and uncontrolled diabetes mellitus have been evident for significant increase in the incidence of angioinvasive maxillofacial mucormycosis.  In addition, the presence of spores and other factors might play a role as well.
CONCLUSION: With the ongoing COVID-19 pandemic and increasing number of critically ill patients infected with SARS-CoV-2, it is important to develop a risk-based approach for patients at risk of mucormycosis based on the epidemiological burden of mucormycosis, prevalence of diabetes mellitus, COVID-19 disease severity and use of immune modulating agents including the combined use of corticosteroids and immunosuppressive agents in patients with cancer and transplants.
© 2021. Springer-Verlag GmbH Germany, part of Springer Nature.

Entities:  

Keywords:  COVID-19; Mucormycosis; SARS-CoV-2

Mesh:

Year:  2021        PMID: 34302291      PMCID: PMC8302461          DOI: 10.1007/s15010-021-01670-1

Source DB:  PubMed          Journal:  Infection        ISSN: 0300-8126            Impact factor:   3.553


Introduction

The current Severe Acute Respiratory Syndrome Coronavirus 2 (SARS-CoV-2) infection is associated with a wide clinical spectrum of Coronavirus Disease 2019 (COVID-19) that ranges from being asymptomatic to severe disease requiring intensive care unit (ICU) admission [1-7]. The rate of admission to ICU is about 5% of all COVID-19 patients [8, 9]. Severe COVID-19 pneumonia is associated with immune dysregulation and cytokine syndrome leading to the increased use of immunomodulators [10, 11]. Emerging fungal infections such as aspergillosis were described in critically ill patients treated with steroids [12]. The mortality rate of SARS-CoV-2 infection in critically ill patients co-infected with aspergillosis was high [13]. Since the emergence of the COVID-19 pandemic, it has been suspected that mucormycosis might cause significant morbidity to infected patients. This was based on a retrospective analysis of SARS and influenza cases as suggested by Song et al. [14]. The more vulnerable individuals are those requiring hospitalization and intensive care, which represent advanced stage of their disease [15]. The recent surge in cases of COVID-19 in India during the second wave of the pandemic had been associated with increased reporting of invasive mucormycosis post COVID-19, of up to 9000 cases and are continuously being reported to be rising, popularly known as black fungal infection [16-18]. In this review, we describe the important risk factors, clinical presentation and outcome of mucormycosis in patients infected with SARS-CoV-2.

Incidence and prevalence

The occurrence of mucormycosis, a rare disease, in the general population was previously cited as 0.005 to 1.7 per million population [19]. However, the incidence of mucormycosis in India was reported to be 0.14/1000 diabetic patients which is 80 times higher than that reported in other parts of the world[20] and more than that in the general population based on computational-modeling [21]. Given the large number of diabetic patients in India of almost 62 million, mucormycosis has caused large public health burden in India [20]. In one study, diabetes mellitus was the underlying disease in 54–76% of mucormycosis cases with 8–22% presenting with diabetic ketoacidosis [22]. In addition, there had been geographic difference in the rate of diabetes mellitus among patients with mucormycosis in India. Even prior to COVID-19, the prevalence of diabetes mellitus was a major risk factor with regional differences ranging from 67% in North India to 22% among patients from the South of India [23]. The true incidence of rhino-orbital mucormycosis in COVID-19 patients is not known. However, there are multiple case reports describing mucormycosis in COVID-19 and most of these case reports are presently from India, especially in COVID-19 treated and recovered patients those were diabetic and corticosteroids were administered injudiciously for controlling severity of COVID-19, leading to a higher fatality in such cases and complicating the pandemic scenario [17, 18, 24–37].

Risk factors

There are multiple possible contributing factors for the development of mucormycosis among patients with COVID-19 and these include diabetes mellitus, obesity, use of corticosteroid, and the development of cytokine storms (Fig. 1). The triad of SARS-CoV-2, steroid and uncontrolled diabetes mellitus have contributed towards a significant increase in the incidence of angioinvasive maxillofacial mucormycosis [30]. However, the presence of spores and other factors might play a role as well [38]. The contribution of diabetes mellitus per se to the development of rhino-orbital-cerebral mucormycosis was the most common underlying comorbidity in 340 of 851 (40%) patients who were included in a meta-analysis, with an odds ratio (OR) of 2.49 (95% CI 1.77–3.54) compared to the next possible factor of having hematological malignancies with an OR of 0.76 (0.44–1.26) [19]. The role of Interleukin 6 blockers as a risk factor for mucormycosis is not clear [39]. Whether the combined use of steroids and interleukin 6 blockers will increase the risk of mucormycosis compared to the use of steroids alone needs more studies.
Fig. 1

Possible contributing Factors for the development of Mucormycosis among COVID-19 patients

Possible contributing Factors for the development of Mucormycosis among COVID-19 patients

Clinical features and management

Literature review identified 30 publications of case reports and case series of mucormycosis among COVID-19 patients [24–26, 30, 31, 33–37, 40–55]. Of all the reports, 11 publications were from India [24–26, 30–37]. The most commonly reported infection sites were rhino-orbital/rhino-cerebral mucormycosis[24–26, 30, 32–37, 40, 42, 45, 47, 52–54]. Other presentations included pulmonary [31, 41, 43, 44, 49, 51, 55], cutaneous [46], disseminated [56] and gastrointestinal [48] diseases. The reported organisms were Rhizopus spp. [24, 31, 36, 41–44, 47, 49, 51, 55] and the others were reported as unspecified Mucorale [25, 26, 30, 33–35, 37, 40, 45, 48, 50, 52, 54]. The management of mucormycosis is usually difficult and requires urgent medical and surgical debridement while the choice of drug to treat mucormycosis is Amphotericin B [23, 57] and Amphotericin was used in 23 of the included studies [24–26, 30–37, 40–44, 46, 47, 49–54] and surgical debridement was reported in 20 of the included studies [24–26, 30, 32–37, 40, 44–47, 50–54]. The majority of the included patients in this review underwent surgical resection/debridement [24–26, 30, 32–37, 40, 44–47, 50–54].

Outcomes and prognosis

Before the COVID-19 era, mucormycosis is known for its poor prognosis, especially with delayed management may lead to a high mortality rate. There was no difference in the mortality between solid organ transplants and diabetes mellitus with a mortality of about 28%, (2/7 (28.57%) vs 5/18 (27.78%); p = 0.66 in patients with solid organ transplant and diabetes mellitus, respectively) [58]. However, another study showed higher mortality of 49% among diabetes mellitus patients compared to 30% among non-diabetic patients[58]. Morbidity and mortality were linked to the invasive nature of the underlying disease[59]. However, even with COVID-19, early intravenous anti-fungal treatment and surgical debridement were associated with favorable outcomes[26].

Discussion

The etiologic agent of mucormycosis are ubiquitous in nature and thus may easily be acquired, and its global epidemiology has been studied by several investigators, and may pose a threat during ongoing pandemic as has been observed in India [17, 23, 27, 57, 60, 61]. Due to the steep rise in cases of mucormycosis (black fungus infection) amid the second COVID-19 pandemic wave and its association with severe complications and associated higher fatality rate in post COVID-19 patients, this rare disease is now a notifiable disease in India. It is postulated that the use of non-sterile medical supplies might be associated with spore contamination and higher exposure of patients to mucormycosis [62, 63]. As summarized in Tables 1 and 2, most patients had severe COVID-19 pneumonia requiring intensive care, intubation and ventilation. In addition, most patients had underlying diabetes mellitus and received steroids [28, 64, 65]. The presence of diabetes mellitus is a major predisposing factor for mucormycosis as described in a meta-analysis among 600 (70%) of 851 patients with rhino-orbital–cerebral mucormycosis [19]. The presence of diabetes mellitus among patients with COVID-19 was estimated to be 17% in one study [66] and 9% in another study [67]. However, the presence of diabetes mellitus might be higher in other populations and may be more than 50% [4-6]. One meta-analysis showed that diabetes mellitus was associated with an odds ratio (OR) of 2.40 (95% CI 1.98–2.91) for severe disease [68], OR of 1.64 (95% CI 2.30–1.08) in a second meta-analysis [69], and an OR of 2.04, 95% CI 1.67–2.50 in a third meta-analysis [66]. Corticosteroid are currently the only medication that had shown conclusively to be effective in the treatment of COVID-19 in clinical trials therapy [70-72]. The RECOVERY trial utilized dexamethasone at a dose of 6 mg intravenous or oral once a day for treatment of COVID-19 [73]. Systemic steroids could further exaggerate the underlying glycemic control as well as impede the body’s immune system. The use of high dose corticosteroid had been used in patients with COVID-19 disease [74]and the use of such medications required assessment [75]. One study showed that adherence to the use of low dose corticosteroid and good glycemic control were important in having no mucormycosis among 1027 ICU patients despite the use of corticosteroids in 89% and that 40% had diabetes mellitus [76]. The presence of these pre-disposing factors in association with high fungal spore burden in certain localities and communities may set the perfect storm for the development of mucormycosis in patients with COVID-19 patients.
Table 1

Summary of clinical characteristics of the included studies of SARS-CoV-2 and mucormycosis co-infections, 2020–2021

Author, year, study locationStudy design, settingAge (years)Male, n (%)Underlying diseasesMechanical ventilation, n (%)Use of systemic corticosteroid therapyRisk factors for mucormycosisHistopathologic identification of an organism with a structure typical of MucoralesMucormycosis classificationaClinical symptoms and signs of mucormycosisDescription of mucormycosis and etiologic agent
Alekseyev et al. (2021), United States [40]Retrospective, case report, single centre411 (100)DiabetesNoYesUncontrolled diabetes, diabetic ketoacidosisNAPutativePeripheral bilateral lung infiltrates with extension into the sinuses and intracranial abscess in the infratemporal fossa with cavernous sinus enhancementRhino-cerebral mucormycosis/Mucorale(unspecified)
Bellanger et al. (2021), France [41]Retrospective, case report, single centre551 (100)LymphomaYesYesHematopoietic cell transplantation, steroid for SARS-CoV-2NAPutativeNon-specific bilateral ground glass opacities with development of pulmonary fibrosisPulmonary mucormycosis/Rhizopus microsporus
Dallalzadeh et al. (2021), United States [42]Retrospective, case reports, single centre482 (100)Diabetes (n = 2)NAYes (n = 2)Uncontrolled diabetes, diabetic ketoacidosisNoDefiniteRight sino-nasal cavity and anterior skull base extending to bilateral frontal lobesRhino-orbital mucormycosis/Rhizopus spp.
Garg et al. (2021), India [31]Retrospective, case report, single centre551 (100)Diabetes, hypertension, coronary artery disease, cardiomyopathy, end-stage renal diseaseYesYesUncontrolled diabetes, steroid for SARS-CoV-2NoPutativeCough, expectoration, and burning micturition. A thick-walled cavity in the right upper lobe was confirmedPulmonary mucormycosis/Rhizopus microsporus
Hanley et al. (2020), United Kingdom [56]Retrospective, case series, multi-centre227 (70)PancreatitisYesYesSteroid for SARS-CoV-2YesDefinite (post-mortem)NADisseminated (involving the hilar lymph nodes, heart, brain, and kidney)/Mucorale (unspecified)
Johnson et al. (2021), United States [43]Retrospective, case report, single centre791 (100)Diabetes, hypertensionYesYesDiabetes, steroid for SARS-CoV-2YesProbableBilateral ground-glass opacities and infiltrates; then extensive bilateral pneumonia and new development of bilateral upper lobe cavitations were revealedPulmonary mucormycosis/Rhizopus arrhizus
Kanwar et al. (2021), United States [44]Retrospective, case report, single centre561 (100)End-stage renal disease (hemodialysis)YesYesNAYesDefinitePatchy ground glass infiltrates with pleural effusion with an increased area of density concerning for bloodPulmonary mucormycosis/Rhizopus azygosporus
Karimi‐Galougahi et al. (2021), Iran [45]Retrospective, case report, single centre610 (0)Diabetes0 (0)YesUncontrolled diabetes, steroid for SARS-CoV-2YesDefiniteRight hemifacial pain and numbness, decreased visual acuity, chemosis, proptosis, frozen eye, complete loss of vision, and fixed mydriasisRhino-orbital mucormycosis/Mucorale (unspecified)
Khatri et al. (2021), United States [46]Retrospective, case report, single centre681 (100)Diabetes, hypertension, coronary artery disease, OSA, renal failureYesYesDiabetes, hypertension, solid organ transplantationYesDefinitePurplish skin discoloration with fluctuant swelling was noted in the right axilla, at the prior IABP catheter insertion siteCutaneous mucormycosis/Rhizopus microsporus
Maini et al. (2021), India [32]Retrospective, case report, single centre381 (100)NoneNoYesSteroid for SARS-CoV-2YesDefinitePatient developed chemosis and pain in the left eyeSino-orbital mucormycosis/Rhizopusoryzae
Mehta et al. (2020), India [33]Retrospective, case report, single centre601 (100)Diabetes1 (100)YesUncontrolled diabetes, steroid for SARS-CoV-2YesDefiniteUnilateral facial swelling, unilateral periorbital facial pain, eyelid oedema, ptosis, proptosis, right orbital cellulitis, acute vision lossRhino-orbital-cerebral mucormycosis/Mucorale (unspecified)
Mekonnen et al. (2021), United States [47]Retrospective, case report, single centre601 (100)Diabetes, asthma, hypertension, hyperlipidaemiaYesYesUncontrolled diabetes, steroid for SARS-CoV-2YesDefiniteRight globe proptosis, oedema of the eyelids and conjunctival chemosis. extensive opacification of right maxillary, ethmoid, and frontal sinusesRhino-orbital mucormycosis/Rhizopus spp.
Monte Junior et al. (2020), Brazil [48]Retrospective, case report, single centre861 (100)HypertensionYesYesSteroid for SARS-CoV-2YesDefiniteGastric ulcers, acute diarrhea, melena, severe anemia, and feverGastrointestinal mucormycosis/Mucorale (unspecified)
Moorthy et al. (2021), India [30]Retrospective, case series, multi-centreMedian (IQR), 55.5 (48–63)15 (83.3)Diabetes (n = 16)NAYes (n = 16)Uncontrolled diabetes (n = 6), steroid for SARS-CoV-2 (n = 16)YesDefinite (n = 17)Patients presented with one or more of the following symptoms: facial cellulitis, maxillary sinusitis, headache, necrosis of palatal bone/mucosa or acute loss of visionSinusitis alone (n = 3), Rhino-orbital (n = 6), Rhino-orbital-cerebral (n = 5), Rhino-cerebral (n = 3)/Mucorale (unspecified)
Pasero et al. (2020), Italy [49]Retrospective, case report, single centre661 (100)HypertensionYesNoLymphopeniaYesPutativePulmonary infiltrates with an increase of parenchymal thickening of the whole left lung, cavitary lesions in left lung and pleural effusion, opacification of the left maxillary sinusPulmonary mucormycosis/Rhizopus spp.
Pauli et al. (2021), Brazil [50]Retrospective, case report, single centre500 (0)DiabetesNANoUncontrolled diabetesYesDefiniteUlcerated lesion with coagulative necrosis, hemorrhage, and abundant neutrophilsPalatal ulcer/Mucorale (unspecified)
Placik et al. (2020), United States [51]Retrospective, case report, single centre491 (100)NoneYesYesSteroid for SARS-CoV-2YesDefiniteRight pneumothorax, bronchopulmonary fistula, necrotic empyemaPulmonary mucormycosis/Rhizopus spp.
Rao et al. (2021), India [34]Retrospective, case report, single centre661 (100)DiabetesNoYesUncontrolled diabetes, steroid for SARS-CoV-2YesDefinitePeriorbital pain followed by sudden onset of vision loss in the left eyeRhino‑orbital mucormycosis/Mucorale (unspecified)
Ravani et al. (2021), India [35]Retrospective, case series, single centreMean, 56.3NADiabetes (n = 19); plus, other comorbidities (hypertension/ischemic heart disease/kidney disease)NAYesUncontrolled diabetes, steroid for SARS-CoV-2NANAThe most common presentation was diminution of vision (< 6/60 in 80.64% patients) and ophthalmoplegia (77.4%). The most common imaging findings were orbital cellulitis (61.29%) and pansinusitis (77.4%)Rhino‑orbital mucormycosis/Mucorale (unspecified)
Revannavar et al. (2021), India [36]Retrospective, case report, single centreNA0 (0)DiabetesNoNoUncontrolled diabetesYesDefinitePatient presented with left-sided facial pain, complete ptosisRhino‑orbital mucormycosis/Rhizopus spp.
Saldanha et al. (2021), India [37]Retrospective, case report, single centre320 (0)DiabetesNoNoUncontrolled diabetesYesDefinitePatient presented with left eye complete ptosis and left facial painSino-orbital mucormycosis/Mucorale (unspecified)
Sarkar et al. (2021), India [24]Retrospective, case series, multi-centreMedian (IQR), 46.5 (30.7–59.7)8 (80)Diabetes (n = 10)Yes (n = 9)Yes (n = 10)Diabetic ketoacidosis (n = 9)NADefinite (n = 4), probable (n = 2)NARhino-orbital (n = 5), Rhino-orbital-cerebral (n = 1)/Rhizopus (n = 4), Mucor (n = 2)
Sen et al. (2021), India [25]Retrospective, case series, multi-centreMedian (IQR), 61.4 (46.8–73.1)6 (100)Diabetes (n = 5), hypertension (n = 1), coronary artery disease (n = 1)NAAll patients received systemic corticosteroids for SARS-CoV-2 except for one patientUncontrolled diabetes (n = 3), steroid for SARS-CoV-2 (n = 5), diabetic ketoacidosis (n = 2)YesDefinite (n = 5), probable (n = 1)All patients complained of pain, redness, and periocular swelling as initial symptoms. This was followed by acute, progressive, drooping of eyelids, limitation of ocular movements, and painful loss of visionRhino-orbital-cerebral mucormycosis/Mucorale (unspecified)
Sharma et al. (2021), India [26]Prospective, case series, single centreNA15 (65.2)Diabetes (n = 21), hypertension (n = 14), renal failure (n = 1)NAYes (n = 23)Uncontrolled diabetes (n = 12)NoNAIntra-orbital extension was seen in 43.47% of cases, while intracranial extension was only seen in 8.69%Intra-orbital (n = 10), intra-cranial (n = 2) and palatal (n = 1)
Veisi et al. (2021), Iran [52]Retrospective, case reports, single centre40 (Case 1) and 54 (Case 2)1 (50)

None (Case 1)

Diabetes (Case 2)

NoYes (n = 2)Diabetes (n = 1), steroid for SARS-CoV-2 (n = 2)Yes (n = 2)Definite

Bilateral visual loss and periorbital pain with complete blepharoptosis and ophthalmoplegia together with mild proptosis (Case 1)

Left orbital pain and periorbital swelling together with progressive vision loss (Case 2)

Rhino-orbital (n = 1) and/or rhino-orbito-cerebral (n = 1) mucormycosis/Mucorale (unspecified)
Waizel-Haiat et al. (2021), Mexico [53]Retrospective, case report, single centre240 (0)DiabetesYesNAUncontrolled diabetes, diabetic ketoacidosisNoProbableSevere left lid edema with extension to the upper lip and malar region, left proptosis with a hyperemic conjunctiva, and an opaque corneaRhino-orbital mucormycosis/Lichteimia (Absidia) spp.
Werthman-Ehrenreich et al. (2021), United States [54]Retrospective, case report, single centre330 (0)Diabetes, asthma, hypertensionNANoDiabetic ketoacidosisNADefiniteNecrotic palate, necrotic nasal, left eye ptosis, altered mental status, ophthalmoplegia proptosisRhino-orbital-cerebral mucormycosis/Mucorale(unspecified)
Zurl et al. (2021), Austria [55]Retrospective, case report, single centre531 (100)Myelodysplastic syndrome, acute myeloid leukemiaYesYesIntensive chemotherapy (neutropenia), steroid for SARS-CoV-2 (n = 5)YesDefinite (post-mortem)Increase of bilateral infiltrates and the patient developed severe ARDSPulmonary mucormycosis/Rhizopus microspores
Pakdel et al.; (2021), [78]Cross-sectional descriptive multicenter studyMedian 52 years (range 14–71)15 and 9 (66%) male86% diabetes mellitusNA7 (46.6%)Diabetes and SteroidYesDefiniteVariableRhino-orbital
Singh et al. (2021); India [79]Case report481 MNoneNoNoNAYesDefiniteAbdominal pain, nausea, vomitingGastrointestinal mucormycosis
Arjun et al. (2021); India [80]Case series53.0 ± 12.1 years10 cases (80%)30% had coronary artery diseaseNAYes in 80%CorticosteroidYesDefiniteHeadache and facial painRhino-orbital
Saidha et al. (2021); India [81]Case series476 cases (66%)Diabetes MellitusNAIn 1 patientDiabetes MellitusYesDefiniteHeadache and facial painParanasal sinusitis
Jain et al. (2021); India [82]Case report57FemaleDiabetes MellitusNoYesDiabetes MellitusYesDefiniteAbdominal pain, nausea, vomitingAbdominal
Baskar et al. (2021); India [83]Case report28MaleNoneNoNoNoneYesDefiniteAcute loss of visionRhino-orbital
Joshi et al. (2021), India [84]Case series55.2 ± 13 years16 men, 9 women22 had DM; 2 HIV20 (80%)Yes6 (27%)Yes (n = 10)Radiographic and histopathology in selected patientsVariableRhino-orbito-cerebral
Sen et al. (2021); India [85]Case seriesMean age 51.9 years2826 patients; male 71%Diabetes mellitus 78%NA87%Diabetes and SteroidNADefiniteVariablesNA; rhino-orbital-cerebral mucormycosis

ARDS acute respiratory distress syndrome, IABP intra-aortic balloon pump, NA not available, spp. species, SARS-CoV-2 severe acute respiratory syndrome coronavirus 2, OSA obstructive sleep apnea

aDefinite—if histopathologic, cytopathologic or direct microscopic examination of a specimen obtained by needle aspiration or biopsy in which hyphae or melanized yeast-like forms were seen accompanied by evidence of associated tissue damage OR Recovery of a hyaline or pigmented mold by culture of a specimen obtained by a sterile procedure from a normally sterile and clinically or radiologically abnormal site consistent with an infectious disease process, excluding BAL fluid, a paranasal or mastoid sinus cavity specimen, and urine OR Blood culture that yielded a mold (e.g., Fusarium species) in the context of a compatible infectious disease process OR Amplification of fungal DNA by PCR combined with DNA sequencing when molds were seen in formalin-fixed paraffin-embedded tissue. Probable—concluded as the presence of combined host factors and clinical criterion with mycological evidence and if only the criteria for a host factor and a clinical criterion were met but mycological criteria were absent, possible mucormycosis was diagnosed. Putative—if none of the criteria were met but Mucor is attributed as a pathogen and patient was treated for it

Table 2

Summary of therapy and outcome of mucormycosis among SARS-CoV-2 infected patients

Author, year, study locationTime between diagnosis of SARS-CoV-2 and mucormycosis (days)Surgical debridement madeAntifungal treatmentTreatment outcome
Alekseyev et al. (2021), United States [40]NAYesAmphotericin BSurvived
Bellanger et al. (2021), France [41]15NAAmphotericin BDied
Dallalzadeh et al. (2021), United States [42]6NoAmphotericin B, isavuconazoleDied (n = 2)
Garg et al. (2021), India [31]17Scheduled for right upper lobectomyAmphotericin BSurvived
Hanley et al. (2020), United Kingdom [56]NANoNoDied
Johnson et al. (2021), United States [43]NANAAmphotericin B, voriconazoleDischarged
Kanwar et al. (2021), United States [44]16YesAmphotericin BDied
Karimi‐Galougahi et al. (2021), Iran [45]21YesSystemic antifungals (Unspecified)Survived
Khatri et al. (2021), United States [46]90YesAmphotericin B, posaconazoleDied
Maini et al. (2021), India [32]18YesAmphotericin B, fluconazoleSurvived
Mehta et al. (2020), India [33]10YesAmphotericin BDied
Mekonnen et al. (2021), United States [47]7YesAmphotericin B, caspofungin, posaconazole;Died
Monte Junior et al. (2020), Brazil [48]5NoNoDied
Moorthy et al. (2021), India [30]NAYes (n = 7)Amphotericin BSurvived (n = 11),died (n = 6) and lost to follow-up (n = 1)
Pasero et al. (2020), Italy [49]17NoAmphotericin B, isavuconazoleDied
Pauli et al. (2021), Brazil [50]8YesAmphotericin BSurvived
Placik et al. (2020), United States [51]14YesAmphotericin BDied
Rao et al. (2021), India [34]NAYesAmphotericin BSurvived
Ravani et al. (2021), India [35]NAYes (n = 19)Amphotericin B (n = 19)Survived (n = 18), died (n = 1)
Revannavar et al. (2021), India [36]NAYesAmphotericin BSurvived
Saldanha et al. (2021), India [37]NAYesAmphotericin BSurvived
Sarkar et al. (2021), India [24]NAYesAmphotericin BImproved (n = 1), died (n = 4), unchanged (n = 4), exenteration (n = 1)
Sen et al. (2021), India [25]Mean ± SD (minimum–maximum), 15.6 ± 9.6 (3–42)YesAmphotericin B, voriconazole/posaconazole (n = 5)Survived (n = 5)
Sharma et al. (2021), India [26]NAYesAmphotericin BSurvived (n = 23)
Veisi et al. (2021), Iran [52]8 (Case 1) and 7 (Case 2)Yes (n = 2)Amphotericin B (n = 2)Died (Case 1) and discharged (Case 2)
Waizel-Haiat et al. (2021), Mexico [53]6YesAmphotericin BDied
Werthman-Ehrenreich et al. (2021), United States [54]2YesAmphotericin BDied
Zurl et al. (2021), Austria [55]NANoNoneDied
Pakdel et al.; (2021), Iran [78]1–3733%6 (40%) combined antifungal7 (47%) died
Singh et al. (2021); India [79]19YesLiposomal amphotericin BRecovered
Arjun et al. (2021); India [80]17.0 ± 3.6YesAmphotericin B deoxycholate and isavuconazole10% died
Saidha et al. (2021); India [81]NAYesAmphotericinRecovered
Jain et al. (2021); India [82]15YesNARecovered
Baskar et al. (2021); India [83]On diagnosisYesAmphotericinRecovered
Joshi et al. (2021), India [84]Not indicatedyes in 10 (45%)Amphotericin14 (63%) died
Sen et al. (2021); India [85]10–1556% had functional endoscopic sinus surgery (FESS)/paranasal sinus (PNS) debridement, 15% orbital exenteration in 15%, 17% both FESS/PNS debridement and orbital exenterationAmphotericin B in 73%Mortality 14%
Summary of clinical characteristics of the included studies of SARS-CoV-2 and mucormycosis co-infections, 2020–2021 None (Case 1) Diabetes (Case 2) Bilateral visual loss and periorbital pain with complete blepharoptosis and ophthalmoplegia together with mild proptosis (Case 1) Left orbital pain and periorbital swelling together with progressive vision loss (Case 2) ARDS acute respiratory distress syndrome, IABP intra-aortic balloon pump, NA not available, spp. species, SARS-CoV-2 severe acute respiratory syndrome coronavirus 2, OSA obstructive sleep apnea aDefinite—if histopathologic, cytopathologic or direct microscopic examination of a specimen obtained by needle aspiration or biopsy in which hyphae or melanized yeast-like forms were seen accompanied by evidence of associated tissue damage OR Recovery of a hyaline or pigmented mold by culture of a specimen obtained by a sterile procedure from a normally sterile and clinically or radiologically abnormal site consistent with an infectious disease process, excluding BAL fluid, a paranasal or mastoid sinus cavity specimen, and urine OR Blood culture that yielded a mold (e.g., Fusarium species) in the context of a compatible infectious disease process OR Amplification of fungal DNA by PCR combined with DNA sequencing when molds were seen in formalin-fixed paraffin-embedded tissue. Probable—concluded as the presence of combined host factors and clinical criterion with mycological evidence and if only the criteria for a host factor and a clinical criterion were met but mycological criteria were absent, possible mucormycosis was diagnosed. Putative—if none of the criteria were met but Mucor is attributed as a pathogen and patient was treated for it Summary of therapy and outcome of mucormycosis among SARS-CoV-2 infected patients The outcome was favorable for patients who had surgical debridement in three case series [25, 26, 35]. With the ongoing COVID-19 pandemic and increasing number of critically ill patients infected with SARS-CoV-2, it is important to develop a risk-based approach for patients at risk of mucormycosis based on the epidemiological burden of mucormycosis, prevalence of diabetes mellitus, COVID-19 disease severity and use of immune modulating agents including the combined use of steroids and immunosuppressive agents in patients with cancer and transplants. A suggested approach for aspergillosis in COVID-19 was developed [77] and a similar approach is needed for mucormycosis in SARS-CoV-2 infected patients. Whether a mold prophylaxis is required in high-risk patients need further studies. Early diagnosis of cases of mucormycosis, timely treatment with prescribed drugs and surgical operations, checking glycemic levels and judicious use of corticosteroids in patients with COVID-19 along with adopting appropriate hygienic and sanitization measures would aid in limiting the rising cases of this fungal infection. In-depth studies are required to investigate how COVID-19 is triggering mucormycosis infections in patients and why mainly most cases are being reported from India as compared to other countries amidst second wave of ongoing pandemic.
  82 in total

1.  A Comparative Analysis of Mucormycosis in Immunosuppressed Hosts Including Patients with Uncontrolled Diabetes in the Southwest United States.

Authors:  Mohanad Al-Obaidi; Babak Youssefi; James Bardwell; Rory Bouzigard; Christopher H Le; Tirdad T Zangeneh
Journal:  Am J Med       Date:  2021-05-08       Impact factor: 4.965

2.  Covid-19: India sees record deaths as "black fungus" spreads fear.

Authors:  Owen Dyer
Journal:  BMJ       Date:  2021-05-13

3.  Epidemiology, clinical features, diagnosis and treatment of cerebral mucormycosis in diabetic patients: A systematic review of case reports and case series.

Authors:  Zahra Chegini; Mojtaba Didehdar; Amin Khoshbayan; Shahin Rajaeih; Mohammadreza Salehi; Aref Shariati
Journal:  Mycoses       Date:  2020-10-03       Impact factor: 4.377

Review 4.  COVID-19 Associated Pulmonary Aspergillosis (CAPA)-From Immunology to Treatment.

Authors:  Amir Arastehfar; Agostinho Carvalho; Frank L van de Veerdonk; Jeffrey D Jenks; Philipp Koehler; Robert Krause; Oliver A Cornely; David S Perlin; Cornelia Lass-Flörl; Martin Hoenigl
Journal:  J Fungi (Basel)       Date:  2020-06-24

5.  Prevalence and fatality rates of COVID-19: What are the reasons for the wide variations worldwide?

Authors:  Jaffar A Al-Tawfiq; Roberto Leonardi; Gino Fasoli; Daniele Rigamonti
Journal:  Travel Med Infect Dis       Date:  2020-04-29       Impact factor: 6.211

6.  COVID-19 and Mucormycosis of the Craniofacial skeleton: Causal, Contributory or Coincidental?

Authors:  Dinesh Kumar Verma; Rishi Kumar Bali
Journal:  J Maxillofac Oral Surg       Date:  2021-03-27

7.  Post coronavirus disease mucormycosis: a deadly addition to the pandemic spectrum.

Authors:  S Sharma; M Grover; S Bhargava; S Samdani; T Kataria
Journal:  J Laryngol Otol       Date:  2021-04-08       Impact factor: 1.469

8.  Rare case of gastrointestinal mucormycosis with colonic perforation in an immunocompetent patient with COVID-19.

Authors:  Ravinder Pal Singh; Nishkarsh Gupta; Tanudeep Kaur; Anju Gupta
Journal:  BMJ Case Rep       Date:  2021-07-02

9.  Dexamethasone in Hospitalized Patients with Covid-19.

Authors:  Peter Horby; Wei Shen Lim; Jonathan R Emberson; Marion Mafham; Jennifer L Bell; Louise Linsell; Natalie Staplin; Christopher Brightling; Andrew Ustianowski; Einas Elmahi; Benjamin Prudon; Christopher Green; Timothy Felton; David Chadwick; Kanchan Rege; Christopher Fegan; Lucy C Chappell; Saul N Faust; Thomas Jaki; Katie Jeffery; Alan Montgomery; Kathryn Rowan; Edmund Juszczak; J Kenneth Baillie; Richard Haynes; Martin J Landray
Journal:  N Engl J Med       Date:  2020-07-17       Impact factor: 91.245

10.  Prevalence of comorbidity in Chinese patients with COVID-19: systematic review and meta-analysis of risk factors.

Authors:  Tingxuan Yin; Yuanjun Li; Ying Ying; Zhijun Luo
Journal:  BMC Infect Dis       Date:  2021-02-22       Impact factor: 3.090

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  30 in total

1.  Histomorphological features of mucormycosis with rise and fall of COVID-19 pandemic.

Authors:  Nidhya Ganesan; Shanthakumari Sivanandam
Journal:  Pathol Res Pract       Date:  2022-06-17       Impact factor: 3.309

2.  COVID-19-associated rhino-orbital-cerebral mucormycosis: A systematic review, meta-analysis, and meta-regression analysis.

Authors:  Anusuya Bhattacharyya; Phulen Sarma; Hardeep Kaur; Subodh Kumar; Jaimini Bhattacharyya; Manisha Prajapat; Ajay Prakash; Saurabh Sharma; Dibbanti Harikrishna Reddy; Prasad Thota; Seema Bansal; Bhaswati Sharma Gautam; Bikash Medhi
Journal:  Indian J Pharmacol       Date:  2021 Nov-Dec       Impact factor: 1.200

3.  Postoperative clinical nursing care pathway for patients with mucormycosis: An experience from a tertiary care hospital in Rajasthan, India.

Authors:  Nipin Kalal; Suresh K Sharma; Kapil Soni
Journal:  Nepal J Epidemiol       Date:  2021-12-31

4.  From black to white: A roadmap to containing the rise of candidiasis amidst COVID-19 and mucormycosis in India.

Authors:  Faisal A Nawaz; Sadia Yaqoob; Abhishek Sharma; Abdul Rahman Khan; Sudhan Rackimuthu; Behram Khan Ghazi; Uzzam Ahmed Khawaja; Mohammad Yasir Essar
Journal:  Clin Epidemiol Glob Health       Date:  2021-12-01

5.  Endovascular Management of Mucormycotic Aneurysms of the Internal Carotid Artery in Post-COVID-19 Patients.

Authors:  Sibasankar Dalai; Aravind Varma Datla; Abhilash A Francis; Naveen K Dannana; Hameed Parappil
Journal:  Cureus       Date:  2021-12-29

6.  Prosthetic Rehabilitation of Rhino Orbital Mucormycosis Associated with COVID-19: A Case Series.

Authors:  M B Ravi; Sowmya Srinivas; Ekaterina Silina; Soumee Sengupta; Tanvi Tekwani; Raghu Ram Achar
Journal:  Clin Cosmet Investig Dent       Date:  2022-01-06

7.  Epidemiological Mucormycosis treatment and diagnosis challenges using the adaptive properties of computer vision techniques based approach: a review.

Authors:  Harekrishna Kumar
Journal:  Multimed Tools Appl       Date:  2022-02-25       Impact factor: 2.577

8.  Complete and incomplete lower motor neuron facial palsy in post-COVID-19 mucormycosis.

Authors:  Manushree Gautam; Meenal Soni; Vijay Bhaisare; Preeti Rawat; Shweta Walia; Neetu Kori
Journal:  Indian J Ophthalmol       Date:  2022-04       Impact factor: 2.969

Review 9.  Fungal Infections Other Than Invasive Aspergillosis in COVID-19 Patients.

Authors:  Kerri Basile; Catriona Halliday; Jen Kok; Sharon C-A Chen
Journal:  J Fungi (Basel)       Date:  2022-01-06

10.  COVID-19-associated Pulmonary Cryptococcosis: A Rare Case Presentation.

Authors:  Smita Sharma; Gyanendra Agrawal; Suryasnata Das
Journal:  Indian J Crit Care Med       Date:  2022-01
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