- Case report
- Open Access
Ebola virus disease complicated with viral interstitial pneumonia: a case report
BMC Infectious Diseases volume 15, Article number: 432 (2015)
In the current Ebola epidemic in Western Africa, many healthcare workers have become infected. Some of these have been medically evacuated to hospitals in Europe and the USA. These clinical experiences provide unique insights into the course of Ebola virus disease under optimized condition within high level isolation units.
A 50-year-old Caucasian male physician contracted Ebola virus diseases in Sierra Leone and was medically evacuated to Italy. Few days after the admission the course of the illness was characterized by severe gastro-intestinal symptoms followed by respiratory failure, accompanied by pulmonary infiltration and high Ebola viral load in the bronchial aspirate and Plasmodium vivax co-infection. The patient received experimental antiviral therapy with favipiravir, convalescent plasma and ZMAb. Ebola viral load started to steadily decrease in the blood after ZMAb administration and became undetectable by day 19 after admission, while it persisted longer in urine samples. No temporal association was observed between viral load decay in plasma and administration of favipiravir. The patient completely recovered and was discharged 39 days after admission.
This is the first case of Ebola-related interstitial pneumonia documented by molecular testing of lung fluid specimens. This reports underlines the pivotal role of fluid replacement and advanced life support with mechanical ventilation in the management of patients with Ebola virus diseases respiratory failure. Beside our finding indicates a close temporal association between administration of cZMAb and Ebola virus clearance from blood.
Since December 2013, the Ebola virus (EBOV) Makona variant has been gripping Western Africa . Over this time the epidemic has exponentially grown and has moved to Europe and North America, with several imported cases and even few clusters of local transmission [2, 3]. An unprecedented number of healthcare workers (HCWs) from different countries have been infected, some of whom died . In total 26 cases of Ebola virus diseases (EVD), 4 of which fatal , have been treated in Europe [6–8] and North America [9, 10] since the beginning of the outbreak.
Hereby we describe the successful management of a 50-year-old Italian male physician who contracted Ebola virus disease (EVD) while working in an Ebola Treatment Unit in Sierra Leone. The course of infection was complicated by respiratory failure and Plasmodium vivax (P. vivax) co-infection.
A 50-year-old male physician contracted Ebola virus disease (EVD) while working in Sierra Leone. He had joined the Ebola treatment center on September 2014 and on November 20, he developed a single episode of vomiting, diarrhea and fever (37.5 °C). He had no history of previous malaria episode and a malaria antigen rapid test was negative. On November 24 he started artemisinine combined therapy, despite the negative rapid test for malaria. On this same day he tested positive to a molecular assay for Ebola virus (EBOV) and was medically evacuated to the Lazzaro Spallanzani National Institute for Infectious Diseases in Rome, by an Italian military flight . At arrival (November 25) he was febrile and complained with severe fatigue but self-sufficient. He was admitted to a medical high level isolation unit specifically devoted for caring for patients with highly infectious diseases .
Table 1 reports patient’s signs and symptoms timeline. Figures 1, 2 and 3 reports EBOV viral load, blood counts and clinical chemistry, respectively. A detailed description of all laboratory assays is reported in Additional file 1. The timeline of patient’s clinical course is reported in Additional file 2.
Clinical findings during hospital stay
Admission in medical isolation unit
The patient remained in the medical isolation unit between November 25 and December 4, 2014. Patients’ clinical presentation was dominated by fever and gastrointestinal symptoms. At arrival he received fluid therapy, empiric antibiotic therapy and favipiravir. On November 26, therapy with convalescent plasma from one survivor of the present EBOV outbreak was given, the administration was followed by retrosternal chest pain, high fever, chills and low oxygen saturation resolving after hydrocortisone and clorfenamine administration. On November 28, a measles-like rash appeared on head, trunk and limbs and was accompanied by nausea and vomiting. On November 29, alanine amino transferase (ALT) concentration suddenly increased, while renal function and coagulation remained normal. Then we decided to suspend favivpiravir administration. November 30, the patient underwent a second administration of convalescent plasma from a different donor. Eventually patient received melanocortin  (a peptide for controlling “cytokine storms” and preventing vascular leakage syndrome) and steroids. The following day respiratory function gradually worsened and chest X-rays performed on December 2 showed bilateral interstitial pulmonary infiltrates (Fig. 4). On December 3, the patient received ZMAb [14, 15] a mixture of monoclonal antibody against EBOV glycoprotein. The administration was followed by a sharp reduction of the EBOV blood level. The same day due to progressive onset of severe respiratory failure the patient was moved to the intensive care unit (ICU).
Admission in ICU
The patient was cared for in the ICU between December 4 and 11. This unit meets requirement for high level bio-containment [12, 16]. Soon after admission, he underwent mechanical ventilation and a three-way central venous catheter (CVC) was inserted into the right internal jugular vein. A urinary catheter and a naso-gastric tube were also inserted.
While intubated, the patient underwent lung ultrasounds (Nanomaxx Sonosite®) according to Bedside Lung Ultrasound in Emergency (BLUE) protocol . Pleural effusion and pneumothorax were ruled out, but the presence of up to four B-lines in all the standard points suggested a significant lung interstitial involvement. A progressive bilateral reduction in the number of B-lines, initially in the upper and lower BLUE points, and later in the posterolateral alveolar or pleural syndromes point, was observed during the ICU stay.
On December 5, he received a second dose of ZMAb followed by a second sharp decrease of EBOV viremia. On December 6, due to severe non-bloody diarrhea, a rectal fecal collector (Flexiseal® ConvaTec) was placed. On December 7, due to persisting fever another malaria test (PCR) was performed which yielded a positive results for P. vivax infection. Therefore anti-malaria therapy was started. On December 9, the patient underwent a bronchial aspirate; PCR on bronchial aspirate fluids evidenced a viral load of 6.88 Log copies of EBOV RNA/ml. All PCRs for other viral and bacterial respiratory pathogens were negative (see Additional file 1). On December 10, the patient was extubated and moved to the medical isolation unit one day later.
Recovery and discharge
After readmission to the medical isolation unit the clinical conditions gradually improved. On December 11, all antimicrobials were suspended considering the improvement of general conditions and persistent lack of positive cultural and molecular test for bacteria and fungi (Additional file 1). Since December 14 fever completely disappeared. On December 17, CVC, urinary catheter and rectal fecal collector were also removed. On December 21, the patient completely recovered.
A progressive increase of the anti-EBOV IgM titer was observed from December 11, reaching a peak of 1:160 on December 25. The anti-EBOV IgG titer was stably at 1:160 until December 25, presumably as the result of convalescent plasma administration, and eventually increased until discharge. The patients was discharged on January 2 after that two consecutive negative EBOV PCR assay results from blood, urine, sweat (axillary swab) and stool were obtained (see Fig. 1).
General supportive therapy
The patient received 4-5 L/day of intravenous hydration with crystalloid solution since admission for 18 days. The amount and composition of the solution were based on the daily plasma determination of electrolytes, venous pH and daily fluid output. Between November 28 and December 4, he received parenteral nutrition and, eventually, enteral nutrition between December 5 and 11 (approximately 2000 kCal/day). Between December 4 and 11, he received norepinephrine (0.05 mcg/kg/min) and furosemide (20 mg tid).
The patient received empiric antibiotic treatment for 18 days since admission. On November 25, he started ceftriaxone (2000 mg daily) and oral levofloxacin (500 mg bid). On November 28, ceftriaxone and levofloxacin were stopped due to the onset of severe diarrhea and increase of liver enzymes. Meropenem (1000 mg tid i.v.) plus metronidazole (500 mg qid i.v.) were started. On December 4, due to the persistence of fever and diarrhea, meropenem and metronidazole were discontinued and anidulafungin (200 mg as a loading dose and then 100 mg daily i.v.), piperacillin/tazobactam (4500 mg qid i.v.), linezolid (600 mg bid i.v.) and oral vancomycin (125 mg qid) were started. Oral vancomycin was discontinued after a negative Clostridium difficile PCR assay on stools. On December 9, piperacillin/tazobactam and linezolid were discontinued, and metronidazole (500 mg qid i.v.) was started.
Anti-malarial therapy with chloroquine (600 mg time 0 and then 300 mg after 6, 24 and 48 h) was given through a nasogastric tube. Primaquine was prescribed for future use after G6PDH determination following discharge.
Melanocortin (TCS 10)  was administered to prevent plasma leakage syndrome; two 10 mg i.v. bolus 1 h apart from each other, followed by a 6 h continuous infusion of 50 mg in 60 ml of 0.9 % NaCl solution.
The oral RNA polymerase inhibitor favipiravir [18–20] was administered orally for four days: loading dose in 3 fractionated doses (2400 mg followed by 2400 mg and then 1200 mg), then 1200 mg bid (cumulative dose 9,600 mg).
The first course of convalescent plasma consisted in a 250 ml unit of a compatible blood group plasma to be administered with paracetamol and clorfenamine premedication. Due to insurgence of an adverse reaction oxygen therapy (50 % Fi O2) and 500 mg hydrocortisone plus clorfenamine 10 mg were given i.v. infusion for 2 subsequent days.
The second course of convalescent plasma consisted in a 250 ml unit of a compatible blood group plasma from a different donor that was administered after premedication with paracetamol, clorfenamine and 500 mg metylprednisolone. In this case no adverse reaction was reported.
Monoclonal antibodies were diluted, filtered with a 0.22 μm filter and topped with 0.9 % NaCl solution to a final volume of 1000 ml. After premedication with 1 mg/kg methyl prednisolone, ZMAb was infused in 12-15 h via a peripheral line. No adverse reactions were observed.
We reported the case of a 50-year-old Italian physician with severe EVD due to EBOV Makona variant, complicated with severe interstitial pneumonia and P. vivax co-infection. He received prompt fluid replacement and electrolyte supplementation to prevent volume depletion, metabolic disorders and hypovolemic shock [21, 22]. He was finally discharged in good clinical conditions 39 days after admission.
Upon admission, the patient presented with severe lymphopenia and moderate low platelet count compatible with EBOV infection  and P. vivax co-infection. On day 5 after admission, a sudden and sharp increase of WBC and platelets occurred, likely due to exogenous steroid administration and to melanocortin-induced endogenous glucocorticoid production .
Severe interstitial lung involvement was the main complication. Chest X-rays, lung ultrasounds and the high EBOV RNA concentration in the bronchial aspirate were strongly suggestive of EBOV-related interstitial pneumonia. Other authors reported respiratory failure in EVD possibly due to vascular leakage  and transfusion related acute lung injury (TRALI) . However, we believe that vascular leakage was unlikely in this case because of the lack of both multi-organ involvement and coagulation abnormalities, that characterize vascular leakage syndrome [7, 25]. In addition the presence of high EBOV RNA load in the lower respiratory tract secretions, in the absence of detection of other common respiratory pathogens, supports the hypothesis that EBOV could have directly contributed to the lung damage. In fact, it is unlikely that the EBOV RNA detected in bronchial aspirate fluids could represent a trivial result of spill over from the blood compartment, eventually accompanied by delayed clearance, since the concomitant blood sample showed barely detectable EBOV RNA, and the blood concentration in the previous 3 days was 2.58-3.29 Log lower than the concentration in the bronchial aspirate. The most likely explanation for these findings is that the virus actually replicated into the lower respiratory tract. Noteworthy, direct viral involvement in lung injury has been already suggested in patients who received care in the USA . Moreover, the hypothesis that the EBOV can actually replicate into lungs is supported by a recently published review which collect results of post mortem examinations from 89 cases of fatal filoviral infections in humans (24 of which with EBOV). This analysis provides evidence for viral replication in lungs by demonstrating viral antigens in several lung tissues and the presence of EBOV nucleic acids in resident macrophages . Whether the P. vivax co-infection might have contributed to the lung injury can be hardly ascertained; however, acute respiratory distress syndrome is a frequent clinical feature in the rare circumstance of fatal P.vivax infection .
In our opinion, mechanical ventilation was crucial for survival in our patient because supported respiratory function and prevented muscular exhaustion, which allowed the patient to recover from the acute lung injury. This underlines that prompt access to advanced life support provides a substantial clinical benefit in EVD .
Despite 3 negative malaria antigen assays, the patient eventually tested positive in a PCR assay for P. vivax. Malaria co-infection was recently reported in an EVD patient who received care in the USA . Our experience highlights that malaria antigen assays may offer an incomplete diagnostic picture leading to sub-optimal clinical management. Consequently, patients with EVD returning from areas endemic for malaria should receive empirical malaria treatment if neither molecular or microscopy assays are available or if concerns on malaria are raised.
Our patient also received empirical therapy against bacteria, fungi and intestinal protozoa. Severe bacterial super-infection has already been reported in subjects who received care for EVD in Europe . At present, there is no definitive evidence to predict the actual risk of microbial super-infection in EVD patients. Nevertheless, we feel that the use of anti-infective drugs is a prudent approach. In fact, EVD patients may develop severe infective complications as the consequence of bacteria translocation from the gut , from equipment used for parenteral nutrition  or co-infection with tropical intestinal protozoa .
Our patient received three different experimental antiviral treatment, including favipiravir, convalescent plasma and ZMAb.
Favipiravir was given for 4 days. During this time, the patient experienced worsening of gastrointestinal symptoms, and an increased of ALT and bilirubin levels. This report provides no evidence of any causative association between favipiravir and either potential adverse events or viral load variation. In particular, gastrointestinal and liver abnormalities may be the consequence of P. vivax and EBOV infections. In fact, data from uncontrolled studies in EBOV-confirmed that patients did not report significant hepatic or gastrointestinal toxicity for similar favipiravir dosages but fail in providing any conclusive evidence on drugs efficacy [31, 32].
The two administrations of convalescent plasma were associated with a decrease viral load of 2.10 and 0.80 Log RNA copies/ml, respectively. The adverse event after the first plasma administration may have been due to an immune reaction to factors of the unknown donor and/or the lack of premedication with steroids. The possible influence of such adverse reaction on lung injury cannot be ruled out. Nevertheless, transfusion related acute lung injury (TRALI) could have hardly had a primary role. In fact, TRALI is an acute event which occurs within 6 h after transfusion . In contrast our patients had lung function significantly worsened only since December 3, this is 7 and 3 days after the first and second convalescent plasma transfusion, respectively. Beside the two plasma donors (one of whom was a female) had no history of blood transfusions or previous pregnancies, which reduce possibility of TRALI .
Administration of ZMAb [14, 15] was temporally associated with a sharp and sustained decay of plasma viral load. As the increase of IgM and IgG was observed after the start of viremia decay, it is unlikely that the endogenous antibody response could be responsible for the observed decay of EBOV RNA, although the administration of convalescent plasma is a major confounder. The potential beneficial effect of monoclonal antibody therapy against EVD was reported in a recent experience describing the clinical management of few EVD patients treated with ZMapp (a similar, though not identical compound) [9, 10]. Interestingly, monoclonal antibody therapy against EBOV is one of only two clinical interventions capable of decreasing viral loads and significantly reduce the mortality of non-human primates infected with EBOV in controlled conditions . Although, no causal association between administration of ZMAb and the patient’s outcome can be inferred; in fact, the viral decay load might have been coincidental rather than due to the ZMAb administration.
This report describes the successful management of a patient with severe EVD in a setting with high healthcare standards. Several issues emerge from our experience. Firstly, fluid replacement and advanced life support with mechanical ventilation were pivotal for the patient’s recovery, and in our opinion, all patients with EVD should have access to this level of care. Secondly, it is prudent to start empirical therapy for malaria in the absence of reliable testing, such as PCR assays. Finally, similarly to other individual experiences, we observed a close temporal association between administration of ZMAb and viral load decay, suggesting that clinical and translational research on these new promising molecules should be prioritize.
Written informed consent was obtained from the patient for publication of this Case report and any accompanying images.
The INMI’s Institutional Ethical Board assessed the criteria for access to experimental drugs and invasive procedures, approved informed consent form and analyzed ethical issues and possible solutions to minimize the physical and psychological harm for the patient. The patient signed an informed consent for any single procedure or treatment performed, after thoroughly explanation of reasonably anticipated benefits and potential hazards of intervention.
Emergency Use Authorization for investigational new drugs was issued by the Italian Drug Agency (AIFA), the authority entitled to approve medical agents to be used for therapy of disease when they are not the standard of care or supported by research that proves their safety.
Ebola virus Makona variant
Ebola virus disease
Polymerase chain reaction
- P. vivax :
Alanine amino transferase
Intensive care unit
Central venous catheter
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Dye C. WHO Ebola Response Team. Ebola virus disease in Western Africa--the first 9 months. N Engl J Med. 2015;372(2):189. doi:10.1056/NEJMc1413884. PubMed.
Chevalier MS, Chung W, Smith J, Weil LM, Hughes SM, Joyner SN, et al. Centers for Disease Control and Prevention (CDC). Ebola virus disease cluster in the United States--Dallas County, Texas, 2014. MMWR Morb Mortal Wkly Rep. 2014;63(46):1087–8.
Parra JM, Salmerón OJ, Velasco M. The first case of Ebola virus disease acquired outside Africa. N Engl J Med. 2014;371(25):2439–40. doi:10.1056/NEJMc1412662.
Cohen J. Infectious diseases. When Ebola protection fails. Science. 2014;346(6205):17–8. doi:10.1126/science.346.6205.17.
Health worker critically ill, as Ebola exposures prompt flurry of medical evacuations. Center for Infectious Diseases Research and Policy (CIDRAP) Website. http://www.cidrap.umn.edu/news-perspective/2015/03/health-worker-critically-ill-ebola-exposures-prompt-flurry-medical. Updated March 16, 2015. Accessed on June 5, 2015
Kreuels B, Wichmann D, Emmerich P, Schmidt-Chanasit J, de Heer G, Kluge S, et al. A case of severe Ebola virus infection complicated by gram-negative septicemia. N Engl J Med. 2014;371(25):2394–401. doi:10.1056/NEJMoa1411677.
Wolf T, Kann G, Becker S, Stephan C, Brodt HR, de Leuw P et al Severe Ebola virus disease with vascular leakage and multiorgan failure: treatment of a patient in intensive care. Lancet. 2014. doi:10.1016/S0140-6736(14)62384-9.
Mora-Rillo M, Arsuaga M, Ramírez-Olivencia G, de la Calle F, Borobia AM, et al. Acute respiratory distress syndrome after convalescent plasma use: treatment of a patient with Ebola virus disease contracted in Madrid. Spain Lancet Respir Med. 2015;3(7):554–62. doi:10.1016/S2213-2600(15)00180-0.
Lyon GM, Mehta AK, Varkey JB, Brantly K, Plyler L, McElroy AK, et al. Clinical care of two patients with Ebola virus disease in the United States. N Engl J Med. 2014;371(25):2402–9. doi:10.1056/NEJMoa1409838.
Liddell AM, Davey RT Jr, Mehta AK, Varkey JB, Kraft CS, Tseggay GK et al. Characteristics and Clinical Management of a Cluster of 3 Patients With Ebola Virus Disease, Including the First Domestically Acquired Cases in the United States. Ann Intern Med. 2015. doi:10.7326/M15-0530.
Biselli R, Lastilla M, Arganese F, Ceccarelli N, Tomao E, Manfroni P. The added value of preparedness for aeromedical evacuation of a patient with Ebola. Eur J Intern Med. 2015. doi:10.1016/j.ejim.2015.03.010.
Di Caro A, Puro V, Fusco FM, Capobianchi MR, Lanini S, Lauria FN et al. The added value of long-lasting preparedness for the management of a patient with Ebola. Eur J Intern Med. 2015. doi:10.1016/j.ejim.2015.03.005.
Noera G, Lamarra M, Guarini S, Bertolini A. Survival rate after early treatment for acute type-A aortic dissection with ACTH-(1-24). Lancet. 2001;358(9280):469–70.
Audet J, Wong G, Wang H, Lu G, Gao GF, Kobinger G, et al. Molecular characterization of the monoclonal antibodies composing ZMAb: a protective cocktail against Ebola virus. Sci Rep. 2014;4:6881. doi:10.1038/srep06881.
Qiu X, Wong G, Fernando L, Audet J, Bello A, Strong J et al. MAbs and Ad-vectored IFN-α therapy rescue Ebola-infected nonhuman primates when administered after the detection of viremia and symptoms. Sci Transl Med. 2013;5(207):207ra143. doi:10.1126/scitranslmed.3006605.
Brouqui P, Puro V, Fusco FM, Bannister B, Schilling S, Follin P, et al. Infection control in the management of highly pathogenic infectious diseases: consensus of the European Network of Infectious Disease. Lancet Infect Dis. 2009;9(5):301–11. doi:10.1016/S1473-3099(09)70070-2.
Lichtenstein D, Mezière G. The BLUE points: three standardized points used in the BLUE-protocol for ultrasound assessment of the lung in acute respiratory failure. Crit Ultrasound J. 2011;3:109–10.
De Clercq E. Ebola virus (EBOV) infection: Therapeutic strategies. Biochem Pharmacol. 2015;93(1):1–10. doi:10.1016/j.bcp.2014.11.008.
Mentré F, Taburet AM, Guedj J, Anglaret X, Keïta S, de Lamballerie X et al. Dose regimen of favipiravir for Ebola virus disease. Lancet Infect Dis. 2014. doi:10.1016/S1473-3099(14)71047-3.
Sissoko D, Anglaret X, Malvy D Abdoul, Beavogui H, Gunther S, Shepherd S et al. Favipiravir in patients with Ebola virus disease: early results of the JIKI trial in Guinea. Conference on Retroviruses and Opportunistic Infections: Seattle, WA. February 23–26, 2015. 103-ALB
Falasca L, Agrati C, Petrosillo N, Di Caro A, Capobianchi MR, Ippolito G et al. Molecular mechanisms of Ebola virus pathogenesis: focus on cell death. Cell Death Differ. 2015. doi: 10.1038/cdd.2015.67.
Lamontagne F, Clément C, Fletcher T, Jacob ST, Fischer 2nd WA, Fowler RA, et al. Doing Today's Work Superbly Well - Treating Ebola with Current Tools. N Engl J Med. 2014;371:1565–6.
Gupta M, Spiropoulou C, Rollin PE. Ebola virus infection of human PBMCs causes massive death of macrophages, CD4 and CD8 T cell sub-populations in vitro. Virology. 2007;364(1):45–54.
Catania A. The melanocortin system in leukocyte biology. J Leukoc Biol. 2007;81(2):383–92.
Baluna R, Vitetta ES. Vascular leak syndrome: a side effect of immunotherapy. Immunopharmacology. 1997;37(2-3):117–32.
Martines RB, Ng DL, Greer PW, Rollin PE, Zaki SR. Tissue and cellular tropism, pathology and pathogenesis of Ebola and Marburg viruses. J Pathol. 2015;235(2):153–74. doi:10.1002/path.4456.
Londhe C, Ganeriwal A, deSouza R. Study of clinical profile of acute respiratory distress syndrome and acute lung injury in Plasmodium vivax malaria. J Vector Borne Dis. 2014;51(4):339–42.
Ippolito G, Feldmann H, Lanini S, Vairo F, Di Caro A, Capobianchi MR, et al. Viral hemorrhagic fevers: advancing the level of treatment. BMC Med. 2012;10:31. doi:10.1186/1741-7015-10-31.
Dissanaike S, Shelton M, Warner K, O'Keefe GE. The risk for bloodstream infections is associated with increased parenteral caloric intake in patients receiving parenteral nutrition. Crit Care. 2007;11(5):R114.
Herbinger KH, Fleischmann E, Weber C, Perona P, Löscher T, et al. Epidemiological, clinical, and diagnostic data on intestinal infections with Entamoeba histolytica and Entamoeba dispar among returning travelers. Infection. 2011;39(6):527–35. doi:10.1007/s15010-011-0155-z.
Mentré F, Taburet AM, Guedj J, Anglaret X, Keïta S, de Lamballerie X et al. Dose regimen of favipiravir for Ebola virus disease. Lancet Infect Dis. 2014. doi: 10.1016/S1473-3099(14)71047-3.
Lanini S, Zumla A, Ioannidis JP, Caro AD, Krishna S, Gostin L et al. Are adaptive randomised trials or non-randomised studies the best way to address the Ebola outbreak in west Africa? Lancet Infect Dis. 2015. doi: 10.1016/S1473-3099(15)70106-4.
Toy P, Popovsky MA, Abraham E, Ambruso DR, Holness LG, Kopko PM, et al. National Heart, Lung and Blood Institute Working Group on TRALI. Transfusion-related acute lung injury: definition and review. Crit Care Med. 2005;33(4):721–6.
Qiu X, Audet J, Wong G, Fernando L, Bello A, Pillet S, et al. Sustained protection against Ebola virus infection following treatment of infected nonhuman primates with ZMAb. Sci Rep. 2013;3:3365. doi:10.1038/srep03365.
This work has been supported by grants from Italian Ministry of Health (Ricerca Corrente and Ricerca Finalizzata). Preparedness for diagnostic activities was supported by QUANDHIP and EMLab Projects funded by EU DG SANCO and DEVCO respectively. Preparatory research activities were carried out also in the framework of PREDEMIC project (EU DG RTD).
We gratefully acknowledge the generous assistance and valuable information provided to us by so many persons and Institutions that it is impossible to mention them all in a brief space and main listed in the attachment.
We must, however, express special thanks to all staff of the Institute, who with his skill and commitment has allowed to continue all ordinary activities, also replacing colleagues engaged in the management of the case.
Our sincere thanks to the dedicated staff of the Italian Air Force for their invaluable MEDEVAC of the patient from Sierra Leone.
Finally, we would like to record our deep gratitude to the INMI’s Institutional Ethical Board (IEB) who provided guidance to identify and resolve ethical dilemmas for management of this case (members of IEB are listed in the attachment).
Members of the INMI EBOV Team
Crisis unit: Nicola Petrosillo, Emanuele Nicastri, Francesco Nicola Lauria, Vincenzo Puro, Mario Antonini, Antonio Russo, Maria Rosaria Capobianchi, Antonino Di Caro, Paolo D’Aprile, Antonella Petrecchia, Evangelo Boumis, Marco Gentile, Damiano Travaglini, Silvia Pittalis, Lorena Martini, Concetta Castilletti, Francesco Maria Fusco, Simone Lanini, Andrea Antinori, Giuseppe Ippolito, Valerio Fabio Alberti; Infectious Diseases Physicians: Nicola Petrosillo, Emanuele Nicastri, Nazario Bevilacqua, Evangelo Boumis, Stefania Cicalini, Pierangelo Chinello, Angela Corpolongo, Andrea Mariano, Fabrizio Taglietti, Laura Vincenzi, Telma Azevedo; Intensive Care Physicians: Mario Antonini, Ilaria Caravella, Gabriele Garotto, Luisa Marchioni, Micaela Maritti; Nurses: Gianni Battisti, Alessanda Coppola, Loredana De Marchis, Nicola De Marco, Fabio Di Gianbattista, Mario Guiducci, Daniela Imola, Antonio Marasco, Antonella Marzolini, Alessandro Mercuri, Paola Nieddu, Silvia Ondedei, Maurizio Vescovo, Laura Vitolo; Radiologists: Elisa Busi Rizzi; Hospital pharmacist: Silvia Murachelli; Virologists and microbiologists: Maria Rosaria Capobianchi, Antonino di Caro, Concetta Castilletti, Licia Bordi, Eleonora Lalle, Silvia Meschi, Daniele Lapa, Patrizia Marsella, Francesca Colavita, Roberta Chiappini, Antonio Mazzarelli, Serena Quartu, Chiara Agrati, Fabrizio Carletti, Federica Forbici, Maria Beatrice Valli, Isabella Abbate, Alessandra Amendola, Anna Rosa Garbuglia,Maria Grazia Paglia, Eugenio Bordi, Antonietta Toffoletti; Transport in high biocontainment: Gaetano Battisti, Marco Liguori; Engineering department: Paolo D’Aprile, Raffaella Barbaro; Press Office: Lorella Salce, Daniela Renna, Simona Barbato, Paola Vaccaro, Francesco Bianchini. Additional file 3 reports person and institution involved in the organization and management of the patient.
Gary Kobinger holds a research grant from the Canadian Center for Security Sciences. From the National Institute of Health, in which funds were used to develop monoclonal antibody therapies against Ebola. All other authors declare no conflict of interest.
SL, EN, NP and GI designed the study. NP and SL drafted the manuscript. NP, EN, MRC, ADC, MA, VP, FNL, NM, NS, GPK contributed to the diagnosis and treatment. GI reviewed and supervised the manuscript. All the authors approved the final version of the manuscript.
Additional file 1:
Additional file 2:
Clinical course timeline.
Additional file 3:
Person and institution involved in the organization and management of the patient.
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Petrosillo, N., Nicastri, E., Lanini, S. et al. Ebola virus disease complicated with viral interstitial pneumonia: a case report. BMC Infect Dis 15, 432 (2015). https://doi.org/10.1186/s12879-015-1169-4
- Hemorrhagic fever
- Pneumonia, viral
- Malaria, vivax
- Immunization, passive
- Antibodies, monoclonal
- Fluid therapy
- Life support care
- Hospitals, isolation