Literature DB >> 33876439

Chronic use of renin-angiotensin-aldosterone system blockers and mortality in COVID-19: A multicenter prospective cohort and literature review.

Nathalie Gault1,2, Marina Esposito-Farèse1,3, Matthieu Revest4, Jocelyn Inamo5, André Cabié6, Élisabeth Polard7, Jean-Sébastien Hulot8,9, Jade Ghosn10, Catherine Chirouze11, Laurène Deconinck10, Jean-Luc Diehl12,13, Julien Poissy14, Olivier Epaulard15, Benjamin Lefèvre16,17, Lionel Piroth18, Etienne De Montmollin19,20, Eric Oziol21, Manuel Etienne22, Cédric Laouénan1,2,20, Patrick Rossignol23,24, Dominique Costagliola25, Emmanuelle Vidal-Petiot26,27.   

Abstract

AIMS: The role of renin-angiotensin-aldosterone system (RAAS) blockers on the course of coronavirus disease 2019 (COVID-19) is debated. We assessed the association between chronic use of RAAS blockers and mortality among inpatients with COVID-19 and explored reasons for discrepancies in the literature. METHODS AND
RESULTS: We included adult hypertensive patients from a prospective nationwide cohort of 3512 inpatients with COVID-19 up to June 30, 2020. Cox proportional hazard models with various adjustment or propensity weighting methods were used to estimate the hazard ratios (HR) of 30-day mortality for chronic users versus non-users of RAAS blockers. We analyzed data of 1160 hypertensive patients: 719 (62%) were male and 777 (67%) were older than 65 years. The main comorbidities were diabetes (n = 416, 36%), chronic cardiac disease (n = 401, 35%), and obesity (n = 340, 29%); 705 (61%) received oxygen therapy. We recorded 135 (11.6%) deaths within 30 days of diagnosis. We found no association between chronic use of RAAS blockers and mortality (unadjusted HR = 1.13, 95% CI [0.8-1.6]; propensity inverse probability treatment weighted HR = 1.09 [0.86-1.39]; propensity standardized mortality ratio weighted HR = 1.08 [0.79-1.47]). Our comprehensive review of previous studies highlighted that significant associations were mostly found in unrestricted populations with inappropriate adjustment, or with biased in-hospital exposure measurement.
CONCLUSION: Our results do not support previous concerns regarding these drugs, nor a potential protective effect as reported in previous poorly designed studies and meta-analyses. RAAS blockers should not be discontinued during the pandemic, while in-hospital management of these drugs will be clarified by randomized trials. NCT04262921.
© 2021 Société Française de Pharmacologie et de Thérapeutique.

Entities:  

Keywords:  COVID-19; RAAS blockers; angiotensin antagonists; hypertension; mortality; propensity score

Mesh:

Substances:

Year:  2021        PMID: 33876439      PMCID: PMC8250758          DOI: 10.1111/fcp.12683

Source DB:  PubMed          Journal:  Fundam Clin Pharmacol        ISSN: 0767-3981            Impact factor:   2.747


angiotensin‐converting enzyme angiotensin‐converting enzyme 2 angiotensin receptor blockers confidence interval coronavirus disease 2019 multiple imputation by chain equations renin‐angiotensin‐aldosterone system severe acute respiratory syndrome coronavirus 2

INTRODUCTION

The potential influence of renin‐angiotensin‐aldosterone system (RAAS) blockers on the course of coronavirus disease 2019 (COVID‐19) has been a matter of controversy. Early in the pandemic, it has been suggested that cardiovascular comorbidities such as hypertension, diabetes, and coronary heart disease were risk factors for severe COVID‐19 [1, 2, 3] with the potential explanation that these conditions are frequently treated with RAAS blockers. The underlying rationale came from animal studies showing an increased expression of angiotensin‐converting enzyme 2 (ACE2), the receptor for severe acute respiratory syndrome coronavirus 2 (SARS‐CoV‐2), in the presence of angiotensin‐converting enzyme (ACE) inhibitors and/or angiotensin receptor blockers (ARBs) [4, 5]. However, other animal[6] and human [7] studies did not confirm these findings, and more importantly, there are no data demonstrating an increased expression of the transmembrane ACE2 protein in the lungs [8]. Conversely, robust animal data showed that ACE2 might be beneficial in the context of acute lung injury [9, 10]. Indeed, ACE2 converts angiotensin II to angiotensin 1–7, a peptide with vasodilating, antifibrotic, and anti‐inflammatory properties, opposite to those of angiotensin II. Therefore, modulating ACE‐angiotensin II and ACE2‐angiotensin (1–7) pathways using RAAS blockers might actually be beneficial in patients with COVID‐19 [11], especially as ACE2 might be downregulated during SARS‐CoV‐2 infection [8, 10]. While several clinical trials are ongoing to establish whether RAAS blockers should be maintained, discontinued, or even introduced de novo in patients with COVID‐19, a number of observational studies have attempted to establish the association between chronic use of RAAS blockers and the risk of contracting the infection and/or developing a severe or lethal form of COVID‐19. Several large studies consistently ruled out a significant association between the chronic use of RAAS blockers and the risk of a positive test for SARS‐CoV‐2 [12, 13, 14]. Conversely, studies on the association between exposure to RAAS blockers and severity of the disease have yielded discrepant results, largely explained by disparities in study design, selected populations, study size, exposure measurement, and adjustment methodologies—if any [14, 15, 16, 17, 18, 19, 20, 21, 22, 23]. The aim of this pharmacoepidemiologic study was to analyze the association between the chronic use of RAAS blockers and mortality of COVID‐19 in a large national multicenter prospective cohort of hospitalized patients in France.

METHODS

The French COVID Cohort (ClinicalTrials NCT04262921) of inpatients with RT‐PCR virologically confirmed COVID‐19 was set up at the end of January 2020 in 198 centers in France [24]. Patients were included at admission and followed daily during hospital stay, and at 1, 3 and 6 months after discharge. The study was sponsored by INSERM (the French national institute for health and medical research). As at end of June 2020, 3512 patients admitted to hospital with COVID‐19 were included in the cohort. We analyzed data from adult patients with a history of hypertension. The diagnosis of hypertension was gathered from the medical history based on the medical interview at admission, independently of blood pressure measurement at admission, and of the use of antihypertensive medication. In patients with hypertension, chronic treatment with RAAS blockers was collected. Patients with missing data regarding treatment prior to admission and pregnant women were excluded from the present analyses (Figure 1). Exposure was defined as the chronic use of RAAS blockers (i.e., either ACE inhibitors or ARBs reported as part the chronic treatment at inclusion in the cohort). Patients reporting neither ACE inhibitors nor ARBs were considered as non‐users. The outcome was death within 30 days of diagnosis.
FIGURE 1

Flowchart of patients’ selection from the French COVID Cohort

Flowchart of patients’ selection from the French COVID Cohort

Statistical analyses

Baseline characteristics were reported according to the chronic use of any RAAS blocker. Propensity score for the use of RAAS blockers was calculated by logistic regressions performed on five imputed datasets. Multiple imputations by chain equations (MICE) were performed for baseline characteristic with less than 20% missing values. Propensity score included the following variables collected at admission and assumed to be associated with the outcome: age, gender, healthcare worker, microbiology laboratory worker, geographical region of inclusion, chronic cardiac disease, chronic pulmonary disease, chronic kidney disease, immunosuppressive therapy, immunosuppressive disease, chronic neurological disorder including dementia, obesity, diabetes, malnutrition, and number of days with symptoms before positive RT‐PCR. Overlapping of propensity score distributions among users and non‐users of RAAS blockers was checked graphically. The propensity score distribution among treated and non‐treated patients showed good overlap (Figure S1). After weighting, no more imbalances are observed (Figure S2). Hazard ratios of mortality for patients with chronic use of RAAS blockers versus non‐use and their 95% confidence interval (CI) were estimated using Cox proportional hazard models with adjustment and two types of weighting (inverse probability of treatment and standardized mortality ratio), in order to control for confounding. In secondary analyses, patients receiving both ACE inhibitors and ARBs were excluded, and ACE inhibitors and ARBs were analyzed separately. A sensitivity analysis included additional variables in the propensity score, which reflected severity at admission, and may be intermediaries in the causal diagram leading to overfitting: symptoms at admission (respiratory rate ≥30/min; systolic blood pressure <90 mm Hg or diastolic blood pressure ≤60 mm Hg), need for oxygen therapy within 2 days after admission, and level of C‐reactive protein at admission. All P‐values are two‐sided. Statistically significant level was predefined at 5%. Detailed methods are described in the Methods S1.

Comprehensive review of the literature

We performed a review of observational studies and meta‐analyses—excluding preprints—on the association between RAAS blockers and outcome of COVID‐19 published until November 2020. We systematically searched PubMed with no language restriction and starting from January 2020, using the terms “Renin‐angiotensin‐(aldosterone)‐system,” “angiotensin converting enzyme 2,” “angiotensin converting enzyme inhibitors,” ”angiotensin receptor blockers,” “coronary artery disease” or their acronyms, and synonyms or various combinations of those words to identify systematic reviews, observational studies, trials, and meta‐analyses describing the relationship between RAAS blockers and outcome in COVID‐19. We also screened cited reports from the full texts of original articles for other relevant research, and all individual studies from reviews and meta‐analyses were analyzed for potential relevance. We screened reports by title and abstract, and title and full text in letters, to identify articles relevant for the study aim. Two authors independently extracted structured information on design, setting, population, exposure, outcomes, statistical methods, results, and conclusion of the authors.

RESULTS

Between February 28 and June 30, 2020, 3512 patients were included in the French COVID Cohort, of whom 1160 hypertensive patients were analyzed (Figure 1). Median age was 70 years (interquartile range 61;78), 62% (n = 719) were male. The most common comorbidities, besides hypertension, were diabetes (n = 416, 36%), chronic cardiac disease (n = 401, 35%), and obesity (n = 340, 29%); 61% (n = 705) received oxygen therapy within 2 days of admission (Table 1). Detailed laboratory results are reported in Table S1. Median follow‐up was 57 (95% CI [46‐77]) days, and 135 (11.6%) patients died within 30 days of diagnosis.
TABLE 1

Patients’ characteristics at admission in the total population and in users versus non‐users of RAAS blockers

Total

N = 1160

Non‐users

N = 481

Chronic users

N = 679

Age (years)70 [61:78]70 [60:80]70 [61:77]
Older than 65 years777 (67)314 (65.3)463 (68.2)
Male719 (62)279 (58)440 (64.8)
Healthcare worker (39 imputed data for missing values)59 (5.1)30 (6.2)28 (4.2)
Microbiology laboratory worker (40 imputed data for missing values)6 (0.6)3 (0.7)3 (0.4)
French region of hospitalization
East98 (8.4)33 (6.9)65 (9.6)
North117 (10.1)47 (9.8)70 (10.3)
Other610 (52.5)262 (54.5)348 (51.3)
Parisian area335 (28.9)139 (28.9)196 (28.9)
Smoking status (150 imputed data for missing values)
Current smoker65 (5.6)32 (6.74)33 (4.8)
Former smoker383 (33.03)136 (28.36)247 (36.35)
Never smoked712 (61.36)312 (64.91)400 (58.85)
Performance status a (293 missing values)
0423 (48.79)157 (44.86)266 (51.45)
1226 (26.07)89 (25.43)137 (26.5)
298 (11.3)47 (13.43)51 (9.86)
373 (8.42)34 (9.71)39 (7.54)
447 (5.42)23 (6.57)24 (4.64)
Obesity (28 imputed data for missing values)340 (29.28)126 (26.15)214 (31.55)
Diabetes (1 imputed data for missing value)416 (35.9)152 (31.68)264 (38.88)
Chronic cardiac disease (4 imputed data for missing values)401 (34.6)158 (32.8)243 (35.7)
Chronic pulmonary disease or asthma (3 imputed data for missing values)231 (19.9)96 (20)135 (19.9)
Chronic kidney disease (4 imputed data for missing values)199 (17.2)83 (17.3)115 (17)
Malnutrition (19 imputed data for missing values)36 (3.1)17 (3663)19 (2.8)
Chronic neurological disorder or dementia (2 imputed data for missing values)120 (10.3)62 (12.8)58 (8.5)
Immunosuppressive disease305 (26.29)144 (29.94)161 (23.71)
Immunosuppressive therapy (23 imputed data for missing values)78 (6.81)45 (9.56)33 (4.86)
Time from first symptoms to positive RT‐PCR, median [Q1:Q3] (46 imputed data for missing values)6 [3:9]6 [2:9]6 [3:10]
Anosmia (260 missing values)94 (10.44)33 (8.8)61 (11.62)
Agueusia (259 missing values)115 (12.76)40 (10.61)75 (14.31)
Oxygen therapy (116 imputed data for missing values)705 (60.76)276 (57.38)429 (63.15)
eGFR (ml/min/1.73 m2), median [Q1:Q3] (646 missing values)78.8 [53.57:91.71]80.17 [57.18:91.67]77.72 [48.93:91.83]
Creatinine (µmol/L), median [Q1:Q3] (417 missing values)84 [67:112]82.5 [65.88:110.55]86 [69.2:114.2]
C‐reactive protein (mg/L), median [Q1:Q3] (352 missing values)77.5 [32.98:135.18]82.6 [31:138]74.3 [36.6:132]

Abbreviations: Q1: first quartile; Q3: third quartile; SD, standard deviation.

Performance status was collected according to the Eastern Cooperative Oncology Group (ECOG) [53].

According to the Chronic Kidney Disease EPIdemiology collaboration [54]. Data are expressed with N (%) unless otherwise specified.

Patients’ characteristics at admission in the total population and in users versus non‐users of RAAS blockers Total N = 1160 Non‐users N = 481 Chronic users N = 679 Abbreviations: Q1: first quartile; Q3: third quartile; SD, standard deviation. Performance status was collected according to the Eastern Cooperative Oncology Group (ECOG) [53]. According to the Chronic Kidney Disease EPIdemiology collaboration [54]. Data are expressed with N (%) unless otherwise specified. We found no significant association between chronic use of RAAS blockers and mortality, with any of the adjustment methods. Consistent results were found for the risk of mortality with the chronic use of ACE inhibitors or ARBs analyzed separately (Table 2), as well as in the sensitivity analyses (Table S3).
TABLE 2

Hazard ratios of 30‐day mortality in users versus non‐users of RAAS blockers

HR [95% CI] p‐value
Chronic users of ACE inhibitors or ARBs versus non‐users
Unadjusted1.13 [0.8–1.6]0.48
Adjusted a 1.07 [0.75–1.52]0.71
IPT weighted1.09 [0.86–1.39]0.46
SMR weighted1.08 [0.79–1.47]0.65
Chronic users of ACE inhibitors versus non‐users
Unadjusted1.15 [0.76–1.76]0.50
Adjusted a 1.04 [0.68–1.6]0.85
IPT weighted1.06 [0.79–1.42]0.72
SMR weighted1.14 [0.71–1.82]0.58
Chronic users of ARBs versus non‐users
Unadjusted1.14 [0.76–1.7]0.53
Adjusted a 1.13 [0.75–1.69]0.55
IPT weighted1.12 [0.85–1.48]0.43
SMR weighted1.07 [0.7–1.64]0.75

Adjusted for age, gender, diabetes, obesity, chronic heart disease, renal failure, region of inclusion.

Hazard ratios of 30‐day mortality in users versus non‐users of RAAS blockers Adjusted for age, gender, diabetes, obesity, chronic heart disease, renal failure, region of inclusion. Our comprehensive review of the literature included 65 published studies, of which 11 were meta‐analyses (Figures S3 and Table S4). Among the 56 individual studies (two of which combined an individual study and a meta‐analysis [25, 26]), 12 included both in‐ and outpatients and 44 included only inpatients. Among the 44 inpatients studies, 30 assessed the effect of chronic use and 12 the effect of in‐hospital use, 3 of which assessed both chronic and in‐hospital use [27, 28, 29]. Timing of exposure measurement was uncertain in five of 44. Only 34 of 56 individual studies reported results among hypertensive patients. A significant (deleterious) association between RAAS blockers and prognosis of COVID‐19 was found in most studies conducted in unselected populations before or after insufficient adjustment, but not among hypertensive patients or in properly adjusted studies. Conversely, a significant association in favor of a seemingly protective effect of treatment was found in most studies based on in‐hospital use of treatment.

DISCUSSION

In this multicenter hospital‐based cohort of 1160 hypertensive patients with COVID‐19, using various adjustment strategies to reduce bias due to potential confounders, chronic use of RAAS blockers was not associated with an increased risk of mortality. Previous studies conducted among inpatients with hypertension, although smaller‐scaled, had mostly yielded similar conclusions [14, 15, 20, 30, 31, 32]. Most large studies conducted in both outpatients and inpatients with hypertension were also in line with our results [14, 31, 33], except for one study reporting a protective effect of RAAS blockers among outpatients [34]. Of note, in our study, careful adjustment for comorbidities and age had no major impact on the results since even unadjusted analyses did not show a significant association between exposure to RAAS blockers and mortality. This is in line with previous studies conducted in patients with hypertension (Table S4). Indeed, RAAS blockers are among first‐line antihypertensive therapies [35], so that patients receiving RAAS blockers do not drastically differ from other hypertensive patients with regard to baseline characteristics. Conversely, analyses conducted in unrestricted populations showed an increased unadjusted risk for a severe or fatal outcome of the disease in patients chronically treated with RAAS blockers [12, 15, 19, 22, 36]. However, this increased risk was systematically ironed out when proper adjustment was performed [12, 15, 19, 20]. In unrestricted populations, patients receiving RAAS blockers had more comorbidities such as hypertension, diabetes, and chronic kidney disease and were older than patients without these medications, so that baseline characteristics between users and non‐users markedly differed. This important methodological consideration is best illustrated by studies that reported analyses both in the total population (not restricted to hypertensive patients) and in the subgroup of patients with hypertension. For instance, in a nationwide population‐based cohort study using the Korean Health Insurance Review and Assessment including 5179 confirmed COVID‐19 cases among whom 1157 had hypertension, the unadjusted OR for mortality in users was 3.88 (95% CI 2.48‐6.05) in the total population and 0.74 (0.43‐1.28) in hypertensive patients, whereas these ORs were 0.88 (0.53–1.44) and 0.71 (0.40‐1.26) after adjustment [20]. The setting of the study—unrestricted population versus patients with an indication for RAAS blockers (hypertension in the vast majority of the studies)—is therefore crucial to take into account when interpreting the results. In our review, several meta‐analyses pooled studies including total populations and hypertensive patients [37, 38], which call their conclusions into question. In emulated trials, harmonization of selection criteria is one of the major recommendations when attempting to estimate the causal effect of treatments [39]. In our study, as in many previous studies, the selection of hospitalized patients may generate a collider bias, whereby patients with RAAS blockers may be admitted for less severe disease and hence have better outcomes [28, 40, 41, 42]. This bias is much more likely to occur in even more specific settings (such as intensive care unit admission) [43], or in studies conducted in unrestricted populations (i.e., with no indication for RAAS blockers), due to a larger baseline imbalance, as explained above. Still, to account for potential different severity at inclusion between groups of exposure, we performed a separate adjustment for baseline severity, which did not modify the results. This sensitivity analysis has been separated from the main adjustment model because baseline severity may actually lie on the causal pathway between exposure and outcome, in which case, taking it into account would lead to overfitting. In contrast with the studies mentioned above, others have shown results in favor of a protective effect of RAAS blockers, giving the impression of overall discrepant results. However, careful analysis of study designs showed that the vast majority of these studies did not rely in chronic exposure to treatment, before diagnosis, but rather on “in‐hospital” use [23, 44] or, very similarly, on chronic use continued in‐hospital or after diagnosis [27, 45, 46]. Such study design generates a major bias because RAAS blockers are continued in patients with less severe disease and discontinued in patients with the most severe forms of the disease (for reasons such as hypotension, acute kidney injury, or ICU admission). A combination of reverse causality and immortal time bias, or the so‐called “healthy user‐sick stopper” bias, therefore explains this seemingly protective effect [28]. We have outlined how meta‐analyses have incorporated data from different populations, with unadjusted results in unselected patients weighting toward an increased risk associated with RAAS blockers. Conversely, and probably even worse with regard to methodological considerations, most meta‐analyses [37, 38, 47, 48, 49, 50] have pooled studies based on chronic exposure together with studies based on in‐hospital exposure. This erroneous study selection led a number of meta‐analysis to conclude in favor of a beneficial effect of RAAS blockers[38, 47, 48, 50]. Further meta‐analyses should take into account study populations and design as well as classification of exposure before pooling the results. Altogether, our results, combined with a comprehensive analysis of previous studies, allow concluding that chronic use of RAAS blockers is not associated with outcome of COVID‐19. As of November 2020, seven randomized clinical trials (e.g., REPLACE‐COVID in the United States, NCT04338009, BRACE CORONA in Argentina, NCT04364893, or ACORES‐2 in France, NCT04329195) have been designed to study whether these drugs should be continued or discontinued upon hospital admission in chronically treated patients. The recently published results of the REPLACE‐COVID and BRACE CORONA trials did not support discontinuing treatment with RAAS blockers in patients with COVID‐19 admitted to hospital [51, 52]. Conversely, based on solid experimental evidence mostly published after the SARS‐CoV‐1 outbreak [9, 10, 11], other authors have argued that antagonizing the RAAS may actually be beneficial in patients with COVID‐19 and that these drugs should not only be continued, but maybe even introduced do novo in previously untreated SARS‐CoV‐2 patients. As of November 2020, 21 trials have been designed to randomize patients with COVID‐19, to receive an ARB or a comparator (e.g., CLARITY in Australia, NCT04394117, COVID‐Aging, NCT04359953, and COVERAGE NCT04356495, in France, or STAR‐COVID in Mexico, NCT04510662). Results of these randomized trials will be crucial to help clinicians managing ARBs and ACE inhibitors after hospital admission. Strengths of our study include its size and multicenter design. In addition, the French COVID Cohort was implemented very early in the pandemic, so that the entire “first wave” period is reflected in the study, whereas previous studies were very often restricted to a shorter period of observation. Overall, our results reflect real‐word data on the association between chronic use of RAAS blockers and outcome of the disease in patients with hypertension admitted for COVID‐19 and are not biased by inappropriate measurement of exposure and have therefore an important impact for patient care. Our study has some limitations. First, hypertension was collected from the medical interview of the patient, so that misclassification may have occurred. However, we have no reason to believe a potential imprecision in the diagnosis of hypertension would introduce a major bias in our analysis. Importantly, blood pressure measurement at admission was not included in the definition of hypertension as we believe this stressful context may have induced elevated values in otherwise normotensive patients. Another limitation of the study is that the use of ACE inhibitors and ARBs was only collected in patients with a history of hypertension, so that their potential influence on outcome in patients with other indications for these treatments could not be assessed. However, as previously shown in several studies, most of the patients with an indication for RAAS blockers have hypertension. Moreover, blood pressure‐lowering treatments other that ACEIs and ARBs were not collected, so that the association between other antihypertensive treatments, such as mineralocorticoid antagonists, and outcome could not be analyzed. In addition, as in all previous studies based on chronic prescription of treatment, real adherence to treatment could not be ascertained. Furthermore, our sample is far from exhaustive in France, but we ensured a nationwide coverage of centers and provide a far more representative sample than a single hospital or regional database. Finally, as our cohort did not include outpatients, the association between treatment and outcome was only assessed in the most severe patients, requiring hospital admission. Such a selection of the population may alter the association between the exposure to RAAS blockers and outcome. In conclusion, our analysis conducted in a multicenter prospective French cohort of patients hospitalized with COVID‐19 found no significant association between chronic use of RAAS blockers and mortality of COVID‐19 in hypertensive patients. These results, combined with a comprehensive review of all related studies published up to the end of November 2020 enabling us to provide epidemiological explanations for seemingly discrepant results, provide solid data to support that these treatments should not be discontinued during the pandemic.

ETHICS APPROVAL, PATIENT CONSENT

The research complies with the Declaration of Helsinki. The study protocol was approved by the French Ethics Committee (CPP‐Ile‐de‐France VI, ID RCB: 2020‐A00256‐33), and we obtained the consent of each participant or its surrogate.

CONFLICT OF INTERESTS

MR received travel funding from Pfizer, outside the submitted work. APHP, which employs JSH, has received research grants from Bioserenity, Sanofi, Servier, and Novo Nordisk. JSH received speaker, advisory board, or consultancy fees from Amgen, Astra Zeneca, Bayer, Bristol‐Myers Squibb, Novartis, Novo Nordisk, WeHealth, outside the submitted work. BL reports travel funding from ViiV (2019) and Gilead (2020), outside the submitted work. PR reports personal fees (consulting) from Idorsia and G3P and honoraria from AstraZeneca, Bayer, Boehringer Ingelheim, CVRx, Fresenius, Grunenthal, Novartis, Novo Nordisk, Sequana medical, Servier, Stealth Peptides, Ablative Solutions, Corvidia, Relypsa, Vifor, and Vifor Fresenius Medical Care Renal Pharma; outside the submitted work. PR is the cofounder of CardioRenal (outside the submitted work). DC reports HIV grants from Janssen (2017‐2018, 2019‐2020) and MSD France (2015‐2017), personal fees from Janssen (2018), MSD France (2017) and Gilead (2018, 2020) for lectures on HIV, and personal fees from Merck Switzerland (2017) for consultancy on multiple sclerosis, outside the submitted work. EVP received fees and travel funding from Servier, outside the submitted work.

AUTHOR CONTRIBUTIONS

NG, MEF, MR, JI, AC, EP, CL, PR, DC, and EVP contributed to the conception or design of the work. All authors contributed to the acquisition, analysis, or interpretation of data for the work. NG, MEF, MR, JI, EP, JSH, CL, PR, DC, and EVP drafted the manuscript. All authors critically revised the manuscript and gave final approval and agree to be accountable for all aspects of work ensuring integrity and accuracy. Supplementary Material Click here for additional data file.
NameLast nameMail address @Affiliation
MarieBARTOLI marie.bartoli@anrs.fr ANRS, Paris, France
AlphaDIALLO alpha.diallo@inserm.fr ANRS, Paris, France
SoizicLE MESTREsoizic.le mestre@inserm.fr ANRS, Paris, France
NoémieMERCIER noemie.mercier@inserm.fr ANRS, Paris, France
ChristellePAUL christelle.paul@inserm.fr ANRS, Paris, France
VentzislavaPETROV‐SANCHEZ ventzislava.petrov-sanchez@anrs.fr ANRS, Paris, France
CatherineCHIROUZE catherine.chirouze@univ-fcomte.fr CHRU Jean Minjoz, Besançon, France
ClaireANDREJAK andrejak.claire@chu-amiens.fr CHU Amiens, France
DenisMALVY denis.malvy@chu-bordeaux.fr CHU Bordeaux, France
FrançoisDUBOS Francois.DUBOS@CHRU-LILLE.FR CHU Lille, France
PatrickROSSIGNOL p.rossignol@chru-nancy.fr CHU Nancy, France
ManuelETIENNE Manuel.Etienne@chu-rouen.fr CHU Rouen, France
FrançoisBOMPART fbompart@dndi.org Drugs for Neglected Diseases initiative, Geneva, Switzerland
TristanGIGANTE T.GIGANTE@chru-nancy.fr F‐CRIN INI‐CRCT, Nancy, France
MorganeGILG M.GILG@chru-nancy.fr F‐CRIN INI‐CRCT, Nancy, France
BénédicteROSSIGNOL B.ROSSIGNOL@chru-nancy.fr F‐CRIN INI‐CRCT, Nancy, France
ClaireLEVY‐MARCHAL claire.levy-marchal@inserm.fr F‐CRIN INI‐CRCT, Paris, France
MarineBELUZE marine.beluze@aphp.fr F‐CRIN Partners Platform, Paris, France
DelphineBACHELET delphine.bachelet@aphp.fr Hôpital Bichat, Paris, France
KrishnaBHAVSAR krishna.bhavsar@aphp.fr Hôpital Bichat, Paris, France
LilaBOUADMA lila.bouadma@aphp.fr Hôpital Bichat, Paris, France
AnissaCHAIR anissa.chair@aphp.fr Hôpital Bichat, Paris, France
CamilleCOUFFIGNAL camille.couffignal@aphp.fr Hôpital Bichat, Paris, France
CharleneDA SILVEIRA charlene.dasilveira@aphp.fr Hôpital Bichat, Paris, France
Marie‐PierreDEBRAY marie-pierre.debray@aphp.fr Hôpital Bichat, Paris, France
DianeDESCAMPS diane.descamps@aphp.fr Hôpital Bichat, Paris, France
XavierDUVAL xavier.duval@aphp.fr Hôpital Bichat, Paris, France
PhilippineELOY philippine.eloy@aphp.fr Hôpital Bichat, Paris, France
MarinaESPOSITO‐FARESE marina.esposito-farese@aphp.fr Hôpital Bichat, Paris, France
NadiaETTALHAOUI nadia.ettalhaoui@aphp.fr Hôpital Bichat, Paris, France
NathalieGAULT nathalie.gault@aphp.fr Hôpital Bichat, Paris, France
JadeGHOSN jade.ghosn@aphp.fr Hôpital Bichat, Paris, France
IsabelleGORENNE isabelle.gorenne@aphp.fr Hôpital Bichat, Paris, France
IsabelleHOFFMANN isabelle.hoffmann@aphp.fr Hôpital Bichat, Paris, France
OuifiyaKAFIF ouifiya.kafif@aphp.fr Hôpital Bichat, Paris, France
SabrinaKALI sabrina.kali@aphp.fr Hôpital Bichat, Paris, France
AntoineKHALIL antoine.khalil@aphp.fr Hôpital Bichat, Paris, France
CédricLAOUÉNAN cedric.laouenan@aphp.fr Hôpital Bichat, Paris, France
SamiraLARIBI samira.laribi@aphp.fr Hôpital Bichat, Paris, France
MinhLE minh.le@aphp.fr Hôpital Bichat, Paris, France
QuentinLE HINGRAT quentin.lehingrat@aphp.fr Hôpital Bichat, Paris, France
François‐XavierLESCURE xavier.lescure@aphp.fr Hôpital Bichat, Paris, France
Jean ChristopheLUCET jean-christophe.lucet@aphp.fr Hôpital Bichat, Paris, France
FranceMENTRÉ france.mentre@inserm.fr Hôpital Bichat, Paris, France
JimmyMullaert jimmy.mullaert@inserm.fr Hôpital Bichat, Paris, France
NathanPEIFFER‐SMADJA nathan.peiffer-smadja@inserm.fr Hôpital Bichat, Paris, France
GillesPEYTAVIN gilles.peytavin@aphp.fr Hôpital Bichat, Paris, France
CarineROY carine.roy@aphp.fr Hôpital Bichat, Paris, France
MarionSCHNEIDER marion.schneider2@aphp.fr Hôpital Bichat, Paris, France
NassimaSI MOHAMMED nassima.simohammed@aphp.fr Hôpital Bichat, Paris, France
LysaTAGHERSET lysa.tagherset@aphp.fr Hôpital Bichat, Paris, France
CoralieTARDIVON coralie.tardivon@aphp.fr Hôpital Bichat, Paris, France
Marie‐CapucineTELLIER marie-capucine.tellier@aphp.fr Hôpital Bichat, Paris, France
Jean‐FrançoisTIMSIT jean-francois.timsit@aphp.fr Hôpital Bichat, Paris, France
ThéoTRIOUX theo.trioux@aphp.fr Hôpital Bichat, Paris, France
SarahTUBIANA sarah.tubiana@aphp.fr Hôpital Bichat, Paris, France
BenoitVISSEAUX benoit.visseaux@aphp.fr Hôpital Bichat, Paris, France
YazdanYAZDANPANAH yazdan.yazdanpanah@aphp.fr Hôpital Bichat, Paris, France
DominiqueDEPLANQUE Dominique.DEPLANQUE@chru-lille.fr Hôpital Calmette, Lille, France
Jean‐SébastienHULOT jean-sebastien.hulot@aphp.fr Hôpital Européen Georges Pompidou, Paris, France
NoémieVANEL Noemie.VANEL@ap-hm.fr Hôpital la Timone, Marseille, France
RomainBASMACI romain.basmaci@aphp.fr Hôpital Louis Mourier, Colombes, France
OlivierPICONE olivier.picone@aphp.fr Hôpital Louis Mourier, Colombes, France
FrançoisANGOULVANT francois.angoulvant@aphp.fr Hôpital Necker, Paris, France
FlorentiaKAGUELIDOU florentia.kaguelidou@aphp.fr Hôpital Robert Debré, Paris, France
JustinePAGES justine.pages@aphp.fr Hôpital Robert Debré, Paris, France
ChristelleTUAL christelle.tual@chu-rennes.fr Inserm CIC‐1414, Rennes, France
AurélieVEISLINGER Aurelie.VEISLINGER@chu-rennes.fr Inserm CIC‐1414, Rennes, France
SandrineCOUFFIN‐CADIERGUES sandrine.couffin-cadiergues@inserm.fr Inserm sponsor, Paris, France
HélèneESPEROU helene.esperou@inserm.fr Inserm sponsor, Paris, France
IkramHOUAS ikram.houas@inserm.fr Inserm sponsor, Paris, France
SalmaJAAFOURA salma.jaafoura@inserm.fr Inserm sponsor, Paris, France
AuréliePAPADOPOULOS aurelie.papadopoulos@inserm.fr Inserm sponsor, Paris, France
AlexandraCOELHO alexandra.coelho@inserm.fr Inserm UMR 1018, Paris, France
AlphonsineDIOUF alphonsine.diouf@inserm.fr Inserm UMR 1018, Paris, France
AlexandreHOCTIN alexandre.hoctin@inserm.fr Inserm UMR 1018, Paris, France
MarinaMAMBERT marina.mambert@inserm.fr Inserm UMR 1018, Paris, France
MaudeBOUSCAMBERT maude.bouscambert-duchamp@chu-lyon.fr Inserm UMR 1111, Lyon, France
AlexandreGAYMARD alexandre.gaymard@chu-lyon.fr Inserm UMR 1111, Lyon, France
BrunoLINA bruno.lina@chu-lyon.fr Inserm UMR 1111, Lyon, France
ManuelROSA‐CALATRAVA manuel.rosa-calatrava@univ-lyon1.fr Inserm UMR 1111, Lyon, France
OlivierTERRIER olivier.terrier@univ-lyon1.fr Inserm UMR 1111, Lyon, France
DehbiaBENKERROU dehbia.benkerrou@iplesp.upmc.fr Inserm UMR 1136, Paris, France
CélineDORIVAL celine.dorival@iplesp.upmc.fr Inserm UMR 1136, Paris, France
AminaMEZIANE amina.meziane@iplesp.upmc.fr Inserm UMR 1136, Paris, France
FrançoisTÉOULÉ francois.teoule@iplesp.upmc.fr Inserm UMR 1136, Paris, France
JérémieGUEDJ jeremie.guedj@inserm.fr Inserm UMR 1137, Paris, France
HervéLE NAGARD herve.lenagard@inserm.fr Inserm UMR 1137, Paris, France
GuillaumeLINGAS guillaume.lingas@inserm.fr Inserm UMR 1137, Paris, France
NadègeNEANT nadege.neant@inserm.fr Inserm UMR 1137, Paris, France
LaurentABEL laurent.abel@inserm.fr Inserm UMR 1163, Paris, France
MathildeDESVALLÉE mathilde.desvallees@u-bordeaux.fr Inserm UMR 1219, Bordeaux, France
CoralieKHAN coralie.khan@u-bordeaux.fr Inserm UMR 1219, Bordeaux, France
SylvieBEHILILL sylvie.behillil@pasteur.fr Pasteur Institute, Paris, France
VincentENOUF vincent.enouf@pasteur.fr Pasteur Institute, Paris, France
HugoMOUQUET hugo.mouquet@pasteur.fr Pasteur Institute, Paris, France
SylvieVAN DER WERF sylvie.van-der-werf@pasteur.fr Pasteur Institute, Paris, France
MinervaCERVANTES‐GONZALEZ minerva.cervantes@inserm.fr REACTing, Paris, France
Ericd’ORTENZIO eric.dortenzio@inserm.fr REACTing, Paris, France
OrianePUÉCHAL oriane.puechal@inserm.fr REACTing, Paris, France
CarolineSEMAILLE caroline.semaille@anses.fr REACTing, Paris, France
MarionNORET mnoret@ch-annecygenevois.fr RENARCI, Annecy, France
YvesLEVY yves.levy@inserm.fr Vaccine Research Institute (VRI), Inserm UMR 955, Créteil, France
AurélieWIEDEMANN aurelie.wiedemann@inserm.fr Vaccine Research Institute (VRI), Inserm UMR 955, Créteil, France
NameLast nameMail address @Affiliation
MélanieRORIZ Rorizm@ch-agen-nerac.fr Agen ‐ Médecine Interne
PatrickRISPAL rispalp@ch-agen-nerac.fr Agen ‐ Médecine Interne
SarahREDL redls@ch-agen-nerac.fr Agen ‐ Médecine Interne
LaurentLEFEBVRE llefebvre@ch-aix.fr Aix en Provence ‐ SMIT
PascalGRANIER pgranier@ch-aix.fr Aix en Provence ‐ SMIT
LaurenceMAULIN lmaulin@ch-aix.fr Aix en Provence ‐ SMIT
CédricJOSEPH joseph.cedric@chu-amiens.fr Amiens ‐ SMIT/Réanimation
JulienMOYET moyet.julien@chu-amiens.fr Amiens ‐ SMIT/Réanimation
CinthiaRAMES rames.cinthia@chu-amiens.fr Amiens ‐ SMIT/Réanimation
RafaelMAHIEU Rafael.Mahieu@chu-angers.fr Angers ‐ SMIT
AlexandraDUCANCELLE alexandra.ducancelle@univ-angers.fr Angers ‐ SMIT
VincentDUBEE vincent.dubee@chu-angers.fr Angers ‐ SMIT
StéphaneSALLABERRY ssallaberry@ch-annecygenevois.fr Annecy ‐ Réanimation
AldricMANUEL amanuel@ch-annecygenevois.fr Annecy ‐ SMIT
GabrielMACHEDA gmacheda@ch-annecygenevois.fr Annecy ‐ SMIT
MylèneMAILLET mmaillet@ch-annecygenevois.fr Annecy ‐ SMIT
PatrickIMBERT pimbert@ch-annecygenevois.fr Annecy ‐ SMIT
AmélieVALRAN avalran@ch-annecygenevois.fr Annecy ‐ SMIT
Jean‐CharlesGAGNARD jeancharles.gagnard@gmail.com Antony ‐ Médecine interne
GuillermoGIORDANO GIORDANO.Guillermo@ch-avignon.fr Avignon ‐ SMIT
ClaraMOUTON PERROT mouttonperrot.clara@gmail.com Avignon ‐ SMIT
VincentPESTRE PESTRE.Vincent@ch-avignon.fr Avignon ‐ SMIT
CécileFICKO cecile.ficko@gmail.com Bégin ‐SMIT
MarieGOMINET marie.gominet@intradef.gouv.fr Bégin ‐SMIT
AuroreBOUSQUET aurorebousquet@yahoo.fr Bégin ‐SMIT
CharlineVAUCHY cvauchy@chu-besancon.fr Besancon ‐ SMIT
KévinBOUILLER kbouiller@chu-besancon.fr Besancon ‐ SMIT
MaïderPAGADOY mpagadoy@chu-besancon.fr Besancon ‐ SMIT
QuentinLEPILLER q1lepiller@chu-besancon.fr Besancon ‐ SMIT
NoémieTISSOT noemie.tissot@univ-fcomte.fr Besancon ‐ SMIT
CyrilLE BRIS cyril.le-bris@ch-beziers.fr Beziers ‐ SMIT/Réanimation
BenoitTHILL benoit.thill@ch-beziers.fr Beziers ‐ SMIT/Réanimation
Marie‐LaureCASANOVA marie-laure.casanova@ch-beziers.fr Beziers ‐ SMIT/Réanimation
GeorgesLE FALHER georges.le-falher@ch-beziers.fr Beziers ‐ SMIT/Réanimation
EricOZIOL eric.oziol@ch-beziers.fr Beziers ‐ SMIT/Réanimation
HuguesCORDEL hugues.cordel@aphp.fr Bobigny ‐ Avicenne ‐ SMIT
NathalieDOURNON nathaliedournon@gmail.com Bobigny ‐ Avicenne ‐ SMIT
OlivierBOUCHAUD olivier.bouchaud@aphp.fr Bobigny ‐ Avicenne ‐ SMIT
DucNGUYEN duc.nguyen@chu-bordeaux.fr Bordeaux ‐ SMIT
SegoleneGREFFE segolene.greffe@aphp.fr Boulogne Billancourt ‐ A. Paré ‐Médecine interne
CamilleBOUISSE cbouisse@ch-bourg01.fr Bourg en Bresse ‐ Infectiologie/Réanimation
NicholasSEDILLOT nsedillot@ch-bourg01.fr Bourg en Bresse ‐ Infectiologie/Réanimation
DamienBOUHOUR dbouhour@ch-bourg01.fr Bourg en Bresse ‐ Infectiologie/Réanimation
CamilleCHASSIN cchassin@ghnd.fr Bourgoin‐Jallieu ‐ Médecine interne
ErwanL'HER erwan.lher@chu-brest.fr Brest ‐ Réanimation
LaetitiaBODENES Laetitia.bodenes@chu-brest.fr Brest ‐ Réanimation
NicolasFERRIERE nicoferriere@yahoo.fr Brest ‐ Réanimation
SéverineANSART severine.ansart@chu-brest.fr Brest ‐ SMIT
CécileTROMEUR cecile.tromeur@chu-brest.fr Brest ‐ SMIT
DewiGUELLEC dewi.guellec@chu-brest.fr Brest ‐ SMIT
AntoineMERCKX antoine.merckx@ch-cahors.fr Cahors ‐ SMIT
FelixDJOSSOU felix.djossou@ch-cayenne.fr Cayenne ‐ SMIT/Réanimation
MaykaMERGEAYFABRE mayka.mergeayfabre@ch-cayenne.fr Cayenne ‐ SMIT/Réanimation
ArsèneKPANGON amadohoue.kpangon@ch-cayenne.fr Cayenne ‐ SMIT/Réanimation
VincentPEIGNE vincent.peigne@ch-metropole-savoie.fr Chambery ‐ SMIT
CarolaPIEROBON carola.pierobon@ch-metropole-savoie.fr Chambery ‐ SMIT
Marie‐ChristineCARRET mariechristine.carret@ch-metropole-savoie.fr Chambery ‐ SMIT
FlorenceJEGO florence.jego@ch-metropole-savoie.fr Chambery ‐ SMIT
MargauxISNARD margaux.isnard@ch-metropole-savoie.fr Chambery ‐ SMIT
JohannAUCHABIE johann.auchabie@ch-cholet.fr Chollet ‐ Réanimation
AnthonyLemeur anthony.lemeur@ch-cholet.fr Chollet ‐ Réanimation
ThierryMAZZONI thierry.mazzoni@ch-cholet.fr Chollet ‐ Réanimation
RoxaneCOURTOIS roxane.courtois@ch-cholet.fr Chollet ‐ SMIT
OlivierLESENS olesens@chu-clermontferrand.fr Clermont‐Ferrand ‐ SMIT
MartinMARTINOT Martin.martinot@ch-colmar.fr Colmar ‐ SMIT
JeanneSIBIUDE Jeanne.sibiude@aphp.fr Colombes ‐ Louis Mourier ‐ Gynécologie
LaurentMANDELBROT laurent.mandelbrot@aphp.fr Colombes ‐ Louis Mourier ‐ Gynécologie
MarieLACOSTE mlacoste@ch-alpes-leman.fr Contamine sur Arve ‐ Infectiologie/Réanimation
Jean‐DanielLELIEVRE jean-daniel.lelievre@aphp.fr Créteil ‐ Mondor ‐ SMIT
BrigitteELHARRAR Brigitte.elharrar@chicreteil.fr Créteil CHIC ‐ Médecine interne
ValerieGARRAIT valerie.garrait@chicreteil.fr Créteil CHIC ‐ Médecine interne
IsabelleDELACROIX isabelle.delacroix@chicreteil.fr Créteil CHIC ‐ Médecine interne
ThomasMAITRE thomas.maitre@chicreteil.fr Créteil CHIC ‐ Médecine interne
Jean BaptisteASSIE jean-baptiste.assie@inserm.fr Créteil CHIC ‐ Médecine interne
ElsaNYAMANKOLLY NYAMANKOLLYe@ch-dax.fr Dax ‐ SMIT/Réanimation
AdrienAUVET auveta@ch-dax.fr Dax ‐ SMIT/Réanimation
Anne‐HélèneBOIVIN helene.boivin@ght40.fr Dax ‐ SMIT/Réanimation
YounesKERROUMI ykerroumi@hopital-dcss.org Diaconesses CSS ‐ Médecine interne
VaninaMEYSSONNIER vmeyssonnier@hopital-dcss.org Diaconesses CSS ‐ Médecine interne
OryaneMABIALA omabiala@for.paris Diaconesses CSS ‐ Médecine interne
François XavierCATHERINE francois-xavier.catherine@chu-dijon.fr Dijon ‐ SMIT
MathieuBLOT mathieu.blot@chu-dijon.fr Dijon ‐ SMIT
SophieMAHY sophie.mahy@chu-dijon.fr Dijon ‐ SMIT
MarielleBUISSON marielle.buisson@chu-dijon.fr Dijon ‐ SMIT
LionelPIROTH lionel.piroth@chu-dijon.fr Dijon ‐ SMIT
ValentineCAMPANA Valentine.CAMPANA@chu-martinique.fr Fort de France ‐ SMIT
JérémiePASQUIER jeremie.pasquier@chu-martinique.fr Fort de France ‐ SMIT
AndréCABIE andre.cabie@chu-martinique.fr Fort de France ‐ SMIT
Pierre‐FrançoisSANDRINE sandrine.pierre-francois@chu-martinique.fr Fort de France ‐ SMIT
Jean‐MarieTURMEL jean-marie.turmel@chu-martinique.fr Fort de France ‐ SMIT
SimonBESSIS simon.bessis@aphp.fr Garches ‐ SMIT
OlivierEPAULARD OEpaulard@chu-grenoble.fr Grenoble ‐ SMIT
NicolasTERZI nterzi@chu-grenoble.fr Grenoble ‐ SMIT
Jean‐FrançoisPAYEN JFPayen@chu-grenoble.fr Grenoble ‐ SMIT
LaurenceBOUILLET lbouillet@chu-grenoble.fr Grenoble ‐ SMIT
RebeccaHAMIDFAR rhamidfar@chu-grenoble.fr Grenoble ‐ SMIT
MarionLE MARECHAL mlemarechal@chu-grenoble.fr Grenoble ‐ SMIT
ElodieCURLIER elodie.curlier@chu-guadeloupe.fr Guyane ‐ Guadeloupe ‐Réanimation ‐ SMIT
RachidaOUISSA rachida.ouissa@chu-guadeloupe.fr Guyane ‐ Guadeloupe ‐Réanimation ‐ SMIT
IsabelleFABRE mfabre@ghnd.fr Guyane ‐ Guadeloupe ‐Réanimation ‐ SMIT
Pierre‐MarieROGER pierre-marie.roger@chu-guadeloupe.fr Guyane ‐ Guadeloupe ‐Réanimation ‐ SMIT
SamuelMarkowicz samuel.markowicz@chu-guadeloupe.fr Guyane ‐ Guadeloupe ‐Réanimation ‐ SMIT
OlivierPICONE olivier.picone@aphp.fr Gynécologie,Hôpital Louis Mourrier, Colombe
CécileGOUJARD cecile.goujard@aphp.fr Kremlin‐Bicêtre ‐SMIT/Médecine interne
StéphaneJAUREGUIBERRY stephane.jaureguiberry@aphp.fr Kremlin‐Bicêtre ‐SMIT/Médecine interne
AntoineCHERET antoine.cheret@aphp.fr Kremlin‐Bicêtre ‐SMIT/Médecine interne
GwenhaëlCOLIN gwenhael.colin@chd-vendee.fr La Roche Sur Yon ‐ Infectiologie
RomainDECOURS romain.decours@chd-vendee.fr La Roche Sur Yon ‐ Infectiologie
ThomasGUIMARD thomas.guimard@chd-vendee.fr La Roche Sur Yon ‐ Infectiologie
VincentLanglois vincent.langlois@ch-havre.fr,Le Havre ‐ MI / Pneumologie
LaureGOUBERT laure.goubert@ch-havre.fr Le Havre ‐ MI / Pneumologie
StéphanieCOUSSE stephanie.cousse@ch-havre.fr Le Havre ‐ MI / Pneumologie
HikomboHITOTO hhitoto@ch-lemans.fr Le Mans CH ‐ SMIT
JulienPOISSY julien.poissy@chru-lille.fr Lille ‐ Réanimation
SaadNSEIR saadalla.nseir@chru-lille.fr Lille ‐ Réanimation
SébastienPREAU sebastien.preau@chru-lille.fr Lille ‐ Réanimation
MercéJOURDAIN merce.jourdain@chru-lille.fr Lille ‐ Réanimation
RaphaëlFAVORY raphael.favory@chru-lille.fr Lille ‐ Réanimation
KarineFAURE karine.faure@chru-lille.fr Lille ‐ SMIT
FannyVUOTTO Fanny.VUOTTO@CHRU-LILLE.FR Lille ‐ SMIT
Marie‐CharlotteCHOPIN Mariecharlotte.CHOPIN@CHRU-LILLE.FR Lille ‐ SMIT
SarahSTABLER stabler.sarah@gmail.com Lille ‐ SMIT
JulesBAUER bauerjules@gmail.com Lille ‐ SMIT
MarcLAMBERT Marc.LAMBERT@chru-lille.fr Lille Calmette ‐ SMIT
ArnaudSCHERPEREEL Arnaud.SCHERPEREEL@chru-lille.fr Lille Calmette ‐ SMIT
RyadhPOKEERBUX ryadh.pokeerbux@chru-lille.fr Lille Calmette ‐ SMIT
StéphanieFRY Stephanie.FRY@chru-lille.fr Lille Calmette ‐ SMIT
CécileYELNIK CECILE.YELNIK@chru-lille.fr Lille Calmette ‐ SMIT
LaurentBITKER laurent.bitker@chu-lyon.fr Lyon ‐ Réanimation
MehdiMEZIDI mehdi.mezidi@chu-lyon.fr Lyon ‐ Réanimation
HodaneYONIS hodane.yonis@chu-lyon.fr Lyon ‐ Réanimation
NicolasBENECH nicolas.benech@chu-lyon.fr Lyon ‐ SMIT
ThomasPERPOINT thomas.perpoint@chu-lyon.fr Lyon ‐ SMIT
AnneCONRAD anne.conrad@chu-lyon.fr Lyon ‐ SMIT
MurielDORET‐DION muriel.doret-dion@chu-lyon.fr Lyon ‐ Hôpital Mère Enfant ‐ Gynécologie
Pierre‐AdrienBOLZE pierre-adrien.bolze@chu-lyon.fr Lyon Sud ‐ Obstétrique
Simon‐DjamelTHIBERVILLE thiberville.sd@ch-manosque.fr Manosque ‐ SMIT
MoïseMACHADO mmachado@ghef.fr Marne la Vallee‐ SMIT
AudreyBARRELET abarrelet@ghef.fr Marne la Vallee‐ SMIT
AlexandraBEDOSSA abedossa@ghef.fr Marne la Vallee‐ SMIT
StanislasREBAUDET s.rebaudet@hopital-europeen.fr Marseille ‐ SMIT
FrédériqueRETORNAZ f.retornaz@hopital-europeen.fr Marseille ‐ SMIT
MyriamBENNANI M.BENNANI@hopital-europeen.fr Marseille ‐ SMIT
HortenseDROUET h.drouet@hopital-europeen.fr Marseille ‐ SMIT
BertrandDUSSOL bertrand.dussol@ap-hm.fr Marseille conception ‐ Néphrologie
MarcLEONE marc.leone@ap-hm.fr Marseille Nord ‐ La Timone ‐ Réanimation
BrunoPASTENE bruno.pastene@ap-hm.hm Marseille Nord ‐ La Timone ‐ Réanimation
KarineBEZULIER karine.bezulier@ap-hm.fr Marseille Nord ‐ La Timone ‐ Réanimation
AxelleBRACONNIER a.braconnier@hotmail.fr Mayotte ‐ Gynécologie
SylvainDIAMANTIS Sylvain.diamantis@ghsif.fr Melun ‐ SMIT
CatherineCHAKVEATZE eka.chakvetadze@aphp.fr Melun ‐ SMIT
ClaraFLATEAU clara.flateau@ghsif.fr Melun ‐ SMIT
VincentDINOT v.dinot@chr-metz-thionville.fr Metz ‐ Réanimation
RostaneGACI r.gaci@chr-metz-thionville.fr Metz ‐ Réanimation
NadiaOUAMARA n.ouamara@chr-metz-thionville.fr Metz ‐ Réanimation
GuillaumeLOUIS g.louis@chr-metz-thionville.fr Metz ‐ Réanimation
CyrilCADOZ c.cadoz@chr-metz-thionville.fr Metz ‐ Réanimation
Hajnal‐GabrielaILLES gabriela.illes@ch-mdm.fr Mont de Marsan ‐ SMIT
BouchraLOUTFI bouchra.loutfi@ch-mdm.fr Mont de Marsan ‐ SMIT
JérômeDIMET jerome.dimet@ght40.fr Mont de Marsan ‐ SMIT
VincentLE MOING v-le_moing@chu-montpellier.fr Montpellier ‐ SMIT
NathaliePANSU n-pansu@chu-montpellier.fr Montpellier ‐ SMIT
ClémentLE BIHAN c-lebihan@chu-montpellier.fr Montpellier ‐ SMIT
AntoineKIMMOUN a.kimmoun@chru-nancy.fr Nancy ‐ Réanimation
BrunoLEVY b.levy@chru-nancy.fr Nancy ‐ Réanimation
MaximilenSAINT GILLES M.SAINTGILLES@chru-nancy.fr Nancy ‐ Réanimation
FrançoisGOEHRINGER f.goehringer@chru-nancy.fr Nancy ‐ SMIT
ChristianRABAUD c.rabaud@chru-nancy.fr Nancy ‐ SMIT
SibylleBEVILACQUA s.bevilacqua@chru-nancy.fr Nancy ‐ SMIT
BenjaminLEFEVRE B.LEFEVRE@chru-nancy.fr Nancy ‐ SMIT
AnneGUILLAUMOT a.guillaumot@chru-nancy.fr Nancy ‐ SMIT
Anne SophieBOUREAU annesophie.boureau@chu-nantes.fr Nantes ‐ Gériatrie
ClotildeALLAVENA Clotilde.ALLAVENA@chu-nantes.fr Nantes ‐ SMIT
SabellineBOUCHEZ Sabelline.BOUCHEZ@chu-nantes.fr Nantes ‐ SMIT
RomainGUERY dr.guery@groupeconfluent.fr Nantes ‐ SMIT
PaulLE TURNIER Paul.LETURNIER@chu-nantes.fr Nantes ‐ SMIT
CécileMEAR‐PASSARD cecile.passard@chu-nantes.fr Nantes ‐ SMIT
ChristopheRAPP christophe.rapp@ahparis.org Neuilly sur Seine ‐ Médecine Interne
StéphaneLASRY stephane.lasry@ahparis.org Neuilly sur Seine ‐ Médecine Interne
ThierryCARMOI thierry.carmoi@ahparis.org Neuilly sur Seine ‐ Médecine Interne
ElisaDEMONCHY demonchy.e@chu-nice.fr Nice ‐ SMIT
CélineMICHELANGELLI michelangeli.c@chu-nice.fr Nice ‐ SMIT
KarineRISSO risso.k@chu-nice.fr Nice ‐ SMIT
PaulLOUBET Paul.LOUBET@chu-nimes.fr Nimes ‐ SMIT
AlbertoSOTTO albert.sotto@chu-nimes.fr Nimes ‐ SMIT
DidierLaureillard didier.laureillard@chu-nimes.fr Nimes ‐ SMIT
EtienneDE MONTMOLLIN etienne.demontmollin@aphp.fr Paris ‐ Bichat ‐ Réanimation
JuliettePATRIER juliette.patrier@aphp.fr Paris ‐ Bichat ‐ Réanimation
Paul HenriWICKY paul-henri.wicky@aphp.fr Paris ‐ Bichat ‐ Réanimation
LucieLE FEVRE lucie.lefevre@aphp.fr Paris ‐ Bichat ‐ Réanimation
PierreJACQUET Pierre.jaquet@aphp.fr Paris ‐ Bichat ‐ Réanimation
RaphaelBORIE raphael.borie@aphp.fr Paris ‐ Bichat ‐ SMIT
TiphaineGOULENOK tiphaine.goulenok@aphp.fr Paris ‐ Bichat ‐ SMIT
DominiqueLUTON dominique.luton@aphp.fr Paris ‐ Bichat ‐ SMIT
LaurenDECONINCK bastien.deconninck@aphp.fr Paris ‐ Bichat ‐ SMIT
SylvieLE GAC sylvie.legac@aphp.fr Paris ‐ Bichat ‐ SMIT
CecileAZOULAY cecile.azoulay@aphp.fr Paris ‐ Cochin ‐ CIC Vaccinologie
NicolasCARLIER nicolas.carlier@aphp.fr Paris ‐ Cochin ‐ CIC Vaccinologie
LiemLUONG liem.luong@aphp.fr Paris ‐ Cochin ‐ CIC Vaccinologie
MarieLACHATRE marie.lachatre@aphp.fr Paris ‐ Cochin ‐ CIC Vaccinologie
OdileLAUNAY odile.launay@aphp.fr Paris ‐ Cochin ‐ CIC Vaccinologie
Jean‐LucDIEHL jean-luc.diehl@aphp.fr Paris ‐ HEGP ‐ Réanimation
MarineLIVROZET marine.livrozet@aphp.fr Paris ‐ HEGP ‐ Réanimation
BernardCHOLLEY bernard.cholley@aphp.fr Paris ‐ HEGP ‐ Réanimation
Jean‐BenoitARLET jean-benoit.arlet@aphp.mssante.fr Paris ‐ HEGP ‐ Réanimation
OlivierSANCHEZ manuel.sanchez@aphp.fr Paris ‐ HEGP ‐ Réanimation
VictoriaMANDA victoria.manda@aphp.fr Paris ‐ Lariboisière ‐ SMIT
LaurèneAZEMAR laurene.azemar@aphp.fr Paris ‐ Lariboisière ‐ SMIT
GuylaineCASTOR‐ALEXANDRE guylaine.alexandre@aphp.fr Paris ‐ Lariboisière ‐ SMIT
JeanneTRUONG jeanne.truong@aphp.fr Paris ‐ Robert Debré ‐ Pédiatrie
KarineLACOMBE karine.lacombe2@aphp.fr Paris ‐ Saint Antoine ‐ SMIT
ThibaultCHIARABINI Thibault.chiarabini@aphp.fr Paris ‐ Saint Antoine ‐ SMIT
BénédicteLEFEBVRE benedicte.lefebvre2@aphp.fr Paris ‐ Saint Antoine ‐ SMIT
NathalieDE CASTRO nathalie.de-castro@aphp.fr Paris ‐ Saint Louis ‐ Réanimation
GeoffreyLIEGEON geoffroy.liegeon@aphp.fr Paris ‐ Saint Louis ‐ Réanimation
DianePONSCARME diane.ponscarme@aphp.fr Paris ‐ Saint Louis ‐ Réanimation
JulieCHAS julie.chas@aphp.fr Paris ‐ Tenon ‐SMIT
ValérieGABORIEAU valerie.gaborieau@ch-pau.fr Pau ‐ SMIT/Réanimation
EveLE COUSTUMIER eve.lecoustumier@ch-pau.fr Pau ‐ SMIT/Réanimation
WalterPICARD walter.picard@ch-pau.fr Pau ‐ SMIT/Réanimation
Jean‐BenoitZABBE marion.zabbe@ch-perigueux.fr Perigueux ‐ SMIT
FlorentPEELMAN florent.peelman@ch-perigueux.fr Perigueux ‐ SMIT
EdouardSOUM edouard.soum@ch-perigueux.fr Perigueux ‐ SMIT
HuguesAUMAÎTRE hugues.aumaitre@ch-perpignan.fr Perpignan ‐ SMIT
BlandineRAMMAERT blandine.rammaert@chu-poitiers.fr Poitiers ‐ SMIT
GwenaëlLe MoalGwenaël.LEMOAL@chu-poitiers.fr Poitiers ‐ SMIT
IsabellePIRONNEAU Isabelle.PIRONNEAU@chu-poitiers.fr Poitiers ‐ SMIT
Anne SophieRESSEGUIER annesophie.resseguier@ch-lepuy.fr Puy en Velay ‐ Médecine interne
NadiaSAIDANI n.saidani@ch-cornouaille.fr Quimper ‐ MIIS
FirouzéBANI‐SADR fbanisadr@chu-reims.fr Reims ‐ SMIT
MaximeHENTZIEN mhentzien@chu-reims.fr Reims ‐ SMIT
YohanN'GUYEN ynguyen@chu-reims.fr Reims ‐ SMIT
JulietteROMARU jromaru@chu-reims.fr Reims ‐ SMIT
KévinDIDIER kdidier@chu-reims.fr Reims ‐ SMIT
IsabelleENDERLE Isabelle.ENDERLE@chu-rennes.fr Rennes ‐ Gynécologie
FabriceLAINE Fabrice.Laine@chu-rennes.fr Rennes ‐ SMIT
MatthieuLESOUHAITIER mathieu.LESOUHAITIER@chu-rennes.fr Rennes ‐ SMIT
MatthieuREVEST matthieu.revest@chu-rennes.fr Rennes ‐ SMIT
PierreTATTEVIN pierre.tattevin@chu-rennes.fr Rennes ‐ SMIT
Jean‐MarcCHAPPLAIN jean-marc.chapplain@chu-rennes.fr Rennes ‐ SMIT
ManuelETIENNE Manuel.Etienne@chu-rouen.fr Rouen ‐ SMIT
VéroniqueLEMEE Veronique.Lemee@chu-rouen.fr Rouen ‐ SMIT
EglantineFERRAND DEVOUGE E.Ferrand-Devouge@chu-rouen.fr Rouen ‐ SMIT
KévinALEXANDRE kevin.alexandre@chu-rouen.fr Rouen ‐ SMIT
EliseARTAUD‐MACCARI Elise.Artaud-Macari@chu-rouen.fr Rouen ‐ SMIT
NathalieALLOU nathalie.allou@chu-reunion.fr Saint Denis ‐ Saint Pierre ‐ SMIT
MarieLAGRANGE marie.lagrange-xelot@chu-reunion.fr Saint Denis ‐ Saint Pierre ‐ SMIT
JulienJABOT jabot974@gmail.com Saint Denis ‐ Saint Pierre ‐ SMIT
ElisabethBOTELHO‐NEVERS elisabeth.botelho-nevers@chu-st-etienne.fr Saint Etienne ‐ SMIT
AmandineGAGNEUX‐BRUNON amandine.gagneux-brunon@chu-st-etienne.fr Saint Etienne ‐ SMIT
TiffanyTROUILLON tiffany.trouillon@chu-st-etienne.fr Saint Etienne ‐ SMIT
CorinneDANIEL c.daniel@chsaintmartin.fr Saint Martin ‐ Médecine UDSMT
BenoîtROZE b.roze@ch-saintonge.fr Saintes ‐ Réanimation
DelphineBREGEAUD d.bregeaud@ch-saintonge.fr Saintes ‐ Réanimation
YounesAIT TAMLIHAT y.ait-tamlihat@ch-saintonge.fr Saintes ‐ Réanimation
AliHACHEMI ali.hachemi@ch-soissons.fr Soissons ‐ Infectiologie
HélèneSALVATOR h.salvator@hopital-foch.org Suresnes ‐ Hopital Foch ‐ DRCI
ErwanFOURN e.fourn@hopital-foch.org Suresnes ‐ Hopital Foch ‐ DRCI
DavidZUCMAN d.zucman@hopital-foch.org Suresnes ‐ Hopital Foch ‐ DRCI
Marie‐LaureCHABI‐CHAVILLAT ml.chabi-charvillat@hopital-foch.com Suresnes ‐ Hopital Foch ‐ DRCI
AurélieMARTIN a.martin@hopital-foch.com Suresnes ‐ Hopital Foch ‐ DRCI
EricDELAVEUVE e.delaveuve@chr-metz-thionville.fr Thionville ‐ Bel Air ‐ SMIT/Réanimation
ColineJAUD‐FISCHER C.JAUDFISCHER@chru-nancy.fr Thionville ‐ Bel Air ‐ SMIT/Réanimation
PaulDUNAND paul.m.dunand@gmail.com Thionville ‐ Bel Air ‐ SMIT/Réanimation
FrançoisBISSUEL f-bissuel@ch-hopitauxduleman.fr Thonon les Bains ‐ Pneumologie
KarenDELAVIGNE delavigne.karen@iuct-oncopole.fr Toulouse ‐ Hématologie/Médecine interne
AlexaDEBARD debard.a@chu-toulouse.fr Toulouse ‐ SMIT
PierreDELOBEL delobel.p@chu-toulouse.fr Toulouse ‐ SMIT
BenjamineSARTON sarton.b@chu-toulouse.fr Toulouse ‐ SMIT
StellaRousset rousset.st@chu-toulouse.fr Toulouse ‐ SMIT
GuillaumeMARTIN‐BLONDEL martin-blondel.g@chu-toulouse.fr Toulouse ‐ SMIT
LaurentGUILLEMINAULT guilleminault.l@chu-toulouse.fr Toulouse Larrey ‐ Pneumologie
MarlèneMURRIS murris.m@chu-toulouse.fr Toulouse Larrey ‐ Pneumologie
AgnèsSOMMET agnes.sommet@univ-tlse3.fr Toulouse Larrey ‐ Pneumologie
OlivierLAIREZ lairez.o@chu-toulouse.fr Toulouse‐cardiologie
EricSENNEVILLE esenneville@ch-tourcoing.fr Tourcoing ‐ SMIT
OlivierROBINEAU olivier.robineau82@gmail.com Tourcoing ‐ SMIT
AgnèsMEYBECK ameybeck@ch-tourcoing.fr Tourcoing ‐ SMIT
DenisGAROT d.garot@chu-tours.fr Tours ‐ Réanimation
LaurentPLANTIER laurent.plantier@univ-tours.fr Tours ‐ Réanimation
ValérieGISSOT valerie.gissot@univ-tours.fr Tours ‐ Réanimation
EmmanuelleMERCIER emercier@med.univ-tours.fr Tours ‐ Réanimation
CharlotteSALMON GANDONNIERE charlotte.salmon.gandonniere@gmail.com Tours ‐ Réanimation
AdrienLEMAIGNEN adrien.lemaignen@chu-tours.fr Tours ‐ SMIT
JulieMANKIKIAN J.MANKIKIAN@chu-tours.fr Tours ‐ SMIT
ThomasFLAMENT T.FLAMENT@chu-tours.fr Tours ‐ SMIT
GrégoryCORVAISIER gregory.corvaisier@ch-bretagne-atlantique.fr Vannes ‐ SMIT
DelphineLARIVIERE delphine.lariviere@ch-bretagne-atlantique.fr Vannes ‐ SMIT
MarieLANGELOT‐RICHARD marie.langelot-richard@ch-bretagne-atlantique.fr Vannes ‐ SMIT
PaulineCARAUX PAZ pauline.caraux-paz@chiv.fr Villeneuve Saint Georges ‐ SMIT
LaurentRICHIER laurent.richier@aphp.fr Villeneuve Saint Georges ‐ SMIT
DanielleJAAFAR danielle.jaafar@chiv.fr Villeneuve Saint Georges ‐ SMIT
ClaudineBADR claudine.Badr@chiv.fr Villeneuve Saint Georges ‐ SMIT
FaraDIOP Fara.Diop@chiv.fr Villeneuve Saint Georges ‐ SMIT
  55 in total

1.  Outcomes Associated with the Use of Renin-Angiotensin-Aldosterone System Blockade in Hospitalized Patients with SARS-CoV-2 Infection.

Authors:  Imran Chaudhri; Farrukh M Koraishy; Olena Bolotova; Jeanwoo Yoo; Luis A Marcos; Erin Taub; Haseena Sahib; Michelle Bloom; Sahar Ahmad; Hal Skopicki; Sandeep K Mallipattu
Journal:  Kidney360       Date:  2020-08-27

2.  Association of hypertension and antihypertensive treatment with COVID-19 mortality: a retrospective observational study.

Authors:  Chao Gao; Yue Cai; Kan Zhang; Lei Zhou; Yao Zhang; Xijing Zhang; Qi Li; Weiqin Li; Shiming Yang; Xiaoyan Zhao; Yuying Zhao; Hui Wang; Yi Liu; Zhiyong Yin; Ruining Zhang; Rutao Wang; Ming Yang; Chen Hui; William Wijns; J William McEvoy; Osama Soliman; Yoshinobu Onuma; Patrick W Serruys; Ling Tao; Fei Li
Journal:  Eur Heart J       Date:  2020-06-07       Impact factor: 29.983

3.  Association of Inpatient Use of Angiotensin-Converting Enzyme Inhibitors and Angiotensin II Receptor Blockers With Mortality Among Patients With Hypertension Hospitalized With COVID-19.

Authors:  Peng Zhang; Lihua Zhu; Jingjing Cai; Fang Lei; Juan-Juan Qin; Jing Xie; Ye-Mao Liu; Yan-Ci Zhao; Xuewei Huang; Lijin Lin; Meng Xia; Ming-Ming Chen; Xu Cheng; Xiao Zhang; Deliang Guo; Yuanyuan Peng; Yan-Xiao Ji; Jing Chen; Zhi-Gang She; Yibin Wang; Qingbo Xu; Renfu Tan; Haitao Wang; Jun Lin; Pengcheng Luo; Shouzhi Fu; Hongbin Cai; Ping Ye; Bing Xiao; Weiming Mao; Liming Liu; Youqin Yan; Mingyu Liu; Manhua Chen; Xiao-Jing Zhang; Xinghuan Wang; Rhian M Touyz; Jiahong Xia; Bing-Hong Zhang; Xiaodong Huang; Yufeng Yuan; Rohit Loomba; Peter P Liu; Hongliang Li
Journal:  Circ Res       Date:  2020-04-17       Impact factor: 17.367

4.  A crucial role of angiotensin converting enzyme 2 (ACE2) in SARS coronavirus-induced lung injury.

Authors:  Keiji Kuba; Yumiko Imai; Shuan Rao; Hong Gao; Feng Guo; Bin Guan; Yi Huan; Peng Yang; Yanli Zhang; Wei Deng; Linlin Bao; Binlin Zhang; Guang Liu; Zhong Wang; Mark Chappell; Yanxin Liu; Dexian Zheng; Andreas Leibbrandt; Teiji Wada; Arthur S Slutsky; Depei Liu; Chuan Qin; Chengyu Jiang; Josef M Penninger
Journal:  Nat Med       Date:  2005-07-10       Impact factor: 53.440

5.  Continued In-Hospital Angiotensin-Converting Enzyme Inhibitor and Angiotensin II Receptor Blocker Use in Hypertensive COVID-19 Patients Is Associated With Positive Clinical Outcome.

Authors:  Katherine W Lam; Kenneth W Chow; Jonathan Vo; Wei Hou; Haifang Li; Paul S Richman; Sandeep K Mallipattu; Hal A Skopicki; Adam J Singer; Tim Q Duong
Journal:  J Infect Dis       Date:  2020-09-14       Impact factor: 5.226

6.  Effects of Renin-Angiotensin Inhibition on ACE2 (Angiotensin-Converting Enzyme 2) and TMPRSS2 (Transmembrane Protease Serine 2) Expression: Insights Into COVID-19.

Authors:  Congqing Wu; Dien Ye; Adam E Mullick; Zhenyu Li; A H Jan Danser; Alan Daugherty; Hong S Lu
Journal:  Hypertension       Date:  2020-07-14       Impact factor: 10.190

7.  A systematic review and meta-analysis to evaluate the clinical outcomes in COVID-19 patients on angiotensin-converting enzyme inhibitors or angiotensin receptor blockers.

Authors:  Abhinav Grover; Mansi Oberoi
Journal:  Eur Heart J Cardiovasc Pharmacother       Date:  2020-06-15

8.  Use of renin-angiotensin-aldosterone system inhibitors and risk of COVID-19 requiring admission to hospital: a case-population study.

Authors:  Francisco J de Abajo; Sara Rodríguez-Martín; Victoria Lerma; Gina Mejía-Abril; Mónica Aguilar; Amelia García-Luque; Leonor Laredo; Olga Laosa; Gustavo A Centeno-Soto; Maria Ángeles Gálvez; Miguel Puerro; Esperanza González-Rojano; Laura Pedraza; Itziar de Pablo; Francisco Abad-Santos; Leocadio Rodríguez-Mañas; Miguel Gil; Aurelio Tobías; Antonio Rodríguez-Miguel; Diego Rodríguez-Puyol
Journal:  Lancet       Date:  2020-05-14       Impact factor: 79.321

9.  Renin-Angiotensin-Aldosterone System Inhibitors in Patients with Covid-19.

Authors:  Muthiah Vaduganathan; Orly Vardeny; Thomas Michel; John J V McMurray; Marc A Pfeffer; Scott D Solomon
Journal:  N Engl J Med       Date:  2020-03-30       Impact factor: 91.245

10.  Characteristics of and Important Lessons From the Coronavirus Disease 2019 (COVID-19) Outbreak in China: Summary of a Report of 72 314 Cases From the Chinese Center for Disease Control and Prevention.

Authors:  Zunyou Wu; Jennifer M McGoogan
Journal:  JAMA       Date:  2020-04-07       Impact factor: 56.272

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  2 in total

Review 1.  Renin-Angiotensin Aldosterone System Inhibitors and COVID-19: A Systematic Review and Meta-Analysis Revealing Critical Bias Across a Body of Observational Research.

Authors:  Jordan Loader; Frances C Taylor; Erik Lampa; Johan Sundström
Journal:  J Am Heart Assoc       Date:  2022-05-27       Impact factor: 6.106

2.  Chronic use of renin-angiotensin-aldosterone system blockers and mortality in COVID-19: A multicenter prospective cohort and literature review.

Authors:  Nathalie Gault; Marina Esposito-Farèse; Matthieu Revest; Jocelyn Inamo; André Cabié; Élisabeth Polard; Jean-Sébastien Hulot; Jade Ghosn; Catherine Chirouze; Laurène Deconinck; Jean-Luc Diehl; Julien Poissy; Olivier Epaulard; Benjamin Lefèvre; Lionel Piroth; Etienne De Montmollin; Eric Oziol; Manuel Etienne; Cédric Laouénan; Patrick Rossignol; Dominique Costagliola; Emmanuelle Vidal-Petiot
Journal:  Fundam Clin Pharmacol       Date:  2021-05-16       Impact factor: 2.747

  2 in total

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