Literature DB >> 35781679

Potential of outpatient steroid therapy in elderly patients with early COVID-19.

Roberto Luzzati1,2, Marina De Luca3, Gianfranco Sanson4, Massimo Borelli5, Gianni Biolo4,6, Donatella Giacomazzi3, Verena Zerbato3, Stefano Di Bella3,4.   

Abstract

Corticosteroids lower mortality in hospitalized patients with COVID-19 pneumonia requiring oxygen support. In this observational retrospective study (September 2020-June 2021), we explored the association between receiving home corticosteroids without oxygen supply and 30-day mortality in hospitalized patients with COVID-19 pneumonia. Among a total of 794 COVID-19 pneumonia patients, 763 were included into the study (males 68%; mean age 65 ±12 years), of whom 197 (26%) received home corticosteroids (mean daily prednisone equivalent-dose 40 mg ± 12 mg; range 10-50 mg; median 50 mg; IQR 25-50 mg; for 4 days). The overall 30-day mortality of the study population was 12%. The risk of death-adjusted for age, comorbidities, administration of remdesivir and respiratory failure severity-was lower (HR 0.405; p = 0.024) in patients receiving home corticosteroids. After stratifying the study population by age categories, home corticosteroids were associated with an adjusted decrease in mortality risk in patients > 77 years (HR 0.346; p = 0.040). Home corticosteroids may lower the 30-day mortality in elderly COVID-19 patients.
© 2022. The Author(s), under exclusive licence to Springer Nature Switzerland AG.

Entities:  

Keywords:  All-cause mortality; COVID-19; Corticosteroids; Elderly; Outpatient; Pneumonia

Year:  2022        PMID: 35781679      PMCID: PMC9252560          DOI: 10.1007/s40520-022-02181-1

Source DB:  PubMed          Journal:  Aging Clin Exp Res        ISSN: 1594-0667            Impact factor:   4.481


Introduction

The therapeutic management of outpatients with mild COVID-19 not requiring oxygen supply consists of symptomatic treatment using antipyretics, analgesics and antitussives [1]. More recently, several therapeutic options are available for the treatment of non-hospitalized patients at high risk of disease progression. In fact, antispike neutralizing antibodies (e.g. sotrovimab) and novel antivirals (remdesivir, molnupiravir and ritonavir/nirmatrelvir) have demonstrated to reduce medically attended visit or hospitalization in high-risk outpatients. However, the effect of these therapies in reducing mortality is low [2-5]. The Recovery trial demonstrated dexamethasone to lower 28-day mortality among hospitalized patients with COVID-19 pneumonia requiring either invasive mechanical ventilation (IMV) or oxygen alone but not in those with no oxygen need [6]. WHO recommends against the use of dexamethasone or other systemic glucocorticoids to treat patients with mild to moderate COVID-19 who do not require hospitalization and supplemental oxygen [7]. Early corticosteroid therapy is a double-edge sword that can mitigate inflammation and delay viral clearance at a time when control of viral replication is crucial, as previously observed in patients with SARS-Cov-1 in 2003 [8]. On the other hand, late use and high or medium doses rather than early use and low dose of glucocorticoids were significantly associated with a high risk of viral clearance delay in a recent review and meta-analysis on the effect of steroid use on the viral shedding in COVID-19 [9]. Corticosteroids are often prescribed in real-life even in outpatients without oxygen support by general practitioners. However, data evaluating the possible benefits of corticosteroids in the very early phase of COVID-19 are lacking. We aimed to explore the association between home administration of corticosteroids compared to usual care and 30-day all-cause mortality in hospitalized patients with COVID-19 pneumonia.

Patients and methods

We performed an observational retrospective study analyzing data on adults hospitalized with COVID-19 pneumonia. All patients had PCR-confirmed SARS-Cov-2 infection and were consecutively admitted from September 2020 to June 2021 to the Infectious Diseases Unit, University Hospital, Trieste, Italy. Demographics (age and gender) and clinical characteristics including obesity, hypertension, diabetes, chronic obstructive pulmonary disease (COPD), and immune deficit were collected at hospital admission. Data on corticosteroid therapy before hospital admission were collected including time from onset of symptoms to corticosteroid therapy, overall corticosteroid (prednisone equivalent) dose [10], and treatment duration. Because of inter-patient variability of corticosteroid drug and dosage, home steroid therapy was managed as a dichotomic variable (yes or no). The highest respiratory support received during hospitalization (oxygen via masks or high-flow nasal cannula, non-invasive or invasive mechanical ventilation) was considered as a marker of respiratory failure severity. Other relevant care administered during hospitalization, including remdesivir, heparin/oral anticoagulants, and corticosteroids, were collected as well. Patients not undergoing corticosteroids during their hospital stay were excluded. All-cause 30-day mortality was considered as primary outcome. Continuous variables were presented as means ± standard deviations (SD). The between-group comparisons were analyzed via Student’s t test for independent samples after determining whether or not equal variance could be attributed to the subgroups as per Levene’s test. Nominal variables were shown as a number and percentage and the respective contingency tables were analyzed using χ test or Fisher’s exact test, as appropriate. The different time of death according to having received or not steroids before hospital admission was explored. Observations were right-censored until 30-days from hospitalization. Both unadjusted and adjusted survival analyses were carried out. To assess a possible hierarchy between mortality predictors, an exploratory analysis was conducted through recursive regression trees, showing three statistically significant different (p < 0.001) age strata: < 68, 68–77, and > 77 years. Multivariable Cox proportional-hazards models with forward stepwise selection were adjusted for confounders significantly related to the occurrence of 30-day death in bivariate analyses. The results were presented as an adjusted proportional-hazard ratio (HR) and 95% confidence intervals (CI). Since multivariable analysis showed patient’s age as a strong independent risk factor of death, separate Cox regressions for patients belonging to the previously identified age strata were computed for sensitivity analysis. P value < 0.05 was set for statistical significance.

Results

A total of 794 COVID-19 pneumonia patients (534 males, 67.2%; mean age 65.3±13.6 years) with COVID-19 pneumonia were admitted to the study ward. After excluding subjects not undergoing corticosteroids therapy during their hospital stay (n = 31; 3.9%), 763 patients were included into the study; 197 (26%) of them received home corticosteroids and none oxygen supply before hospital admission. The main characteristics of the study population are reported in Table 1.
Table 1

Main baseline social-demographic and clinical characteristics of the full study population and of subgroups undergoing or not steroid therapy before hospital admission

VariableAll patients (n = 763)No home steroids (n = 566)Home steroids (n = 197)p value
Sex (male)520 (68.2%)385 (68.0%)135 (68.5%)0.895
Age (years)65.2 ± 13.666.6 ± 14.061.4 ± 11.7 < 0.001
Age categories
  < 68 years425 (55.7%)284 (66.8%)141 (33.2%)
 68–77 years167 (21.9%)134 (80.2%)33 (19.8%) < 0.001
  > 77 years171 (22.4%)147 (86.0%)24 (14.0%)
BMI (kg/m2)27.4 ± 4.927.5 ± 5.127.3 ± 4.50.644
BMI ≥ 30 kg/m2202 (26.6%)154 (27.4%)48 (24.5%)0.435
Hypertension382 (50.1%)304 (53.7%)78 (39.6%)0.001
Diabetes146 (19.1%)114 (20.1%)32 (16.2%)0.231
COPD51 (6.7%)48 (8.5%)3 (1.5%) < 0.001
Immunodeficency45 (5.9%)41 (7.2%)4 (2.0%)0.007
Hospital heparin732 (95.9%)542 (95.8%)190 (96.4%)0.674
Hospital remdesivir115 (15.1%)94 (16.6%)21 (10.7%)0.044
Higher respiratory support
 None-oxygen*426 (55.8%)313 (55.3%)113 (57.4%)
 NIV289 (37.9%)213 (37.6%)76 (38.6%)0.325
 IMV48 (6.3%)40 (7.1%)8 (4.1%)

BMI body mass index, COPD Chronic obstructive pulmonary disease, NIV non-invasive mechanical ventilation, IMV invasive mechanical ventilation

*No support or oxygen through mask or high-flow nasal cannulae.

Main baseline social-demographic and clinical characteristics of the full study population and of subgroups undergoing or not steroid therapy before hospital admission BMI body mass index, COPD Chronic obstructive pulmonary disease, NIV non-invasive mechanical ventilation, IMV invasive mechanical ventilation *No support or oxygen through mask or high-flow nasal cannulae. The mean time from COVID-19 onset and the start of home steroids was 5.8 ± 3.2 days. The mean duration of steroid therapy was 3.7 ± 1.9 days. The overall dose of prednisone dose-equivalent steroid per patient was 147.4 ± 85.6 mg, corresponding approximately to a mean of prednisone 40 ± 12 mg daily (range 10–50 mg; median 50 mg; IQR 25–50 mg) for 4 days. Compared to untreated ones, corticosteroid home treated subjects were younger and had a lower prevalence of pre-existing hypertension, COPD and immunodeficiency conditions, and received less frequently antivirals in hospital, while no further between-group difference was found (Table 1). No between-group difference was found in home-administered steroid dose according to the considered age-strata (< 68 years: 40.6 ± 13.0 mg; 68–77 years: 43.9 ± 11.6 mg; > 77 years: 38.5 ± 13.5 mg; p = 0.286). Patients were admitted to the hospital after a mean of 9.4 ± 3.1 days from COVID-19 onset. All patients but one received either heparin or anticoagulants during hospitalization, so that this variable was not further considered in data analyses. Patients belonging to 68–77 age group underwent NIV or IMV in a higher percentage as compared to the other age-strata (< 68: n = 188, 44.2%; 68–77: n = 86, 51.5%; > 77: n = 62, 36.8%; p = 0.025). The overall 30-day mortality was 12.2%. In patients who received home corticosteroids the crude mortality was significantly lower compared to patients who did not (no home steroids: n = 86/566, 15.2%; home steroids: n = 7/197, 3.6%; p < 0.001). Mortality was also significantly associated with older age, hypertension, COPD and immunodeficiency, as well as with a higher respiratory support; conversely, mortality was lower for patients treated with remdesivir (Table 2).
Table 2

Social-demographic and clinical characteristics of the patients according to mortality at 30-day follow-up

VariableSurvived (n = 670)Dead (n = 93)p value
Sex (male)462 (69.0%)58 (62.4%)0.201
Age categories
  < 68 years417 (62.2%)8 (8.6%)
 68–77 years146 (21.8%)21 (22.6%) < 0.001
  > 77 years107 (16.0%)64 (68.8%)
BMI ≥ 30 kg/m2179 (26.8%)23 (25.3%)0.758
Hypertension316 (47.2%)66 (71.0%) < 0.001
Diabetes125 (18.7%)21 (22.6%)0.367
COPD35 (5.2%)16 (17.2%) < 0.001
Immunodeficency32 (4.8%)13 (14.0%) < 0.001
Hospital interventions
 Heparin641 (95.7%)91 (97.8%)0.319
 Remdesivir111 (16.6%)4 (4.3%)0.001
Higher respiratory support
 None-oxygen*375 (56.0%)51 (54.8%)
 NIV259 (38.7%)30 (32.3%)0.016
 IMV36 (5.4%)12 (12.9%)

BMI body mass index, COPD Chronic obstructive pulmonary disease, NIV non-invasive mechanical ventilation, IMV invasive mechanical ventilation

*No support or oxygen through mask or high-flow nasal cannulae.

Social-demographic and clinical characteristics of the patients according to mortality at 30-day follow-up BMI body mass index, COPD Chronic obstructive pulmonary disease, NIV non-invasive mechanical ventilation, IMV invasive mechanical ventilation *No support or oxygen through mask or high-flow nasal cannulae. Figure 1 shows the results of survival analyses. Patients undergoing home corticosteroids showed a lower crude mortality risk (p < 0.001) compared to untreated patients. This finding was confirmed by multivariable Cox regression analysis adjusted for comorbidities (hypertension, COPD and immunodeficiency), in-hospital administration of remdesivir and respiratory failure severity (i.e., the highest received respiratory support), demonstrating a significantly decreased (by 59%) proportional-risk of 30-day death in patients who received home corticosteroids. Other variables significantly associated to mortality were age, immunodeficiency and the severity of pneumonia as described by requiring IMV (Table 3). After stratifying the study population according to identified age categories, home corticosteroids were associated with a statistically significant decrease in mortality risk in patients older than 77 years in a multivariable Cox regression model adjusted for the above described covariates (Fig. 1). Based on this finding, patients belonging to over-77 age group receiving or not home steroids were compared as a further sensitivity analysis. No statistically significant difference was found neither according to respiratory failure severity (p = 0.474), nor to prevalence of comorbidities (hypertension: p = 0.267; diabetes: p = 0.489; COPD: p = 0.535; immunodeficiency: p = 0.221; obesity: p = 1.000).
Fig. 1

Crude a and adjusted b Kaplan–Meier curves for the proportional-risk of 30-day death in patients receiving or not home steroid therapy in the whole study population and adjusted Kaplan–Meier risk curves c for patients belonging to the study age strata. HR hazard ratio, CI confidence interval

Table 3

Results of stepwise cox regression of 30-day mortality on study variables

PredictorHR (95% CI)p value
Home steroids (yes)0.416 (0.191–0.907)0.027
Age categories
  < 68 years1.000
 68–77 years5.430 (2.387–12.350) < 0.001
  > 77 years23.591 (11.194–49.718) < 0.001
Immunodeficency (yes)2.053 (1.131–3.726)0.018
Higher respiratory support
 None-oxygen*1.000
 NIV0.879 (0.557–1.387)0.579
 IMV3.582 (1.826–7.023) < 0.001

Variable excluded from the final regression model: Remdesivir, Hypertension, Chronic obstructive pulmonary disease

HR hazard ratio, CI confidence interval, NIV non-invasive mechanical ventilation, IMV invasive mechanical ventilation.

*No support or oxygen through mask or high-flow nasal cannulae.

Crude a and adjusted b Kaplan–Meier curves for the proportional-risk of 30-day death in patients receiving or not home steroid therapy in the whole study population and adjusted Kaplan–Meier risk curves c for patients belonging to the study age strata. HR hazard ratio, CI confidence interval Results of stepwise cox regression of 30-day mortality on study variables Variable excluded from the final regression model: Remdesivir, Hypertension, Chronic obstructive pulmonary disease HR hazard ratio, CI confidence interval, NIV non-invasive mechanical ventilation, IMV invasive mechanical ventilation. *No support or oxygen through mask or high-flow nasal cannulae.

Discussion

The severity of COVID-19 pneumonia remains unacceptably high and antivirals have demonstrated little impact on COVID-19 mortality. Dexamethasone therapy lowers mortality in hospitalized patients with COVID-19 pneumonia requiring oxygen, especially in those treated after 7 days from symptoms [6]. Although no benefit of corticosteroids in COVID-19 hospitalized patients who do not require oxygen was reported, no harm has been equally demonstrated [6]. To date, the best timing for administering corticosteroids in SARS-CoV-2 infection remains undefined. Indeed, there are no data on the use of corticosteroids in non-hospitalized patients with COVID-19 not requiring oxygen support. In the present study, almost a quarter of 763 patients with COVID-19 pneumonia were treated with home corticosteroids by their general practitioners. After a mean of six days from the onset of COVID-19 onset, these patients received approximately prednisone 40 mg daily (or equivalent) for a mean duration of 4 days. Compared with untreated ones, corticosteroid treated patients were younger and had a lower prevalence of some pre-existing comorbidities. This was probably due to the unspecified role of steroids in the early phase of COVID-19. However, the administration of this steroid regimen was found to lower the risk of 30-day death and this benefit was particularly evident in the elderly patient population. This finding was confirmed by multivariable and sensitivity analyses adjusted for age categories, main comorbidities, administration of remdesivir and respiratory failure severity. Severe illness typically occurs around one week after the beginning of symptoms related to SARS-CoV-2 infection and risk factors for COVID-19 mortality include mainly older age, male gender, lung disease, cardiovascular disease, hypertension, diabetes and obesity [11]. Our data show that COVID-19 patients aged > 77 years had the highest death risk and were those who benefited mostly from home corticosteroids. The latter finding is not unexpected since the aging process is associated with increased levels of systemic pro-inflammatory cytokines and decreased levels of anti-inflammatory cytokines (“inflamm-aging”) [12]. The present study has several weaknesses. First, this is a retrospective observational study, where information regarding home corticosteroids were evaluated as a dichotomic variable and corticosteroid dosages were mainly reported by patients or their caregivers. Second, this is an Italian monocentric study and conclusions cannot be generalized. The third limitation is the lack of longitudinal data on SARS-CoV-2 clearance by serial nasopharyngeal samples. Lastly, we could not investigate the side effects of home corticosteroids regimens. In fact, since all of our patients received corticosteroid therapy following hospital admission, steroid side effects could not be attributable to a defined timing of treatment. Nonetheless, we explored for the first time the potential role of home corticosteroids in patients hospitalized for COVID-19 pneumonia. Our findings show that early corticosteroid therapy may lower the 30-day mortality in COVID-19 patients not receiving concomitant home oxygen supply who were subsequently hospitalized and treated with usual care, especially in the older ones. Given the retrospective nature of the study caution is needed in interpreting our results; however, early outpatient steroid therapy did not affect negatively the outcome in our patients with COVID-19 pneumonia. Since the elderly patient population is precisely the one with the highest mortality due to COVID-19 [13], there is high priority to confirm our data by a running well-designed prospective randomized controlled study.
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1.  Managing COVID-19 symptoms (including at the end of life) in the community: summary of NICE guidelines.

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3.  Early Treatment for Covid-19 with SARS-CoV-2 Neutralizing Antibody Sotrovimab.

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Journal:  N Engl J Med       Date:  2021-10-27       Impact factor: 91.245

4.  Effects of early corticosteroid treatment on plasma SARS-associated Coronavirus RNA concentrations in adult patients.

Authors:  Nelson Lee; K C Allen Chan; David S Hui; Enders K O Ng; Alan Wu; Rossa W K Chiu; Vincent W S Wong; Paul K S Chan; K T Wong; Eric Wong; C S Cockram; John S Tam; Joseph J Y Sung; Y M Dennis Lo
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5.  Molnupiravir for Oral Treatment of Covid-19 in Nonhospitalized Patients.

Authors:  Angélica Jayk Bernal; Monica M Gomes da Silva; Dany B Musungaie; Evgeniy Kovalchuk; Antonio Gonzalez; Virginia Delos Reyes; Alejandro Martín-Quirós; Yoseph Caraco; Angela Williams-Diaz; Michelle L Brown; Jiejun Du; Alison Pedley; Christopher Assaid; Julie Strizki; Jay A Grobler; Hala H Shamsuddin; Robert Tipping; Hong Wan; Amanda Paschke; Joan R Butterton; Matthew G Johnson; Carisa De Anda
Journal:  N Engl J Med       Date:  2021-12-16       Impact factor: 91.245

6.  Oral Nirmatrelvir for High-Risk, Nonhospitalized Adults with Covid-19.

Authors:  Jennifer Hammond; Heidi Leister-Tebbe; Annie Gardner; Paula Abreu; Weihang Bao; Wayne Wisemandle; MaryLynn Baniecki; Victoria M Hendrick; Bharat Damle; Abraham Simón-Campos; Rienk Pypstra; James M Rusnak
Journal:  N Engl J Med       Date:  2022-02-16       Impact factor: 176.079

Review 7.  The possible pathophysiology mechanism of cytokine storm in elderly adults with COVID-19 infection: the contribution of "inflame-aging".

Authors:  Gholam Hossein Meftahi; Zohreh Jangravi; Hedayat Sahraei; Zahra Bahari
Journal:  Inflamm Res       Date:  2020-06-11       Impact factor: 6.986

8.  Dexamethasone in Hospitalized Patients with Covid-19.

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

9.  Factors associated with COVID-19-related death using OpenSAFELY.

Authors:  Elizabeth J Williamson; Alex J Walker; Krishnan Bhaskaran; Seb Bacon; Chris Bates; Caroline E Morton; Helen J Curtis; Amir Mehrkar; David Evans; Peter Inglesby; Jonathan Cockburn; Helen I McDonald; Brian MacKenna; Laurie Tomlinson; Ian J Douglas; Christopher T Rentsch; Rohini Mathur; Angel Y S Wong; Richard Grieve; David Harrison; Harriet Forbes; Anna Schultze; Richard Croker; John Parry; Frank Hester; Sam Harper; Rafael Perera; Stephen J W Evans; Liam Smeeth; Ben Goldacre
Journal:  Nature       Date:  2020-07-08       Impact factor: 49.962

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