Literature DB >> 33443703

Post-Discharge Health Status and Symptoms in Patients with Severe COVID-19.

Himali Weerahandi1,2,3, Katherine A Hochman1, Emma Simon2,3, Caroline Blaum4, Joshua Chodosh4, Emily Duan5, Kira Garry2,3, Tamara Kahan5, Savannah L Karmen-Tuohy5, Hannah C Karpel5, Felicia Mendoza2,3, Alexander M Prete5, Lindsey Quintana5, Jennifer Rutishauser5, Leticia Santos Martinez2,3, Kanan Shah5, Sneha Sharma5, Elias Simon5, Ana Z Stirniman5, Leora I Horwitz6,7,8.   

Abstract

BACKGROUND: Little is known about long-term recovery from severe COVID-19 disease. Here, we characterize overall health, physical health, and mental health of patients 1 month after discharge for severe COVID-19.
METHODS: This was a prospective single health system observational cohort study of patients ≥ 18 years hospitalized with laboratory-confirmed COVID-19 disease who required at least 6 l of oxygen during admission, had intact baseline cognitive and functional status, and were discharged alive. Participants were enrolled between 30 and 40 days after discharge. Outcomes were elicited through validated survey instruments: the PROMIS® Dyspnea Characteristics and PROMIS® Global Health-10.
RESULTS: A total of 161 patients (40.6% of eligible) were enrolled; 152 (38.3%) completed the survey. Median age was 62 years (interquartile range [IQR], 50-67); 57 (37%) were female. Overall, 113/152 (74%) participants reported shortness of breath within the prior week (median score 3 out of 10 [IQR 0-5]), vs 47/152 (31%) pre-COVID-19 infection (0, IQR 0-1), p < 0.001. Participants also rated their physical health and mental health as worse in their post-COVID state (43.8, standard deviation 9.3; mental health 47.3, SD 9.3) compared to their pre-COVID state, (54.3, SD 9.3; 54.3, SD 7.8, respectively), both p < 0.001. Physical and mental health means in the general US population are 50 (SD 10). A total of 52/148 (35.1%) patients without pre-COVID oxygen requirements needed home oxygen after hospital discharge; 20/148 (13.5%) reported still using oxygen at time of survey.
CONCLUSIONS: Patients with severe COVID-19 disease typically experience sequelae affecting their respiratory status, physical health, and mental health for at least several weeks after hospital discharge.

Entities:  

Year:  2021        PMID: 33443703      PMCID: PMC7808113          DOI: 10.1007/s11606-020-06338-4

Source DB:  PubMed          Journal:  J Gen Intern Med        ISSN: 0884-8734            Impact factor:   5.128


INTRODUCTION

The body of literature on the inpatient course of illness of COVID-19 has rapidly grown over the past several months; however, little is known about the long-term recovery from severe COVID-19 disease. COVID-19 is characterized by an unusual degree of hypoxia among hospitalized patients, reports of delirium and encephalopathy, hypercoagulability, and a much higher intubation and death rate than comparable viral pneumonias.[1-8] The extent to which impacts on health persist after hospital discharge, however, is uncertain. Anecdotal reports have described onset of pulmonary fibrosis in severely ill patients,[4] which would be expected to cause long-term disability; however, only a handful of studies have comprehensively assessed duration and severity of dyspnea after recovery from hospitalization. One study of 143 patients in Italy found that 43% of patients reported persistent dyspnea an average of 60 days after symptom onset;[9] another of 120 patients in France found that 42% had dyspnea an average of 111 days after hospital admission.[10] Moreover, patients requiring mechanical ventilation have experienced longer periods of intubation[4] than is typical for infectious pneumonia, increasing risk for muscle atrophy, delirium, pulmonary damage, and long-term disability.[11] Finally, anecdotes of neurologic manifestations of COVID-19 disease even without mechanical ventilation, such as encephalopathy and confusion, have been reported.[6,12] Whether these manifestations persist post-recovery is also unknown. Studying the long-term sequelae of COVID-19 disease is critical for understanding the full natural history of disease, accurately predicting the cumulative impact of disease beyond hospitalization and mortality, and determining whether inpatient or post discharge pulmonary rehabilitation should be considered. Here, we characterize overall health status and the physical and mental health of patients discharged home after severe COVID-19.

METHODS

Study Cohort

This was a prospective single health system observational cohort study conducted at NYU Langone Health. Eligible patients were those 18 years and older who required at least 6 l of oxygen at any point during a hospitalization for laboratory-confirmed COVID-19, who were discharged alive to either home or a facility after April 15, 2020, and were still alive at the time of study contact. We excluded patients with communication impairment or baseline dementia. This was determined by chart review or if upon consent for this study, the patient was unable to articulate the purpose of this study and what would be required of them to participate. We also excluded patients discharged to hospice, patients who resided in long-term care pre-hospitalization, patients fully dependent in activities of daily living pre-hospitalization, and patients that opted out of research. We used the electronic health record to identify consecutive discharges within the prior 30–40 days. Trained study personnel manually reviewed each patient’s chart to verify eligibility. Eligible patients were then called to solicit interest in the study. Interested patients were consented and enrolled over the phone. After informed consent was obtained, the study survey (Appendix) was either conducted by study personnel with the patient over the phone or independently online by the patient, per the patient’s preference. If the patient was not English speaking, the survey was conducted over the phone with interpretation services. NYU Grossman School of Medicine’s Institutional Review Board approved the protocol.

Instruments

Data were collected and managed using REDCap electronic data capture tools[13] hosted at NYU Langone Health in order to minimize missing inputs and allow for real-time data validation and quality control. The survey was designed to reinforce, but not require, responses to all items. Missing individual item responses were not imputed other than as described below for the PROMIS® Dyspnea Characteristics instrument. Outcomes were elicited through validated PROMIS® (Patient-Reported Outcomes Measurement Information System) survey instruments (Appendix). PROMIS® is a program developed by the National Institutes of Health that provides rigorous measures of patient-reported outcomes for use in clinical studies in patients and in the general population.[14] It affords comparability, reliability and validity, flexibility, and inclusiveness across a range of patients and diagnoses.[15] To evaluate the degree of residual pulmonary impairment, we used the PROMIS® Dyspnea Characteristics instrument (Appendix).[16] This is a five-item instrument that assesses quantitative and qualitative descriptions of a person’s experience of dyspnea. The first four items use a 0–10 numeric rating scale (where 0 represents no shortness of breath and 10 represents the worst possible shortness of breath) and the last item uses a five-point Likert scale. The first item asks participants to rate their shortness of breath in general. If the participant has no shortness of breath, the instrument stops there and items 2–3 are assigned a score of 0, and item 5 is assigned a score of 1. If the participant reports shortness of breath, we asked the remaining four items, which address the intensity, frequency, duration, and severity of dyspnea. This instrument was administered twice during the survey: once asking patients to reflect on their shortness of breath in the last 7 days and then again to reflect on their shortness of breath before they had COVID-19. Items in this instrument were scored individually. To evaluate overall health status and mental health, we used the PROMIS® Global Health-10 instrument (Appendix).[17] This is a 10-item standardized psychometric instrument that measures an individual’s overall physical, mental, and social health. Each item is converted to a five-point scale, in which higher scores indicate better health. Physical and mental health summary scores are produced using four items each. Raw scores for these domains are converted to normed t scores. These scores are standardized such that a score of 50 (10) represents the mean (standard deviation) for the US general population. The remaining two items are on general health and how well social activities are carried out; these items are scored individually. As with the PROMIS® Dyspnea Characteristics instrument, we administered the Global Health-10 instrument twice, first asking patients to reflect on how they felt in the past 7 days and then again to reflect on how they felt before they became ill with COVID-19.

Statistical Analyses

We used descriptive statistics to illustrate patient characteristics. To make bivariate comparisons of symptoms before and after COVID-19 and account for paired data, we utilized the Wilcoxon signed-rank test for ordinal data comparisons and the paired t test for normally distributed linear data comparisons. Pairwise comparisons were made with patients who had responded to items reflecting on their experience both before and after COVID-19. For score-based analyses, patients with incomplete surveys were excluded from the calculation of total scores. We also conducted two subgroup analyses: one of patients who had shortness of breath prior to COVID-19, and one of patients who had underlying pulmonary disease, comparing their shortness of breath severity before and after COVID-19. Data were analyzed using SAS version 9.4 (SAS Institute, Cary, NC). All analyses were two-tailed and we treated a p value of < 0.05 as significant.

RESULTS

Study Participation and Cohort Characteristics

We screened 538 COVID-19 discharges identified through the electronic health record. Of these, 137 were deemed ineligible (Fig. 1). Of the remaining 397 eligible discharges, 135 could not be reached, 94 declined to participate, 7 were rehospitalized and too sick to participate, and 161 patients enrolled, of whom 152 completed the survey. Patients who were eligible but not enrolled were of similar age as those who consented (median age 64 years [interquartile range 57–72] vs 62 years [IQR 50–67]), had similar median length of stay (17 days [IQR 10–37] vs 18 days [IQR 10–31]), similar intensive care unit use (101 [43.4%] vs 73 [45.3%]), and similar need for mechanical ventilation (86 [36.9%] vs 59 [36.7]). However, patients who were eligible but not enrolled were less likely to speak English (153 [65.7%] vs 125 [77.6%]), more likely to need an interpreter (53 [23.0%] vs 30 [18.8%]), more likely to have Medicare insurance (103 [44.2%] vs 55 [34.2%]), less likely to have received extracorporeal membrane oxygenation during hospitalization (8 [3.4%] vs 13 [8.1%]), and more likely to be discharged home (133 [55.1%]) compared to consented patients (73 [45.3%]) (Table 1).
Fig. 1

Flow diagram of enrolled participants.

Table 1

Cohort Characteristics

CharacteristicsConsented (N = 161) median (IQR), or N (%)Eligible but not enrolled (N = 233) median (IQR), or N (%)
Age (years), median (IQR)62 (50, 67)64 (57, 72)
Female60 (37.3)86 (36.9)
Race
  White71 (44.1)87 (37.3)
  Hispanic35 (21.7)74 (31.8)
  Other/Multiracial14 (8.7)22 (9.4)
  Asian16 (9.9)21 (9.0)
  Black18 (11.2)22 (9.4)
  Unknown7 (4.4)7 (3.0)
Language
  English125 (77.6)153 (65.7)
  Spanish26 (16.2)54 (23.2)
  Russian4 (2.5)7 (3.0)
  Bengali2 (1.2)1 (0.4)
  Arabic1 (0.6)1 (0.4)
  Cantonese1 (0.6)7 (3.0)
  Mandarin1 (0.6)1 (0.4)
  Haitian1 (0.6)1 (0.4)
  Other0 (0.0)7 (3.0)
  Unknown0 (0.0)1 (0.4)
Interpreter needed30 (18.8)53 (22.9)
Insurance
  Commercial63 (39.1)66 (28.3)
  Medicare55 (34.2)103 (44.2)
  Medicaid39 (24.2)62 (26.6)
  Unknown4 (2.5)2 (0.9)
Smoking status
  Never94 (58.4)126 (54.1)
  Former45 (28.0)57 (24.5)
  Current4 (2.5)17 (7.3)
  Unknown18 (11.2)33 (14.2)
Any chronic condition134 (83.2)189 (81.1)
Chronic kidney disease13 (8.1)38 (16.3)
Cancer12 (7.5)22 (9.4)
Coronary artery disease15 (9.3)41 (17.6)
Diabetes59 (36.7)100 (42.9)
Heart failure8 (5.0)17 (7.3)
Hyperlipidemia75 (46.6)107 (45.9)
Hypertension97 (60.3)145 (62.2)
Asthma or chronic obstructive pulmonary disorder39 (24.2)32 (13.7)
BMI class
  BMI < 25 kg/m223 (14.3)67 (28.8)
  BMI 25 to < 30 kg/m249 (30.4)73 (31.3)
  BMI 30 to < 40 kg/m266 (41.0)71 (30.5)
  BMI ≥ 40 kg/m222 (13.7)19 (8.2)
  Unknown1 (0.6)3 (1.3)
Length of stay (days)18 (10, 31)17 (10, 37)
Intensive care unit stay73 (45.3)101 (43.4)
Type of respiratory support
  Mechanical ventilation59 (36.7)86 (36.9)
  High flow33 (20.5)39 (16.7)
Received ECMO13 (8.1)8 (3.4)
Received tocilizumab62 (38.5)74 (31.8)
Received corticosteroids21 (13.0)33 (14.2)
First D-dimer, median (IQR)404 (267, 650)505 (294.5, 959)
First C-reactive protein, median (IQR)140.7 (83.97, 190.1)145 (87.2, 214)
First RT-PCR cycle threshold, median (IQR)32.2 (26.9, 36.9)32.55 (27.7, 37.8)
Discharged to?
  Home73 (45.3)133 (57.1)
  Skilled nursing facility/rehab47 (29.2)73 (31.3)
  Lower acuity inpatient setting1 (0.6)1 (0.4)
  Unknown40 (24.8)26 (11.2)
Completed surveys (N = 152) median (IQR)
Lives with
  Spouse93 (57.8)N/A
  Child (ren)79 (49.1)N/A
  Grandchild(ren)10 (6.2)N/A
  Other18 (11.2)N/A
  Alone30 (19.7)N/A
Since hospital discharge
  Seen a medical professional137 (85.1)N/A
  Received visiting nurse care88 (54.7)N/A
  Had visiting nurse services prior to hospitalization1 (1.1)N/A
  Received home health aide services27 (16.8)N/A
  Had home health aide services prior to hospitalization5 (18.5)N/A
  Had an ED visit9 (5.6)N/A
  Were readmitted3 (1.9)N/A

IQR, interquartile range; BMI, body mass index; ECMO, extracorporeal membrane oxygenation

Flow diagram of enrolled participants. Cohort Characteristics IQR, interquartile range; BMI, body mass index; ECMO, extracorporeal membrane oxygenation Participants completed surveys at a median of 37 days (range 30–43) after hospital discharge (equivalent to a median of 55 days (range 38–95) after hospital admission). Of those who completed surveys, 56/152 (36.8%) required home oxygen on hospital discharge, of whom 52 (92.9%) reported home oxygen as a new requirement; 20/148 (13.5%) participants previously not oxygen-dependent reported still requiring oxygen at the time of survey. For those with new current oxygen use, most (16/20, 80%) reported needing 1–2 l per minute of oxygen. Most participants (137, 90.1%) had seen a medical professional since discharge. Slightly more than half received visiting nurse services after hospital discharge; only one person reported having these services prior to hospitalization. In contrast, only 27 (17.8%) reported receiving home health aide services after hospital discharge; 5 (18.5%) participants in this group reported HHA services prior to hospitalization. Only 9 (5.9%) reported an ED visit after hospital discharge, and 3 (2.0%) reported hospital readmission.

Dyspnea Outcomes

At the time of survey, a total of 113 (74.3%) participants reported some shortness of breath (median score 3 out of 10, IQR 0–5), compared to only 47 (30.9%) pre-COVID-19 infection (0, IQR 0–1), p < 0.001. For those that did have shortness of breath prior to COVID-19, intensity, frequency, and duration of the shortness of breath worsened after COVID-19 (Table 2). In addition, more patients reported feeling short of breath “quite a bit” and “very much” in the past 7 days (18 [11.8%]) compared to before COVID-19 infection (4 [2.6%], p = 0.028).
Table 2

Outcomes

Before COVID N = 152After COVID N = 152p value
Median (IQR)
Shortness of breath*
  Among all patients (N = 152)
    General shortness of breath0 (0–1)3 (0–5)< 0.001
    Intensity of shortness of breath0 (0–0)2 (0–4)< 0.001
    Frequency of shortness of breath0 (0–0)1 (0–3)< 0.001
    Duration of shortness of breath0 (0–0)1 (0–2)< 0.001
  Among those with shortness of breath before COVID-19 (N = 47)
    General shortness of breath2 (1–5)4 (2–6)0.016
    Intensity of shortness of breath2 (0–3)3 (2–5)0.008
    Frequency of shortness of breath1 (0–3)3 (1–5)0.001
    Duration of shortness of breath1 (0–3)2 (1–5)0.002
  Among those with asthma or COPD (N = 35)
    General shortness of breath1 (0–4)4 (2–7)< 0.001
    Intensity of shortness of breath0 (0–3)3 (0–5)0.010
    Frequency of shortness of breath0 (0–2)2 (1–5)0.001
    Duration of shortness of breath0 (0–2)2 (0–5)< 0.001
Global health
  In general, would you say your health is…4 (3–5)3 (2–4)< 0.001
  Please rate how well you carry out your usual social activities and roles.5 (4–5)3 (2–4)< 0.001
Physical health
Physical health T score†54.3 (9.3)43.8 (9.2)< 0.001
Physical health items
  How would you rate your physical health?4 (3–4)3 (2–3)
  To what extent are you able to carry out every day physical activities (i.e., walking, climbing stairs, carrying groceries, or moving a chair?)5 (4–5)3 (2–4)
  How would you rate your pain on average?5 (4–5)4 (3–5)
  How would you rate your fatigue on average?4 (4–5)3 (3–4)
Mental health T score†54.8 (7.8)47.3 (9.3)< 0.001
Mental health items
  Would you say your quality of life is…4 (3–5)3 (2–4)
  How would you rate your mental health, including your mood and your ability to think?4 (3–5)3 (3–4)
  How would you rate your satisfaction with your social activities & relationships?4 (4–5)3 (3–4)
  How often have you been bothered by emotional problems such as feeling anxious, depressed or irritable?4 (4–5)4 (3–5)

*Shortness of breath items use a 0–10 numeric rating scale (where 0 represents no shortness of breath and 10 represents the worst possible shortness of breath). If the participant has no shortness of breath, the instrument stops after the first item and the subsequent three items are assigned a score of 0. All other survey items are scored on a five-point scale, where higher scores indicate better health

†Summary scores are converted normed t scores, where a score of 50 (10) represents the mean (standard deviation) for the US general population

Outcomes *Shortness of breath items use a 0–10 numeric rating scale (where 0 represents no shortness of breath and 10 represents the worst possible shortness of breath). If the participant has no shortness of breath, the instrument stops after the first item and the subsequent three items are assigned a score of 0. All other survey items are scored on a five-point scale, where higher scores indicate better health †Summary scores are converted normed t scores, where a score of 50 (10) represents the mean (standard deviation) for the US general population

Overall Health, Physical Health, and Mental Health

The PROMIS® Global Health-10 instrument scores indicated worse general health after COVID-19 illness (3 out of 5, IQR 2–4) compared to baseline (4, IQR 3–5). Before COVID-19, participants’ summary t scores in both the physical health and mental health domains were slightly above the US mean of 50 (54.3, standard deviation 9.3; 54.3 SD 7.8, respectively). One month after COVID-19 infection, both scores were significantly lower (physical health 43.8, SD 9.3; mental health 47.3, SD 9.3; p < 0.001 for both). For the physical health score, this represents a decline of more than a full standard deviation. Patients also reported worsened ability to carry out social activities after COVID-19 (p < 0.001). Table 2 further details these outcomes.

DISCUSSION

In our prospective single health system observational cohort study examining post-discharge outcomes of patients hospitalized for severe COVID-19, we found that patients began with overall health slightly better than the US average, and typically did not have shortness of breath prior to hospitalization for COVID-19. However, almost three quarters of patients reported persistent shortness of breath more than a month post-hospital discharge. For those who had shortness of breath prior to COVID-19, the intensity, frequency, and duration of the shortness of breath worsened after COVID-19. In addition, physical health and mental health were both rated as worse than baseline even 1 month after hospital discharge. While anecdotal reports in the lay press have described individual patients with COVID-19 sequelae lasting for several weeks,[18-20] and one study found that 35% of non-hospitalized patients with mild COVID-19 had not returned to their usual state of health 2–3 weeks after diagnosis,[21] our study confirms that prolonged recovery time is the case for the great majority of patients who suffer from severe COVID-19 illness. The World Health Organization estimates that the median time from onset of disease to recovery of severe COVID-19 is about 3–6 weeks, based on early data from China.[22] However, three quarters of our patients had persistent dyspnea at 7–9 weeks after onset of disease (median of 55 days after hospital admission, which in turn typically occurs 5–10 days after symptom onset). Recent data from Italy examining post-discharge outcomes similarly indicate persistent dyspnea in 43% of patients an average of 2 months after symptom onset.[9] Our cohort by design was more likely to have experienced intensive care or mechanical ventilation than the Italian cohort, likely explaining the higher prevalence of persistent dyspnea in our study. Given the high incidence of intensive care unit stays and long hospitalizations associated with these cases, these patients are at risk for post-intensive care syndrome[23,24] and post-hospital syndrome.[25] This has serious implications for the ability to return to work, downstream effects on mental health due to sometimes drastic lifestyle and work capacity changes (most notably persistent shortness of breath), and the ability to engage in activities or hobbies enjoyed prior to COVID-19 illness. Prior work examining post-discharge outcomes in acute respiratory distress syndrome (ARDS) demonstrate that while pulmonary function may recover, especially in relatively young patients, many experience reduced physical quality of life even at 5 years after their critical illness.[26-28] A systematic review and meta-analysis of critical illness survivors (with and without ARDS) similarly found slow early recovery—only 36% had returned to work by 3 months—and a substantial group with persistent long-term symptoms: 40% had still not returned to work after 1 year.[29] Another study examining long-term outcomes in Influenza A (H7N9) survivors demonstrated improvement in pulmonary function and imaging findings during the first 6 months after hospital discharge but showed that impairment to quality of life persisted even at 2 years post-discharge.[30] At this time, the permanence of reported symptoms for COVID-19 survivors is unclear; however, these early results are worrisome. Furthermore, we observed significant psychological distress in study participants, almost 20% of whom live alone. Given these findings, interventions after discharge may be needed to speed recovery.[31] As shortness of breath may affect ability to complete activities of daily living, services to support these individuals during the post-discharge transition such as home health aide care should be arranged. Interventions for preventing and treating post-intensive care and post-hospital syndrome should also be considered. Pulmonary-specific interventions such as pulmonary rehabilitation should be explored.

Strengths and Limitations

Our study provides a novel contribution characterizing early post-discharge outcomes in patients who have experienced severe COVID-19 disease. In addition, immigrant communities in New York City were hit particularly hard with COVID-19 and our study included patients from diverse backgrounds, with no language exclusions: nearly one in five patients in our study completed the survey through an interpreter. However, it has some limitations. Our survey does not include objective measures of pulmonary function. We compared current state to self-reported pre-COVID state, which may be subject to recall bias; however, this would not affect the post-COVID findings. We also specifically studied the experience of sicker patients—those who required hospitalization and at least 6 l of oxygen during admission; our results are not generalizable to those with mild COVID-19. Of note, our results may underestimate the severity of post-discharge symptoms among those with severe COVID-19, as we excluded frail elders, people with dementia, and patients from or eligible for long-term care, who might be expected to have worse outcomes, and were unable to reach several patients who had been rehospitalized. Self-reported utilization outcomes such as readmission may also be underreported.[32] Longer-term outcomes are still unknown. Generalizability may be limited by its single health system design; however, our health system does encompass multiple hospitals across urban and suburban settings, and our patient population was markedly diverse.

CONCLUSION

The initial phase of the COVID-19 pandemic has taxed our healthcare system’s capacity to deliver acute and critical care. Prior work examining the long-term sequelae of severe ARDS has demonstrated deleterious effects on pulmonary function and health status even several years after disease onset.[27,28] We found that survivors of severe COVID-19 experience shortness of breath, and worsened physical and mental health more than a month after hospital discharge. Whether these harms will persist is presently unknown. Regardless, it is clear that the individual and social impact of disease is more substantial than would be suggested by hospitalization and mortality rates alone. Given the volume of patients affected by this disease, plans to care for these patients longitudinally must be considered. (PDF 667 kb)
  24 in total

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Journal:  Crit Care Med       Date:  2012-02       Impact factor: 7.598

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Journal:  Circ Cardiovasc Qual Outcomes       Date:  2020-06-19

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Authors:  David S Hui; Ka T Wong; Fanny W Ko; Lai S Tam; Doris P Chan; Jean Woo; Joseph J Y Sung
Journal:  Chest       Date:  2005-10       Impact factor: 9.410

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Authors: 
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Journal:  J Infect       Date:  2020-08-25       Impact factor: 6.072

8.  Incidence of thrombotic complications in critically ill ICU patients with COVID-19.

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Journal:  Thromb Res       Date:  2020-04-10       Impact factor: 3.944

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Authors:  Tahmina Nasserie; Michael Hittle; Steven N Goodman
Journal:  JAMA Netw Open       Date:  2021-05-03

Review 4.  Long COVID and Myalgic Encephalomyelitis/Chronic Fatigue Syndrome (ME/CFS)-A Systemic Review and Comparison of Clinical Presentation and Symptomatology.

Authors:  Timothy L Wong; Danielle J Weitzer
Journal:  Medicina (Kaunas)       Date:  2021-04-26       Impact factor: 2.430

Review 5.  Pathological sequelae of long-haul COVID.

Authors:  Saurabh Mehandru; Miriam Merad
Journal:  Nat Immunol       Date:  2022-02-01       Impact factor: 31.250

Review 6.  A Review of Prolonged Post-COVID-19 Symptoms and Their Implications on Dental Management.

Authors:  Trishnika Chakraborty; Rizwana Fathima Jamal; Gopi Battineni; Kavalipurapu Venkata Teja; Carlos Miguel Marto; Gianrico Spagnuolo
Journal:  Int J Environ Res Public Health       Date:  2021-05-12       Impact factor: 3.390

7.  Out-of-Pocket Spending Within 90 Days of Discharge from COVID-19 Hospitalization.

Authors:  Kao-Ping Chua; Rena M Conti; Nora V Becker
Journal:  medRxiv       Date:  2021-06-18

Review 8.  Unraveling the Mystery Surrounding Post-Acute Sequelae of COVID-19.

Authors:  Rakhee K Ramakrishnan; Tarek Kashour; Qutayba Hamid; Rabih Halwani; Imad M Tleyjeh
Journal:  Front Immunol       Date:  2021-06-30       Impact factor: 7.561

9.  Continued nucleic acid tests for SARS-CoV-2 following discharge of patients with COVID-19 in Lu'an, China.

Authors:  Yong Lyu; Danni Wang; Xiude Li; Tianqi Gong; Pengpeng Xu; Lei Liu; Jie Sun
Journal:  PeerJ       Date:  2021-06-22       Impact factor: 2.984

Review 10.  Health-related quality of life issues, including symptoms, in patients with active COVID-19 or post COVID-19; a systematic literature review.

Authors:  Cecilie Delphin Amdal; Madeline Pe; Ragnhild Sørum Falk; Claire Piccinin; Andrew Bottomley; Juan Ignacio Arraras; Anne Sophie Darlington; Kristin Hofsø; Bernard Holzner; Nina Marie Høyning Jørgensen; Dagmara Kulis; Stein Arne Rimehaug; Susanne Singer; Katherine Taylor; Sally Wheelwright; Kristin Bjordal
Journal:  Qual Life Res       Date:  2021-06-19       Impact factor: 4.147

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