Literature DB >> 33711279

Persistent Symptoms and Disability After COVID-19 Hospitalization: Data From a Comprehensive Telerehabilitation Program.

Victor Figueiredo Leite1, Danielle Bianchini Rampim2, Valeria Conceição Jorge1, Maria do Carmo Correia de Lima1, Leandro Gonçalves Cezarino1, Cleber Nunes da Rocha1, Rodrigo Barbosa Esper1.   

Abstract

OBJECTIVE: To report symptoms, disability, and rehabilitation referral rates after coronavirus disease 2019 (COVID-19) hospitalization in a large, predominantly older population.
DESIGN: Cross-sectional study, with postdischarge telemonitoring of individuals hospitalized with confirmed COVID-19 at the first month after hospital discharge, as part of a comprehensive telerehabilitation program.
SETTING: Private verticalized health care network specialized in the older population. PARTICIPANTS: Individuals hospitalized because of COVID-19. We included 1696 consecutive patients, aged 71.8±13.0 years old and 56.1% female. Comorbidities were present in 82.3% of the cases (N=1696).
INTERVENTIONS: Not applicable. MAIN OUTCOME MEASURES: Dependence for basic activities of daily living (ADL) and instrumental activities of daily living (IADL) using the Barthel Index and Lawton's Scale. We compared the outcomes between participants admitted to the intensive care unit (ICU) vs those admitted to the ward.
RESULTS: Participant were followed up for 21.8±11.7 days after discharge. During postdischarge assessment, independence for ADL was found to be lower in the group admitted to the ICU than the ward group (61.1% [95% confidence interval (CI), 55.8%-66.2%] vs 72.7% [95% CI, 70.3%-75.1%], P<.001). Dependence for IADL was also more frequent in the ICU group (84.6% [95% CI, 80.4%-88.2%] vs 74.5%, [95% CI, 72.0%-76.8%], P<.001). Individuals admitted to ICU required more oxygen therapy (25.5% vs 12.6%, P<.001), presented more shortness of breath during routine (45.2% vs 34.5%, P<.001) and nonroutine activities (66.3% vs 48.2%, P<.001), and had more difficulty standing up for 10 minutes (49.3% vs 37.9% P<.001). The rehabilitation treatment plan consisted mostly of exercise booklets, which were offered to 65.5% of participants. The most referred rehabilitation professionals were psychologists (11.8%), physical therapists (8.0%), dietitians (6.8%), and speech-language pathologists (4.6%).
CONCLUSIONS: Individuals hospitalized because of COVID-19 present high levels of disability, dyspnea, dysphagia, and dependence for both ADL and IADL. Those admitted to the ICU presented more advanced disability parameters.
Copyright © 2021 The American Congress of Rehabilitation Medicine. Published by Elsevier Inc. All rights reserved.

Entities:  

Keywords:  Activities of daily living; COVID-19; Deglutition disorders; Disabled persons; Dyspnea; Mental disorders; Rehabilitation; Telerehabilitation

Mesh:

Year:  2021        PMID: 33711279      PMCID: PMC7943375          DOI: 10.1016/j.apmr.2021.03.001

Source DB:  PubMed          Journal:  Arch Phys Med Rehabil        ISSN: 0003-9993            Impact factor:   3.966


Postacute symptoms and persistent disability after COVID-19 discharge are still unclear. Currently available data suggest that at the time of discharge, individuals present high levels of physical and mental health disability, as well as fatigue, respiratory, cardiac, renal, neuropsychological, speech and swallow, nutritional, and vocational impairments that persist for at least 6 months.2, 3, 4, 5, 6, 7, 8, 9 Those impairments seem to be more pronounced in those with more severe disease. , , , In a cohort from China, individuals that required high-flow nasal cannula, noninvasive ventilation, or invasive ventilation presented more frequent mobility impairment, pain, anxiety, and depression 6 months after discharge than those hospitalized without oxygen therapy. Data from the United Kingdom show that individuals admitted to the intensive care unit (ICU), when compared with those admitted to the ward, presented higher rates of fatigue (72% vs 60%), breathlessness (66% vs 43%), and neuropsychological impairments (47% vs 24%) in the first 2 months after discharge. However, data on different populations and demographics are needed to better understand disability after COVID-19, as well as the potential effect of ICU admission. Given the increasing number of cases and its potential disability rates, COVID-19 is placing an enormous strain on rehabilitation services worldwide.11, 12, 13, 14 To muster the appropriate resources to respond to this disability epidemic, rehabilitation services require data about frequency of persistent symptoms, disability rates, and rehabilitation referral needs in this population, which are currently scarce. Identifying risk factors for disability is also important for an appropriate response plan. ICU admission correlates to more severe disease and prevalent disability rates in those hospitalized because of COVID-19. Our goal was to provide data from a comprehensive telerehabilitation program on postdischarge symptoms and disability, as well as rehabilitation referral needs, comparing those admitted to the ICU and ward. We hypothesized that individuals admitted to the ICU had higher prevalence of symptoms, disability, and rehabilitation referral needs.

Methods

This retrospective cross-sectional study was performed at Prevent Senior, a verticalized Brazilian private health care network specialized in the older population, currently caring for over 500,000 lives. Reporting of this article was performed following Strengthening the Reporting of Observational Studies in Epidemiology guidelines. The present study was approved by the ethics committee.

Participants

Eligibility criteria

From March 15-August 27, 2020, all individuals hospitalized because of COVID-19 at Prevent Senior in the city of São Paulo were screened for eligibility. Participants were included if COVID-19 was the cause of admission, confirmed by positive molecular diagnosis (real-time polymerase chain reaction) for SARS-CoV-2 infection, and if they were discharged alive. Participants hospitalized with asymptomatic COVID-19 and those who presented symptoms only after hospitalization were excluded from the present study (n=9). We did not exclude individuals that were readmitted to the hospital.

Outcomes

Data were obtained from a comprehensive telerehabilitation program implemented for individuals who were discharged after COVID-19 hospitalization (fig 1 ). Our telerehabilitation team had access to a central list containing all individuals hospitalized because of COVID-19 in our verticalized health care network. Each patient was individually and manually monitored using our electronic health record. Once we identified that the patient had been discharged, telephone contact was made by a physical therapist. We elected the physical therapist for this role based on 2 main reasons: (1) we expected the highest impairments to be in the motor and respiratory functions and (2) because of the number of available professionals at that time owing to the suspension of outpatient sessions. The objective of the first telephone contact was to identify symptoms and disability and provide early referral to telerehabilitation services.
Fig 1

Telerehabilitation protocol for COVID-19.

Telerehabilitation protocol for COVID-19. Demographics, comorbidities, and hospitalization data were retrieved using electronic health records. Radiological severity was assessed by the Tomographic score for COVID-19 (RAD-COVID score) at admission, which uses chest computerized tomography scans to stratify overall pulmonary parenchyma involvement in <25%, 25%-50%, and >50%, resulting in scores 1-3, respectively. During the initial telephone contact, data were gathered using a structured form specifically designed for identifying disability and rehabilitation needs in individuals discharged after COVID-19 in our institution (supplemental appendix S1, available online only at http://www.archives-pmr.org/). This was the only time point at which data were gathered from the individuals in this study. The structured form used in the telerehabilitation program assessed individuals’ physical and respiratory symptoms, mobility impairments, measures of independence and affect, nutritional, and swallowing symptoms. Individuals were also asked to report any other symptoms not addressed by the form. The structured form assessed the following self-reported variables:

Respiratory symptoms

Shortness of breath was assessed as a binomial variable (yes/no). We assessed current shortness of breath in 3 different situations: at rest, during routine activities, and during nonroutine activities. Routine activities included ADL that were part of that individual's routine prior to COVID-19 infection, such as bathing, dressing, walking inside home, or climbing stairs (for those individuals with stairs at home). Nonroutine activities included any other activities, such as exercising, climbing stairs (in case there were no stairs at home), and walking outside the home. Current use of oxygen therapy was assessed as a binomial variable (yes/no). Thus, participants who were currently using oxygen therapy for a few hours or for any specific activities were considered as users of oxygen therapy.

Physical symptoms

We assessed current energy levels using a 0-10 numeric rating scale (0=no energy whatsoever, 10=best energy possible). Current overall pain level (on any location) was rated using a 0-10 numeric rating scale (0=no pain, 10=worst imaginable pain). We also asked if there was any current numbness or tingling sensation present (yes/no).

Mobility impairment

We asked if the individuals were having any difficulty standing up for over 10 minutes unassisted (yes/no), if they had difficulty moving any limb (yes/no), and if they had any falls since hospital discharge (yes/no). We also assessed if they required any gait assistance devices, such as a cane, walker, or wheelchair (yes/no).

Measures of independence

Independence for ADL (feeding, bathing, grooming, dressing, bowel/bladder management, toilet use, transfers, mobility, use of stairs) was assessed using the Barthel Index. Barthel Index was scored from 0-100, with individual items scoring 0-10, where 0 meant dependent, 5 partially dependent, and 10 independent. Transfers and mobility were scored 0-15 each, where 0 meant dependent, 5 and 10 referred to different degrees of partial dependence, and 15 mean independent. , Independence for IADL (telephone use, shopping, food preparation, housekeeping, mode of transportation, responsibility for medication, ability to hand finances) was assessed using Lawton's Scale scored from 7-21, with individual items scoring 1-3 (1=unable, 2=needs assistance, 3=independent). Dependence was defined when scoring <21.

Measures of affect

We assessed for perception of anxious and or depressive symptoms by asking, “Have you been feeling anxious or depressed lately?” (yes/no).

Nutrition/eating

We asked if the individuals presented weight loss with inappetence (yes/no). We also assessed for dysphagia to liquids or solids by asking, “Do you have any trouble swallowing food or liquids?” (yes/no).

Follow-up and telerehabilitation protocol

During the initial telephone contact, individuals were stratified based on their current Barthel Index score18: level 1 (0-39, dependent), level 2 (40-79, partially dependent) and level 3 (80-100, independent) as shown in table 1 . All participants were provided with a physical exercise guide in booklet and/or video format, based in a previous publication. The physical therapist then decided if the patient would perform unsupervised home exercises onl or if a referral to an online physical therapy group was necessary. Those performing unsupervised home exercises were followed up by telemonitoring (telephone contact) for a month, either weekly, biweekly, or monthly, for level 1, 2, or 3, respectively. The objective was to assess and promote adherence to exercises, correct any doubts regarding exercises, and assess any other rehabilitation needs (data from telemonitoring follow-ups were not recorded).
Table 1

Follow-up protocol recommendations for telerehabilitation following hospitalization for COVID-19 using the dependence score on the Barthel Index

Barthel IndexSubgroupFollow-up
0-40Level 1Referral to a level 1 online physical therapy group orhome exercises+weekly telemonitoring (total of 4)
41-80Level 2Referral to a level 2 online physical therapy group orhome exercises+biweekly telemonitoring (total of 2)
81-100Level 3Referral to a level 3 online physical therapy group orhome exercises+monthly telemonitoring (total of 1)
Follow-up protocol recommendations for telerehabilitation following hospitalization for COVID-19 using the dependence score on the Barthel Index Criteria for referral to other rehabilitation professionals were the following: Dysphagia: referral to a speech-language pathologist. Issues regarding oxygen therapy (eg, dosage, how to wean down), worsened dyspnea, or impaired blood pressure or heart rate: referral to a cardiologist specialized in cardiac rehabilitation. Complaints regarding fine motor control or cognition: referral to occupational therapy. Pain rated as >5 (0-10 numeric scale) or any numbness/tingling or difficulty moving their limbs: referral to a physiatrist. Weight loss or inappetence: referral to a dietitian. Anxious or depressive symptoms: referral to a psychologist.

Statistical analysis

Categorical data were reported as frequency, percentage, and 95% confidence intervals (CIs) estimated by the exact method. Continuous variables were reported as mean, SD, median, and interquartile range (IQR). Shapiro-Wilk test showed that all continuous variables did not present normal distribution. Continuous variables were compared among groups using a Mann-Whitney U test. Categorical variables were compared using Pearson chi-square test, with statistical power of 80% and ɑ=5%. No data imputation method was used. We used Stata 13.0a for the analyses. This is a descriptive and exploratory study, and sample size calculation was not performed. We used all available data from the telerehabilitation program at the time of protocol writing.

Results

A total of 1733 individuals were screened, and 1696 were included (fig 2 ). A total of 357 individuals (21.0%) were admitted to the ICU at any point during their hospitalization. Individuals admitted to the ICU and the ward had similar characteristics (table 2 ), although those admitted to the ICU were slightly younger (median age, 71y [IQR, 63-78y] vs 73y [IQR, 64-82y] P=.006). Individuals were institutionalized after discharge in 4.5% and 7.8% of the cases admitted to the ICU and ward, respectively. As expected, those admitted to the ICU presented longer length of hospital stay (median, 16d [IQR, 11-2d] vs 6d [IQR, 4-9d] P<.0001) and higher radiological severity (RAD-COVID 3 in 39.2% [95% CI, 34.1%-44.4%] vs 10.5% [95% CI, 8.9%-12.3%]) (table 3 ). After discharge, telephone contact was made with all individuals. Those admitted to the ICU presented worse postdischarge outcomes than those in the ward: higher incidence of shortness of breath during routine (45.1% [95% CI, 39.9%-50.4%] vs 34.5% [95% CI, 32.0%-37.1%]) and nonroutine activities (46.8% [95% CI, 41.5%-52.1%] vs 38.2% [95% CI, 35.6%-40.8%]); higher prevalence of pain (33.9% [95% CI, 29.0%-39.1%] vs 27.1% [95% CI, 24.7%-29.6%]); numbness/tingling (20.2% [95% CI, 16.1%-24.7%] vs 11.3% [95% CI, 9.6%-13.1%]); and need for gait assistance devices (39.8% [95% CI, 34.7%-45.1%] vs 28.8% [95% CI, 26.3%-31.3%]) (table 4 ). Independence for ADL was lower in the ICU group (61.1% [95% CI, 55.8%-66.2%] vs 72.7% [95% CI, 70.3%-75.1%]). Dependence for IADL was also more frequent in the ICU group (84.6%, [95% CI, 80.4%-88.2%] vs 74.5% [95% CI, 72.0%-76.8%]). Postdischarge telerehabilitation treatment plan consisted mostly of exercise booklets (table 5 ), which were offered to 65.5% of the individuals after discharge, whereas the remaining individuals received those booklets during hospital stay. Patients were most frequently referred to psychologists (11.8%), physical therapists (8.0%), and dietitians (6.8%). Our rehabilitation treatment plan was declined by patients and/or families in 2.5% of the cases at time of referral (see table 5) for different reasons: “she needs to rest,” “online rehabilitation will not strengthen him,” “we are afraid she will be infected again,” and “we are afraid that our family will be infected.” We have not assessed if the remaining 97.5% of those referred to telerehabilitation followed our recommendations and scheduled their therapy sessions.
Fig 2

Flowchart of patient selection according to the eligibility criteria.

Table 2

Demographics, comorbidities, marital status, and living situation in the first month after hospitalization because of COVID-19

VariablesTotal (N=1696)ICU (n=357)Ward (n=1339)P Value
Female, n (%)95% CI951 (56.1)53.7%-58.4%183 (51.3)45.9%-56.6%768 (57.4)54.7%-60.0%.039
Age (y), median (IQR)73 (64-81)71 (63-78)73 (64-82).006
 Mean ± SD71.8±13.070.3±11.972.2±13.2-
Age strata, n (%)95% CI<.001
 <60 y253 (14.9)13.3%-16.7%56 (15.7)12.0%-19.9%197 (14.7)12.9%-16.7%-
 60-80 y930 (54.8)52.4%-57.2%225 (63.0)57.8%-68.0%705 (52.7)49.9%-55.4%-
 >80 y513 (30.2)28.1%-32.5%76 (21.3)17.1%-25.9%437 (32.6)30.1%-35.2%-
Comorbidities, n (%)95% CI
 Hypertension1082 (63.8)61.5%-66.1%224 (62.8)57.5%-67.8%858 (64.1)61.4%-66.7%.642
 Coronary artery disease321 (18.9)17.1%-20.9%75 (21.0)16.9%-25.6%246 (18.4)16.3%-20.6%.258
 Pulmonary262 (15.5)13.8%-17.3%57 (16.0)12.3%-20.2%205 (15.3)13.4%-17.3%.760
 Neurologic284 (16.7)15.0%-18.6%41 (11.5)8.4%-15.3%243 (18.2)16.1%-20.3%.003
 Immunosuppressed49 (2.9)2.1%-3.8%13 (3.6)2.0%-6.1%36 (2.7)1.9%-3.7%.340
 Cancer83 (4.9)3.9%-6.0%15 (4.2)2.4%-6.8%68 (5.1)4.0%-6.4%.495
None300 (17.7)15.9%-19.6%60 (16.8)13.1%-21.1%240 (17.9)15.9%-20.1%.623
Smoking status, n (%)95% CI.177
 Never1136 (67.0)64.7%-69.2%231 (64.7)59.5%-69.7%905 (67.5)65.0%-70.1%-
 Current26 (1.5)1.0%-2.2%9 (2.5)1.2%-4.7%17 (1.3)0.7%-2.0%-
 Former534 (31.5)29.3%-33.8%117 (32.8)27.9%-37.9%417 (31.1)26.7%-33.7%-
Alcohol use, n (%)95% CI.900
 Never1581 (93.2)91.9%-94.3%331 (92.7)89.5%-95.2%1250 (93.4)91.9%-94.6%-
 Regular47 (2.8)2.0%-3.7%11 (3.1)1.5%-5.4%36 (2.7)1.9%-3.7%-
 Former68 (4.0)3.1%-5.1%15 (4.2)2.4%-6.8%53 (4.0)3.0%-5.1%-
Marital status, n (%)95% CI.054
 Single141 (8.3)7.0%-9.7%31 (8.7)6.0%-12.1%110 (8.2)6.8%-9.8%-
 Married861 (50.8)48.4%-53.2%198 (55.5)50.1%-60.7%663 (49.5)46.7%-52.2%-
 Divorced145 (8.6)7.3%-10.0%34 (9.5)6.7%-13.1%111 (8.3)6.9%-9.9%-
 Widowed549 (32.4)30.1%-34.7%94 (26.3)21.8%-31.2%455 (34.0)31.4%-36.6%-
Living situation, n (%)95% CI.196
 Alone177 (10.4)9.0%-12.0%32 (9.0)6.2%-12.4%145 (10.9)9.2%-12.6%-
 Spouse422 (24.9)22.8%-27.0%94 (26.3)21.8%-31.2%328 (24.5)22.2%-26.9%-
 Spouse and children409 (24.1)22.1%-26.2%94 (26.3)21.8%-31.2%315 (23.5)21.3%-25.9%-
 Children396 (23.4)21.4%-25.4%81 (22.7)18.4%-27.3%315 (23.5)21.3%-25.9%-
 SNF121 (7.1)6.0%-8.5%16 (4.5)2.6%-7.2%105 (7.8)6.5%-9.4%-
 Other171 (10.1)8.7%-11.6%40 (11.2)8.1%-14.9%131 (9.8)8.2%-11.5%-

Abbreviation: SNF, skilled nursing facility.

Statistical significance.

Table 3

Length of hospital stay, symptoms, and radiological severity at admission because of COVID-19

VariablesTotal (N=1696)ICU (n=357)Ward (n=1339)P Value
Length of hospital stay (d), median (IQR)7 (4-12)16 (11-25)6 (4-9)<.001
 Mean ± SD9.7±8.619.3±12.17.2±5.0-
Symptoms at admission, n (%)95% CI-
 Coughing1046 (61.7)59.3%-64.0%221 (61.9) 56.6%-70.0%825 (61.6) 58.9%-64.2%.920
 Fever1029 (60.7) 58.3%-63.0%217 (60.8) 55.5%-65.9%812 (60.6) 58.0%-63.3%.961
 Malaise1106 (65.2) 62.9%-67.5%232 (64.5) 59.8%-69.9%874 (65.3) 62.7%-67.8%.920
 Shortness of breath948 (55.9) 53.5%-58.3%226 (63.3) 58.1%-68.3%722 (53.9) 51.2%-56.6%.002
 Hypo/anosmia469 (27.7) 25.5%-29.8%114 (31.9) 27.1%-37.0%355 (26.5) 24.1%-28.9%.042
 Hypo/ageusia619 (36.5) 34.2%-38.8%135 (37.8) 32.8%-43.1%484 (36.2) 33.6%-38.8%.561
Radiological severity at admission, n (%)95% CI<.001
 RAD-COVID 1593 (35.0) 32.7%-37.2%70 (19.6) 15.6%-24.1%523 (39.1) 36.4%-41.7%-
 RAD-COVID 2884 (46.2) 49.7%-54.5%136 (38.1) 33.0%-43.4%648 (49.4) 45.7%-51.1%-
 RAD-COVID 3281 (16.9) 14.8%-18.4%140 (39.2) 34.1%-44.4%141 (10.5) 8.9%-12.3%-

Statistical significance.

Table 4

Symptoms on different systems and measures of disability in the first month after hospitalization because of COVID-19

VariablesTotal (N=1696)ICU (n=357)Ward (n=1339)P Value
Time from discharge to follow-up (d), median (IQR)21 (14-27)20 (14-26)21 (14-27).022
 Mean ± SD21.8±11.720.7±11.622.1±11.8-
Respiratory symptoms, n (%)95% CI-
Shortness of breath at rest281 (16.6) 14.8%-18.4%69 (19.3)15.4%-23.8%212 (15.8)13.9%-17.9%.112
Shortness of breath during routine activities623 (36.7)34.3%-39.1%161 (45.1) 39.9%-50.4%462 (34.5) 32.0%-37.1%<.001
Shortness of breath during nonroutine activities678 (51.7) 37.6%-42.4%167 (46.8)41.5%-52.1%511 (38.2) 35.6%-40.8%<.001
Oxygen therapy260 (15.3)13.6%-17.1%91 (25.5)21.0%-30.3%169 (12.6)10.9%-14.5%<.001
Physical symptoms-
Energy level, (0-10), median (IQR)7 (5-9)7 (5-8)7 (6-9)<.0001
 Mean ± SD6.9±2.46.5±2.47.0±2.4
Pain prevalence, n (%)95% CI484 (28.5) 26.4%-30.8%121 (33.9) 29.0%-39.1%363 (27.1) 24.7%-29.6%.012
 Median (IQR)5 (4-7)6 (4-7)5 (4-7).0696
 Mean ± SD5.5±2.25.8±2.25.4±2.3-
Numbness/tingling sensation, n (%)95% CI223 (13.1) 11.6%-14.9%72 (20.2) 16.1%-24.7%151 (11.3) 9.6%-13.1%<.001
Mobility impairment, n (%)95% CI-
Difficulty standing still for >10 min683 (40.3) 37.9%-42.7%176 (49.3)44.0%-54.6%507 (37.9)35.3%-40.5%<.001
Difficulty moving any limb407 (24.0) 22.0%-26.1%114 (31.9)27.1%-37.0%293 (21.9)19.7%-24.2%.007
Need for gait assistance devices527 (31.1) 28.9%-33.3%142 (39.8)34.7%-45.1%385 (28.8)26.3%-31.3%<.001
Recent falls107 (6.3)5.2%-7.6%20 (5.6)3.5%-8.5%87 (6.5)5.2%-8.0%.536
Measures of independence
ADL total score, median (IQR)100 (70-100)90 (55-100)100 (75-100)<.0001
 Mean ± SD80.4±29.775.6±29.781.6±29.5-
 Total dependence (level 1), n (%)95% CI232 (13.7)12.1%-15.4%55 (15.4)11.8%-19.6%177 (13.2)11.4%-15.2%<.001
 Partial dependence (level 2), n (%)95% CI272 (16.0)14.3%-17.9%84 (23.5)19.2%-28.3%188 (14.0)12.2%-16.0%<.001
 Independence (level 3), n (%)95% CI1192 (70.3)68.0%-72.5%218 (61.1)55.8%-66.2%974 (72.7)70.3%-75.1%<.001
IADL total score, median (IQR)16 (10-20)14 (10-18)17 (10-21)<.0001
 Mean ± SD15.0 (5.2)14.1 (4.7)15.2 (5.3)-
 Dependence, n (%)95% CI1299 (76.6)74.5%-78.6%302 (84.6) 80.4%-88.2%997 (74.5) 72.0%-76.8%<.001
Measures of affect, n (%)95% CI
Anxious/depressive symptoms632 (37.3) 35.0%-39.6%139 (38.9) 33.8%-44.2%493 (36.8) 34.2%-39.5%.462
Nutrition/eating, n (%)95% CI
Weight loss with inappetence566 (33.4) 31.1%-35.7%143 (40.1) 34.9%-45.3%423 (31.6) 29.1%-34.2%.003
Dysphagia215 (12.7) 11.1%-14.4%45 (12.6)9.3%-16.5%170 (12.7) 11.0%-14.6%.963

Statistical significance.

Table 5

Exercise orientation and telerehabilitation referral needs during telemonitoring after COVID-19 hospitalization

Variables, n (%)95% CITotal (N=1696)ICU (n=357)Ward (n=1339)P Value
Orientation
 Exercise booklet1111 (65.5) 63.2%-67.7%213 (59.7)54.3%-64.8%898 (67.1)64.5%-69.6%.009
 Exercise video21 (1.2)0.8%-1.9%7 (2.0)0.8%-4.0%14 (1.0)0.5%-1.7%.165
Referrals-
 Telehealth physical therapist98 (5.8)4.7%-7.0%21 (5.9)3.7%-8.9%77 (5.8)4.6%-7.1%.006
 In-home physical therapist37 (2.2)1.5%-3.0%15 (4.2)2.4%-6.9%22 (1.6)1.0%-2.5%.003
 Occupational therapist17 (1.0)0.6%-1.6%4 (1.1)0.3%-2.8%13 (1.0)0.5%-1.7%.801
 Speech-language pathologist78 (4.6)3.7%-5.7%16 (4.5)2.6%-7.2%62 (4.6)3.6%-5.9%.905
 Psychologist200 (11.8)10.3%-13.4%48 (13.5)10.1%-17.4%152 (11.4)9.7%-13.2%.276
 Dietitian116 (6.8)5.7%-8.1%36 (10.1)7.2%-13.7%80 (6.0)4.8%-7.4%.006
 Physiatrist12 (0.7)0.3%-1.2%6 (1.7)0.6%-3.6%6 (0.5)0.2%-0.9%.014
 Cardiologist13 (0.8)0.4%-1.3%5 (1.4)0.5%-3.2%8 (0.6)0.3%-1.1%.122
Patient declined43 (2.5)1.8%-3.4%5 (1.4)0.5%-3.2%38 (2.8)2.0%-3.9%.125

Statistical significance.

Flowchart of patient selection according to the eligibility criteria. Demographics, comorbidities, marital status, and living situation in the first month after hospitalization because of COVID-19 Abbreviation: SNF, skilled nursing facility. Statistical significance. Length of hospital stay, symptoms, and radiological severity at admission because of COVID-19 Statistical significance. Symptoms on different systems and measures of disability in the first month after hospitalization because of COVID-19 Statistical significance. Exercise orientation and telerehabilitation referral needs during telemonitoring after COVID-19 hospitalization Statistical significance.

Discussion

We have showed high prevalence of symptoms and disability rates after COVID-19. As anticipated, individuals admitted to the ICU had higher disability levels than those admitted to the ward. Persistent symptoms and disability after COVID-19 have been previously reported, , 4, 5, 6, 7, 8 , and other authors have observed worse outcomes in those admitted to the ICU (table 6 ). According to data from the United Kingdom, breathlessness at rest in the first 2 months after discharge was higher in those admitted to the ICU (28.1% vs 19.3% in our sample) than the ward group (19.1% vs 15.8% in our sample). That study also showed more prevalent fatigue, posttraumatic stress disorder symptoms, and decrement in quality of life in the ICU group compared with the ward group. Differences between ICU and ward groups are likely multifactorial and could be partially explained by disease severity. , , SARS-CoV-2 infection can cause pulmonary abnormalities; thrombocytopathy; endotheliopathy; hepatic, renal, and nervous system injuries, some due to viral infection and others likely due to excessive immune response. , , Recovery time of those injuries is still uncertain because a study with matched controls found that the majority of survivors of COVID-19 persisted with magnetic resonance imaging abnormalities in the lungs, brain, heart, liver, and/or kidneys 2 to 3 months after discharge. Besides disease severity, consequences of ICU stay could partially explain our findings because long-term effect of ICU stay has been previously demonstrated for acute respiratory distress syndrome due to SARS-CoV infection, as well as for other nonrespiratory critical illnesses.24, 25, 26 ICU-acquired weakness is a neuromuscular dysfunction that consists of polyneuropathy, myopathy, and/or muscle atrophy that results of critical illness and can be magnified by conditions during ICU stay. Potential risk factors for ICU-acquired weakness include use of corticosteroids and continuous neuromuscular blockade, which were present in more than 40% and 80%, respectively, of those admitted to the ICU because of COVID-19. ,
Table 6

Current available literature on postdischarge symptoms after COVID-19

VariablesCurrent StudyCarfi et al4Chopra et al5Halpin et al6Huang et al2Mandal et al8
Sample size16961434881001733384
CountryBrazilItalyUSAUnited KingdomChinaUnited Kingdom
Time after discharge (d)21 (14-27)36.1±126048±10.3153 (143-160)54 (47-59)
Age (y)ICU=71 (63-78)Ward=73 (64-82)56.5±14.662 (50-72)ICU=58.5 (34-84)*Ward=70.5 (20-93)*57 (47-65)59±16.1
ICU admission (%)21.012.613.232414.5
LOS (d)ICU=16 (11-25)Ward=6 (4-9)13.5±9.75 (3-8)ICU=12 (10-16)Ward=6.5 (4-14)14 (10-19)6.5 (4-10.75)
Breathlessness (%)ICU=45.1Ward=34.543.416.6ICU=65.6 Ward=42.62654.8-63.3
Oxygen therapy at follow-up (%)ICU=25.5Ward=12.6NR6.6NRNRNR
Fatigue (%)NR53.1NRICU=72.0Ward=60.36367.3-76.9

NOTE. Data expressed as median (IQR) or mean ± SD.

Abbreviations: LOS, length of stay; NR, not reported.

Median and range.

Breathlessness during routine activities (eg, climbing stairs).

Data provided by subgroups only.

Current available literature on postdischarge symptoms after COVID-19 NOTE. Data expressed as median (IQR) or mean ± SD. Abbreviations: LOS, length of stay; NR, not reported. Median and range. Breathlessness during routine activities (eg, climbing stairs). Data provided by subgroups only. To our knowledge, our study is the first to report disability for ADL and IADL after COVID-19 infection in the Brazilian population. Individuals in our study presented high rates of dependence for both ADL and IADL, which cannot be completely attributed to COVID-19 hospitalization. Because of the absence of baseline values, we cannot ascertain if such symptoms and disability rates were already present prior to COVID-19 hospitalization. Disability in the general population could be estimated from a population-based study with 1451 community-living older Brazilians, which reported dependence for ADL and IADL of 36.0% and 34.0%, respectively, compared with our rates of 38.9% and 84.6% for the ICU group and 27.3% and 74.5% for the ward group. Despite that, we cannot ascertain whether the individuals who were admitted because of COVID-19 in our network were representative of the general population or if they represented a subset with higher (or lower) disability. Obtaining disability rates before and after COVID-19 hospitalization in the same population would provide a clearer image of its effect. Additional factors may have affected the generalizability of our findings: (1) 35% of the participants were instructed to perform home exercises during hospitalization, which may have reduced disability rates. (2) Outcome assessment relied on self-reporting. Reliability of self-reported Barthel Index on older adults has been reported to be >80% for eating, toileting, and transferring and 63% for bathing and dressing, with frequent underestimation of disability on self-reporting. Therefore, it is possible that actual rates of ADL dependence are higher. (3) Physical distancing measures during the pandemic may have overestimated dependency for IADL, particularly for the categories “using transportation” and “shopping.” Telemonitoring, as part of a comprehensive telerehabilitation program, was feasible in our population. We managed to telemonitor 100% of individuals after discharge, resulting in early identification of persistent symptoms and disability, as well as early referral to telerehabilitation with low refusal rates at the time of referral. The rehabilitation treatment plan was affected by the pandemic and physical distancing measures, and, thus, we have focused on providing exercise booklets and videos. Exercise booklets were provided to all participants, and 65.5% of them received those exercises during telemonitoring. Those with more rehabilitation needs were referred to telerehabilitation using a device with camera (eg, smartphone, tablet). In-place therapy was provided only for in-home physical therapy. Referral rates for occupational therapy were low (1%), considering that disability for ADL and IADL were 29.7% and 76.6%, respectively, and referral rate to physical therapy was 8%. Possible causes for this disparity include (1) overestimation of IADL disability because of physical distancing measures, which created barriers unrelated to body functions or structures that may have affected categories such as shopping and (2) underdiagnosis of triggers for occupational therapy referral (cognitive and/or fine motor impairments) because they were not screened in the telemonitoring protocol and required active complaint by the individual.

Study limitations

We did not assess variables relevant to our study topic, such as obesity, prevalence and duration of mechanical ventilation, and use of continuous neuromuscular blockade. , We have not assessed prevalence of fatigue, which has been previously reported as a persistent symptom in this population (see table 6). Obtaining data on individual categories for both ADL (Barthel Index) and IADL (Lawton's Index) would provide more comprehensive information than the aggregate score. That would improve the understanding of which activities need to be rehabilitated in this population. Dysphagia and anxious/depressive symptoms were identified without using validated assessment tools and are prone to measurement bias. Our findings are limited by the absence of a control group and baseline values for the outcomes. Therefore, we cannot ascertain if the participants already presented those symptoms and disabilities nor if individuals hospitalized for conditions other than COVID-19 would present such findings. When assessing difference between outcomes in individuals admitted to the ICU vs ward, we did not take measures to avoid third variable effects. Therefore, it is possible there are other factors influencing the higher rates of disability in this subgroup. Using statistical methods that take those effects into account could minimize this issue.

Conclusions

We have reported high rates of pain, shortness of breath, anxious and depressive symptoms, dysphagia, need for oxygen therapy, and dependence for both ADL and IADL in a predominantly older population, with worse outcomes in the ICU group. We also provided data on rehabilitation referral needs to address disability in this population. Our study corroborates and expands on the current body of evidence regarding high rates of disability after COVID-19 hospitalization. Future studies should explore individuals longitudinally, ideally with preadmission assessments as well as validated assessment tools for ADL and IADL disability, pulmonary function, sarcopenia, cardiopulmonary fitness, cognition, dysphagia, neuropsychiatric effects (eg, cognition, mood disorder, posttraumatic stress disorder, substance abuse). Our team is currently conducting a prospective study assessing pre- and post-COVID functionality with patient-reported outcomes and objective assessments with follow-ups until 12 months after discharge, which could contribute to our understanding of this subject.

Supplier

Stata 13.0; StataCorp.
  27 in total

1.  The Strengthening the Reporting of Observational Studies in Epidemiology (STROBE) statement: guidelines for reporting observational studies.

Authors:  Erik von Elm; Douglas G Altman; Matthias Egger; Stuart J Pocock; Peter C Gøtzsche; Jan P Vandenbroucke
Journal:  J Clin Epidemiol       Date:  2008-04       Impact factor: 6.437

2.  Early rehabilitation in post-acute COVID-19 patients: data from an Italian COVID-19 Rehabilitation Unit and proposal of a treatment protocol.

Authors:  Claudio Curci; Fabrizio Pisano; Eleonora Bonacci; Danila M Camozzi; Claudia Ceravolo; Roberto Bergonzi; Silvia De Franceschi; Paolo Moro; Rodolfo Guarnieri; Martina Ferrillo; Francesco Negrini; Alessandro de Sire
Journal:  Eur J Phys Rehabil Med       Date:  2020-07-15       Impact factor: 2.874

3.  Measurement of activities of daily living in hospitalized elderly: a comparison of self-report and performance-based methods.

Authors:  M A Sager; N C Dunham; A Schwantes; L Mecum; K Halverson; D Harlowe
Journal:  J Am Geriatr Soc       Date:  1992-05       Impact factor: 5.562

4.  Rehabilitation and respiratory management in the acute and early post-acute phase. "Instant paper from the field" on rehabilitation answers to the COVID-19 emergency.

Authors:  Carlotte Kiekens; Paolo Boldrini; Arnaldo Andreoli; Renato Avesani; Federica Gamna; Maurizio Grandi; Francesco Lombardi; Mirco Lusuardi; Franco Molteni; Alberto Perboni; Stefano Negrini
Journal:  Eur J Phys Rehabil Med       Date:  2020-04-15       Impact factor: 2.874

Review 5.  ICU-Acquired Weakness.

Authors:  Sarah E Jolley; Aaron E Bunnell; Catherine L Hough
Journal:  Chest       Date:  2016-04-07       Impact factor: 9.410

Review 6.  COVID-19: Review of a 21st Century Pandemic from Etiology to Neuro-psychiatric Implications.

Authors:  Vicky Yamamoto; Joe F Bolanos; John Fiallos; Susanne E Strand; Kevin Morris; Sanam Shahrokhinia; Tim R Cushing; Lawrence Hopp; Ambooj Tiwari; Robert Hariri; Rick Sokolov; Christopher Wheeler; Ajeet Kaushik; Ashraf Elsayegh; Dawn Eliashiv; Rebecca Hedrick; Behrouz Jafari; J Patrick Johnson; Mehran Khorsandi; Nestor Gonzalez; Guita Balakhani; Shouri Lahiri; Kazem Ghavidel; Marco Amaya; Harry Kloor; Namath Hussain; Edmund Huang; Jason Cormier; J Wesson Ashford; Jeffrey C Wang; Shadi Yaghobian; Payman Khorrami; Bahman Shamloo; Charles Moon; Payam Shadi; Babak Kateb
Journal:  J Alzheimers Dis       Date:  2020       Impact factor: 4.472

Review 7.  Thrombocytopathy and endotheliopathy: crucial contributors to COVID-19 thromboinflammation.

Authors:  Sean X Gu; Tarun Tyagi; Kanika Jain; Vivian W Gu; Seung Hee Lee; Jonathan M Hwa; Jennifer M Kwan; Diane S Krause; Alfred I Lee; Stephanie Halene; Kathleen A Martin; Hyung J Chun; John Hwa
Journal:  Nat Rev Cardiol       Date:  2020-11-19       Impact factor: 32.419

8.  'Long-COVID': a cross-sectional study of persisting symptoms, biomarker and imaging abnormalities following hospitalisation for COVID-19.

Authors:  Swapna Mandal; Joseph Barnett; Simon E Brill; Jeremy S Brown; Emma K Denneny; Samanjit S Hare; Melissa Heightman; Toby E Hillman; Joseph Jacob; Hannah C Jarvis; Marc C I Lipman; Sindhu B Naidu; Arjun Nair; Joanna C Porter; Gillian S Tomlinson; John R Hurst
Journal:  Thorax       Date:  2020-11-10       Impact factor: 9.139

9.  Sixty-Day Outcomes Among Patients Hospitalized With COVID-19.

Authors:  Vineet Chopra; Scott A Flanders; Megan O'Malley; Anurag N Malani; Hallie C Prescott
Journal:  Ann Intern Med       Date:  2020-11-11       Impact factor: 25.391

10.  Clinical characteristics and day-90 outcomes of 4244 critically ill adults with COVID-19: a prospective cohort study.

Authors: 
Journal:  Intensive Care Med       Date:  2020-10-29       Impact factor: 41.787

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  14 in total

1.  Efficacy of Telemedicine and At-Home Telemonitoring following Hospital Discharge in Patients with COVID-19.

Authors:  Roi Suárez-Gil; Emilio Casariego-Vales; Rosa Blanco-López; Fernando Santos-Guerra; Cristina Pedrosa-Fraga; Álvaro Fernández-Rial; Iria Íñiguez-Vázquez; María Mar Abad-García; Mercedes Bal-Alvaredo
Journal:  J Pers Med       Date:  2022-04-10

Review 2.  Long COVID-19: The Need for an Interdisciplinary Approach.

Authors:  Isabel Rodriguez-Sanchez; Leocadio Rodriguez-Mañas; Olga Laosa
Journal:  Clin Geriatr Med       Date:  2022-03-21       Impact factor: 3.529

3.  Disparities in the allocation of inpatient physical and occupational therapy services for patients with COVID-19.

Authors:  Sarah Jolley; Amy Nordon-Craft; Melissa P Wilson; Kyle Ridgeway; Michelle R Rauzi; Jacob Capin; Lauren M Heery; Jennifer Stevens-Lapsley; Kristine M Erlandson
Journal:  J Hosp Med       Date:  2022-02-11       Impact factor: 2.899

4.  Cross-sectional area of erector spinae muscles is associated with activities of daily living at discharge in middle- to older-aged patients with coronavirus disease 2019.

Authors:  Masashi Yamashita; Tomotaka Koike; Nobuaki Hamazaki; Kensuke Ueno; Shota Uchida; Takumi Noda; Ken Ogura; Daina Nagumo; Takashi Miki; Saki Shakuta; Tatsuhiko Wada; Kentaro Kamiya
Journal:  Exp Gerontol       Date:  2022-03-25       Impact factor: 4.253

5.  Neuromodulation through brain stimulation-assisted cognitive training in patients with post-COVID-19 cognitive impairment (Neuromod-COV): study protocol for a PROBE phase IIb trial.

Authors:  Friederike Thams; Daria Antonenko; Robert Fleischmann; Marcus Meinzer; Ulrike Grittner; Sein Schmidt; Eva-Lotta Brakemeier; Anke Steinmetz; Agnes Flöel
Journal:  BMJ Open       Date:  2022-04-11       Impact factor: 2.692

6.  A systematic review on physical function, activities of daily living and health-related quality of life in COVID-19 survivors.

Authors:  Katna de Oliveira Almeida; Iura Gonzalez Nogueira Alves; Rodrigo Santos de Queiroz; Marcela Rodrigues de Castro; Vinicius Afonso Gomes; Fabiane Costa Santos Fontoura; Carlos Brites; Mansueto Gomes Neto
Journal:  Chronic Illn       Date:  2022-04-11

Review 7.  Rehabilitation in long COVID-19: A mini-review.

Authors:  Raktim Swarnakar; Shiv Lal Yadav
Journal:  World J Methodol       Date:  2022-07-20

Review 8.  Clinical Characteristics and Mechanisms of Musculoskeletal Pain in Long COVID.

Authors:  Omar Khoja; Bárbara Silva Passadouro; Matthew Mulvey; Ioannis Delis; Sarah Astill; Ai Lyn Tan; Manoj Sivan
Journal:  J Pain Res       Date:  2022-06-17       Impact factor: 2.832

9.  European Respiratory Society statement on long COVID follow-up.

Authors:  Katerina M Antoniou; Eirini Vasarmidi; Anne-Marie Russell; Claire Andrejak; Bruno Crestani; Marion Delcroix; Anh Tuan Dinh-Xuan; Venerino Poletti; Nicola Sverzellati; Michele Vitacca; Martin Witzenrath; Thomy Tonia; Antonio Spanevello
Journal:  Eur Respir J       Date:  2022-08-04       Impact factor: 33.795

Review 10.  Strategies to ensure continuity of nutritional care in patients with COVID-19 infection on discharge from hospital: A rapid review.

Authors:  Jawairia Latif; C Elizabeth Weekes; Anna Julian; Gary Frost; Jane Murphy; Yessica Abigail Tronco-Hernandez; Mary Hickson
Journal:  Clin Nutr ESPEN       Date:  2021-11-19
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