Highlights
- •This study identified a low rate of major exercise-related AEs in HBCR.
- •Half of the sample were patients classified with a high risk of exercise-related complications.
- •There were no cases of exercise-related deaths or hospitalizations in HBCR.
- •Low rates of AEs represent support for the implementation of HBCR programs.
Abstract
Background
Objectives
Methods
Results
Conclusion
Keywords
Abbreviations:
AEs (adverse events), CBCR (centre-based cardiac rehabilitation), CR (cardiac rehabilitation), CVD (cardiovascular disease), HBCR (home-based cardiac rehabilitation), RCT (randomized controlled trial)Introduction
World Health Organization. WHO methods and data sources for global burden of disease estimates 2000-2019. Global Health Estimates Technical Paper WHO/ DDI/DNA/GHE/2020.3. https://cdn.who.int/media/docs/default-source/gho-documents/global-health-estimates/ghe2019_daly-methods.pdf?sfvrsn=31b25009_7. Published December, 2020. Accessed February 23, 2022.
- Jafri S.H.
- Imran T.F.
- Medbury E.
- et al.
Methods
Search strategy
Inclusion criteria
Extraction of adverse events evidence
Study quality estimation
- •the use of randomization for group allocation
- •the use of an unbiased randomization process
- •blinding of primary outcome evaluator
- •the use of intention-to-treat analysis
Results
Search and study selection results
- Bravo-Escobar R.
- González-Represas A.
- Gómez-González A.M.
- et al.

Study characteristics
- Bravo-Escobar R.
- González-Represas A.
- Gómez-González A.M.
- et al.
Methodological evaluation and analysis of the study quality
- Bravo-Escobar R.
- González-Represas A.
- Gómez-González A.M.
- et al.
- Bravo-Escobar R.
- González-Represas A.
- Gómez-González A.M.
- et al.
- Bravo-Escobar R.
- González-Represas A.
- Gómez-González A.M.
- et al.
- Bravo-Escobar R.
- González-Represas A.
- Gómez-González A.M.
- et al.
Incidence of adverse events
Author (year) | Participants | Adverse/cardiac events |
---|---|---|
Smartet al.(2021) 28 | n = 179 | mCR group: 12 serious AEs CG: 10 serious AEs Serious AEs were not more frequent in the mCR group than in the control group. n = 12/89 in the mCR group (13%) compared to n = 10/90 in the control group (11%). The majority of patients were admitted to hospital for acute (6/19 [3%]) or chronic (8/19[42 percent]) coronary syndrome. |
Snoek et al. (2021) 29 | n = 93 | 9 AEs (6 in HIIT group and 3 in MICT group) None of these were determined to be the consequence of exercise training by the treating physician. |
Taylor et al. (2020) 30 | n = 850 | No AEs or deaths occurred during exercise training sessions |
Piotrowicz et al. (2020) 31 | n = 56 | 1 reported chest pain symptom during cardiopulmonary exercise test (CPET) None acute cardiac-related event, no serious complications related to physical training reported. |
Batalik et al. (2020) 32 | n = 53 | IG: 6 AEs (3 angina, 1 diaphoresis, 2 palipations) CG: 2 AEs (2 diaphoresis) No deaths, cardiac arrest, syncope symptoms or fall in either group during exercise session reported. |
Hwanget al. (2017) 33
Effectiveness and safety of a home-based cardiac rehabilitation programme of mixed surveillance in patients with ischemic heart disease at moderate cardiovascular risk: a randomised, controlled clinical trial. BMC Cardiovasc Disord. 2017; 17: 66 | n = 28 | IG (mixed surveillance program): during HBCR no cardiac complication or AEs reported/ 1 patient had hypertensive response due to exercise, 1 patient had hypotensive response (these 2 incidents occurred during training sessions at hospital) CG (usual CBCR): 2 patients reported angina type pain without electrical changes [telemonitoring], 1 patient reported arrythmias, 2 patients hypertensive response subsided with rest, 1 patient hypotensive response required administration of intravenous saline solution. |
Bravo-Escobar et al. (2017) 34 | n = 147 | IG: 2 serious adverse events CG: 1 serious event Adverse events were not caused by intervention (post-surgical tamponade and 1 HF related readmission. 11/72 (15.3%) self-reported non serious adverse events (primarily caused by musculoskeletal problem related to exercise training) |
Sibilitz et al. (2016) 35 | n = 152 | No AEs reported, no deaths or hospitalization |
Piotrowicz et al. (2010) 36 | n = 78 | No severe AEs during or immediately following exercise |

- Bravo-Escobar R.
- González-Represas A.
- Gómez-González A.M.
- et al.
Discussion
- Pavy B.
- Iliou M.C.
- Meurin P.
- Tabet J.Y.
- Corone S.
- Pavy B.
- Iliou M.C.
- Meurin P.
- Tabet J.Y.
- Corone S.
Strength and limitations
Implications for clinical practice
- Scherrenberg M.
- Wilhelm M.
- Hansen D.
- et al.
Future perspectives
- Balady G.J.
- Williams M.A.
- Ades P.A.
- et al.
- Leon A.S.
- Franklin B.A.
- Costa F.
- et al.
- Thomas R.J.
- King M.
- Lui K.
- Oldridge N.
- Piña I.L.
- Spertus J.
- Thomas R.J.
- Balady G.
- Banka G.
- et al.
Conclusion
Funding
Declaration of competing interest
Appendices
Remote rehabilitation | Cardiac rehabilitation/ Cardiovascular rehabilitation/ Cardiopulmonary rehabilitation |
Mobile health | Home based rehabilitation |
eHealth | Outpatient cardiac rehabilitation |
mHealth | Exercise-based training/ (Physical activity, Physical training)-based rehabilitation |
Telehealth | Multidisciplinary rehabilitation/ Hybrid rehabilitation |
Telemedicine | Safety/ Safety control/ Intervention safety/ Safety concerns |
Telerehabilitation | Adverse events/ Cardiac events/ Cardiovascular complications/ Cardiac complications/Rehospitalization/ Hospital readmission/ |
Virtual rehabilitation | Cardiac patients/ HF patients/ CVD patients/ Coronary artery patients/ Heart patients/ Aortic patients/ Atrial fibrillation patients |
Internet based rehabilitation |
Author (year) | Method | Participants | Population | Intervention | Outcomes |
---|---|---|---|---|---|
Smart et al. (2015) 27 | RCT | n = 179, (81% males) [median age 72 range, 65-87 years] | Αcute Coronary Syndrome, Coronary revascularization, Surgical or percutaneous treatment for Valvular disease, documented CAD | IG:6-months HBCR CG: Usual care | (a) Peak oxygen uptake (after 6 months) (b) Habitual PA (c) CVRF (d) Incidence of AEs |
Snoek et al. (2021) 28 | Single-center RCT | n = 93 8 (84% males) [mean age 65 ± 8 years] | Patients with CAD | 4 weeks supervised CBCR training with subsequent HB training | (a) Changes in VO2 peak (b) Cardiorespiratory fitness (c) feasibility (d) safety (e) adherence (f) CVRF (g) QoL |
Taylor et al. (2020) 29 | Multicenter prospective RCT | N = 850 HCTR group (88.7% males) [mean age, 62.6 ±10.8 years) Usual care group (88.5% males) [mean age, 62.2± 10.2 years] | Heart Failure patients | IG: 9 weeks ΗCTR program (1 week in hospital and 8 weeks at home) CG: usual care | (a) Maintenance of benefits (14-26 months) (b) Safety of HCTR (at 9 weeks) (c) Tertiary outcomes (after 9 weeks) i. Distance in 6MWDT ii. CPET time iii. Peak oxygen consumption iv. RER v. QoL (Form-36 score) |
Piotrowicz et al. (2020) 30 | RCT | N = 56 (82.5% males) (mean age 57.7 ± 7.6) | Cardiac patients (heart revascularization [percutaneous angioplasty and aortocoronary bypass]) | IG1: 12-week ROT IG2:12-week ITG | (a) Physical fitness (b) QoL (c) Training adherence (d) Cardiac events and hospitalizations |
Batalik et al. (2020) 31 | RCT | N = 53 (75% males) [mean age 67 years] | Patients with stable chronic heart failure (including heart failure with reduced or preserved ejection fraction | IG: 12-week, HB exercise & education. CG: 12-week, hospital outpatient-based program. | (a) Changes in 6MWT (b) functional measures (c) QoL (d) patient satisfaction (e) attendance rates (f) AEs |
Hwang et al. (2017) 32 | RCT | N = 28 (100% males) [mean age 56.07±8.92 years] | Patients with stable CAD at moderate cardiovascular risk | IG: HB mixed surveillance program CG: CBCR | (a) Exercise capacity (b) risk profile (c) QoL (d) effectiveness (e) safety |
Bravo-Escobar et al. (2017) 33
Effectiveness and safety of a home-based cardiac rehabilitation programme of mixed surveillance in patients with ischemic heart disease at moderate cardiovascular risk: a randomised, controlled clinical trial. BMC Cardiovasc Disord. 2017; 17: 66 | RCT | N = 147 (76% males) [mean age 62 years] | Patients after heart valve surgery aortic (62%), mitral (36%) or tricuspid/pulmonary valve surgery (2%) | IG:12 week-CR HB (31%) or CB (69%) CG: usual care | (a) Physical capacity (VO2 peak) (b) mental health (c) safety considerations |
Sibilitz et al. (2016) 34 | RCT | n = 152 (90% males) [mean age 58.1 ± 10.2 years] | Heart Failure patients (NYHA class II and III, ejection fraction <40%) | IG: 8-week HTCR program CG: Outpatient-based standard CR | (a) Effectiveness: i. NYHA class ii. Peak oxygen consumption iii. 6MWDT iv. SF-36 score (b) Safety of CR and HBCR |
Piotrowicz et al. (2010) 35 | RCT | n = 78 (99% males) [mean age 62.6 ±10.6 years] | HF patients’ ejection fraction 27% ± 8.8%; 63 [80%] New York Heart Association class II; 15[20%] New York Heart Association class III–IV) | IG: Home walking exercise CG: usual activities | (a) Event rates, (b) Compliance to training (c) Functional status (d) Symptoms |
Study | Study quality (max. 5) | Study reporting (max. 10) | Total score (max. 15) |
---|---|---|---|
29 | 4 | 6 | 10 |
30 | 5 | 9 | 14 |
31 | 5 | 6 | 11 |
10 | 4 | 8 | 12 |
33
Effectiveness and safety of a home-based cardiac rehabilitation programme of mixed surveillance in patients with ischemic heart disease at moderate cardiovascular risk: a randomised, controlled clinical trial. BMC Cardiovasc Disord. 2017; 17: 66 | 5 | 10 | 15 |
34 | 4 | 7 | 11 |
35 | 5 | 8 | 13 |
36 | 4 | 6 | 10 |
37
Functional evaluation and cardiac rehabilitation working group of the french society of cardiology. Safety of exercise training for cardiac patients: results of the French registry of complications during cardiac rehabilitation. Arch Intern Med. 2006; 166: 2329-2334 | 3 | 7 | 10 |
mean | 4.3 | 7.4 | 11.8 |
range | 3–5 | 6–10 | 9–15 |
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