A Novel Digital Platform for a Monitored Home-based Cardiac Rehabilitation Program
April 19th, 2019
The aim is to promote a new approach to cardiac rehabilitation (CR), using a unique remote patient monitoring system that will enable healthcare providers to monitor CR patients at home at low cost, with the intention of making CR services more accessible and improving compliance. The study is currently underway.
The protocol allows working with patients remotely, monitoring activity measures accurately and in sequence 24/7 and enables health care providers to monitor cardiac rehabilitation patients at home at low cost. The program offers an alternative to regular cardiac rehabilitation. It's intended for a population that for various reasons cannot reach cardiac rehabilitation centers and allows remote arrhythmia and ischemia identification.
Cardiac rehabilitation has been proven to save lives after acute cardio events, however, it remains underutilized. The ability to monitor patients effectively while exercising at home would greatly extend the use of this life-saving therapy. We believe our method of using home monitoring using the health watch garment and advanced digital technology will allow much more widespread participation in cardiac rehabilitation.
It is important for coordinators to meet with patients in person during the first six weeks to explain the program step by step and to practice the exercises together. For the first six weeks, have the participants attend the facility two times per week for one hour, wearing the wrist band at all times, and the smart digital garment at predetermined times. Measure the participant's blood pressure before, during, and at the end of each exercise session, and have the participant warm up for five minutes before beginning each session.
At each session, have the participant bike for 10 minutes, followed by 15 minutes of walking on the treadmill, and five minutes paddling on a hand cycle, monitoring the heart rate using the electrocardiogram telemetry capabilities of the garment before, during, and after the proactive walking. At the end of the six-week facility-based rehabilitation period, have the participants work out at home for the next six weeks according to the instructions given in the app or digitally via chat or face to face with the coordinator. Have the participants wear the smart garment twice a week and transfer the electrocardiogram measurements before, during, and after performing the proactive walking.
Also have the participants send manual blood pressure measurements via the app taken before and after the proactive walking and confirm that the participants are taking their medications daily. The digital platform concept includes a program as well as the clinical staff and coaches. It is tailored to address the range of medical teams'needs concerning physical activity, behavioral health, medication, and nutrition via the application video and audio communication channels between patients and coaches.
A dashboard facilitates the collection and visualization of the raw and analyzed data, allowing changes in the participant's physiological signals such as blood pressure, heart rate activity levels, sugar, sleep, and nutrition data to be monitored. As the participant is under observation all day and as the coordinator is in regular contact with the participant, the coordinator can encourage the participant to continue keeping up their activity levels or check why there has been no activity by sending the patient daily to monthly graphic reports. The procedure requires patient preparation at the center, the patient to work independently, and the staff to communicate and help the patients assimilate the new habits.
Analysis of the data will enable researchers to better understand the contribution of cardiac rehabilitation to patient health and how physiological, clinical, and behavioral measures influence patients'rehabilitation. Patients'behavior is monitored via examining parameters, correlations, and through quality of life questionnaires to determine how the level of activity affects mood swings and how the patient performs at work.
Overview
This study introduces a remote patient monitoring system for cardiac rehabilitation (CR) that allows healthcare providers to monitor patients at home. The approach aims to enhance accessibility and compliance with CR services, particularly for those unable to attend rehabilitation centers.
Key Study Components
Area of Science
- Cardiac rehabilitation
- Remote patient monitoring
- Healthcare accessibility
Background
- Cardiac rehabilitation is crucial for recovery post-cardiac events.
- Current CR services are often underutilized due to accessibility issues.
- Remote monitoring can facilitate better patient engagement and compliance.
- Utilizing digital technology can enhance the effectiveness of CR programs.
Purpose of Study
- To develop a cost-effective remote monitoring system for CR patients.
- To improve patient compliance and accessibility to rehabilitation services.
- To assess the impact of remote monitoring on patient health outcomes.
Methods Used
- Participants wear a smart garment and wristband for monitoring.
- Initial in-person sessions to train participants on the program.
- Continuous monitoring of physiological signals during exercise.
- Data collection through a digital platform for analysis and feedback.
Main Results
- Effective remote monitoring of patients' activity and health metrics.
- Improved patient engagement through regular communication with coordinators.
- Potential for increased participation in cardiac rehabilitation programs.
- Data analysis to understand the relationship between activity levels and health outcomes.
Conclusions
- Remote monitoring can significantly enhance cardiac rehabilitation accessibility.
- Continued support and communication are vital for patient success.
- Further research is needed to evaluate long-term health impacts.
Frequently Asked Questions
Executive Industry Relevance
Remote monitoring solutions address low utilization of cardiac rehabilitation by extending evidence-based therapy to home settings, improving long-term adherence and reducing barriers to care. This approach supports predictive confidence in behavioral interventions and enables scalable delivery of preventive cardiology programs. It aligns with enterprise goals of risk-adjusted prioritization and expanded access to high-value therapeutic modalities.
Strategic Applications in Biopharma R&D
Early Discovery & Target Validation
- Scientific Value: Enables interrogation of therapeutic hypotheses related to physical activity adherence and behavioral modification in ischemic heart disease populations.
- Operational Value: Supports biological de-risking by providing continuous, objective monitoring of exercise patterns and physiological responses outside clinical settings.
Screening & Assay Development
- Scientific Value: Prepares validated digital phenotyping systems for downstream biomarker discovery and compound screening in cardiovascular therapeutic areas.
- Operational Value: Ensures assay standardization through remote collection of activity, heart rate, and blood pressure data with real-time feedback loops.
Translational & Preclinical Research
- Scientific Value: Bridges discovery and preclinical validation by establishing disease-relevant, home-based models of cardiovascular recovery and behavior change.
- Operational Value: Supports risk-adjusted advancement decisions through longitudinal tracking of metabolic parameters, body composition, and quality-of-life endpoints.
Pipeline & Workflow Integration
The method integrates into the discovery continuum by supporting hypothesis testing in behavioral cardiology, enabling assay readiness through continuous physiological monitoring, and generating quantitative outputs for cross-functional comparison of intervention efficacy.
- Discovery Biology: Facilitates pathway clarification by correlating exercise adherence with changes in HbA1c, lipid profile, and blood pressure over time.
- Screening: Delivers reproducible, scalable monitoring of steps per day, exercise minutes, and vital signs to support reliable compound or intervention evaluation.
- Analytics: Provides statistical analysis of physiological signals, behavioral correlations, and quality-of-life outcomes to inform go/no-go decisions in preventive cardiology pipelines.
- Translational Research: Connects early-phase behavioral findings to preclinical continuity through sustained monitoring of cardiovascular risk factors and functional capacity.
- Enterprise Reuse: Establishes a reusable digital infrastructure for monitoring lifestyle interventions across multiple therapeutic areas beyond cardiac rehabilitation.
Operational & Enterprise Impact
- Scientific Value: Increases predictive confidence in behavioral interventions by linking real-world activity data to clinical outcomes in ischemic heart disease.
- Operational Value: Enhances standardization and scalability of cardiac rehabilitation delivery through remote monitoring and digital coaching.
- Strategic Value: Improves capital efficiency by reducing reliance on facility-based care and enabling broader patient access to guideline-recommended therapy.
- Portfolio Impact: Supports risk-adjusted prioritization of preventive cardiology programs by demonstrating sustained engagement and measurable risk factor modification.
Implementation Considerations
- Requires expertise in digital health, remote patient monitoring, and cardiovascular behavioral science.
- Depends on wearable biosensors, mobile applications, and secure data dashboards for continuous physiological tracking.
- Necessitates cross-team standardization between clinical coordinators, data analysts, and behavioral coaches for consistent protocol execution.
- Involves adaptation considerations for diverse patient populations, including varying levels of digital literacy and comorbid conditions.
- Includes practical limitations such as reliance on patient self-reporting for medication adherence and potential variability in home environment monitoring consistency.
