The goal of this observational, multicenter study is to evaluate whether AI-driven remote monitoring using a mini-invasive wearable device can improve clinical outcomes in adult patients (≥18 years) with chronic heart failure (CHF). The main questions it aims to answer are: * Can continuous remote monitoring reduce hospital admissions (emergency visits and hospitalizations) by 20% compared to standard care? * Does wearable-based remote monitoring improve functional, biochemical, and instrumental parameters in CHF patients? Researchers will compare patients using the wearable device (intervention group) to those receiving standard clinical follow-up (control group) to assess whether AI-driven monitoring leads to fewer hospitalizations, better disease management, and improved quality of life. Participants will: * Wear the EmbracePlus (Empatica Inc.) device continuously for six months (intervention group only). * Have their biometric data (SpO₂, HRV, EDA, respiratory rate, temperature, sleep quality) monitored remotely. * Receive automated alerts and teleconsultations if abnormal physiological changes are detected. * Attend scheduled follow-up visits (remote and in-person) for clinical evaluation and treatment adjustments. The study aims to provide real-world evidence on whether integrating wearable health technology with AI analytics can enhance CHF management and improve patient outcomes.
Chronic Heart Failure (CHF) is a multifactorial syndrome characterized by high rates of hospitalization, morbidity, and mortality. Despite advances in pharmacological and device-based therapies, early identification of clinical deterioration remains a major challenge. Traditional follow-up models, based primarily on intermittent in-person evaluations, are often inadequate in capturing subclinical changes that precede acute decompensation. The SMART-CARE (System of Monitoring and Analysis based on Artificial Intelligence for Chronic Heart Failure Patients with Mini-Invasive and Wearable Medical Devices) study aims to assess whether continuous remote monitoring using a CE (Conformité Européenne)-certified wearable device (EmbracePlus by Empatica Inc.) integrated with AI (Artificial Intelligence) analytics can improve the management of CHF patients. The study adopts a prospective, multicenter, observational design with two parallel cohorts: patients managed with standard care versus patients equipped with the wearable device for six months. The wearable device captures a range of physiological signals-including peripheral capillary oxygen saturation (SpO₂), heart rate variability (HRV), electrodermal activity (EDA), skin conductance level (SCL), respiratory rate, peripheral skin temperature, pulse rate, fatigue detection, and sleep metrics via actigraphy-and transmits them in real time to a centralized digital platform. AI algorithms analyze these data continuously, triggering alerts in the event of abnormal trends. When alerts are generated, patients undergo teleconsultation, with possible treatment adjustments or in-person follow-up as clinically indicated. The study is designed to generate real-world evidence on whether AI-enhanced monitoring can reduce unplanned hospital admissions by at least 20% over a six-month follow-up, compared to standard care. Secondary endpoints include improvements in cardiac function (evaluated through echocardiographic parameters), neurohormonal biomarkers such as B-type Natriuretic Peptide (BNP) and Atrial Natriuretic Peptide (ANP), exercise tolerance assessed by the Six-Minute Walk Test (6MWT), quality of life measured by the Kansas City Cardiomyopathy Questionnaire (KCCQ), and incidence of therapy-related adverse events (e.g., hypotension, bradyarrhythmias). In addition to evaluating clinical efficacy, the study supports the development of a predictive multimarker model. Data collected through the SMART-CARE platform-including clinical history, biochemical markers, imaging data, and continuous sensor-derived variables-will be used by collaborating academic centers to train AI algorithms capable of forecasting CHF progression and tailoring individualized interventions. All data are pseudonymized in compliance with the General Data Protection Regulation (GDPR, Regulation EU 2016/679). The study does not interfere with ongoing medical treatments and adheres to Good Clinical Practice (GCP) and the ethical principles of the Declaration of Helsinki. Patients provide written informed consent prior to enrollment. The SMART-CARE initiative reflects a broader goal: integrating telemedicine, wearable health technology, and AI-based predictive modeling into a seamless care pathway that promotes proactive CHF management and enables personalized, data-driven therapeutic decisions.
Study Type
OBSERVATIONAL
Enrollment
205
This intervention utilizes a mini-invasive wearable device for continuous remote monitoring of chronic heart failure (CHF) patients. Unlike traditional telemonitoring, it integrates AI-driven predictive analytics to track oxygen saturation (SpO₂), heart rate variability (HRV), electrodermal activity (EDA), temperature, respiratory rate, and sleep quality in real time. The system generates automated alerts for healthcare providers, enabling early detection of CHF exacerbation and proactive intervention through teleconsultations, medication adjustments, or in-person evaluations. Data is securely transmitted to a cloud-based platform, allowing continuous risk assessment and personalized care adjustments. This approach aims to reduce unnecessary hospitalizations, enhance patient monitoring, and optimize heart failure management through advanced AI-based digital health technology.
Participants in this group will receive standard chronic heart failure (CHF) management according to current clinical guidelines. Their follow-up will consist of scheduled in-person visits every three months, during which they will undergo routine laboratory tests (including BNP, NT-proBNP, renal function, and electrolytes), as well as echocardiography and ECG evaluations. Treatment adjustments will be made based on clinical assessments and reported symptoms. Unlike the intervention group, these participants will not use a wearable device, and their condition will be monitored exclusively through traditional hospital visits and self-reported health status.
Change in Hospital Admissions with AI-Based Remote Monitoring
The study aims to determine whether AI-based remote monitoring using a wearable device leads to a 20% reduction in hospital admissions (including emergency department visits and hospitalizations) compared to standard clinical follow-up in patients with chronic heart failure (CHF). The intervention group will use a mini-invasive wearable device for continuous physiological monitoring, while the control group will receive standard CHF management without remote monitoring. Hospital admission rates will be analyzed to assess the effectiveness of early AI-driven detection and intervention.
Time frame: 6 months from participant enrollment.
Change in Quality of Life
Quality of life (QoL) will be measured using the Kansas City Cardiomyopathy Questionnaire (KCCQ) Overall Summary Score, a validated instrument specifically designed to assess symptom burden, functional status, social limitations, and quality of life in patients with chronic heart failure (CHF). The score ranges from 0 to 100, where higher scores indicate better health status and quality of life. The study will evaluate whether patients in the AI-based remote monitoring group report higher KCCQ scores compared to the control group. Unit of Measure: KCCQ score (0-100 scale) Time Frame: Baseline, 3 months, and 6 months Interpretation: Higher scores indicate better outcomes.
Time frame: Baseline, 3 months, and 6 months
Adverse Effects of CHF Therapy
The study will analyze whether continuous AI-driven monitoring helps in reducing adverse effects related to CHF treatments, such as: Hypotension (low blood pressure episodes due to overuse of diuretics or vasodilators) Bradyarrhythmias (slow heart rate linked to beta-blockers or other heart failure medications) By detecting early physiological changes, the wearable device may enable timely adjustments in medication dosages, reducing complications and therapy-related hospitalizations.
Time frame: 6 months
Change in Biochemical Parameters
Biochemical Parameters: Change in B-type Natriuretic Peptide (BNP) Levels (picograms per milliliter)
Time frame: 3 and 6 months from participant enrollment
Change in Biochemical Parameters
Biochemical Parameters: Change in N-terminal pro-BNP (NT-proBNP) Levels (picograms per milliliter)
Time frame: 3 and 6 months from participant enrollment
Change in Biochemical Parameters
Biochemical Parameters: Change in Serum Creatinine (milligrams per deciliter)
Time frame: 3 and 6 months from participant enrollment
Change in Biochemical Parameters
Biochemical Parameters: Change in Estimated Glomerular Filtration Rate (eGFR) (milliliters per minute per 1.73 square meters)
Time frame: 3 and 6 months from participant enrollment
Change in Biochemical Parameters
Biochemical Parameters: Change in Serum Sodium Levels (millimoles per liter)
Time frame: 3 and 6 months from participant enrollment
Change in Biochemical Parameters
Biochemical Parameters: Change in Serum Potassium Levels (millimoles per liter)
Time frame: 3 and 6 months from participant enrollment
Change in Biochemical Parameters
Biochemical Parameters: Change in Serum Chloride Levels (millimoles per liter)
Time frame: 3 and 6 months from participant enrollment
Change in Functional ECG-Derived Parameters
ECG-Derived Parameters: Change in Heart Rate Variability (HRV) (milliseconds)
Time frame: 3 and 6 months from participant enrollment
Change in Functional ECG-Derived Parameters
ECG-Derived Parameters: Change in Respiratory Rate (breaths per minute)
Time frame: 3 and 6 months from participant enrollment
Change in Functional Echocardiographic derived Parameters
Echocardiographic Parameters: Change in Left Ventricular Ejection Fraction (LVEF) (percent)
Time frame: 3 and 6 months from participant enrollment
Change in Functional Echocardiographic derived Parameters
Echocardiographic Parameters: Change in Diastolic Function - E/A Ratio (unitless)
Time frame: 3 and 6 months from participant enrollment
Change in Functional Echocardiographic derived Parameters
Echocardiographic Parameters: Change in Left Ventricular End-Diastolic Volume (milliliters)
Time frame: 3 and 6 months from participant enrollment
Change in Functional Echocardiographic derived Parameters
Echocardiographic Parameters: Change in Left Ventricular End-Systolic Volume (milliliters)
Time frame: 3 and 6 months from participant enrollment
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