2025
First-in-Human Implantable Inferior Vena Cava Sensor for Remote Care in Heart Failure
KALRA, Paul R; Irakli GOGORISHVILI; George KHABEISHVILI; Filip MALEK; Ondřej TOMAN et al.Základní údaje
Originální název
First-in-Human Implantable Inferior Vena Cava Sensor for Remote Care in Heart Failure
Autoři
KALRA, Paul R; Irakli GOGORISHVILI; George KHABEISHVILI; Filip MALEK; Ondřej TOMAN; Chris CRITOPH; Andrew S FLETT; Peter J COWBURN; Mandeep R MEHRA; William S SHERIDAN; John R BRITTON; Teresa BUXO; Robyn M KEALY; Annette KENT; Barry R GREENE; Kaushik GUHA; Roy S GARDNER; Ian LOKE; Ali VAZIR; Jasper J BRUGTS; Alastair GRAY; Jeffrey M TESTANI a Kevin DAMMAN
Vydání
JACC-HEART FAILURE, UNITED STATES, ELSEVIER SCI LTD, 2025, 2213-1779
Další údaje
Typ výsledku
Článek v odborném periodiku
Utajení
není předmětem státního či obchodního tajemství
Impakt faktor
Impact factor: 11.800 v roce 2024
Označené pro přenos do RIV
Ne
Organizační jednotka
Lékařská fakulta
UT WoS
Klíčová slova anglicky
congestion monitoring; FUTURE-HF; heart failure; inferior vena cava sensor; remote care; volume status
Změněno: 16. 1. 2026 11:46, Mgr. Tereza Miškechová
Anotace
V originále
BACKGROUND Variations of inferior vena cava (IVC) area and collapsibility serve as early markers of congestion and predict risk for heart failure (HF) events. OBJECTIVES The aim of this first-in-human study (FUTURE-HF [First in Human Clinical Investigation of the FIRE1 System in Heart Failure Patients]) was to evaluate the safety and feasibility of a novel implantable IVC sensor for remote management in patients with HF. This paper is the final report on primary (3-month) and exploratory (6-month) endpoints. METHODS Patients with HF hospitalizations within the previous year, with elevated natriuretic peptide levels, and on optimal HF treatment were included. The primary safety endpoints were procedural success without device-or procedure-related complications at 3 months. The primary technical endpoint was signal acquisition following implantation and at a clinic visit within 3 months. Sensor-derived IVC area was compared with computed tomography (CT)-based IVC dimensions. Patient adherence to daily readings and exploratory clinical findings at 6 months were assessed. RESULTS Fifty patients underwent successful implantation (mean age 65 f 9 years, 14% women, 72% in NYHA functional class III), with 49 contributing to the primary safety and technical endpoints at 3 months. Sensor-derived IVC area demonstrated excellent agreement with CT measurement (mean absolute error 13.53 mm2 [3.55%] R2 = 0.98). Median adherence was 96% at 6-month follow-up. Exploratory analyses of clinical outcomes suggested improvements in N-terminal pro-B-type natriuretic peptide, NYHA functional class, and quality of life and reduced HF events. CONCLUSIONS This first-in-human experience demonstrated that the implantation of an IVC sensor was safe and feasible. Sensor-derived IVC area demonstrated excellent correlation with CT-derived IVC area, and exploratory clinical outcomes suggest that this may serve as a novel tool for ambulatory management of congestion to facilitate remote care in HF. (First in Human Clinical Investigation of the FIRE1 System in Heart Failure Patients [FUTURE-HF]; NCT04203576). (JACC Heart Fail. 2025;13:1000-1010) (c) 2025 The Authors. Published by Elsevier on behalf of the American College of Cardiology Foundation. This is an open access article under the CC BY-NC-ND license (http://creativecommons.org/ licenses/by-nc-nd/4.0/).