Innovations in Cardiac Implantable Electronic Devices

被引:0
作者
Khurrum Khan
Jitae A. Kim
Andra Gurgu
Muzamil Khawaja
Dragos Cozma
Mihail G. Chelu
机构
[1] Baylor College of Medicine,Division of Cardiology
[2] Baylor College of Medicine,Department of Medicine
[3] Institutul de Cardiologie,Department of Cardiology
来源
Cardiovascular Drugs and Therapy | 2022年 / 36卷
关键词
CIED; Innovation; Novel technology; Electrophysiology;
D O I
暂无
中图分类号
学科分类号
摘要
Cardiac implantable electronic devices (CIEDs) are essential for the management of a variety of cardiac conditions, including tachyarrhythmias, bradyarrhythmias, and medically refractory heart failure (HF). Recent advancements in CIED technology have led to innovative solutions that overcome shortcomings associated with traditional devices or address unmet needs. Leadless pacemakers, subcutaneous implantable cardioverter defibrillators (ICDs), and extravascular ICDs eliminate lead-related complications common with conventional pacemakers or ICDs. Conduction system pacing (His bundle pacing and left bundle branch pacing) is a more physiologic method of pacing and avoids the deleterious consequences associated with long-term right ventricular pacing. For HF-related devices, cardiac contractility modulation is an emerging therapy that bridges a gap for many patients ineligible for cardiac resynchronization therapy and has been shown to improve HF symptoms and decrease hospitalizations and mortality in select patients. Implantable pulmonary artery pressure monitors help guide HF management and reduce hospitalizations. Lastly, new phrenic nerve stimulating devices are being utilized to treat central sleep apnea, a common comorbidity associated with HF. While further long-term studies are still underway for many of these new technologies, it is anticipated that these devices will become indispensable therapeutics in the expanding cardiovascular armamentarium.
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页码:763 / 775
页数:12
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  • [21] Jørgensen OD(2018)Updated performance of the Micra transcatheter pacemaker in the real-world setting: a comparison to the investigational study and a transvenous historical control Heart Rhythm 15 1800-1043
  • [22] Nielsen JC(1985)Maintenance of exercise stroke volume during ventricular versus atrial synchronous pacing: role of contractility Circulation 72 1037-1693
  • [23] Reddy VY(2019)Patient selection, pacing indications, and subsequent outcomes with de novo leadless single-chamber VVI pacing Europace. 21 1686-823
  • [24] Knops RE(2018)Leadless dual-chamber pacing: a novel communication method for wireless pacemaker synchronization JACC Basic Transl Sci 3 813-942
  • [25] Sperzel J(2019)Leadless cardiac resynchronization therapy: an in vivo proof-of-concept study of wireless pacemaker synchronization Heart Rhythm 16 936-1492
  • [26] Miller MA(2019)First-in-man fully leadless transvenous CRT-P with a transseptal implant of WISE-CRT(®) system and Micra(®) PM Pacing Clin Electrophysiol 42 1489-1498
  • [27] Petru J(2017)Acute and 3-month performance of a communicating leadless antitachycardia pacemaker and subcutaneous implantable defibrillator JACC Clin Electrophysiol 3 1487-877
  • [28] Simon J(2004)Is right ventricular outflow tract pacing an alternative to left ventricular/biventricular pacing? Pacing Clin Electrophysiol 27 871-1432
  • [29] Sediva L(2010)Comparison of effectiveness of right ventricular septal pacing versus right ventricular apical pacing Am J Cardiol 105 1426-877
  • [30] de Groot JR(2000)Permanent, direct His-bundle pacing: a novel approach to cardiac pacing in patients with normal His-Purkinje activation Circulation. 101 869-267