Laser vs rotational transvenous lead extraction: A systematic review and meta-analysis of procedural safety and efficacy outcomes
Year: 2026
Type: review
Study designs: Systematic Review, Meta-Analysis
Abstract: Background The rise in cardiac implantable electronic devices implantation has resulted in a concomitant rise in transvenous lead extractions (TLE). Advanced extraction tools such as the excimer laser and mechanical rotational sheaths have improved acute procedural success when manual extraction fails. However, it is unclear how the laser sheath compares to the rotational sheath in safety and efficacy outcomes. Objective We aim to compare the safety and efficacy of laser and rotational TLE using a meta-analysis. Methods A systematic literature search was performed for studies involving the use of laser and/or rotational sheath published from 2008 onwards. A random effects model was used to compare outcome data including complete procedural success, clinical success, major complications, minor complications and procedural death. Results Forty-three studies were included for meta-analysis, consisting of 13,189 patients and 20,103 extracted leads. The overall mean lead dwell time was 8.5 ± 12.7 years. There was no significant difference between laser and rotational-assisted TLE in complete procedural success (94% vs 94% respectively, P=0.92), major complications (1.9% vs 0.81% respectively, P=0.10), minor complications (5% vs 4% respectively, P=0.74) and procedural death (0.2% vs 0.04% respectively, P=0.14). Laser TLE had a 5.6-fold aggregated risk of SVC laceration compared to rotational TLE but this was not associated with an increased mortality. Conclusion Both laser and rotational TLE are effective and safe. Our analysis suggests that there is no significant difference in safety profile between laser and rotational TLE.
Source: Heart Rhythm O2
Language: English
Subfield: Cardiology and Cardiovascular Medicine
Field: Medicine
Domain: Health Sciences
Open Access status: gold
Estimated APC paid: $2,150
Awards: G1190480411, G1247657515, Personalised Model Based Optimal Lead Guidance in Cardiac Resynchronisation Therapy, Uncertainty Quantification in Prospective and Predictive Patient Specific Cardiac Models, G3773670102, The BHF-Turing Cardiovascular Data Science Awards (First call): Quantifying functional co-variation in calcium handling proteins in cardiac myocytes (joint funding with The Alan Turing Institute), G5520316217, Feasibility and proposed mechanisms for effective leadless left ventricular endocardial conduction system pacing, G6511483506, G6562481342, The role of scar morphology and location in arrhythmogenic risk following cardiac resynchronisation therapy in patients with ischaemic heart disease, The interdependence of anatomy and function in atrial fibrillation, G9000037332, G9000122581
OpenAlex ID: W7122756214
