Literature DB >> 27497356

Absorb vs. DESolve: an optical coherence tomography comparison of acute mechanical performances.

Alessio Mattesini1, Niklas Boeder, Serafina Valente, Katja Löblich, Oliver Dörr, Gioel G Secco, Nicolas Foin, Gianluca Caiazzo, Matteo Ghione, Gian Franco Gensini, Italo Porto, Carlo Di Mario, Holger Nef.   

Abstract

AIMS: The aim of the study was to compare retrospectively the acute mechanical performance of the Absorb vs. DESolve scaffolds in terms of appropriate deployment with OCT. METHODS AND
RESULTS: Final post-deployment OCT pullbacks of consecutive patients treated with either Absorb or DESolve were reviewed. The following parameters were calculated and compared: mean and minimal lumen area (MLA), residual in-scaffold area stenosis (RAS), incomplete strut apposition (ISA), tissue prolapse area, eccentricity index, asymmetry index, strut fracture and edge dissection. A total of 72 patients were included. The Absorb group consisted of 35 patients treated with 63 Absorb scaffolds and was compared to a well-matched group of 37 patients treated with 50 DESolve scaffolds. Baseline characteristics did not differ significantly between the two groups. Procedural characteristics were different with respect to maximal balloon inflation pressure (Absorb vs. DESolve: 21.5±0.4 atm vs. 16.8±3.8 atm, p<0.01) and mean NC balloon diameter used for post-dilatation (Absorb vs. DESolve 3.3±0.4 mm vs. 3.5±0.4 mm, p<0.01). OCT analysis showed similar MLA (Absorb vs. DESolve: 5.8±1.9 mm2 vs. 6.1±2.6 mm2, p=0.43) and mean luminal area (Absorb vs. DESolve: 7.1±2.2 mm2 vs. 7.2±1.9 mm2, p=0.77). The mean eccentricity index was 0.85±0.05 with Absorb and 0.80±0.05 with DESolve, p<0.01. There was no difference in the incidence of overall ISA. A smaller prolapse area was found with Absorb (Absorb vs. DESolve 1.0±1.1 mm2 vs. 3.6±6.2 mm², p<0.01).
CONCLUSIONS: The two scaffolds showed similar MLA while there was a trend towards a lower RAS and a larger maximum and minimum scaffold diameter with DESolve. The DESolve scaffold was more eccentric as compared to the Absorb. These results might be related to the DESolve's unique expansion properties or they may reflect baseline and procedural differences which cannot be excluded in a retrospective study. Randomised studies are needed to address this aspect.

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Year:  2016        PMID: 27497356     DOI: 10.4244/EIJV12I5A96

Source DB:  PubMed          Journal:  EuroIntervention        ISSN: 1774-024X            Impact factor:   6.534


  9 in total

1.  Overlapping implantation of bioresorbable novolimus-eluting scaffolds: an observational optical coherence tomography study.

Authors:  Florian Blachutzik; Niklas Boeder; Jens Wiebe; Alessio Mattesini; Oliver Dörr; Astrid Most; Timm Bauer; Monique Tröbs; Jens Röther; Christian Schlundt; Stephan Achenbach; Christian Hamm; Holger Nef
Journal:  Heart Vessels       Date:  2016-12-21       Impact factor: 2.037

Review 2.  Methods to assess bioresorbable vascular scaffold devices behaviour after implantation.

Authors:  Alberto Pernigotti; Elisabetta Moscarella; Giosafat Spitaleri; Claudia Scardino; Kohki Ishida; Salvatore Brugaletta
Journal:  J Thorac Dis       Date:  2017-08       Impact factor: 2.895

Review 3.  The DESolve novolimus bioresorbable Scaffold: from bench to bedside.

Authors:  Alessio Mattesini; Simone Bartolini; Carlotta Sorini Dini; Serafina Valente; Guido Parodi; Miroslava Stolcova; Francesco Meucci; Carlo Di Mario
Journal:  J Thorac Dis       Date:  2017-08       Impact factor: 2.895

Review 4.  Optical coherence tomography guidance during bioresorbable vascular scaffold implantation.

Authors:  Gioel Gabrio Secco; Monica Verdoia; Gianfranco Pistis; Giuseppe De Luca; Matteo Vercellino; Andrea Audo; Rosario Parisi; Maurizio Reale; Giorgio Ballestrero; Paolo Nicola Marino; Carlo Di Mario
Journal:  J Thorac Dis       Date:  2017-08       Impact factor: 2.895

5.  Comparison between treatment of "established" versus complex "off-label" coronary lesions with Absorb® bioresorbable scaffold implantation: results from the GABI-R® registry.

Authors:  Aydin Huseynov; Stefan Baumann; Holger Nef; Thomas Riemer; Steffen Schneider; Thomas Pfannenbecker; Stephan Achenbach; Julinda Mehilli; Thomas Münzel; Tommaso Gori; Jochen Wöhrle; Ralf Zahn; Johannes Kastner; Axel Schmermund; Gert Richardt; Christian W Hamm; Ibrahim Akin
Journal:  Clin Res Cardiol       Date:  2019-06-29       Impact factor: 5.460

6.  Post-dilatation after implantation of bioresorbable everolimus- and novolimus-eluting scaffolds: an observational optical coherence tomography study of acute mechanical effects.

Authors:  Florian Blachutzik; Niklas Boeder; Jens Wiebe; Alessio Mattesini; Oliver Dörr; Astrid Most; Timm Bauer; Jens Röther; Monique Tröbs; Christian Schlundt; Stephan Achenbach; Christian W Hamm; Holger M Nef
Journal:  Clin Res Cardiol       Date:  2016-10-18       Impact factor: 5.460

Review 7.  Bioresorbable Vascular Scaffolds-Dead End or Still a Rough Diamond?

Authors:  Mateusz P Jeżewski; Michał J Kubisa; Ceren Eyileten; Salvatore De Rosa; Günter Christ; Maciej Lesiak; Ciro Indolfi; Aurel Toma; Jolanta M Siller-Matula; Marek Postuła
Journal:  J Clin Med       Date:  2019-12-07       Impact factor: 4.241

8.  Long-term comparison of everolimus- vs. novolimus-eluting bioresorbable vascular scaffolds in real world patients.

Authors:  Beytullah Cakal; Sinem Cakal; Oguz Karaca; Mehmet Onur Omaygenc; Filiz Kizilirmak Yilmaz; Haci Murat Gunes; Ozgur Ulas Ozcan; Arzu Yıldırım; Bilal Boztosun
Journal:  Postepy Kardiol Interwencyjnej       Date:  2020-12-29       Impact factor: 1.426

Review 9.  Bioresorbable Scaffolds: Contemporary Status and Future Directions.

Authors:  Xiang Peng; Wenbo Qu; Ying Jia; Yani Wang; Bo Yu; Jinwei Tian
Journal:  Front Cardiovasc Med       Date:  2020-11-30
  9 in total

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