Literature DB >> 23968706

Tissue uptake, distribution, and healing response after delivery of paclitaxel via second-generation iopromide-based balloon coating: a comparison with the first-generation technology in the iliofemoral porcine model.

Piotr P Buszman1, Armando Tellez, Maxwell E Afari, Athanasios Peppas, Gerard B Conditt, Serge D Rousselle, Jennifer C McGregor, Mark Stenoien, Greg L Kaluza, Juan F Granada.   

Abstract

OBJECTIVES: This study sought to evaluate vascular drug uptake, distribution and response of second-generation paclitaxel coated balloon (PCB) (Cotavance, MEDRAD Interventional, Indianola, Pennsylvania) and compare it with first-generation technology, containing identical excipient and drug concentration.
BACKGROUND: Original PCB technologies displayed a heterogeneous deposition of crystalline paclitaxel-iopromide inside the balloon folds, whereas second-generation PCBs consisted of more homogeneous, circumferential coatings.
METHODS: Paclitaxel tissue uptake was assessed in 20 iliofemoral arteries of a domestic swine. Vascular healing response was assessed in the familial hypercholesterolemic model of iliofemoral in-stent restenosis. Three weeks after bare-metal stent implantation, vascular segments were randomly revascularized with first-generation PCBs (n = 6), second-generation PCBs (n = 6), or plain balloon angioplasty (PBA) (n = 6). At 28 days, angiographic and histological evaluation was performed in all treated segments.
RESULTS: One-hour paclitaxel tissue uptake was 42% higher in the second-generation PCBs (p = 0.03) and resulted in more homogeneous segment-to-segment distribution compared with first-generation PCBs. Both angiography (percentage of diameter stenosis: second-generation 11.5 ± 11% vs. first-generation 21.9 ± 11% vs. PBA 46.5 ± 10%; p < 0.01) and histology (percentage of area stenosis: second-generation 50.5 ± 7% vs. first-generation 54.8 ± 18% vs. PBA 78.2 ± 9%; p < 0.01) showed a decrease in neointimal proliferation in both PCB groups. Histological variance of the percentage of area stenosis was lower in second-generation compared with first-generation PCBs (51.7 vs. 328.3; p = 0.05). The presence of peristrut fibrin deposits (0.5 vs. 2.4; p < 0.01) and medial smooth muscle cell loss (0 vs. 1.7; p < 0.01) were lower in the second-generation compared with first-generation PCBs.
CONCLUSIONS: In the experimental setting, second-generation PCB showed a comparable efficacy profile and more favorable vascular healing response when compared to first-generation PCB. The clinical implications of these findings require further investigation.
Copyright © 2013 American College of Cardiology Foundation. Published by Elsevier Inc. All rights reserved.

Entities:  

Keywords:  %AS; %DS; EEL; FHS; IEL; ISR; MLD; PBA; PCB; QVA; RVD; external elastic lamina; familial hypercholesterolemic swine; in-stent restenosis; in-stent restenosis model; internal elastic lamina; minimal lumen diameter; paclitaxel-coated balloon; percentage of area stenosis; percentage of diameter stenosis; plain balloon angioplasty; quantitative vascular angiography; reference vessel diameter; second-generation

Mesh:

Substances:

Year:  2013        PMID: 23968706     DOI: 10.1016/j.jcin.2013.04.013

Source DB:  PubMed          Journal:  JACC Cardiovasc Interv        ISSN: 1936-8798            Impact factor:   11.195


  8 in total

1.  The use of an occlusion perfusion catheter to deliver paclitaxel to the arterial wall.

Authors:  Marzieh K Atigh; Emily Turner; Uwe Christians; Saami K Yazdani
Journal:  Cardiovasc Ther       Date:  2017-08       Impact factor: 3.023

Review 2.  Drug-coated balloon therapy in coronary and peripheral artery disease.

Authors:  Robert A Byrne; Michael Joner; Fernando Alfonso; Adnan Kastrati
Journal:  Nat Rev Cardiol       Date:  2013-11-05       Impact factor: 32.419

3.  Precision delivery of liquid therapy into the arterial wall for the treatment of peripheral arterial disease.

Authors:  Marzieh K Atigh; Emily Goel; Megan Erwin; Ricky Greer; Jacques Ohayon; Roderic I Pettigrew; Saami K Yazdani
Journal:  Sci Rep       Date:  2021-09-21       Impact factor: 4.379

4.  Understanding the Mechanism of Drug Transfer and Retention of Drug-Coated Balloons.

Authors:  Estefanny Villar-Matamoros; Lauren Stokes; Alyssa Lloret; Meagan Todd; Bryan W Tillman; Saami K Yazdani
Journal:  J Cardiovasc Pharmacol Ther       Date:  2022 Jan-Dec       Impact factor: 2.807

5.  Comparative assessment of the antirestenotic efficacy of two paclitaxel drug-eluting balloons with different coatings in the treatment of in-stent restenosis.

Authors:  Freek Nijhoff; Pieter R Stella; Maartje S Troost; Anouar Belkacemi; Hendrik M Nathoe; Michiel Voskuil; Mariam Samim; Pieter A Doevendans; Pierfrancesco Agostoni
Journal:  Clin Res Cardiol       Date:  2015-11-05       Impact factor: 5.460

6.  Coating of intravascular balloon with paclitaxel prevents constrictive remodeling of the dilated porcine femoral artery due to inhibition of intimal and media fibrosis.

Authors:  Noemi Pavo; Eslam Samaha; Inna Sabdyusheva; Rembert Pogge von Strandmann; Stefanie Stahnke; Christian A Plass; Katrin Zlabinger; Dominika Lukovic; Zoltan Jambrik; Imre J Pavo; Jutta Bergler-Klein; William A Gray; Gerald Maurer; Mariann Gyöngyösi
Journal:  J Mater Sci Mater Med       Date:  2016-07-07       Impact factor: 3.896

7.  Biological effect on drug distribution and vascular healing via paclitaxel-coated balloon technology in drug eluting stent restenosis swine model.

Authors:  Yan Li; Armando Tellez; Serge D Rousselle; Krista N Dillon; Javier A Garza; Chris Barry; Juan F Granada
Journal:  Catheter Cardiovasc Interv       Date:  2015-11-28       Impact factor: 2.692

8.  The Development of an ex vivo Flow System to Assess Acute Arterial Drug Retention of Cardiovascular Intravascular Devices.

Authors:  Kathryn Cooper; Claire V Cawthon; Emily Goel; Marzieh Atigh; Uwe Christians; Saami K Yazdani
Journal:  Front Med Technol       Date:  2021-06-10
  8 in total

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