Bioresorbable Electronic Stent Integrated with Therapeutic Nanoparticles for Endovascular Diseases

Donghee Son(Seoul National University), Jongha Lee(Seoul National University), Dong Jun Lee(Seoul National University), Roozbeh Ghaffari(MC10 (United States)), Sumin Yun(Seoul National University), Seok Joo Kim(Seoul National University), Ji Eun Lee(Seoul National University), Hye Rim Cho(Seoul National University), Soonho Yoon(Seoul National University), Shixuan Yang(Mechanics' Institute), Seunghyun Lee(Seoul National University), Shutao Qiao(Mechanics' Institute), Daishun Ling(Zhejiang University), Sanghun Shin(Seoul National University), Jun-Kyul Song(Seoul National University), Jaemin Kim(Seoul National University), Taeho Kim(Seoul National University), Hak-Yong Lee(Seoul National University), Jonghoon Kim(Seoul National University), Min Soh(Seoul National University), Nohyun Lee(Kookmin University), Cheol Seong Hwang(Seoul National University), Sangwook Nam(Seoul National University), Nanshu Lu(Mechanics' Institute), Taeghwan Hyeon(Seoul National University), Seung Hong Choi(Seoul National University), Dae‐Hyeong Kim(Seoul National University)
ACS Nano
April 23, 2015
Cited by 237

Abstract

Implantable endovascular devices such as bare metal, drug eluting, and bioresorbable stents have transformed interventional care by providing continuous structural and mechanical support to many peripheral, neural, and coronary arteries affected by blockage. Although effective in achieving immediate restoration of blood flow, the long-term re-endothelialization and inflammation induced by mechanical stents are difficult to diagnose or treat. Here we present nanomaterial designs and integration strategies for the bioresorbable electronic stent with drug-infused functionalized nanoparticles to enable flow sensing, temperature monitoring, data storage, wireless power/data transmission, inflammation suppression, localized drug delivery, and hyperthermia therapy. In vivo and ex vivo animal experiments as well as in vitro cell studies demonstrate the previously unrecognized potential for bioresorbable electronic implants coupled with bioinert therapeutic nanoparticles in the endovascular system.


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