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An Electromagnetically Controllable Microrobotic Interventional System for Targeted, Real-Time Cardiovascular Intervention

Title
An Electromagnetically Controllable Microrobotic Interventional System for Targeted, Real-Time Cardiovascular Intervention
Author(s)
Hwang, JunsunJeon, SungwoongKim, BeomjooKim, Jin-youngJin, ChaewonYeon, AraYi, Byung-JuYoon, Chang-HwanPark, Hun-JunPane, SalvadorNelson, Bradley J.Choi, Hongsoo
Issued Date
2022-06
Citation
Advanced Healthcare Materials, v.11, no.11
Type
Article
Author Keywords
cardiovascular diseasesguidewiresinterventional medicinemagnetic actuationmedical roboticssoft robotics
Keywords
TIPREMOTE MAGNETIC NAVIGATIONJ-SHAPED GUIDEWIRECATHETER ABLATIONDIAMETERSURFACESBIPLANESAFETYVEINMRI
ISSN
2192-2640
Abstract
Robotic magnetic manipulation systems offer a wide range of potential benefits in medical fields, such as precise and selective manipulation of magnetically responsive instruments in difficult-to-reach vessels and tissues. However, more preclinical/clinical studies are necessary before robotic magnetic interventional systems can be widely adopted. In this study, a clinically translatable, electromagnetically controllable microrobotic interventional system (ECMIS) that assists a physician in remotely manipulating and controlling microdiameter guidewires in real time, is reported. The ECMIS comprises a microrobotic guidewire capable of active magnetic steering under low-strength magnetic fields, a human-scale electromagnetic actuation (EMA) system, a biplane X-ray imaging system, and a remote guidewire/catheter advancer unit. The proposed ECMIS demonstrates targeted real-time cardiovascular interventions in vascular phantoms through precise and rapid control of the microrobotic guidewire under EMA. Further, the potential clinical effectiveness of the ECMIS for real-time cardiovascular interventions is investigated through preclinical studies in coronary, iliac, and renal arteries of swine models in vivo, where the magnetic steering of the microrobotic guidewire and control of other ECMIS modules are teleoperated by operators in a separate control booth with X-ray shielding. The proposed ECMIS can help medical physicians optimally manipulate interventional devices such as guidewires under minimal radiation exposure. © 2022 Wiley-VCH GmbH
URI
http://hdl.handle.net/20.500.11750/16483
DOI
10.1002/adhm.202102529
Publisher
John Wiley and Sons Ltd
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Appears in Collections:
Department of Robotics and Mechatronics Engineering Bio-Micro Robotics Lab 1. Journal Articles
Division of Biotechnology 1. Journal Articles

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