参考文献/References:
［1］ 卢旺盛， 刘 达， 田增民， 等． 血管介入手术机器人的关键技术分析［J］． 生物医学工程研究， 2009， 28： 303-306．
［2］ 贺志秀， 钱 炜， 宋成利． 介入手术中导管导向机器人技术的发展［J］． 介入放射学杂志， 2011， 20： 584-588．
［3］ Ram W， Meyer H. Heart catheterization in a neonate by interacting magnetic fields： a new and simple method of catheter guidance［J］. Cathet Cardiovasc Diagn， 1991， 22： 317-319.
［4］ Faddis MN， Blume W， Finney J， et al. Novel， magnetically guided catheter for endocardial mapping and radiofrequency catheter ablation［J］. Circulation， 2002， 106： 2980-2985.
［5］ Ernst S， Ouyang FF， Linder C， et al. Initial experience with remote catheter ablation using a novel magnetic navigation system： magnetic remote catheter ablation［J］. Circulation， 2004， 109： 1472-1475.
［6］ Pappone C， Vicedomini G， Manguso F， et al. Robotic magnetic navigation for atrial fibrillation ablation［J］. J Am Coll Cardiol， 2006， 47： 1390-1400.
［7］ Gang ES， Nguyen BL， Shachar Y， et al. Dynamically shaped magnetic fields： initial animal validation of a new remote electrophysiology catheter guidance and control system［J］. Circ Arrhythm Electrophysiol， 2011， 4： 770-777.
［8］ Filgueiras-Rama D， Estrada A， Shachar J， et al. Remote magnetic navigation for accurate， real-time catheter positioning and ablation in cardiac electrophysiology procedures［J］. J Vis Exp， 2013， （74）： e3658.
［9］ Beyar R， Gruberg L， Deleanu D， et al. Remote-control percutaneous coronary interventions： concept， validation， and first-in-humans pilot clinical trial［J］. J Am Coll Cardiol， 2006， 47： 296-300.
［10］ Beyar R， Wenderow T， Lindner D， et al. Concept， design and pre-clinical studies for remote control percutaneous coronary interventions［J］. EuroIntervention， 2005， 1： 340-345.
［11］ Tian Z， Lu W， Wang T， et al. Application of a robotic telemanipulation system in stereotactic surgery［J］. Stereotact Funct Neurosurg， 2008， 86： 54-61.
［12］ Cercenelli L， Marcelli E， Plicchi G. Initial experience with a telerobotic system to remotely navigate and automatically reposition standard steerable EP catheters［J］. ASAIO J， 2007， 53： 523-529.
［13］ Ganji Y， Janabi-Sharifi F， Cheema AN. Robot-assisted catheter manipulation for intracardiac navigation［J］. Int J Comput Assist Radiol Surg， 2009， 4： 307-315.
［14］ Tanimoto M， Arai F， Fukuda T， et al. Telesurgery system for intravascular neurosurgery［A］. In： Delp SL， DiGoia AM， Jaramaz B， eds. Medical Image Computing and Computer-Assisted Intervention： MICCAI 2000［M］. Berlin， Heidelberg： Springer， 2000： 29-39.
［15］ Tanimoto M， Arai F， Fukuda T， et al. Augmentation of safety in a teleoperation system for intravascular neurosurgery［J］. Adv Robotics， 1998， 13： 323-325.
［16］ Guo S， Kondo H， Wang J， et al. A New catheter operating system for medical applications［A］. 2007 IEEE/ICME International Conference on Complex Medical Engineering［M］. New York： IEEE Press， 2007： 82-86.
［17］ Park JW， Choi J， Pak HN， et al. Development of a force-reflecting robotic platform for cardiac catheter navigation［J］. Artif Organs， 2010， 34： 1034-1039.
［18］ Park JW， Choi J， Park Y， et al. Haptic virtual fixture for robotic cardiac catheter navigation［J］. Artif Organs， 2011， 35： 1127-1131.
［19］ Al-Ahmad A， Grossman JD， Wang PJ. Early experience with a computerized robotically controlled catheter system［J］. J Interv Card Electrophysiol， 2005， 12： 199-202.
［20］ Saliba W， Cummings JE， Oh S， et al. Novel robotic catheter remote control system： feasibility and safety of transseptal puncture and endocardial catheter navigation［J］. J Cardiovasc Electrophysiol， 2006， 17： 1102-1105.
［21］ Kanagaratnam P， Koa-Wing M， Wallace DT， et al. Experience of robotic catheter ablation in humans using a novel remotely steerable catheter sheath［J］. J Interv Card Electrophysiol， 2008， 21： 19-26.
［22］ Bismuth J， Duran C， Stankovic M， et al. A first-in-man study of the role of flexible robotics in overcoming navigation challenges in the iliofemoral arteries［J］. J Vasc Surg， 2013， 57： 14S-19S.
［23］ Granada JF， Delgado JA， Uribe MP， et al. First-in-human evaluation of a novel robotic-assisted coronary angioplasty system［J］. JACC Cardiovasc Interv， 2011， 4： 460-465.
［24］ Carrozza JP. Robotic-assisted percutaneous coronary intervention： filling an unmet need［J］. J Cardiovasc Transl Res， 2012， 5： 62-66.
［25］ Mahmud E， Naghi J， Ang L， et al. Demonstration of the safety and feasibility of robotically assisted percutaneous coronary intervention in complex coronary lesions： results of the CORA-PCI study（complex robotically assisted percutaneous coronary intervention）［J］. JACC Cardiovasc Interv， 2017， 10： 1320-1327.
［26］ Campbell PT， Kruse KR， Kroll CR， et al. The impact of precise robotic lesion length measurement on stent length selection： ramifications for stent savings［J］. Cardiovasc Revasc Med， 2015， 16： 348-350.
［27］ Kim JJ， Macicek SL， Decker JA， et al. Magnetic versus manual catheter navigation for ablation of free wall accessory pathways in children［J］. Circ Arrhythm Electrophysiol， 2012， 5： 804-808.
［28］ Adragao PP， Cavaco D， Ferreira AM， et al. Safety and long-term outcomes of catheter ablation of atrial fibrillation using magnetic navigation versus manual conventional ablation： a propensity-score analysis［J］. J Cardiovasc Electrophysiol， 2016， 27： S11-S16.
［29］ Hendriks AA， Akca F， Dabiri Abkenari L， et al. Safety and clinical outcome of catheter ablation of ventricular arrhythmias using contact force sensing： consecutive case series［J］. J Cardiovasc Electrophysiol， 2015，［Epub ahead of print］.
［30］ Weiss JP， May HT， Bair TL， et al. A comparison of remote magnetic irrigated tip ablation versus manual catheter irrigated tip catheter ablation with and without force sensing feedback ［J］. J Cardiovasc Electrophysiol， 2016， 27： S5-S10.
［31］ Weisz G， Metzger DC， Caputo RP， et al. Safety and feasibility of robotic percutaneous coronary intervention： PRECISE （Percutaneous Robotically-Enhanced Coronary Intervention） study［J］. J Am Coll Cardiol， 2013， 61： 1596-1600.
［32］ Mahmud E， Schmid F， Kalmar P， et al. Feasibility and safety of robotic peripheral vascular interventions： results of the RAPID trial［J］. JACC Cardiovasc Interv， 2016， 9： 2058-2064.
［33］ Bhaskaran A， Barry MA， Al Raisi SI， et al. Magnetic guidance versus manual control： comparison of radiofrequency lesion dimensions and evaluation of the effect of heart wall motion in a myocardial phantom［J］. J Interv Card Electrophysiol， 2015， 44： 1-8.
［34］ Szili-Torok T， Schwagten B， Akca F， et al. Catheter ablation of ventricular tachycardias using remote magnetic navigation： a consecutive case-control study［J］. J Cardiovasc Electrophysiol， 2012， 23： 948-954.
［35］ Campbell PT， Mahmud E， Marshall JJ. Interoperator and intraoperator（in）accuracy of stent selection based on visual estimation［J］. Catheter Cardiovasc Interv， 2015， 86： 1177-1183.
［36］ 赵德朋， 刘 达． 血管介入手术机器人系统力反馈的模糊融合［J］． 机器人， 2013， 35： 60-66．
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