Nagaoka Eiki, Gelinas Jill, Vola Marco, Kiaii Bob
10033 Division of Cardiac Surgery, Department of Surgery, Western University, London Health Sciences Centre, London, ON, Canada.
26900 Department of Cardiac Surgery, University Hospital of Lyon, France.
Innovations (Phila). 2020 Jan/Feb;15(1):88-92. doi: 10.1177/1556984519894298. Epub 2020 Jan 1.
Robotic assisted aortic valve surgery is still challenging and debatable. We retrospectively reviewed our cases of robotic assisted aortic valve replacement utilizing sutureless aortic valve with following surgical technique: 3 ports, 1 for endoscope and 2 for the robotic arms were inserted in the right chest and da Vinci Si robotic system (Intuitive Surgical, Sunnyvale, CA, USA) was adapted to these ports. Cardiopulmonary bypass was initiated through peripheral cannulations. A vent cannula was placed through the right superior pulmonary vein and a cardioplegia cannula in the ascending aorta. After cardioplegic arrest following aortic cross-clamp, the aortic valve was exposed through a clam shell aortotomy. Valvectomy along with decalcification was performed. Next using 3 guiding sutures the Perceval S valve (LivaNova, London, UK) was parachuted down and deployed. After confirming valve position, the aortotomy was closed. There were no major complications during the procedures and no conversion to sternotomy. Exposure of aortic valve was of high quality. Valvectomy required assistance with long scissors by the bedside surgeon for excision of the severely calcified valve cusps and effective decalcification of annulus. Postoperative convalescence was uncomplicated except for postoperative atrial fibrillation in 1 patient. Robotic assistance in aortic valve procedure enabled excellent exposure of the aortic valve and improved manipulation and suturing of the aortic annulus and aorta. There needs to be improvement of instrumentation for valve debridement and removal of calcium from the annulus. In addition, the sutureless valve technology contributes to the feasibility and the efficacy of this procedure.
机器人辅助主动脉瓣手术仍然具有挑战性且存在争议。我们回顾性分析了我们采用无缝合主动脉瓣进行机器人辅助主动脉瓣置换术的病例,手术技术如下:在右胸插入3个端口,1个用于内窥镜,2个用于机器人手臂,并将达芬奇Si机器人系统(美国加利福尼亚州森尼韦尔市直观外科公司)适配于这些端口。通过外周插管启动体外循环。经右上肺静脉置入一个排气套管,在升主动脉置入一个心脏停搏液套管。在主动脉阻断后心脏停搏后,通过蚌壳式主动脉切开术暴露主动脉瓣。进行瓣膜切除及去钙化操作。接下来,使用3根引导缝线将Perceval S瓣膜(英国伦敦LivaNova公司)降入并展开。确认瓣膜位置后,关闭主动脉切开处。手术过程中无重大并发症,也未转为胸骨切开术。主动脉瓣暴露质量高。瓣膜切除需要床边外科医生用长剪刀协助切除严重钙化的瓣膜尖,并有效去除瓣环钙化。除1例患者术后出现房颤外,术后恢复过程顺利。机器人辅助主动脉瓣手术能够很好地暴露主动脉瓣,改善主动脉瓣环和主动脉的操作及缝合。瓣膜清创和瓣环去钙的器械需要改进。此外,无缝合瓣膜技术有助于该手术的可行性和有效性。