The Ruth & Bruce Rappaport Faculty of Medicine, Technion-Israel Institute of Technology, Haifa, Israel.
EuroIntervention. 2021 Sep 20;17(7):537-549. doi: 10.4244/EIJ-D-21-00145.
The catheterisation laboratory today combines diagnosis and therapeutics, through various imaging modalities and a prolific list of interventional tools, led by balloons and stents. In this review, we focus primarily on advances in image-based coronary interventions. The X-ray images that are the primary modality for diagnosis and interventions are combined with novel tools for visualisation and display, including multi-imaging co-registration modalities with three- and four-dimensional presentations. Interpretation of the physiologic significance of coronary stenosis based on prior angiographic images is being explored and implemented. Major efforts to reduce X-ray exposure to the staff and the patients, using computer-based algorithms for image processing, and novel methods to limit the radiation spread are being explored. The use of artificial intelligence (AI) and machine learning for better patient care requires attention to universal methods for sharing and combining large data sets and for allowing interpretation and analysis of large cohorts of patients. Barriers to data sharing using integrated and universal protocols should be overcome to allow these methods to become widely applicable. Robotic catheterisation takes the physician away from the ionising radiation spot, enables coronary angioplasty and stenting without compromising safety, and may allow increased precision. Remote coronary procedures over the internet, that have been explored in virtual and animal studies and already applied to patients in a small pilot study, open possibilities for sharing experience across the world without travelling. Application of those technologies to neurovascular, and particularly stroke interventions, may be very timely in view of the need for expert neuro-interventionalists located mostly in central areas.
当今的导管实验室通过各种成像方式和多种介入工具(以球囊和支架为主导)结合诊断和治疗。在本篇综述中,我们主要关注基于影像的冠状动脉介入治疗的进展。X 射线图像是诊断和介入的主要方式,结合了新的可视化和显示工具,包括具有三维和四维呈现的多影像配准方式。基于先前的血管造影图像,对冠状动脉狭窄的生理意义的解释和应用正在被探索和实施。主要努力是使用基于计算机的图像处理算法和限制辐射传播的新方法,减少工作人员和患者的 X 射线暴露。人工智能(AI)和机器学习在更好的患者护理方面的应用需要注意用于共享和组合大型数据集的通用方法,以及用于解释和分析大量患者队列的方法。应克服使用集成和通用协议进行数据共享的障碍,以使这些方法得到广泛应用。机器人导管术将医生从电离辐射点移开,实现冠状动脉成形术和支架置入术而不影响安全性,并可能提高精度。通过互联网进行远程冠状动脉手术已经在虚拟和动物研究中进行了探索,并已在一项小型试点研究中应用于患者,为无需旅行即可在全球范围内分享经验提供了可能性。鉴于大多数神经介入专家都集中在中心区域,将这些技术应用于神经血管,特别是中风介入可能非常及时。