参考文献/References:
［1］ Ryzhakov P， Soudah E， Dialami N. Computational modeling of the fluid flow and the flexible intimal flap in type B aortic dissection via a monolithic arbitrary Lagrangian/Eulerian fluid-structure interaction model［J］. Int J Numer Method Biomed Eng， 2019， 35： e3239.
［2］ Grabenwoger M， Alfonso F， Bachet J， et al. Thoracic endova-scular aortic repair（TEVAR） for the treatment of aortic diseases： a position statement from the European Association for Cardio-Thoracic Surgery（EACTS） and the European Society of Cardiology（ESC），in collaboration with the European Association of Percu-taneous Cardiovascular Interventions（EAPCI）［J］. Eur J Cardiothorac Surg， 2012， 42： 17-24.
［3］ Alimohammadi M， Sherwood JM， Karimpour M， et al. Aortic dissection simulation models for clinical support： fluid- structure interaction vs. rigid wall models［J］. Biomed Eng Online， 2015， 14： 34.
［4］ Sun Z， Chaichana T. A systematic review of computational fluid dynamics in type B aortic dissection［J］. Int J Cardiol， 2016， 210： 28-31.
［5］ Bonfanti M， Balabani S， Alimohammadi M， et al. A simplified method to account for wall motion in patient- specific blood flow simulations of aortic dissection： comparison with fluid- structure interaction［J］. Med Eng Phys， 2018： S1350- S4533.
［6］ 曾宇杰，罗 坤，樊建人，等． Stanford B型胸主动脉夹层数值模拟研究进展［J］． 中华外科杂志， 2016， 54：477- 480．
［7］ Qiao Y， Zeng Y， Ding Y， et al. Numerical simulation of two-phase non- newtonian blood flow with fluid- structure interaction in aortic dissection［J］. Comput Methods Biomech Biomed Engin， 2019， 22： 620-630.
［8］ Campobasso R， Condemi F， Viallon M， et al. Evaluation of peak wall stress in an ascending thoracic aortic aneurysm using FSI simulations： effects of aortic stiffness and peripheral resistance［J］. Cardiovasc Eng Technol， 2018， 9： 707-722.
［9］ Condemi F， Campisi S， Viallon M， et al. Fluid- and biomechanical analysis of ascending thoracic aorta aneurysm with concomitant aortic insufficiency［J］. Ann Biomed Eng， 2017， 45： 2921- 2932.
［10］ 张 健，景在平． 主动脉夹层病因学分析［J］． 外科理论与实践， 2007， 12：84-86．
［11］ 杜宜纲，刘德杰，沈莹莹，等． 血管壁面剪切应力的测量及其临床研究进展［J］． 中国生物医学工程学报， 2018， 37：593-605．
［12］ Osswald A， Karmonik C， Anderson JR， et al. Elevated wall shear stress in aortic type B dissection may relate to retrograde aortic type a dissection： a computational fluid dynamics pilot study［J］. Eur J Vasc Endovasc Surg， 2017， 54： 324-330.
［13］ Kadam A， Gersch RP， Rosengart TK， et al. Inflammatory monocyte response due to altered wall shear stress in an isolated femoral artery model［J］. J Biol Methods， 2019， 6： e109.
［14］ Karmonik C， Bismuth JX， Davies MG， et al. Computational hemodynamics in the human aorta： a computational fluid dynamics study of three cases with patient- specific geometries and inflow rates［J］. Technol Health Care， 2008， 16： 343-354.
［15］ Zorrilla R， Soudah E， Rossi R. Computational modeling of the fluid flow in type B aortic dissection using a modified finite element embedded formulation［J］. Biomech Model Mechanobiol， 2020， 19： 1565-1583.
［16］ Armour CH， Menichini C， Milinis K， et al. Location of reentry tears affects false lumen thrombosis in aortic dissection following TEVAR［J］. J Endovasc Ther， 2020， 27： 396- 404.
［17］ Dillon- Murphy D， Noorani A， Nordsletten D， et al. Multi-modality image- based computational analysis of haemodynamics in aortic dissection［J］. Biomech Model Mechanobiol， 2016， 15： 857-876.
［18］ Liu X， Fan Y， Deng X， et al. Effect of non-newtonian and pulsatile blood flow on mass transport in the human aorta［J］. J Biomech， 2011， 44： 1123-1131.
［19］ Tse KM， Chiu P， Lee HP， et al. Investigation of hemodynamics in the development of dissecting aneurysm within patient- specific dissecting aneurismal aortas using computational fluid dynamics （CFD） simulations［J］. J Biomech， 2011， 44： 827-836.
［20］ 王 亮，陆清声，冯 睿，等． DeBakey Ⅲ型主动脉夹层血流动力学数值模拟分析初步研究［J］． 介入放射学杂志， 2010， 19：683-687．
［21］ Chen HY， Peelukhana SV， Berwick ZC， et al. Editor’s choice - fluid- structure interaction simulations of aortic dissection with bench validation［J］. Eur J Vasc Endovasc Surg， 2016， 52： 589-595.
［22］ Baumler K， Vedula V， Sailer AM， et al. Fluid- structure interaction simulations of patient- specific aortic dissection［J］. Biomech Model Mechanobiol， 2020， 19： 1607-1628.
［23］ Ergin MA， Spielvogel D， Apaydin A， et al. Surgical treatment of the dilated ascending aorta：when and how?［J］. Ann Thorac Surg， 1999， 67： 1834-1839.
［24］ Svensson LG， Kim KH， Lytle BW， et al. Relationship of aortic cross- sectional area to height ratio and the risk of aortic dissection in patients with bicuspid aortic valves［J］. J Thorac Cardiovasc Surg， 2003， 126： 892-893.
［25］ Evangelista A， Isselbacher EM， Bossone E， et al. Insights from the international registry of acute aortic dissection： a 20- year experience of collaborative clinical research［J］. Circulation， 2018， 137： 1846-1860.
［26］ Munshi B， Parker LP， Norman PE， et al. The application of computational modeling for risk prediction in type B aortic dissection［J］. J Vasc Surg， 2020， 71： 1789.e3-1801.e3.
［27］ Xenos M， Labropoulos N， Rambhia S， et al. Progression of abdominal aortic aneurysm towards rupture： refining clinical risk assessment using a fully coupled fluid- structure interaction method［J］. Ann Biomed Eng， 2015， 43： 139-153.
［28］ Qiao Y， Fan J， Ding Y， et al. A primary computational fluid dynamics study of pre- and post- TEVAR with intentional left subclavian artery coverage in a type B aortic dissection［J］. J Biomech Eng， 2019，［Epub ahead of print］.
［29］ 孟庄源，马 韬，王盛章，等． 覆膜支架治疗主动脉夹层的有限元分析［J］． 医用生物力学， 2018， 33：326-331．
［30］ Ma T， Dong ZH， Wang S， et al. Computational investigation of interaction between stent graft and aorta in retrograde type A dissection after thoracic endovascular aortic repair for type B aortic dissection［J］. J Vasc Surg， 2018， 68： 14S.e2-21S.e2.
［31］ Costache VS， Yeung KK， Solomon C， et al. Aortic remodeling after total endovascular aortic repair with multilayer stents： computational fluid dynamics analysis of aortic remodeling over 3 years of follow-up［J］. J Endovasc Ther， 2018， 25： 760-764.
［32］ Tomasi J， Le Bars F， Shao C， et al. Patient-specific and real-time model of numerical simulation of the hemodynamics of type B aortic dissections［J］. Med Hypotheses， 2020， 135： 109477.
相似文献/References:
[1]王 亮,冯 睿,陆清声,等.采用ＣＴ断层扫描图像构建ＤｅＢａｋｅｙ Ⅲ型主动脉夹层三维血流动力学数值模拟分析模型[J].介入放射学杂志,2010,(10):767.
WANG Liang,FENG Rui,LU Qing-sheng,et al.The construction of realistic 3D hemodynamic models of DeBakey Ⅲ aortic dissection by using CT images and its application in computational mimic analysis[J].journal interventional radiology,2010,(12):767.
[2]王豪夫,王曰伟,李 君,等.主动脉瘤腔内修复术一期治愈stanford A型主动脉夹层并腹主动脉瘤一例[J].介入放射学杂志,2011,(01):64.
WANG Hao-fu,WANG Yue-wei,LI Jun,et al.Endovascular aortic aneurysm repair of Stanford type A aortic dissection accompanied with abdominal aortic aneurysm: report of one case[J].journal interventional radiology,2011,(12):64.
[3]章思梦,陆清声,景在平.Standford B型主动脉夹层腔内修复术后主动脉重塑效果[J].介入放射学杂志,2016,(04):302.
ZHANG Si- meng,LU Qing- sheng,JING Zai- ping.Outcomes of aortic remodeling after endovascular thoracic aortic repair for type B Standford aortic dissection[J].journal interventional radiology,2016,(12):302.
[4]沈 毓,宋 超,辛世杰,等.远程视频会诊在支架体外开窗腔内治疗主动脉弓夹层中的应用[J].介入放射学杂志,2020,29(11):1080.
SHEN Yu,SONG Chao,XIN Shijie,et al.Application value of remote video consultation in performing endovascular repair of aortic arch dissection by using in vitro fenestration technique[J].journal interventional radiology,2020,29(12):1080.
[5]李天祎.Stanford B型主动脉夹层腔内修复术后主动脉扩张性病变的研究进展[J].介入放射学杂志,2024,33(04):443.
LI Tianyi..Research progress in aortic dilatation lesions occurring after endovascular repair of Stanford type B aortic dissection[J].journal interventional radiology,2024,33(12):443.