TY - JOUR
T1 - Computed Tomography–Derived 3D Modeling to Guide Sizing and Planning of Transcatheter Mitral Valve Interventions
AU - Ooms, Joris F.
AU - Wang, Dee Dee
AU - Rajani, Ronak
AU - Redwood, Simon
AU - Little, Stephen H.
AU - Chuang, Michael L.
AU - Popma, Jeffrey J.
AU - Dahle, Gry
AU - Pfeiffer, Michael
AU - Kanda, Brinder
AU - Minet, Magali
AU - Hirsch, Alexander
AU - Budde, Ricardo P.
AU - De Jaegere, Peter P.
AU - Prendergast, Bernard
AU - O'Neill, William
AU - Van Mieghem, Nicolas M.
N1 - Publisher Copyright:
© 2021 American College of Cardiology Foundation
PY - 2021/8
Y1 - 2021/8
N2 - A plethora of catheter-based strategies have been developed to treat mitral valve disease. Evolving 3-dimensional (3D) multidetector computed tomography (MDCT) technology can accurately reconstruct the mitral valve by means of 3-dimensional computational modeling (3DCM) to allow virtual implantation of catheter-based devices. 3D printing complements computational modeling and offers implanting physician teams the opportunity to evaluate devices in life-size replicas of patient-specific cardiac anatomy. MDCT-derived 3D computational and 3D-printed modeling provides unprecedented insights to facilitate hands-on procedural planning, device training, and retrospective procedural evaluation. This overview summarizes current concepts and provides insight into the application of MDCT-derived 3DCM and 3D printing for the planning of transcatheter mitral valve replacement and closure of paravalvular leaks. Additionally, future directions in the development of 3DCM will be discussed.
AB - A plethora of catheter-based strategies have been developed to treat mitral valve disease. Evolving 3-dimensional (3D) multidetector computed tomography (MDCT) technology can accurately reconstruct the mitral valve by means of 3-dimensional computational modeling (3DCM) to allow virtual implantation of catheter-based devices. 3D printing complements computational modeling and offers implanting physician teams the opportunity to evaluate devices in life-size replicas of patient-specific cardiac anatomy. MDCT-derived 3D computational and 3D-printed modeling provides unprecedented insights to facilitate hands-on procedural planning, device training, and retrospective procedural evaluation. This overview summarizes current concepts and provides insight into the application of MDCT-derived 3DCM and 3D printing for the planning of transcatheter mitral valve replacement and closure of paravalvular leaks. Additionally, future directions in the development of 3DCM will be discussed.
KW - 3D printing
KW - computational modeling
KW - mitral annular calcification
KW - multidetector computed tomography
KW - paravalvular leakage closure
KW - transcatheter mitral valve replacement
KW - Multidetector Computed Tomography
KW - Predictive Value of Tests
KW - Heart Valve Prosthesis
KW - Humans
KW - Mitral Valve/diagnostic imaging
KW - Retrospective Studies
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U2 - 10.1016/j.jcmg.2020.12.034
DO - 10.1016/j.jcmg.2020.12.034
M3 - Review article
C2 - 33744155
AN - SCOPUS:85110529931
SN - 1936-878X
VL - 14
SP - 1644
EP - 1658
JO - JACC: Cardiovascular Imaging
JF - JACC: Cardiovascular Imaging
IS - 8
ER -