Neil B. Ingels
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Also affiliated: Loma Linda University Medical Center (2003–2005); National Institutes of Health (2004); Palo Alto Medical Foundation (1980–2019); United States Department of Veterans Affairs (1999); Johns Hopkins University (2004); Universitat de Lleida (2004); University of California, Los Angeles (2004); Technion – Israel Institute of Technology (2004); University of California, San Francisco (2003); Vanderbilt University (1991); Aarhus University (2003–2007); VA Palo Alto Health Care System (1994–1999); Loma Linda University (2003–2005); Veterans Health Administration (1994–1999); Aarhus University Hospital (2001–2003); University of Alabama at Birmingham (2004); University of California San Diego (2004); Palo Alto Veterans Institute for Research (1993–2000); Loma Linda University Health Care (2003); National Heart, Lung, and Blood Institute (2004); Stanford Medicine (1971–2019); Linköping University Hospital (2008); Stanford Cardiovascular Institute (1996); University of Duisburg-Essen (2003); Rice University (2008–2009); Friedrich Schiller University Jena (2012); Columbia University (2004); Texas A&M University (2004); Stanford University (1966–2019)
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Neil B. Ingels has conducted research focused on cardiovascular function, particularly the mechanics and dynamics of the left ventricle and mitral valve.
His work has involved investigating how intrathoracic pressure affects left ventricular performance and analyzing the relationship between different modes of left ventricular shortening and torsional deformation in transplanted human hearts. Ingels has also studied the measurement of midwall myocardial dynamics in humans using surgically implanted radiographic markers, as well as the exercise response of denervated hearts in long-term cardiac transplant recipients. Further research has explored alterations in left ventricular twist mechanics with inotropic stimulation and volume loading, the deformational dynamics of the aortic root, and geometric distortions of the mitral valvular-ventricular complex in chronic ischemic mitral regurgitation. He has also evaluated methods for quantifying left ventricular segmental wall motion using myocardial markers.
Ingels holds a designation as a highly cited researcher. He has collaborated with Morten Ø. Jensen, Sam E. Stephens, Alexis P. Applequist, and Hanna Jensen, all from the University of Arkansas at Fayetteville, on multiple publications. His scholarship metrics include an h-index of 53, 231 total publications, and 9,038 total citations.
Metrics
- h-index: 53
- Publications: 244
- Citations: 9,278
Selected Publications
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Inertia-Driven Mitral and Aortic Valves: The Isovolumic Myth (2025)
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Utilization of Engineering Advances for Detailed Biomechanical Characterization of the Mitral–Ventricular Relationship to Optimize Repair Strategies: A Comprehensive Review (2023)
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Alumina as a Computed Tomography Soft Material and Tissue Fiducial Marker (2022)
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In Vitro Mitral Valve Model with Unrestricted Ventricular Access: Using Vacuum to Close the Valve and Enable Static Trans-Mitral Pressure (2022)
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MicroCT Imaging of Heart Valve Tissue in Fluid (2020)
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High resolution imaging of the mitral valve in the natural state with 7 Tesla MRI (2017)
Collaboration Network
Top Collaborators
- High resolution imaging of the mitral valve in the natural state with 7 Tesla MRI
- In Vitro Mitral Valve Model with Unrestricted Ventricular Access: Using Vacuum to Close the Valve and Enable Static Trans-Mitral Pressure
- MicroCT Imaging of Heart Valve Tissue in Fluid
- Utilization of Engineering Advances for Detailed Biomechanical Characterization of the Mitral–Ventricular Relationship to Optimize Repair Strategies: A Comprehensive Review
- Alumina as a Computed Tomography Soft Material and Tissue Fiducial Marker
Showing 5 of 6 shared publications
- High resolution imaging of the mitral valve in the natural state with 7 Tesla MRI
- In Vitro Mitral Valve Model with Unrestricted Ventricular Access: Using Vacuum to Close the Valve and Enable Static Trans-Mitral Pressure
- MicroCT Imaging of Heart Valve Tissue in Fluid
- Utilization of Engineering Advances for Detailed Biomechanical Characterization of the Mitral–Ventricular Relationship to Optimize Repair Strategies: A Comprehensive Review
- Alumina as a Computed Tomography Soft Material and Tissue Fiducial Marker
- High resolution imaging of the mitral valve in the natural state with 7 Tesla MRI
- In Vitro Mitral Valve Model with Unrestricted Ventricular Access: Using Vacuum to Close the Valve and Enable Static Trans-Mitral Pressure
- MicroCT Imaging of Heart Valve Tissue in Fluid
- Alumina as a Computed Tomography Soft Material and Tissue Fiducial Marker
- High resolution imaging of the mitral valve in the natural state with 7 Tesla MRI
- MicroCT Imaging of Heart Valve Tissue in Fluid
- In Vitro Mitral Valve Model with Unrestricted Ventricular Access: Using Vacuum to Close the Valve and Enable Static Trans-Mitral Pressure
- MicroCT Imaging of Heart Valve Tissue in Fluid
- MicroCT Imaging of Heart Valve Tissue in Fluid
- MicroCT Imaging of Heart Valve Tissue in Fluid
- In Vitro Mitral Valve Model with Unrestricted Ventricular Access: Using Vacuum to Close the Valve and Enable Static Trans-Mitral Pressure
- In Vitro Mitral Valve Model with Unrestricted Ventricular Access: Using Vacuum to Close the Valve and Enable Static Trans-Mitral Pressure
- In Vitro Mitral Valve Model with Unrestricted Ventricular Access: Using Vacuum to Close the Valve and Enable Static Trans-Mitral Pressure
- In Vitro Mitral Valve Model with Unrestricted Ventricular Access: Using Vacuum to Close the Valve and Enable Static Trans-Mitral Pressure
- In Vitro Mitral Valve Model with Unrestricted Ventricular Access: Using Vacuum to Close the Valve and Enable Static Trans-Mitral Pressure
- Utilization of Engineering Advances for Detailed Biomechanical Characterization of the Mitral–Ventricular Relationship to Optimize Repair Strategies: A Comprehensive Review
- Utilization of Engineering Advances for Detailed Biomechanical Characterization of the Mitral–Ventricular Relationship to Optimize Repair Strategies: A Comprehensive Review
- Utilization of Engineering Advances for Detailed Biomechanical Characterization of the Mitral–Ventricular Relationship to Optimize Repair Strategies: A Comprehensive Review
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