Reprint

Numerical Simulation in Biomechanics and Biomedical Engineering

Edited by
December 2021
300 pages
  • ISBN978-3-0365-2211-1 (Hardback)
  • ISBN978-3-0365-2212-8 (PDF)

This book is a reprint of the Special Issue Numerical Simulation in Biomechanics and Biomedical Engineering that was published in

Computer Science & Mathematics
Engineering
Physical Sciences
Public Health & Healthcare
Summary

In the first contribution, Morbiducci and co-workers discuss Lagrangian- and Euler methods for cardiovascular flows. The second study, by the Ansón and van Lenthe groups, proposes an automated virtual bench test for evaluating shoulder implants. Urdeitx and Doweidar, in the third paper, propose a computational model of cardiac cell behavior under mechano-electric stimulation. The fourth work offers a methodology for evaluating the cancer evolution. In the fifth paper, the group of Cueto and Chinesta designs a model for estimating the state of drivers. In the sixth contribution, the Ohayon and Finet group uses wall shear stress-derived indices to study the arterial flow in the presence of malapposed and overlapping stents. In the seventh work, the group of Antón provides a geometry-reduction strategy for truncated artery. In the eighth paper, Grasa and Calvo present a numerical model for simulating extraocular muscle dynamics. In the ninth paper,  Kahla et al. presents a mathematical model for bone remodeling. In the tenth paper, the group of Martínez and Peña proposes a methodology to calibrate aortic dissection properties. In the eleventh contribution, Martínez-Bocanegra et al. present a numerical model of the human foot. The twelfth study provides a numerical model of a hydroxyapatite 3D printed bone scaffold. In the thirteenth paper, Talygin and Gorodkov model the swirling jet of the human heart. In the fourteenth work, Schenkel and Halliday propose a new non-Newtonian model for red blood cells. Finally, Zurita et al. develop a parametric numerical tool for designing a customized 3D printable tracheal prosthesis.

Format
  • Hardback
License
© by the authors
Keywords
finite element analysis; shoulder implant stability; implant design; reverse shoulder arthroplasty; micromotion; in-silico; 3D model; cardiac cell; cardiac muscle tissue; cardiomyocyte; electrical stimulation; copulas; design of experiments; glioblastoma multiforme; mathematical modelling; Morse theory; topological data analysis; machine learning; time series; smart driving; fixed points; manifolds; divergence; hemodynamics; computational fluid dynamics; hemodynamics; overlap; malapposition; stent; stenosis; thrombosis; computational fluid dynamics; radioembolization; hemodynamics; liver cancer; hepatic artery; computational cost analysis; personalized medicine; patient specific; finite element method; implicit FEM; explicit FEM; skeletal muscle; biomechanics; mathematical model; cell dynamics; bone physiology; bone disorders; aortic dissection; delamination tests; cohesive zone model; porcine aorta; vascular mechanics; foot finite element method; foot and ankle model; shared nodes; separated mesh; plantar pressure; finite element modelling; bone tissue engineering; 3D scaffold; additive manufacturing; potential swirling flow; Navier–Stokes equations; unsteady swirling flow; tornado-like jets; haemorheology; blood flow modelling; particle transport; numerical fluid mechanics; tracheobronchial stent; finite element method; parametric model; 3D printing; customized prosthesis