From Frosen Image-Based Bioflow Simulations to Integrative Modeling of Living Interfaces

Muhetaer Kelimu; Marc Thiriet

doi:10.4028/www.scientific.net/AMR.33-37.863

Paper Titles

The Study of Numerical Stability in the SPH Method
p.839

A Simple Method in Preventing Numerical Fractures of SPH Computations
p.845

The Numerical Simulation of a Bird-Impact on an Aircraft Windshield by Using the SPH Method
p.851

An Information-Theoretic Approach for Computational Material Modeling
p.857

From Frosen Image-Based Bioflow Simulations to Integrative Modeling of Living Interfaces
p.863

Analysis of Stick-Slip Motion by the Rate-Dependent Friction Model
p.867

Development of Multi-Scale Computation Framework to Investigate the Failure Behavior of the Materials
p.875

Numerical Limit Analysis of Two Dimensional Structures by the MLPG Method with Natural Neighbour Interpolation
p.881

Computer Simulation of Irradiation Growth in Zirconium
p.889

HomeAdvanced Materials ResearchAdvanced Materials Research Vols. 33-37From Frosen Image-Based Bioflow Simulations to...

From Frosen Image-Based Bioflow Simulations to Integrative Modeling of Living Interfaces

Abstract:

Air and blood flow in a set of deformable conduits. Nowadays, computational models of biofluid flow are based on zoomed domains reconstructed from medical image processing. Such modeling is already very useful in medical practice. However it splits the domain of interest from the remaining parts of the network. Most often, crude boundary conditions are used (stress free outlet BCs). Moreover, the living system corresponds to a frosen state, although physiological flows interact with cell lining the interface between fluid and solid. Therefore, computational models of flow in normal and damaged bioconduits require couplings. The talk will illustrate cases for which the nanoscale must be incorporate for future research.