Bridging biological scales by linking agent-based models to intracellular and continuum biomechanics models

As high-quality and high-throughput biological data at multiple different levels of spatial scale (gene through tissue) become increasingly available, we are tempted to define the cause-and-effect biological relationships that span across spatial scales with greater mechanistic detail. Doing so provides an opportunity to probe, for example, how receptor-ligand interactions in the membrane of one cell impacts the migratory behaviors of a neighboring cell, and, ultimately the mechanical properties of a remodeling blood vessel—and vice versa.

Cell-Matrix interactions in 3D microtissues: Multiscale mechanical models

Much of our understanding of the biological mechanisms that underlie cellular functions, such as migration, differentiation and force sensing has been garnered from studying cells cultured on two-dimensional (2D) substrates. In the recent years there has been intense interest and effort to understand cell mechanics in three-dimensional (3D) cultures, which more closely resemble the in vivo microenvironment. However, a major challenge unique to 3D settings is the dynamic feedback between cells and their surroundings.

Combining mechanistic modeling with machine learning to predict cardiotoxicity and streamline drug development

Combining mechanistic modeling with machine learning to predict cardiotoxicity and streamline drug development

Eric Sobie, PhD

Professor, Pharmacological Sciences
Icahn School of Medicine at Mount Sinai, New York, NY

Wednesday, December 12, 2018, 12:00 to 1:00 pm EST

Coupled, Seamless Organ-to-Molecular Scale Imaging and Modeling as a Tool for Discovery, BioTech Development and Diagnostics

Speaker: Melissa Knothe-Tate

 

Coupled, Seamless Organ-to-Molecular Scale Imaging and Modeling

as a Tool for Discovery, BioTech Development and Diagnostics

 

Professor Melissa L. Knothe Tate, Paul Trainor Chair of Biomedical Engineering,

André F. Pereira, Dan Hageman,

The MechBio Team, Graduate School of Biomedical Engineering,

University of New South Wales

CPMS webinar: In silico design of novel surgical methods for children with single ventricle hearts: from computation to clinic

The Committee for Credible Practice of Modeling & Simulation in Healthcare (CPMS) invites you to join us for an informative discussion featuring Alison Marsden from UC San Diego on translating simulation-based surgical procedures into the clinic.

DETAILS

Title: In silico Design of Novel Surgical Methods for Children with Single Ventricle Hearts: From Computation to Clinic

Speaker: Dr. Alison Marsden, UC San Diego