Computational Modeling and Simulation Lab

At the Informatics Institute in Istanbul Technical University, we specialize in advancing the fields of biomechanics and cardiovascular medicine through cutting-edge computational research. Our team, which includes experts in computational fluid dynamics, cardiovascular mechanics, biomedical engineering and advanced simulation technologies, works to understand how vascular system operates. We collaborate closely with doctors and other medical professionals to ensure our research translates into real-world solutions that improve human health and medical technologies. Join us in exploring how our innovative work is shaping the future of biomedical engineering and cardiovascular biomechanics.

Interested in becoming part of our interdisciplinary research team? Join us to explore academic and research opportunities in computational biomechanics, AI-CFD, developing VR applications, modelling and simulation.

We are also currently seeking interns and volunteer undergraduate students who are eager to contribute to ongoing projects and gain hands-on research experience in a dynamic academic environment.

Simultech 2023: 13th International Conference on Simulation and Modeling Methodologies, Technologies and Applications – Reza Daryani

by Barış Darcan | Jul 15, 2023
At the 13th International Conference on Simulation and Modeling Methodologies, Technologies and Applications (Simultech 2023) held in Rome, Italy, Reza Daryani delivered an online presentation on the numerical investigation of localized aortic valve calcifications and their impact on hemodynamic performance.

Reza_Conf

Location: Rome, Italy

Date: July 12-14, 2023

Presentation Title: Hemodynamic Characterization of Localized Aortic Valve Calcifications

At the 13th International Conference on Simulation and Modeling Methodologies, Technologies and Applications (Simultech 2023) held in Rome, Italy, Reza Daryani delivered an online presentation on the numerical investigation of localized aortic valve calcifications and their impact on hemodynamic performance.

The study focused on aortic valve stenosis, a condition where calcium accumulation on the valve leaflets restricts their motion, reducing the effective orifice area and impeding proper blood flow. This degenerative disease, if left untreated, can lead to severe cardiovascular complications and mortality.

Using single-phase fluid–structure interaction (FSI) simulations, the research compared various calcification severity levels against a healthy valve model. Through computational modeling, the study captured how these localized calcium patterns influence critical flow metrics, such as transvalvular pressure gradients, flow velocity profiles, and a range of wall shear stress (WSS)–based indices.

The findings shed light on the biomechanical consequences of non-uniform calcification, offering valuable insights for the diagnosis, prognosis, and design of next-generation prosthetic valves in clinical cardiology and biomedical engineering.

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