Biomedical Engineering Principles – Introduction to Fluid, Heat and Mass Transport Processes

Product Description
Biomedical Engineering Principles is a fundamentally unique introduction in biomedical engineering. It achieves a synthesis of engineering information and data from the life sciences to describe transport problems in the human body in terms of principles most familiar to engineers. No other book is available which offers a quantitative treatment of biomedical transport processes at the advanced undergraduate and beginning graduate level. After a review of pertinent historical developments in medicine, a basic quantitative characterization of the human body – stressing the physical, chemical, and flow properties of blood – is given. Next, the author examines the modeling of fluid flow, heat transfer, and mass transfer processes in the body. A more detailed treatment of mass transfer across biological membranes, especially the kidneys and lungs, is then presented. Finally, the volume considers two major developments within biomedical engineering, artificial kidneys and blood oxygenators.

Order from Amazon –> Biomedical Engineering Principles – Introduction to Fluid, Heat and Mass Transport Processes

Dr. Dimitris Metaxas – Physics-based methods for modeling open surface fluid phenomena


We will present state-of-the-art methods for open surface fluid simulation, developed at the Center for Computational Biomedicine, Imaging and Modeling of Rutgers University. The first is a Marker Level Set method that enables the simulation of both small and large scale fluid dynamics, and our methodology for simulating multiphase boiling phenomena. We will show boiling simulations in 0 and 1-gravity and animations of interaction between animated bodies and liquids, with strong generation of droplets and bubbles. The second method involves the use of meshless finite methods, for the accurate estimation of cardiac strain from MRI-tagged data. These methods, coupled with learning methods allow the accurate analysis of the cardiac motion and the strain-based comparison of different imaging modalities such as ultrasound and MRI. This is joint work with Viorel Mihalef and Xiaoxu Wang. Dr. Dimitris Metaxas is from Rutgers University. Note: Original video was 320×240.