BE350   Transport Processes in Living Systems

Bioengineering Undergraduate Program

 

 

 

 

Credit: 1 course unit

Catalog Description:

Introduction to basic principles of fluid mechanics and of energy and mass transport with emphasis on applications to living systems and biomedical devices. 

Prerequisites:

Math 241 or equivalent, Physics 140 or 150.

Textbook(s):

Required: Welty,Wicks,Wilson, and Rorrer, Fundamentals of Momentum, Heat, and Mass Transfer, 4th Ed., 2001

Recommended: Hughs and Brighton, Schaum’s  Outline on Fluid Dynamics, 2nd Ed. 1991. 

Course Objectives:

To provide a rigorous introduction to the basic concepts of fluid mechanics and transport with special applications to bioengineering and physiology. The approach used first builds up the basic equations and then applies them to specific examples of biological interest such as diffusion of gases in the lung airways, pulsatile blood flow in arteries and veins, and mass transfer of solutes in the renal tubules in the kidney. The development of problem solving skills using both analytical and computational approaches will be emphasized.

Topics Covered:

  • Basic definitions of the theoretical continuum, fluid velocity, pressure, temp, etc (1hr)
  • Fluid statics (2hrs)
  • Conservation of mass-integral form (4hrs)
  • Conservation of linear momentum-integral firm (4hrs)
  • Conservation of energy – integral form (4hrs)
  • Differential eqns of laminar incomp. flow – Navier Stokes eqns and applications  (5hrs)
  • Heat conduction (6hrs)
  • Mass diffusion-1,2,&3 dimensional examples, Num. Methods (8hrs)
  • Potential and inviscid flow (3hrs)
  • Dimensional analysis (3hrs)

Class Schedule:

Lecture: 3 hrs/week
Recitation: 1 hr/week

Contribution towards Professional Component:

100% Engineering science

Contribution towards Program Outcomes

Multidisciplinary Ability

High

Problem Solving Approach

High

Problem Solving Methods

Med.

Experimentation

Low

Design

Low

Professional Orientation

Low


Person Preparing Description and Date
:

John Schotland
July 2007