Biomedical Engineering Theory And Practice/Chapters Description

This page should be some sort of a detailed outline for the rest of the book. It should also focus on the best approach for reading this book. It should also be emphasized that the reading order is totally arbitrary and that each chapter is self-contained. Chapters are linking between each other especially to point out necessary tools.

Chapter # 1 IntroductionEdit

1.1 What is biomedical engineering?
1.2 A very brief history biomedical engineering.
1.3 The state of the art.: a broad look at things.
1.4 Opportunities for growth.

Chapter # 2 Biomedical Instrumentation:Edit

2.1 The role of instrumentation in biomedical engineering.
2.2 a very swift review of basic electronics:
Charge, Current, Voltage, Power, Energy, Resistance
Kirchhoff ’s Law's, Resistors in Series and Parallel
Voltage and Current Divider Rules
Linear Network Analysis: Nodal Mesh etc
Thevenin’s and Norton’s Theorems
Inductors, Capacitors & Combinations
2.3 Bioinstrumentation specific stuff:
Amplifiers for Biopotential
Time Variant Signals & Phasors
Passive & Active Filters
instrumentation Design
Waveform Generators for testing
Signal analysis and software

Chapter # 3 Biosensors and biochips:Edit

Sensors and biochips role both in research and medical products.
Types of sensors and biochips.
Biosensors, how they work, and how to deseign/produce them.
biochips, lab-on-a-chip, and mems in biomedical engineering.

Chapter # 4 Medical Imaging & AnalysisEdit

Chapter # 5 BiomaterialsEdit

Chapter # 6 Biomechanics:Edit

6.1 A very breif reveiw of basic mechanics:
Vectors and kinimatics,Force and Motion, Kinetic and Potential Energy and Work, Conservation of Energy, Energy Absorption, Center of Mass and Linear & Angular Momentum, Rotation, Torque, and Elasticity,Axial Stress and Strain Shear Stress, Bending, Torsion,Failure Under Load,
6.2 Cellular Biomechanics
6.3 Mechanics of Hard &Soft Tissue Tissues
6.4.1 mechanics of the Musculoskeletal & digestive systems
6.4.2 Joint Surface & Lubrication
6.4.3 Analysis of Gait and movement
6.5 Mechanics of the cardiovascular,Lymphatic, andrespiratory systems
6.6 Mechanics of the innner ear

Chapter # 7 Biotransport:Edit

7.1 What is biotransport?:
The role of fluid, heat, and mass transfer in biological systems.
A breif reveiw of differential equations and there role in modeling biomedical situations and some notes on common boundary conditions.
7.2 Molecular Mass Transfer and mass transfer rate equations:
Concentration, molar velocity, flux, Fick’s law, diffusivity permeability & pore size, partition coefficient, mass transfer coefficient, solute molecular mass, Convective mass transfer, mass balances, equation of continuity, Fick’s second law, Concentration boundary layer analysis, solute Transport in capillary beds and tissues.
7.3.Fluid Mechanics and Flow in biological systems.
Motion of fluid elements, Shear stress & rate, viscosity friction and wall drag, Newtonian Vs. Non-Newtonian fluids, Steady Flow in a circular pipe, Bernoulli Equations, Hydraulic networks,
7.4 heat transfer modes and equations:
Conduction, Connvection(laminar flow, turbulent flow), radiation thermal conductivity & resistance, radiative heat transfer, phase change & heat transfer ,Heat Exchangers, mass/heat transfer equations & coefficients, Detmining mass and heat fluxes with and without biochemical reactions, Finite Element Methods for Biotransport and the use computer models,

Chapter # 8 Bioelectromagnetism:Edit

Chapter # 9 Biotechnology:Edit

Chapter #10 Rehabilitation:Edit

Chapter #11 Immune function:Edit

Chapter #12 Artificial Tissues & Organs:Edit

Chapter #13 Cancer:Edit

Chapter #14 Medical Informatics:Edit

Chapter #15 Clinical Engineering:Edit

Chapter #16 Physiological Modeling and Simulation:Edit

Last modified on 29 July 2011, at 12:56