Introduction to Mathematical Biology
Designed to explore the applications of mathematical techniques and methods related to biology, this text explores five areas: cell growth, enzymatic reactions, physiological tracers, biological fluid dynamics and diffusion. Topics essentially follow a course in elementary differential equations - some linear algebra and graph theory; requires only a knowledge of elementary calculus.
"1001080988"
Introduction to Mathematical Biology
Designed to explore the applications of mathematical techniques and methods related to biology, this text explores five areas: cell growth, enzymatic reactions, physiological tracers, biological fluid dynamics and diffusion. Topics essentially follow a course in elementary differential equations - some linear algebra and graph theory; requires only a knowledge of elementary calculus.
24.95 In Stock
Introduction to Mathematical Biology

Introduction to Mathematical Biology

by S. I. Rubinow
Introduction to Mathematical Biology

Introduction to Mathematical Biology

by S. I. Rubinow

Paperback(DOVER)

$24.95 
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Overview

Designed to explore the applications of mathematical techniques and methods related to biology, this text explores five areas: cell growth, enzymatic reactions, physiological tracers, biological fluid dynamics and diffusion. Topics essentially follow a course in elementary differential equations - some linear algebra and graph theory; requires only a knowledge of elementary calculus.

Product Details

ISBN-13: 9780486425320
Publisher: Dover Publications
Publication date: 01/13/2003
Series: Dover Books on Biology Series
Edition description: DOVER
Pages: 400
Product dimensions: 5.30(w) x 8.40(h) x 0.90(d)

Table of Contents

Chapter 1?Cell Growth
1.1 Exponential Growth or Decay
1.2 Determination of Growth or Decay Rates
1.3 The Method of Least Squares
1.4 Nutrient Uptake by a Cell
1.5 Inhomogeneous Differential Equations
1.6 Growth of a Microbial Colony
1.7 Growth in a Chemostat
1.8 Interacting Populations: Predator-Prey System
1.9 Mutation and Reversion in Bacterial Growth
  Problems
Chapter 2?Enzyme Kinetics
2.1 The Michaelis-Menten Theory
2.2* Early Time Behavior of Enzymatic Reactions
2.3 Enzyme-Substrate-Inhibitor System
2.4 Cooperative Properties of Enzymes
2.5 The Cooperative Dimer
2.6 Allosteric Enzyme
2.7 Other Allosteric Theories
2.8 Hemoglobin
2.9 Graph Theory and Steady-State Enzyme Kinetics
2.10 Enzyme-Substrate-Modifier System
2.11 Enzyme-Substrate-Activator System
2.12 Aspartate Transcarbamylase
  Problems
Chapter 3?Tracers in Physiological Systems
3.1 Compartment Systems
3.2 The One-Compartment System
3.3 Indicator-Dilution Theory
3.4 Continuous Infusion
3.5 The Two-Compartment System
3.6 Leaky Compartments and Closed Systems
3.7 The Method of Exponential Peeling
3.8 Creatinine Clearance: A Two-Compartment System
3.9 "The "Soaking Out" Experiment"
3.10 The Three-Compartment Catenary System
3.11* The n-Compartment System
  Problems
Chapter 4?Biological Fluid Dynamics
4.1 The Equations of Motion of a Viscous Fluid
4.2 Poiseuille's Law
4.3 Properties of Blood
4.4 The Steady Flow of Blood through a Vessel
4.5 The Pulse Wave
4.6 The Swimming of Microorganisms
  Problems
Chapter 5?Diffusion in Biology
5.1 Fick's Laws of Diffusion
5.2 The Fick Principle
5.3 The Unit One-Dimensional Source Solution
5.4 The Diffusion Constant
5.5 Olfactory Communication in Animals
5.6 Membrane Transport
5.7 Diffusion Through a Slab
5.8 Convective Transport: Ionic Flow in an Axon
5.9 The Gaussian Function
5.10 Ultracentrifugation
5.11 The Sedimentation Velocity Method
5.12* An Approximate Solution to the Lamm Equation
5.13 Sedimentation Equilibrium
5.14 Transcapillary Exchange
  Problems
Solutions to Problems
References
Appendix A: Brief Review
"Appendix B: Determinants, Vectors, and Matrices"
Author Index
Subject Index
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