Table of Contents
Chapter 1: On Exposure of Humans to Electromagnetic Fields – General Considerations
1.2. Coupling Mechanisms and Biological Effects
1.3. Safety Guidelines and Exposure Limits
1.4. A Note on Electromagnetic and Thermal Dosimetry
Chapter 2: Theoretical Background: an Outline of Computational Electromagnetics (CEM)
2.1. Fundamentals of Computational Electromagnetics
2.2. Introduction to Numerical Methods in Electromagnetics
Chapter 3: Incident Electromagnetic Field Dosimetry
3.1. Assessment of External Electric and Magnetic Fields at Low Frequencies
3.2. Assessment of High Frequency Electromagnetic Fields
Chapter 4: Simplified Models of the Human Body
4.1. Parallelepiped Model of the Human Body
4.2. Cylindrical Antenna Models of the Body
4.3. Cylindrical Models – Frequency Domain Analysis
4.5. Transmission Line Models of the Human Body
Chapter 5: Realistic Models for Static and Low Frequency (LF) Dosimetry
5.1. Parameters for Quantifying LF Exposures
5.2. Human Head Exposed to Electrostatic Field
5.3. Whole Body Exposed to LF Fields
Chapter 6: Realistic Models for Human Exposure to High Frequency (HF) Radiation
6.1. Internal Electromagnetic Field Dosimetry Methods
6.2. Thermal Dosimetry Procedures
Chapter 7: Biomedical Applications of Electromagnetic Fields
Appendix A: The Generalized Symmetric Form of Maxwell's Equations
Appendix B: A Note on Integral Equations
Appendix C: Scalar Green's Function and the Solution to Helmholtz Equation
C.2. Scalar Helmholtz Equation Solution
Appendix D: Derivation of EFIE From the Vector Analog of Green's Theorem
D.1. The Vector Analog of Green's Theorem
D.2. On the Use of Green's Second Identity
D.3. Region Around Singularity
D.4. Sommerfeld Boundary Conditions
D.6. Application of the Equivalence Principle
E.3. Formulas Including Position Vector and/or Constant Vector
Appendix F: Finite Element Matrices
6.1. Shape Functions Over Triangle
6.2. Shape Functions Over Tetrahedra