Human Interaction with Electromagnetic Fields: Computational Models in Dosimetry presents some highly rigorous and sophisticated integral equation techniques from computational electromagnetics (CEM), along with practical techniques for the calculation and measurement of internal dosimetry. Theory is accompanied by numerical modeling algorithms and illustrative computational examples that range from academic to full real-world scenarios.
1. Cover image - p. iv 2. Title page - p. iv 3. Table of Contents - p. iv 4. Copyright - p. iv 5. Dedication - p. v 6. About the authors - p. xi 7. Preface - p. xiii 8. Chapter 1: On Exposure of Humans to Electromagnetic Fields – General Considerations - p. xiii 9. Chapter 2: Theoretical Background: an Outline of Computational Electromagnetics (CEM) - p. 20 10. Chapter 3: Incident Electromagnetic Field Dosimetry - p. 52 11. Chapter 4: Simplified Models of the Human Body - p. 89 12. Chapter 5: Realistic Models for Static and Low Frequency (LF) Dosimetry - p. 122 13. Chapter 6: Realistic Models for Human Exposure to High Frequency (HF) Radiation - p. 143 14. Chapter 7: Biomedical Applications of Electromagnetic Fields - p. 198 15. Appendix A: The Generalized Symmetric Form of Maxwell's Equations - p. 239 16. Appendix B: A Note on Integral Equations - p. 242 17. Appendix C: Scalar Green's Function and the Solution to Helmholtz Equation - p. 244 18. Appendix D: Derivation of EFIE From the Vector Analog of Green's Theorem - p. 247 19. Appendix E: Useful Identities - p. 254 20. Appendix F: Finite Element Matrices - p. 256 21. Index - p. 261
Human Interaction with Electromagnetic Fields: Computational Models in Dosimetry presents some highly rigorous and sophisticated integral equation techniques from computational electromagnetics (CEM), along with practical techniques for the calculation and measurement of internal dosimetry. Theory is accompanied by numerical modeling algorithms and illustrative computational examples that range from academic to full real-world scenarios.
1. Cover image - p. iv 2. Title page - p. iv 3. Table of Contents - p. iv 4. Copyright - p. iv 5. Dedication - p. v 6. About the authors - p. xi 7. Preface - p. xiii 8. Chapter 1: On Exposure of Humans to Electromagnetic Fields – General Considerations - p. xiii 9. Chapter 2: Theoretical Background: an Outline of Computational Electromagnetics (CEM) - p. 20 10. Chapter 3: Incident Electromagnetic Field Dosimetry - p. 52 11. Chapter 4: Simplified Models of the Human Body - p. 89 12. Chapter 5: Realistic Models for Static and Low Frequency (LF) Dosimetry - p. 122 13. Chapter 6: Realistic Models for Human Exposure to High Frequency (HF) Radiation - p. 143 14. Chapter 7: Biomedical Applications of Electromagnetic Fields - p. 198 15. Appendix A: The Generalized Symmetric Form of Maxwell's Equations - p. 239 16. Appendix B: A Note on Integral Equations - p. 242 17. Appendix C: Scalar Green's Function and the Solution to Helmholtz Equation - p. 244 18. Appendix D: Derivation of EFIE From the Vector Analog of Green's Theorem - p. 247 19. Appendix E: Useful Identities - p. 254 20. Appendix F: Finite Element Matrices - p. 256 21. Index - p. 261
