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6.1. Introduction

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Biophysical Theory of Radiation Action
This chapter is in the book Biophysical Theory of Radiation Action
© 2022 Walter de Gruyter GmbH, Berlin/Munich/Boston

© 2022 Walter de Gruyter GmbH, Berlin/Munich/Boston

Chapters in this book

  1. Frontmatter I
  2. Preface V
  3. Contents IX
  4. Chapter 1 Review of theoretical conceptions
  5. 1.1. Introduction 1
  6. 1.2. Classical target theory 3
  7. 1.3. The LET concept 8
  8. 1.4. Microdosimetry 10
  9. 1.5. Gross sensitive volume with structure 19
  10. 1.6. Some descriptive approaches to survival curves and RBE 25
  11. Chapter 2 An approximate approach based on microdosimetry
  12. 2.1. Introduction 33
  13. 2.2. Formalism of the microdosimetric version of theory 34
  14. 2.3. Theoretical consequences for the relative biological effectiveness 39
  15. 2.4. Analysis of experimental data 46
  16. 2.5. Primary lesions and the relevant RBE 53
  17. 2.6. Appendix 56
  18. Chapter 3 The mathematical formalism of the DNA-lesion theory of radiation action
  19. 3.1. Introduction 59
  20. 3.2. Prerequisites and basic principles of approximation 62
  21. 3.3. Description of radiation fields 71
  22. 3.4. Description of absorption events 77
  23. 3.5. The model of DNA-lesion production 82
  24. 3.6. The theory of cellular radiation effects 86
  25. 3.7. Formal properties and consistency of the theory 93
  26. 3.8. Appendix: estimation of errors 101
  27. Chapter 4 The underlying physical relationships
  28. 4.1. Introduction 111
  29. 4.2. Linear energy transfer 112
  30. 4.3. Energy spectrum of 8-rays 116
  31. 4.4. Primary ionizations and ionization cluster frequencies 119
  32. 4.5. Electron range 127
  33. 4.6. Secondary electron spectrum of photon radiation 132
  34. 4.7. Secondary charged particle spectra of fast neutrons 133
  35. Chapter 5 Implications concerning microdosimetry
  36. 5.1. Introduction 140
  37. 5.2. The mathematical formalism 142
  38. 5.3. Comparison with experimental data 151
  39. Chapter 6 Evaluation of the model of DNA-lesion production
  40. 6.1. Introduction 176
  41. 6.2. Methodic particulars 177
  42. 6.3. General results 182
  43. 6.4. DNA-strand breaks 193
  44. Chapter 7 Mammalian cell killing
  45. 7.1. Introduction 202
  46. 7.2. Survival curve analysis for monoenergetic ion radiations 206
  47. 7.3. Ion radiations 217
  48. 7.4. Fast neutron radiations 232
  49. Chapter 8 Re-formulation of the theory
  50. 8.1. Introduction 262
  51. 8.2. Virtual mierodosimetry 263
  52. 8.3. The ultimate general formalism of the theory of cellular radiation effects 274
  53. 8.4. Evaluation of RBE in LETapproximation for monoenergetic ions 280
  54. Chapter 9 Concise instructions for practical calculations
  55. 9.1. Introduction 285
  56. 9.2. Calculation of dose-effect relations 286
  57. 9.3. Expressing a dose-effect relation by a sum of exponential functions 290
  58. Appendix 297
  59. References 340
  60. Subject index 351
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