Description
Advances in Radiation Biology, Volume 9, provides an overview of the state of knowledge in radiation biology. The book contains nine chapters and begins with a study on the ways in which physical and chemical agents might trigger "regulatory dysfunction" and how these agents might interact with each other. This is followed by separate chapters on the mechanisms underlying changes in vascular function after doses of radiation in the therapeutic range and their role in the development of late effects in normal tissues; the future of hypoxic cell sensitizers in the clinical setting; DNA strand break formation by ionizing radiation; and major pathways which result in radiation-induced loss of cellular proliferative capacity. Subsequent chapters deal with the solid-state radiation chemistry of DNA; radiosensitivity of proliferating mammalian cells; the use of microwave/radiofrequency energy cancer treatment; and the decline of basic radiobiology.
Chapter
III. Mutations and Carcinogenesis
IV. An Integrative Theory of Carcinogenesis
Chapter 2. Radiation-Induced Vascular Injury and Its Relation to Late Effects in Normal Tissues
II. Morphological Changes
IV. Mechanisms Underlying Changes in Vascular Function
V. Response of Endothelial Cells
VI· The Role of Vascular Damage in Late Effects
Chapter 3. Evaluation of Nitroheterocyclic
Radiosensitizers Using Spheroids
II. Sensitization of Spheroids
III. Cytotoxicity of Nitroheterocycles
V. Other Effects of Nitroheterocycles
VI.
Conclusions and Future Directions
Chapter 4. Radiation-Induced Strand Breaks in DNA : Chemical and Enzymatic Analysis of End Groups and Mechanistic Aspects
II.
Frequency of DNA Strand Breaks after Ionizing Radiation
III. Enzymatic End Group Analysis in Irradiated DNA
IV. Chemical Analysis of Damage to the Sugar Moiety
of Irradiated DNA
V. Mechanism of DNA Strand Break Formation by Ionizing Radiation Caused by Alterations of the Sugar Moiety
Chapter 5. Radiation-Induced Events and Their
Time Scale in Mammalian Cells
III. Physical and Physicochemical Processes
Chapter 6. Solid-State Radiation Chemistry of DNA: The Bases
I. Radiation Biology, DNA, and the Solid State
II. Evaluation of Free-Radical Assignments
III. Free-Radical Events Induced by Ionizing Radiation
Chapter 7. Intrinsic Radiosensitivity of Proliferating Mammalian Cells
III. Factors Determining Intrinsic Cellular Radiosensitivity
Chapter 8. Factors Governing the Use of Microwave/Radiofrequency Energies in Cancer Therapy
II. Physical and Biophysical Principles
III. The Physiology of Temperature Regulation
IV. Rate of Microwave/Radiofrequency Energy Absorption in Living Systems
V. Electromagnetic Energy Absorbed Dose in Humans
VI. Specific Thermal Lesions
VII. Whole-Body Hyperthermia
IX. Engineering Considerations
X. Electromagnetic Field Measuring Instruments
and Probes (Dosimetry)
XI. Problems and Perspectives
Chapter 9. That Was the Basic Radfobiology That Was: A Selected Bibliography and Some Comments
II. The Biophysical/Physicochemical Approach
IV. The Molecular-Biological/Biochemical Approach
V. Basic or Applied Research in Radiobiology
VI
. Bibliographic Data on Radiobiology
X. Summary and Conclusions