Book Description
Ranging from basic principles to advanced concepts and real-world
applications, this comprehensive reference offers you expert guidance in
radiation dosimetry. The book thoroughly examines the physics of
radiation, its biological effects, commercial products, device design,
and measurement methods. You find critical details on sensing using
thin/thick film technology and discover the latest about gamma radiation
dosimetry using metal oxides and polymers, including metal substituted
phthalocyanines.
You gain deep knowledge of the effects of
radiation on physical processes, helping you to design more
cost-effective dosimeter devices. The book presents in-depth information
on commercially available dosimetry equipment, offering you a solid
understanding of how these products operate and how to use them in
mining, construction, medical, energy, defense, and security
applications. In addition, this cutting-edge volume presents the
radiation dose concept, where accuracy of dose measurement and
classification between different radiation types, e.g. alpha, beta,
gamma etc, is enhanced by applying specific pattern recognition
algorithm.
Contents:
Introduction.
Radiation Dosimetry: Background and
Principles—Review of the Radiation Types. Biological Effects of
Radiation. Basic Principles of Radiation Protection. Dosimetry for
Industrial Radiation Processing. Medical Use of Ionizing Radiation.
Uncontrolled Radioactive Releases. Review of the Principles and
Materials in Radiation Dosimetry.
Effects of Radiation on Optical and
Electrical Properties of Materials—Introduction. Optical Absorption.
Amorphous Films. Absorption Spectra of Amorphous Solids.
Metal-Semiconductor Contacts. Conduction Mechanisms in Amorphous
Materials. Radiation Damage in Crystalline Structures. Radiation-Induced
Defects in Oxide Materials. Radiation Effects in Polymers.
Radiation-Induced Degradation Processes in Device Parameters.
Gamma Radiation Dosimetry Using Metal Oxides
and Metal-Substituted Phthalocyanines—Thin and Thick Film Technologies.
Thin Films as Radiation Sensors. Thick Films as Radiation Sensors.
Conclusion.
Sensor Arrays.
Radiation Dose Concept and Pattern
Recognition—Sensor Arrays. Dosimetry of Mixed Radiations. Radiation Nose
Concept. Overview of Pattern Recognition. Classification and Validation.
Radiation Nose Using a Compaq iPAQ Designed for Resistive Sensors.
Portable Real-Time Gamma Radiation Dosimetry System Using MgO and CeO2
Thick Film Capacitors.
Conclusion and Future Trends.
Appendix. List of Acronyms. Index. Author’s
Biography.
Authors:
Khalil Arshak
is a professor in the Electronics and Computer Engineering
Department, University of Limerick. He holds an M.Sc. degree in
solid state physics from the University of Salford and earned a
D.Sc. in semiconductors and a Ph.D. in solid state electronics from
Brunel University.
Olga Korostynska
is a postdoctoral research fellow at the University of Limerick,
where she earned her Ph.D. in solid-state
electronics. She holds an M.Sc. in biomedical electronics
from the National Technical University of Ukraine.
|