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Rad Tech's Guide to Radiation Protection 2nd edition [Minkštas viršelis]

(British Columbia Institute of Technology Medical Imaging, School of Health Sciences, Canada)
  • Formatas: Paperback / softback, 152 pages, aukštis x plotis x storis: 213x137x13 mm, weight: 227 g
  • Serija: Rad Tech's Guides'
  • Išleidimo metai: 27-Sep-2019
  • Leidėjas: Wiley-Blackwell
  • ISBN-10: 1119640830
  • ISBN-13: 9781119640837
Kitos knygos pagal šią temą:
  • Formatas: Paperback / softback, 152 pages, aukštis x plotis x storis: 213x137x13 mm, weight: 227 g
  • Serija: Rad Tech's Guides'
  • Išleidimo metai: 27-Sep-2019
  • Leidėjas: Wiley-Blackwell
  • ISBN-10: 1119640830
  • ISBN-13: 9781119640837
Kitos knygos pagal šią temą:
Radiation protection is a core element of radiologic technology programmes and daily practice alike. Rad Tech's Guide to Radiation Protection is a comprehensive yet compact guide designed to illuminate the extensive field of radiation protection for technologists, trainees, and radiology students. Organised into ten digestible chapters, the second edition of this popular book provides new discussions of dose factors in computed tomography, the debate concerning the use of the LNT model, Diagnostic Reference Levels (DRLs), dose optimization, and more.

Written by a recognised expert in medical radiation sciences, this valuable guide:

Helps students and technologists acquire the skills required to protect patients, personnel, and members of the public in the radiology department

Reflects the most current standards for radiation protection, with references to relevant organisations and resources

Covers basic radiobiology, sources of radiation exposure, dose management regulations and optimization, and more

Presents essential information in a bulleted, easy-to-reference format

Euclid Seeram, PhD, FCAINART, is a Full Member of the Health Physics Society and has academic appointments as Honorary Senior Lecturer in Medical Radiation Sciences at the University of Sydney, Australia; Adjunct Associate Professor of Medical Imaging and Radiation Sciences at Monash University, Australia; Adjunct Professor in the Faculty of Science at Charles Sturt University, Australia; and Adjunct Professor of Medical Radiation Sciences at the University of Canberra, Australia.

Radiation protection is a core element of radiologic technology programmes and daily practice alike. Rad Tech's Guide to Radiation Protection is a comprehensive yet compact guide designed to illuminate the extensive field of radiation protection for technologists, trainees, and radiology students. Organised into ten digestible chapters, the second edition of this popular book provides new discussions of dose factors in computed tomography, the debate concerning the use of the LNT model, Diagnostic Reference Levels (DRLs), dose optimization, and more.

Written by a recognised expert in medical radiation sciences, this valuable guide:

  • Helps students and technologists acquire the skills required to protect patients, personnel, and members of the public in the radiology department
  • Reflects the most current standards for radiation protection, with references to relevant organisations and resources
  • Covers basic radiobiology, sources of radiation exposure, dose management regulations and optimization, and more
  • Presents essential information in a bulleted, easy-to-reference format

Rad Tech's Guide to Radiation Protection is a must-have resource for student radiographers and radiology technologists, particularly those preparing for the American Registry of Radiation Technologist (ARRT) exams.

Preface to the Second Edition xi
Acknowledgments xiii
1 Nature and Scope of Radiation Protection 1(12)
What is Radiation Protection?
2(1)
Scope of Radiation Protection
2(1)
Diagnostic Radiology Modalities
3(1)
Why Protect Patients and Personnel in Diagnostic Radiology?
3(1)
Framework for Radiation Protection
4(2)
Basic Schemes for Patient Exposure in Digital Radiography, Fluoroscopy, and Computed Tomography
6(2)
Factors Affecting Dose in Diagnostic Radiology
8(2)
Dose Management Techniques
10(1)
Pregnancy: Radiation Protection Considerations
11(2)
2 Diagnostic X-Rays: Essential Physical Factors 13(14)
X-Ray Production
14(1)
Mechanisms for Creating X-Rays
14(2)
X-Ray Spectrum
16(4)
X-Ray Attenuation
20(3)
X-Ray Interactions
23(3)
Increasing kV and Scatter Production
26(1)
3 Radiation Quantities and Units 27(12)
Sources of Radiation Exposure
29(1)
Types of Exposure
30(1)
Quantities and Units for Quantifying Ionizing Radiation
31(2)
Quantities and Units for Quantifying Biologic Risks
33(3)
Radiation Measurement
36(2)
Wearing a Personnel Dosimeter
38(1)
4 Basic Radiobiology 39(16)
What Is Radiobiology?
41(1)
Essential Physics and Chemistry
41(3)
Fundamental Concepts of Radiobiology
44(5)
Deterministic Effects (Early Effects of Radiation)
49(2)
Stochastic Effects (Late Effects of Radiation)
51(3)
Radiation Exposure During Pregnancy
54(1)
5 Current Standards for Radiation Protection 55(10)
Radiation Protection Organizations
56(1)
Objectives of Radiation Protection
57(1)
Radiation Protection Criteria and Standards
58(2)
Recommended Dose Limits
60(2)
Diagnostic Reference Levels: A Useful Tool for Optimization of Protection
62(3)
6 Dose Factors in Digital Radiography 65(12)
Digital Radiography: Essential Considerations
66(2)
The Standardized Exposure Indicator: Basics
68(2)
Factors Affecting Dose in Digital Radiography
70(7)
7 Dose Factors in Fluoroscopy 77(12)
Major Components of Fluoroscopic Imaging Systems
78(4)
Factors Affecting Dose in Fluoroscopy
82(5)
Scattered Radiation in Fluoroscopy
87(2)
8 Factors Affecting Dose in Computed Tomography 89(12)
Computed Tomography: A Definition
90(1)
Nobel Prize for CT Pioneers
91(1)
CT Principles: the Basics
91(2)
Multislice CT Technology: The Pitch
93(1)
Dose Distribution in CT
93(1)
CT Dose Metrics
94(2)
Factors Affecting the Dose in CT
96(3)
Dose Optimization in CT
99(2)
9 Dose Management Regulations and Optimization 101(16)
Federal Regulations for Dose Management
103(1)
Equipment Specifications for Radiography
104(2)
Equipment Specifications for Fluoroscopy
106(3)
Procedures for Minimizing Dose to Patients and Personnel
109(3)
Shielding: Design of Protective Barriers
112(2)
Quality Assurance: Dose Management and Optimization
114(3)
10 Pregnancy: Essential Radiation Protection Considerations 117(8)
Rationale for Radiation Protection in Pregnancy
118(1)
Factors Affecting Dose to the Conceptus
119(1)
Estimating the Dose to the Conceptus
120(1)
Continuing/Terminating a Pregnancy After Exposure
120(1)
Dose Reduction Techniques for Pregnant Patients
121(1)
The Pregnant Worker
121(4)
References 125(4)
Index 129
Euclid Seeram, PhD, FCAMRT, is a Full Member of the Health Physics Society and has academic appointments as Honorary Senior Lecturer in Medical Radiation Sciences at the University of Sydney, Australia; Adjunct Associate Professor of Medical Imaging and Radiation Sciences at Monash University, Australia; Adjunct Professor in the Faculty of Science at Charles Sturt University, Australia; and Adjunct Professor of Medical Radiation Sciences at the University of Canberra, Australia.