This state-of-the-art handbook, the third and final in a series that provides medical physicists with a comprehensive overview into the field of nuclear medicine, focuses on highlighting the production and application of radiopharmaceuticals. With this, the book also describes the chemical composition of these compounds, as well as some of the main clinical applications where radiopharmaceuticals may be used.
Following an introduction to the field of radiopharmacy, three chapters in this book are dedicated towards in-depth descriptions of common radionuclides and radiopharmaceuticals used during diagnostic studies utilizing planar/Single Photon Emission Computed Tomography (SPECT) imaging, in addition to during Positron Emission Tomography (PET) imaging, and, finally, radiotherapy. These chapters are followed by those describing procedures relating to quality control and manufacturing (good manufacturing practices) also encompassing aspects such as environmental compliance. Furthermore, this volume illustrates how facilities handling these chemicals should be designed to comply with set regulations.
Like many pharmaceuticals, the development of radiopharmaceuticals relies heavily on the use of mouse models. Thus, the translation of radiopharmaceuticals (i.e., the process undertaken to assure that the functionality and safety of a newly developed drug is maintained also in a human context), is covered in a later chapter. This is followed by a chapter emphasising the importance of safe waste disposal and how to assure that these procedures meet the requirements set for the disposal of hazardous waste.
Several chapters have also been dedicated towards describing various medical procedures utilizing clinical nuclear medicine as a tool for diagnostics and therapeutics. As physicists may be involved in clinical trials, a chapter describing the procedures and regulations associated with these types of studies is included. This is followed by a chapter focusing on patient safety and another on an imaging modality not based on ionizing radiation - ultrasound. Finally, the last chapter of this book discusses future perspectives of the field of nuclear medicine.
This text will be an invaluable resource for libraries, institutions, and clinical and academic medical physicists searching for a complete account of what defines nuclear medicine.
- The most comprehensive reference available providing a state-of-the-art overview of the field of nuclear medicine
- Edited by a leader in the field, with contributions from a team of experienced medical physicists, chemists, engineers, scientists, and clinical medical personnel
- Includes the latest practical research in the field, in addition to explaining fundamental theory and the field's history
About the Author: Michael Ljungberg is a Professor at Medical Radiation Physics, Lund, Lund University, Sweden. He started his research in the Monte Carlo field in 1983 through a project involving a simulation of whole-body counters but later changed the focus to more general applications in nuclear medicine imaging and SPECT. Parallel to his development of the Monte Carlo code, SIMIND, he began working in 1985 with quantitative SPECT and problems related to attenuation and scatter. After earning his PhD in 1990, he received a research assistant position that allowed him to continue developing SIMIND for quantitative SPECT applications and to establish successful collaborations with international research groups. At this time, the SIMIND program became used world-wide. Dr. Ljungberg became an associate professor in 1994 and, in 2005, after working clinically as a nuclear medicine medical physicist, received a full professorship in the Science Faculty at Lund University. He became the Head of the Department of Medical Radiation Physics at Lund in 2013 and a full professor in the Medical Faculty in 2015.
Aside from the development of SIMIND - including new camera systems such as CZT detectors - his research includes an extensive project in oncological nuclear medicine. In this project, he and colleagues developed dosimetry methods based on quantitative SPECT, Monte Carlo absorbed-dose calculations, and methods for accurate 3D dose planning for internal radionuclide therapy. Lately, his work has focused on implementing Monte Carlo-based image reconstruction in SIMIND. He is also involved in the undergraduate education of medical physicists and bio-medical engineers and supervises MSc and PhD students. In 2012, Professor Ljungberg became a member of the European Association of Nuclear Medicines task group on Dosimetry and served that association for six years. He has published over a hundred original papers, 18 conference proceedings, 18 books and book chapters, and 14 peer-reviewed papers.
