This book offers the reader sound advice on how to perform optimal conventional pediatric radiographs and how to obtain quick and easy organ dose estimates in order to improve the optimization process in pediatric imaging. Clear guidelines are provided for minimization of the radiation exposure of children through optimization of the radiation exposure conditions, and conversion coefficients are presented for calculation of the organ doses achieved in organs and tissues during conventional pediatric radiography, taking into consideration both optimal and suboptimal radiation field settings. Previously published conversion coefficients have failed to represent the variation in radiation field settings in daily clinical routine, which has made it difficult for the pediatric radiologist to estimate the impact of the field settings on absorbed doses in organs and tissues. The aim of this book, co-written by a pediatric radiologist, a physician and physicist, and a medical radiation technologist, is to address this issue by providing, for the first time, a thorough overview of clinical radiation field settings and their implications for radiation protection. An accompanying volume is devoted to fluoroscopy.

Radiography is an integral part of paediatric health care. It is frequently requested to assist in the diagnosis, management and treatment of childhood disease and illness. Accurate interpretation of paediatric radiographs can depend entirely on the quality of images produced by the radiographer, yet there are few books available on this crucial aspect of radiographic practice. Paediatric Radiography fills a gap. It explores radiographic practice within the context of the modern health service and focuses on how our knowledge and understanding of paediatric growth, development and illness can inform and influence radiographic procedures. It includes detailed coverage of specific paediatric techniques and good practice models, including the role of multi-modality imaging, and looks specifically at radiation protection, the chest and upper airways, the abdomen, neonatal radiography, trauma, orthopaedics, and non-accidental injury.

Provides guidance to radiologists, other clinicians and radiographers/technologists involved in using ionizing radiation for diagnostic procedures with children and adolescents, and should also be of value to medical physicists and regulators.

Radiology plays a fundamental role in the diagnosis and management of childhood diseases. This is reflected in both paediatric and radiology post graduate exams, where candidates are expected to have a working knowledge of paediatric pathology, clinical manifestations and appropriate radiological investigations. Building on the great success of the first edition, Paediatric Radiology for MRCPCH and FRCR retains the popular preexisting structure of the book, but presents an improved variety of clinical cases as well as updated text in-keeping with advances in medical practice and technology. There is more emphasis on cross-sectional imaging, as candidates are increasingly encountering these sophisticated imaging tests in postgraduate exams. Images have been updated, and all the clinical information has been reviewed and revised accordingly. Contains over 100 clinical cases, presented in exam format, with answers overleaf Includes a wide range of common and rare paediatric conditions with supplementary images to illustrate additional points Uses classic examination images, with salient radiological and clinical summaries of each condition - the "hot lists" Carries specific information for paediatricians and radiologists for each case An introductory chapter on the basic concepts of imaging aims to provide the reader with an approach to radiological imaging and an awareness of the different modalities available, with new sections on non-accidental injury and radiation protection.

Medical Imaging in Clinical Practice is a compendium of the various applications of imaging modalities in specific clinical conditions. It captures in an easy to read manner, the experiences of various experts drawn from across the globe. It explores the conventional techniques, advanced modalities and on going research efforts in the ever widening horizon of medical imaging. The various topics would be relevant to residents, radiologists and specialists who order and interpret various medical imaging procedures. It is an essential for the inquisitive mind, seeking to understand the scope of medical imaging in clinical practice.

Whenever a diagnostic or interventional X-ray examination of a pregnant patient is considered to be necessary, conceptus dose estimation is an essential step in assessing the radiogenic risks to the unborn child. Accurate estimation of embryo/fetus radiation dose is also needed after accidental exposure of a pregnant patient from an X-ray procedure. The exposure of pregnant patients to medical X-rays is often a complex case and involves emotionally sensitive issues for both prospective parents and physicians. Conceptus dose assessment is not always easy. Medical physicists should be able to assess conceptus doses and risks from diagnostic and interventional procedures and also to place the risk in a perspective from which an informed decision can be made. Pregnant medical professionals working with radiation have many misconceptions about the risks of ionizing radiation on the unborn child. Medical radiation workers of childbearing age should be aware that careful planning and dose optimization of examinations can address their concerns and permit, in the vast majority of cases, safe performance of procedures. Pediatric patients requiring diagnostic and interventional procedures are exposed to diagnostic and interventional X-rays. Pediatric patients are more sensitive to radiation than adults and, for this reason, accurate assessment of doses and risks is needed in these cases. Medical physicists should be able to assess paediatric doses and risks from diagnostic and interventional procedures. Several techniques and tools have been developed for dose optimization of radiographic, fluoroscopic, computed tomography and fluoroscopically-guided interventional pediatric procedures. The scan parameters should be adjusted for patient size and body region. Part of Series in Physics and Engineering in Medicine and Biology.