Biomedical image processing has experienced dramatic expansion, and has been an .. RC Gonzalez and RE Woods, “Digital Image Processing”, third edition. Editorial Reviews. Review. "Most investigators and students actively involved in the image $ eBook features: Highlight, take notes, and search in the book; Length: pages; Enhanced Typesetting: Enabled; Page Flip: Enabled; Similar books. Medical Image Processing: Techniques and Applications (Biological and Medical and is the author of several book chapters and a textbook in image analysis.
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eBook ,79 € It provides a brief but complete overview on medical image processing and Morphological Image Processing Applied in Biomedicine. Handbook of Biomedical Image Analysis: Segmentation Models (Volume I) is can be used on all reading devices; Immediate eBook download after download. in image processing, medical imaging and pattern recognition. research in the applications of image processing and analysis to medical eBook (EBL).
The Handbook of Medical Image Processing and Analysis is a comprehensive compilation of concepts and techniques used for processing and analyzing medical images after they have been generated or digitized. The Handbook is organized into six sections that relate to the main functions: The second edition is extensively revised and updated throughout, reflecting new technology and research, and includes new chapters on: For those looking to explore advanced concepts and access essential information, this second edition of Handbook of Medical Image Processing and Analysis is an invaluable resource. It remains the most complete single volume reference for biomedical engineers, researchers, professionals and those working in medical imaging and medical image processing. Isaac N.
Relevant medical images used for processing complement many of the concepts discussed. Where important, the mathematical formulation is provided. These are useful to apply the concepts to actual medical image processing. The book can be used in part as an excellent reference work for biomedical engineers, scientists, and clinicians.
This is a well-written, coherent, and comprehensive work covering the major topics in the field, suitable as a standalone text …. The book is enjoyable to read, and students and professionals will not be bored when doing so. Engineers and scientists will find useful coverage of the field, and students will find the entire volume to be filled with important information.
It is comprehensive and well written.
Content of the Book Applied Medical Image Processing should prove useful for learning the basics of this important field, and to refresh the memory of those who already have some background in the field. Although most chapters are written by Dr.
Birkfellner, Chapter 1 is written by Dr. Johann Hummel and Chapter 9 is written by Dr. Michael Figl. Medical image sources are discussed in Chapter 1. This includes an emphasis on computed tomography CT - with descriptions of how images are generated and the types of image artifacts that can occur, and magnetic resonance imaging MRI , including biophysical principles and elements of an MR system.
The chapter continues with a discussion on ultrasound, nuclear medicine techniques, and good safety practices. In Chapter 2, image representation is presented, including the basics of pixels and voxels, grayscale and color representation, and commonly used medical image file formats such as DICOM.
A discussion of image quality and signal-to-noise ratio follows. The first of the image processing chapters - Chapter 3 - describes mathematical operations in intensity space, which are used to enhance medical images for improved visualization.
The topics include the use of the intensity transfer function, how to prevent image saturation, the dynamic range of the imaging system, and use of windowing functions and histograms to improve grayscale contrast. Digital filters as they are used to alter images in ways affecting computational analyses, and to extract salient information, are covered in Chapter 4. Additionally, mathematical transforms are introduced in this chapter, with transformational methods being presented to represent data for ease of measurement and to resolve differences between image classes.
Basic medical image segmentation methods for delineation of regions of interest ROI are introduced in Chapter 5. Implementation of techniques for ROI boundary detection and reduction of error in boundary definition are discussed. Lastly, performance indices to evaluate the results of segmentation are presented.
Spatial transforms for projecting three-dimensional volume data into two-dimensional images are described in Chapter 6. Very useful equations for two- and three-dimensional data translation and rotation are provided in a form that can readily be implemented computationally.
Methods for interpolation of transformed data to reduce artifact during image construction are presented. The chapter also includes an extensive section on ROI tracking during patient diagnosis and treatment. Quantitative image registration methods are covered in Chapter 7. First an explanation of fiduciary markers to registrate two or more images is discussed.
Comparisons are then made between intramodal versus intermodal, and rigid versus nonrigid registration methods. The use of merit functions as measures of image similarity during the registration process is introduced. Lastly, strategies for local versus global optimization for image registration are considered, and evaluation of the results using target and fiducial registration error measurements are presented.
Illustrations and figures are often in full color and of extremely high quality.
I will not attempt to extensively review each of the 22 chapters and instead will focus on an overview of each of the eight sections and the leading chapter. The first chapter, Fundamentals of Biomedical Image Processing by Thomas Deserno, could stand on its own as a teaching tool and introduction to the topic.
This comprehensive chapter describes the formation of images, enhancement, data visualization, visual feature extraction, segmentation, classification, measurements and interpretation, and image management. He gives the reader a concise description of how images are formed using X-ray imaging, computed tomography CT , magnetic resonance imaging MRI , ultrasound US , and digitalization.
He takes us through the fundamentals of image enhancement describing tools that are often available to anyone using display software, but may not have been understood. Feature extraction such as vessels extracted from a vascular study is described. Segmentation is defined and illustrated with CT, microscopy, and X-ray images. Classification is illustrated in the use of calculating bone age and dental fixtures using X-ray images.
In the first case chapter 2 , the authors provide a description of positron emission tomography PET and MRI, then describe the fusion processes, systems, and algorithms. In the second case chapter 3 , the authors describe the roll of US in cardiology, then go on to develop the concepts of 2D, 3D, and 4D principles, limitations, and utilization. In the first case, the authors describe the use of mathematical morphology for filtering, segmentation, and pattern matching and pay special attention to morphological reconstruction.
In Medical Image Registration chapter 5 , the authors focus on the three key components of image registration algorithms, transformation models, similarity measures, and optimization. These technically challenging chapters are richly illustrated to demonstrate the topics covered.
The first article chapter 9 defines the difference between general image segmentation where the context of the image is not well defined and may contain shadows and other confounding features and biomedical image segmentation where the context is very well defined, but segmentation of the anatomic region from the background is difficult due to poor imaging statistics. The chapter goes on to describe methods for segmentation and visualization.
This leads into chapter 10 where fuzzy connectedness and other segmentation algorithms are covered. The last chapter in this part describes model-based segmentation with the basic concepts and different approaches. Two methods are covered in more detail: Part 5, Classification and Measurements, covers the use of imaging in computer-assisted diagnosis and analysis for the development of therapy.