Abstract:
The generation and practical use of medical three-dimensional (3D) modeling for diagnostics and therapeutic applications is described in this standard. Volume rendering a...Show MoreScope:This standard includes volume- and surface-rendering techniques for 3D reconstruction from 2D medical images. Also, it contains a texturing method of 3D medical data for ...Show More
Purpose:Medical images from hospitals consist of a 2D dataset, providing information from the human body as sectioned slices. The human body has morphological structure in 3D spa...Show More
Metadata
Abstract:
The generation and practical use of medical three-dimensional (3D) modeling for diagnostics and therapeutic applications is described in this standard. Volume rendering and surface rendering techniques for 3D reconstruction from two-dimensional (2D) medical images and a texturing method of 3D medical data for realistic visualization are included.
Scope:
This standard includes volume- and surface-rendering techniques for 3D reconstruction from 2D medical images. Also, it contains a texturing method of 3D medical data for realistic visualization. Standardization related to medical services includes medical equipment utilizing 2D images, 3D medical data, and contents for diagnosis and treatment. Standardization of medial contents, software, and hardware will enhance safety, economy, and quality of 3D medical services. (see Figure 2).
Purpose:
Medical images from hospitals consist of a 2D dataset, providing information from the human body as sectioned slices. The human body has morphological structure in 3D space. Therefore, to recognize human organs, the 3D reconstruction process is necessary to be reformed using 2D slices. After this, the precise position and shape of organs can be identified. Medical 3D volume imaging is based on unprocessed 3D medical data that contains a variety of medical information. It determines guidelines, standards of medical 3D technology, and the 3D volume imagessafety and quality. This standard describes the generation and practical use of medical 3D modeling for diagnostic and therapeutic applications.
Date of Publication: 23 March 2015
Electronic ISBN:978-0-7381-9571-1
Persistent Link: https://ieeexplore.ieee.org/servlet/opac?punumber=7063873
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- IEEE Keywords
- Index Terms
- Medical Model ,
- Medical Imaging ,
- 3D Reconstruction ,
- 3D Data ,
- Volume Rendering ,
- Magnetic Resonance Imaging ,
- Image Quality ,
- Medical Information ,
- Commercial Software ,
- Realistic Model ,
- Medical Field ,
- Image Object ,
- 2D Images ,
- Final Image ,
- Maximum Intensity Projection ,
- 3D Technology ,
- Surface Reconstruction ,
- Hardware Accelerators ,
- Medical Image Segmentation ,
- Volume Reconstruction ,
- Ray Casting ,
- Acceleration Techniques ,
- Mathematical Morphology ,
- Surface Model ,
- Morphological Operations ,
- Neighboring Pixels ,
- 3D Image Volume ,
- 3D Volume
- Author Keywords
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Medical Model ,
- Medical Imaging ,
- 3D Reconstruction ,
- 3D Data ,
- Volume Rendering ,
- Magnetic Resonance Imaging ,
- Image Quality ,
- Medical Information ,
- Commercial Software ,
- Realistic Model ,
- Medical Field ,
- Image Object ,
- 2D Images ,
- Final Image ,
- Maximum Intensity Projection ,
- 3D Technology ,
- Surface Reconstruction ,
- Hardware Accelerators ,
- Medical Image Segmentation ,
- Volume Reconstruction ,
- Ray Casting ,
- Acceleration Techniques ,
- Mathematical Morphology ,
- Surface Model ,
- Morphological Operations ,
- Neighboring Pixels ,
- 3D Image Volume ,
- 3D Volume
- Author Keywords