VOLUME RENDERING OF 3D MEDICAL ULTRASOUND DATA USING DIRECT FEATURE MAPPING

被引:41
作者
STEEN, E
OLSTAD, B
机构
[1] Norwegian Inst of Technology, Trondheim
关键词
D O I
10.1109/42.310883
中图分类号
TP39 [计算机的应用];
学科分类号
081203 ; 0835 ;
摘要
In this paper we explore the application of volume rendering in medical ultrasonic imaging. Several volume rendering methods have been developed for X-ray Computed Tomography (X-CT), Magnetic Resonance Imaging (MRI) and Positron Emission Tomograpby (PET). Limited research has been done on applications of volume rendering techniques in medical ultrasound imaging because of a general lack of adequate equipment for 3D acquisitions. Severe noise sources and other limitations in the imaging system make volume rendering of ultrasonic data a challenge compared to rendering of MRI and X-CT data. Rendering algorithms that rely on an initial classification of the data into different tissue categories have been developed for high quality X-CT and MR-data. So far, there is a lack of general and reliable methods for tissue classification in ultrasonic imaging. This paper focuses on volume rendering methods which are not dependent on any classification into different tissue categories. Instead, features are extracted from the original 3D data-set, and projected onto the view plane. We found that some of these methods may give clinically useful information which is very difficult to get from ordinary 2D ultrasonic images, and in some cases renderings with very fine structural details. We have applied the methods to 3D ultrasound images from fetal examinations. The methods are now in use as clinical tools at the National Center of Fetal Medicine in Trondheim, Norway.
引用
收藏
页码:517 / 525
页数:9
相关论文
共 50 条
[31]   VOLUME RENDERING OF DCT-BASED COMPRESSED 3D SCALAR DATA [J].
YEO, BL ;
LIU, BD .
IEEE TRANSACTIONS ON VISUALIZATION AND COMPUTER GRAPHICS, 1995, 1 (01) :29-43
[32]   Surface rendering of 3D ultrasound images in ophthalmology [J].
Garcia, Julian P. S., Jr. ;
Garcia, Patricia M. T. ;
Muldoon, Thomas O. ;
Rosen, Richard B. .
OPHTHALMIC SURGERY LASERS & IMAGING, 2006, 37 (04) :347-351
[33]   Surface rendering of 3D ultrasound images in ophthalmology [J].
Muldoon, TO ;
Garcia, JPS ;
Garcia, PMT ;
Rosen, RB .
INVESTIGATIVE OPHTHALMOLOGY & VISUAL SCIENCE, 2005, 46
[34]   Advantages and disadvantages of 3D ultrasound of thyroid nodules including thin slice volume rendering [J].
Rafal Zenon Slapa ;
Wieslaw Stanislaw Jakubowski ;
Jadwiga Slowinska-Srzednicka ;
Kazimierz Tomasz Szopinski .
Thyroid Research, 4 (1)
[35]   Adaptive volume rendering of cardiac 3D ultrasound images - utilizing blood pool statistics [J].
Asen, Jon Petter ;
Steen, Erik ;
Kiss, Gabriel ;
Thorstensen, Anders ;
Rabben, Stein Inge .
MEDICAL IMAGING 2012: ULTRASONIC IMAGING, TOMOGRAPHY, AND THERAPY, 2012, 8320
[36]   Advantages and disadvantages of 3D ultrasound of thyroid nodules including thin slice volume rendering [J].
Slapa, Rafal Zenon ;
Jakubowski, Wieslaw Stanislaw ;
Slowinska-Srzednicka, Jadwiga ;
Szopinski, Kazimierz Tomasz .
THYROID RESEARCH, 2011, 4
[37]   A 3D Painterly Rendering Framework for Photon Mapping [J].
Li, Meng-Tsan ;
Wang, Chung-Ming .
JOURNAL OF INFORMATION SCIENCE AND ENGINEERING, 2010, 26 (04) :1379-1395
[38]   Direct rendering of deformable volume data [J].
Fang, SF ;
Srinivasan, R .
IMAGE DISPLAY - MEDICAL IMAGING 1997, 1997, 3031 :37-48
[39]   Interactive 3D volume rendering in biomedical publications [J].
Ruthensteiner, Bernhard ;
Baeumler, Natalie ;
Barnes, David G. .
MICRON, 2010, 41 (07) :886-898
[40]   Rendering of 3D objects inserted into a translucent volume [J].
Dizhevskii A.Y. .
Moscow University Computational Mathematics and Cybernetics, 2008, 32 (4) :227-233