The Principle of Multidimensional Arrays
Author(s) -
K. Kirk Shung
Publication year - 2002
Publication title -
european journal of echocardiography
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 2.576
H-Index - 92
eISSN - 1525-2167
pISSN - 1532-2114
DOI - 10.1053/euje.2001.0139
Subject(s) - medicine , footprint , wafer , plane (geometry) , beam (structure) , image quality , quality (philosophy) , fabrication , reduction (mathematics) , medical physics , optics , artificial intelligence , image (mathematics) , physics , computer science , optoelectronics , pathology , paleontology , geometry , mathematics , alternative medicine , quantum mechanics , biology
Echocardiography is one of the most important diagnostic tools in cardiology today. One-dimensional phased arrays have been used extensively because they have a small footprint and allow beam steering. Their major limitation lies in that these devices can only be used to acquire images of two-dimensional slices in real-time and that the slice thickness cannot be controlled. To allow real-time three-dimensional imaging of the heart and focusing of the ultrasonic beam in two-dimensional, two-dimensional arrays, the design and fabrication of which are enormous engineering challenges, are required. Before reaching this ultimate goal, limited focusing in the elevational plane can be achieved with 1.5-dimensional arrays. Focusing in the elevational plane allows a reduction in slice thickness and thus an improvement in the image quality over a larger depth of view.
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