"Compressive adaptive beamforming in 2D and 3D ultrafast active cavitation imaging"
Title | "Compressive adaptive beamforming in 2D and 3D ultrafast active cavitation imaging" |
Publication Type | Conference Paper |
Year of Publication | 2015 |
Authors | Chen Bai, S. Xu, B. Jing, Miao Yang, M. Wan |
Conference Name | 2015 IEEE International Ultrasonics Symposium (IUS) |
Date Published | Oct |
Publisher | IEEE |
ISBN Number | 978-1-4799-8182-3 |
Accession Number | 15601545 |
Keywords | 2D ultrafast active cavitation imaging, 3D ultrafast active cavitation imaging, Acoustics, adaptive beamforming, array signal processing, Biomedical imaging, cavitation, compressed sensing, compressive adaptive beamforming, compressive sensing, high-frame rate, high-sampling rate, medical image processing, pubcrawl170104, Radio frequency, Signal resolution, Signal to noise ratio, signal-to-noise ratio, spatial filter, Spatial resolution, Transient analysis, ultrafast active cavitation imaging |
Abstract | The ultrafast active cavitation imaging (UACI) based on plane wave can be implemented with high frame rate, in which adaptive beamforming technique was introduced to enhance resolutions and signal-to-noise ratio (SNR) of images. However, regular adaptive beamforming continuously updates the spatial filter for each sample point, which requires a huge amount of calculation, especially in the case of a high sampling rate, and, moreover, 3D imaging. In order to achieve UACI rapidly with satisfactory resolution and SNR, this paper proposed an adaptive beamforming on the basis of compressive sensing (CS), which can retain the quality of adaptive beamforming but reduce the calculating amount substantially. The results of simulations and experiments showed that comparing with regular adaptive beamforming, this new method successfully achieved about eightfold in time consuming. |
URL | https://ieeexplore.ieee.org/document/7329227 |
DOI | 10.1109/ULTSYM.2015.0307 |
Citation Key | 7329227 |
- high-sampling rate
- ultrafast active cavitation imaging
- Transient analysis
- Spatial resolution
- spatial filter
- signal-to-noise ratio
- Signal to noise ratio
- Signal resolution
- Radio frequency
- pubcrawl170104
- medical image processing
- 2D ultrafast active cavitation imaging
- high-frame rate
- compressive sensing
- compressive adaptive beamforming
- compressed sensing
- cavitation
- Biomedical imaging
- array signal processing
- adaptive beamforming
- Acoustics
- 3D ultrafast active cavitation imaging