Design and development of reconfigurable embedded system for real-time acquisition and processing of multichannel ultrasonic signals

被引:7
|
作者
Tarpara, Eaglekumar G. [1 ,2 ]
Patankar, Vaibhav H. [1 ,2 ]
机构
[1] HBNI, Mumbai, Maharashtra, India
[2] BARC, Mumbai, Maharashtra, India
关键词
multiplexing; ultrasonic imaging; data acquisition; embedded systems; signal detection; preamplifiers; demultiplexing; reconfigurable embedded system; multichannel ultrasonic signals; multichannel immersion ultrasonic system; addressing-based analogue; data acquisition unit; common on-chip storage; multichannel imaging system; partial front-end hardware; common-amplifier; back-end embedded system; analogue front-end hardware; real-time hardware-based data processing; data transfer operation; addressing-based reconfigurable architecture; four-channel ultrasonic imaging system; hardware-based coherent averaging; channel multiplexing-demultiplexing; reconfigurable control; software-based post-processing; developed multichannel system; C-scan image acquisition; hardware-based architecture; data acquisition hardware; channel reconfigurable facility; dynamic online reconfiguration; B-scan image acquisition;
D O I
10.1049/iet-smt.2019.0096
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
The study proposes a novel hardware-based architecture of the reconfigurable embedded system for the multi-channel immersion ultrasonic system. It provides the addressing-based analogue multiplexing scheme, which requires only one data acquisition unit and common on-chip storage for the multi-channel imaging system. It also provides unique channel reconfigurable facility to the user to modify the number of channels (up to 256 for pulse-echo and 512 for transmit-receive mode by installing only the partial front-end hardware (pulser, pre-amplifier) and without modifying the remaining data acquisition hardware (common-amplifier, digitiser) and back-end embedded system. The developed system further supports dynamic on-line reconfiguration of the analogue front-end hardware, real-time hardware-based data processing, and data transfer operation. The authors have implemented the addressing-based reconfigurable architecture of the coherent averaging for noise reduction. For the experimentation, the complete four-channel ultrasonic imaging system for immersion testing has been designed, developed, and evaluated in the laboratory. Furthermore, this study describes the capability of the proposed system by performing multi-channel real-time data acquisition, hardware-based coherent averaging, channel multiplexing-demultiplexing, reconfigurable control, and software-based post-processing. Here, they present the performance evaluation of the developed multi-channel system by carrying out the B-scan and C-scan image acquisition of the water-immersed mechanical components.
引用
收藏
页码:1048 / 1058
页数:11
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