用专用集成电路实现高频压电超声阵列的操作

A. Bernassau, T. Button, Kyusun Choi, S. Cochran, C. Démoré, L. Garcia-Gancedo, D. Hutson, T. Jackson, Hyunsoo Kim, Insoo Kim, C. Meggs, S. Trolier-McKinstry, R. Tutwiler
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引用次数: 7

摘要

将压电高频超声(HFUS)阵列与执行一系列功能的微制造应用专用集成电路(ASIC)集成在一起,对于超声成像具有几个优点。阵列/电子设备与数据采集/成像系统之间的信号电缆数量可以减少,从而降低成本并增加功能。电阻抗匹配也简化了,同样的方法可以减少内窥镜超声等应用的整体系统尺寸。本文中报告的工作演示了早期ASIC操作,其中工作频率约为30 MHz的压电复合材料HFUS阵列。该阵列在三种不同的模式下进行了测试。在捕捉模式下,用外部换能器作为超声波源,在音调模式下,用外部换能器作为接收器,可以看到清晰的信号。对三个阵列单元采用顺序激励的Pitch-catch模式也进行了成功的测试,并检测到可行信号。然而,这些相对较小,并且受到ASIC中混合信号源干扰的影响。然而,一个集成的HFUS - ASIC器件的两个主要组件的功能和兼容性已经被证明,进一步优化的方法是显而易见的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Operation of a high frequency piezoelectric ultrasound array with an application specific integrated circuit
Integration of a piezoelectric high frequency ultrasound (HFUS) array with a microfabricated application specific integrated circuit (ASIC) performing a range of functions has several advantages for ultrasound imaging. The number of signal cables between the array/electronics and the data acquisition / imaging system can be reduced, cutting costs and increasing functionality. Electrical impedance matching is also simplified and the same approach can reduce overall system dimensions for applications such as endoscopic ultrasound. The work reported in this paper demonstrates early ASIC operation with a piezocomposite HFUS array operating at approximately 30 MHz. The array was tested in three different modes. Clear signals were seen in catch-mode, with an external transducer as a source of ultrasound, and in pitch-mode with the external transducer as a receiver. Pitch-catch mode was also tested successfully, using sequential excitation on three array elements, and viable signals were detected. However, these were relatively small and affected by interference from mixed-signal sources in the ASIC. Nevertheless, the functionality and compatibility of the two main components of an integrated HFUS - ASIC device have been demonstrated and the means of further optimization are evident.
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