IEEE Trans Ultrason Ferroelectr Freq Control. 2014 Mar;61(3):481-95. doi: 10.1109/TUFFC.2014.2932.
Applications involving high-power ultrasound are expanding rapidly as ultrasonic intensification opportunities are identified in new fields. This is facilitated through new technological developments and an evolution of current systems to tackle challenging problems. It is therefore important to continually update both the scientific and commercial communities on current system performance and limitations. To achieve this objective, this paper addresses two key aspects of high-power ultrasonic systems. In the first part, the review of high-power applications focuses on industrial applications and documents the developing technology from its early cleaning applications through to the advanced sonochemistry, cutting, and water treatment applications used today. The second part provides a comprehensive overview of measurement techniques used in conjunction with high-power ultrasonic systems. This is an important and evolving field which enables design and process engineers to optimize the behavior and/or operation of key metrics of system performance, such as field distribution or cavitation intensity.
随着在新领域发现超声增强机会,涉及大功率超声波的应用正在迅速扩展。这得益于新技术的发展以及现有系统的演进,以应对具有挑战性的问题。因此,不断向科学界和商业界更新当前系统的性能和局限性非常重要。为了实现这一目标,本文介绍了大功率超声系统的两个关键方面。在第一部分中,对大功率应用的回顾重点关注工业应用,并记录了从早期的清洁应用到当今先进的超声化学、切割和水处理应用的发展技术。第二部分全面概述了与大功率超声系统一起使用的测量技术。这是一个重要且不断发展的领域,使设计和过程工程师能够优化系统性能的关键指标(如场分布或空化强度)的行为和/或操作。