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Plasma-activated water: Generation, origin of reactive species and biological applications

  • (ken) Ostrikov Kostya (ken) Ostrikov
  • , Renwu Zhou
  • , Rusen Zhou
  • , Peiyu Wang
  • , Yubin Xian
  • , Anne Mai-Prochnow
  • , Xinpei Lu
  • , P. J. Cullen
  • , Kostya (Ken) Ostrikov
  • , Kateryna Bazaka
  • Queensland University of Technology
  • The University of Sydney
  • Huazhong University of Science and Technology
  • Australian National University

科研成果: 期刊稿件 › 文献综述 › 同行评审

711 引用 (Scopus)

摘要

Novel plasma-based technologies that offer maximum efficiency at minimal environmental costs are expected to further promote the sustainable societal and economic development. Unique transfer of chemical reactivity and energy from gaseous plasmas to water takes place in the absence of any other chemicals, but results in a product with a notable transient broad-spectrum biological activity, referred to as plasma-activated water (PAW). These features make PAW a green prospective solution for a wide range of biotechnology applications, from water purification to biomedicine. Here, we present a succinct review of how novel, efficient methods based on non-equilibrium reactive plasma chemistries can be applied to low-cost natural water sources to produce a prospective product with a wide range of applications while at the same time minimising the process steps and dramatically reducing the use of expensive and/or hazardous reagents. Despite the recent exciting developments in this field, there presently is no topical review which specifically focuses on the underlying physics and chemistry related to plasma-activated water. We focus specifically on the PAW generation, origin of reactive species present in PAW, its related analytical chemistry and potentially different mechanisms that regulate the bio-activities of PAW in different biotech-applications and their roles in determining PAW efficacy and selectivity. We then review recent advances in our understanding of plasma-water interactions, briefly outlining current and proposed applications of PAW in agriculture, food and biomedicine. Finally, we outline future research directions and challenges that may hinder translation of these technologies into real-life applications. Overall, this review will provide much needed insights into the fundamental aspects of PAW chemistry required for optimization of the biochemical activity of PAW and translation of this environment- A nd human-health-friendly, and energy-efficient strategy into real life applications.

源语言英语
期刊论文编号303001
期刊Journal of Physics D: Applied Physics
卷53
期30
DOI
出版状态已出版 - 22 7月 2020
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