Journal Article10.3390/plasma7010011
Plasma-Driven Sciences: Exploring Complex Interactions at Plasma Boundaries
A. Ishikawa,Kazunori Koga,Noriyasu Ohno +2 more
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TL;DR: Plasma-driven science explores complex interactions at plasma boundaries, investigating phenomena at the interface of plasma, liquids, and living organisms, requiring data-driven approaches and a comprehensive database to elucidate mechanisms and latent actions.
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Abstract: Plasma-driven science is defined as the artificial control of physical plasma-driven phenomena based on complex interactions between nonequilibrium open systems. Recently, peculiar phenomena related to physical plasma have been discovered in plasma boundary regions, either naturally or artificially. Because laboratory plasma can be produced under nominal conditions around atmospheric pressure and room temperature, phenomena related to the interaction of plasma with liquid solutions and living organisms at the plasma boundaries are emerging. Currently, the relationships between these complex interactions should be solved using science-based data-driven approaches; these approaches require a reliable and comprehensive database of dynamic changes in the chemical networks of elementary reactions. Consequently, the elucidation of the mechanisms governing plasma-driven phenomena and the discovery of the latent actions behind these plasma-driven phenomena will be realized through plasma-driven science.
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Citations
Plasma Shapes Optimized for Functional Output and Quantified by Entropy: a Review
Mahiro Aoki,Tomoyuki Murakami +1 more
TL;DR: This review examines various plasma shapes for industrial applications, quantifying entropy to determine its effectiveness in analyzing nonequilibrium plasma, finding that low-entropy plasma shapes have potential for functional output and work performance.
Effects of Plasma Ions/Radicals on Kinetic Interactions in Nanowall Deposition: A Review
Kenji Ishikawa
TL;DR: Review of plasma-enhanced chemical vapor deposition methods for carbon nanowall and vertical graphene nanosheet growth, focusing on the effects of plasma ions/radicals on kinetic interactions.
References
•Book
Introduction to Plasma Physics and Controlled Fusion
Francis F. Chen
- 21 Dec 2015
TL;DR: In this article, the authors presented a three-hour final exam on the theory of wave motion in a cold uniform plasma and showed that it can be viewed as a form of particle motion.
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The 2017 Plasma Roadmap: Low temperature plasma science and technology
Igor Adamovich,Scott D. Baalrud,Annemie Bogaerts,Peter Bruggeman,Mark A. Cappelli,Vittorio Colombo,Uwe Czarnetzki,Ute Ebert,Ute Ebert,James Gary Eden,Pietro Favia,David B. Graves,Satoshi Hamaguchi,Gary M. Hieftje,Masaru Hori,Igor Kaganovich,Uwe Kortshagen,Mark J. Kushner,Nigel J. Mason,Stéphane Mazouffre,S. Mededovic Thagard,Hans-Robert Metelmann,A. Mizuno,Eric Moreau,Anthony B. Murphy,Brendan A. Niemira,Gottlieb S. Oehrlein,Z. Lj. Petrović,Leanne Pitchford,Yi Kang Pu,Shahid Rauf,Osamu Sakai,Seiji Samukawa,Svetlana Starikovskaia,Jonathan Tennyson,Kazuo Terashima,Miles M. Turner,M.C.M. van de Sanden,Armelle Vardelle +38 more
TL;DR: The 2017 plasmas roadmap as mentioned in this paper is the first update of a planned series of periodic updates of the Plasma Roadmap, which was published by the Journal of Physics D: Applied Physics in 2012.
Oscillations in Ionized Gases
Lewi Tonks,Irving Langmuir +1 more
TL;DR: In this article, a simple theory of electronic and ionic oscillations in an ionized gas has been developed and the correlation between theory and observed oscillations is to be considered tentative until simpler experimental conditions can be attained.
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