Recent advancements in flow control using plasma actuators and plasma vortex generators

IF 2.8 Q2 THERMODYNAMICS Heat Transfer Pub Date : 2024-07-24 DOI:10.1002/htj.23131
Md. Abdullah, Muhammad Taharat Galib, Md. Shawkut Ali Khan, Tamanna Rahman, Md. Mosharrof Hossain
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Abstract

Flow‐control techniques have attracted significant attention in many scientific areas due to their ability to improve the effectiveness and regulate the flow of aerodynamic devices. This study explores the latest developments in flow‐control techniques, specifically concentrating on the cutting‐edge technologies of plasma vortex generators (PVGs) and actuators. By taking advantage of the ionization of gases or air, plasma actuators have become a viable method for modifying an object's aerodynamic properties without needing physical moving parts. These actuators create localized plasma discharges that interact with the surrounding flow to provide accurate separation control, boundary‐layer dynamics, and aerodynamic forces on aircraft wings, wind turbine blades, and other surfaces. PVG, which produce controlled vortical structures, offer a novel way to manipulate airflow with plasma actuators. These generators create swirling motions through plasma discharges that can be used in various technical applications, such as automotive, marine, and aviation, to modify boundary layers, reduce drag, and improve lift characteristics. This study offers an overview of recent work, focusing on the theoretical underpinnings, experimental validations, and practical applications of plasma‐based flow‐control technologies. Advances in plasma‐generating techniques, computational modeling approaches, and experimental configurations to optimize and comprehend the intricate fluid–structure interactions are covered in the debate. Moreover, the study delves into incorporating plasma‐based flow management into cars, renewable energy systems, and next‐generation aerospace designs, highlighting the possibility of increased agility, decreased emissions, and efficiency. It also discusses the difficulties and potential paths for developing these technologies further for use in business and industry, highlighting the necessity of dependable, scalable, and durable solutions. Finally, this study summarizes the most recent advancements in vortex generators and plasma actuators for flow control. It demonstrates how they have the power to revolutionize fluid dynamics and aerodynamics in a variety of engineering fields.
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利用等离子体致动器和等离子体涡流发生器进行流量控制的最新进展
由于流动控制技术能够提高空气动力装置的效率并调节流动,因此在许多科学领域都备受关注。本研究探讨了流量控制技术的最新发展,特别是等离子涡流发生器(PVG)和致动器的尖端技术。通过利用气体或空气的电离,等离子致动器已成为一种无需物理运动部件即可改变物体空气动力特性的可行方法。这些致动器产生局部等离子体放电,与周围的气流相互作用,为飞机机翼、风力涡轮机叶片和其他表面提供精确的分离控制、边界层动力学和空气动力。产生可控涡流结构的 PVG 为利用等离子体致动器操纵气流提供了一种新方法。这些发生器通过等离子体放电产生漩涡运动,可用于汽车、船舶和航空等各种技术应用领域,以改变边界层、减少阻力和改善升力特性。本研究概述了近期的工作,重点是基于等离子体的流量控制技术的理论基础、实验验证和实际应用。讨论涵盖了等离子体生成技术、计算建模方法和实验配置方面的进展,以优化和理解错综复杂的流体与结构之间的相互作用。此外,研究还深入探讨了如何将基于等离子体的流体管理应用于汽车、可再生能源系统和下一代航空航天设计,强调了提高灵活性、减少排放和提高效率的可能性。本研究还讨论了进一步将这些技术用于商业和工业的困难和潜在途径,强调了可靠、可扩展和持久解决方案的必要性。最后,本研究总结了用于流量控制的涡流发生器和等离子致动器的最新进展。它展示了涡流发生器和等离子体致动器如何在多个工程领域为流体动力学和空气动力学带来变革。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Heat Transfer
Heat Transfer THERMODYNAMICS-
CiteScore
6.30
自引率
19.40%
发文量
342
期刊最新文献
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