Experimental Study on Plasma Flow Control of Symmetric Flying Wing Based on Two Kinds of Scaling Models

The symmetric flying wing has a simple structure and a high lift-to-drag ratio. Due to its complicated surface design, the flow field flowing through its surface is also complex and variable, and the three-dimensional effect is obvious. In order to verify the effect of microsecond pulse plasma flow...

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Main Authors: Like Xie, Hua Liang, Menghu Han, Zhongguo Niu, Biao Wei, Zhi Su, Bingliang Tang
Format: Article
Language:English
Published: MDPI AG 2019-10-01
Series:Symmetry
Subjects:
Online Access:https://www.mdpi.com/2073-8994/11/10/1261
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author Like Xie
Hua Liang
Menghu Han
Zhongguo Niu
Biao Wei
Zhi Su
Bingliang Tang
author_facet Like Xie
Hua Liang
Menghu Han
Zhongguo Niu
Biao Wei
Zhi Su
Bingliang Tang
author_sort Like Xie
collection DOAJ
description The symmetric flying wing has a simple structure and a high lift-to-drag ratio. Due to its complicated surface design, the flow field flowing through its surface is also complex and variable, and the three-dimensional effect is obvious. In order to verify the effect of microsecond pulse plasma flow control on the symmetric flying wing, two different sizes of scaling models were selected. The discharge energy was analyzed, and the force and moment characteristics of the two flying wings and the particle image velocimetry (PIV) results on their surface flow field were compared to obtain the following conclusions. The microsecond pulse surface dielectric barrier discharge energy density is independent of the actuator length but increases with the actuation voltage. After actuation, the stall angle of attack of the small flying wing is delayed by 4°, the maximum lift coefficient is increased by 30.9%, and the drag coefficient can be reduced by 17.3%. After the large flying wing is actuated, the stall angle of attack is delayed by 4°, the maximum lift coefficient is increased by 15.1%, but the drag coefficient is increased. The test results of PIV in the flow field of different sections indicate that the stall separation on the surface of the symmetric flying wing starts first from the outer side, and then the separation area begins to appear on the inner side as the angle of attack increases.
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spelling doaj.art-a699379377d94160b1c44492cf9f935d2022-12-22T02:57:41ZengMDPI AGSymmetry2073-89942019-10-011110126110.3390/sym11101261sym11101261Experimental Study on Plasma Flow Control of Symmetric Flying Wing Based on Two Kinds of Scaling ModelsLike Xie0Hua Liang1Menghu Han2Zhongguo Niu3Biao Wei4Zhi Su5Bingliang Tang6Science and technology on plasma dynamics laboratory, Air Force Engineering University, Xi’an 710038, ChinaScience and technology on plasma dynamics laboratory, Air Force Engineering University, Xi’an 710038, ChinaAir Force Harbin Flight Academy, Harbin 150000, ChinaAVIC Aerodynaiviics Research Institute, Harbin 150001, ChinaScience and technology on plasma dynamics laboratory, Air Force Engineering University, Xi’an 710038, ChinaScience and technology on plasma dynamics laboratory, Air Force Engineering University, Xi’an 710038, ChinaScience and technology on plasma dynamics laboratory, Air Force Engineering University, Xi’an 710038, ChinaThe symmetric flying wing has a simple structure and a high lift-to-drag ratio. Due to its complicated surface design, the flow field flowing through its surface is also complex and variable, and the three-dimensional effect is obvious. In order to verify the effect of microsecond pulse plasma flow control on the symmetric flying wing, two different sizes of scaling models were selected. The discharge energy was analyzed, and the force and moment characteristics of the two flying wings and the particle image velocimetry (PIV) results on their surface flow field were compared to obtain the following conclusions. The microsecond pulse surface dielectric barrier discharge energy density is independent of the actuator length but increases with the actuation voltage. After actuation, the stall angle of attack of the small flying wing is delayed by 4°, the maximum lift coefficient is increased by 30.9%, and the drag coefficient can be reduced by 17.3%. After the large flying wing is actuated, the stall angle of attack is delayed by 4°, the maximum lift coefficient is increased by 15.1%, but the drag coefficient is increased. The test results of PIV in the flow field of different sections indicate that the stall separation on the surface of the symmetric flying wing starts first from the outer side, and then the separation area begins to appear on the inner side as the angle of attack increases.https://www.mdpi.com/2073-8994/11/10/1261symmetric flying wingplasma flow controlenergystalldimensionless frequencyparticle image velocimetry
spellingShingle Like Xie
Hua Liang
Menghu Han
Zhongguo Niu
Biao Wei
Zhi Su
Bingliang Tang
Experimental Study on Plasma Flow Control of Symmetric Flying Wing Based on Two Kinds of Scaling Models
Symmetry
symmetric flying wing
plasma flow control
energy
stall
dimensionless frequency
particle image velocimetry
title Experimental Study on Plasma Flow Control of Symmetric Flying Wing Based on Two Kinds of Scaling Models
title_full Experimental Study on Plasma Flow Control of Symmetric Flying Wing Based on Two Kinds of Scaling Models
title_fullStr Experimental Study on Plasma Flow Control of Symmetric Flying Wing Based on Two Kinds of Scaling Models
title_full_unstemmed Experimental Study on Plasma Flow Control of Symmetric Flying Wing Based on Two Kinds of Scaling Models
title_short Experimental Study on Plasma Flow Control of Symmetric Flying Wing Based on Two Kinds of Scaling Models
title_sort experimental study on plasma flow control of symmetric flying wing based on two kinds of scaling models
topic symmetric flying wing
plasma flow control
energy
stall
dimensionless frequency
particle image velocimetry
url https://www.mdpi.com/2073-8994/11/10/1261
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