Design and development of a hybrid NACA 4412 morphing airfoil

03/02/2015
OAI : oai:www.see.asso.fr:10638:20095
DOI :
contenu protégé  Document accessible sous conditions - vous devez vous connecter ou vous enregistrer pour accéder à ou acquérir ce document.
- Accès libre pour les ayants-droit
 

Résumé

Design and development of a hybrid NACA 4412 morphing airfoil

Collection

application/pdf Design and development of a hybrid NACA 4412 morphing airfoil Johannes Scheller, Karl-Joseph Rizzo, Eric Duhayon, Jean-François Rouchon, Marianna Braza
Détails de l'article
contenu protégé  Document accessible sous conditions - vous devez vous connecter ou vous enregistrer pour accéder à ou acquérir ce document.
- Accès libre pour les ayants-droit

Design and development of a hybrid NACA 4412 morphing airfoil

Métriques

11
9
92.57 Ko
 application/pdf
bitcache://8555b4ada5329f340c8c9cef4011fc2c89f5a993

Licence

Creative Commons Aucune (Tous droits réservés)

Sponsors

Organisateurs

logoaaaf-05_162x120.jpg
logo_see.gif

Sponsors

airbus.jpg
logo_safran_lps_grand.png
logo-aero-def-fd-blanc.jpg
logoirtsaintexupery.jpg
logo_onera.jpg
logotoulousemetropole.jpg
craquitaine.jpg
crmip.jpg
<resource  xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
                xmlns="http://datacite.org/schema/kernel-4"
                xsi:schemaLocation="http://datacite.org/schema/kernel-4 http://schema.datacite.org/meta/kernel-4/metadata.xsd">
        <identifier identifierType="DOI">10.23723/10638/20095</identifier><creators><creator><creatorName>Johannes Scheller</creatorName></creator><creator><creatorName>Karl-Joseph Rizzo</creatorName></creator><creator><creatorName>Eric Duhayon</creatorName></creator><creator><creatorName>Jean-François Rouchon</creatorName></creator><creator><creatorName>Marianna Braza</creatorName></creator></creators><titles>
            <title>Design and development of a hybrid NACA 4412 morphing airfoil</title></titles>
        <publisher>SEE</publisher>
        <publicationYear>2017</publicationYear>
        <resourceType resourceTypeGeneral="Text">Text</resourceType><dates>
	    <date dateType="Created">Sun 1 Oct 2017</date>
	    <date dateType="Updated">Sun 1 Oct 2017</date>
            <date dateType="Submitted">Fri 20 Apr 2018</date>
	</dates>
        <alternateIdentifiers>
	    <alternateIdentifier alternateIdentifierType="bitstream">8555b4ada5329f340c8c9cef4011fc2c89f5a993</alternateIdentifier>
	</alternateIdentifiers>
        <formats>
	    <format>application/pdf</format>
	</formats>
	<version>34114</version>
        <descriptions>
            <description descriptionType="Abstract"></description>
        </descriptions>
    </resource>
.

Design and development of a hybrid NACA 4412 morphing airfoil Johannes Scheller (1), Karl-Joseph Rizzo (2), Eric Duhayon (3), Jean-François Rouchon (4), Marianna Braza (5) 1: LAPLACE, johannes.scheller@laplace.univ-tlse.fr, 2: LAPLACE, kjrizzo@laplace.univ-tlse.fr, 3: LAPLACE, eric.duhayon@laplace.univ-tlse.fr, 4: LAPLACE, rouchon@laplace.univ-tlse.fr, 5: IMFT, marianna.braza@imft.fr, Abstract The present paper will describe the design and development of a hybrid NACA 4412 morphing airfoil equipped with both Shape Memory Alloy Actuators providing large deformations over a limited frequency range as well as Macro Fiber Composite Actuators providing small deformations with a large bandwidth. The design choices will be highlighted, the electrical and mechanical actuation performances characterized and finally the static and dynamic effects on the flow will be evaluated and compared to the unactuated airfoil. Introduction Today’s wing geometries are usually a trade-off between the optimal shapes at different phases of the flight. Control surfaces, while modifying the aerodynamic characteristics of the airfoil, usually exhibit poor aerodynamic performance and efficiency [12]. Adaptive or morphing structures hold the potential to solve this problem and studies on wing deformation are subject of much interest in the aerospace domain. Recent advances made in the field of smart-materials have renewed this interest [18, 11]. The Electro-active morphing for micro-air- vehicles (EMMAV) research program, which was created as part of the French foundation of «Sciences et Technologies pour l’Aéronautique et l’Espace»’s effort to develop micro- and nano-air-vehicles and is composed of three French laboratories (IMFT, LAPLACE, ISAE), aims at optimizing the performance of micro-air-vehicles in realistic environments via electro-active morphing [15]. As part of this collaborative effort a prototype NACA 0012 wing was developed with embedded Shape memory alloys (SMA) and trailing-edge piezoelectric actuators. This allowed both large deformations (~10% of the chord) at limited frequency (≤ 1Hz) and small deformations (several µm) at high frequencies (≤100Hz) [4]. The characteristics of the SMA technology, which were activated using the well understood Joule effect [10], make it especially suitable to optimize the shape of the wing and to control the flight [1, 16]. The high-frequent but low amplitude piezoelectric technology on the other hand is useful to produce trailing-edge vortex breakdown [14, 8, 17]. Whereas the hybridization of different smart-materials is a first to the authors’ knowledge various previous studies have already addressed the use of SMAs [1, 10, 16] and piezoelectric actuators [2, 3, 9, 13] separately. Like in the previously mentioned hybrid prototype the materials used in these studies were fairly idealistic. To address the issues emerging when dealing with less compliant materials a second prototype was conceived addressing more industrial concerns. This paper will describe the design and development of this second prototype, which was designed based on a NACA 4412 airfoil, and highlight the integration issues encountered. This remainder of this abstract will briefly introduce the designed hybrid prototype, illustrate the design choices and used materials and provide an outlook on the full paper. Prototype As mentioned in the introduction the proposed hybrid NACA 4412 prototype was conceived in order to address industrial concerns such as the material choice, wing geometry, material distribution, etc. An illustration of the designed wing can be seen in Figure 1. As can be seen in the illustration the deformable area was limited to ~50% of the chord. Further constraints included the use of aluminium or carbon fiber instead of more compliant materials as well as the absence of a compliant skin. Fig. 1: NACA 4412 hybrid prototype In order to conduct flow visualizations the chord size of the prototype was limited to 45 cm. Due to the limited available space the high frequency vortex breakdown is to be done using Macro Fiber Composite (MFC) actuators. These piezoelectric fiber actuators provide a high frequency of actuation as well as a suitable displacement range. Conclusions and Outlook The work to be presented is developed twofold: first the actuation performance of the hybrid prototype from both a mechanical and electrical point of view is highlighted, including the maximum achievable deflection as well as the energy consumption. This data is then compared to the achievable gains both macroscopically in terms of lift increase and/or drag decrease as well as mesoscopically in terms of vortex breakdown. References 1. S. Barbarino, W. Dettmer, and M. Friswell. Morphing trailing edges with shape memory alloy rods. In Proceedings of 21st International Conference on Adaptive Structures and Technologies (ICAST), volume 4, 2010. 2. A. A. Bent. Active fiber composites for structural actuation. PhD thesis, Massachusetts Institute of Technology, 1997. 3. O. Bilgen, K. B. Kochersberger, D. J Inman, and O. J Ohanian III. Macro-fiber composite actuated simply supported thin airfoils. Smart Materials and Structures, 19(5):055010, 2010. 4. M. Chinaud, J. Scheller, J. F. Rouchon, E. Duhayon, and M. Braza. Hybrid Electroactive Wings Morphing for Aeronautic Applications. Solid State Phenomena, 198:200–205, 2013. 5. R. Dunsch and J-M. Breguet. Unified mechanical approach to piezoelectric bender modeling. Sensors and Actuators A, 2006. 6. A. Erturk. Electromechanical modeling of piezoelectric energy harvesters. PhD thesis, Virginia Polytechnic Institute and State University, 2009. 7. A. Erturk, O. Bilgen, M. Fontenille, and D. J Inman. Piezoelectric energy harvesting from macro-fiber composites with an application to morphing wing aircrafts. In Proceedings on the 19th international conference of adaptive structures and technologies, Monte Verità, Ascona, Switzerland, pages 6–9, 2008. 8. S. R. Hall, T. Tzianetopoulou, F. K Straub, and H. T Ngo. Design and testing of a double X-frame piezoelectric actuator. In SPIE’s 7th Annual International Symposium on Smart Structures and Materials, pages 26–37. International Society for Optics and Photonics, 2000. 9. E. B. Magrab. Vibrations of Elastic Systems: With Applications to MEMS and NEMS, volume 184. Springer, 2012. 10. J. E. Manzo. Analysis and design of a hyper- elliptical cambered span morphing aircraft wing. PhD thesis, Cornell University, 2006. 11. A-M. Rivas McGowan, W. K. Wilkie, R. W. Moses, R. C. Lake, J. Pinkerton Florance, Carol D Wieseman, M. C Reaves, B. K Taleghani, P. H Mirick, and M. L Wilbur. Aeroservoelastic and structural dynamics research on smart structures conducted at NASA langley research center. In 5th SPIE International Symposium on Smart Structures and Materials, San Diego, CA, 1998. 12. N. Ursache, T. Melin, A. Isikveren, and M. Friswell. Morphing Winglets for Aircraft Multi- Phase Improvement. In 7th AIAA ATIO Conf, 2nd CEIAT Int’l Conf on Innov & Integr in Aero Sciences,17th LTA Systems Tech Conf; followed by 2nd TEOS Forum, Aviation Technology, Integration, and Operations (ATIO) Conferences. American Institute of Aeronautics and Astronautics, September 2007. 13. J-S. Park and J-H. Kim. Analytical development of single crystal macro fiber composite actuators for active twist rotor blades. Smart materials and structures, 14(4):745, 2005. 14. E. F. Prechtl and S. R Hall. Design of a high efficiency, large stroke, electromechanical actuator. Smart Materials and Structures, 8(1):13, 1999. 15. J-F. Rouchon, D. Harribey, E. Derri, and M. Braza. Activation d’une voilure déformable par des câbles d’AMF répartis en surface. 20ème Congrès Français de Mécanique, 28 août/2 sept. 2011-25044 Besançon, France (FR), 2011. 16. G. Song and N. Ma. Robust control of a shape memory alloy wire actuated flap. Smart materials and Structures, 16(6):N51, 2007. 17. F. K Straub, D. K Kennedy, A. D. Stemple, VR Anand, and T. S Birchette. Development and whirl tower test of the SMART active flap rotor. San Diego, CA, USA, March, 2004. 18. T. A Weisshaar. Morphing aircraft systems: Historical perspectives and future challenges. Journal of Aircraft, 50(2):337–353, 2013.