Concept and Objectives:

Reducing noise from aircraft operations perceived by airport neighbouring communities is a major challenge facing the aircraft manufacturing industry, social society and the air transport business. By adopting a whole aircraft approach based on the latest developments in active / adaptive technologies, flow control techniques and advances in computational aero-acoustics applied to the major causes of noise at source, OPENAIR aims to deliver a step change in noise reduction, beyond the SILENCE(R) achievements. The workplan clearly supports realistic exploitation of promising design concepts driven by noise reduction and will result in the development and validation up to TRL 5 of “2nd Generation” technology solutions. OPENAIR’s multidisciplinary approach and composition is suited to the projected integrated, lightweight solutions. The process includes a down-selection in mid project. The selected technologies will be subjected to scaled rig tests, and the resulting data will support assessment of the noise reduction solutions on powerplant and airframe configurations across the current and future European range of products. The project exploitation plan will include detailed proposals for further demonstration in the Clean Sky JTI. The verification of the technologies applicability will be assured by addressing identified integration and environmental tradeoffs (performance, weight, emissions). In this way OPENAIR will develop solutions that can play a significant role, in continuity with the previous Generation 1 effort, enabling future products to meet the ACARE noise goals and improving current fleet noise levels through retrofitting. This capability is key to providing the flexibility needed to simultaneously accommodate market requirements in all segments, global traffic growth and environmental constraints, while addressing the global environmental research agenda of the EU.

Public Documents

OPENAIR Final Publishable Summary

Open Access

A coupled thermomechanical beam finite element for the simulation of shape memory alloy actuators
Solomou, A. G.; Machairas, T. T.; Saravanos, D. A.
Journal of Intelligent Material Systems and Structures 2014
doi:10.1177/1045389X14526462

Jet noise control using the dielectric barrier discharge plasma actuators
Kopiev, V. F.; Bityurin, V. A.; Belyaev, I. V.; Godin, S. M.; Zaitsev, M. Yu.; Klimov, A. I.; Kopiev, V. A.; Moralev, I. A.; Ostrikov, N. N.
Acoustical Physics 2012
doi:10.1134/S1063771012040100

Setting up an experimental apparatus for the study of multimodal acoustic propagation with turbulent mean flow
Bailliet, H.; Boucheron, R.; Dalmont, J.-P.; Herzog, Ph.; Moreau, S; Valière, J.-C.
Applied Acoustics 2012
doi:10.1016/j.apacoust.2011.07.008

Large-Scale Slat Noise Studies within the Project OPENAIR
Herr, Michaela; Ewert, Roland; Pott-Pollenske, Stephan-Michael; Delfs, Jan Werner; Rudenko, Anton; Büscher, Alexander; Mariotti, Irene2014

Large-Scale Evaluation of Low-Noise Slat Technologies in OPENAIR
Herr, Michaela; Pott-Pollenske, Stephan-Michael; Ewert, Roland; Boenke, Dirk; Siebert, Jona; Delfs, Jan Werner; Rudenko, Anton; Büscher, Alexander; Friedel, Hendrik; Mariotti, Irene2015
doi:10.1016/j.jsv.2011.05.015., doi:10.1016/j.jsv.2015.07.005

Numerical and experimental characterization of fan noise installation effects.
Mincu, D.C.; Manoha, E.
HAL CCSD AerospaceLab 2014
doi:10.12762/2014.AL07-08

An experimental study of reducing narrowband noise of a slat using chevrons
Zaitsev, M. Yu.; Belyaev, I. V.; Kopiev, V. F.; Mironov, M. A.
MAIK NAUKA/INTERPERIODICA/SPRINGER Acoustical Physics 2012
doi:10.1134/S1063771012040161

Aeroacoustic Performance of Fractal Spoilers
Nedic, J.; Ganapathisubramani, B.; Vassilicos, J.C.; Borée, J.; Brizzi, L. E.; Spohn, A.
AIAA Journal 2012
doi:10.2514/1.J051387