Zone Based Active Noise Control Via Head Tracking For An Aircraft Seat

9th Symposium on Fluid-Structure Interactions, Flow-Sound Interactions, Flow-Induced Vibration & Noise

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Field Value
 
Title Zone Based Active Noise Control Via Head Tracking For An Aircraft Seat
 
Creator Wintta Kidane Ghebreiyesus; Ryerson University
Fengfeng Xi; Ryerson University
 
Subject aircraft seat; active noise control
 
Description Aircraft passengers are in constant need for sufficient cabin noise reduction for travel comfort. In the past, conventional active noise control (ANC) systems have been used inside aircraft cabins to provide noise reduction. In recent years, the concept of placing compact ANC systems on either side of the headrest of a passenger seat is being applied to produce a zone of quiet (ZoQ) around the ears. This paper aims at improving the zone based active noise control for an aircraft passenger seat using virtual sensing and head tracking techniques.   A virtual sensing method will be introduced in order to represent the noise that a passenger would expect to hear at the ear. Virtual sensing allows for this representation even though the sensing microphones are installed in the seat’s headrest. The locations of the virtual sensors will be determined using a Matlab-based simulation with the goal of creating an ideal zone of quiet (ZoQ) with respect to the physical sensors. The second part of the paper will outline the heading tracking process of localising the ZoQ to around a moving mannequin head. The head tracking method will be developed to track the coordinates of the mannequin’s ears for the virtual sensing model when a passenger’s head is moving while seated. The software program Python is used with MS Kinect to use HSV parameters and face cascading for head tracking of the mannequin head.   The methods presented in this paper can be developed to accurately predict zones of quiet for various multiple input multiple output (MIMO) local ANC configurations. This work will provide a basis for the shape and size of the ZoQ with respect to the sound sources and desired location of cancellation. The virtual sensing and head tracking results will be presented in the final paper.
 
Publisher Paper Management System for FIV2018
 
Contributor
 
Date 2018-05-02 23:57:51
 
Type Peer-reviewed Paper
analytical
 
Format application/pdf
 
Identifier http://www.fiv2018.com/ocs/index.php/fiv2018/fivcan/paper/view/218
 
Source Paper Management System for FIV2018; FIV2018 Conference
 
Language en
 
Rights Authors who submit to this conference agree to the following terms:<br /> <strong>a)</strong> Authors retain copyright over their work, while allowing the conference to place this unpublished work under a <a href="http://creativecommons.org/licenses/by/3.0/">Creative Commons Attribution License</a>, which allows others to freely access, use, and share the work, with an acknowledgement of the work's authorship and its initial presentation at this conference.<br /> <strong>b)</strong> Authors are able to waive the terms of the CC license and enter into separate, additional contractual arrangements for the non-exclusive distribution and subsequent publication of this work (e.g., publish a revised version in a journal, post it to an institutional repository or publish it in a book), with an acknowledgement of its initial presentation at this conference.<br /> <strong>c)</strong> In addition, authors are encouraged to post and share their work online (e.g., in institutional repositories or on their website) at any point before and after the conference.
 

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