Software or numerical codes:
zCFD - FV / HO CFD solver
Professional/research interests:
Future Aircraft Noise
Professional/research interests:
Acoustics, Acoustic Metamaterials, NVH, Electric vehicle NVH, Simulation and Experiment
What would you like UKAN to do for you?
- I would like to attend summer or winter schools or workshops in my area of interest (Acoustic metamaterials, Machine learning in Acoustics, Noise control, NVH).
- I am actively searching for a PhD position in field of Acoustics specifically related to Acoustic metamaterials.
How would you like to contribute to UKAN?
- I have an industrial experience working in NVH domain. I have specifically worked towards noise control (Sound package development - Testing and simulation) in automobiles.
- I have also worked on Source localization technique for my Master's Thesis titled" Sound Source Localization using Near-field Acoustic Holography (NAH) technique".
Professional/research interests:
My researches are focused on acoustics in air media (acoustic wave in non homogeneous materials), signal processing and in biomedical acoustics (acoustophoresis)
What would you like UKAN to do for you?
I would like to find a professional opportunity (postdoctoral position), either in acoustic applied to air media or in biomedical acoustics in order to discover new topics and to work with new collaborators
How would you like to contribute to UKAN?
I would like to bring my knowledge in each topics where i have acquired an expertise. I wish to contribute to the development of new acoustic experimental setup.
Professional/research interests:
Fluid Mechanics and acoustics: (i) Fundamentals: Computational Aero-Acoustics, Aerodynamics and Hydrodynamics, fluids-structure interaction, bio-fluids, particle flow. (ii) Applications: Power and thrust aero and marine production, wind and water turbines, water engineering, fusion energy, bio-fluids devices
What would you like UKAN to do for you?
Provide news about events
How would you like to contribute to UKAN?
Event organisation is needed.
Equipment:
Anechoic chamber of 27 m^3 fitted for high speed jet noise measurements, microphones array, flow and sound field visualisation apparatus (Schlieren, 3D PIV), two closed low speed wind tunnels with work sections of about 1m*1m, three high speed wind tunnels with work sections of about 0.2m *0.2m, force measurements and scanivalve pressure equipment.
Software or numerical codes:
Linear and non-linear acoustic solvers (linearised Euler e.g. [1], Westervelt equation e.g. [2]), sound-structure interaction codes; linear acoustics and structural dynamics (spectral decomposition) e.g. [3] and non-linear based on Westervelt and FEM/DEM e.g. [4] and WENO5 or FLIC DNS/LES solver e.g. [5].
[1] Avital EJ (2004). "Computation of sound in free and wall bounded domains." J Sound and Vibration 270(3) 483-494.
[2] Avital E, Musafir RE and Korakianitis T (2013). "Nonlinear Propagation of Sound Emitted by High Speed Wave Packets.", J Computational Acoustics 21(3) 1-21
[3] Avital E, Bholah N, Giovanelli CG and Miloh T (2017). "Sound Scattering by an Elastic Spherical Shell and its Cancellation using a Multi-pole Approach." Archives Acoustics 42(4) 697-705
[4] Suponitsky V, Avital E, Plant D and Munjiza A (2017). "PRESSURE WAVE IN LIQUID GENERATED BY PNEUMATIC PISTONS AND ITS INTERACTION WITH A FREE SURFACE." Int Journal Applied Mechanics 9(3) 1750037
[5] Avital E, Salvatore E, Munijza A, Suponitsky V, Plant D and Laberge M (2017). "Flow design and simulation of a gas compression system for hydrogen fusion energy production." Fluid Dynamics Research 49, 1-23