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METAs-AEROFOILS: Metamaterial Embedded Trailing Aeroacoustic Structures for Quieter Flight

Sheffield Hallam University Engineering and Built Environment
✓ Funded (Competition) ⏰ Closing Soon metamaterials computational fluid dynamics aeroacoustics sustainable aviation aerospace engineering auxetic materials multiphysics simulation

Develop cutting-edge multiphysics simulation tools integrating turbulence, acoustics, and structural mechanics to innovate noise-reducing aerofoil designs. Leverage auxetic metamaterials to advance sustainable aviation technologies addressing global noise pollution.

AI-generated overview

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Why This Research Matters

This research tackles the widespread issue of aviation noise affecting millions globally, pioneering material-based solutions that avoid compromising aircraft performance. It advances net-zero emissions goals by integrating multifunctional materials to improve aerofoil efficiency and acoustic performance, setting new industry standards.

Auxetic Materials Aeroacoustics Computational Fluid Dynamics Metamaterials Multiphysics Simulation Sustainable Aviation

Project Description

This PhD project (METAs-AEROFOILS) investigates a novel approach to reducing aircraft noise by embedding auxetic metamaterials into aerofoil trailing edges. The research targets turbulent boundary layer–trailing edge (TBL-TE) noise, a major contributor to aircraft noise during landing. The project will: develop multiphysics simulation frameworks (fluid, acoustic, structural) model aerofoil performance with different material configurations study auxetic metamaterials with negative Poisson’s ratio perform experimental validation and material characterisation analyse trade-offs between noise reduction, aerodynamics, and structural behaviour The work will involve: high-performance computing (HPC) simulations GPU-enabled modelling access to national supercomputing resources experimental testing facilities The candidate will: publish in international journals present at major conferences (AIAA, UK Fluids Conference, etc.) collaborate with industry and research networks This project is part of a Graduate Teaching Assistantship (GTA), including up to 180 hours of teaching or research support annually.

Entry Requirements

1st or 2:1 Honours degree in:
Engineering
Applied Mathematics
Physics
Computing
or related field
Strong background in:
computational fluid dynamics
aerodynamics

Desirable:

knowledge of materials and structural mechanics

For international applicants:

IELTS 7.0 overall
minimum 6.5 in each component

How to Apply

Apply via Sheffield Hallam University online application form

Upload:

Personal statement (max 2 pages)
Two references or referee details
Degree certificate
IELTS (if applicable) + passport

Contact (recommended before applying):

h.viswanathan@shu.ac.uk

Application deadline: 07 May 2026
Interviews: TBC

Eligibility

UK/Home
EU
International

Supervisor Profile

DH
Dr H Viswanathan
Sheffield Hallam University, Engineering and Built Environment

Dr H Viswanathan leads research in computational aeroacoustics and fluid-structure interactions, specialising in advanced turbulence and noise control through innovative materials. Their work bridges engineering and materials science, contributing to sustainable flight technologies. Dr Viswanathan has collaborated internationally and published extensively in leading journals.

More PhDs with Dr H Viswanathan

METAs-AEROFOILS: Metamaterial Embedded Trailing Aeroacoustic Structures for Quieter Flight
Sheffield Hallam University Dr H Viswanathan Deadline: 07 May 2026

Explore novel auxetic metamaterials to revolutionize aeroacoustic noise control in aviation. Develop advanced multiphysics simulation tools to enable quieter, more efficient aircraft designs.

The project advances sustainable aviation by addressing noise pollution through engineered materials rather than add-on devices, supporting…

Aeroacoustics Metamaterials Computational Fluid Dynamics Sustainable Aviation