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Jobs Search
Start Date
Immediate
Expiry Date
23 Oct, 25
Salary
48149.0
Posted On
23 Jul, 25
Experience
0 year(s) or above
Remote Job
Yes
Telecommute
Yes
Sponsor Visa
No
Skills
Good communication skills
Industry
Information Technology/IT
THE ROLE
A 12-month post-doctoral Senior Research Associate position is available at the University of Bristol to implement the remarkable acoustic properties of biological metamaterials into bio-inspired sound absorber prototypes and reach incorporation readiness for a University spinout Attacus Acoustics. The role is co-funded by a BBSRC Follow-on fund (Biomimetic Microperforated Sound Absorbers) and an EPSRC Impact Acceleration Award (Attacus Metasurface – A leap towards market readiness) and aims at further advancing our prototypes, contributing to the creation of a spinout company, and achieving market readiness. The role does not entail but aims to eventually lead to co-founding and c-level leadership.
This interdisciplinary research project sits between biology and mechanical engineering. We have used innovative research methods to characterize the acoustic metamaterial properties of scaled moth wings and showed that they have evolved in response to bat biosonar to provide acoustic camouflage (in analogy to visual camouflage). Our current bio-inspired sound absorber prototypes (patent pending) outperform existing noise control solutions, opening transformative noise control applications for many sizeable market segments. This post will build on our existing prototyping approaches to iteratively improve the performance and simplify the fabrication of bio-inspired sound absorber prototypes producing prototypes measuring several square-meters for acoustic characterisation. In collaboration with other team members this post will focus on the hitherto unexplored acoustic properties of the highly intricate 3-dimensional double-layered nano-porosity of moth wing scales aiming to add their functionality to existing prototype designs. The research will take place at Bristol University led by Professor Marc Holderied.
WHAT WILL YOU BE DOING?