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11 PhD positions focusing on Acoustic Black holes within the ABHSSYS doctoral network

Project

The ABHSSYS project ambitions to disrupt noise reduction technologies while addressing the need for industrial decarbonization through a ground-breaking approach: Acoustic Black Holes (ABH). Unlike conventional noise reduction solutions, which often increase mass and carbon footprint, ABH offer significant noise reduction  without adding weight.

Across EU, 40% of the population is exposed to noise levels exceeding 55 dB(A), leading to health and social costs reaching 40 B€. Reducing noise pollution is therefore a central issue for the EU citizens well-being, and is associated with strong technological challenges in the field of vibroacoustics, particularly in the mechanical industry, one of the main source of noise pollution. ABH is a radically new technology and has strong scientific and industrial potentials, as it is intrinsically

i) parsimonious and environmentally friendly: its use reduces the mass and volume of acoustic treatments by around 20%;

ii) tunable: ABH enable considerable noise and vibration reduction with only minor or local modifications of the structuring, and are compatible with usual industrial processes;

iii) multifunctional: ABH can be applied to many industrial fields without requiring new designs.

Moreover, on top of all that, ABHSSYS is a green transition catalyst in terms of noise and vibration reduction.

ABHSSYS’s ambition is to train a new generation of 11 expert researchers in the field of vibro-acoustic engineering through an innovative interdisciplinary training programme.

Vacancies

11 PhD positions are open

🇧🇪 DC01: Robust localization of energy dissipation in complex structures incorporating ABH, Siemens Industry Software, Belgium

🇫🇷 DC02: Vibroacoustic control of fluid-filled pipes with add-on acoustic black holes, INSA-Lyon, France

🇪🇸 DC03: Higher-dimensional sonic black holes for wave control and noise reduction, FUNITEC, Barcelona, Spain

🇫🇷 DC04: Reduction of structure-borne noise using the “acoustic black hole” effect – application to noise control in an aircraft cabin, Le Mans Université, France

🇫🇷 DC05: Design of a double-walled panel for acoustic transmission control, using a metamaterial with time-varying properties and exploiting the “acoustic black hole” effect, Le Mans Université, France

🇨🇿 DC06: Thin aerial ABH tiles for room acoustics applications, CTU Prague, Czechia

🇪🇸 DC07: Investigation of aerial ABH as broadband and perfect anechoic terminations with optimal profiles, Universitat Politècnica de València, Spain

🇩🇰 DC08: VI-ABH attenuators for vibration mitigation of satellites,  Aalborg University, Denmark

🇪🇸 DC09: Shape and topological optimization of aerodynamic profiles with Acoustic Black Holes, CIMNE, Barcelona, Spain

🇫🇷 DC10: Acoustic insulation of lightweight partitions combining structural and aerial Acoustic Black Holes, METACOUSTICS, France

🇩🇰 DC11: Advanced ABH for mitigation of wave propagation in thin-walled structures under heavy fluid loading conditions, Aalborg University, Denmark

Posted on 10th June 2026 in Careers in acoustics