Acoustics researcher in the Joint Research Unit in Environmental Acoustics (UMRAE) - Lyon Campus (France)
Before November 2024, I was an Acoustics researcher in LVA - INSA Lyon (France), working on the application of CLEAN-T approach to sound source localisations on aircrafts.
Between 2019 and 2022 I was working on SoundBounce at Lios with Trinity College Dublin in the Fluids, Acoustics & Vibration group
Prior to this Dublin experience, I was a Postdoctoral Teaching Fellows in the Faculty of Sciences & Engineering of Sorbonne University (Paris, France)
I was working in both ∂'Alembert Institute and STMS-IRCAM. It mainly focused on acoustic imaging, machine learning and psychoacoustics.
Using beamforming and Clean-T algorithms coupled with large array of microphones (between 128 and 256) - Megamicros and MAMBO projects
Development of a soundproofing composite material: SoundBounce
Composite material property measurements
Using supervised and unsupervised Machine Learning algorithms.
Examples : Road traffic monitoring, construction site monitoring, etc.
Noise annoyance estimation (perceptual experience) and modelling.
Psychoacoustic indices modelling implementations in Python.
Journal of Sound and Vibration, Nov., 2022.
Agnieszka Ciochon, John Kennedy, Raphaël Leiba, Lara Flanagan, Mark Culleton
In BeBec. Berlin (2022)
Leiba R, Leclere Q, Julliard E
International Journal of Aeroacoustics, Sept., 2020.
Lara Flanagan, David Heaphy, John Kennedy, Raphaël Leiba, Henry Rice
Acta Acustica united with Acustica, Nov., 2019.
Leiba R, Ollivier F, Marchiano R, Misdariis N, Marchal J and Challande P
Thesis at: Université Pierre & Marie Curie - Paris 6
Leiba R -- December, 2017
In InterNoise. Hong-Kong (2017)
Leiba R, Ollivier F, Marchal J, Misdariis N and Marchiano R
In INTER-NOISE (2016)
Leiba R, Ollivier F, Marchiano R, Misdariis N and Marchal J
Acoustique & Technique., Nov., 2017.
Leiba R, Ollivier F, Marchal J, Misdariis N and Marchiano R
Abstract:
Noise, especially road traffic noise, is cited by many studies as a source of major societal concern. So far, public responses are based only on energy quantification of sound exposure, often by measuring or estimating LA or Lden, and sound-level reduction related decision are taken. Nevertheless, psychoacoustic studies have shown that the sound level explains only a small part of the perceived noise annoyance. It is interesting to have more information about the source of noise and not to reduce the information to its sound level. In this thesis a tool is proposed for estimating the noise annoyance induced by each road vehicle using its audio signal and noise annoyance models. To do so, the audio signal of the vehicle is isolated by using inverse methods, large microphones arrays and image processing to obtain its trajectory. The knowledge of the trajectory and of the signal allows the vehicle to be classified by a machine learning method according to Morel et al. taxonomy. Once its category obtained, the specific annoyance of the vehicle is estimated thanks to a noise annoyance model using psychoacoustic and energetic indices. This allows the estimation of specific noise annoyance for each vehicle within the road traffic. The application of this method is made during a measurement day on a large Parisian artery.
[ pdf ]
Noise mapping in urban environment: deployment of Megamicros on Jussieu campus
Caracterisation of damping and associated impact noise measuring in viscoelastic materials.