activity
20182026
most citedExtended playing techniques: The next milestone in musical instrument recognition

8 citations · 20 across the 12 of their papers we have counts for

collaborators

12 papers

cs.SD2026

Musical Metamerism with Time--Frequency Scattering

Vincent Lostanlen, Han Han

The concept of metamerism originates from colorimetry, where it describes a sensation of visual similarity between two colored lights despite significant differences in spectral co…

cs.SD2026

SCRAPL: Scattering Transform with Random Paths for Machine Learning

Christopher Mitcheltree, Vincent Lostanlen, Emmanouil Benetos +1

The Euclidean distance between wavelet scattering transform coefficients (known as paths) provides informative gradients for perceptual quality assessment of deep inverse problems…

cs.SD2025

Emergent musical properties of a transformer under contrastive self-supervised learning

Yuexuan Kong, Gabriel Meseguer-Brocal, Vincent Lostanlen +2

In music information retrieval (MIR), contrastive self-supervised learning for general-purpose representation models is effective for global tasks such as automatic tagging. Howeve…

cs.SD2025★ 3 cited

S-KEY: Self-supervised Learning of Major and Minor Keys from Audio

Yuexuan Kong, Gabriel Meseguer-Brocal, Vincent Lostanlen +2

STONE, the current method in self-supervised learning for tonality estimation in music signals, cannot distinguish relative keys, such as C major versus A minor. In this article, w…

cs.SD2024

STONE: Self-supervised Tonality Estimator

Yuexuan Kong, Vincent Lostanlen, Gabriel Meseguer-Brocal +3

Although deep neural networks can estimate the key of a musical piece, their supervision incurs a massive annotation effort. Against this shortcoming, we present STONE, the first s…

cs.SD2023★ 6 cited

Fitting Auditory Filterbanks with Multiresolution Neural Networks

Vincent Lostanlen, Daniel Haider, Han Han +3

Waveform-based deep learning faces a dilemma between nonparametric and parametric approaches. On one hand, convolutional neural networks (convnets) may approximate any linear time-…

cs.SD2023

Mesostructures: Beyond Spectrogram Loss in Differentiable Time-Frequency Analysis

Cyrus Vahidi, Han Han, Changhong Wang +3

Computer musicians refer to mesostructures as the intermediate levels of articulation between the microstructure of waveshapes and the macrostructure of musical forms. Examples of…

cs.SD2023

Perceptual-Neural-Physical Sound Matching

Han Han, Vincent Lostanlen, Mathieu Lagrange

Sound matching algorithms seek to approximate a target waveform by parametric audio synthesis. Deep neural networks have achieved promising results in matching sustained harmonic t…

cs.SD2022

Differentiable Time-Frequency Scattering on GPU

John Muradeli, Cyrus Vahidi, Changhong Wang +4

Joint time-frequency scattering (JTFS) is a convolutional operator in the time-frequency domain which extracts spectrotemporal modulations at various rates and scales. It offers an…

cs.SD2020★ 2 cited

wav2shape: Hearing the Shape of a Drum Machine

Han Han, Vincent Lostanlen

Disentangling and recovering physical attributes, such as shape and material, from a few waveform examples is a challenging inverse problem in audio signal processing, with numerou…

cs.SD2020★ 1 cited

Time-Frequency Scattering Accurately Models Auditory Similarities Between Instrumental Playing Techniques

Vincent Lostanlen, Christian El-Hajj, Mathias Rossignol +3

Instrumental playing techniques such as vibratos, glissandos, and trills often denote musical expressivity, both in classical and folk contexts. However, most existing approaches t…

cs.SD2018★ 8 cited

Extended playing techniques: The next milestone in musical instrument recognition

Vincent Lostanlen, Joakim Andén, Mathieu Lagrange

The expressive variability in producing a musical note conveys information essential to the modeling of orchestration and style. As such, it plays a crucial role in computer-assist…