Cartography of a trombone sound regimes using a python implementation of a Support Vector Machine-based Explicit Design Space Decomposition

Self-sustained musical instruments are non-linear dynamical systems that can produce a large number of sound regimes, whose existence and stability depend on both design and a number of control parameters. Determining which regimes exist for given parameters and which one is reached in practice when several stable regimes coexist for identical parameters is of importance from both the making and playing points of view. In this article, we consider a physical model of a trombone, and produce cartographies of the sound regimes in the space of playing parameters associated to the musician, namely the blowing pressure and the lips parameters. In practice, boundaries of the parameters space regions corresponding to different regimes are defined explicitly using Support Vector Machines. This approach is implemented in an open-source python library <ns0:monospace>pyEDSD</ns0:monospace> which is presented here. Importantly, the method is not specific to the considered application and the library may be of interest for other applications, in particular in engineering.

Publication Details

Journal
Springer Link (Chiba Institute of Technology)
Published
2025-10-22
DOI
https://doi.org/10.1051/aacus/2025038/pdf
Primary Topic
Music Technology and Sound Studies
Type
article
Field-Weighted Citation Impact
0.00
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article

Cartography of a trombone sound regimes using a python implementation of a Support Vector Machine-based Explicit Design Space Decomposition

Springer Link (Chiba Institute of Technology)
Music Technology and Sound Studies
article

Cartography of a trombone sound regimes using a python implementation of a Support Vector Machine-based Explicit Design Space Decomposition

article en

Abstract

Self-sustained musical instruments are non-linear dynamical systems that can produce a large number of sound regimes, whose existence and stability depend on both design and a number of control parameters. Determining which regimes exist for given parameters and which one is reached in practice when several stable regimes coexist for identical parameters is of importance from both the making and playing points of view. In this article, we consider a physical model of a trombone, and produce cartographies of the sound regimes in the space of playing parameters associated to the musician, namely the blowing pressure and the lips parameters. In practice, boundaries of the parameters space regions corresponding to different regimes are defined explicitly using Support Vector Machines. This approach is implemented in an open-source python library <ns0:monospace>pyEDSD</ns0:monospace> which is presented here. Importantly, the method is not specific to the considered application and the library may be of interest for other applications, in particular in engineering.

Springer Link (Chiba Institute of Technology)
Openalex Percentile: Top 39%
Music Technology and Sound Studies
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