8โ€“12 Sept 2026
Europe/Vienna timezone

Session

A09.00 Machine learning and artificial intelligence in acoustics

A09.00
11 Sept 2026, 08:40

Conveners

A09.00 Machine learning and artificial intelligence in acoustics: S053

  • Martin Hagmรผller (Signal Processing and Speech Communication Laboratory)
  • Alois Sontacchi (University of Music and Performing Arts)
  • Mirco Pezzoli
  • Franz Pernkopf (Signal Processing and Speech Communication Laboratory)

A09.00 Machine learning and artificial intelligence in acoustics: P509

  • Franz Pernkopf (Signal Processing and Speech Communication Laboratory)
  • Mirco Pezzoli
  • Alois Sontacchi (University of Music and Performing Arts)
  • Martin Hagmรผller (Signal Processing and Speech Communication Laboratory)

A09.00 Machine learning and artificial intelligence in acoustics: S386

  • Mirco Pezzoli
  • Alois Sontacchi (University of Music and Performing Arts)
  • Martin Hagmรผller (Signal Processing and Speech Communication Laboratory)
  • Franz Pernkopf (Signal Processing and Speech Communication Laboratory)

A09.00 Machine learning and artificial intelligence in acoustics: S388

  • Mirco Pezzoli
  • Martin Hagmรผller (Signal Processing and Speech Communication Laboratory)
  • Alois Sontacchi (University of Music and Performing Arts)
  • Franz Pernkopf (Signal Processing and Speech Communication Laboratory)

Presentation materials

There are no materials yet.

  1. Manuele Montrasio (Politecnico di Milano)
    11/09/2026, 08:40
    A09 Machine learning and artificial intelligence in acoustics

    In recent years, the adoption of surrogate modeling in vibroacoustics applications is being explored. Artificial Neural Networks (ANNs) are proving their effectiveness in predicting structural vibration, and more recently their capabilities in sound radiation prediction is being investigating as well, paving the way for new research in the field. This paper explores the use of a Deep Neural...

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  2. Bence Bakos (Eรถtvรถs Lorรกnd University)
    11/09/2026, 09:00
    A09 Machine learning and artificial intelligence in acoustics

    The accurate prediction of low-frequency room acoustics relies on modal frequencies, traditionally computed using expensive numerical methods such as the Finite Element Method (FEM). This paper presents HERMES (Hierarchical Estimator for Room Modal Eigenvalue Synthesis), a physics-informed hierarchical mesh transformer that predicts the first 200 modal frequencies directly from 3D surface...

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  3. Xiran Zhang (Nantes University)
    11/09/2026, 09:00
    A09 Machine learning and artificial intelligence in acoustics

    Multi-Resolution Neural Networks (MuReNN) are a new generation of models for deep learning for speech and audio processing. Compared to convolutional networks (convnets), they are more resource-efficient, less sensitive to initialization, and may generalize better across recording conditions. The key idea behind MuReNN is to learn a filterbank in which each filter is factorized between a...

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  4. Matteo Calafร  (DTU Electro)
    11/09/2026, 09:20
    A09 Machine learning and artificial intelligence in acoustics

    Holomorphic neural networks have recently been proposed as two-dimensional universal function approximators constrained to produce holomorphic outputs. In this work, we combine holomorphic neural networks with Vekua operators toconstruct a machine learning architecture that inherently generates solutions tothe Helmholtz equation. This approach is particularly advantageous for two-dimensional...

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  5. Matteo Calafร  (DTU Electro)
    11/09/2026, 09:40
    A09 Machine learning and artificial intelligence in acoustics

    Estimating acoustic eigenfrequencies is essential in the design of rooms and buildings, particularly at low frequencies and/or small rooms. While analytical solutions exist for simple geometries, more general shapes and materials require numerical algorithms. In recent years, machine learning approaches for eigenvalue problems have been proposed, but their accuracy and robustness remain...

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  6. Yuanxin Xia (DTU Electro)
    11/09/2026, 10:20
    A09 Machine learning and artificial intelligence in acoustics

    Dynamic sound sources, such as footsteps or other moving sources, are common in real life but difficult to model because their characteristics and trajectory are often unknown. This paper presents a machine learning algorithm for sound field construction based on a temporal-frequency residual neural network. The algorithm is designed to capture how sound evolves across both time and frequency,...

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  7. Yuanxin Xia (DTU Electro)
    11/09/2026, 10:40
    A09 Machine learning and artificial intelligence in acoustics

    Neural implicit fields are a powerful framework for sound field regression, but their application to broadband problems has been challenged by the prohibitively expensive computational cost of training neural networks. To break this barrier, this paper proposes a massively parallel strategy via frequency stacking. This architecture factorizes the broadband problem into independent,...

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  8. Jiwon Seo (Fraunhofer IDMT)
    11/09/2026, 11:00
    A09 Machine learning and artificial intelligence in acoustics

    In this work, we investigate whether topological features derived from persistent homology of Takens embeddings can complement conventional acoustic features for environmental sound classification on the ESC-50 dataset. A compact statistical summary of persistence diagrams is extracted from short overlapping segments, aggregated at the recording level, and combined with conventional acoustic...

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  9. Rosa Ma Alsina-Pagรจs (La Salle, Universitat Ramรณn Llull)
    11/09/2026, 11:20
    A09 Machine learning and artificial intelligence in acoustics

    Anthropogenic underwater noise is becoming an increasing concern for marine ecosystems, especially in coastal and semi-enclosed areas exposed to intense commercial, industrial, and recreational vessel traffic. Within the DeuteroNoise project, we present an AI-driven framework to detect, characterize, and model vessel-generated underwater noise across five European marine basins: the North...

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  10. Jonathan Farr (University of Southatmpon)
    11/09/2026, 11:40
    A09 Machine learning and artificial intelligence in acoustics

    Effective anomaly detection in active sonar data is critical for the long-term monitoring of offshore Carbon Capture and Storage (CCS) sites, where early identification of leaks is essential for environmental safety and regulatory compliance. Multibeam sonar systems offer high-resolution imaging of the water column but produce large amounts of data, rendering conventional reconstruction-based...

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  11. Marc Arnela (La Salle, Universitat Ramรณn Llull)
    11/09/2026, 14:40
    A09 Machine learning and artificial intelligence in acoustics

    Reverse vending machines encourage recycling, but require automatic container classification. This is typically achieved by reading barcodes or using computer vision, which can fail due to unreadable codes or poor lighting. Recently, an active acoustic approach using sound waves has been proposed as an alternative, offering low computational cost and minimal maintenance. However, its...

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  12. Alfonso Caiazzo (University of Naples Federico II)
    11/09/2026, 15:00
    A09 Machine learning and artificial intelligence in acoustics

    The in-service acoustic performance of fibrous absorbers in aircraft fuselage linings is affected by installation variability and environmental exposure, yet their relative contributions remain poorly quantified. This work reframes the problem as a feature detectability task, where the sound absorption coefficient is used to infer the physical parameters governing its variability. Two...

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  13. Benedikt Mayrhofer (Signal Processing and Speech Communication Laboratory)
    11/09/2026, 15:20
    A09 Machine learning and artificial intelligence in acoustics

    This paper presents SPSC-HCM-16C, a benchmarkdataset1for patient-level respiratory disease classification from synchronized 16-channel lung soundrecordings collected in a real clinical environment.The dataset contains recordings from 183 subjects,including healthy controls and four respiratory diseasegroups, and supports three diagnostic settings: 2-class,3-class, and 5-class classification....

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