AI-Based Acoustic Source Recognition on the Cadence Platform

Cadence is a monitoring platform designed for acoustic and vibration sensors, commonly used in Smart Cities applications to detect anomalous events that may cause nuisances. This study focuses on the acoustic domain, utilizing Class I sound level meters to capture environmental noise. These sensors generate alerts based on predefined trigger conditions. The goal is to leverage the solution thanks to AI to analyze each alert and identify its source. This paper presents examples of acoustic monitoring and provides a brief overview of the AI model used for source recognition. A key application is construction site monitoring: site managers must ensure their activities do not generate excessive noise alerts due to threshold exceedances. When an alert is triggered, the AI system determines whether the noise originates from the construction site or an external source. Source recognition is crucial in acoustic monitoring to differentiate between various noise sources such as construction machinery, passing vehicles, or honking and other classes of possible urban sounds. This distinction enables more accurate noise assessments, allowing for better regulatory compliance and targeted mitigation strategies in urban environments. By integrating AI with Cadence, this approach enhances noise monitoring and improves decision-making in urban noise management.

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Publication Details

Journal
NOISE-CON proceedings
Published
2025-10-22
DOI
https://doi.org/10.3397/in_2025_1074418
Primary Topic
Speech Recognition and Synthesis
Type
article
Field-Weighted Citation Impact
0.00
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article

AI-Based Acoustic Source Recognition on the Cadence Platform

Thierry Mazoyer, Charles-Etienne Lamort, Julien PREUILH, Jean-Florent CROS et al.
NOISE-CON proceedings
Speech Recognition and Synthesis
article

AI-Based Acoustic Source Recognition on the Cadence Platform

Thierry Mazoyer, Charles-Etienne Lamort, Julien PREUILH, Jean-Florent CROS, Houda BENYAICH
article en

Abstract

Cadence is a monitoring platform designed for acoustic and vibration sensors, commonly used in Smart Cities applications to detect anomalous events that may cause nuisances. This study focuses on the acoustic domain, utilizing Class I sound level meters to capture environmental noise. These sensors generate alerts based on predefined trigger conditions. The goal is to leverage the solution thanks to AI to analyze each alert and identify its source. This paper presents examples of acoustic monitoring and provides a brief overview of the AI model used for source recognition. A key application is construction site monitoring: site managers must ensure their activities do not generate excessive noise alerts due to threshold exceedances. When an alert is triggered, the AI system determines whether the noise originates from the construction site or an external source. Source recognition is crucial in acoustic monitoring to differentiate between various noise sources such as construction machinery, passing vehicles, or honking and other classes of possible urban sounds. This distinction enables more accurate noise assessments, allowing for better regulatory compliance and targeted mitigation strategies in urban environments. By integrating AI with Cadence, this approach enhances noise monitoring and improves decision-making in urban noise management.

NOISE-CON proceedingsVol. 272(3)
ACOEM (France) (FR)
Openalex Percentile: Top 84%
Speech Recognition and Synthesis
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