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DCASE 2018 Challenge Surrey Cross-Task convolutional neural network baseline

Qiuqiang Kong, Turab Iqbal, Yong Xu, Wenwu Wang, Mark D. PlumbleyPublished Aug 2, 2018
DOI Publisher
Researcher verdict
Context only
Use as context only
Benchmark evidence
Missing
Not verified yet
Time to first repro
A few days
Plan setup time
Risk flags
2
Review before use

Abstract

Domain fit: Niche / domain-specific · No strong AI-core implementation/artifact signals were detected from current providers.

The Detection and Classification of Acoustic Scenes and Events (DCASE) consists of five audio classification and sound event detection tasks: 1) Acoustic scene classification, 2) General-purpose audio tagging of Freesound, 3) Bird audio detection, 4) Weakly-labeled semi-supervised sound event detection and 5) Multi-channel audio classification. In this paper, we create a cross-task baseline system for all five tasks based on a convlutional neural network (CNN): a "CNN Baseline" system. We implemented CNNs with 4 layers and 8 layers originating from AlexNet and VGG from computer vision. We investigated how the performance varies from task to task with the same configuration of neural networks. Experiments show that deeper CNN with 8 layers performs better than CNN with 4 layers on all tasks except Task 1. Using CNN with 8 layers, we achieve an accuracy of 0.680 on Task 1, an accuracy of 0.895 and a mean average precision (MAP) of 0.928 on Task 2, an accuracy of 0.751 and an area under the curve (AUC) of 0.854 on Task 3, a sound event detection F1 score of 20.8% on Task 4, and an F1 score of 87.75% on Task 5. We released the Python source code of the baseline systems under the MIT license for further research.

Results and benchmarks

Freshness tier: cold
The Detection and Classification of Acoustic Scenes and Events (DCASE) consists of five audio classification and sound event detection tasks: 1) Acoustic scene classification, 2) General-purpose audio tagging of Freesound, 3) Bird audio detection, 4) Weakly-labeled semi-supervised sound event detection and 5) Multi-channel audio classification.

Implementation

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Implementation evidence summary
Confidence: low

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Reproduction risks
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Reproduction readiness

Time to first repro: days
Last checked: Oct 26, 2026

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Hardware requirements

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Research context

29

Citations

18

References

Tasks

Computer science, Convolutional neural network, Python (programming language), Task (project management), Pattern recognition (psychology), Baseline (sea), Artificial neural network, acoustic scene classification

Methods

None detected

Domains

Artificial intelligence, Speech recognition, audio tagging

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