Timbre analysis of music audio signals with convolutional neural networks
Jordi Pons, Olga Slizovskaia, Rong Gong, Emília Gómez, Xavier Serra
Paper appears method- or tooling-adjacent to AI workflows with partial ecosystem coverage.
The focus of this work is to study how to efficiently tailor Convolutional Neural Networks (CNNs) towards learning timbre representations from log-mel magnitude spectrograms. We first review the trends when designing CNN architectures. Through this literature overview we discuss which are the crucial points to consider for efficiently learning timbre representations using CNNs. From this discussion we propose a desig ...
n strategy meant to capture the relevant time-frequency contexts for learning timbre, which permits using domain knowledge for designing architectures. In addition, one of our main goals is to design efficient CNN architectures - what reduces the risk of these models to over-fit, since CNNs' number of parameters is minimized. Several architectures based on the design principles we propose are successfully assessed for different research tasks related to timbre: singing voice phoneme classification, musical instrument recognition and music auto-tagging.
Results & Benchmarks
No concrete benchmark grounding is available yet. Treat the page as context or an implementation starting point only.
The focus of this work is to study how to efficiently tailor Convolutional Neural Networks (CNNs) towards learning timbre representations from log-mel magnitude spectrograms.
Implementation Evidence Summary
ronggong/interspeech2018_submission01 is the closest maintained adjacent implementation (Matches contextual method/domain keyword: singing). It is not paper-verified; validate algorithm and evaluation setup against the paper before trusting reported metrics. Community adoption signal: 46 GitHub stars.
Reproduction Risks
- Adjacent implementations are not paper-verified
- Recommended repository is adjacent and not paper-verified.
- Adjacent implementation match confidence is low.
Hardware Notes
Expect multi-day setup/compute for meaningful reproduction based on current guidance.
Evidence disclosure
Evidence graph: 3 refs, 3 links.
Utility signals: depth 70/100, grounding 75/100, status medium.
Implementation Status
There is no verified maintained implementation yet. Use this baseline plan to decide whether to prototype now or defer.
- No maintained paper-verified implementation was found; start with the closest related repositories below.
- Compare repo methods against the paper equations/algorithm before trusting metrics.
- Create a minimal baseline implementation from the paper and use adjacent repos as references.
Reproduction readiness
Hardware requirements
- Expect multi-day setup/compute for meaningful reproduction based on current guidance.
No verified implementation available
- · No maintained repository has been identified for this paper. Check adjacent implementations or HF artifacts below.
No benchmark numbers could be verified. You will not be able to validate reproduction correctness against published numbers.
Closest related implementations
These are not paper-verified. Use them as reference points when no direct implementation is available.
- ronggong/interspeech2018_submission01AdjacentConfidence: LowStars: 46
Matches contextual method/domain keyword: singing
Hugging Face artifacts
No trustworthy direct or curated related Hugging Face artifacts were found yet.
Continue with targeted Hugging Face searches derived from the paper title and method context:
Tip: start with models, then check datasets/spaces if you need evaluation data or demos.
Direct artifact matches are currently sparse. Use targeted Hugging Face searches to quickly locate candidate models, datasets, and demos.
Research context
119
Citations
27
References
Tasks
Timbre, Computer science, Convolutional neural network, Spectrogram, Focus (optics), Singing, Deep learning, Artificial neural network
Methods
None detected
Domains
Speech recognition, Artificial intelligence
Evaluation & Human Feedback Data
Open this paper in HFEPX to review benchmark signals, evaluation modes, and human-feedback protocol context.
Open in HFEPXExplore Similar Papers
Jump to Paper2Code search queries derived from this paper's research context.
Related papers
-
Search on Paper2Code
Estimation of Clean Spectrogram Noisy Value Functions Based on Metropolis Iterative Algorithm. (2013) Semantic similarity
-
Search on Paper2Code
Disentangling Timbre and Singing Style with Multi-singer Singing\n Synthesis System (2019) Semantic similarity
-
Search on Paper2Code
Disentangling Timbre and Singing Style with Multi-Singer Singing Synthesis System (2020) Semantic similarity
-
Search on Paper2Code
Implementing convolutional neural network model for prediction in medical imaging (2022) Semantic similarity
-
Search on Paper2Code
Deep Convolution Neural Network for RBC Images (2022) Semantic similarity
Need human evaluators for your AI research? Scale annotation with expert AI Trainers.