Multi-Aspect Conditioning for Diffusion-Based Music Synthesis: Enhancing Realism and Acoustic Control

Music synthesis aims to generate audio from symbolic music representations, traditionally using techniques like concatenative synthesis and physical modeling. These methods offer good control but often lack expressiveness and realism in timbre. Recent advancements in diffusion-based models have enhanced the realism of synthesized audio, yet these models struggle with precise control over aspects like acoustics and timbre and are limited by the availability of high-quality annotated training data. In this paper, we introduce an advanced diffusion-based framework for music synthesis that further improves realism and introduces control through multi-aspect conditioning. This allows the synthesis from symbolic representations to accurately replicate specific performance and acoustic conditions. To address the need for precise multi-instrument target annotations, we propose using MIDI-aligned scores and automatic multi-instrument transcription based on neural networks. These methods effectively train our diffusion model with authentic audio, enhancing realism and capturing subtle nuances in performance and acoustics. As a second major contribution, we adopt conditioning techniques to gain control over multiple aspects, including score-related aspects like notes and instrumentation, as well as version-related aspects like performance and acoustics. This multi-aspect conditioning restores control over the music generation process, leading to greater fidelity in achieving the desired acoustic and stylistic outcomes. Finally, we validate our model's efficacy through systematic experiments, including qualitative listening tests and quantitative evaluation using Fréchet Audio Distance to assess version similarity, confirming the model's ability to generate realistic and expressive music, with acoustic control. Supporting evaluations and comparisons are detailed on our website (benadar293.github.io/multi-aspect-conditioning).

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Publication Details

Journal
IEEE Transactions on Audio Speech and Language Processing
Published
2024-11-28
DOI
https://doi.org/10.1109/taslp.2024.3507553
Primary Topic
Speech and Audio Processing
Type
article
Field-Weighted Citation Impact
0.00

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article

Multi-Aspect Conditioning for Diffusion-Based Music Synthesis: Enhancing Realism and Acoustic Control

Amit H. Bermano, Johannes Zeitler, Meinard Müeller, Ben Maman
IEEE Transactions on Audio Speech and Language Processing
Speech and Audio Processing
article

Multi-Aspect Conditioning for Diffusion-Based Music Synthesis: Enhancing Realism and Acoustic Control

Amit H. Bermano, Johannes Zeitler, Meinard Müeller, Ben Maman
article en

Abstract

Music synthesis aims to generate audio from symbolic music representations, traditionally using techniques like concatenative synthesis and physical modeling. These methods offer good control but often lack expressiveness and realism in timbre. Recent advancements in diffusion-based models have enhanced the realism of synthesized audio, yet these models struggle with precise control over aspects like acoustics and timbre and are limited by the availability of high-quality annotated training data. In this paper, we introduce an advanced diffusion-based framework for music synthesis that further improves realism and introduces control through multi-aspect conditioning. This allows the synthesis from symbolic representations to accurately replicate specific performance and acoustic conditions. To address the need for precise multi-instrument target annotations, we propose using MIDI-aligned scores and automatic multi-instrument transcription based on neural networks. These methods effectively train our diffusion model with authentic audio, enhancing realism and capturing subtle nuances in performance and acoustics. As a second major contribution, we adopt conditioning techniques to gain control over multiple aspects, including score-related aspects like notes and instrumentation, as well as version-related aspects like performance and acoustics. This multi-aspect conditioning restores control over the music generation process, leading to greater fidelity in achieving the desired acoustic and stylistic outcomes. Finally, we validate our model's efficacy through systematic experiments, including qualitative listening tests and quantitative evaluation using Fréchet Audio Distance to assess version similarity, confirming the model's ability to generate realistic and expressive music, with acoustic control. Supporting evaluations and comparisons are detailed on our website (benadar293.github.io/multi-aspect-conditioning).

IEEE Transactions on Audio Speech and Language ProcessingVol. 33
Tel Aviv University (IL), International Audio Laboratories Erlangen (DE), Academic College of Tel Aviv-Yafo (IL)
Deutsche Forschungsgemeinschaft
Openalex Percentile: Top 76%
Speech and Audio Processing
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