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This study provides critical insights into the architectural trade-offs of Large Audio Language Models (LALMs), specifically regarding the efficacy of continuous versus discrete tokenization paradigms. The findings demonstrate that simply scaling model backbones cannot recover information lost during suboptimal audio representation, particularly in data-constrained scenarios. For researchers and engineers building next-generation multimodal systems, this work offers essential guidance on balancing semantic density with computational efficiency without relying on inflated model sizes.
Discrete vs. Continuous: A Comprehensive Study of Unified Audio Understanding in LALMs
arXiv:2609.22851v2 Announce Type: replace-cross Abstract: Large Audio Language Models (LALMs) utilize either continuous features or discrete tokens, yet the optimal representation paradigm for general audio understanding remains debated. Existing benchmarks often focus on narrow domains or evaluate encoders outside LALM contexts. To address these gaps, we systematically evaluate continuous and discrete representations across speech, sound and music. Utilizing our UniARC framework with dual evaluation strategies across model scales from SmolLM2-135M to Llama-3-8B, we analyze the dynamic relationships of data volume, model capacity, and computational efficiency. Our results reveal the pivotal role of semantic constraints in tokenization for audio understanding and demonstrate that scaling backbones fail to compensate for information loss in audio representation, especially in data-limited tasks. These findings offer practical guidance for balancing semantic density, fidelity, and efficiency in future LALMs.
Title:Discrete vs. Continuous: A Comprehensive Study of Unified Audio Understanding in LALMs
Abstract:Large Audio Language Models (LALMs) utilize either continuous features or discrete tokens, yet the optimal representation paradigm for general audio understanding remains debated. Existing benchmarks often focus on narrow domains or evaluate encoders outside LALM contexts. To address these gaps, we systematically evaluate continuous and discrete representations across speech, sound and music. Utilizing our UniARC framework with dual evaluation strategies across model scales from SmolLM2-135M to Llama-3-8B, we analyze the dynamic relationships of data volume, model capacity, and computational efficiency. Our results reveal the pivotal role of semantic constraints in tokenization for audio understanding and demonstrate that scaling backbones fail to compensate for information loss in audio representation, especially in data-limited tasks. These findings offer practical guidance for balancing semantic density, fidelity, and efficiency in future LALMs.
Sound (cs.SD); Artificial Intelligence (cs.AI)
arXiv:2609.22851 [cs.SD]
(or arXiv:2609.22851v2 [cs.SD] for this version)
https://doi.org/10.48550/arXiv.2609.22851 Focus to learn more arXiv-issued DOI via DataCite
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