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This research introduces LARM, a novel architecture for automatic speech recognition (ASR) that effectively scales inference performance by dynamically adjusting the depth of recurrent Transformer loops. By treating test-time computation as a controllable axis rather than relying on larger frozen models or naive repetition, the method significantly reduces word error rates while maintaining parameter efficiency. The study demonstrates that advanced compute scaling strategies can successfully extend beyond autoregressive language modeling into continuous non-autoregressive speech recognition tasks.
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Test-Time Compute Scaling for ASR with Depth-Conditioned Looped Transformers

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arXiv:2606.04678v2 Announce Type: replace Abstract: End-to-end ASR systems typically use fixed-depth acoustic encoders at inference, making it difficult to trade additional test-time computation for improved recognition without training a larger model. A natural approach is to reuse a shared Transformer block recurrently, but we find that naive looping does not fully exploit additional recurrent compute. We introduce LARM, a depth-conditioned looped Transformer that turns recurrent encoder depth into a controllable test-time compute axis. LARM combines sparse CTC checkpoints, supervision-clock embeddings, FiLM depth conditioning, and delayed soft-posterior feedback. These components structure the loop into recognition checkpoints separated by latent refinement phases and allow shared weights to specialize across recurrent steps. On LibriSpeech, LARM improves WER as the number of inference loops increases and achieves performance competitive with deeper unshared-parameter baselines. Our results show that test-time compute scaling can extend beyond autoregressive language-model reasoning to continuous non-autoregressive speech recognition.

Abstract:End-to-end ASR systems typically use fixed-depth acoustic encoders at inference, making it difficult to trade additional test-time computation for improved recognition without training a larger model. A natural approach is to reuse a shared Transformer block recurrently, but we find that naive looping does not fully exploit additional recurrent compute. We introduce LARM, a depth-conditioned looped Transformer that turns recurrent encoder depth into a controllable test-time compute axis. LARM combines sparse CTC checkpoints, supervision-clock embeddings, FiLM depth conditioning, and delayed soft-posterior feedback. These components structure the loop into recognition checkpoints separated by latent refinement phases and allow shared weights to specialize across recurrent steps. On LibriSpeech, LARM improves WER as the number of inference loops increases and achieves performance competitive with deeper unshared-parameter baselines. Our results show that test-time compute scaling can extend beyond autoregressive language-model reasoning to continuous non-autoregressive speech recognition.

Machine Learning (cs.LG)

arXiv:2606.04678 [cs.LG]

(or arXiv:2606.04678v2 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2606.04678 Focus to learn more arXiv-issued DOI via DataCite

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