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The paper uses a trained encoder and a differentiable DSP chain to infer the processing applied to a reference recording and reproduce it on new audio. Its strongest claims are relative: lower spectral error than DeepAFx-ST and a chain approximating ST-ITO's, at 275× the speed of per-example search. The real-time C++ result (1.8× faster than real time on 128-sample buffers) matters for practical audio tools, but the evaluation is limited to spectral error, so perceptual quality and generalization to unseen effect chains remain open questions.
Sources coveringarXiv, LessWrong, Hugging Face, Quantum Zeitgeist

TAPE: Learning General Audio Effect Representations

arXiv2 min read

arXiv:2610.40759v1 Announce Type: cross Abstract: Musicians and mixing engineers often can decipher the signal processing chain they hear on a reference recording, then adapt it to new material. We present TAPE (Transformations of Audio Parameter Embeddings), which estimates this processing from the processed reference audio alone. An encoder trained to identify processors in eight major effect families maps the reference to an embedding. A differentiable digital signal processing (DSP) chain decodes the embedding into editable parameters in one forward pass and applies them to a different unprocessed recording. Its modules are equalization, compression, waveshaping, a small residual network, and reverberation. TAPE achieves lower spectral error than DeepAFx-ST, the previous state of the art for single-step regression, and lower spectral error than per-example search over a chain approximating ST-ITO's, while running 275$\times$ faster than that search. Because the decoder outputs DSP parameters, its chain can also run causally: a C++ implementation with the trained weights processed 128-sample buffers 1.8$\times$ faster than real time, with no missed deadlines.

Abstract:Musicians and mixing engineers often can decipher the signal processing chain they hear on a reference recording, then adapt it to new material. We present TAPE (Transformations of Audio Parameter Embeddings), which estimates this processing from the processed reference audio alone. An encoder trained to identify processors in eight major effect families maps the reference to an embedding. A differentiable digital signal processing (DSP) chain decodes the embedding into editable parameters in one forward pass and applies them to a different unprocessed recording. Its modules are equalization, compression, waveshaping, a small residual network, and reverberation. TAPE achieves lower spectral error than DeepAFx-ST, the previous state of the art for single-step regression, and lower spectral error than per-example search over a chain approximating ST-ITO's, while running 275$\times$ faster than that search. Because the decoder outputs DSP parameters, its chain can also run causally: a C++ implementation with the trained weights processed 128-sample buffers 1.8$\times$ faster than real time, with no missed deadlines.

Sound (cs.SD); Artificial Intelligence (cs.AI); Machine Learning (cs.LG); Audio and Speech Processing (eess.AS)

arXiv:2610.40759 [cs.SD]

(or arXiv:2610.40759v1 [cs.SD] for this version)

https://doi.org/10.48550/arXiv.2610.40759 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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Full text under the publisher's open licence · 265 words

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