Aliasing-Aware RTNeural-Compatible WaveNet Modeling of Guitar Amplifier and Pedal Captures

This technical preprint reports an applied study of neural guitar amplifier and pedal modeling under a strict real-time export constraint. Trained models must be representable as RTNeural JSON, validate against TensorFlow/Keras reference inference, and run as causal low-latency DSP in a native C++ audio runtime. The study compares dense, recurrent, and convolutional candidates, and reports that WaveNet-style temporal convolutional networks produced the strongest end-to-end evidence in the tested 48 kHz mono paired-capture dataset. The paper evaluates clean, edge-of-breakup, crunch, rhythm, lead, and overdrive-pedal captures using waveform error, residual statistics, native real-time factor, and probe-based aliasing-to-signal ratio. The work is released as an open technical report associated with the RTNeural Trainer project.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-07-01
DOI
https://doi.org/10.5281/zenodo.21109536
Primary Topic
Music and Audio Processing
Type
preprint
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preprint

Aliasing-Aware RTNeural-Compatible WaveNet Modeling of Guitar Amplifier and Pedal Captures

Stephane Pericat
Zenodo (CERN European Organization for Nuclear Research)
Music and Audio Processing
preprint

Aliasing-Aware RTNeural-Compatible WaveNet Modeling of Guitar Amplifier and Pedal Captures

Stephane Pericat
preprint en

Abstract

This technical preprint reports an applied study of neural guitar amplifier and pedal modeling under a strict real-time export constraint. Trained models must be representable as RTNeural JSON, validate against TensorFlow/Keras reference inference, and run as causal low-latency DSP in a native C++ audio runtime. The study compares dense, recurrent, and convolutional candidates, and reports that WaveNet-style temporal convolutional networks produced the strongest end-to-end evidence in the tested 48 kHz mono paired-capture dataset. The paper evaluates clean, edge-of-breakup, crunch, rhythm, lead, and overdrive-pedal captures using waveform error, residual statistics, native real-time factor, and probe-based aliasing-to-signal ratio. The work is released as an open technical report associated with the RTNeural Trainer project.

Zenodo (CERN European Organization for Nuclear Research)
Short and Associates (United States) (US)
Industry, innovation and infrastructure
Music and Audio Processing
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