Active learning that maximizes ensemble disagreement across continuous amp knob settings reduces the number of recorded settings needed to train a parametric guitar amp model.
Hyper Recurrent Neural Network: Condition Mechanisms for Black-box Audio Effect Modeling
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abstract
Recurrent neural networks (RNNs) have demonstrated impressive results for virtual analog modeling of audio effects. These networks process time-domain audio signals using a series of matrix multiplication and nonlinear activation functions to emulate the behavior of the target device accurately. To additionally model the effect of the knobs for an RNN-based model, existing approaches integrate control parameters by concatenating them channel-wisely with some intermediate representation of the input signal. While this method is parameter-efficient, there is room to further improve the quality of generated audio because the concatenation-based conditioning method has limited capacity in modulating signals. In this paper, we propose three novel conditioning mechanisms for RNNs, tailored for black-box virtual analog modeling. These advanced conditioning mechanisms modulate the model based on control parameters, yielding superior results to existing RNN- and CNN-based architectures across various evaluation metrics.
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Parametric Neural Amp Modeling with Active Learning
Active learning that maximizes ensemble disagreement across continuous amp knob settings reduces the number of recorded settings needed to train a parametric guitar amp model.