Towards Zero-Shot Amplifier Modeling: One-to-Many Amplifier Modeling via Tone Embedding Control |
Comparison of the performance of different conditioning methods: Concat and FiLM with both Tone Embedding from paired reference and Look-Up Table (LUT) mechanisms, including a variant of using unpaired audio reference. The following audio samples present the results discussed in Section 4.2.
Input |
Ground Truth |
Concat + LUT |
Concat + Paired tone embedding |
FiLM + LUT |
FiLM + Paired tone embedding |
FiLM + Unpaired tone embedding |
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Amp 1 | |||||||
Amp 2 | |||||||
Amp 3 | |||||||
Amp 4 | |||||||
Amp 5 | |||||||
Amp 6 | |||||||
Amp 7 | |||||||
Amp 8 | |||||||
Amp 9 |
We evaluate three reference tone embedding methods based on FiLM conditioning and unpaired reference. The following audio samples present the results discussed in Section 4.3.
Input |
Ground Truth |
Non-retrieval embedding |
Mean embedding |
Nearest embedding |
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Amp 1 Low Gain | |||||
Amp 1 Low Gain | |||||
Amp 2 High Gain | |||||
Amp 2 High Gain |
We test our method’s capability to model a self-recorded guitar audio with unseen content and tone from the training process.
Lead L |
Lead R |
RH L |
RH R |
Solo |
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Clean tone | |||||
Amplifier Rendered audio | |||||
audio generated from our method |
We mixed these audio samples with bass, drum and keyboard tracks to test the overall quality in a real-world usage scenario. We recommend turning down the volume before listening to these results, as the dynamic range has not been compressed to preserve the characteristics of each track.