Automatic Equalization for Individual Instrument Tracks Using Convolutional Neural Networks
Florian Mockenhaupt, Joscha Simon Rieber, and Shahan Nercessian

TL;DR
This paper introduces a neural network-based system for automatic equalization of individual instrument tracks, which identifies instruments, predicts ideal spectra, and fine-tunes equalizer settings, improving sound quality in real-world recordings.
Contribution
The authors develop a differentiable neural network for parametric equalizer matching that leverages real-world data during training, enhancing accuracy over previous methods.
Findings
Reduces mean absolute error by 24% in equalizer matching
Subjectively improves tonal quality of instrument recordings
Enables automated training data generation for real-world scenarios
Abstract
We propose a novel approach for the automatic equalization of individual musical instrument tracks. Our method begins by identifying the instrument present within a source recording in order to choose its corresponding ideal spectrum as a target. Next, the spectral difference between the recording and the target is calculated, and accordingly, an equalizer matching model is used to predict settings for a parametric equalizer. To this end, we build upon a differentiable parametric equalizer matching neural network, demonstrating improvements relative to previously established state-of-the-art. Unlike past approaches, we show how our system naturally allows real-world audio data to be leveraged during the training of our matching model, effectively generating suitably produced training targets in an automated manner mirroring conditions at inference time. Consequently, we illustrate how…
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Taxonomy
TopicsMusic and Audio Processing · Music Technology and Sound Studies · Industrial Vision Systems and Defect Detection
