all-in-one-music-structure-analyzer

Maintainer: sakemin

Total Score

4

Last updated 9/20/2024
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Model overview

all-in-one-music-structure-analyzer is a Cog implementation of the "All-In-One Music Structure Analyzer" model developed by Taejun Kim. This model provides a comprehensive analysis of music structure, including tempo (BPM), beats, downbeats, functional segment boundaries, and functional segment labels (e.g., intro, verse, chorus, bridge, outro). The model is trained on the Harmonix Set dataset and uses neighborhood attentions on demixed audio to achieve high performance. This model is similar to other music analysis tools like musicgen-fine-tuner and musicgen-remixer created by the same maintainer, sakemin.

Model inputs and outputs

The all-in-one-music-structure-analyzer model takes an audio file as input and outputs a detailed analysis of the music structure. The analysis includes tempo (BPM), beat positions, downbeat positions, and functional segment boundaries and labels.

Inputs

  • Music Input: An audio file to analyze.

Outputs

  • Tempo (BPM): The estimated tempo of the input audio in beats per minute.
  • Beats: The time positions of the detected beats in the audio.
  • Downbeats: The time positions of the detected downbeats in the audio.
  • Functional Segment Boundaries: The start and end times of the detected functional segments in the audio.
  • Functional Segment Labels: The labels of the detected functional segments, such as intro, verse, chorus, bridge, and outro.

Capabilities

The all-in-one-music-structure-analyzer model can provide a comprehensive analysis of the musical structure of an audio file, including tempo, beats, downbeats, and functional segment information. This information can be useful for various applications, such as music information retrieval, automatic music transcription, and music production.

What can I use it for?

The all-in-one-music-structure-analyzer model can be used for a variety of music-related applications, such as:

  • Music analysis and understanding: The detailed analysis of the music structure can be used to better understand the composition and arrangement of a musical piece.
  • Music editing and production: The beat, downbeat, and segment information can be used to aid in tasks like tempo matching, time stretching, and sound editing.
  • Automatic music transcription: The model's output can be used as a starting point for automatic music transcription systems.
  • Music information retrieval: The structural information can be used to improve the performance of music search and recommendation systems.

Things to try

One interesting thing to try with the all-in-one-music-structure-analyzer model is to use the segment boundary and label information to create visualizations of the music structure. This can provide a quick and intuitive way to understand the overall composition of a musical piece.

Another interesting experiment would be to use the model's output as a starting point for further music analysis or processing tasks, such as chord detection, melody extraction, or automatic music summarization.



This summary was produced with help from an AI and may contain inaccuracies - check out the links to read the original source documents!

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