Official repository for the paper, MidiBERT-Piano: Large-scale Pre-training for Symbolic Music Understanding.

Overview

MidiBERT-Piano


MIT License ARXIV LICENSE STAR ISSUE

Authors: Yi-Hui (Sophia) Chou, I-Chun (Bronwin) Chen

Introduction

This is the official repository for the paper, MidiBERT-Piano: Large-scale Pre-training for Symbolic Music Understanding.

With this repository, you can

  • pre-train a MidiBERT-Piano with your customized pre-trained dataset
  • fine-tune & evaluate on 4 downstream tasks
  • compare its performance with a Bi-LSTM

All the datasets employed in this work are publicly available.

Quick Start

If you'd like to reproduce the results (MidiBERT) shown in the paper, image-20210710185007453

  1. please download the checkpoints, and rename files like the following
MidiBERT/{CP/remi}/
result
└── finetune
	└── melody_default
		└── model_best.ckpt
	└── velocity_default
		└── model_best.ckpt
	└── composer_default
		└── model_best.ckpt
	└── emotion_default
		└── model_best.ckpt
  1. please refer to evaluation,

and you are free to go! (btw, no gpu is needed for evaluation)

Installation

  • Python3
  • Install generally used packages for MidiBERT-Piano:
git clone https://github.com/wazenmai/MIDI-BERT.git
cd MIDI-BERT
pip install -r requirements.txt

A. Prepare Data

All data in CP/REMI token are stored in data/CP & data/remi, respectively, including the train, valid, test split.

You can also preprocess as below.

1. download dataset and preprocess

  • Pop1K7
  • ASAP
    • Step 1: Download ASAP dataset from the link
    • Step 2: Use Dataset/ASAP_song.pkl to extract songs to Dataset/ASAP
  • POP909
    • preprocess to have 865 pieces in qualified 4/4 time signature
    • exploratory.py to get pieces qualified in 4/4 time signature and save at qual_pieces.pkl
    • preprocess.py to realign and preprocess
    • Special thanks to Shih-Lun (Sean) Wu
  • Pianist8
    • Step 1: Download Pianist8 dataset from the link
    • Step 2: Use Dataset/pianist8_(mode).pkl to extracts songs to Dataset/pianist8/mode
  • EMOPIA
    • Step 1: Download Emopia dataset from the link
    • Step 2: Use Dataset/emopia_(mode).pkl to extracts songs to Dataset/emopia/mode

2. prepare dict

dict/make_dict.py customize the events & words you'd like to add.

In this paper, we only use Bar, Position, Pitch, Duration. And we provide our dictionaries in CP & REMI representation.

dict/CP.pkl

dict/remi.pkl

3. prepare CP & REMI

./prepare_data/CP

  • Run python3 main.py . Please specify the dataset and whether you wanna prepare an answer array for the task (i.e. melody extraction, velocity prediction, composer classification and emotion classification).
  • For example, python3 main.py --dataset=pop909 --task=melody --dir=[DIR_TO_STORE_DATA]

./prepare_data/remi/

  • The same logic applies to preparing REMI data.

Acknowledgement: CP repo, remi repo

You may encode these midi files in different representations, the data split is in ***.

B. Pre-train a MidiBERT-Piano

./MidiBERT/CP and ./MidiBERT/remi

  • pre-train a MidiBERT-Piano
python3 main.py --name=default

A folder named CP_result/pretrain/default/ will be created, with checkpoint & log inside.

  • customize your own pre-training dataset Feel free to select given dataset and add your own dataset. To do this, add --dataset, and specify the respective path in load_data() function. For example,
# to pre-train a model with only 2 datasets
python3 main.py --name=default --dataset pop1k7 asap	

Acknowledgement: HuggingFace

Special thanks to Chin-Jui Chang

C. Fine-tune & Evaluate on Downstream Tasks

./MidiBERT/CP and ./MidiBERT/remi

1. fine-tuning

  • finetune.py
python3 finetune.py --task=melody --name=default

A folder named CP_result/finetune/{name}/ will be created, with checkpoint & log inside.

2. evaluation

  • eval.py
python3 eval.py --task=melody --cpu --ckpt=[ckpt_path]

Test loss & accuracy will be printed, and a figure of confusion matrix will be saved.

The same logic applies to REMI representation.

D. Baseline Model (Bi-LSTM)

./baseline/CP & ./baseline/remi

We seperate our baseline model to note-level tasks, which used a Bi-LSTM, and sequence-level tasks, which used a Bi-LSTM + Self-attention model.

For evaluation, in note-level task, please specify the checkpoint name. In sequence-level task, please specify only the output name you set when you trained.

  • Train a Bi-LSTM

    • note-level task
     python3 main.py --task=melody --name=0710
    • sequence-level task
     python3 main.py --task=composer --output=0710
  • Evaluate

    • note-level task:
     python3 eval.py --task=melody --ckpt=result/melody-LSTM/0710/LSTM-melody-classification.pth
    • sequence-level task
     python3 eval.py --task='composer' --ckpt=0710

The same logic applies to REMI representation.

Special thanks to Ching-Yu (Sunny) Chiu

E. Skyline

Get the accuracy on pop909 using skyline algorithm

python3 cal_acc.py

Since Pop909 contains melody, bridge, accompaniment, yet skyline cannot distinguish between melody and bridge.

There are 2 ways to report its accuracy:

  1. Consider Bridge as Accompaniment, attains 78.54% accuracy
  2. Consider Bridge as Melody, attains 79.51%

Special thanks to Wen-Yi Hsiao for providing the code for skyline algorithm.

Citation

If you find this useful, please cite our paper.

@article{midibertpiano,
  title={{MidiBERT-Piano}: Large-scale Pre-training for Symbolic Music Understanding},
  author={Yi-Hui Chou and I-Chun Chen and Chin-Jui Chang and Joann Ching, and Yi-Hsuan Yang},
  journal={arXiv preprint arXiv:2107.05223},
  year={2021}
}
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