Skip to content

larissadcew/Music-using-a-LSTM

Folders and files

NameName
Last commit message
Last commit date

Latest commit

 

History

4 Commits
 
 
 
 
 
 
 
 

Repository files navigation

🎵 Music Generation Using LSTM

This project explores the use of Long Short-Term Memory (LSTM) networks, a type of recurrent neural network (RNN), for generating music sequences. By training on a dataset of musical notes, the model learns patterns and generates new compositions, mimicking the style of the training data.


🔍 What Does This Project Do?

This project leverages deep learning to create a system that generates music by:

  • Training an LSTM model on sequences of musical data. 🎼
  • Learning patterns and dependencies in musical compositions. 🎹
  • Producing novel music sequences as output, capturing the structure and style of the dataset. 🎶

🛠️ Technologies Used

1. LSTM Networks

  • Sequential Data Processing: Designed to handle time-dependent data like music sequences.
  • Memory Cells: Retain relevant information over long time steps, crucial for capturing musical patterns.

2. TensorFlow/Keras

  • Framework for constructing and training the LSTM network.
  • Provides tools for sequence processing, model optimization, and loss computation.

3. MIDI Files Processing

  • Musical data is extracted, processed, and converted into a format suitable for LSTM training.
  • Libraries like music21 are used for handling MIDI files.

4. NumPy and Pandas

  • Facilitate numerical computations and preprocessing tasks.

🔧 How It Works

1. Dataset

The model is trained on a collection of MIDI files. These files are converted into sequences of notes or chords, representing the music as numerical data.

2. Preprocessing

  • Encoding Notes: Convert musical notes and chords into numerical representations.
  • Sequence Creation: Split the data into overlapping sequences to train the LSTM.
  • Normalization: Scale values to a range suitable for neural network training.

3. Model Architecture

  • Input Layer: Accepts sequences of encoded notes.
  • LSTM Layers: Capture temporal dependencies and patterns in the sequences.
  • Dropout Layers: Prevent overfitting by randomly disabling neurons during training.
  • Dense Layer with Softmax: Predicts the next note or chord in the sequence.

4. Training

  • Loss Function: Categorical cross-entropy measures the difference between predicted and actual notes.
  • Optimizer: Adam optimizer adjusts the model's weights for better predictions.
  • Epochs: Model is trained over multiple epochs to refine its understanding of musical patterns.

5. Music Generation

  • Seed Sequence: The model takes an initial sequence of notes as input.
  • Prediction: The trained LSTM predicts the next note, appending it to the sequence iteratively to generate a complete composition.

📊 Performance

  • Training Accuracy: Improves steadily as the model learns patterns in the data.
  • Generated Music: Produces coherent sequences that mimic the style of the training set.
  • Limitations: May occasionally generate repetitive or less structured sequences, depending on the diversity of the dataset.

🎯 Applications

This project demonstrates the potential of AI in creative domains like music composition. Applications include:

  • Music Generation: Automate the creation of melodies for video games, films, or personal use.
  • Assistance for Composers: Provide inspiration or base melodies for human composers.
  • AI and Art: Explore the intersection of technology and creativity.

🌟 Why Use This Project?

  • Hands-On Learning: Understand sequence modeling and LSTM networks in a creative context.
  • Scalability: Extend to other sequential data types, like text or stock prices.
  • Creative Exploration: Discover new ways AI can contribute to artistic endeavors.

Feel free to experiment with the code and datasets to create your own musical masterpieces! 🎵🚀

About

No description, website, or topics provided.

Resources

Stars

Watchers

Forks

Releases

No releases published

Packages

No packages published

Languages