This project is a Jupyter Notebook implementation for predicting stock prices using a time-series approach. The notebook leverages libraries such as pandas
, numpy
, and matplotlib
for data handling and visualization, and TensorFlow
for creating and training the neural network model.
- Overview
- Dataset
- Installation
- Usage
- Key Steps in the Notebook
- Model Details
- Results
- Future Improvements
- License
This notebook demonstrates how to apply time-series analysis and neural networks to forecast future stock prices. The workflow includes:
- Preprocessing the stock price data.
- Visualizing trends in the data.
- Normalizing the dataset.
- Training a neural network for time-series predictions.
- Evaluating model performance on unseen data.
The project uses stock price data stored locally or fetched externally. Ensure your dataset has columns such as:
Date
: The date of the stock price observation.Open
,High
,Low
,Close
: Stock price metrics.Volume
: Volume of stock traded.
Date | Open | High | Low | Close | Volume |
---|---|---|---|---|---|
2022-01-01 | 100.5 | 105.0 | 99.0 | 103.5 | 1500000 |
2022-01-02 | 103.5 | 107.5 | 102.0 | 106.0 | 1700000 |
- Clone this repository to your local machine.
- Create a virtual environment (optional but recommended):
python -m venv env source env/bin/activate # On Windows, use `env\Scripts\activate`
- Install the required Python packages:
pip install -r requirements.txt
- Ensure Jupyter Notebook is installed:
pip install notebook
- Open the Jupyter Notebook:
jupyter notebook
- Navigate to and open
Stock_Price_Prediction_Time_Series_NN.ipynb
. - Follow the step-by-step cells to:
- Preprocess the dataset.
- Train the neural network model.
- Evaluate and visualize predictions.
Essential libraries like pandas
, numpy
, matplotlib
, and TensorFlow
are imported.
- Load the dataset and check for null values or inconsistencies.
- Normalize the data to improve the model's performance.
- Convert stock prices into a supervised learning format by defining
X
(inputs) andy
(outputs).
- Use TensorFlow/Keras to create a Sequential model with layers such as:
- LSTM or GRU for handling time-series patterns.
- Dense layers for prediction output.
- Use the training data to fit the model over several epochs.
- Monitor the training loss and validation loss.
- Generate predictions for the test set.
- Plot actual vs. predicted stock prices to analyze performance.
The neural network is designed for time-series forecasting and includes:
- Input Layer: Time-series data.
- Hidden Layers: Recurrent layers like LSTM or GRU, followed by Dense layers.
- Output Layer: Single value prediction for the next time step.
- Epochs: Variable based on dataset size (e.g., 50-100).
- Batch size: E.g., 32.
- Optimizer:
Adam
.
The project evaluates model performance using metrics like Mean Absolute Error (MAE) and plots to visualize predictions vs. actual data. Ensure sufficient training data for better accuracy.
- Training Loss: 0.05
- Validation Loss: 0.08
- MAE: 1.20
- Dataset Expansion: Use larger datasets with more diverse stock data.
- Feature Engineering: Incorporate technical indicators like moving averages or RSI.
- Model Tuning: Experiment with advanced architectures like Transformers for better performance.
This project is open-source and available under the MIT License.