Repository of laboratory assignments, experiments, and example implementations for the Machine Learning Lab course (Semester 6). This collection contains Jupyter notebooks, scripts, datasets pointers, and analysis reports intended to demonstrate concepts, algorithms, and practical workflows used in the course.
- Overview
- Learning goals
- Repository structure
- Prerequisites
- Quick start
- Running notebooks and scripts
- Datasets and data handling
- Reproducibility notes
- Contributing
- Maintainer and contact
- License
This repository contains practical implementations and lab exercises to help students learn and apply machine learning techniques. Typical content includes:
- Jupyter notebooks that walk through algorithms and experiments.
- Python scripts for data processing, training, and evaluation.
- Example visualizations and reports.
- Notes and README files describing experiment setup and results.
The materials are organized to be reproducible and easy to follow for students who want to run the experiments locally or adapt them for their assignments and projects.
By working through the materials in this repository you will:
- Understand and implement core supervised and unsupervised learning algorithms.
- Preprocess and explore real-world datasets using standard Python tools.
- Train, evaluate, and compare models using appropriate metrics.
- Visualize results and document experiments clearly.
- Develop reproducible workflows for machine learning experiments.
Note: actual folder names may vary. Adjust paths in commands below to match the repository layout.
- notebooks/ — Jupyter notebooks for experiments and demonstrations
- src/ — Reusable modules and helper functions (data loaders, models, utils)
- scripts/ — Standalone scripts for training, evaluation, or data processing
- data/ — Small sample datasets or pointers; large datasets are typically excluded
- reports/ — Plots, PDFs, or written lab reports
- requirements.txt — Python dependencies (if present)
- README.md — This file
If your repository uses different names, adapt the commands and paths accordingly.
Recommended Python environment:
- Python 3.8 or later
- pip (or conda) for package management
Common Python libraries used in the notebooks and scripts:
- numpy
- pandas
- scikit-learn
- matplotlib
- seaborn
- jupyterlab or notebook
Optional (depending on experiments):
- tensorflow or torch (PyTorch)
- seaborn, plotly for advanced visualization
If this repository includes a requirements.txt, install from it. If not, create a virtual environment and install the libraries you need.
-
Clone the repository
git clone https://github.com/techieRahul17/Machine_LearningLabSem6.git cd Machine_LearningLabSem6 -
Create and activate a virtual environment (venv example)
python -m venv .venv # macOS / Linux source .venv/bin/activate # Windows (PowerShell) .venv\Scripts\Activate.ps1 -
Install dependencies
- If
requirements.txtexists:pip install -r requirements.txt - Otherwise, install common packages:
pip install numpy pandas scikit-learn matplotlib seaborn jupyterlab
- If
-
Launch Jupyter
jupyter lab # or jupyter notebook -
Open the notebooks in
notebooks/to follow the labs step-by-step.
- Notebooks: open via Jupyter Lab/Notebook and execute cells in order. Look for top cells that set paths and seed values.
- Scripts: run from repository root. Example:
(Adjust the script name and arguments according to actual files.)
python scripts/train_model.py --config configs/experiment1.yaml
Tip: If notebooks reference data/ or relative paths, run the notebook or script from the repository root so the relative paths resolve correctly.
- Large datasets are typically not stored directly in the repository. Instead, notebooks include instructions or scripts to download and prepare datasets.
- Place local datasets under
data/following the structure expected by the notebooks, or update the path variables in the notebook to point at your dataset location. - Keep raw data separate from processed data; use
data/raw/anddata/processed/if following a simple pipeline convention.
- Set a fixed random seed for experiments where stochastic behavior matters (examples typically show how to do this).
- Record package versions (use
pip freeze > pip-freeze.txt) if you need to reproduce results across machines. - If heavy computation is required, consider sampling or using smaller subsets during development.
- Authored and Maintained by: Rahul V S
- Github: (https://github.com/techieRahul17)
This repository is provided under the MIT License unless otherwise specified. See the LICENSE file for details. If no license file exists and you want to reuse code from this repository, please contact the maintainer to clarify licensing terms.