A comprehensive machine learning bootcamp journey covering foundational concepts to advanced deep learning techniques.
This repository contains assignments, notes, and projects from the KODECAMP 5X Machine Learning Core bootcamp program. The curriculum spans 13 weeks of intensive learning, progressing from machine learning fundamentals through advanced neural networks, transformers, and reinforcement learning.
GitHub Repository: Erickpython/kodeCamp_5X-MachineLearning
6 topics β’ 4 hours
- Fundamentals of ML concepts and paradigms
- Problem framing and evaluation metrics
- Data preprocessing essentials
7 topics β’ 4 hours
- Linear and logistic regression
- Classification algorithms and metrics
- Model evaluation and validation techniques
3 topics β’ 4 hours
- Decision trees and ensemble methods
- Support vector machines (SVM)
- Algorithm comparison and selection
4 topics β’ 4 hours
- Clustering algorithms (K-means, hierarchical clustering)
- Dimensionality reduction (PCA)
- Self-supervised learning approaches
4 topics β’ 4 hours
- Perceptrons and multilayer networks
- Backpropagation algorithm
- Activation functions and network architecture design
3 topics β’ 4 hours
- Gradient descent variants (SGD, Adam, RMSprop)
- Regularization techniques
- Hyperparameter tuning and learning curves
5 topics β’ 4 hours
- Convolution operations and architecture design
- Popular CNN architectures (VGG, ResNet, Inception)
- Computer vision applications
3 topics β’ 4 hours
- Recurrent neural networks (RNN, LSTM, GRU)
- Sequence modeling and time series prediction
- Natural language processing basics
4 topics β’ 4 hours
- Attention mechanism theory and implementation
- Transformer architecture
- Self-attention and multi-head attention
5 topics β’ 4 hours
- Transfer learning and pre-trained models
- Fine-tuning LLMs
- Prompt engineering and applications
3 topics β’ 4 hours
- Variational autoencoders (VAE)
- Generative adversarial networks (GAN)
- Diffusion models
3 topics β’ 4 hours
- Markov decision processes
- Q-learning and policy gradient methods
- Multi-agent systems and scaling strategies
Comprehensive project applying learned concepts to real-world problems
kodeCamp_5X-MachineLearning/
βββ README.md # Course overview and documentation
βββ requirements.txt # Python dependencies
βββ assignments/ # Weekly assignments and implementations
β βββ FeatureEngineering_Task3_Assignment.ipynb
β βββ LinearRegressionML.ipynb
β βββ LinearRegression_GradientDescent.ipynb
β βββ Logistic_Regression_with_Multiple_Variables.ipynb
β βββ MultivariableLinearRegression.ipynb
β βββ TASK3_LogisticRegression.ipynb
βββ lecture_notes/ # Learning materials and lecture notebooks
β βββ Feature_Engineering.ipynb
β βββ Lecture_Note_Logistic_Regression.ipynb
β βββ Random_Forest_with_SkLearn.ipynb
β βββ SVM_With_SkLearn.ipynb
βββ kodecampvenv/ # Python virtual environment
- Language: Python 3.12
- Core Libraries:
- NumPy - Numerical computing
- Pandas - Data manipulation and analysis
- Scikit-learn - Classical machine learning algorithms
- TensorFlow/Keras - Deep learning framework
- Jupyter - Interactive notebooks for learning and experimentation
- Matplotlib/Seaborn - Data visualization
- Python 3.12 or higher
- Virtual environment manager (venv)
- Git
-
Clone the repository:
git clone https://github.com/Erickpython/kodeCamp_5X-MachineLearning.git cd kodeCamp_5X-MachineLearning -
Activate the virtual environment:
source kodecampvenv/bin/activate -
Install dependencies:
pip install -r requirements.txt
-
Launch Jupyter Notebook:
jupyter notebook
This bootcamp follows a structured progression:
- Foundation (Weeks 1-2): Master ML basics and core regression/classification concepts
- Classical ML (Weeks 3-4): Explore traditional algorithms and unsupervised learning
- Neural Networks (Weeks 5-6): Deep dive into neural network fundamentals and optimization
- Advanced Deep Learning (Weeks 7-8): CNNs for vision and RNNs for sequences
- Modern Architectures (Weeks 9-10): Transformers and large language models
- Cutting-Edge Topics (Weeks 11-12): Generative models and reinforcement learning
- Capstone (Week 13): Apply all knowledge to solve real-world problems
- β Supervised & Unsupervised Learning
- β Neural Networks & Deep Learning
- β Computer Vision (CNNs)
- β Natural Language Processing (RNNs, Transformers)
- β Large Language Models (LLMs)
- β Generative Models (VAEs, GANs, Diffusion)
- β Reinforcement Learning
- β Model Optimization & Training Strategies
- β Feature Engineering & Data Preprocessing
- Assignments: Review and run notebook files in the
assignments/folder to see implementations of course concepts - Lecture Notes: Study the
lecture_notes/folder for additional learning materials and explanations - Experimentation: Use Jupyter notebooks for hands-on practice and experimentation
- Challenges: Complete exercises and apply concepts to new datasets
Upon completion of this bootcamp, you will be able to:
- Understand foundational ML theory and best practices
- Implement classical and modern ML algorithms
- Build and train neural networks from scratch
- Work with CNNs for computer vision tasks
- Implement sequence models for NLP
- Understand and apply transformer architectures
- Fine-tune and deploy large language models
- Explore generative and reinforcement learning
- Solve real-world ML problems with proper evaluation metrics
- Scikit-learn Documentation
- TensorFlow/Keras Guide
- Fast.ai Machine Learning Course
- Stanford CS229 - Machine Learning
For questions or discussions about the course material, feel free to open an issue on the GitHub repository.
Last Updated: December 2025
Status: π In Progress - Week 1 onwards
License: MIT