Building Recommendation Systems in Python: Design, Build, and Evaluate Recommender Engines with Machine Learning & AI in Python: From Collaborative Fi
You'll Learn
Understand the Foundations of Recommendation Systems: Grasp the core principles, historical context, and formal problem definition of recommendation systems, including user-item interactions and feedback types.
Identify Key Challenges in Recommender Systems: Learn to recognize and address common hurdles like data sparsity, the cold start problem, scalability, and ethical considerations in recommendation engine development.
Navigate the Recommendation System Landscape: Explore a comprehensive taxonomy of algorithms, including collaborative filtering, content-based methods, matrix factorization, and deep learning approaches, along with their diverse use cases across industries.
Master Essential Python Libraries and Tools: Become proficient in using core data science libraries such as NumPy, Pandas, and Scikit-learn, along with specialized tools like Surprise, Implicit, TensorFlow, and PyTorch for building recommendation systems.
Perform Robust Data Collection and Preprocessing: Acquire the skills to gather, clean, transform, and represent various types of data-user, item, interaction, and contextual-essential for training effective recommendation models.
Implement Core Recommendation Algorithms: Gain hands-on experience building and applying fundamental algorithms like User-Based and Item-Based Collaborative Filtering, and Content-Based Filtering from scratch and using established libraries.
Apply Matrix Factorization Techniques: Understand and implement advanced methods such as SVD, FunkSVD, ALS, and NMF to uncover latent factors in user-item interactions for accurate predictions.
Design and Utilize Knowledge-Based Systems: Learn when and how to leverage explicit knowledge and rules to build effective recommendation systems, particularly for complex items or sparse data scenarios.
Develop Hybrid Recommendation Approaches: Discover strategies for combining different recommendation techniques to overcome individual limitations and improve overall system performance and robustness.
Integrate Deep Learning into Recommenders: Explore how neural networks, including NCF, Autoencoders, RNNs, and CNNs, can model complex patterns and enhance recommendation accuracy, especially with diverse data types.
Incorporate Context into Recommendations: Understand the significance of contextual information and apply techniques like Tensor Factorization and Factorization Machines to build more personalized and relevant context-aware systems.
Explore Reinforcement Learning for Dynamic Recommendations: Get an introduction to framing recommendation as an RL problem, utilizing concepts like Multi-Armed Bandits and Q-Learning for adaptive and sequential recommendations.
Evaluate Recommendation Systems Effectively: Master a range of offline and online evaluation metrics, including MAE, RMSE, Precision, Recall, NDCG, and A/B testing, to rigorously assess model performance and business impact.
Build Scalable Recommendation Engines: Learn architectural considerations, data pipeline design, model serving strategies, and distributed computing frameworks necessary for deploying robust, production-ready recommendation systems.
Analyze Real-World Recommendation Systems: Examine detailed case studies of prominent recommendation systems from industry leaders like Netflix, Amazon, Spotify, and YouTube to gain insights from practical applications.
Anticipate Future Trends in Recommendations: Stay ahead by understanding emerging areas such as Explainable AI, conversational recommenders, cross-domain systems, federated learning, and the role of LLMs.
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