About This Course
PolyMath AI is an internationally acclaimed, modular course designed for those who want to understand the deep, underlying mathematics of Artificial Intelligence. It offers an immersive learning experience that takes you on a conceptual journey, starting with the geometry of data, moving through probabilistic and statistical learning, and culminating in the fascinating world of causality in AI systems.
This course is perfect for researchers, developers, and academic professionals who are eager to gain a deeper understanding of AI. The blend of rigorous theory and practical demonstrations using Python, PyTorch, and DoWhy ensures that you’ll walk away with the tools and knowledge to think critically and build interpretable, robust, and causally-aware AI systems. You’ll no longer have to rely on AI as a black box—this course empowers you to create AI models that you can truly understand and trust.
Aim
The PolyMath AI course aims to bridge the gap between advanced mathematical concepts and practical AI modeling. Through this course, you’ll gain the ability to design and evaluate intelligent systems that are grounded in geometry, probabilistic logic, and causal inference, equipping you with the skills to go beyond just empirical results and build more robust, transparent AI systems.
Learning Outcomes
- Understand the Core Concepts: You’ll master the essential mathematical concepts behind AI, from data distributions to causal inference, and apply them to real-world problems.
- Build Robust AI Models: This course helps you design models that aren’t just accurate but also reliable and interpretable.
- Science-First AI Approach: Learn how to prioritize ethical, interpretable AI, and develop systems that are based on solid scientific principles.
- Bridge Academia and Application: By the end of this course, you’ll have the practical skills needed to apply theoretical knowledge in real-world AI projects.
- Think Like a True AI Scientist: This course fosters the development of thinkers who can reason not just with AI systems, but about them, leading to smarter, more ethical AI solutions.
Course Structure
📅 Module 1 – Data Foundations & Statistical Learning
- Focus: Hypothesis Testing & Distributions
- AM Session: Dive deep into Kolmogorov-Smirnov tests on spam datasets and explore Bayesian inference for prioritizing real-time data streams.
- Hands-On: Compare Poisson and Gaussian distributions in email patterns and calculate p-values to understand feature significance in spam filtering.
📅 Module 2 – Model Optimization & Validation
- Focus: ROC Analysis & Gradient Descent
- AM Session: Learn how to derive Fβ-score thresholds for filters and understand Wolfe conditions for setting optimal learning rates in PySpark ML.
- Hands-On: Plot ROC curves and confidence intervals, and explore optimization techniques like line search for decision tree pruning.
📅 Module 3 – RAG Architecture & Vector Math
- Focus: Topological Data Analysis
- AM Session: Visualize document embeddings with manifold learning and understand the convergence of iterative re-ranking algorithms.
- Hands-On: Use Lagrange multipliers to balance MMR (Maximal Marginal Relevance) and perform persistent homology analysis on knowledge graph connections.
📅 Module 4 – Multi-Modal Systems & Metrics
- Focus: Measure Theory for AI
- AM Session: Learn Hausdorff distance for cross-modal alignment (e.g., text and sensor data) and explore σ-algebra construction for academic knowledge bases.
- Hands-On: Compute BLEU-4 scores with statistical significance testing and apply optimal transport theory for database alignment.
📅 Module 5 – Embedded AI & Optimization
- Focus: Convex Relaxation
- AM Session: Understand Karush-Kuhn-Tucker conditions for optimizing edge device power constraints and explore semidefinite programming for model quantization.
- Hands-On: Solve sensor deployment as a traveling salesman problem and optimize FPGA resource allocation with integer linear programming.
📅 Module 6 – Integrated Capstone & Validation
- Focus: Causal Inference
- AM Session: Learn how to evaluate AI system impact using Do-calculus and conduct Shapley value analysis for multi-component systems.
- Hands-On: Build counterfactual scenarios for edge AI failure modes and perform sensitivity analysis across Big Data → RAG → Edge pipelines.
Course Outcomes
- Master the Math: Gain a solid understanding of the core mathematical principles behind AI models and how they generalize to new data.
- Visualize High-Dimensional Data: Use geometric tools to analyze and visualize complex, high-dimensional data.
- Develop Robust Models: Learn to build probabilistic models that quantify uncertainty and make robust predictions.
- Apply Causal Inference: Master the use of causal inference to make AI systems more transparent and decision-ready.
- Certificate of Mastery: Receive a certificate that showcases your advanced AI methodology training, demonstrating your expertise to peers and employers.
Who Should Enrol?
- PhD students and researchers in AI, Data Science, Mathematics, or Physics
- AI/ML engineers interested in model interpretability and causality
- Applied statisticians and economists working with predictive or decision models
- Academicians developing theory-backed AI systems









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