Chapter
1

What is Artificial Intelligence?

Introduction to Artificial Intelligence, covering core definitions, the AI spectrum (ANI, AGI, ASI), history, key subfields, and foundational ethical principles
2

Types of AI: Narrow, General, and Super Intelligence

Explanation of the types of AI. Understand the critical differences between Narrow AI (ANI), General AI (AGI), and Superintelligence (ASI).
3

AI, Machine Learning & Deep Learning: A Concept Hierarchy

Clarify the distinctions between AI, Machine Learning, and Deep Learning. Understand the hierarchy, applications, and trade-offs.
4

AI Industry Landscape and Career Opportunities

Explore the dynamic AI industry landscape, key market trends, and diverse career opportunities. A comprehensive guide for students and professionals.
5

Ethics and Responsible AI Development

AI ethics and responsible development. Analyze and mitigate bias, implement fairness, and build accountable AI systems using modern frameworks and tools.
6

Vector Fundamentals and Operations

Vector fundamentals for AI engineering. Learn to implement vector addition, dot products, and cosine similarity in Python with NumPy.
7

Vector Spaces and Linear Independence

Vector spaces, linear independence, and basis in AI. Learn the mathematical foundations and Python for dimensionality reduction and feature engineering.
8

Basic Matrix Operations and Properties

Fundamental matrix operations in AI. Learn matrix multiplication, addition, and transpose with Python/NumPy examples and real-world applications.
9

Advanced Matrix Operations and Decomposition

Advanced matrix decomposition (LU, QR, Cholesky) for AI and machine learning. Learn theory, Python implementation, and real-world applications.
10

Eigenvalues, Eigenvectors, and Matrix Decomp. Applications

Master eigenvalues, eigenvectors, and Principal Component Analysis (PCA). This chapter covers the theory, practical Python implementation.
11

Derivatives, Partial Derivatives, and the Chain Rule

Calculus foundations of AI, covering derivatives, partial derivatives, the chain rule, and gradient descent with Python examples in TensorFlow.
12

Multivariable Calculus and Gradient Descent

Multivariable calculus for AI. Learn to implement Gradient Descent, understand optimization landscapes, and use Python to train ML models.
13

Probability Theory: Basic Concepts and Distributions

Introduction to probability theory for AI engineering. Learn core concepts, distributions, and Python implementation for machine learning.
14

Statistics: Descriptive Statistics and Hypothesis Testing

Descriptive statistics and hypothesis testing for AI engineers. Learn to analyze data, run t-tests, and use Python for statistical inference.
15

Bayesian Statistics and Probability in Machine Learning

Bayesian statistics in AI. Learn to implement Bayesian inference, quantify uncertainty, and build probabilistic models in Python using PyMC.
16

Information Theory: Entropy, Cross-entropy, & KL Divergence

Detailed chapter on Information Theory in AI. Learn to implement and apply entropy, cross-entropy, and KL divergence in Python for machine learning.
17

Convex Optimization and Lagrange Multipliers

Convex optimization, Lagrange multipliers, and KKT conditions for AI. Learn the theory and implement solutions for SVMs and other ML models in Python.
18

Advanced Data Structures and Algorithms for AI Engineering

Master data structures, algorithms, OOP, and functional programming of python to build high-performance, scalable AI systems.
19

NumPy Mastery: Array Operations and Broadcasting

NumPy for AI and machine learning. This chapter covers array operations, broadcasting, vectorization, and advanced indexing with practical Python examples.
20

Pandas for Data Manipulation: DataFrames and Series

Pandas for AI and ML Applications. Learn to use DataFrames and Series for data cleaning, transformation, aggregation, and preparation for ML pipelines.
21

Matplotlib and Seaborn: Data Visualization for AI

Data visualization for AI. Learn to implement, analyze, and design effective plots for exploratory data analysis and model interpretation.
22

Jupyter Notebooks and Development Environment Setup

Learn to use Jupyter, VS Code, Git, and Poetry for reproducible and scalable machine learning projects for AI Engineering.
Chapter
1

Data Collection Strategies and Sources

Learn to gather high-quality data using APIs, web scraping with Python, and database queries. Includes practical code examples and industry best practices.
2

Data Quality Assessment and Profiling

Data quality assessment and profiling for AI. Learn to implement systematic data validation and profiling using Python, Great Expectations & other tools.
3

Data Privacy and Compliance (GDPR, CCPA)

Data privacy in AI. Learn to implement GDPR and CCPA compliance, use anonymization, differential privacy, and federated learning.
4

Real-time Data Streaming Architecture

Design and implement real-time data streaming architectures for machine learning using Apache Kafka and Apache Storm, with practical Python examples.
5

Data Cleaning Techniques: Handling Missing Data

Handling missing data in AI engineering. Learn theoretical foundations (MCAR, MAR, MNAR) and practical data cleaning techniques.
6

Outlier Detection and Treatment Methods

Outlier detection and treatment for AI. Learn statistical methods, Isolation Forest, and DBSCAN with Python examples to build robust machine learning models.
7

Data Validation and Quality Assurance for Machine Learning

Automated data validation and quality assurance pipelines. Learn to use Pandera and Great Expectations to prevent bad data from impacting model performance.
8

Automated Data Quality Monitoring

Automated data quality monitoring systems for production ML pipelines. Learn to detect data drift, validate schemas, and build robust MLOps workflows.
9

Feature Engineering: Creating New Features from Raw Data

Learn to create polynomial features, interaction terms, and temporal features using Python, scikit-learn, and pandas to improve model performance.
10

Feature Selection: Statistical and Model-based Methods

Learn statistical and model-based methods like RFE and Lasso, and implement them in Python with scikit-learn to improve model performance.
11

Automated Feature Engineering and Discovery

Learn to implement Deep Feature Synthesis with Featuretools, understand genetic programming, and deploy scalable ML pipelines.
12

Feature Stores: Centralized Feature Management

Enterprise feature stores. Learn the architecture, implementation strategies, and business value of centralizing feature management for ML.
13

Data Transformation: Scaling, Normalization, and Encoding

Essential data transformation techniques in AI engineering. Learn to implement scaling, normalization, and encoding with Python, scikit-learn.
14

Categorical Data Encoding: Onehot, Ordinal & Target Encoding

Master one-hot, ordinal, and target encoding with Python, scikit-learn, and real-world examples to handle high-cardinality data in machine learning.
15

Dimensionality Reduction: PCA and t-SNE

Dimensionality reduction with PCA and t-SNE. Mathematical foundations, Python implementation, and industry applications for AI engineering and data science.
16

Advanced Dimensionality Reduction: UMAP and Autoencoders

UMAP and autoencoders using Python, TensorFlow, and umap-learn for data visualization, feature engineering, and generative modeling.
17

Exploratory Data Analysis (EDA): Statistical Analysis

Exploratory Data Analysis (EDA) for AI engineers. Learn to analyze data distributions, correlations, and anomalies to build better machine learning models.
18

EDA: Advanced Visualization and Pattern Discovery

Advanced EDA, covering dimensionality reduction (t-SNE, UMAP), interactive plots, and multidimensional visualization for discovering patterns in complex data.
19

Data Pipeline Design and Implementation

Robust data pipelines for machine learning. Learn to build scalable batch and real-time ML workflows using Python, Airflow, and modern data engineering tools.
20

Data Versioning and Experiment Tracking

data versioning and experiment tracking in AI engineering. Learn the principles of DVC and MLflow to ensure reproducible and scalable ML systems.
21

ETL vs ELT: Modern Data Pipeline Patterns

Comparison of ETL and ELT data pipeline patterns. Learn the architecture, trade-offs, and practical implementation with Spark, BigQuery, and dbt.

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