The guided path to becoming an AI engineer through
different stages and multiple specialized tracks.
Practical knowledge and skills you'll need to build cutting-edge AI systems.
Build core knowledge in mathematics, programming, data science, and the basics of AI and LLMs.
Python Programming Fundamentals
Linear Algebra Fundamentals for Machine Learning
Calculus Fundamentals for Machine Learning
Probability & Statistics Fundamentals for Machine Learning
Introduction to Databases
SQL for Data Science Fundamentals
Getting Started with Git
Introduction to Data Science
Introduction to Machine Learning
Fundamentals of Model Evaluation and Metrics
Introduction to Data Cleaning and Preprocessing
Essential Numpy and Pandas
Data Visualization with Matplotlib and Seaborn
Introduction to Exploratory Data Analysis
Getting Started with Scikit-Learn
Introduction to Multimodal AI
Introduction to Autoencoders and Feature Learning
Applied Autoencoders for Feature Extraction
Get into deep learning, develop LLM applications, and learn the basics of ML engineering.
Introduction to Neural Networks
Introduction to Deep Learning
Deep Learning Fundamentals with Keras
Getting Started with TensorFlow
Getting Started with PyTorch
Getting Started with JAX
Recurrent Neural Networks and Sequence Modeling
Model Regularization and Optimization in Deep Learning
PyTorch for TensorFlow Developers
Prompt Engineering and LLM Application Development
Getting Started with Retrieve-Augmented Generation (RAG)
Python for LLM Workflows: Tooling and Best Practices
Introduction to Diffusion Models for Generative AI
Introduction to Synthetic Data for Machine Learning
Vector Databases and Semantic Search Implementation
Synthetic Data for LLM Pretraining and Fine-Tuning
Introduction to Data Engineering
Introduction to ETL Pipelines
Data Structures and Algorithms for Machine Learning
Docker and Containerization for ML Projects
FastAPI for ML Model Deployment
Introduction to Machine Learning Deployment
Data Versioning and Experiment Tracking for Machine Learning
Model Interpretability with SHAP and LIME
Cloud Platforms for Machine Learning: AWS, GCP, and Azure
Time Series Analysis and Forecasting
Master advanced LLM techniques, explore specialized AI applications, and scale systems with production MLOps.
Fine-tuning and Adapting Large Language Models
Advanced LoRA and PEFT Techniques for LLM Fine-Tuning
RLHF: Reinforcement Learning from Human Feedback
LangChain for Production-Ready LLM Applications
Advanced Vector Search for LLM Applications
How To Build A Large Language Model
Optimizing RAG Systems for Production Environments
Practical Quantization for Large Language Models
Introduction to Computer Vision
Advanced CNNs for Computer Vision Applications
Natural Language Processing Fundamentals
Introduction to Reinforcement Learning
Intermediate Reinforcement Learning Techniques
Advanced Reinforcement Learning Techniques
Advanced Transformer Architecture
Autoencoders and Representation Learning
Variational Autoencoders: Advanced Techniques and Representation Learning
Advanced Generative Adversarial Networks
Advanced Graph Neural Networks: Architectures and Implementation
Advanced Speech Recognition and Synthesis
Advanced Diffusion Model Architectures and Training
Advanced Synthetic Data Generation: GANs and Diffusion Models
Evaluating Synthetic Data Quality: Advanced Techniques
Monitoring and Managing ML Models in Production
MLOps for Large Models (LLMOps)
Advanced Feature Store Implementation for ML Systems
Deploying Quantized LLMs for Efficient Inference
Deploying Diffusion Models at Scale
Advanced TensorFlow Techniques
Advanced PyTorch
Advanced JAX: Performance, Optimization, and Scale
Advanced Python Programming for Machine Learning
Advanced Adversarial Machine Learning
Advanced Bayesian Machine Learning
Advanced Federated Learning Techniques
Explore cutting-edge research in LLMs, advanced AI systems, and theoretical concepts.
This roadmap highlights the featured courses in each discipline. Browse the complete course to find the perfect starting point for your AI journey and discover specialized topics.
While the foundational stages (especially Stage 1 and 2) provide a important foundation for any AI engineer, your path through advanced stages and specialized tracks can be tailored to your specific career goals and interests.
Focus on building a strong core, then explore areas that align with the type of AI work you want to do.
A solid understanding of college-level mathematics (linear algebra, calculus, probability, and statistics) is highly beneficial.
Our foundational math courses are designed to build these skills, focusing on concepts most relevant to AI, even if you need a refresher.
It's generally recommended to progress through the stages sequentially (Stage 1 to Stage 4), as later stages build upon concepts from earlier ones.
Within a stage, you can prioritize tracks based on your interests, but ensure you cover foundational concepts before tackling more advanced topics within that track or stage.
Yes, absolutely. Programming skills are non-negotiable for implementing algorithms, processing data, and deploying models in production environments.
AI is essentially a specialized field of software engineering, not a separate discipline. Python programming and data manipulation libraries are essential tools every AI practitioner needs to master.
Learning is a journey of discovery. Not every single concept in every course will seem immediately applicable to your specific goals at that moment.
However, building a broad and diverse knowledge base in AI is invaluable. Seemingly unrelated topics can connect in surprising ways later on, and working through challenging material builds critical problem-solving skills and intuition. Trust the process and focus on continuous learning.