AI Engineering: The Developer's Path

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AI Engineering: The Developer's Path

6 months duration
16 modules
Updated May 23, 2026
Development & Programming
AI Engineering: The Developer's Path
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Course Overview

Get to know what this course is all about and what you'll learn

Course Description

A six-month program that takes learners from their first line of Python to a deployed AI system — welcoming complete novices and working developers alike, with a full month on Python fundamentals before moving into LLMs, RAG, agents, evaluation, and production deployment.

What You'll Learn

AI Engineering: The Developer's Path is a six-month program that takes learners from their first line of Python all the way to a deployed AI system. Unlike most AI courses, which assume comfort with software engineering, this path begins with a full month on Python fundamentals — making it genuinely accessible to novices while still rewarding for developers who want to solidify their foundation. From there, it builds through database design, API development with FastAPI, machine learning concepts, and then the technologies that define modern AI: large language models, prompt engineering, LangChain, retrieval-augmented generation, and autonomous agents with LangGraph.

Where most AI courses stop at "it works on my machine," this one continues into the disciplines that separate prototypes from products: AI-specific user experience patterns, evaluation frameworks and testing, debugging LLM applications, cost engineering, and full MLOps including containerization, cloud deployment, observability, and compliance. Learners finish with advanced topics — fine-tuning with LoRA and QLoRA, multi-modal AI, and AI safety — before consolidating everything into a portfolio-worthy capstone project.

This program is designed for curious beginners, career changers, and working software developers who want to become the AI engineer on their team. By the end, learners will have built, evaluated, and deployed a complete end-to-end AI application, and will be fluent in the architectural decisions — build vs. buy, which model for which task, when to use RAG vs. fine-tuning, what to measure — that real AI engineering work requires every day.

Course Curriculum

16 modules • Learn at your own pace • Hands-on experience

Course Modules

Master the fundamental tool that every professional developer uses daily. Learn to track changes, collaborate with others, and manage your code like a pro from the very beginning of your development journey.

What you'll learn

  • Understand version control concepts and why Git is essential for modern software development
  • Use GitHub effectively for remote repositories, collaboration, and showcasing your work to potential employers
  • Master Git basics including repositories, commits, branches, and merging for effective code management.
Python serves as the foundation of modern data science, providing essential programming skills for data manipulation, analysis, and machine learning. This module develops your Python proficiency from basics through data science applications.
You'll master Python fundamentals including data types, control structures, functions, and essential libraries. Hands-on exercises with real datasets teach you to write efficient code for data processing tasks and establish the foundation for advanced data science work.
This module introduces students to fundamental database design principles and SQL (Structured Query Language). Students will learn how to design efficient relational database schemas, implement entity-relationship diagrams, normalize databases, and write SQL queries to create, retrieve, update, and delete data. The course covers both theoretical concepts and practical applications, with hands-on exercises using industry-standard database management systems. By the end of this module, students will be able to design and implement a functional database solution for real-world applications.

What you'll learn

  • Design normalized relational database schemas that minimize redundancy and maintain data integrity
  • Create entity-relationship diagrams to model real-world data relationships
  • Implement database tables with appropriate data types, constraints, and relationships
  • Write SQL queries to create, retrieve, update, and delete data from databases
  • Perform complex data retrieval using SQL joins, subqueries, and aggregate functions
  • Master advanced query techniques using Common Table Expressions (CTEs) for recursive and hierarchical data
  • Apply window functions for advanced analytics, rankings, and running calculations
  • Develop stored procedures, triggers, and user-defined functions for business logic implementation
  • Apply transaction management concepts to ensure data consistency and integrity
Build production-grade REST APIs with FastAPI and Pydantic — authentication, async endpoints, database integration, caching, testing, and auto-generated documentation. The backbone every AI service exposes to the outside world.

What you'll learn

  • FastAPI: routing, request/response handling, dependency injection
  • Pydantic v2: models, validators, serialization
  • Authentication: JWT, OAuth2, API keys
  • Background tasks and async endpoints
  • Middleware and CORS configuration
  • Database integration with SQLModel
  • Caching with Redis
  • API testing with pytest
  • API documentation (OpenAPI/Swagger)
This foundational module covers traditional machine learning before diving into deep learning. You'll master the complete ML workflow using scikit-learn: data preparation, model building, evaluation, and improvement. Topics include supervised vs unsupervised learning, regression models (Linear, Polynomial), classification models (Logistic Regression, Decision Trees, Random Forests, SVM), clustering (K-Means), and essential evaluation metrics (Accuracy, Precision, Recall, F1, ROC-AUC). By understanding classical ML first, you'll appreciate why and when deep learning is needed.

What you'll learn

  • Understand the ML landscape: supervised vs unsupervised learning, regression vs classification
  • Prepare data properly: train/validation/test splits, cross-validation, feature scaling
  • Build and train regression models: Linear Regression, Polynomial Regression, Ridge, Lasso
  • Build and train classification models: Logistic Regression, Decision Trees, Random Forests, SVM
  • Evaluate models using appropriate metrics: Accuracy, Precision, Recall, F1-Score, ROC-AUC
  • Diagnose and fix overfitting/underfitting using regularization and hyperparameter tuning
  • Master the scikit-learn workflow: pipelines, preprocessing, and model persistence
Work with state-of-the-art language models.

This module covers LLM architecture internals (GPT, LLaMA), efficient fine-tuning techniques (LoRA, QLoRA), Retrieval-Augmented Generation for production applications, and a comprehensive capstone project to demonstrate your skills.

What you'll learn

  • Understand GPT and LLaMA architectures in detail
  • Fine-tune LLMs efficiently using LoRA and QLoRA
  • Build RAG pipelines for production applications
  • Complete an end-to-end AI project from design to deployment
Move from "asking an LLM nicely" to a discipline — structured prompts, chain-of-thought, output formatting, prompt injection defence, testing, and versioning. The cheapest, most underrated lever in any AI system.

What you'll learn

  • Principles of effective prompting
  • Prompt structure: instruction, context, input, output format
  • Zero-shot prompting
  • Few-shot prompting and example selection
  • Chain-of-thought (CoT) prompting
  • Self-consistency prompting
  • Tree of thoughts
  • Role and persona prompting
  • System prompts design and best practices
  • Output formatting: JSON mode, structured outputs, delimiters
  • Prompt chaining and decomposition
  • Prompt templates and reusability
  • Handling edge cases and failures
  • Prompt injection and security considerations
  • Prompt testing and evaluation
  • Prompt versioning and management
  • Domain-specific prompting strategies
Stand on the shoulders of LangChain, LlamaIndex, Haystack, and MCP. Patterns for composing models, retrievers, memory, and tools without reinventing the plumbing every project.

What you'll learn

  • LangChain: models, prompts, output parsers
  • LangChain Expression Language (LCEL)
  • Memory systems: buffer, window, summary
  • Callbacks and tracing with LangSmith
  • Document loaders and text splitters
  • Retrievers and retrieval chains
  • Tools and function calling
  • Structured outputs with Pydantic
  • LlamaIndex fundamentals
  • Haystack overview
  • Model Context Protocol (MCP) for tool integration
  • Design patterns for AI applications
  • Framework-agnostic development
Give an LLM access to your data without fine-tuning. Embedding models, vector databases, chunking strategies, hybrid search, re-ranking, advanced patterns (parent-document, RAPTOR, Graph RAG), evaluation, and production deployment.

What you'll learn

  • RAG architecture and components
  • Embedding models: OpenAI, Cohere, BGE, E5
  • Vector databases: Pinecone, Weaviate, Qdrant, Chroma, pgvector
  • Document processing and chunking strategies
  • Query rewriting and multi-query approaches
  • Hybrid search (keyword + semantic)
  • Re-ranking with cross-encoders
  • Advanced RAG: parent document, sentence window, RAPTOR, Graph RAG
  • Citation and source attribution
  • RAG evaluation with RAGAS
  • Production RAG: scaling, incremental indexing, access control
From single-tool ReAct loops to multi-agent crews. LangGraph state machines, tool design, memory, safety guardrails, human-in-the-loop checkpoints, and the observability you need to debug an agent in production.

What you'll learn

  • Agent architectures: ReAct, Plan-and-Execute, Tree of Thoughts
  • Tool design and implementation
  • Agent memory: short-term, long-term, episodic
  • LangChain agents and AgentExecutor
  • LangGraph: state management, conditional edges, cycles, checkpointing
  • Multi-agent systems: CrewAI, AutoGen
  • Agent evaluation and testing
  • Safety and guardrails: input validation, action constraints, sandboxing
  • Human-in-the-loop patterns
  • Agent observability and debugging
The product layer most AI tutorials skip. Streaming, latency, AI-specific error states, conversation UI, feedback loops, trust indicators, accessibility, and multimodal input — what makes an AI feature feel finished.

What you'll learn

  • Streaming responses and progressive rendering
  • Handling latency gracefully: loading states, skeleton screens
  • Error states unique to AI: rate limits, context overflow, model errors
  • Progressive disclosure of AI capabilities
  • Conversation UI patterns: chat interfaces, inline assistance
  • Feedback collection: thumbs up/down, regeneration, editing
  • Trust indicators: confidence scores, source attribution
  • Accessibility in AI interfaces
  • Mobile-first AI experiences
  • Voice and multimodal input handling
Build evals from scratch, write golden datasets, run LLM-as-judge pipelines, red-team your own system, and ship regression tests so a prompt or model swap can't silently break things. The discipline that separates demos from products.

What you'll learn

  • Building evaluation frameworks from scratch
  • Evaluation metrics: factuality, relevance, coherence, safety
  • Creating golden datasets and test suites
  • LLM-as-judge evaluation patterns
  • Red-teaming and adversarial testing
  • Continuous evaluation pipelines
  • A/B testing for AI systems
  • Regression testing for prompts and models
  • Human evaluation protocols
  • Evaluation tools: promptfoo, DeepEval, custom frameworks
  • Benchmarking against baselines
  • Statistical significance in AI evaluation
When an LLM, agent, or RAG pipeline misbehaves, where do you look? Tracing reasoning failures, retrieval-vs-generation triage, token/context audits, embedding-quality analysis, and the LangSmith/Langfuse workflows that turn a black box into a debuggable system.

What you'll learn

  • Debugging LLM outputs: tracing reasoning failures
  • Prompt debugging techniques
  • RAG debugging: retrieval vs generation issues
  • Agent debugging: tool selection, loop detection
  • Token and context window debugging
  • Embedding quality analysis
  • Reproducibility challenges in LLM systems
  • Logging strategies for AI applications
  • Using LangSmith, Langfuse for debugging
  • Common failure patterns and fixes
Token economics, prompt compression, semantic caching, model routing, batching, and the build-vs-buy spreadsheet that decides whether an AI feature is viable. Often the difference between a profitable product and a science project.

What you'll learn

  • Token economics: understanding pricing models
  • Token optimization strategies
  • Prompt compression and efficiency
  • Caching strategies: semantic caching, result caching
  • Model routing based on query complexity
  • Batching requests for efficiency
  • When to use smaller models
  • Cost monitoring and alerting
  • Budget management and rate limiting
  • ROI analysis for AI features
  • Build vs buy decisions
Containerise, deploy, observe, and secure AI services in the wild. Docker patterns for inference, cloud deployment on AWS / GCP / Azure, Kubernetes basics, CI/CD via GitHub Actions, observability with LangSmith / Langfuse, and the API-key + prompt-injection guardrails that keep production safe.

What you'll learn

  • Docker for AI applications: Dockerfiles, multi-stage builds, Compose
  • Cloud deployment: AWS (ECS, Lambda), GCP (Cloud Run), Azure
  • Kubernetes basics: deployments, services, autoscaling
  • CI/CD pipelines with GitHub Actions
  • Observability: metrics, logs, traces
  • LLM monitoring: LangSmith, Langfuse
  • Security: API key management, prompt injection prevention
  • Compliance and audit logging
Fine-tuning, multimodal, compound AI systems, small language models, alignment, ethics — plus your portfolio-grade capstone: an end-to-end AI application with evaluations and production deployment.

What you'll learn

  • Fine-tuning: when to use, OpenAI fine-tuning, LoRA/QLoRA
  • Dataset preparation and curation
  • Multi-modal AI: vision, audio, video
  • Emerging patterns: compound AI systems, small language models
  • AI safety and alignment
  • Ethics framework for AI development
  • Portfolio development
  • Capstone project: end-to-end AI application with evaluation and deployment