
Compare deterministic and autonomous workflows using the observe-think-act model in a hybrid Python workflow. Place autonomy where it adds value, while deterministic code handles validation and safety.
Define a system prompt and persona that establish the assistant's role, objectives, rules, boundaries, and output structure, guiding behavior with the observe-think-act model toward concise, actionable responses.
Learn to build structured agent responses with a defined schema, using Pydantic to validate fields like message, action, priority, and needs clarification, enabling a reliable observe-think-act model.
Demonstrates building a local conversational personal ai assistant with Python, olama, streamlet, pydantic, pymu pdf, and SQLite; runs on localhost:8501 and supports chat, summarize, task list, and draft email.
Implement an input decision output workflow with an approval gate to pause risky actions, clearly present proposed effects, and require target-specific confirmation to prevent unauthorized actions and prompt injection.
Design sequential and parallel tool execution by organizing calls with dependencies, using explicit call_id and depends_on labeling, and grouping independent tasks for concurrency.
Discover how to build a memory-enabled document assistant with selective short- and long-term memory, embeddings, a vector database, and retrieval augmented generation for evidence with citations.
Turn broad questions into focused search queries by defining the idea, mapping to the research workflow, and building a Python component for an autonomous agent, with exploratory and verification queries.
Develop and test an autonomous research agent using Python in a hands-on lab setting, exploring practical techniques for building autonomous apps.
Learn to resolve conflicts in multi-agent systems with detect, compare, and decide workflows, and build a conflict record model with routing policies for resolution.
Explore Lang Graph to model a multi-agent workflow as a stateful graph with explicit routing, checkpoints, and roles like planner, researcher, analyst, writer, reviewer, and supervisor.
Design complete agent architectures as bounded, boundary-defined components using a plan, operate, and evaluate model; implement a Python-based autonomous operations assistant with clear data flow and controls.
Explore token and latency management for autonomous apps, implementing budgets for tokens and time, measurement, and optimization to build robust, production-ready AI workflows in Python.
Learn how to build practical AI agents with Python using modern tools such as Ollama, LangGraph, Streamlit, Pydantic, ChromaDB, and Retrieval-Augmented Generation.
In this hands-on course, you will explore how agentic AI applications are designed, developed, and tested through real-world project examples. Instead of focusing only on basic chatbot interactions, this course introduces structured AI agent workflows that can use tools, retrieve information, follow instructions, and support human decision-making.
You will begin with the foundations of AI agent development, including how agents receive goals, manage prompts, produce structured outputs, and work with Python-based logic. You will build a personal AI assistant project and learn how to organize inputs, outputs, conversation history, and response formats.
Next, you will practice AI planning and task decomposition. You will learn how to break larger objectives into smaller steps, design reliable JSON outputs, and use Pydantic models to validate structured responses. These skills are useful for creating more predictable and maintainable Generative AI applications.
The course then introduces tool-using AI agents. You will create Python functions that an agent can call for tasks such as calculations, file reading, API interactions, data lookup, and controlled automation. You will also explore important engineering concepts such as tool permissions, validation, retries, error handling, and human oversight.
A major part of the course focuses on RAG with Python. You will learn how to process PDF documents, split text into chunks, create embeddings with Ollama, store data in ChromaDB, and retrieve relevant content using semantic search. These lessons demonstrate how Retrieval-Augmented Generation can help AI systems work with private documents and trusted knowledge sources.
You will also build an autonomous research agent project that demonstrates query generation, information gathering, summarization, gap identification, and structured report creation. You will learn how autonomous loops work and how to design controls that help keep AI workflows focused and manageable.
Later in the course, you will explore multi-agent systems using LangGraph. You will design specialized agents such as a planner, researcher, analyst, writer, reviewer, and supervisor. These agents will communicate through shared state and demonstrate how collaborative AI workflows can be orchestrated in a structured way.
Throughout the course, you will work with a simulated airline disruption example. This project shows how an AI workflow can review booking details, compare possible flight options, reference policy information, generate recommendations, and request human approval before any final action.
By the end of the course, you should have hands-on experience with Python AI agents, local LLMs, Ollama AI development, LangGraph workflows, vector databases, AI memory, RAG systems, tool calling, human-in-the-loop AI, and multi-agent collaboration.
This course is ideal for Python developers, AI beginners, automation specialists, software engineers, data professionals, entrepreneurs, and anyone interested in building practical local-first AI agent projects.