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Beginner · 8 phases · 56 lessons · Free

AI Agent Developer Roadmap

Build autonomous AI agents with this week-by-week roadmap: Python, LLMs, tools, memory, and multi-agent systems. (8 phases, 56 lessons, free).

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Phase 1: Python Foundations

  1. Environment Setup

    Configure a professional Python development environment with VS Code, virtual environments, and Git for version control.

  2. Core Syntax

    Write and execute Python scripts using variables, data types, operators, and basic I/O to handle agent configuration parameters.

  3. Control Flow

    Implement conditional logic and loops to direct agent decision-making paths and iterative task processing.

  4. Data Structures

    Manipulate lists, dictionaries, and sets to manage agent memory, tool schemas, and conversation history.

  5. Functions and Modules

    Create reusable functions and organize code into modules to encapsulate agent skills and tool wrappers.

  6. Async Fundamentals

    Apply async/await syntax and asyncio primitives to handle concurrent API calls and non-blocking tool execution.

  7. CLI Agent Prototype

    Build a command-line agent that parses user input, invokes mock tools asynchronously, and maintains session context.

Phase 2: LLM Integration Basics

  1. LLM API Fundamentals

    Authenticate and execute basic chat completion requests using the OpenAI Python SDK to understand core request/response patterns.

  2. Prompt Engineering Essentials

    Design structured prompts using system, user, and assistant roles to reliably control LLM output format and behavior for agent tasks.

  3. Response Parsing Patterns

    Extract and validate structured JSON data from LLM responses using Pydantic models to enable type-safe downstream processing.

  4. Function Calling Mechanics

    Define and invoke function schemas via the OpenAI Function Calling API to connect LLM reasoning with external Python functions.

  5. Conversation State Management

    Implement a message history manager that handles context window limits and summarizes older turns to maintain long-running agent coherence.

  6. Tool Use Error Handling

    Build retry logic and fallback strategies for failed function calls and malformed LLM outputs to improve agent robustness.

  7. Build Mini Agent Prototype

    Assemble a working ReAct-style agent that chains reasoning, tool use, and memory to autonomously answer multi-step queries over a local knowledge base.

Phase 3: Prompt Engineering Patterns

  1. Prompt Structure Fundamentals

    Construct clear, unambiguous prompts using role, context, and instruction components to reliably steer LLM behavior for agent tasks.

  2. Few Shot Priming

    Design few-shot examples that teach the model desired output formats and reasoning patterns for consistent agent responses.

  3. Chain of Thought Reasoning

    Implement step-by-step reasoning prompts that enable the agent to decompose complex problems before generating final answers.

  4. Structured Output Formatting

    Enforce JSON, XML, or Markdown schemas in model outputs so downstream agent components can parse results programmatically.

  5. System Prompt Architecture

    Compose persistent system instructions that define agent persona, constraints, and available tools across multi-turn conversations.

  6. Prompt Evaluation Techniques

    Apply automated metrics and adversarial test cases to measure prompt reliability, latency, and failure modes before deployment.

  7. Agent Prompt Integration

    Assemble a complete prompting strategy — system prompt, few-shot examples, CoT trigger, and output schema — into a single reusable agent configuration.

Phase 4: Tool Use Implementation

  1. Agent Tool Architecture

    Diagram the core components enabling an LLM to invoke external functions, distinguishing between the model, the orchestrator, and the tool execution environment.

  2. Function Schema Design

    Write precise JSON Schema definitions for tool parameters that enforce type safety and guide the model toward correct argument generation.

  3. Tool Registry Setup

    Implement a centralized registry to store, retrieve, and validate tool schemas and their corresponding execution handlers at runtime.

  4. Basic Tool Execution

    Build a synchronous execution loop that parses model tool calls, invokes the matched Python function, and returns structured results to the conversation history.

  5. Error Handling Strategies

    Implement robust error handling for invalid arguments, execution timeouts, and tool exceptions, feeding structured error feedback back to the agent for self-correction.

  6. Async Tool Execution

    Refactor the execution loop to support asynchronous I/O operations, enabling concurrent tool use and integration with async APIs.

  7. Multi-Tool Agent Build

    Assemble a functional agent capable of planning and executing a multi-step task requiring sequential and parallel use of search, calculation, and file-writing tools.

Phase 5: Agent Frameworks Overview

  1. Framework Landscape

    Compare LangChain, AutoGen, and CrewAI architectures to select the right toolkit for multi-agent workflows.

  2. Environment Setup

    Configure a development workspace with API keys, dependencies, and version control for agent framework experimentation.

  3. Single Agent Construction

    Build a functional ReAct agent using LangChain Expression Language with tool integration and memory persistence.

  4. Multi-Agent Orchestration

    Design a collaborative agent team in CrewAI with role specialization, task delegation, and shared context management.

  5. Conversational Patterns

    Implement AutoGen conversation flows including user proxy, assistant agents, and group chat termination conditions.

  6. Observability Integration

    Instrument agent executions with LangSmith tracing to debug reasoning chains and monitor token consumption.

  7. Research Assistant Build

    Develop a multi-agent research system that autonomously gathers, synthesizes, and cites information from web sources.

Phase 6: Memory and State Management

  1. Agent State Fundamentals

    Distinguish between stateless and stateful agent architectures to select the appropriate pattern for a given task.

  2. Conversation History Management

    Implement a sliding window buffer to maintain recent dialogue context within token limits.

  3. Vector Store Integration

    Store and retrieve long-term knowledge using a vector database to enable semantic memory recall.

  4. Structured Memory Schemas

    Define Pydantic models for structured memory entries to ensure consistent data validation and retrieval.

  5. State Persistence Strategies

    Serialize agent checkpoints to disk or a database to support session recovery and horizontal scaling.

  6. Multi-Step Planning Memory

    Design a scratchpad mechanism that tracks intermediate reasoning steps and tool outputs during complex task execution.

  7. Build Context-Aware Assistant

    Assemble a personal assistant agent that combines conversation buffering, vector-based long-term memory, and persistent checkpointing to maintain coherence across extended interactions.

Phase 7: Multi Agent Orchestration

  1. Agent Communication Patterns

    Implement direct message passing between agents using a message bus to enable decoupled collaboration.

  2. Shared Memory Coordination

    Build a shared context store that allows multiple agents to read and write state for coordinated decision-making.

  3. Hierarchical Task Decomposition

    Design a supervisor agent that breaks complex goals into subtasks and delegates them to specialized worker agents.

  4. Dynamic Agent Spawning

    Create a factory mechanism that instantiates specialized agents on-demand based on task requirements.

  5. Consensus Decision Making

    Implement a voting protocol where multiple agents evaluate options and reach agreement before taking action.

  6. Cross Agent Observability

    Instrument inter-agent communication with structured logging and tracing to debug multi-agent workflows.

  7. Multi Agent Research System

    Build a complete research assistant where planner, researcher, critic, and synthesizer agents collaborate to produce cited reports from user queries.

Phase 8: Production Agent Deployment

  1. Containerizing Agents

    Package an agent and its dependencies into a portable Docker image using multi-stage builds for minimal size.

  2. Configuring Environments

    Externalize configuration using environment variables and secret managers to support promotion across dev, staging, and production.

  3. Orchestrating Containers

    Deploy containerized agents to Kubernetes with Deployments, Services, and resource limits for reliable scheduling.

  4. Implementing Health Checks

    Add liveness and readiness probes covering model latency, tool connectivity, and memory pressure for self-healing deployments.

  5. Observing Agent Behavior

    Instrument agents with structured logging, distributed tracing, and custom metrics for latency, token usage, and error rates.

  6. Automating Releases

    Build a CI/CD pipeline that runs evaluation suites, scans images, and promotes artifacts via canary or blue-green strategies.

  7. Deploying Production Agent

    Ship a monitored, auto-scaling agent behind an API gateway with feature flags, rollback capability, and cost dashboards.

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