[TRACK3_001] Introduction to Multi-Agent Systems
[TRACK3_001] Introduction to Multi-Agent Systems
📚 Introduction to Multi-Agent Systems
[VIDEO-011] Introduction to Multi-Agent Systems
Track: 3 - Multi-Agent Systems Module: 1 Duration: 10 minutes Level requirement: 31 XP reward: 300 XP
---
Scene 1: Welcome to Track 3 (0:00-1:30)
[Visual]: Tool Architect badge transforming into multi-agent constellation [Animation]: Multiple Claude avatars appearing and connecting
[Audio/Script]:
"Congratulations, Tool Architect. You can build powerful tools for Claude.>
But here's a question: What if one Claude isn't enough?>
What if you need:
- A researcher gathering information
- An analyst processing data
- A writer creating content
- A reviewer checking quality>
All working together. Autonomously.>
That's multi-agent systems. And it's the future of AI.>
Welcome to Track 3."
[Lower third]: "Track 3: Multi-Agent Systems | Level 31"
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Scene 2: Why Multiple Agents? (1:30-3:30)
[Visual]: Single agent struggling vs team succeeding [Animation]: Complex task being divided and conquered
[Audio/Script]:
"Single agents have limits:>
Context Window: Even large context fills up
Specialization: One prompt can't optimize for everything
Parallelism: Sequential processing is slow
Reliability: Single point of failure>
Multi-agent systems solve these:>
| Problem | Single Agent | Multi-Agent |
|---------|-------------|-------------|
| Complex task | Struggles | Divides & conquers |
| Long context | Forgets early info | Each agent has clean context |
| Many domains | Jack of all trades | Specialists for each |
| Failure | Everything stops | Others continue |"
[Demo - Use Cases]:
Research Project:
├── Research Agent → Gathers sources
├── Analysis Agent → Processes data
├── Writing Agent → Creates report
└── Review Agent → Checks qualityCode Project:
├── Architect Agent → Designs system
├── Implementation Agent → Writes code
├── Test Agent → Creates tests
└── Review Agent → Code review
Content Creation:
├── Ideation Agent → Generates ideas
├── Draft Agent → Writes content
├── Edit Agent → Refines writing
└── SEO Agent → Optimizes for search
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Scene 3: Agent Architectures (3:30-5:30)
[Visual]: Three architecture diagrams [Animation]: Data flowing through each pattern
[Audio/Script]:
"There are three main patterns for multi-agent systems:>
1. Pipeline (Sequential)"
[Diagram]:
Input → Agent A → Agent B → Agent C → Output
↓ ↓ ↓
Context Context Context[Audio/Script]:
"Each agent processes and passes results to the next. Simple, predictable.>
2. Hub and Spoke (Orchestrated)"
[Diagram]:
Agent B
↑
│
Agent A ←── Orchestrator ──→ Agent C
│
↓
Agent D[Audio/Script]:
"Central orchestrator coordinates specialists. Most flexible.>
3. Mesh (Collaborative)"
[Diagram]:
Agent A ←──→ Agent B
↑ ╲ ╱ ↑
│ ╲╱ │
│ ╱╲ │
↓ ╱ ╲ ↓
Agent C ←──→ Agent D[Audio/Script]:
"Agents communicate freely. Most powerful, most complex.>
We'll start with Hub and Spoke - the sweet spot of power and simplicity."
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Scene 4: The Orchestrator Pattern (5:30-7:30)
[Visual]: Orchestrator managing workers [Animation]: Tasks being assigned and collected
[Audio/Script]:
"The orchestrator pattern is your Swiss Army knife.>
The orchestrator:
- Receives the main task
- Breaks it into subtasks
- Assigns subtasks to specialist agents
- Collects and synthesizes results"
[Demo - Orchestrator Concept]:
class Orchestrator:
def __init__(self):
self.agents = {
"researcher": ResearchAgent(),
"analyst": AnalysisAgent(),
"writer": WriterAgent(),
"reviewer": ReviewAgent()
} async def process(self, task: str):
# 1. Analyze the task
plan = await self.create_plan(task)
# 2. Execute subtasks
results = {}
for step in plan.steps:
agent = self.agents[step.agent_type]
results[step.name] = await agent.execute(step.task, results)
# 3. Synthesize final result
return await self.synthesize(results)
[Audio/Script]:
"Key insight: Each agent has one job. The orchestrator coordinates.>
This is separation of concerns for AI."
---
Scene 5: Agent Communication (7:30-9:00)
[Visual]: Message passing diagram [Animation]: JSON messages flowing between agents
[Audio/Script]:
"Agents need to communicate. How?>
Option 1: Direct Results
Agent A returns data, orchestrator passes to Agent B.>
Option 2: Shared Memory
All agents read/write to common storage.>
Option 3: Message Queue
Agents publish/subscribe to channels."
[Demo - Communication]:
Option 1: Direct (simplest)
research_results = await research_agent.execute(query)
analysis = await analysis_agent.execute(research_results)Option 2: Shared Memory
class SharedContext:
def __init__(self):
self.data = {} def set(self, key: str, value: any):
self.data[key] = value
def get(self, key: str):
return self.data.get(key)
context = SharedContext()
await research_agent.execute(query, context) # Writes to context
await analysis_agent.execute(context) # Reads from context
Option 3: Message Queue (for complex systems)
We'll cover this in advanced modules
[Audio/Script]:
"Start simple. Direct passing works for most cases.>
Add complexity only when needed."
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Scene 6: Your First Multi-Agent System (9:00-9:45)
[Visual]: Simple two-agent system [Animation]: Task flowing through both agents
[Audio/Script]:
"Let's conceptualize your first multi-agent system:>
Research & Summarize Pipeline>
Agent 1: Researcher
- Takes a topic
- Gathers information from multiple sources
- Returns structured data>
Agent 2: Summarizer
- Takes researcher's data
- Creates concise summary
- Formats for readability>
Two agents. Clear responsibilities. Powerful results."
[Demo Preview]:
User: "Tell me about quantum computing"→ Researcher Agent:
- Searches web for quantum computing
- Finds 5 authoritative sources
- Extracts key facts
- Returns structured JSON
→ Summarizer Agent:
- Receives researcher's JSON
- Synthesizes information
- Creates readable summary
- Adds sections and formatting
← Final output to user
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Scene 7: Challenge Preview (9:45-10:00)
[Visual]: Challenge specification [Animation]: XP reward display
[Audio/Script]:
"Your challenge: Build a Research & Summarize multi-agent system.>
You'll create:
1. A researcher agent that gathers information
2. A summarizer agent that creates reports
3. An orchestrator that coordinates them>
This is your entry into multi-agent AI.>
Complete this for 600 XP and the 'Multi-Agent Beginner' badge.>
Next: We'll dive deep into building the orchestrator."
---
Post-Video Challenge
Challenge ID: TRACK3_001_CHALLENGE Type: Code + Terminal Instructions:
Task 1: Create researcher agent
claude "Create a Python class ResearchAgent with:
1. execute(topic: str) method
2. Uses WebSearch to find 3-5 sources
3. Extracts key information from each
4. Returns structured dict with sources and facts"
Validation: ResearchAgent class functionalTask 2: Create summarizer agent
claude "Create a Python class SummarizerAgent with:
1. execute(research_data: dict) method
2. Takes researcher's output
3. Synthesizes into readable summary
4. Includes source citations"
Validation: SummarizerAgent class functionalTask 3: Create simple orchestrator
claude "Create a simple orchestrator that:
1. Takes a topic from user
2. Calls ResearchAgent
3. Passes results to SummarizerAgent
4. Returns final summary"
Validation: Full pipeline worksTask 4: Test the system
claude "Using your multi-agent system, research and summarize:
'The current state of AI in healthcare'"
Validation: Returns coherent summary with sourcesRewards:
- XP: 600 (300 base + 300 challenge)
- Achievement: "Multi-Agent Beginner"
SEO Metadata
Alt-text: Introduction to multi-agent AI systems - orchestrator pattern, agent communication, pipeline architecture. Learn to coordinate multiple Claude agents for complex tasks.
Tags: multi-agent systems, AI orchestration, agent communication, Claude agents, AI architecture, agent pipeline
Keywords: multi-agent ai tutorial, claude agent orchestration, ai agent communication, multi-agent architecture patterns, agent coordination