24. Multi-Agent Platform Project
This chapter synthesizes multi-agent system concepts into a cohesive platform project. The platform provides foundational infrastructure—orchestration, agent management, observability, and security—that teams can extend for domain-specific applications.
Platform Architecture Overview
The platform follows a layered architecture: infrastructure layer provides compute and networking, agent runtime layer executes agent logic, orchestration layer manages workflows, and API layer exposes platform capabilities.
# platform/core.py
from dataclasses import dataclass, field
from typing import Callable, Any
from enum import Enum
import asyncio
class AgentCapability(Enum):
TEXT_GENERATION = "text_generation"
TOOL_EXECUTION = "tool_execution"
STATE_MANAGEMENT = "state_management"
OBSERVATION = "observation"
@dataclass
class AgentSpec:
name: str
capabilities: list[AgentCapability]
max_concurrent_tasks: int = 5
timeout_seconds: float = 30.0
retry_policy: dict = field(default_factory=dict)
@dataclass
class PlatformConfig:
name: str
version: str
agents: list[AgentSpec]
orchestrator_settings: dict
observability_config: dict
security_policy: dict
class MultiAgentPlatform:
def __init__(self, config: PlatformConfig):
self.config = config
self.agents: dict[str, Any] = {}
self.orchestrator: Any | None = None
self.observability: Any | None = None
async def initialize(self):
await self._initialize_observability()
await self._initialize_orchestrator()
await self._initialize_agents()
async def _initialize_observability(self):
from platform.observability import TelemetryCollector, TraceExporter
self.observability = TelemetryCollector()
self.trace_exporter = TraceExporter(self.config.observability_config)
async def _initialize_orchestrator(self):
from platform.orchestration import WorkflowEngine, TaskScheduler
self.orchestrator = WorkflowEngine(
scheduler=TaskScheduler(),
telemetry=self.observability
)
async def _initialize_agents(self):
from platform.agents import AgentRegistry
registry = AgentRegistry(self.config.agents)
for spec in self.config.agents:
agent = await registry.create_agent(spec, self.observability)
self.agents[spec.name] = agent
async def submit_workflow(self, workflow_definition: dict) -> str:
workflow_id = await self.orchestrator.register(workflow_definition)
asyncio.create_task(self.orchestrator.execute(workflow_id))
return workflow_id
async def get_workflow_status(self, workflow_id: str) -> dict:
return await self.orchestrator.get_status(workflow_id)
def register_tool(self, agent_name: str, tool: Callable):
if agent_name in self.agents:
self.agents[agent_name].register_tool(tool)
async def shutdown(self):
await self.orchestrator.shutdown()
for agent in self.agents.values():
await agent.shutdown()
Platform API Design
The platform exposes REST APIs for workflow submission, status monitoring, agent registration, and metrics retrieval. SDKs in common languages abstract API complexity for application developers.
Extensibility Points
Teams extend the platform through:
Custom Agents: Implement the Agent interface to add domain-specific capabilities.
Tool Libraries: Register tool sets that agents can invoke for domain-specific operations.
Orchestration Patterns: Extend workflow patterns beyond linear chains to graphs, state machines, or hierarchical structures.
Observability Adapters: Connect platform telemetry to organization-specific monitoring infrastructure.
Deployment Considerations
Platform deployment requires Kubernetes or equivalent container orchestration for agent scaling and health management. Service mesh integration enables secure agent-to-agent communication with mTLS.
Security Integration
Platform security integrates with enterprise identity providers for authentication, role-based access control for authorization, and audit logging for compliance requirements.
Design a platform extension that adds a human-in-the-loop approval step to workflows, including configuration options for approval thresholds, timeout behavior, and notification routing. This completes the multi-agent systems course. Students should understand foundational orchestration patterns, operational considerations for production systems, and practical architectures for common use cases.