OpenClaw Multi-Channel Orchestration
Autonomous multi-channel AI platform that unifies chat, voice, and email behind microservices and an API gateway, with shared context across channels.
- Channels
- 3 unified
- Tenant onboard
- <1 day
- Cross-channel memory
- 100%
Problem & Solution
The Problem
Customers interact with support over chat, voice, and email — but most AI stacks are channel-specific, forcing context loss and inconsistent answers when a user switches channels mid-conversation.
The Solution
Built a microservices-based orchestration platform (OpenClaw) behind a central API gateway. A shared session + memory layer keeps context consistent across chat, voice, and email, and the agent uses channel-appropriate tools for each surface.
System Architecture
End-to-end flow from intake to outcome
- 01
API Gateway
FastAPISingle entry point that authenticates and routes per-channel traffic.
- 02
Channel Adapters
WebRTCWebSocketSMTPPer-channel microservices normalize chat, voice, and email into a common event stream.
- 03
Shared Memory
RedisPostgreSQLVector DBCross-channel session store and vector memory keep state consistent across surfaces.
- 04
OpenClaw Orchestrator
OpenClawLangChainCentral agent that dispatches tasks across services and channels with shared context.
Engineering Challenges & Wins
Optimization results and engineering tradeoffs
Optimization Results
- Single API gateway fronts chat, voice, and email with shared auth + routing.
- Unified session and memory layer keeps context when users switch channels.
- Microservices architecture with per-channel adapters and a central orchestrator.
Engineering Challenges
- Normalizing latency and message structure across fundamentally different channels.
- Keeping memory consistent under concurrent updates from multiple channels.
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