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Adding Persistent Context to AI Assistants with AgentCore Memory and OpenClaw

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AgentCore now offers a memory service that, when combined with OpenClaw, gives AI assistants persistent conversational context. This change lets engineers build cost‑effective, serverless assistants that retain knowledge across sessions without added deployment complexity.

AgentCore now exposes a memory capability that can be paired with the OpenClaw agent framework, turning a stateless chatbot into a context‑aware AI assistant that retains information across sessions. Practitioners gain a serverless, consumption‑priced pattern that reduces re‑prompting overhead while keeping deployment and operational complexity low.

What changed: AgentCore memory integration

The new AgentCore memory service stores conversational artifacts as durable records and allows them to be annotated with structured metadata. OpenClaw can write to this store after each interaction and later query it to surface relevant facts for subsequent queries, eliminating the need for the user to repeat prior details.

Why it matters for engineers

Continuity improves user experience and reduces token usage, which directly lowers model invocation costs. The runtime runs in a container that is billed only while active, so a light‑use personal assistant can cost a few dollars per month compared with a continuously running EC2 instance that would run tens of dollars. All components are provisioned from a single CloudFormation template, enabling one‑command deployment without additional build pipelines.

Architecture and implementation details

Two entry points—Telegram webhooks and scheduled EventBridge jobs—invoke the same AgentCore runtime via the InvokeAgentRuntime API. An API Gateway forwards Telegram messages to a Lambda function that calls the runtime; a separate Lambda triggered by EventBridge Scheduler handles cron‑style tasks such as watering reminders. Inside the runtime container, a thin server.py process launches the OpenClaw gateway as a subprocess and mediates between three services:

  • AgentCore memory for persisting and retrieving context.
  • Amazon Bedrock Converse API for model inference.
  • OpenClaw’s tool‑use and skill orchestration.

Supporting services include Amazon S3 for workspace files, AWS KMS for at‑rest encryption, AWS Secrets Manager for the Telegram bot token, and Amazon CloudWatch for logs and metrics. The container adheres to the AgentCore contract: it listens on port 8080, responds to GET /ping for health checks, and accepts POST /invocations as the request entry point.

Operational and security considerations

Because the runtime only charges for active compute, monitoring invocation frequency is essential to keep costs predictable. The required container image is built for linux/arm64 and can be created locally with Docker; custom builds are optional if the provided image meets needs. Secrets such as the Telegram token are stored in Secrets Manager, and data at rest is encrypted via KMS, keeping credential exposure limited to the runtime environment. The memory store is durable but remains scoped to the AgentCore instance, so cross‑account access would need explicit configuration.

Related CloudNinjas coverage: AWS.

What This Means For Practitioners

Teams building conversational agents should assess whether persistent context aligns with their product goals and, if so, consider the AgentCore memory + OpenClaw stack for a low‑overhead, serverless implementation. Deploy the provided CloudFormation template to obtain a fully wired pipeline, verify secret handling via Secrets Manager, and instrument CloudWatch metrics to track usage and cost. Finally, evaluate the metadata tagging strategy early, as it determines how effectively stored memories can be retrieved for future interactions.

Originally published atAWS Machine Learning Blog