October 2026 Summaries
2 posts from Checkly
Filter
Month:
Year:
Post Summaries
Back to Blog
Honeycomb has launched a Canvas connector for Checkly that integrates synthetic monitoring into its AI-powered incident investigation workspace, allowing the Canvas Agent to examine failing checks, locations, failure timing, status pages, and Checkly Rocky AI root-cause analyses alongside Honeycomb telemetry. Built on Checkly’s spec-compliant MCP server, the connector lets agents read monitoring data automatically while requiring user approval for actions such as rerunning checks, creating new checks, updating configurations, or starting analyses. The integration combines Honeycomb’s internal observability data with Checkly’s outside-in perspective from browser, API, and uptime checks across more than 20 locations, helping teams identify whether users experienced failures and why. In a demonstration using the OpenTelemetry Astronomy Shop, the agent correlated degraded catalog-service checks with hourly Playwright suites and traces, identifying resource contention on a shared machine as the cause of latency. Users can connect their Checkly account through Canvas without an API key, with access limited to each user’s existing permissions, while teams managing checks as code are advised to add Canvas-made changes back to their repositories to prevent later deployments from overwriting them.
Oct 27, 2026
1,236 words in the original blog post.
Software factories use agents to build, test, review, and deploy code, but often lack a feedback mechanism for detecting and repairing failures after release. While reviews, tests, and CI reduce the cost of validating code before deployment, production monitoring is needed to quickly identify failures caused by real data, infrastructure, configuration, or user interactions that pre-release testing misses. Customer reports, logs, and metrics can be slow or incomplete signals, particularly for issues that do not produce errors, whereas synthetic browser monitoring can repeatedly test critical user flows and provide direct evidence such as failed steps, screenshots, traces, network logs, and root-cause analysis. Failed checks can trigger agent workflows through webhooks, allowing agents to triage incidents, collect evidence, correlate changes with deployments, propose code or monitoring updates, test fixes against preview environments, and open draft pull requests for review. Teams can determine how much autonomy to grant agents, from alerting and ticket creation to automated rollback or merging, but repository-based runbooks and production checks help create a closed-loop system that detects and responds to failures without waiting for customers to report them.
Oct 21, 2026
1,440 words in the original blog post.