How Pinterest Leverages Honeycomb to Enhance CI Observability and Improve CI Build Stability

Pinterest Engineering
8 min readintermediate
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Overview

The article discusses how Pinterest's Mobile Builds team utilizes Honeycomb(™) to enhance continuous integration (CI) observability and improve build stability. It highlights the data-driven approach to identifying bottlenecks and optimizing CI workflows through detailed metrics and insights.

What You'll Learn

1

How to visualize build metrics using Honeycomb(™)

2

Why data-driven decisions are crucial for optimizing CI workflows

3

How to identify bottlenecks in CI builds using trace analysis

4

When to implement error categorization to streamline CI management

Prerequisites & Requirements

  • Understanding of continuous integration concepts
  • Familiarity with Honeycomb(™) and its features(optional)

Key Questions Answered

How does Honeycomb(™) enhance CI observability at Pinterest?
Honeycomb(™) enhances CI observability by providing a robust data engine that visualizes build metrics, tracks trends, and allows for detailed analysis of CI workflows. This enables the team to identify bottlenecks and optimize performance effectively.
What are the benefits of using Honeycomb(™) for pinpointing build issues?
Using Honeycomb(™) allows the team to drill down into granular details of CI builds, quickly identify problematic jobs, and analyze root causes. Its intuitive query builder and fast performance enable near real-time diagnostics and informed decision-making.
What role does error categorization play in CI management?
Error categorization helps in gaining deeper insights into build failures by identifying the main contributors to CI instability. It also streamlines on-call duties by automating alerts based on failure types, reducing noise and improving response times.
How can correlation features in Honeycomb(™) help identify root causes?
The correlation feature in Honeycomb(™) allows teams to overlay query results with other dashboards, helping to identify abnormalities. For example, spikes in build times can be correlated with CI cluster usage, leading to insights about potential causes like long wait times for CI agents.

Key Statistics & Figures

Daily events sent for CI build dataset
1 million
This volume of data allows for comprehensive analysis and insights into the CI processes.
Query completion time
under a second
This fast performance ensures that teams can access critical data quickly, even with high event volumes.

Technologies & Tools

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Observability Tool
Honeycomb(™)
Used for visualizing build metrics and enhancing CI workflows.
CI/CD Tool
Buildkite
Integrated with Honeycomb(™) for managing CI builds.
Cloud Service
AWS Eventbridge
Used for integrating Buildkite logs with Honeycomb(™) in the error categorization system.

Key Actionable Insights

1
Implement Honeycomb(™) dashboards to monitor key CI indicators like build times and success rates.
By establishing baseline metrics, teams can proactively identify trends and anomalies in their CI processes, enabling quicker responses to potential issues.
2
Utilize Honeycomb(™) trace views to analyze specific builds and pinpoint bottlenecks.
This approach allows teams to drill down into individual jobs within a build, making it easier to identify which parts of the process are causing delays and need optimization.
3
Adopt error categorization to streamline on-call processes and reduce alert fatigue.
By classifying failure types and automating alerts, teams can ensure that the right personnel are notified of issues, improving response times and reducing unnecessary interruptions.

Common Pitfalls

1
Failing to utilize detailed metrics can lead to unresolved CI issues.
Without the insights provided by tools like Honeycomb(™), teams may overlook critical bottlenecks and inefficiencies in their CI processes, resulting in prolonged build times and decreased productivity.

Related Concepts

Continuous Integration Best Practices
Observability In Software Engineering
Data-driven Decision Making In CI/CD