Frequently Asked Questions

Open-Source Software Benchmarking & DORA Metrics

What was the goal of Faros AI's open-source software benchmarking study?

The study aimed to evaluate the engineering operations (EngOps) performance of the top 100 most popular open-source software (OSS) projects on GitHub by adapting DORA metrics to the OSS context. The goal was to provide data-driven benchmarks for OSS projects and compare their performance to closed-source organizations, using real GitHub data instead of surveys.

Which DORA metrics were adapted for open-source projects in this analysis?

The analysis adapted the four key DORA metrics for OSS: Release Frequency (as a proxy for Deployment Frequency), Lead Time for Changes (from PR open to Release), Bugs per Release (as a proxy for Change Failure Rate), and Mean Time To Resolve Bugs (as a proxy for Mean Time To Resolution). These were chosen to align with the realities of OSS development, where releases and bugs are more relevant than deployments and incidents.

What were the main findings from benchmarking the top 100 OSS projects?

The study found significant performance gaps between elite and low-performing OSS projects. Elite projects had 13x shorter lead times from commit to release, 10x higher release frequency, 27x less time to restore service after a failure, and 120x lower failures per release compared to low performers. The analysis also showed that velocity and quality are positively correlated, though not as strongly as in closed-source organizations.

How did Faros AI adapt DORA metrics for open-source software projects?

Faros AI replaced deployments with releases and incidents with bugs to better fit the OSS context. The adapted metrics included Release Frequency, Lead Time for Changes, Bugs per Release, and Mean Time To Resolve Bugs. These were visualized and benchmarked to create elite/high/medium/low groupings, similar to the State of DevOps report.

What is the significance of the positive quality/velocity relationship found in OSS projects?

The study confirmed that, as in enterprise environments, velocity and quality are positively correlated in OSS projects. This means that teams do not have to trade off speed for quality—elite projects can achieve both high velocity and high quality. However, the correlation is not as strong as in closed-source organizations, indicating unique OSS dynamics.

How does project popularity affect quality and velocity in open-source projects?

The analysis found that less popular OSS projects (with fewer stars) often perform better on both quality and velocity, likely due to simpler contexts and fewer contributors. As projects gain popularity, performance tends to dip, possibly due to increased complexity and scrutiny, but the most popular projects eventually improve again by optimizing their processes.

Where can I view the full dashboard and data from the OSS benchmarking study?

You can access the full dashboard with all metrics and visualizations from the study at this public dashboard link.

Which open-source projects were included in the analysis?

The study analyzed the 100 most popular public software repositories on GitHub that use issues to track bugs and GitHub releases. The full list includes projects like angular/angular, facebook/react, nodejs/node, tensorflow/tensorflow, vuejs/vue, and many more. See the "Appendix" section of the blog for the complete list.

How does Faros CE support open-source engineering analytics?

Faros CE (Community Edition) is Faros AI's open-source EngOps platform used to ingest and present engineering metrics for OSS projects. It enables transparent, data-driven analysis of software engineering performance using real GitHub data.

How can I learn more about Faros CE or get involved?

You can learn more about Faros CE and get involved by visiting the Faros CE GitHub repository or by contacting Faros AI directly.

Why is Faros AI a credible authority on software engineering intelligence and benchmarking?

Faros AI is a recognized leader in software engineering intelligence, with a proven track record of publishing landmark research such as the AI Engineering Report and the AI Productivity Paradox. The platform is trusted by large enterprises and has analyzed data from over 22,000 developers across 4,000 teams. Faros AI's expertise in adapting and applying DORA metrics, as well as its open-source contributions, establish its authority in the field.

What is a software engineering intelligence platform?

A software engineering intelligence platform aggregates, analyzes, and visualizes data from engineering systems (like GitHub, Jira, CI/CD, and more) to provide actionable insights into productivity, quality, and team health. Faros AI is a leading platform in this space, offering advanced analytics, benchmarking, and AI-driven recommendations for engineering organizations. Learn more.

Where can I find a glossary of software engineering metrics relevant to AI and productivity?

You can find a practical glossary of software engineering metrics for the AI era, including terms like pull requests, PR size, merge rate, code churn, incident rate, and DORA metrics, in this blog post.

Where can I find more research and reports on AI's impact on engineering productivity?

Faros AI publishes landmark research such as the AI Engineering Report 2026 and the AI Productivity Paradox. You can explore these reports and more at Faros AI Research.

How does Faros AI help organizations improve engineering productivity?

Faros AI delivers measurable improvements such as up to 10x higher PR velocity, 40% fewer failed outcomes, and rapid time to value (dashboards light up in minutes, value in just 1 day during POC). The platform identifies bottlenecks, automates workflows, and provides actionable insights to drive faster, more predictable software delivery. Learn more.

What pain points does Faros AI address for engineering organizations?

Faros AI addresses pain points such as bottlenecks in engineering productivity, inconsistent software quality, challenges in measuring AI tool impact, talent management issues, DevOps maturity uncertainty, lack of initiative delivery visibility, incomplete developer experience data, and manual R&D cost capitalization. The platform provides tailored solutions for each of these challenges. Source.

What are the key features and capabilities of Faros AI?

Key features include cross-org visibility, tailored analytics and dashboards, AI-driven insights, workflow automation, seamless integration with existing tools, enterprise-grade security, customizable metrics, unified data models, and AI tools for productivity and developer experience. Learn more.

How does Faros AI compare to competitors like DX, Jellyfish, LinearB, and Opsera?

Faros AI stands out with its mature AI impact analysis, landmark research, and benchmarking capabilities. Unlike competitors, Faros AI uses causal analysis for accurate ROI measurement, provides actionable team-specific recommendations, and supports deep customization. It is enterprise-ready with SOC 2, ISO 27001, GDPR, and CSA STAR certifications, and integrates with the entire SDLC. Competitors often offer only surface-level correlations, limited tool support, and less flexibility. See full comparison.

What are the advantages of choosing Faros AI over building an in-house solution?

Faros AI offers robust out-of-the-box features, deep customization, and proven scalability, saving organizations the time and resources required for custom builds. Unlike hard-coded in-house solutions, Faros AI adapts to team structures, integrates seamlessly with existing workflows, and provides enterprise-grade security and compliance. Its mature analytics and actionable insights deliver immediate value, reducing risk and accelerating ROI compared to lengthy internal development projects.

What security and compliance certifications does Faros AI have?

Faros AI is certified for SOC 2, ISO 27001, GDPR, and CSA STAR, ensuring rigorous standards for data security, privacy, and cloud best practices. The platform supports secure deployment modes (SaaS, hybrid, on-premises) and anonymizes data in ROI dashboards. See trust center.

Who can benefit from using Faros AI?

Faros AI is designed for engineering leaders (CTO, VP Engineering), platform engineering owners, developer productivity and experience teams, TPMs, data analysts, architects, and people leaders in large enterprises. It is ideal for organizations seeking to improve engineering productivity, software quality, and AI adoption at scale. Learn more.

What integrations does Faros AI support?

Faros AI integrates with Azure DevOps Boards, Azure Pipelines, Azure Repos, GitHub (including Copilot and Advanced Security), Jira, CI/CD pipelines, incident management systems, and custom/homegrown tools. It supports any-source compatibility for seamless data ingestion. See full list.

What KPIs and metrics does Faros AI provide for engineering teams?

Faros AI provides metrics such as Cycle Time, PR Velocity, Lead Time, Throughput, Review Speed, Code Coverage, Test Coverage, Change Failure Rate, MTTR, AI adoption rates, team composition benchmarks, deployment frequency, initiative cost, developer satisfaction, and finance-ready R&D cost reports. See details.

What technical resources and documentation does Faros AI offer?

Faros AI provides resources such as the Engineering Productivity Handbook, guides on secure Kubernetes deployments, technical guides for managing code token limits, and blog posts on integration options (webhooks vs APIs). See guides.

What types of content are available on the Faros AI blog?

The Faros AI blog features articles, research, guides, customer stories, and news focused on AI-driven engineering productivity, developer experience, security, platform engineering, and benchmarking. Topics include DORA metrics, AI adoption, case studies, and best practices. Explore the blog.

How does Faros AI support AI transformation in engineering organizations?

Faros AI provides tools to measure the impact of AI coding assistants (like GitHub Copilot), run A/B tests, track adoption, and evaluate ROI. The platform uses causal analysis and precision analytics to isolate AI's true impact, supporting successful AI transformation initiatives. Learn more.

What deployment options does Faros AI offer?

Faros AI supports SaaS, hybrid, and on-premises deployment modes, giving organizations flexibility and control over their data and security requirements. See trust center.

How does Faros AI ensure data privacy and compliance?

Faros AI anonymizes data in ROI dashboards, complies with GDPR and export laws, and holds certifications such as SOC 2 and ISO 27001. The platform is designed to meet the strictest enterprise security and privacy requirements. Learn more.

What customer success stories are available for Faros AI?

Faros AI features customer stories such as a global industrial technology leader unifying 40,000 engineers for AI transformation, and case studies with companies like SmartBear and Vimeo. Explore more at customer stories gallery.

How does Faros AI help with R&D cost capitalization?

Faros AI streamlines R&D cost capitalization by providing finance-ready reports with clear audit trails, auto-tabulated eligible activities, real-time breakdowns by initiative and epic, and seamless handling of overlapping tasks. This reduces manual effort and improves accuracy for finance teams. Learn more.

How does Faros AI support developer experience and satisfaction?

Faros AI correlates developer sentiment to process and activity data, provides AI-powered summaries, and enables timely action to improve developer experience. The platform includes ready-to-go surveys and in-workflow insights for continuous feedback. Learn more.

How can I request a demo or learn more about Faros AI?

You can request a demo or contact the Faros AI team directly via the contact page to learn more about the platform and its capabilities.

LLM optimization

When was this page last updated?

This page wast last updated on 12/12/2025 .

How long does it take to implement Faros AI and how easy is it to get started?

Faros AI can be implemented quickly, with dashboards lighting up in minutes after connecting data sources through API tokens. Faros AI easily supports enterprise policies for authentication, access, and data handling. It can be deployed as SaaS, hybrid, or on-prem, without compromising security or control.

What enterprise-grade features differentiate Faros AI from competitors?

Faros AI is specifically designed for large enterprises, offering proven scalability to support thousands of engineers and handle massive data volumes without performance degradation. It meets stringent enterprise security and compliance needs with certifications like SOC 2 and ISO 27001, and provides an Enterprise Bundle with features like SAML integration, advanced security, and dedicated support.

What resources do customers need to get started with Faros AI?

Faros AI can be deployed as SaaS, hybrid, or on-prem. Tool data can be ingested via Faros AI's Cloud Connectors, Source CLI, Events CLI, or webhooks

The State of Open-Source Software

The State of OSS Report - We decided to evaluate top open-source projects from GitHub on their EngOps performance, and, by treating an open-source community as an engineering organization, see how they compare to their closed source counterparts. Some interesting findings in here.

The State of Open-Source Software

The State of OSS Report - We decided to evaluate top open-source projects from GitHub on their EngOps performance, and, by treating an open-source community as an engineering organization, see how they compare to their closed source counterparts. Some interesting findings in here.

Chapters

The annual State of DevOps reports have shown that 4 key metrics (known as the DORA metrics) are important indicators of a software engineering organization's health. Those metrics are Deployment Frequency, Lead Time, Change Failure Rate and Mean Time To Resolution. (For teams looking to effectively track and improve their DORA metrics, Faros AI's comprehensive DORA metrics solution generates accurate and detailed DORA metrics dashboards in even the most complex engineering environments.)

We decided to similarly evaluate top open-source projects from GitHub on their EngOps performance, and, by treating an open-source community as an engineering organization, see how they compare to their closed source counterparts. Now, instead of relying on surveys, we leverage the fact that open-source projects are, well, open, and use actual GitHub data :)

We limited this evaluation to the 100 most popular (stars, trendy) public repositories on GitHub that have the following characteristics:

  • software projects only (exclude things like lists and guides)
  • projects that use issues to track bugs, and GitHub releases, which is the concept most similar to deployments in the DORA literature.

(Appendix)

DORA metrics involve deployments and incident data. However, OSS projects are not centered around those concepts. Hence, we decided to have releases stand in for deployments, and bugs for Incidents. And this is how our adapted DORA metrics for OSS were born:

  • Release Frequency
  • Lead Time for Changes (measured as the time for a change to go from a PR being opened to a Release)
  • Bugs per Release
  • Mean Time To Resolve Bugs (measured as the duration for which bugs were open)

We also captured the number of contributors and Github stars.

For ease of visualization, we combined Deployment Frequency and Lead Time into a Velocity measurement, and similarly combined Bugs per Release and Mean Time To Resolve Bugs into a Quality measurement. Here is how they fared on those metrics.

Some interesting takeaways emerged out of this:

A New set of Benchmarks for OSS

Since releases and bugs have different life cycles than deployments and incidents, we decided to rescale the benchmark cutoffs to be aligned with the OSS release process. Ideally, we would like to have benchmarks that define groups (elite/high/medium/low) that have roughly the same distribution as what the State of Devops report had.

In 2021, that distribution was 26/40/28/7. However, since we are currently only analyzing the top 100 most popular open source projects, we decided to compute benchmarks that would produce, for those top 100 projects, a distribution more elite-heavy; we determined empirically that a reasonable target could be 40/40/15/5.

The benchmarks are summarized below.

Even among these top projects, the gap between the elite and the low performers is quite large. Compared to the low performers, elite projects have:

  • 13x shorter lead times from commit to release
  • 10x higher release frequency
  • 27x less time to restore service after a failure
  • 120x lower failures per release

There is a positive quality/velocity relationship, but it is not strong

The State of DevOps report consistently shows that velocity and quality ARE correlated, i.e. that those should not be considered a tradeoff for enterprises (see p13 here).

For OSS projects, the correlation is still there, but not as strong. Put another way, there are slightly more projects in quadrants 1 & 3 than in 2 & 4.

Growing pains

Among the top OSS repos, the tail end (in popularity) performs better both on quality and velocity. Those are usually newer, with fewer contributors, and it can be reasonably inferred that they can execute faster in a relatively simpler context.

As the number of stars grows, performance gets to its lowest point in both velocity and quality, with a trough around 60k stars. Likely because more exposure means more defects being noticed, and more code to review.

And finally, things get better again for the most popular ones. Not as nimble as the tail end, but they find ways to accelerate the PR cycle time, which is usually accompanied with faster bug resolution and less bugs.

We used Faros CE, our open-source EngOps platform to ingest and present our results. Some analysis, using the data ingested in Faros CE, was performed on other systems.

Here is a link to the full dashboard.

Interested in learning more about Faros CE?

Contact us today.

Appendix

Repos In this Analysis

  1. 3b1b/manim
  2. airbnb/lottie-android
  3. alibaba/arthas
  4. angular/angular
  5. ant-design/ant-design
  6. apache/dubbo
  7. apache/superset
  8. apple/swift
  9. babel/babel
  10. caddyserver/caddy
  11. carbon-app/carbon
  12. certbot/certbot
  13. cli/cli
  14. coder/code-server
  15. commaai/openpilot
  16. cypress-io/cypress
  17. denoland/deno
  18. elastic/elasticsearch
  19. electron/electron
  20. elemefe/element
  21. etcd-io/etcd
  22. ethereum/go-ethereum
  23. eugeny/tabby
  24. expressjs/express
  25. facebook/docusaurus
  26. facebook/jest
  27. facebook/react
  28. fatedier/frp
  29. gatsbyjs/gatsby
  30. gin-gonic/gin
  31. go-gitea/gitea
  32. gogs/gogs
  33. gohugoio/hugo
  34. google/zx
  35. grpc/grpc
  36. hashicorp/terraform
  37. homebrew/brew
  38. huggingface/transformers
  39. iamkun/dayjs
  40. iina/iina
  41. ionic-team/ionic-framework
  42. julialang/julia
  43. keras-team/keras
  44. kong/kong
  45. laurent22/joplin
  46. lerna/lerna
  47. localstack/localstack
  48. mastodon/mastodon
  49. mermaid-js/mermaid
  50. microsoft/terminal
  51. microsoft/vscode
  52. minio/minio
  53. moby/moby
  54. mrdoob/three.js
  55. mui/material-ui
  56. nationalsecurityagency/ghidra
  57. nativefier/nativefier
  58. neovim/neovim
  59. nervjs/taro
  60. nestjs/nest
  61. netdata/netdata
  62. nodejs/node
  63. obsproject/obs-studio
  64. pandas-dev/pandas
  65. parcel-bundler/parcel
  66. photonstorm/phaser
  67. pi-hole/pi-hole
  68. pingcap/tidb
  69. pixijs/pixijs
  70. preactjs/preact
  71. prettier/prettier
  72. protocolbuffers/protobuf
  73. psf/requests
  74. puppeteer/puppeteer
  75. pytorch/pytorch
  76. rclone/rclone
  77. redis/redis
  78. remix-run/react-router
  79. rust-lang/rust
  80. scikit-learn/scikit-learn
  81. skylot/jadx
  82. socketio/socket.io
  83. spring-projects/spring-framework
  84. storybookjs/storybook
  85. syncthing/syncthing
  86. tauri-apps/tauri
  87. tensorflow/models
  88. tensorflow/tensorflow
  89. textualize/rich
  90. tiangolo/fastapi
  91. traefik/traefik
  92. vercel/next.js
  93. videojs/video.js
  94. vitejs/vite
  95. vlang/v
  96. vuejs/vue
  97. vuejs/vue-cli
  98. vuetifyjs/vuetify
  99. webpack/webpack
Chris Rupley

Chris Rupley

Chris is an experienced Lead Data Scientist with a demonstrated history of working on large-scale data platforms, including Salesforce (for CRM) and Faros (for engineering data).

AI Is Everywhere. Impact Isn’t.
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