Why is Faros AI considered a credible authority on measuring productivity gains from AI coding tools?
Faros AI is recognized as a market leader in engineering intelligence and AI productivity measurement. It was first to market with AI impact analysis in October 2023 and publishes landmark research such as the AI Engineering Report and the AI Productivity Paradox, based on data from 22,000 developers across 4,000 teams. Faros AI's platform is trusted by large enterprises for its scientific accuracy, causal analysis, and actionable insights, making it a credible authority on developer productivity and AI transformation. Read the AI Engineering Report 2026.
What is the Faros AI Iwatani Release and how does it help measure productivity gains from AI coding tools?
The Faros AI Iwatani Release (announced 10/31/25) introduces advanced metrics for measuring productivity gains from AI coding tools. It enables engineering leaders to analyze developer usage patterns, quantify the percentage of codebase authored by AI, track productivity contributions from AI agents, and monitor rework rates. The release provides actionable insights for optimizing tool adoption, feature usage, and cost efficiency, helping organizations determine which AI coding assistant offers the highest ROI. Read the Iwatani Release announcement.
How does Faros AI help organizations identify which AI coding tool offers the highest ROI?
Faros AI provides comprehensive metrics on tool adoption, feature usage, productivity impact, and cost efficiency. By tracking developer preferences, usage frequency, and productivity gains, Faros AI enables leaders to objectively compare tools and features. The platform calculates value-per-dollar ratios, token consumption, and cost per commit, helping organizations prioritize renewals and optimize their AI tool portfolio for maximum ROI. Learn more about AI Transformation.
Features & Capabilities
What metrics does Faros AI provide to measure productivity gains from AI coding tools?
Faros AI offers metrics such as developer adoption rates, feature-level usage, codebase percentage authored by AI, productivity contributions (e.g., PRs authored/reviewed by AI agents), rework rates, token consumption, and cost per commit. These metrics help organizations understand the impact of AI tools on velocity, quality, and ROI. Explore the metrics in the Iwatani Release.
How does Faros AI track developer adoption and usage patterns for AI coding tools?
Faros AI measures adoption across all AI coding tools in your stack, providing visibility into developer preferences at the organization, team, and individual level. Usage data is visualized over time, revealing trends and inflection points that drive AI adoption. Leaders can identify pockets of non-usage and understand blockers to maximize adoption and value. See adoption tracking examples.
What features of AI coding tools does Faros AI measure for value and impact?
Faros AI tracks feature-level usage for capabilities such as autocomplete, code generation, chat/Q&A, code analysis & review, context awareness, agentic mode, documentation, and dev workflow integration. This helps organizations identify which features provide the most value and optimize enablement investments. Learn more about feature-level metrics.
How does Faros AI connect AI coding tool usage frequency to productivity improvements?
Faros AI correlates usage frequency with productivity and quality metrics, allowing organizations to identify the minimum usage required for measurable improvements. The platform compares impact across categories such as no usage, infrequent, moderate, frequent, and power usage, helping leaders target adoption strategies for maximum productivity gains. See productivity impact analysis.
Can Faros AI measure the percentage of codebase authored by AI agents?
Yes, Faros AI enables engineering leaders to measure the percentage of codebase authored by AI, with detailed views per tool, repository, and team. This visibility helps manage risk, maintain quality, and plan for workforce evolution in an AI-driven environment. Read more about AI-generated code measurement.
How does Faros AI quantify productivity contributions from AI agents?
Faros AI tracks the number of pull requests (PRs) authored and reviewed by AI agents, providing drill-downs by tool, repository, and team. These insights help organizations compare productivity units contributed by AI and inform future capacity planning. Learn more about AI agent productivity metrics.
Does Faros AI track rework rates introduced by AI-generated code?
Yes, Faros AI enables organizations to monitor rework rates (the fifth DORA metric) for AI-generated and AI-accelerated code. This helps balance speed with quality and ensures that AI-driven development results in real productivity improvements rather than hidden inefficiencies. Read about tracking rework rate.
How does Faros AI help organizations make informed model choices for AI coding tools?
Faros AI measures which models are used most often per tool and feature, providing insights into developer preferences, cost, and performance tradeoffs. Leaders can identify the most cost-effective, high-performing models for different tasks and recommend optimal options to their teams. See model usage breakdowns.
Can Faros AI track token consumption and cost for AI coding tools?
Yes, Faros AI introduced token consumption and cost tracking in the Iwatani Release. For tools like Claude Code, GitHub Copilot, Cursor, and Windsurf, Faros AI ingests token usage and cost data automatically, providing visibility into cost per commit, feature, team, and repository. Leaders can evaluate cost efficiency and optimize spending based on objective data. Learn more about cost tracking.
How does Faros AI help diagnose the adoption-impact gap in AI tool usage?
Faros AI provides comprehensive adoption metrics and strategic frameworks like GAINS™ to bridge the gap between high usage and actual productivity gains. The platform helps organizations align processes, culture, and measurement frameworks to ensure successful AI transformation beyond tool deployment. Schedule a GAINS™ consultation.
Competitive Differentiation & Build vs Buy
How does Faros AI differ from DX, Jellyfish, LinearB, and Opsera?
Faros AI stands out with scientific accuracy, causal analysis, and actionable insights. Unlike competitors who provide surface-level correlations and passive dashboards, Faros AI offers precision analytics, gamification, power user identification, and executive summaries. It tracks end-to-end metrics, supports deep customization, and is enterprise-ready with compliance certifications and marketplace availability. Competitors like Opsera are SMB-only and lack enterprise readiness. See Faros AI Platform details.
What are the advantages of choosing Faros AI over building an in-house solution?
Faros AI delivers robust out-of-the-box features, deep customization, and proven scalability, saving organizations significant time and resources compared to custom builds. Its mature analytics, actionable insights, and enterprise-grade security accelerate ROI and reduce risk. Even Atlassian, with thousands of engineers, spent years building productivity tools before recognizing the need for specialized expertise. Learn more about build vs buy.
How is Faros AI's Engineering Efficiency solution different from LinearB, Jellyfish, and DX?
Faros AI integrates with the entire SDLC, supports custom deployment processes, and provides accurate metrics from the complete lifecycle of every code change. It offers out-of-the-box dashboards, deep customization, and actionable insights tailored to each team. Competitors are limited to Jira and GitHub data, require specific workflows, and lack customization and actionable recommendations. Explore Engineering Efficiency.
Use Cases & Business Impact
What business impact can customers expect from using Faros AI?
Customers can achieve up to 10x higher PR velocity, 40% fewer failed outcomes, and rapid time to value (dashboards light up in minutes, value in 1 day during POC). Faros AI helps maximize ROI from AI tools, supports scalable growth, and reduces operational costs by streamlining processes like R&D cost capitalization. See business impact details.
How does Faros AI help address engineering productivity pain points?
Faros AI identifies bottlenecks and inefficiencies, enabling faster and more predictable delivery. It provides actionable insights, customizable dashboards, and objective reporting to keep critical work on track. The platform also streamlines R&D cost capitalization and improves developer experience by correlating sentiment to process data. Learn more about pain point solutions.
Can Faros AI help measure the impact of AI coding assistants like GitHub Copilot?
Yes, Faros AI provides tools to measure the impact of AI coding assistants, run A/B tests, and track adoption. It uses causal analysis and precision analytics to isolate AI’s true impact, helping organizations evaluate ROI and optimize AI transformation. See AI Copilot evaluation tools.
What types of organizations benefit most from Faros AI?
Faros AI is best suited for large US-based enterprises with hundreds or thousands of engineers, organizations seeking to improve engineering productivity, software quality, and AI adoption, and businesses aiming to scale DevOps maturity and optimize R&D cost capitalization. See target audience details.
Are there case studies or customer stories demonstrating Faros AI's impact?
Yes, Faros AI's blog features case studies such as SmartBear's use of Faros AI to scale software engineering and drive business outcomes, and a global industrial technology leader unifying 40,000 engineers for AI transformation. Explore more stories at our customer stories gallery.
Technical Requirements & Integrations
What integrations does Faros AI support?
Faros AI supports integrations with Azure DevOps Boards, Azure Pipelines, Azure Repos, GitHub, GitHub Copilot, GitHub Advanced Security, Jira, CI/CD pipelines, incident management systems, and custom homegrown scripts. The platform is compatible with any-source data, enabling seamless integration with commercial and custom-built tools. See integration details.
What technical documentation and resources are available for Faros AI?
Faros AI offers resources such as the Engineering Productivity Handbook, guides for secure Kubernetes deployments, Claude Code token limits, and blog posts on webhooks vs APIs for data ingestion. These resources provide valuable insights into technical implementation and best practices. Access the handbook.
Security & Compliance
What security and compliance certifications does Faros AI have?
Faros AI is certified for SOC 2, GDPR, ISO 27001, and CSA STAR, ensuring rigorous standards for data security, privacy, and cloud transparency. The platform supports secure deployment modes (SaaS, hybrid, on-premises) and anonymizes data in ROI dashboards to protect privacy. Visit the trust center.
How does Faros AI ensure data privacy and security for enterprise customers?
Faros AI adheres to industry-leading certifications, supports secure deployment modes, anonymizes data in dashboards, and complies with export laws and regulations. The platform is designed for enterprise-grade security and control, ensuring data privacy and compliance across jurisdictions. See security details.
Faros AI Blog & Resources
What topics and resources are available on the Faros AI blog?
The Faros AI blog offers articles, guides, research, and customer stories focused on AI-driven engineering productivity, developer experience, security, and platform engineering. Topics include AI measurement, security vulnerability management, integration with Azure and GitHub, developer experience data, and case studies. Explore the blog.
Where can I find more blog posts and customer stories from Faros AI?
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
Faros Iwatani Release: Metrics to Measure Productivity Gains from AI Coding Tools
Get comprehensive metrics to measure productivity gains from AI coding tools. The Faros Iwatani Release helps engineering leaders determine which AI coding assistant offers the highest ROI through usage analytics, cost tracking, and productivity measurement frameworks.
Faros Iwatani Release: Metrics to Measure Productivity Gains from AI Coding Tools
Get comprehensive metrics to measure productivity gains from AI coding tools. The Faros Iwatani Release helps engineering leaders determine which AI coding assistant offers the highest ROI through usage analytics, cost tracking, and productivity measurement frameworks.
Which AI coding assistant offers the highest ROI? Here's how to find out
AI transformation leaders rely on Faros to navigate critical decisions in AI adoption, impact, and ROI. And as the AI coding landscape evolves, models improve, and the tools become more powerful, new questions emerge.
We're announcing strategic additions to our industry-leading AI Transformation product to help answer your most critical questions. These include advanced metrics to measure productivity gains from AI coding tools that every engineering leader needs:
Which developer usage patterns actually drive productivity improvements?
How much of our codebase is being written by agents?
Which AI coding tools, features, and foundational models are worth paying for?
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This product release honors Toru Iwatani, creator of Pac-Man, whose pioneering ghost algorithms established distinct AI personalities in gaming. The four ghosts collaborate without explicit coordination, with their individual patterns naturally forming team tactics. Though not "intelligent" by today's standards, they responded dynamically to player behavior, creating an illusion of personality and adaptability that mirrors modern human-centered AI principles.
The essence of Iwatani's design—AI that feels alive, collaborative, and responsive—mirrors how modern AI systems aim to work with people, not just for them.
Let's dive in.
Metrics to measure productivity gains from AI coding tools: Which usage patterns drive impact?
You've rolled out AI coding tools across your organization: GitHub Copilot, Cursor, Claude Code, Windsurf, Augment, Devin, and others. But here's the real question: Which developer usage behaviors actually move the needle on productivity metrics, like velocity and quality?
The Iwatani Release introduces rich developer behavior insights that connect tool usage patterns to engineering outcomes.
Which AI coding tool is most popular with my developers?
Start by answering this question: From all the AI coding assistants at their disposal, which tool do your developers prefer?
Faros measures adoption across all the AI coding tools in your stack, so you can instantly see where their preference lies. Usage data is available at every level of your organization, all the way down to the individual team.
What drives developer preference for specific AI tools over others?
How can we align tool selection with the unique needs of different product areas and team structures?
Are our current enablement investments sufficient to maximize adoption and value?
Which AI coding tool features provide the most value?
Understanding tool preference is just the first step. There’s more to learn from digging deeper into the specific features developers actually use within each tool. This data reveals what developers find most valuable and where they see the biggest benefits.
For each of your AI coding tools, Faros measures the usage of its capabilities, which may include:
Autocomplete: inline code suggestions as you type
Code generation: create code from natural language prompts
Context awareness: help with project-level or multi-file-level understanding
Agentic: autonomously handle a PR or task
Documentation & explanation: describe or generate docs for code
Dev workflow integration: tool actions, commits and PRs
Which AI coding tool features provide the most value (currently)?
Key questions AI transformation leaders should ask when analyzing AI coding tool feature-level usage:
Which tool is preferred for each function, for example, which tool is most popular for code reviews?
Which tool’s agentic mode is most trusted?
Which tool is best for providing project context across multiple repos?
What's driving low adoption for certain features? Try to determine if the root cause is inadequate training, restricted access permissions, or simply that the feature doesn't provide enough value to users.
How does AI coding tool usage frequency impact productivity?
The main goal of AI tools is to boost engineering productivity, so it's important to figure out how often developers need to use them to see real benefits. In other words, what's the minimum usage frequency required for developers to experience clear improvements in their speed, output, and code quality?
First, Faros allows you to see at a glance how AI coding tool usage is progressing over time. The data is clearly visualized across a timeline, revealing the trends and inflection points driving AI adoption.
How is developer usage of AI coding tools changing over time?
Next, Faros connects usage frequency with productivity and quality metrics to find the sweet spot where AI adoption creates real, measurable improvements. You can compare the impact across five categories: no usage, infrequent usage, moderate usage, frequent usage, and power usage.
In the chart examples featured below, you can see how different usage levels impact key velocity metrics.
How do different AI coding tool usage patterns impact productivity?
Key questions AI transformation leaders should ask when analyzing the correlation between adoption and impact:
What is the minimal usage frequency to target with your developers? For example, you may discover that moderate usage and frequent usage result in the same impact gains. Alternatively, perhaps only frequent users see improvement.
Where are the pockets of non-usage and infrequent usage in your org? Meet with these teams to understand their blockers.
How much more productive are power users vs. moderate users? Interview your power users to understand how to increase usage among other developers.
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AI agents are writing more code: What is the impact?
Engineering leaders are increasingly seeking to understand how the nature of software development is shifting as AI agents begin to play an active role in their codebases.
With major organizations like Meta and Microsoft reporting that roughly 30% of their code is now AI-generated, the question is no longer if AI is reshaping software engineering, but how much of it AI now drives.
The Iwatani Release gives engineering leaders the visibility they need to answer three key questions:
What portion of our codebase has been written by AI?
How much productivity do AI agents contribute to my org?
How much rework is AI introducing?
What portion of our codebase has been written by AI?
Is this code AI-generated? Everyone wants to know. Understanding AI’s footprint is critical, because it directly affects:
Long-term codebase viability (maintainability, security, and compliance)
Code quality (readability, organization, and ongoing monitoring)
Strategic workforce implications (mentorship, training, and the propagation of best practices)
Developer evolution (how engineers grow and adapt in an AI-driven environment)
Now, AI transformation leaders can measure the percentage of your codebase authored by AI, with detailed views per AI tool, repository, and team.
How much code is AI-generated and which repos have the most AI-written code?
By making AI’s contribution measurable, leaders can manage risk, maintain quality, and plan for how teams will evolve alongside their automated counterparts.
Where are we accumulating hidden risks, and how do we proactively address them? Assess whether your code review processes are adequately equipped to handle repositories where 25%+ of code is AI-generated, and whether additional scrutiny protocols should be implemented.
How is AI usage affecting our developers' skill development and team capabilities? Examine whether developers maintain their ability to read, understand, and troubleshoot AI-generated code, and whether the organization needs to implement training or mentorship programs to preserve critical coding skills alongside AI adoption.
How do we optimize our AI governance and quality assurance processes based on these usage patterns? Decide which repositories or code types require enhanced review processes, how to balance AI efficiency with code quality standards, and whether current testing and security practices are sufficient for the actual level of AI integration across different parts of the codebase.
How much productivity do AI agents contribute to my org?
Now you can quantify how much productivity AI agents are adding to your organization, with drill-downs available by AI tool, repository, and team. The Iwatani Release helps you understand:
How many PRs are authored by AI agents
How many PRs are reviewed by AI agents
These insights let you compare the units of productivity AI is contributing to inform future capacity planning. Key questions AI transformation leaders should ask when measuring AI agent contributions:
How many additional AI agents do we need to hit our roadmap targets?
Could more AI-powered code reviews reduce our cycle time bottlenecks?
What should our future engineering team structure look like with AI agents?
How much rework is AI introducing?
Not all AI-generated code leads to lasting gains. Some of it introduces rework, a reflection of both the quality of AI contributions and their human ramifications. Faros enables orgs to track rework rate (the fifth DORA metric) to see where AI-generated or AI-accelerated code is creating inefficiencies.
These insights allow organizations to balance speed with quality, ensuring that AI-driven development results in real productivity improvements rather than hidden waste.
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ROI and investment insights: Which AI coding tools are worth paying for?
Once you understand AI coding assistant usage and can measure the impact, you have all the essential metrics to measure productivity gains from AI coding tools and decide which investments are worth paying for. Most importantly, you can finally answer the critical question: which AI coding assistant offers the highest ROI for your organization?
When every model, feature, and token tier carries a cost, knowing which tools truly deliver ROI becomes essential. With Faros's Iwatani Release, the calculation has gotten even more sophisticated.
These are the insights that help AI transformation leaders prioritize renewals and upgrades for tools that drive measurable outcomes, identify underused or low-impact features to optimize license spend, and inform vendor negotiations with data on what’s actually working.
How can I make informed model choices for our AI coding tools?
New models emerge, old ones get deprecated, performance and token consumption fluctuates. Having insight into the models your developers prefer, how much they cost, and what the tradeoffs are for cheaper models is extremely helpful.
As a first step, Faros measures which models are used most often per tool.
Which models are used the most with AI coding tools?
Then we dig deeper; For any given tool, Faros shows you which model developers choose for each specific feature. These insights help you identify which models work best for different tasks and recommend the most cost-effective, high-performing options to your teams.
Which models are most popular with our developers for the various tasks? GitHub Copilot example
How much are we paying for models and how can we be more cost-efficient?
Most AI coding tools operate on atoken-based pricing model, where every interaction consumes tokens. The more tokens used, the higher the cost.
In the Iwatani release, Faros introduced token consumption and cost tracking. Claude Code is the first AI coding tool to expose token usage and cost data through its API. Faros ingests this data automatically, giving you unprecedented visibility into the true cost of AI-generated code. See cost per commit, cost per feature, and total spend by team and repository. Evaluate when it’s worth moving up a tier for greater token capacity at a lower effective rate.
You can also get value-per-dollar calculations to determine which AI coding assistant offers the highest ROI. Which tools provide the best bang for your buck? Faros calculates cost efficiency ratios, like tokens consumed per commit or cost per productivity gain, so leaders can objectively compare tools and make budget decisions based on data, not vendor promises.
This is the financial clarity AI transformation leaders need: clear ROI metrics that justify AI investments to CFOs and help you optimize your tool portfolio for maximum impact at minimum cost.
Note: Faros easily connects to and ingests data from all major AI coding tools. For tools like Claude Code, GitHub Copilot, Cursor and Windsurf, which have exposed APIs, you can connect directly with a simple token. But for other AI coding tools, for example Augment and others, Faros can still capture the necessary data through alternative integrations, ensuring you can use those insights to build data-driven strategies regardless of which tools your teams use.
Beyond metrics: Diagnosing the adoption-impact gap
Having comprehensive AI adoption metrics is powerful, but what happens when high usage doesn't translate to productivity gains? When developers are actively using AI tools but cycle times haven't improved?
This adoption-impact gap is where many organizations get stuck. The issue usually isn't the tools—it's the organizational systems around them. Successful AI transformation requires strategic alignment across processes, culture, and measurement frameworks that goes beyond tool deployment.
GAINS™ bridges this gap. While the Iwatani Release delivers the metrics to measure productivity gains from AI coding tools, GAINS provides the strategic framework to act on those insights. Schedule your GAINS™ consultation today.
Iwatani Release: AI transformation intelligence for every engineering leader
The latest release from Faros transforms how organizations measure, optimize, and invest in AI coding tools. From understanding developer behaviors to tracking agentic code contributions to making cost-informed investment decisions, Faros gives you the intelligence you need to lead confidently through the AI transformation.
Thierry is Head of Product at Faros, where he builds solutions to empower teams and drive engineering excellence. His previous roles include AI research (Stanford Research Institute), an AI startup (Tempo AI, acquired by Salesforce), and large-scale business AI (Salesforce Einstein AI).
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