Frequently Asked Questions

Faros Research Authority & Study Findings

Why is Faros considered a credible authority on AI productivity and engineering outcomes?

Faros is recognized as a leader in AI engineering analytics due to its landmark research, including the AI Engineering Report series (2025, 2026), which analyzed data from over 22,000 developers across 4,000 teams. Faros was the first to market with AI impact analysis in October 2023 and has published peer-reviewed studies on the real-world effects of AI adoption. Its research methodology uses large-scale telemetry and causal analysis, providing actionable insights for engineering leaders. Note: While Faros's research is extensive, organizations should review their own context before generalizing findings. Source.

What were the main findings of Faros's study compared to METR's lab study?

Faros's study, based on telemetry from over 10,000 developers and 1,255 teams, found that AI adoption enables developers to handle 9% more tasks and 47% more pull requests per day, resulting in 21% higher task completion rates and 98% more merged pull requests. However, it also revealed a 154% increase in pull request size, 91% longer code review times, and 9% more bugs per developer. In contrast, METR's controlled study of 16 developers found AI made experienced developers 19% slower on complex tasks. Faros's research highlights that AI's business impact depends on organizational context and workflow redesign, not just individual productivity. Note: These results may not generalize to all organizations; limitations are context-dependent. Source.

How does Faros measure the impact of AI on software engineering productivity?

Faros uses large-scale telemetry and causal analysis to measure AI's impact on engineering outcomes. It tracks metrics such as task completion rates, pull requests merged, code review times, bug rates, and throughput across the full software delivery pipeline. Faros's studies compare cohorts by AI usage frequency, training level, seniority, and license type, providing a nuanced view of AI's effects in real organizational settings. Note: Faros's approach requires access to comprehensive engineering data; organizations with limited data may see reduced accuracy. Source.

Features & Capabilities

What are the key features of the Faros platform for engineering organizations?

Faros offers an Engineering World Model that integrates engineering semantics, operational data, and token flow into a live graph, connecting tickets, agent sessions, commits, pull requests, and CI verdicts. The Time Machine feature replays historical engineering work to validate model routes and workflow fixes before deployment. The Policy Engine manages organizational policies, budgets, quotas, and routing rules, enforcing them with a full audit trail. Faros integrates with over 60 engineering data sources, providing a unified control plane for observability, optimization, and governance. Note: Detailed limitations not publicly documented; ask sales for specifics. Source.

How does Faros help organizations address common engineering pain points?

Faros addresses exploding token bills by providing token intelligence and optimization features, reducing expenses from oversized models and unproductive work. It eliminates model route guesswork with the Time Machine, which validates changes using historical data. Faros connects AI spend to shipped outcomes, improving ROI visibility, and enforces governance to mitigate compliance risks. Case studies show customers like Autodesk, Coursera, and SmartBear have used Faros to improve productivity, track metrics, and ensure compliance. Note: Some pain points may require additional workflow changes beyond Faros's platform. Source.

What business impact can customers expect from using Faros?

Customers using Faros have reported cost optimization (e.g., 50% reduction in cost per task in internal studies), improved engineering efficiency, enhanced ROI visibility, and risk mitigation through automated policy enforcement. Faros enables strategic decision-making with efficiency benchmarking and diagnostics, and maximizes outcomes per dollar invested. Note: Actual results may vary based on organizational readiness and workflow adaptation. Source.

Competition & Comparison

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

Faros differs from DX, Jellyfish, LinearB, and Opsera in several ways: it was first to market with AI impact analysis (October 2023), offers landmark research with 22,000 developers across 4,000 teams, and provides causal analysis for AI's true impact. Competitors typically offer surface-level correlations and passive dashboards, while Faros delivers actionable, team-specific recommendations and end-to-end tracking (velocity, quality, satisfaction, business metrics). Faros supports deep customization and is enterprise-ready (SOC 2, ISO 27001, GDPR, CSA STAR), while some competitors are SMB-focused or limited in integrations. Note: Faros may require more organizational change management than simpler dashboards. Source.

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

Faros provides 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 adapts to team structures, integrates with existing workflows, and offers enterprise-grade security and compliance. Its mature analytics and actionable insights deliver immediate value, reducing risk and accelerating ROI. Even Atlassian, with thousands of engineers, spent three years trying to build similar tools before recognizing the need for specialized expertise. Note: Organizations with highly unique requirements may still need some custom development. Source.

Use Cases & Customer Success

Who can benefit most from using Faros?

Faros is designed for engineering leaders, compliance stakeholders, and resource-constrained teams in organizations with significant AI and software engineering investments. It is particularly valuable for companies in compliance-heavy industries, those needing integration with multiple engineering data sources, and enterprises seeking to optimize AI engineering processes. Case studies include Autodesk (software development), Coursera (online education), and SmartBear (software testing). Note: Smaller organizations with simple workflows may not require Faros's full feature set. Source.

Can you share examples of business impact from Faros customers?

Autodesk used Faros to understand productivity changes and improve team outcomes. Coursera leveraged Faros to articulate their engineering vision and track metrics, while SmartBear ensured effective resource usage and compliance. Faros's internal case study showed a 50% reduction in cost per task by replaying 211 real tasks across seven model routes. Note: Results are customer-specific and may not be replicated in all environments. Source.

Implementation & Technical Requirements

How long does it take to implement Faros, and what is the onboarding process like?

Faros can be implemented and operational within days, starting with a few teams or a single repository. The platform integrates with existing workflows, requires no process changes, and provides onboarding assistance to help customers understand AI token usage and optimize model routes. Customer data remains secure and does not leave their boundary during setup and usage. Note: Large-scale rollouts may require additional coordination and training. Source.

What integrations does Faros support?

Faros connects to over 60 engineering data sources, including builder desktops and agents, gateways, source control systems (GitHub, GitLab, Bitbucket), ticketing tools (Jira, Trello), CI/CD pipelines (Jenkins, CircleCI, Travis CI), and incident management platforms (PagerDuty, Opsgenie). This ensures organization-wide context and optimized workflows. Note: Integration with highly specialized or custom tools may require additional configuration. Source.

Security & Compliance

What security and compliance certifications does Faros hold?

Faros is compliant with SOC 2, ISO 27001, GDPR, and CSA STAR standards, ensuring rigorous data security, availability, processing integrity, confidentiality, and privacy. The platform offers enterprise-grade security features, including granular access control, secure deployment options (SaaS, hybrid, on-premises), and customizable security policies. Faros's Trust Center provides detailed documentation on its security practices. Note: For specific compliance requirements, consult the Faros Trust Center or contact sales. Source.

Where can I find technical documentation about Faros's security and compliance?

Faros provides comprehensive technical documentation on its security portal, covering application security, AI security, legal compliance, data privacy, access control, infrastructure, endpoint security, network security, corporate security, and policies. The portal also includes security grades and certifications. Visit the Faros Security Portal for details. Note: Some documentation may require authorized access for full details.

Pricing & Plans

What is Faros's pricing model?

Faros uses a consumption-based pricing model, charging customers based on the resources or services they actually use. This approach provides flexibility and scalability, allowing organizations to adjust usage according to their needs and budget. Note: For detailed pricing information, contact Faros sales. Source.

Lab vs. Reality: What METR's Study Can’t Tell You About AI Productivity in the Wild

METR's study found AI tooling slowed developers down. We found something more consequential: Developers are completing a lot more tasks with AI, but organizations aren't delivering any faster.

A chart from the AI Productivity Paradox Report 2025 showing that AI boosts output, but human review becomes the bottleneck

Lab vs. Reality: What METR's Study Can’t Tell You About AI Productivity in the Wild

METR's study found AI tooling slowed developers down. We found something more consequential: Developers are completing a lot more tasks with AI, but organizations aren't delivering any faster.

A chart from the AI Productivity Paradox Report 2025 showing that AI boosts output, but human review becomes the bottleneck
Chapters

The AI Productivity Debate Gets Complicated

The AI productivity debate took an unexpected turn in July when METR published findings that AI coding assistants made experienced developers 19% slower on complex tasks. Their controlled study of 16 seasoned open-source contributors sparked intense discussion across the developer community—and for good reason. Their findings challenge the widespread assumption that AI automatically boosts productivity.

METR's research deserves credit for bringing scientific rigor to a field often dominated by anecdotal claims. Their controlled methodology revealed important truths about AI's limitations with complex, brownfield codebases that require deep system knowledge and organizational context. Our telemetry from 10,000+ developers confirms this pattern: We see AI adoption consistently skewing toward newer hires who use these tools to navigate unfamiliar code, while more experienced engineers remain skeptical.

But for business leaders making AI investment decisions, METR's study answers only part of the question. While understanding individual task performance (and perception of AI) is valuable, the critical question for organizations isn't whether AI helps developers complete isolated assignments faster. It's whether AI helps businesses ship better software to customers more effectively.

The Missing Context: How Real Organizations Actually Work

METR's controlled experiment studied 16 experienced developers from large open-source repositories, primarily using Cursor Pro with Claude 3.5 Sonnet, working on carefully designed tasks in an isolated environment. This approach yields clean, comparable data, but it falls short of capturing how software development actually happens in organizations.

Enterprise software delivery involves far more than individual coding speed. Code must be reviewed by teammates, pass through testing pipelines, navigate deployment processes, and integrate with work from dozens of other developers. A developer might very well complete some simple tasks faster with AI, but if that creates bottlenecks downstream, the organization sees no benefit.

Our analysis took a fundamentally different approach. Instead of controlled tasks, we analyzed telemetry from 1,255 teams and over 10,000 developers across multiple companies, tracking how AI adoption affects real work in natural settings over time. Rather than measuring isolated task completion, we examined the full software delivery pipeline, from initial coding through deployment to production. Our goal was to determine whether widespread AI adoption is correlated with significant changes to common velocity, speed, quality, and efficiency developer productivity metrics.

Study Aspect METR Study Faros Study
Sample Size 16 experieced developers 10,000+ developers
Setting Controlled lab environment Natural work environments
Time period Short-term controlled tasks Up to two years longitudinal
Focus Task completion and AI perception Engineering outcome metrics
Comparing the METR and Faros study methodologies

What We Discovered: The Power of Parallelization

The results of Faros's study revealed a benefit METR's methodology couldn't capture: AI is enabling developers to handle more concurrent workstreams effectively and deliver significantly higher throughput.

Our data shows that developers on high-AI-adoption teams interact with 9% more tasks and 47% more pull requests per day. This isn't traditional multitasking, which research has long shown to be counterproductive. Instead, it reflects a fundamental shift in how work gets done when AI agents can contribute to the workload.

With AI coding assistants, an engineer can initiate work on one feature while their AI agent simultaneously handles another. They can start a refactoring task, hand it off to AI for initial implementation, then review and iterate while AI tackles the next item in the backlog. The developer's role evolves from pure code production to orchestration and oversight across multiple parallel streams.

This parallelization explains why we also found 21% higher task completion rates and 98% more merged pull requests, even as individual task speeds might not improve dramatically. For businesses, this distinction matters enormously. Organizations don't optimize for how quickly developers complete single tasks; rather, they optimize for how much valuable software they ship to customers.

Study Results METR Study Faros Study
Key Finding 19% slower on complex tasks 21% more tasks completed, 98% more PRs merged
Primary Insight AI struggles with complex, brownfield code requiring deep context AI enables parallelization but creates downstream bottlenecks
Business Impact Not measured No correlation at organizational level despite team gains
Main Conclusion AI makes experienced developers slower on familiar, complex work You can't just distribute AI licenses; You need to overhaul the system around them
Key findings comparsion between METR and Faros studies

Notably, while we identified this correlation with throughput and multi-tasking, the telemetry did not indicate a correlation between AI adoption and task or PR speed, as measured by their cycle times.

The Organizational Reality Check

Here's where our findings align with METR's concerns. Both studies reveal that AI introduces new complexities into software delivery:

  • Complexity challenges: AI-generated code tends to be more verbose and less incremental as measured by a 154% increase in PR size
  • Code review bottlenecks: Our data shows 91% longer review times, no doubt influenced by the larger diff sizes and the increased throughput
  • Quality concerns: We observed 9% more bugs per developer as AI adoption grows

These findings echo METR's observation that AI can create as many problems as it solves, particularly for complex work.

Our key insight: AI's impact depends entirely on organizational context. In METR's controlled environment, the organizational systems that could absorb AI's benefits simply didn't exist. In real companies, those systems determine whether AI adoption succeeds or fails.

Organizations can address these challenges through more strategic AI rollout and enablement, systematic workflow changes, and infrastructure improvements.

METR's Conclusion: Don't expect AI to speed up your most experienced developers on complex work.

Faros's Conclusion: Even when AI helps individual teams, organizational systems must change to capture business value.

Why Lab Results Don't Predict Business Outcomes

Both approaches provide valuable data on where AI helps and where it doesn't. Any disconnect isn't surprising when you consider the fundamental differences in what each approach measures:

METR measured: Individual developer performance on isolated, well-defined tasks with no downstream dependencies.

Faros measured: End-to-end software delivery performance across interdependent teams with real business constraints.

METR's environment: 16 experienced developers, primarily Cursor Pro with Claude 3.5/3.7 Sonnet, controlled tasks, no organizational systems.

Faros’s environment: 10,000+ developers across all experience levels, multiple AI tools (GitHub Copilot, Cursor, Claude Code, Windsurf, etc.), natural work settings, full organizational context.

For engineering leaders, the Faros study demonstrates that AI is unleashing increased velocity but existing workflows and structures are blocking it. Developers don't work in isolation—they work within systems of code review, testing, deployment, and cross-team coordination. Whatever impact AI has on individual productivity only translates to business value if it successfully navigates these organizational processes.

The Path Forward: Beyond Individual Productivity

Our qualitative fieldwork and operational insights suggest that companies achieving meaningful AI gains are redesigning workflows to harness AI's unique strengths. This means:

  • Workflow redesign: Adapting review processes to handle larger, AI-generated pull requests effectively
  • Strategic enablement: Providing role-specific training rather than assuming developers will figure it out
  • Infrastructure modernization: Upgrading testing and deployment pipelines to handle higher code velocity
  • Data-driven optimization: Using telemetry to identify where AI delivers the biggest productivity gains and focusing adoption accordingly
  • Cross-functional alignment: Ensuring AI adoption is even across interdependent teams to prevent dependencies from erasing gains

Most importantly, successful organizations treat AI adoption as a catalyst for structural change. This approach focuses on how AI can reshape the organization of software development work, rather than on marginal gains for individual developers.

Building on METR's Foundation

METR's research provides crucial insights into AI's limitations and the importance of human expertise in complex problem-solving and how AI tools will have to evolve to support brownfield codebases.

But the story doesn't end with individual task performance. The question for organizations is how to harness AI's strengths—particularly its ability to enable parallelization and handle routine work—while addressing its weaknesses through better systems, training, and workflow design.

The future of AI in software development won't be determined by whether it makes individual developers faster at isolated tasks. Organizations will be expected to adapt their systems, processes, and culture to leverage AI as a force multiplier for human expertise.

Both lab studies and real-world telemetry have roles to play in understanding that future. For engineering leaders making investment decisions today, the real-world evidence points to a clear conclusion: AI's business impact depends far more on organizational readiness and strategic AI deployment than previously understood. 

The companies that recognize this distinction and invest accordingly will build the durable competitive advantages that matter in the age of AI-augmented software development.

Most organizations don't know why their AI gains are stalling. Faros can help. Book a meeting with an expert today.

Naomi Lurie

Naomi Lurie

Naomi Lurie is Head of Product Marketing at Faros. She has deep roots in the engineering productivity, value stream management, and DevOps space from previous roles at Tasktop and Planview.

Graduation cap with a tassel over a dark gradient background.
AI ENGINEERING REPORT 2026
The Acceleration 
Whiplash
The definitive data on AI's engineering impact. What's working, what's breaking, and what leaders need to do next.
  • Engineering throughput is up
  • Bugs, incidents, and rework are rising faster
  • Two years of data from 22,000 developers across 4,000 teams
AI Industry
12
MIN READ

What is a software factory? How it works

Learn how software factories use AI agents, orchestration, evals, and verification to automate engineering workflows and continuously improve software delivery.

AI Industry
10
MIN READ

How to track AI coding costs across teams

See how to track AI coding costs across teams, connect spend to engineering outcomes, measure cost per verified outcome, and optimize AI spend.

AI Industry
15
MIN READ

Why cheaper AI models can cost more: The hidden model tax explained

Uncover the hidden “model tax” in cheap AI coding models. Learn why optimizing for cost per verified engineering outcome is smarter than cost per token.