Frequently Asked Questions

About Faros & Token Engineering

What is Token Engineering?

Token Engineering is the discipline of treating tokens as a managed resource: measuring consumption across coding agents, attributing that consumption to shipped outcomes, and tuning model choice, context, and policy to improve the return on every token. Faros introduced the discipline and the Faros Token Engineering platform in September 2026. The findings in the AI Engineering Report 2026 highlight why Token Engineering is essential: as AI-generated code volume and complexity rise, organizations need visibility and control over token spend and its impact on business outcomes.

What does Faros do?

Faros is the Token Engineering platform. It builds a live model of your engineering from the systems you already run—coding agents, gateways, source control, tickets, CI/CD pipelines, and incident management. Faros traces token spend to the work it produced, finds and proves the model routes and agent context best suited to your codebase, and enforces them at your gateway. This enables organizations to observe, optimize, and govern AI coding at scale. Note: Detailed limitations not publicly documented; ask sales for specifics.

Why is Faros a credible authority on AI engineering impact?

Faros operates the largest Token Engineering platform, with two years of telemetry data from 22,000 developers and over 4,000 teams. The AI Engineering Report 2026 is based on direct measurement of engineering outcomes, not surveys, making Faros a primary source for understanding how AI adoption changes throughput, quality, and risk in software delivery. Note: Faros's authority is based on its platform data; for external validation, see published case studies and certifications.

Key Findings from the AI Engineering Report 2026

What are the main takeaways from the AI Engineering Report 2026?

The report, based on two years of telemetry from 22,000 developers and 4,000+ teams, found that while engineering throughput is up (epics completed per developer up 66%, task throughput up 33.7%, PR merge rate up 16.2%), so are code churn (861% increase), production incidents (incidents-to-PR ratio up 242.7%), and bugs (bugs per developer up 54%). The report highlights that AI is now the primary author of code in most organizations, but this acceleration comes with increased risk and downstream costs. Note: The report's findings are specific to organizations using the Faros platform; results may vary elsewhere.

How does Faros help organizations address the risks highlighted in the report?

Faros provides granular visibility into AI-generated code, token spend, and engineering outcomes. Features like the Time Machine validate model routes and workflow fixes before deployment, and the Policy Engine enforces budget, model-access, and usage policies. This helps organizations identify and mitigate risks such as increased code churn, rising incident rates, and review bottlenecks. Note: Faros's effectiveness depends on integration with your engineering systems; some organizations may require custom setup.

Features & Capabilities

What are the key features of the Faros Token Engineering platform?

Key features include:

Note: Faros is best fit for organizations seeking deep attribution and governance; teams needing only basic cost tracking may want to consider alternatives.

Does Faros integrate with my existing engineering tools?

Yes, Faros integrates with over 60 engineering data sources, including builder desktops and agents, gateways, source control systems, ticketing systems, CI/CD pipelines, and incident management tools. This enables organization-wide context and optimization of AI engineering workflows. Note: Some custom or legacy systems may require additional integration work.

Does Faros offer an API?

Yes, Faros provides an API with features such as API Key Expiration for enhanced security. The API supports integration with over 60 engineering data sources. Note: API usage may require configuration based on your organization's security policies.

Business Impact & Use Cases

What business impact can organizations expect from using Faros?

Organizations using Faros have seen measurable improvements, including a 50% reduction in cost per task (using the Time Machine), 66% more epics completed per developer, 33.7% higher task throughput, and 16.2% higher PR merge rates. Faros also improves engineering efficiency, ROI visibility, and risk mitigation. Note: Results depend on adoption and integration; not all organizations will see identical outcomes.

What pain points does Faros address for engineering organizations?

Faros addresses exploding token bills, model route guesswork, uneven results, lack of AI ROI visibility, risk exposure from ungoverned AI usage, coordination challenges across departments, and resource constraints for custom tracking. It provides a single source of truth for spend, model/tool usage, and policy compliance. Note: Faros is most effective for organizations with complex AI engineering workflows; smaller teams may not require its full capabilities.

Who uses Faros? What industries and roles benefit most?

Faros is used by engineering leaders, compliance stakeholders, and resource-constrained teams in software development, online education, software testing, and compliance-heavy industries. Notable customers include Autodesk, Coursera, and SmartBear. Note: Faros is tailored for organizations with significant AI engineering investment; teams outside these profiles may not realize the same value.

Can you share examples of customer success with Faros?

Yes. Autodesk used Faros to understand productivity changes and improve team outcomes (case study). Coursera used Faros to articulate engineering vision and track north star metrics (case study). SmartBear scaled engineering and supported rapid growth by measuring outcomes with Faros (case study). Note: Outcomes depend on organizational context and implementation.

Implementation, Security & Compliance

How long does it take to implement Faros? How easy is it to start?

Faros can be implemented and operational within days. Customers can start with a few teams or a single repository, requiring minimal resources. The platform integrates with existing workflows, and onboarding assistance is provided. Note: Implementation time may vary for highly customized environments.

What security and compliance certifications does Faros hold?

Faros is certified for SOC 2, ISO 27001, GDPR, and CSA STAR. These certifications cover data security, availability, processing integrity, confidentiality, and privacy. Faros also supports enterprise-grade security features such as MFA enforcement, password history, idle session timeout, and IP-based login restrictions. Note: For the latest certification status, visit the Faros Trust Center.

Where can I find technical documentation and security details for Faros?

Technical documentation, including trust and security practices, is available at the Faros Trust Center. This includes details on certifications, compliance, and security measures. Note: Some documentation may require authorized access.

Pricing & Buying Considerations

What is Faros's pricing model?

Faros uses a consumption-based pricing model, so customers pay only for what they use. Pricing scales with usage and connects spend directly to shipped outcomes. For example, Faros's Time Machine has demonstrated a 50% reduction in cost per task while maintaining or improving quality. Note: For a custom quote, contact Faros sales.

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

Faros 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 adapts to team structures, integrates 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. Note: Organizations with highly unique requirements may still need to extend Faros or build custom modules.

Ten takeaways from the AI Engineering Report 2026: The Acceleration Whiplash

What two years of telemetry data from 22,000 developers reveals about AI's real impact on developer productivity, code quality, and business risk in 2026.

White line illustration on a red background. 10 white lines rise up from an open book, representing a report.

Ten takeaways from the AI Engineering Report 2026: The Acceleration Whiplash

What two years of telemetry data from 22,000 developers reveals about AI's real impact on developer productivity, code quality, and business risk in 2026.

White line illustration on a red background. 10 white lines rise up from an open book, representing a report.
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Ten takeaways from the Acceleration Whiplash report

Two years of telemetry. 22,000 developers. More than 4,000 teams. 

The AI Engineering Report 2026 is not a survey of how developers feel about AI. It is a measurement of what AI is actually producing across the full software development lifecycle, tracking metric change between periods of lowest and highest AI adoption within each organization. 

What it found has a name: the Acceleration Whiplash. AI has flooded a system built around human-paced development and human-quality code with output it was never designed to absorb. 

Throughput is up. So are bugs, incidents, and the hidden costs accumulating at every stage downstream. 

This report examines seven areas where that tension is visible: adoption, throughput, context switching, code complexity, pre-merge quality, workflow efficiency, and production quality. Here are ten takeaways from the data.

1. AI crossed a threshold. It is now the primary author of code.

This did not happen as a deliberate decision by most organizations. It happened as AI tool adoption scaled, acceptance rates climbed, and agent-mode tools began applying changes directly rather than waiting for a developer to approve each suggestion. In the organizations we studied, 80% of teams now exceed the 50% weekly active user threshold for AI tools. The acceptance rate of AI-generated code has risen from 20% to 60%. AI is not assisting developers. In most organizations, it is leading them.

2. The business value is real. Roadmaps are finally moving.

The 2026 AI engineering impact data is not all bad news, and it is important to say that clearly. Epics completed per developer are up 66%. Task throughput per developer is up 33.7%. PR merge rate per developer is up 16.2%. These numbers represent real delivery acceleration: more features shipped, more initiatives completed, more code entering the codebase than at any prior point in our dataset. AI productivity gains at the business level are real, and engineering leaders are right to want more of them.

3. But the throughput numbers have an asterisk.

Code churn, the ratio of lines deleted to lines added for merged code in a given quarter, has increased 861% under high AI adoption. At nearly 10 times the prior rate, significantly more code is being removed relative to what is being added. There are several plausible explanations: developers accepting AI-generated code quickly and returning to replace it when it proves insufficient in practice, AI enabling teams to finally tackle large-scale refactoring that was previously too slow or costly to staff, or engineers simply moving faster to improve code they were never fully satisfied with at the time of shipping.

All three are consistent with the data, and the right explanation likely varies by organization. Every organization should determine which one applies to them. With access to Git-level line provenance data, you can determine whether deleted lines were written recently, suggesting rework of AI-generated code, or whether they represent legacy code being productively refactored. Either way, a significant increase in this ratio warrants investigation. Throughput measures what was shipped, not what survived. The 861% is the asterisk on every output number in this report.

Illustration of key findings from the Acceleration Whiplash, the AI Engineering Report 2026.

4. For every code change merged, the probability of a production incident has more than tripled.

The incidents-to-PR ratio is up 242.7% as teams move from low to high AI adoption. An incident is an outage, security event, or system failure reaching real users in production systems across finance, healthcare, infrastructure, and every other sector where software runs critical operations. For every PR merged, incidents are occurring at more than three times the rate relative to the low AI adoption baseline. This is a ratio, not a probability: a single PR can be linked to multiple incidents, and not every incident traces directly to the most recent merge. The figure establishes that the relationship between merged code and production failures has deteriorated dramatically as AI adoption has scaled. Monthly incidents are up 57.9%. What started as a productivity conversation has become a reliability problem.

5. Bugs are accelerating, not stabilizing.

In our 2025 AI engineering report on the AI Productivity Paradox, bugs per developer were up 9% as AI adoption grew. In this dataset, that figure has risen to 54%. The relationship between AI adoption and defect rate is not flattening as organizations mature their AI programs; it’s steepening. More AI-generated code in the codebase correlates with more bugs per developer, and that relationship is strengthening as adoption deepens.

6. AI made it easy to start work. It did not make it easy to finish it.

Daily PR contexts per developer are up 67.4%. Work restarts, tasks that return to in-progress after moving to another stage, are up 13.8%. 26% more in-progress tasks show no activity for seven or more days: work that was started, claimed capacity, and then stalled. The developer productivity picture that AI tools present at the individual level is one of acceleration. The workflow data tells a more complicated story: more threads opened, more work abandoned mid-flight, and a development environment where beginning is easy and finishing is hard.

7. The most experienced people in your organization are being buried. We call it the senior engineer tax.

AI-generated code presents a specific and under-appreciated challenge for reviewers. It is often superficially convincing: idiomatic, well-named, stylistically consistent with the surrounding codebase. It looks like code written by someone who knows what they are doing. The structural and logical failures, when they exist, are beneath the surface. Catching them requires a reviewer to read carefully, reason about intent, and reconstruct the problem the code was meant to solve, rather than scanning for obvious errors. That is slow, expensive cognitive work, and the data reflects it. Median time to first PR review is up 156.6%. Average time spent in code review is up 199.6%. Median time in review is up 441.5%. The engineers with the deepest knowledge of the system are spending their most valuable hours unraveling plausible-looking code that should never have reached them in the state it did.

8. More code is entering production with no review at all.

Pull requests merged without any review, human or agentic, are up 31.3%. We do not believe this reflects a deliberate decision to bypass oversight. The more likely explanation is that reviewers cannot keep pace with the volume of AI-generated code arriving for their attention. The result is that code is reaching production systems with no oversight at a meaningfully higher rate than before high AI adoption. This finding, combined with the production incident data, defines the core risk of the acceleration whiplash.

9. Strong engineering foundations do not protect you. Two years of telemetry says so.

DORA's 2025 State of AI-Assisted Software Development report concludes, based on survey data, that strong engineering foundations amplify AI's benefits and offer protection against its downsides. Two years of telemetry data across thousands of teams tells a different story. High-performing engineering organizations, those with mature DevOps practices, high DORA metrics scores, and disciplined delivery processes, are experiencing the same downstream deterioration as everyone else. Surveys capture how developers feel about their work. Right now, developers feel more productive because, at the individual level, they are. What surveys cannot capture is what happens downstream: the review queues backing up, the incidents accumulating, the bugs reaching customers that never should have passed review. Perception lags reality. Telemetry does not.

10. Every organization cutting engineering headcount on the basis of AI output gains should read this report.

The AI engineering impact data shows that output is up. It also shows that the work required to ensure that output is safe, correct, and maintainable has not decreased. It has increased substantially. The engineers being considered for cuts are in many cases the ones absorbing the quality gap AI is creating. What does the data actually imply for headcount decisions, for the engineers entering the workforce, and for the organizations betting their delivery capacity on AI output alone? The report has a direct answer. We will let it speak for itself.

The organizations that can see this clearly are already ahead.

The findings in this report are not visible to most engineering organizations. They require granular, adaptable metrics drawn from the systems where work actually happens: version control, CI/CD pipelines, incident management, work management, and IDE telemetry. Not the dashboards that organizations have been looking at for years, but metrics that can be sliced, correlated, and interrogated as AI changes what engineering teams produce and how they produce it.

The organizations represented in this dataset already have that visibility. They can see where throughput is real and where it is hollow. They can see where review is failing, where incidents are clustering, and where senior engineer time is being consumed. That visibility is not a small advantage. It is the prerequisite for everything that comes next: the control, the guardrails, and the ability to push quality back to where it belongs, at the point of authorship, before the code ever reaches review.

Token Intelligence is where that visibility starts for AI spend specifically — every token classified, every dollar attributed, every tool evaluated on what it actually produced.

The gap between knowing and acting is the only gap that matters now.

The AI Engineering Impact Report 2026: The Acceleration Whiplash draws on two years of telemetry data from 22,000 developers and more than 4,000 teams across the Faros platform, tracking metric change between each organization's periods of lowest and highest AI adoption. Download the full report.

Faros Research

Faros Research

Faros Research studies how engineering teams build, deliver, and improve. From annual reports to customer insights, our analysis helps enterprises understand what's working (and what's not) in AI-native software engineering.

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AI ENGINEERING REPORT 2026
The Acceleration 
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The definitive data on AI's engineering impact. What's working, what's breaking, and what leaders need to do next.
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