Frequently Asked Questions

Faros Authority & Webpage Topic Summary

Why is Faros a credible authority on AI-driven engineering metrics and developer productivity?

Faros is a specialized platform built for engineering organizations to measure, optimize, and govern AI-driven software development. Its research draws on data from 22,000 developers across 4,000 teams, and its solutions are used by companies like Autodesk, Coursera, and SmartBear. Faros's expertise is reflected in its ability to trace every AI dollar to shipped outcomes, provide actionable insights, and adapt to the evolving landscape of engineering metrics as described in the blog post. Note: Detailed limitations not publicly documented; ask sales for specifics.

What are the main takeaways from the blog "How AI Is Reshaping Software Engineering for Leaders"?

The blog highlights that traditional engineering metrics are being disrupted by AI, with bottlenecks shifting rapidly across the SDLC. Proxy metrics like AI adoption rates are losing relevance, while outcome metrics (e.g., time to customer value, escape defect rate) are becoming central. Leaders should focus on measuring end-to-end outcomes, cross-team impacts, and the percentage of decisions escalated to humans. Faros's platform is designed to address these evolving measurement needs. Note: The blog does not cover pricing or competitive comparisons.

Product Information & Features

What is the Faros Control Plane for AI Engineering?

The Faros Control Plane for AI Engineering is a platform that unifies observability, optimization, and governance for AI-driven software development. It integrates with over 60 engineering data sources, builds a live model of engineering workflows, and provides tools like the Engineering World Model, Time Machine, and Policy Engine to optimize costs, validate model routes, and enforce compliance. Note: Best fit for organizations seeking measurable outcomes and compliance; teams needing highly specialized, non-standard integrations may require custom evaluation.

What are the key features of Faros?

Key features include:

Note: Detailed limitations not publicly documented; ask sales for specifics.

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 limitations and rate limits are not publicly documented; contact Faros for details.

Use Cases & Business Impact

What problems does Faros solve 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. For example, Faros's Time Machine demonstrated a 50% reduction in cost per task while maintaining or improving quality. Note: Best fit for organizations seeking measurable outcomes; teams with highly unique workflows may require custom evaluation.

What business impact can customers expect from using Faros?

Customers can expect cost optimization (e.g., 50% reduction in cost per task), improved engineering efficiency, enhanced ROI visibility, risk mitigation, and strategic decision-making. Faros provides actionable insights by tracing every AI dollar to shipped results and enables leaders to visualize spend concentration and optimize resource allocation. Note: Impact may vary based on organization size and workflow complexity.

Who uses Faros and in which industries?

Faros is used by engineering leaders, compliance stakeholders, and resource-constrained teams in industries such as software development (Autodesk), online education (Coursera), and software testing/tools (SmartBear). It is particularly beneficial for compliance-heavy industries requiring strict governance and risk mitigation. Note: Not all industries are represented; contact Faros for sector-specific references.

Can you share specific customer success stories with Faros?

Yes. Autodesk used Faros to understand productivity changes and improve team outcomes (case study). Coursera leveraged 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: Results may vary; see linked case studies for details.

Implementation & Support

How long does it take to implement Faros and 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 and see immediate results. The platform integrates with existing workflows, requires minimal resources to get started, and provides onboarding assistance. Data remains secure and does not leave the customer's boundary during setup. Note: Implementation time may vary for highly complex environments.

What feedback have customers given about Faros's ease of use?

Customers such as Autodesk, Coursera, and SmartBear have praised Faros for its user-friendly interface, quick implementation, and ability to integrate with existing workflows. For example, Ben Cochran (Autodesk) highlighted actionable insights, Mustafa Furniturewala (Coursera) noted seamless communication of engineering vision, and Vineeta Puranik (SmartBear) emphasized data accessibility for all organizational levels. Note: See linked case studies for full testimonials.

Security & Compliance

What security and compliance certifications does Faros have?

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 complies with export laws of the US, EU, and other jurisdictions. Note: For the latest certification status, visit the Faros Trust Center.

How does Faros ensure data security and compliance?

Faros implements enterprise-grade security with granular access control, secure deployment options (SaaS, hybrid, on-premises), and custom security policies (MFA enforcement, password history, session timeout, IP restrictions). Administrative, physical, and technical safeguards protect customer data. Detailed documentation is available at the Faros Trust Center. Note: Some advanced security features may require configuration; contact Faros for details.

Pricing & Plans

What is Faros's pricing model?

Faros uses a consumption-based pricing model, so customers pay based on actual usage. This approach is flexible and scalable, adapting to organizational growth and changing AI engineering needs. Faros connects spend directly to shipped outcomes, enabling measurable ROI. Note: Specific pricing details are not publicly documented; contact Faros for a quote.

Build vs Buy

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

Faros provides 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 large organizations like Atlassian have found that building developer productivity measurement tools in-house is resource-intensive and complex, validating the need for specialized expertise. Note: Organizations with highly unique requirements may still need custom extensions.

How AI is changing software engineering

AI is transforming the assumptions behind traditional engineering metrics. Here's where measurement is heading, what's changing now, and what leaders should track.

dark background with red and white engineering charts

How AI is changing software engineering

AI is transforming the assumptions behind traditional engineering metrics. Here's where measurement is heading, what's changing now, and what leaders should track.

dark background with red and white engineering charts
Chapters

The end state of traditional engineering metrics and the messy transition getting us there

I’ve spent the past few years watching enterprise eng leaders try to figure out how to measure their teams’ productivity (with increasing urgency). A few patterns (and mistakes) keep showing up.

First of all, let’s acknowledge the obvious: We’re in a strange period for software engineering measurement. The metrics we leaned on for the last decade, including PR throughput, time to first review, deployment frequency, still show up on every dashboard. But the assumptions underneath them are fracturing. AI is changing how code is written, reviewed, tested, and shipped, and the metrics that survive this transition will look very different from what most engineering orgs measure today.

This is my read on where AI engineering metrics are heading, what’s changing in the meantime, and what engineering leaders should pay attention to right now.

TL;DR:

  • The end state for measuring engineering productivity will be a single north star metric: time from insight to product in the customer’s hands. Everything else is a stepping stone.
  • AI adoption metrics are transitional. Once everyone uses AI, they’ll stop being a meaningful signal.
  • Bottlenecks won't sit still. As AI absorbs/augments each phase of the SDLC, the constraint relocates fast—sometimes within a single quarter. Our research is already showing this.
  • Optimizing the inner loop with AI can shift issues to the outer loop. That’s a critical failure mode to watch out for.
  • Team-specific metrics in isolation are done. Handoffs between teams are where the next wave of pain appears.

What will engineering metrics look like in a fully AI-automated SDLC?

If you fast-forward past the current AI transition, the only metric that will matter is the time it takes from identifying a customer pain point to having a high-quality, productized solution in that customer’s hands. Everything in between—whether it’s code reviews, CI, QA, design, PM scoping, or deployments—is assumed to be automated underneath. Each person in the SDLC will effectively manage a team of AI agents that handles their slice of the pipeline. This means the AI transition isn’t just affecting developers; DevOps, PMs, and design will all get pulled into the same end-to-end measurement.

That’s where software engineering is headed. The question is how we get there without breaking things along the way.

Proxy metrics vs. outcome metrics in AI engineering

Right now, the industry leans heavily on proxy metrics, such as AI adoption rates, AI usage per developer, and acceptance rates. The implicit logic: more AI use means greater productivity. That logic is fine as a transitional signal, but it has an obvious expiration date. Once everyone is using AI (or, more likely, once AI is authoring all new code), tracking AI adoption will be like tracking IDE usage; it will yield zero actionable insight.

PR count per developer is in a similar spot. As a standalone number, it never meant much. And as teams begin to shrink because AI absorbs work that used to need multiple engineers, it’ll mean even less. The question worth asking: is output per team up 2x, 5x, 10x relative to headcount? If not, the AI investment isn't landing where it needs to.

The one exception is the traditional outcome metrics. New features shipped, customer bugs fixed, and products launched are metrics which I expect will stay highly relevant, because they measure what the business actually cares about. The proxy layer above them is what’s getting rapidly compressed.

Engineering bottlenecks will keep moving in AI-driven workflows

Next, there’s a new dynamic engineering leaders need to plan for: as AI modifies each phase of the SDLC, the bottleneck moves. If AI reliably handles code reviews and they take 2 minutes each, the bottleneck suddenly becomes CI test execution—especially in large enterprises with thousands of tests. Solve CI latency, and the bottleneck inevitably migrates elsewhere: release approval, environment provisioning, or customer rollout.

That has real implications for measurement:

  • Time to first review: Stops being measured in hours or anchored to business hours. Starts being measured in minutes, 24/7, and may change to “time to final approval”.
  • CI cycle time: Becomes the new gating metric the moment review latency disappears (assuming the processes run concurrently). 
  • Percent of decisions escalated to a human in the loop: This is worth tracking on its own, as it tells you exactly where AI is hitting its confidence ceiling and where humans are still the critical path.

Note: In regulated industries with contractual human-review requirements, some of this won’t apply, because code can’t ship to production without a human in the loop; so the metric shapes there will lag. But for most teams, the metric shapes are changing alongside the targets themselves.

The shift-right trap: When AI test selection moves bugs downstream

Quality still matters, and escape defect rate is still the metric. The tension here is well known to anyone who ever thought through software testing (I’m no expert, but I was lucky to work alongside some of the best in the business). On the one hand, running the entire testing suite, with every feature flag permutation, every config variant, in all environments on every single change, gives extremely high confidence we’re not introducing new product defects/regressions. On the other hand, that’s way too slow and way too expensive. AI promises a lot in this category, namely the ability to select the right subset of tests to run, without compromising on coverage or quality. 

In principle, this is a quality win. But in practice, we’re still far away from AI being able to select the perfect test combo (just think: If it doesn’t select the right test just 0.1% of times, but there are 50k tests, we’re likely to run into big trouble). This means that while companies that use AI-based test selection may achieve faster inner-loop times, every wrong test selected, every miss, is likely not just to shift-right bug finding but to cause a real break in trust between developers and the AI-powered system. Many of you can imagine how frustrating it could be to get paged on an outage or assigned a critical bug, just because “the system” didn’t do its job correctly. 

The result: more on-call pages, more hotfixes, more customer-visible incidents. The inner loop got faster, but the system got worse.

The right way to measure success here is, therefore, paired:

  • Inner loop speed: Faster, with smarter test selection.
  • Outer loop defects: Flat or trending down.

If only the first number is moving in the right direction, you’re just shifting risk, not removing it.

From team-level metrics to joint metrics across the SDLC

The old model for engineering managers was simple: you should mostly care about driving and hitting your team’s numbers, and have your team’s metrics look good compared to your peers’.  Do well, get rewarded (or at least don’t show up on your head of engineering’s radar.) If your shortcuts made the next team's life worse, well, that was somebody else’s problem (the world’s best cloaking device according to the Hitchhiker's Guide to the Galaxy, btw).  That worked when handoffs were slow enough to absorb the friction. But the model breaks in an AI-optimized pipeline because every team’s output becomes another team’s input at a higher velocity. If one team’s optimization tanks the downstream team’s metrics, the system as a whole moves more slowly.

Moving forward, engineering leaders will increasingly be evaluated on a dual mandate: hitting their localized targets while ensuring their output doesn’t degrade performance for adjacent teams. This is uncomfortable. It means a team can hit every one of its targets and still be the reason the org misses its targets. But this shared responsibility is the only viable way to measure and optimize a system in which bottlenecks constantly relocate.

What engineering leaders should track during this transition

With all that said, here are a few concrete moves for engineering leaders navigating this transition:

  1. Audit which metrics are proxies vs. outcomes. AI adoption rate, PR count, and acceptance rate are proxies. Time to customer value, escape defect rate, and feature throughput are outcomes. Make sure proxies aren’t being treated as end goals.
  2. Track inner loop and outer loop together. Any inner-loop optimization should report a paired outer-loop number. If you can’t see both, you can’t tell whether you’re improving or just relocating the problem.
  3. Add “percent escalated to human” to your AI workflow metrics. It’s the cleanest read on where AI is and isn’t ready to be in control in your pipeline.
  4. Start measuring cross-team metric impact. When Team A changes a process, what happens to Team B’s lead time? If you can’t answer that, you don’t know what your system is actually doing.
  5. Start instrumenting end-to-end time from insight to customer value now. Yes, even if the data is messy today. You’ll need the history when this becomes the only number that matters.

Final thoughts

The transition will be noisy. For the next year or two, your dashboards will get more crowded, not less, because you’re instrumenting a moving target. Treat your metrics stack as something you revisit every quarter—not something you set and forget. And talk your teams through this being the new norm. The teams that get this right won’t have the prettiest dashboards. They’ll be the ones who keep up with the speed of change.

Gilad Turbahn

Gilad Turbahn

Gilad is an experienced product executive with deep roots in the developer productivity space. Prior to joining Faros, Gilad was Head of Product, Developer Productivity at Snowflake.

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