February 27, 2026
5
min read

The Backwards Promise of Agentic AI for Alert Fatigue

Relying on AI solely to speed up alert triage is a flawed approach to solving alert fatigue. While AI-assisted triage provides genuine relief to exhausted analysts, it merely treats the symptom rather than the underlying disease. The core issue in most security environments is not the raw volume of alerts, but the overwhelming noise generated by poorly designed and outdated detection rules. Organizations frequently add new rules without ever retiring old ones, resulting in a system where alerts constantly fire without actionable value. Using AI to automatically close these low-priority alerts creates a "treadmill" effect; the AI works faster, but the fundamental detection posture never actually improves. To truly solve alert fatigue, organizations must turn triage into a feedback loop, using investigation context to tune, fix, or permanently retire noisy detections at their source.

Eric Hulse
Director of Security Research
In this article

Everyone’s talking about agentic AI solving alert fatigue. Here’s why that framing is backwards.

To be clear: I’m not arguing against AI-assisted triage. When your analysts are buried under thousands of daily alerts, automation that helps them surface what matters is genuinely valuable. What’s backwards is treating AI triage as the fix for alert fatigue—as if the fundamental problem is that humans can’t process alerts fast enough.

If your SOC is drowning in alerts, the solution isn’t processing them faster. It’s asking why those alerts exist in the first place.

We’ve convinced ourselves this is a speed problem. It’s actually a design problem. And that distinction matters more than most security leaders realize.

The Volume Isn’t the Problem—The Noise Is

It’s not unusual for large EDR deployments to produce tens of thousands of detections per day while only a few hundred turn into genuinely actionable investigations. Those numbers should give us pause. We’re not dealing with a pure volume challenge—we’re dealing with a signal quality crisis.

Volume hurts, but the reason it hurts is the noise. When your detection layer generates thousands of alerts that don’t warrant investigation, you’re forced to treat everything like it might matter. The result? Nothing gets the attention it actually deserves. Your analysts develop pattern blindness. They start clicking through alerts instead of investigating them. The muscle memory becomes “close and move on” rather than “understand and respond.”

And here’s what makes this worse: in many organizations, the response to alert fatigue has been to add more detections.

Think about how this happens. Every major breach triggers new detection rules—nobody wants to be caught without coverage for the attack technique that just made headlines. Every threat intelligence report spawns a new use case. Every compliance framework demands coverage for another MITRE technique. Detection content grows every quarter. New rules come in faster than old ones get validated or retired.

Your SIEM has 500 correlation rules. When’s the last time someone reviewed whether rule 347 is still relevant? Whether it’s firing on actual threats or on that backup job that runs every night at 2 AM? Whether the environmental conditions that made that rule necessary three years ago still exist?

In most environments I’ve worked with, the feedback loop is broken. Detections go in. They generate alerts. Analysts ignore them because they’re noisy. But nobody removes the detection—because what if it catches something? So organizations just keep adding. The detection library becomes a sedimentary record of every security concern anyone ever had, with no mechanism for pruning what no longer serves a purpose.

The Triage Treadmill

Now enter agentic AI. The pitch sounds compelling: “We’ll automatically triage your alerts so analysts can focus on what matters.”

And the relief is real. Your team is buried. They need help. Automation that closes low-priority alerts, enriches context, and surfaces the signals worth investigating—that genuinely reduces cognitive load on exhausted analysts.

But here’s the question worth asking: if an AI triages 50,000 alerts and closes 49,000 as low priority, do you know why those 49,000 fired in the first place?

Can you see which detections are generating the most noise? Which ones have never produced a true positive? Which ones fire constantly on the same assets doing the same normal operations? Can you identify whether those closed alerts represent tuning opportunities, baseline gaps, or detections that should never have existed?

Most teams can see counts. Dashboards exist. But few organizations can turn every AI closure into a measurable detection improvement—tuning a threshold, adding a suppression, retiring a rule that’s generating noise without value, or implementing an environmental control that eliminates the alert source entirely.

Triage without that kind of actionable visibility is a treadmill. You’re running faster, but you’re not getting anywhere. Tomorrow you’ll have another 50,000 alerts. The AI will close another 49,000. And nothing about your detection posture actually improves.

The 49,000 alerts will keep firing. The AI will keep closing them. Your analysts will keep handling the 1,000 that make it through. And you’ll call this “solving alert fatigue” while your detection layer remains exactly as noisy as it was before.

This is the backwards part: we’re optimizing the response to a broken system instead of fixing the system itself.

From Coping Mechanism to Feedback Loop

The real opportunity isn’t just faster triage—it’s triage that feeds back into your detection layer. When you can see patterns in what’s being closed and why, you can start asking better questions:

Should this detection exist? Is it generating signal or noise? Does it need tuning, or does it need retirement? Is there a baseline we’re missing that would make this detection meaningful? Is there an environmental control—a configuration change, a policy adjustment—that would eliminate the underlying behavior that’s triggering these alerts?

That’s when triage stops being a coping mechanism and starts being a feedback loop. Every closed alert becomes intelligence about your detection posture. Every pattern of closures reveals opportunities to improve signal quality at the source.

This requires a different kind of visibility than most triage solutions provide. It’s not enough to know that an alert was closed as low priority. You need to understand the investigation context that led to that conclusion. You need to see the behavioral baseline that made the alert uninteresting. You need the historical pattern that shows this is the fourteenth time this same detection fired on this same asset doing this same thing.

Without that context, you’re making triage decisions without generating detection intelligence. You’re treating symptoms without diagnosing causes.

Investigation Context as Detection Intelligence

This is where Command Zero’s approach differs fundamentally from alert-centric triage automation. We’re not just helping you process alerts faster—we’re giving you the visibility to understand what’s generating them and the investigation depth to act on what matters.

When an alert fires, our platform doesn’t just assess priority. It shows you the full context: What did this identity or endpoint do before and after the triggering event? What’s the baseline behavior for this user, this asset, this application? What’s the blast radius if this alert represents something real? What happened the last three times this detection fired on similar conditions?

That context serves two purposes.

First, it helps you triage smarter. Not just “is this suspicious?” but “does this fit a pattern we’ve seen before, and what did we learn last time?” When you can see that this same detection has fired twelve times on this same service account doing the same automated process, the triage decision becomes obvious—and so does the detection improvement opportunity.

Second, it gives you the visibility to feed back into your detection layer. You can see which rules are generating noise, which assets need exclusions, which detections are worth keeping versus retiring. Every investigation becomes data about your detection posture.

Our federated question-based model lets you ask investigative questions across identity, endpoint, and cloud without pre-ingesting everything into a central repository. You’re not just closing alerts—you’re understanding your environment. And when a signal actually matters, you have the investigation platform to run it to ground with full context across your security stack.

The goal isn’t eliminating triage. It’s making triage productive—turning every closed alert into intelligence that improves your detection posture over time.

The Question Your SOC Should Be Asking

Here’s what I’d challenge security leaders to consider: not “how fast can we investigate?” but “why are we investigating this at all?”

Every alert in your queue exists because someone created a detection rule and deployed it into production. That rule is consuming analyst attention, automation capacity, and organizational focus. It should earn its place.

If you don’t have an owner, a purpose, and a validation story for most of your detections, you don’t have an investigation speed problem. You have a detection design problem. And AI triage alone won’t fix it—it’ll just help you keep pace with a system that isn’t improving.

The organizations that will actually solve alert fatigue aren’t the ones deploying the fastest triage automation. They’re the ones building feedback loops that make their detection layers smarter over time. They’re asking why alerts exist, not just how to process them faster.

Agentic AI can be part of that story. But only if it’s generating intelligence that flows back into detection engineering, not just closing alerts that will fire again tomorrow.

The treadmill is optional. The feedback loop is what actually moves you forward.

Eric Hulse
Director of Security Research

Continue reading

AI SOC
Highlight

Your SOC Is Still Fighting Like a Roman Legion — And That’s the Problem

The modern Security Operations Center is built like a tiered Roman military doctrine that actively works in the adversary's favor. The Roman three-line defense was highly effective because it relied on the enemy experiencing physical exhaustion. Today's SOCs inherited this playbook, using Tier 1 analysts for initial triage and escalating complex issues to Tier 3 experts. However, threat actors don't get tired while your alerts wait in escalation queues. Every hour an alert spends moving from Tier 1 to Tier 3 is an hour the attacker spends moving laterally and establishing persistence. In cybersecurity, successive escalation degrades the defender, giving attackers a massive head start. To evolve, SOCs must stop using this tiered structure as an investigative bottleneck. By encoding senior analyst methodologies into automated sequences, investigations can start at the right depth immediately.
Alfred Huger
Feb 25, 2026
5
min read
AI SOC
Highlight

The Hidden Cost of DIY Security Investigation Agents: Why Token Efficiency Determines Success

Many security teams are tempted to build in-house AI investigation agents using accessible LLMs and frameworks. However, these DIY projects often hit a wall at production scale due to immense token consumption and architectural complexity. Processing large security logs with a naive LLM approach can consume millions of tokens, costing hundreds of dollars per single investigation and making it financially unsustainable. Command Zero solves this through a purpose-built, question-based platform designed for ultimate token efficiency. By leveraging embedded investigative knowledge, upfront planning, and targeted facet-based playbooks, the platform processes massive datasets using just a fraction of the tokens. This architectural advantage reduces a 50-minute analyst investigation to just 4-5 minutes, proving that specialized platforms are the sustainable future of AI-augmented security operations.
Dean De Beer
Feb 19, 2026
6
min read
By clicking “Accept All Cookies”, you agree to the storing of cookies on your device to enhance site navigation, analyze site usage, and assist in our marketing efforts. View our Privacy Policy for more information.