Vulnerability Triage Automation: End Alert Fatigue, Fix What Matters
Your scanners find thousands of issues. Most are noise. Pixee’s independent triage eliminates 80% of false positives across 50+ scanners, then fixes what remains with a 76% developer merge rate.
Trusted by Fortune 500 security teams across financial services, retail, and technology
*Metrics measured across 50+ enterprise deployments. Methodology in benchmarks below.
The Hidden Cost of Manual Triage
Your AppSec team has a math problem. With 5.3 scanning tools generating alerts, 71–88% of those alerts are false positives. A team of 4 security engineers? Two of them are processing noise full-time.
The numbers tell the story:
- 50–80% of AppSec time goes to manual triage, not fixing vulnerabilities (Customer Research, 2024)
- 78% of security alerts go completely uninvestigated—not triaged, not resolved, just ignored (Nagomi CISO Pressure Index, 2025)
- 66% of organizations carry backlogs exceeding 100,000 vulnerabilities (Ponemon Institute, 2024)
- 48,185 CVEs were published in 2024, a 38% increase from the prior year (NIST NVD)
Meanwhile, your developers outnumber your security team 100 to 1. You cannot hire your way out of this.
Those go back to us. We are not triaging those right now as much as we could be… Generally, it gets ignored.
— Security Team Leader, Fortune 500 Retailer
The industry optimized detection for 20 years and produced 5.3 tools per team. None of those tools fix anything. 58% of breached organizations already had the tools to prevent the breach (Nagomi, 2025). Detection was never the bottleneck. Triage was.
What Is Vulnerability Triage Automation?
Vulnerability triage automation uses exploitability analysis and cross-scanner correlation to eliminate false positives and prioritize real threats—without manual review. Organizations using automated triage reduce false positives by 80%, cut triage time by 74%, and redirect security engineering capacity from alert processing to strategic remediation.
Why Your Scanner Vendor Can’t Solve Triage
The Conflict of Interest
Scanner vendors build their business on detection volume. More findings mean more value perception. Asking your scanner to suppress 80% of its own findings undermines its business model. Independent triage has no incentive to inflate alert counts—Pixee does not sell a scanner and never will.
Siloed Analysis
SonarQube doesn’t know what Snyk found. Checkmarx doesn’t see Fortify’s results. With 5.3 tools per team, each scanner triages only its own output. The same vulnerability flagged by three different tools creates three separate investigations, three JIRA tickets, and three rounds of developer interruption.
You have multiple scanning tools… how do you determine which one is the right set to trust… that has to involve humans, and then you slow down the whole process.
— Security Leader, Fortune 50 Financial Services
Prioritization Is Not Triage
ASPM tools rank your findings by severity. That is not triage. Triage determines whether a finding is real, exploitable, and worth fixing. 88% of CVEs rated “Critical” by CVSS are not actually critical in the context of your application (JFrog, 2025). Reordering a list of noise still gives you noise.
The Poisoned Well
When scanners flood developers with false positives long enough, developers stop trusting any security alert. They mark everything as “false positive” whether it is or not. Trust erosion is one-way and sticky.
Before SonarQube, we used Fortify… most findings are false positive, and they end up marking everything as false positive. When the well is already poisoned, it’s very hard to change developers’ minds anymore.
— Security Team, Asia-Pacific Financial Services (5,000+ developers)
How Automated Triage Works
Import Findings
Import findings from 50+ scanners into a single unified view. SAST, SCA, DAST, and container scanners all feed into one platform. SARIF ingestion, native APIs, and CI/CD webhooks are supported out of the box. Your Snyk, Checkmarx, and Veracode investments stay intact.
Cross-Reference & Deduplicate
Cross-reference findings across every scanner to deduplicate. When Snyk, SonarQube, and Checkmarx all flag the same SQL injection, you see one actionable item instead of three. This alone can cut alert volume by 30–50% before any analysis begins.
Exploitability Analysis
Apply exploitability analysis to each finding using three intelligence types: (1) False positive detection—is this vulnerability real? (2) Business context assessment—is this accepted risk? (3) Risk re-scoring—is the severity accurate for YOUR environment? This goes beyond simple reachability.
Rank by Actual Risk
Rank findings by actual risk, not scanner-assigned severity. A CVSS 9.8 that is unexploitable in your environment drops below a CVSS 6.0 that is internet-facing with no authentication. Your team works on what matters, not what scores highest on a generic scale.
Deliver & Fix
Deliver validated, prioritized findings to the right team through the right channel. For code-level vulnerabilities, Pixee generates merge-ready pull requests—76% merge rate. For architectural issues, findings route to JIRA with full context. This is where triage meets remediation.
How Much Is Manual Triage Costing You?
Every hour your AppSec team spends clicking “false positive” is an hour they are not spending on architecture reviews, threat modeling, or incident response. Calculate the hidden cost of manual triage for your team.
Calculate Your Triage CostManual Triage vs Automated Triage
| Dimension | Manual Triage | Automated Triage |
|---|---|---|
| Time per finding | 15–45 minutes | Seconds |
| False positive rate | 71–88% (scanner-reported) | Below 20% (post-analysis) |
| Cross-scanner deduplication | Manual spreadsheet or JIRA | Automatic correlation |
| Exploitability verification | Rare—too time-consuming | Every finding, every time |
| Team capacity on triage | 50–80% of AppSec time | Under 10%, rest on strategy |
| Backlog growth rate | Accelerating (more scanners = more noise) | Stabilizing (noise removed at source) |
| Scalability | Linear with headcount | Independent of headcount |
| Alert coverage | 5–20% of alerts investigated | 100% of alerts assessed |
Sources: Ponemon Institute (2024), Nagomi CISO Pressure Index (2025), Black Duck Global DevSecOps Report (2025), Pixee Platform Data (2025)
50, 60 to 70 to 80% of findings are false positives OR not important OR don’t need to be fixed. The triage effort is entirely manual and requires expertise.
Security Leader
Fortune 500 Financial Services
How Pixee Compares to Industry Averages
| Metric | Pixee | Industry Average | Source |
|---|---|---|---|
| False positive reduction | 80% | Manual only (no automated alternative at scale) | Pixee Platform Data (50+ deployments), 2025 |
| Triage time reduction | 74% | Baseline: 50–80% of AppSec time (manual) | Pixee Platform Data (50+ deployments), 2025 |
| Alerts investigated | 100% | 22% | Nagomi CISO Pressure Index, 2025 |
| Developer merge rate | 76% | Below 20% (generic AI) | Pixee Platform Data (50+ deployments), 2025 |
| Mean time to remediation | 2 days | 252 days | Pixee / Veracode SOSS, 2024 |
Triage is where AppSec teams go to die. You hire brilliant security engineers, then watch them spend the majority of their day clicking ‘false positive’ on findings that three different scanners independently got wrong. Automated triage is not a luxury. It is how you stop burning out the people who are supposed to be protecting your organization.
Arshan Dabirsiaghi, CTO at Pixee
Former OWASP Board Member
Frequently Asked Questions
Stop Triaging Alerts. Start Fixing Real Vulnerabilities.
Your scanners found the problems. Pixee resolves them. See how automated triage eliminates 80% of noise and automated remediation fixes what remains—with a 76% developer merge rate.
