AI-native detection-engineering platform

Build DetectionsBefore VendorCoverage Catches Up

Turn emerging threats into tested, deployable detections across your existing stack.

See How It Works

Native APIs · CrowdStrike · SentinelOne · Splunk · Sentinel

defenderlens://detection-ops

The Defender Lens Advantage

Traditional Way

Manual threat research, baseline tuning, and peer reviews lag days behind active CTI releases.

[AUTHORING VELOCITY & EXPOSURE WINDOWS]

Defender Lens ValueCompress Time-to-Protection

Instantly convert raw CTI into structured, deployable Detection-as-Code artifacts—slashing your exposure window from days to minutes.

Traditional Way

Unannounced vendor schema shifts and missing log fields quietly break production queries.

[TELEMETRY & SCHEMAS]

Defender Lens ValueEliminate Silent Query Failures

Pre-flight schema validation checks log dependencies before deployment, ensuring rules fail closed rather than failing silently.

Traditional Way

Unvalidated queries ship directly to production, causing false-positive storms and analyst fatigue.

[TESTING & VALIDATION]

Defender Lens ValueAutomated Pre-Deploy Validation

Every rule undergoes static syntax analysis, behavioral testing, and historical telemetry backtesting in CI/CD before logic reaches production.

Traditional Way

Engineers spend over half their time manually rewriting identical logic across Splunk, Sentinel, and EDR consoles.

[MULTI-SIEM DEPLOYMENT]

Defender Lens ValueSingle-Source, Multi-Stack Build

Maintain logic in one declarative syntax; compile and deploy directly to target consoles via native platform APIs without middleware.

Traditional Way

Detections decay over time as environments evolve, leading to coverage gaps and unmaintained rules.

[LIFECYCLE DRIFT]

Defender Lens ValueContinuous Lifecycle Control

Automated drift detection continuously aligns live rules against underlying schema shifts, maintaining long-term fidelity.

HOW IT WORKS

Put The Detection Lifecycle In One Workflow

DefenderLens connects the work between threat intelligence and operational detection.

  1. DEFINE

    Threat Intelligence Ingestion

    Turn a threat, technique, behavior, or detection requirement into a structured detection objective.

    Scope & Intel
  2. BUILD

    Detection-as-Code Authoring

    Create detection logic in a structured, version-controlled workflow.

    Git Versioning
  3. TEST

    Validation & Requirements

    Validate detection logic and the requirements needed to support it.

    Test Pipelines
  4. DEPLOY

    Multi-Environment Release

    Release validated detections to supported environments.

    Native Deploy
  5. MAINTAIN

    Lifecycle Updates

    Track changes and update detections as threats and environments evolve.

    Continuous Sync
Industry Validation

The Shift to Modern Detection Engineering

Gartner, Forrester, and SANS benchmark detection-as-code and automated testing as necessary practices.

GARTNER RESEARCHIndustry Standard 2025

Detection-as-Code & CI/CD Automation

Gartner Research Report

⚡ Version-Controlled Repositories & Automated Testing

“Gartner identifies detection-as-code and CI/CD automation as foundational pillars of modern, scalable detection engineering.”

Modern Security Operations Centers (SOCs) are moving away from manually entering queries in consoles. Instead, they use version-controlled Git repositories, automated testing pipelines, and declarative detection definitions.

FORRESTER RESEARCHLifecycle Maturity Model

End-to-End Detection Lifecycle

Forrester Wave Analysis

⚡ Ideation → Design → Build → Test → Release → Monitor

“Forrester defines detection engineering as a rigorous software lifecycle spanning ideation, design, build, test, release, and continuous monitoring.”

Continuous monitoring without automated testing and release management often creates too many false alarms. Over time, teams get alert fatigue, and detections quietly break as cloud log formats change.

SANS INSTITUTESOC Operational Benchmark

Practical Engineering Challenges

SANS SOC Survey

⚡ 60%+ Engineering Time Wasted on Schema & Translation Toil

“SANS research identifies time, fragmented telemetry, and cross-vendor data formatting as the primary friction points for detection teams.”

Detection engineers spend more than 60% of their time dealing with schema mismatches, checking for missing log fields, and manually translating queries between SIEM and EDR consoles.

ALIGNED ARCHITECTURE

DefenderLens is built around that engineering lifecycle.

From initial threat intel ingestion to continuous schema validation and automated multi-SIEM deployment.

WORKS WITH YOUR STACK

Native Integrations No Middleware

Rules deploy in your platform's native syntax via native API integrations.No rip-and-replace.

SentinelOne

Live

Deploy detection rules directly via native SentinelOne Singularity API

Native API Integration

CrowdStrike Falcon

Live

Deploy detection rules directly via native Falcon API integrations

Native API Integration

Splunk

Live

Generate and deploy SPL rules to your Splunk environment

Native API Integration

CrowdStrike NG-SIEM

Live

Deploy detection rules via native CrowdStrike NG-SIEM integrations

Native API Integration

Microsoft Defender XDR

Live

Deploy detection rules to Microsoft Defender XDR via native APIs

Native API Integration

Microsoft Sentinel

Live

KQL detection rules and Sentinel ARM template deployments

Native API Integration