Purpose-built for
agentic AI security

Frontier models weren't designed for runtime AI security detection. Straiker was. See the benchmarks.

True positive rate

False positive rate

Median detection latency

Faster than GPT-5.4

/ the case for purpose-built security /

Why runtime AI security requires more than frontier models

General-purpose LLMs are trained to be helpful, not to be security enforcement layers. There are three fundamental gaps that make them unsuitable as your primary AI threat detection engine.

Latency kills 
runtime protection

Runtime AI security requires sub-100ms decisions. Frontier models return responses in 600–900ms. At that speed, a prompt-injection attack has already reached your agent before the flag fires.

Helpfulness vs. 
security precision

Frontier models are fine-tuned to complete requests. Straiker is fine-tuned to detect threats. That's a fundamentally different optimization objective and it shows in the false-positive rates.

Single models are single points of failure

A single-model architecture can be probed, jailbroken, or manipulated. Straiker's Medley of Experts architecture routes signals across multiple specialized models, making it significantly harder to defeat.

/ model comparison /

Straiker vs Claude, ChatGPT & Gemini for AI security detection

General-purpose LLMs are trained to be helpful, not to be security enforcement layers. There are three fundamental gaps that make them unsuitable as your primary AI threat detection engine.

Straiker vs AI LLM models

/ accuracy benchmark results /

Attack coverage across every threat category and harm type

Detection coverage mapped across 13 attack techniques and 13 harm categories. Green = blocked. Red = missed.

Malware
Cybercrime
Drugs
Profanity
Bioweapons
Hate Speech
Weapons
Child Exploitation
Self Harm
Racism
Sexism
Violence
Sexual Content
Single Turn
Role Play
Policy Puppetry
Authority Endorsement
Evidence-based Persuasion
Space Breaker
Desperation
Malignancy as Truth
AMT Attack
Word Substitution
Typoglycemia
Tag-Based Injection
Crescendo Multi-Turn

How to read the diagram

Each row is an attack technique — the method used to try to bypass detection. Each column is a harm category being attempted. Hover any cell for detail.

Blocked — threat caught and stopped

Partial — caught with caveats

Missed — passed through

Not in scope

overall

98.1%

True positives rate across all categories

0.7%

False positives rate – near zero noise.

/ live comparison/

Feel the latency difference

Select a real attack from our test corpus. Watch Straiker respond before competing models have even started inferencing.

Run an example prompt

These are realistic AI agent security scenarios — not toy examples.

Prompt Injection
Override system instructions
PII Exfiltration
SSN + financial data in context
API Key in Context
Live credential in agent prompt
Jailbreak via Roleplay
Role-play escalation attack

Straiker V22
Claude Opus 4.6
GPT-5.4
Gemini 3.1 Pro
Detection Latency
Straiker V22
Claude Opus 4.6
GPT-5.4
Gemini 3.1 Pro

/ benchmark methodology /

How these benchmarks
were produced

Straiker uses a fundamentally different architecture than any of the models it's compared against. Understanding that is key to interpreting these results.

Medley of Experts architecture

Straiker does not use a single frontier LLM as its detection engine. Instead, it runs a Medley of Experts — a set of purpose-trained, specialized models that are each optimized for a specific detection task:

PII Exfiltration

Models fine-tuned on large labeled corpora of real AI agent threats, maximizing true positive rate per category.

Latency experts

Models fine-tuned on large labeled corpora of real AI agent threats, maximizing true positive rate per category.

Security-specific experts

Models trained exclusively on security signals: prompt injection, PII exfiltration, jailbreaks, policy violations, and more.

Test corpus & evaluation protocol

Straiker does not use a single frontier LLM as its detection engine. Instead, it runs a Medley of Experts — a set of purpose-trained, specialized models that are each optimized for a specific detection task:

Labeled malicious samples

TPR is measured against samples verified as genuine threats by human security analysts — not generated examples.

Labeled benign production traffic

FPR is measured on real traffic samples drawn from production workloads, ensuring false positive rates reflect deployment reality.

Latency measurement

Median wall-clock time from request submission to first classification decision, measured over 1,000 runs per model via public APIs at default settings.

Important clarification

Straiker's Medley of Experts architecture does not use Claude, GPT-5.4, or Gemini as detection components. The models compared in these benchmarks are the same models being used as standalone detection layers, which is a real deployment pattern Straiker customers adopt before switching to Straiker. We are not comparing against ourselves. We are showing what happens when you try to use a general-purpose LLM as a security detection engine versus using something purpose-built for that role.

Secure the 
agentic era of AI

See Straiker's detection engine in action against your real prompts and agent workflows.