Security and economics for AI systems

Built for CISOs. Adopted by builders.
One platform for AI security outcomes.

Triage secures LLM-powered products across inference, retrieval, and training workflows. It works as a security control for traditional environments or as a daily engineering tool for teams shipping AI features. Same data, same controls, different ownership models.

Not a single "team product." A security system that adapts to how you run.

AI changes the shape of the attack surface. The failure modes are not confined to code. They include prompts, tool calls, retrieval chains, data curation, evaluation harnesses, and model routing.

Triage is intentionally malleable: it can be owned by a security organization, embedded into a platform team, or used directly by the engineers building AI systems.

Centralized governance when you need policy, auditability, and control.

Developer-native workflows when you need speed, iteration, and coverage.

A shared source of truth so security and engineering stop arguing about what happened.

For traditional security teams

Centralized AI telemetry, investigations, and policy enforcement

Runtime guardrails for tool use, data access, and exfiltration patterns

Audit-ready evidence across inference, retrieval, and training pipelines

For startups and product teams

Trace-driven debugging of agents and RAG systems

Regression detection for prompts, retrieval, and routing

Cost controls across tokens, latency, retries, and provider usage

Choose your operating model

Deploy Triage to fit your org structure, not the other way around.

CISO / AppSec / SecEng

Security-owned deployment

A security team owns policy and risk posture, and uses Triage to monitor AI execution paths, investigate incidents, and enforce controls across products.

What changes for you

Opaque model behavior becomes inspectable traces

Incident response time drops dramatically

Controls scale without multiplying headcount

Typical outputs

Policy gates for prompt/tool behavior

Centralized investigations with evidence

Security reporting on runtime events

Platform / Infra / Product

Engineering-owned deployment

Engineers use Triage as part of shipping. They instrument AI features, observe failures and regressions, and remediate issues before they become incidents.

What changes for you

Failures become reproducible, not anecdotal

Regressions get caught before shipping

Wasted spend on retries disappears

Typical outputs

Debuggable traces for agent behavior

Guardrails in CI/CD for prompt changes

Lower latency and cost via tuning

Recommended

Shared deployment

Security defines the policy and severity model. Engineering owns uptime, quality, and velocity. Triage becomes the shared runtime layer.

What changes for you

Fewer handoffs, fewer "can't reproduce" loops

Controls that ship with code, not against it

One trace format for audit and incident response

Typical outputs

Unified governance and velocity

Shared visibility into risk and reliability

Faster feedback loops for all teams

Security that pays for itself

AI systems incur costs in places most teams do not measure: inference waste, retrieval noise, tool failures, latent prompt regressions, and incident response time. Triage makes these measurable and controllable.

(reduced incidents + reduced engineering time + reduced inference waste + reduced churnplatform cost) = ROI

Risk-adjusted loss

Fewer successful exploits, smaller blast radius, higher confidence in control effectiveness.

Engineering time

Faster debugging, fewer escalations, fewer recurring failure patterns.

Compute spend

Fewer retries, better routing, lower token waste, reduced provider churn.

Support and uptime

Fewer "AI did something weird" tickets, less downtime, fewer rollbacks.

Compliance overhead

Evidence-quality telemetry for audits and reviews, without manual log stitching.

Who uses Triage

Own the risk posture

CISO / Security Leadership

Own policy, reporting, and risk posture for AI products.

Get evidence, not opinions: what the model saw, what it did, what tools ran.

Prove controls work at runtime.

Make AI testable

AppSec / Product Security

Turn AI behavior into enforceable, testable rules.

Catch prompt and retrieval regressions before they ship.

Reduce "unknown unknowns" in agent workflows.

Standardize instrumentation

Platform / Infrastructure

Standardize instrumentation and guardrails across teams.

Reduce cost variance, timeouts, and provider failure modes.

Monitor reliability across model providers and tool chains.

Debug with context

AI Engineers

Debug agent behavior with full execution context.

Validate retrieval quality and prevent data leakage.

Close the loop between eval failures and production traces.

Adoption that matches your constraints

Some teams start with governance. Others start with engineering pain. Triage supports both entry points.

Start from Governance

1. Define policies and severity thresholds

2. Instrument critical systems

3. Expand coverage with standard controls

Start from Engineering

1. Instrument one high-traffic AI workflow

2. Use traces to remove latency/failure hotspots

3. Add guardrails once you have observability

Deploy it as a security product or an engineering system.

The outcome is the same: Lower AI risk. Lower operating cost. Faster iteration.

Talk to us

Is Triage for security teams or engineering teams?

Both. The platform is designed so ownership can sit with security, engineering, or a shared model without duplicating tooling.

Does this slow teams down?

The goal is the opposite: make AI failures reproducible and prevent regressions early, so teams spend less time firefighting.

Where does the economic value actually come from?

From measurable reductions in incident cost, engineering time, compute waste, and quality regressions that spill into support and churn.