Loading...
Finite StateFinite State
Finite StateFinite State
LoginLogin
Your browser does not support the video tag.
End-to-End Traceability

Keep Design Intent Aligned with What Ships

Maintain continuous traceability from architecture and threats through requirements, verification, and shipped binaries. Understand how design decisions translate into real software and detect drift before it becomes risk.

Get a DemoGet a DemoSee the PlatformSee the Platform

Design Intent Drifts as Software Evolves

The Problem

Security intent is defined early—architectures, threat models, requirements—but software rarely stands still.

Across releases, teams struggle because:

  • Architecture and threat models are maintained separately from builds
  • Requirements lose connection to the software they were meant to govern
  • Changes in components and binaries aren’t reconciled back to design intent
  • Drift accumulates quietly across versions and variants
  • Proving that shipped software still matches approved design becomes manual and brittle

The result is traceability that exists on paper, but not in practice.

Finite State's Solution

Design-to-build traceability becomes a living, reviewable system that stays aligned as designs change, software evolves, and new releases ship.

Finite State maintains continuous traceability across architecture, threats, requirements, verification, and binaries, so teams can see exactly how design intent maps to shipped reality, and when that alignment breaks.

This is made possible by:

  • Ground-truth build and component intelligence
  • AgentOS to reconcile intent with implementation using repeatable reasoning
  • Assurance Studio to operationalize traceability through workflows, review, and reporting
  • Finite State Copilot to search, navigate, and explain traceability across artifacts

How It Works

1

Capture Architecture and Design Intent

Architecture documents, specifications, and design inputs are ingested to establish a structured view of system components, interfaces, and trust boundaries. This becomes the foundation for threat modeling and downstream traceability.

What you get: A shared, structured representation of design intent that can be maintained over time.

2

Link Threats, Requirements, and Controls

Threat models and derived security requirements are explicitly tied to architectural elements and interfaces. Each threat, mitigation, and requirement maintains a clear relationship to the risks it addresses and the components it applies to.

What you get: Clear lineage from design decisions to concrete security expectations.

3

Reconcile Design Intent with Shipped Software

As firmware, binaries, and source are ingested, shipped reality is reconciled against design intent. Components identified in builds are mapped back to architecture and requirements, surfacing mismatches, missing coverage, or unexpected changes.

What you get: Visibility into whether what shipped still matches what was designed and approved.

4

Detect and Manage Drift Across Releases

When designs or builds change, traceability is automatically re-evaluated.

Drift signals highlight new components without associated threats or requirements, requirements that no longer map cleanly to software, or architecture assumptions invalidated by implementation changes.

What you get: Early warning when traceability breaks, before risk accumulates.

Key Focus Areas

Continuous Architecture-to-Binary Traceability

Maintain explicit traceability across architecture, threats, requirements, verification, and binaries—in both directions.

  • Impact: Teams can prove how design intent is implemented and identify gaps quickly.

Drift Detection

Surface misalignment between design intent and shipped reality as software evolves.

  • Impact: Security issues caused by silent design erosion are caught early.

AgentOS: Reconciling Intent with Implementation

Agent OS provides the reasoning layer that keeps traceability accurate as both designs and software change. It applies structured, repeatable logic to maintain mappings and detect drift across products, releases, and variants.

  • Impact: Traceability remains trustworthy across releases, not just at design time.

Assurance Studio: Making Traceability Usable

Assurance Studio provides the workflow and governance layer for exploring, reviewing, and operationalizing traceability across teams.

  • Impact: Design-to-build traceability supports real decisions, not just documentation.

What This Enables

With continuous design-to-build traceability, teams can:

Prove that shipped software aligns with approved design

Detect security drift before it becomes exposure

Maintain trust in threat models and requirements over time

Scale security architecture without manual rework

Design intent stays connected to reality across every release so you can answer auditor questions with confidence.

Integrate With Your Entire Tech Stack

Explore IntegrationsExplore Integrations
VS Code
VS Code
GitHub
GitHub
Jira
Jira
Jenkins
Jenkins
GitLab
GitLab
Docker
Docker
Kubernetes
Kubernetes
REST API
REST API
AWS
AWS
Azure
Azure
Google Cloud Platform
GCP
PostgreSQL
PostgreSQL
Linux
Linux
Windows
Windows
macOS
macOS

See Design-to-Build Traceability in Action

Keep intent, implementation, and evidence aligned as software evolves.

See the PlatformSee the PlatformGet a DemoGet a Demo
Finite StateFinite State

Finite State is the Product Security Automation Platform that functions as an autonomous Product Security OS: design → verify → prove, grounded in what you ship.

Platform

Platform Overview
Ground Truth Inventory
Exploitability-Based Prioritization
Design-Time Architecture Security
Automated Evidence-Backed Compliance

Solutions

Device Manufacturers
Automotive
Medical Devices
Energy & Utilities
Government
Industrial

Resources

Blog
Resource Library
Webinars & Videos
Events
Documentation

Company

About Us
CareersHIRING
Press & Media
Contact Sales
X

Privacy PolicyTerms of UseCustomer Terms and Conditions