AI-Native Offensive
Security for the
Modern Attack Surface
ThreatCanary unifies EASM, API Security and AI Offensive Security to continuously discover, validate and prioritise exposures across your entire attack surface.
Attackers chain systems together.
Security tools don’t.
Traditional scanners are bounded by static tests. APIs, identities, cloud and exposure create paths that siloed tools cannot see or validate.
Three intelligence layers.
One offensive system.
Shared graph context moves the platform continuously from discovery to behavioural understanding and validated offensive action.
Autonomous Offensive Operations
Context-aware reasoning, adaptive testing, attack-path validation and evidence-backed exploitability.
Exposure Intelligence
External attack-surface discovery, drift detection and exposure modelling.
API Security
API discovery, behavioural intelligence, authorisation testing and sensitive-data exposure.
Operational clarity across the entire attack surface.
Purpose-built views turn graph intelligence and validated evidence into clear action.
From autonomous testing to evidence-backed remediation.
ThreatCanary combines foundational coverage with adaptive reasoning and workflow integration.
ThreatCanary combines predefined coverage with target-aware reasoning, dynamic capability generation, deterministic validation and attack-path chaining.
Questions teams ask before they commit.
Direct answers on scope, evidence, safety controls and how ThreatCanary differs from tools you already run.
01What is ThreatCanary?
ThreatCanary is a continuous attack-path validation platform. It discovers exposed assets and APIs, connects them through graph intelligence, and validates which attack paths are realistically exploitable. It combines three layers — external attack surface management (EASM), API behavioural intelligence, and AI offensive security — so exposure is assessed the way an attacker would chain it rather than as isolated findings.
02How is ThreatCanary different from a vulnerability scanner?
A vulnerability scanner identifies known conditions, usually by matching a version, banner or signature against a predefined check. ThreatCanary goes a step further and validates whether the weakness is actually reachable and exploitable in your environment, and what it chains into. The output is evidence-backed findings with reproduction detail rather than a list of theoretical issues that still need triage.
03How is ThreatCanary different from EASM and API security tools?
Traditional EASM answers what exists on your perimeter, and API security tools answer what APIs exist and how they behave. ThreatCanary uses both as inputs and then asks the harder question: how those exposed systems and APIs can actually be used against you. Exposure, API behaviour, identity context and vulnerability data are correlated in one graph so findings carry attack-path context instead of sitting in separate tools.
04Is autonomous offensive testing safe to run against production?
ThreatCanary constrains autonomous testing with explicit scope definitions, approval gates, tool-trust settings and execution limits, so activity stays inside authorised boundaries. Scope management defines exactly what the platform is permitted to discover, test and validate. Deterministic systems produce the evidence and validation trail, which means results are auditable and reproducible rather than opaque model output.
05What does ThreatCanary actually deliver to a security team?
Customers get a living map of exposed assets, APIs and relationships as they change; validated findings backed by reproducible evidence rather than theoretical scanner output; attack-path context explaining what can be chained and why it matters; and role-specific outputs for CISOs, security teams, developers, GRC and platform owners.
06Where does AI fit in, and can the results be trusted?
ThreatCanary uses AI for reasoning, adaptation, hypothesis generation, reporting and advisory workflows — the parts that benefit from judgement. Deterministic systems handle discovery, validation, evidence capture and reproducibility. That split is deliberate: AI decides what is worth testing, while the evidence proving a finding is produced and reproducible by deterministic means.
