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Enterprise AI Security Testing

Find what a VAPT will never find.

Your AI system has an attack surface no penetration test will reach - and it spans far more than the model. Trampolyne AI runs context-aware adversarial simulations across your model, APIs, tools, and agent workflows, then delivers evidence-grade findings with reproducible proof - not generic scanner output.

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Built for the two teams that answer for AI risk

Teams building AI products

You ship AI copilots, assistants, and agents to your customers - and a security gap, or an unanswered security questionnaire, can stall a launch or a deal. Trampolyne AI gives you continuous, evidence-grade proof that your AI holds up, so security becomes something you sell with, not a blocker to adoption.

  • Catch prompt-, API-, tool-, and agent-layer regressions before release
  • Run pre-release or in CI/CD - no LLM-security expertise required
  • Answer customer security reviews with mapped, reproducible evidence

Teams securing AI inside the enterprise

Your employees are using internal AI apps that touch sensitive data. You need to know they can't be talked into leaking it across users, exposing a system prompt, or over-reaching their tools - and to show auditors you've tested for exactly that.

  • Probe internal copilots for cross-user data exposure and prompt leakage
  • Findings in the evidence format your security programme already uses
  • Documented proof mapped to the EU AI Act, NIST AI RMF, ISO 42001, GDPR & DPDPA
What you actually get

The three things enterprise buyers ask about

How deeply we test, how defensible the output is, and how an attack engine is kept from being misused.

Pick one to explore - the detail below updates

Jailbreaking the model is table stakes. Real AI breaches happen where the model meets your APIs, your tools, and your business workflow. Trampolyne AI attacks every layer an attacker can reach - and proves the impact with evidence, not theory.

The four layers we attack

Model & prompt layer

Multi-turn jailbreaks, system-prompt extraction, and indirect injection delivered through documents, images, and retrieved content.

API authorization layer

Real authorization testing against your endpoints - including cross-tenant access that names the exact victim record it reached, not a theoretical "could happen".

Tool & MCP layer

Exercises your function-calling and Model Context Protocol tools the way an attacker would - including role-forbidden tools and forged tool outputs.

Agentic workflow layer

Drives multi-step agent chains into skipping approvals, escalating privilege, or racing state - captured with before/after proof of the change.

Why a VAPT misses it
The surface is a conversation

Vulnerabilities live in prompts, system instructions, and multi-turn context - invisible to any scanner that doesn't talk to your model like an attacker.

Business logic is the bug

Not a buffer overflow - convincing your AI to expose another user's data, skip an approval, or leak a system prompt. That needs domain-aware attacks.

Behaviour drifts every update

A guardrail that held last quarter can break after a fine-tune or prompt change. Point-in-time tests go stale; continuous red teaming catches it.

Regulators now expect it

The EU AI Act, NIST AI RMF and sector guidance increasingly require documented adversarial testing of high-risk AI.

14 attack families - each mapped to OWASP & MITRE
Prompt injection - direct

Direct instruction-override against the system prompt.

OWASP LLM01 · AML.T0051
Prompt injection - indirect

Injected instructions via retrieved content, docs, and images.

OWASP LLM01 · AML.T0051
Data exfiltration

Extracting secrets, system prompts, and PII from the model.

OWASP LLM02 · AML.T0048
Authorization bypass

Role escalation, approval spoofing, and authority abuse.

OWASP LLM06 · Excessive agency
Tool abuse

Unauthorized tool calls and parameter smuggling.

OWASP LLM06 · Tool misuse
RAG attacks

Retrieval steering, context poisoning, and citation forgery.

OWASP LLM08 · AML.T0052
Obfuscation

Encoding, unicode, and multi-step payload hiding to evade filters.

OWASP LLM01 · Evasion
Multimodal injection

Image- and document-borne instruction attacks.

OWASP LLM01 · Multimodal
Agentic planning bypass

Plan and tool-chain manipulation against agentic systems.

OWASP LLM06 · Agentic
Memory poisoning

Long-horizon state corruption and memory steering.

OWASP LLM01 · Multi-turn
Cross-session bleed

Context leakage across users and conversations.

OWASP LLM02 · BOLA
Supply-chain poisoning

Poisoned retrieved content and document supply chain.

OWASP LLM03 / LLM04
Schema confusion

Structured-output and parser-boundary attacks.

OWASP LLM05 · Output handling
API authz - BOLA / BFLA

Object- and function-level authorization probes against your API.

OWASP API01 / API05

It doesn't end at the report. Ship a fix, re-run the engagement, and every finding returns a fixed / still-failing / regressed verdict - so you can prove the gap is actually closed.

Frequently Asked Questions

What is AI red teaming, and why is it different from a regular pentest?

AI red teaming is adversarial testing specifically designed for LLM-based systems. A regular penetration test looks for code-level vulnerabilities - SQLi, XSS, misconfigurations. AI red teaming looks for behavioral vulnerabilities: can an attacker override your system prompt? Can they access another user's data through the chat interface? Can they manipulate the model into bypassing an approval workflow?

These risks don't appear in CVE databases and can't be detected by any scanner. They require an engine that generates context-aware, business-model-aware attack prompts and evaluates the model's responses the way a skilled human adversary would.

How is this different from model-only red teaming tools?

Most "AI red teaming" tools test foundation models in isolation - jailbreaking GPT or testing Claude for harmful content. That's useful, but it's not the risk your business faces.

Trampolyne AI tests your deployed AI application: your system prompt, your RAG pipeline, your tool integrations, your user identity model, your data access patterns. The attack surface is the full stack, not just the model layer. We generate targeted attacks that incorporate your org context, data domains, and known capabilities - the same information an insider threat or determined external attacker would use.

What does the engagement process look like?

It's fully automated and runs through the dashboard. You configure your target endpoint, describe your organisation and data domains, and select the attack families to test. The engine then runs a four-phase process:

  1. Recon - probes your AI to map capabilities and guardrails
  2. Exploit - runs multi-turn attack chains across all selected threat families
  3. Verify - re-runs successful attacks to confirm reproducibility
  4. Judge - each finding scored for severity, with evidence verified against the actual transcript (no hallucinated quotes)
What do I get at the end of a run?

A structured report containing:

  • Full finding report - every confirmed vulnerability with description, severity, and remediation guidance
  • Confirmed evidence - the exact conversation traces that produced each finding, reproducible on demand
  • Standards & regulatory mapping - each finding mapped to the OWASP LLM / API / Agentic Top 10 and MITRE ATLAS, plus article-level exposure under GDPR, the EU AI Act, India's DPDPA, NIST AI RMF, ISO/IEC 42001, and OECD AI Principles - with version-tracked citations
  • Regression re-testing - re-run after a fix and every finding returns a fixed / still-failing / regressed verdict
Is it safe to point this at our production system?

Yes - restraint is built in, not bolted on. The engine runs only against targets you have verified you control: access is default-deny by domain, and a new target must be explicitly authorized before any run can start, so it can never be aimed at someone else's AI.

In production it is non-destructive by design - it never issues PUT / PATCH / DELETE requests or destructive tool/MCP actions, and declarative rules-of-engagement are enforced uniformly across every executor. An always-on SSRF guard refuses internal, loopback, and cloud-metadata addresses, and each run stays confined to the endpoint you provide. Secrets and PII are redacted before anything is stored. Many customers still prefer to start against a staging environment - that works too.

Do I need to install anything or expose my system?
No agents, SDKs, or code changes are required. The engine communicates with your AI system over HTTPS exactly as a real user would. You only need to provide the endpoint URL and an API key or bearer token. Your system does not need to be publicly accessible - you can use a staging environment or allow-list the engine's IP range.
How long does a run take?
Runtime depends on the number of attack families selected, the recon depth, and your AI system's response latency. A focused single-family run typically completes in 15–30 minutes. A full-spectrum run across all 14 attack families usually takes 1–3 hours. Results are available in the dashboard as soon as each phase completes.
Can I start in demo mode first?
Yes. You can explore the full dashboard configuration interface in demo mode without a subscription. To execute a live run against your AI system and access reports, subscribe through AWS Marketplace. Subscriptions are usage-based with no long-term commitment.