Teams building AI products
Secure product design is a competitive advantage, and customers increasingly ask for proof of it.
/ SECURE AI ARCHITECTURE
The security of an AI system is decided at design time, not after rollout. We help you design and review LLM, RAG and agent-based solutions where data, models, tools and permissions are protected from the foundations up.
[ 01 ] / WHAT IT IS
Secure AI architecture is the security design and review of AI-based systems: large language models, RAG, AI agents and ML pipelines. Threat modeling exposes the attack surface, and we design controls so that data, models, integrations and agent permissions stay protected across the whole lifecycle.
AI systems open up a new attack surface. A language model can treat input as instructions, so prompt injection is not merely a bug but a risk that comes with how the technology works. RAG systems reach into company data, so weak access control leads to data leakage. Agents call tools and take actions, so a successful manipulation can have real consequences. And the model and data supply chain (pre-trained models, datasets, libraries) raises new questions of trust.
Defense therefore needs a layered architecture: filtering inputs and outputs is only one element. Just as important are least privilege for agents and tools, document-level access control in RAG, isolation and sandboxing for code execution, human approval for risky actions, and logging and detection.
The service builds on standard and community frameworks: the OWASP LLM Top 10 and OWASP material on agentic threats, MITRE ATLAS (a knowledge base of attack techniques against AI systems) and NIST AI 100-2 (a taxonomy of adversarial machine learning). A reviewed design can then be verified in practice with an LLM penetration test and AI Red Teaming.
Frameworks and guidelines
[ 02 ] / WHO IT'S FOR
Anyone building on artificial intelligence who wants to get security right at design time rather than patch it afterwards.
Secure product design is a competitive advantage, and customers increasingly ask for proof of it.
When a model is connected to company documents, access control and protection against data leakage are the key questions.
Where AI calls tools and takes actions, designing permissions, approvals and guardrails is fundamental.
Sensitive data, regulated processes and high consequences: design mistakes are most expensive here.
People who have to approve AI projects and need a sound, verifiable yardstick to measure proposals against.
The security design of AI solutions delivered to customers is a contractual and reputational matter.
[ 03 ] / WHAT'S INCLUDED
We tailor scope to the type and maturity of the system. The following elements are typical.
We understand what the system is for, what data it reaches, who uses it and where the trust boundaries lie.
We extend traditional methods (such as STRIDE) with OWASP LLM Top 10 and MITRE ATLAS perspectives, so attacks specific to models, data and agents come into view.
Document-level permissions, vector database protection, preventing index poisoning and data leakage, and tenant isolation.
Least privilege, a narrow toolset, human approval for risky actions, sandboxing for code execution and identity management for agents.
Input and output checks, separating instructions from data, output handling and protection of connected systems, without relying on filters alone.
Vetting external models, datasets and libraries, signing and integrity, an AI bill of materials (AIBOM), a model registry and access control.
Permissions in training and deployment pipelines, secrets management, separating environments and traceability of changes.
Logging designed with privacy in mind, abuse and anomaly monitoring, cost and availability protection, and an AI incident response plan.
[ 04 ] / HOW IT WORKS
We work closely with your AI and development teams and fit into your existing design process.
We clarify the system's purpose, data, integrations and regulatory context.
In a joint workshop we map the attack surface, attacker goals and the most likely attack paths.
We assess the design from documents, diagrams and configurations, and propose a target architecture.
We provide concrete controls, ranked by risk and written so developers can implement them.
Through consultation, reference patterns and design reviews, we help the team put the controls in place.
We prove the finished system with a practical attacker-style test and refine the design based on the findings.
[ 05 ] / WHAT IT SOLVES
Design flaws are cheapest to fix at the start of development. That is especially true of AI systems: permissions, data flows and agent guardrails are hard and costly to change later. The service prevents problems rather than patching them afterwards.
It also gives customers, auditors and regulators credible evidence that the AI system was designed with security in mind and documented properly, which supports the expectations of AI governance as well.
[ 06 ] / WHY QYNTAR
Because we know AI systems as both attackers and builders, so we see not only the flaw but also how to solve it well.
Members of our team attack AI systems themselves, so they know real techniques, not just theory.
Security specialists and engineers work as one team, so recommendations fit real development practice.
We build on OWASP, MITRE ATLAS and NIST frameworks, so the result supports compliance work too.
We then prove the design with an attacker-style test. See AI Red Teaming.
[ 07 ] / FAQ
A review assesses the design before or during implementation, so flaws are cheap to fix. A penetration test attacks the running system. They complement each other. See LLM penetration testing.
Filters can be bypassed, and not every attack shows up in the prompt (for example instructions hidden in documents). Security has to be layered: permissions, isolation, human approval and monitoring are needed as well.
Agents call tools and take actions, so the key question is what they can do if someone manipulates them. The answer is narrow permissions, a limited toolset, human approval for risky steps, and logging.
The essentials are making sure the model only reaches documents the asking user is entitled to, and not treating retrieved content as trusted instructions. Protecting the index, separating tenants and checking output matter too.
Not automatically. Self-hosting gives more control over data but also more responsibility (operations, updates, supply chain). The decision depends on data sensitivity, regulation and capability, and a review helps weigh exactly that.
A focused review and threat modeling session usually takes a few days to a few weeks, depending on the system's complexity. We give a firm estimate once we know the scope.
Yes. We support the recommendations through consultation, reference patterns and review of the implementation, then verify the result with a practical test if you wish.
[ 08 ] / RELATED SERVICES
From a specific technical issue to a complex security project, we can help you find the way forward.