Security | Threat Detection | Cyberattacks | DevSecOps | Compliance

From Data Classification to Runtime Data Security for AI

Authentication used to be a login form. Then it became IAM: identity providers, roles, federation, lifecycle. Then it became Zero Trust: no built-in trust, every request checked in context. Each step did not replace the last so much as fold it into a bigger runtime decision. The login still happens, but it is now one input to a constant, context-based check.

Sensitive Data Is More Than PII: The Blind Spot in Enterprise AI Security

A user asks an enterprise AI assistant a normal question: “Why did we lose the Acme deal?” The agent does what agents do. It retrieves CRM notes, pricing history, discount approvals, sales leadership comments, and a couple of internal strategy docs, then combines them into one clear answer: “Acme received a 28% discount exception, well above our standard enterprise pricing.

Runtime Security for LLM Applications: How to Monitor Prompts, Context, Tools, and Outputs

Large language models are becoming the operational layer behind enterprise AI, powering intelligent assistants, automated workflows, and AI agents that interact with sensitive business systems. But as LLMs process confidential prompts, retrieve enterprise context, and execute connected actions, every runtime interaction introduces new security risks.

AI Data Pipeline Security: How to Protect Personal Data Before, During, and After Model Use

Artificial intelligence is reshaping how enterprises process information, but it is also redefining where sensitive data is exposed. Every prompt, retrieval request, API call, and AI-generated response creates another opportunity for personal or confidential information to move beyond its intended boundaries.

Membership Inference Attacks in AI: How They Expose Training Data?

AI models are becoming essential to enterprise innovation, but the sensitive data that powers them is creating new security and privacy challenges. Even when raw training datasets remain inaccessible, attackers may still identify whether specific information was used to train a model through membership inference attacks.

Global Teams, Local Languages: Closing the Multilingual Privacy Gap

A privacy policy that only works in English is not a global privacy policy. It is an English-language policy that a global company happens to be using. That distinction matters more than most teams realize. Enterprises now centralize contracts, HR files, healthcare records, and support conversations from regional offices around the world into a shared AI platform, often assuming that whatever detection and masking logic works for their English-language content will work everywhere else. It does not.

Why Your Healthcare RAG Pipeline Is Leaking PHI (And How to Fix It)

Why Your Healthcare RAG Pipeline Is Leaking PHI Most healthcare organizations believe their AI assistant is secure once they restrict who can log in. Unfortunately, that's only part of the story. Modern healthcare AI applications rely on Retrieval-Augmented Generation (RAG), where patient records, physician notes, insurance claims, and medical documents are embedded into vector databases to power intelligent search.

Why Simple Masking Kills AI Accuracy

Here is a document going into an AI assistant: A simple masking system produces: The information is protected, but the document has become almost impossible for the AI to reason about. It no longer knows who introduced whom, who approved the proposal, or whether the same person appears multiple times. By removing identity, we destroyed the relationships that give the document meaning.

How to Securely Roll Out Enterprise AI in 90 Days #shorts #aisecurity

Planning an enterprise AI rollout in 90 days? Establishing a robust AI Gateway Architecture is the critical first step to ensuring data compliance, enforcement, and security. Letting application traffic run straight to LLMs exposes your organization to severe security and compliance liabilities.

Protecting PHI Beyond Names and ID Numbers

A few years ago, an Australian government health agency released what it believed was a fully de-identified dataset covering 10% of the national population. Names, addresses, and other obvious identifiers had been stripped out. Researchers showed individuals could be re-identified using nothing more than rare medical procedure codes and treatment dates cross-referenced with publicly available information. No names were needed.