red-team
28 articles
How to Read the State of AI Security Engineering Report: Methodology, Caveats, and Responsible Interpretation
A serious annual report is not only a collection of findings. It is also a contract with the reader about how those findings should be interpreted. The more ambitious the report, the more important the methodology becomes.
The AI Security Engineer Career Map: Skills, Tools, Frameworks, and Portfolio Evidence
The AI Security Engineer career path combines AppSec, cloud security, MLOps, LLM application security, secure RAG, agent security, red teaming, detection engineering, governance evidence, privacy awareness, and communication. Practitioners should build portfolio evidence that proves they can turn AI risk into controls, tests, telemetry, and operating decisions.
The AI Security Operating Model: Who Owns What Across AppSec, MLOps, GRC, Legal, Privacy, and SOC
A credible AI security operating model assigns ownership across AppSec, product security, AI platform engineering, MLOps, data governance, privacy, legal, GRC, SOC, red team, procurement, and business teams. The goal is not companyal purity; the goal is clear accountability for controls, evidence, incidents, and claims.
Private Benchmarks for AI Security: Skills, Operating Models, Controls, and Governance Evidence
Private AI security benchmarks can help organizations compare skills, operating models, control coverage, evidence maturity, and role expectations against defined datasets or frameworks, but they must be presented as directional advisory tools rather than certification, audit opinion, or proof of internal security maturity.
Claim-Readiness for AI Security: Marketing Pages, Trust Centers, Sales Claims, and Governance Evidence
Claim-readiness means AI security, privacy, governance, benchmark, sponsorship, and trust-center claims are mapped to reviewable evidence, scoped carefully, caveated honestly, and separated from unsupported product endorsement or research overstatement.
Psychometric Role-Language Evidence Is Not Diagnosis: Responsible Use in AI Security Workforce Research
Psychometric role-language analysis can help interpret AI security job descriptions, role expectations, team archetypes, and skills demand when used as aggregate evidence with clear limitations. It must not be used to diagnose individuals, infer protected traits, make unsupported hiring decisions, or imply internal company maturity.
Public Hiring Signals: How AI Security Job Descriptions Reveal Market Demand Without Proving Internal Maturity
Public AI security job descriptions can reveal directional market demand, role architecture, skills convergence, framework adoption, and emerging operating models, but they cannot prove internal security maturity. Job-description intelligence should be analyzed in aggregate, caveated carefully, and separated from company-level accusations.
The Future of AI Security Engineering: From AppSec to AgentSec to Autonomous SOCs
The future of AI Security Engineering is a platform discipline that extends AppSec into LLM applications, creates AgentSec for autonomous workflows, builds AI-native telemetry for detection and incident response, and turns governance into continuous evidence rather than annual paperwork.
The AI Security Buyer’s Guide: How to Evaluate Vendors for LLM Firewalls, Guardrails, Evals, and Monitoring
AI security buyers should judge vendors by the job to be done: filtering, testing, evals, access, logs, leaks, rules, and proof. Choosing a vendor should start with design and risk, not just labels.
Compliance for AI Security Engineers: Mapping OWASP, NIST AI RMF, ISO 42001, SOC 2, and CSA AICM
AI security compliance should translate frameworks into concrete engineering controls and governance evidence. OWASP helps with LLM application risks, NIST AI RMF with risk management, ISO 42001 with management-system structure, SOC 2 with trust-service evidence, and CSA AICM with control mapping, but none of these prove an AI system is secure on their own.
Secrets Management for AI Apps: API Keys, Model Providers, Tool Credentials, and Delegated Access
AI applications need disciplined secrets management across model provider keys, vector stores, tool credentials, OAuth tokens, browser sessions, cloud keys, notebooks, logs, prompts, and agent runtimes. Secure design requires centralized secret storage, short-lived and scoped credentials, delegated authorization, redaction, rotation, revocation, and incident-ready evidence.
Notebook Security for ML and AI Teams: Jupyter, Colab, Databricks, and Hidden Execution Risk
Notebook security for AI and ML teams requires access control, secret management, data minimization, execution isolation, output review, dependency scanning, sharing controls, provenance, and promotion rules before notebooks influence production workflows or access sensitive data.
Cloud Security for AI Workloads: GPUs, Secrets, Buckets, Model Endpoints, and Notebook Risk
Cloud security for AI workloads requires inventorying AI assets, protecting model endpoints, securing GPU and notebook environments, managing secrets, locking down object storage and vector stores, scanning containers, limiting egress, monitoring cost, and integrating AI infrastructure into normal cloud security operations.
Security Monitoring for AI Agents: How to Detect Dangerous Tool Use Before Damage Happens
Security monitoring for AI agents requires tool-call telemetry, action-sequence detection, approval-state tracking, memory monitoring, credential visibility, anomaly detection, and kill-switch response paths. Dangerous tool use should be detected before it becomes data leakage, unauthorized change, financial impact, or customer-facing error.
AI Logging and Telemetry: What to Capture Without Creating a Privacy Disaster
AI systems need logs because you cannot rebuild what happened from vibes. Security teams need to know what prompt was used, what docs were found, what the model said, what tool was called, who approved it, and what happened next.
Secure AI Product Design: How Product Decisions Create or Reduce AI Risk
AI product decisions can create or reduce security risk by controlling autonomy, data visibility, uncertainty, approval design, reversibility, source attribution, workflow placement, and abuse resistance. Product security must be involved early enough to shape the feature, not merely review it after launch.
Threat Modeling LLM Applications: Data Flows, Trust Boundaries, Tool Calls, and Abuse Cases
LLM threat modeling should map assets, actors, data flows, trust boundaries, prompt assembly, retrieved content, model providers, tool calls, memory, outputs, identities, approvals, logs, and abuse cases. The output should become controls, tests, telemetry requirements, and incident-response assumptions.
From Jailbreaks to Business Impact: How to Write AI Security Findings That Executives Understand
AI security findings should connect tested behavior to business impact through scope, preconditions, evidence, reproducibility, affected assets, control failure, severity rationale, and remediation. Findings must avoid unsupported company-level claims, product endorsement language, and exaggerated conclusions.
Building an AI Red Team Lab: Tools, Datasets, Harnesses, Attack Libraries, and Reporting Templates
An AI red team lab should provide a controlled, authorized, reproducible environment for testing LLM applications, RAG systems, AI agents, model endpoints, tool use, output handling, and governance evidence. It must include safe datasets, attack libraries, test harnesses, telemetry, evidence handling, reporting templates, and operational guardrails.
AI Evals as Security Tests: Building Regression Suites for Prompt Injection, Leakage, and Unsafe Actions
Security evals should test prompt injection, indirect injection, data leakage, RAG access, unsafe output, excessive agency, over-reliance, and cost abuse. These should be repeatable regression suites in CI/CD and governance evidence.
LLMOps Security: CI/CD, Secrets, Eval Gates, Model Registry Controls, and Deployment Promotion
LLMOps security requires CI/CD controls for prompts, tools, model configuration, provider routing, evals, secrets, registries, deployment promotion, monitoring, rollback, and governance evidence. AI release processes must track every artifact that can change system behavior.
Securing Open-Source Models: What to Check Before Running a Model in Production
Open-source models require a production intake process covering provenance, license review, file formats, remote code, unsafe serialization, dependencies, containers, evals, serving infrastructure, monitoring, rollback, and governance evidence.
AI Data Governance for Security Engineers: Classifying Prompts, Outputs, Embeddings, and Training Data
AI data governance must classify prompts, outputs, embeddings, and training data. Security engineers need rules for provider use, retention, access, and deletion.
Vector Database Security: Access Control, Tenant Isolation, Poisoning, and Forensic Logging
Vector database security requires the same seriousness as other production data infrastructure, with additional attention to embeddings, metadata filtering, retrieval authorization, tenant isolation, poisoning resistance, deletion workflows, and forensic logging.
RAG Data Leakage: How Private Documents Escape Through Retrieval, Embeddings, and Context Windows
RAG data leakage happens when retrieval, embeddings, metadata, prompt context, generated answers, logs, or deletion workflows expose information outside intended boundaries. Secure RAG requires authorization-aware retrieval, tenant isolation, metadata filtering, sensitive-data minimization, protected traces, retention limits, and incident-ready evidence.
Human-in-the-Loop Is Not a Security Control Unless You Design It Like One
Human-in-the-loop is only a security control when the approval is timely, informed, auditable, placed before meaningful action, and backed by authority to deny or modify the action. Otherwise it becomes a weak UX pattern that shifts responsibility to users without giving them enough information to exercise judgment.
Least Privilege for AI Agents: Designing Permissions for Tools, APIs, Browsers, and Filesystems
AI agents need least privilege at the tool, API, browser, filesystem, credential, tenant, and action level. Safe design requires tool classification, read-only defaults, argument validation, scoped credentials, sandboxing, approval gates, and auditable enforcement outside the model.
The Agentic Anarchy Problem: Why AI Agents Break Traditional IAM Models
AI agents break traditional IAM because they act across user intent, application authority, and tool permissions. A secure agent program requires explicit identity, delegated authorization, scoped credentials, and policy enforcement that lives outside the model.