
Core AI agent capabilities include subgoal decomposition, chain-of-thought reasoning, memory-based planning, and self-critique for autonomous action, enabled by APIs and plugins with risk controls.
Explore genetic orchestration that governs how agents decide, act, and communicate, shaping task flow sequencing and decision logic across hard-coded and dynamic frameworks like Lang, Autogen, and Crew AI.
Reasoning based threats arise when an agent's internal logic drifts from goals, causing plan misalignment, goal manipulation, or deceptive outputs; enforce chain of thought logging and regular output validation.
Examine tool execution attacks where agents misuse external capabilities, and learn mitigations through verification, sandboxing, and rate limits to prevent cascading tool chains, DoS, and budget overruns.
Explore authentication and identity exploits in agent systems, understanding impersonation, privilege abuse, and spoofing with mitigation through unique identifiers, digital signatures, least privilege, and message signing.
Strengthen agent security by enforcing RBAC and ABAC with cryptographic signatures, behavioral analytics, and periodic identity verification across federated or decentralized registries.
Design agentic AI red teams that probe reasoning flaws, memory poisoning, and adversarial prompts, and build sandboxed labs with OWASP threat models to patch weaknesses in secure development life cycle.
Expose how memory poisoning inserts false data into an AI's conversation buffer, causing gradual decision drift; apply memory validators, knowledge graphs, cryptographic signing, and rollback to trusted checkpoints.
Agentic AI Security: Threats, Architectures & Mitigations is a comprehensive course designed to prepare developers, security engineers, AI architects, and risk officers to defend the next generation of autonomous systems. The course begins by grounding learners in the fundamentals of agentic AI, explaining how modern AI agents—unlike traditional models—perceive, reason, plan, and act with increasing autonomy. It explores the pivotal role of OWASP’s Agentic Security Initiative and introduces the architectural foundations of single-agent and multi-agent systems, showcasing the core capabilities of agents, including memory, tool use, and goal decomposition. Learners are introduced to orchestration layers, agent frameworks like LangChain and AutoGen, and real-world agentic patterns and use cases. As the course progresses, it delves into threat modeling with STRIDE, PASTA, and MAESTRO frameworks, before detailing OWASP’s reference agentic threat model and taxonomy navigator.
The midsection focuses on deep-dives into specialized threats—reasoning drift, memory poisoning, tool misuse, identity spoofing, HITL exploitation, and multi-agent coordination failures. Six mitigation playbooks provide practical countermeasures: reasoning validation, memory control, tool execution hardening, identity strengthening, HITL optimization, and inter-agent trust assurance. Learners then transition into architectural solutions including modular agent design, execution guards, rollback systems, and defense-in-depth strategies. The deployment section emphasizes containerization, policy-driven API access, and lessons from real-world agent incidents. To ensure proactive defense, the course includes guidance on designing red teams, secure simulation labs, and building vulnerable agents for training purposes using LangChain. Hands-on labs like simulating memory poisoning and consensus manipulation are also included.
The course concludes by integrating agentic threats into existing security frameworks—mapping OWASP threats to MITRE ATLAS and NIST AI RMF—thus aligning advanced agent risks with enterprise governance and compliance expectations. Learners emerge prepared to design, test, and deploy secure, interpretable, and auditable AI agents.