
Understand how generative AI breaks security models and secure prompts, embeddings, memory, and agents against prompt injection, data leakage, model abuse, and autonomy abuse with AI-native firewalls and threat modeling.
Generative AI disrupts traditional security by exposing probabilistic responses and conversational inputs. Adaptive semantic aware filtering, agent-aware controls, and synthetic scenario testing guard against emergent behavior, prompt mutations, and hallucinations.
Explore OWASP's top ten LLM application security risks, including prompt injection, data leakage, and model denial of service, and learn defenses like input validation, prompt integrity checks, and data provenance.
Explore top threats to llm applications, including excessive agency, overreliance, and unsafe plugins, and learn governance, sandboxing, and supply-chain protections to secure autonomous agents.
Assess how NIST AI RMF, OWASP MAS, and ISO 42001 address data leakage, hallucinations, prompt injection, and governance in generative AI systems.
Assess the expanded attack surface of generative ai security, covering prompts, embeddings, plugins, and APIs, and outline defenses like input validation, vector monitoring, and secure tool access.
Explore prompt injection, data exfiltration, and hallucination risks in generative AI, and apply layered defenses like semantic firewalls, risk scoring, and thorough logs to mitigate threats.
By design embeds protection into ai systems from start across prompts, memory, plugins, and orchestration. Emphasize least privilege, secure defaults, observability, and red teaming to prevent prompt injection and misuse.
Explore how generative AI in sectors requires GDPR, HIPAA, and DORA compliance. Learn data minimization, privacy by design, accountability, auditability, and explainable outputs to protect personal data and ensure security.
Deploy an AI firewall to monitor and filter prompts and outputs at the semantic layer, intercepting adversarial prompts and preventing hallucinations, with pre-processing and post-processing.
Compare rule-based and model-based AI firewalls, examining trade-offs in speed, precision, and adaptability, and explore hybrid approaches like Lakera Guard for real-time, layered enterprise defense.
Discover AI security posture management as a centralized dashboard and framework for identifying, monitoring, and mitigating risks in generative AI systems, with drift detection, memory tracking, and prompt anomaly detection.
Discover posture by scanning prompts, memory, tools, plugins, and vectors to surface AI risk. Govern risk by detecting prompt injections, memory drift, and poisoned vectors.
Enforce policy controls and auto remediation to govern ai behavior with configurable risk levels, prompts, memory, and plugins, enabling real-time enforcement and safe, scalable operations.
Real time risk scoring assigns dynamic threat levels to every interaction with a generative AI system, and misconfiguration detection and role drift are actively mitigated in SoC workflows.
Discover detection engines and heuristic approaches to prompt injection, which infer intent instead of syntax. Learn a hybrid firewall layering token filters, semantic classifiers, and history tracking to score risk.
Conduct proactive red-teaming to test prompt security using prompt bench and Pirate Python Risk Identification Toolkit, simulating jailbreaks, role impersonation, and data leakage across llm pipelines and defenses.
Learn how prompt injection creates threats and how AI native firewalls like Guard and Protect AI's Guardian defend prompts, memory access, and tool use with posture discovery and audit logging.
Vector stores enable retrieval and grounding in AI, but poisoned embeddings and lack of explainability create data leakage risks and unsafe, outdated content influencing responses.
Learn how vector poisoning, embedding drift, and adversarial recall threaten retrieval-based ai systems. Implement defenses with vector hygiene, audit logs, ttl memory, semantic diffing, and retrieval firewalls.
Secure rag architecture enforces access control at query time, applies role-based filters and metadata gates, prevents unauthorized recall and hallucinations, and logs retrievals for risk detection and blocking risky completions.
Use Lama Index and LangChain security plugins to detect vector anomalies in vector stores by tracking embeddings, query logs, retrieval patterns, poisoned entries, and drift.
Implement LLM sandboxing to isolate memory via vector store partitions, gate tools, and post-process outputs, preventing cross-tenant leakage, prompt-based escalation, and unauthorized actions in multi-tenant SaaS and enterprise systems.
Learn how restricting tool use with role-based whitelisting and runtime policies prevents unauthorized actions and data leaks, and how api quotas and sandboxing enforce safe, accountable artificial intelligence.
Implement memory isolation and session scope control in LM powered systems to prevent cross-user memory leakage and contamination, enforcing per-tenant boundaries via namespace partitioning, retrieval filtering, and zero-trust principles.
Explore how Azure content filters and Amazon Bedrock guardrails filter, restrict, and monitor LLM outputs and inputs for enterprise apps. Compare their approaches to output moderation and risk controls.
Explore how agent architectures let generative AI reason, act, recall, and collaborate with planning, memory, and tool use. Compare long chain autogen and crew AI for multi-agent workflows and guardrails.
Defend generative ai agents against identity spoofing, memory poisoning, and plugin hijacking with layered controls, zero trust design, logging decisions, and enforcing tool scope, binding per plugin, and permission layers.
Explore mass aware security tools for multi-agent systems in enterprise workflows, including Prompt Armor and LM guard, to enforce policy, detect adversarial behavior, and intervene in real time.
Define and enforce identity tokens, signed task chains, and capability boundaries to secure multi-agent ai systems with verifiable authentication, auditable workflows, and zero-trust access control.
Develop AI-specific security test suites that probe prompt injection, memory drift, and tool misuse, and use cognitive, behavior driven testing to reveal vulnerabilities.
Explore red teaming workflows for LLMs and agents, using Pirate and prompt bench to test adversarial prompts, memory poisoning, tool misuse, and safety guardrails.
Replay engines reconstruct prompt sessions to diagnose errors and monitor drift. They capture session metadata and use versioned query logs for compliance, drift monitoring, and incident analysis.
Leverage open source guardrails, Trace loop, and LLM defender to enforce safety policies, monitor execution, and block dangerous behavior in generative AI apps, embedding trust in the development life cycle.
Commercial ai security platforms deliver defense-grade tooling beyond open source, with attack surface monitoring, threat modeling, compliance integration, and ai supply chain security for production llms.
Merge MLOps and SecOps to secure gen AI pipelines with real-time monitoring, prompt risk checks, and auditable end-to-end governance from training through deployment.
Explore cloud-native gen AI security with Azure AI Studio and Google Vertex AI, implementing built-in controls, moderation, guardrails, and IAM-integrated, encrypted workflows for compliant, scalable deployments.
As Generative AI becomes integral to modern business systems, ensuring its secure deployment has become a top priority. The “Generative AI Cybersecurity Solutions” course provides a comprehensive and structured deep dive into the evolving landscape of threats, controls, and security architectures specific to large language models (LLMs), agent frameworks, RAG pipelines, and AI-powered APIs. Unlike traditional cybersecurity approaches, which were built around static systems and deterministic logic, GenAI introduces new attack surfaces—including prompt injection, adversarial vector recall, plugin misuse, hallucinations, and memory poisoning—that demand a reimagined defense strategy.
This course begins with an overview of foundational threats to GenAI applications, covering why traditional security frameworks fall short and introducing learners to OWASP LLM Top 10, NIST AI Risk Management Framework, OWASP MAS, and ISO 42001. Learners then explore GenAI-specific risks such as prompt abuse, embedding drift, and data exfiltration, alongside the regulatory landscape including GDPR, HIPAA, and DORA. A deep dive into AI Firewalls and AI Security Posture Management (AI-SPM) equips students with the knowledge to deploy token filters, response moderation, policy enforcement, and posture discovery. Modules on Prompt Injection Defense, Vector Store Hardening, and Runtime Sandboxing bring practical tools and design patterns into focus, using examples like Lakera Guard, ProtectAI’s Guardian, LlamaIndex, and Azure AI Studio.
Advanced modules focus on securing agentic systems such as LangChain, AutoGen, and CrewAI, while exploring identity spoofing, signed task chains, and red teaming strategies with tools like PyRIT and PromptBench. The final module surveys the current security ecosystem—both open-source and commercial—highlighting how MLOps and SecOps can be unified to build robust, auditable, and scalable GenAI systems. By the end, learners will be equipped to assess, defend, and deploy secure GenAI pipelines across enterprise settings.