LLM agent safeguards are not optional for production systems. This live workshop implements the complete safeguard stack: prompt injection detection, input validation, output moderation, trust boundary enforcement between agents, and the Glass-Box audit layer that makes every safeguard decision traceable and improvable.
By Packt Publishing · Refunds up to 10 days before
Prompt-level safeguard instructions can be overridden by adversarial inputs. Architectural safeguards cannot. This workshop implements safeguards as structural components in the agent system: input validation that runs before agents see any content, output validation that runs before responses reach users, and inter-agent trust controls that enforce security boundaries regardless of what any individual agent produces.
Context engineering is the discipline of designing systems that give AI the right information, in the right format, to reason and act reliably. It goes beyond prompt engineering — building structured, deterministic systems that scale in production.
A multi-agent system uses multiple specialised AI agents working together — each with a defined role, context, and tools — to complete complex tasks no single agent could handle reliably. Context engineering makes them predictable.
MCP is Anthropic's open standard for connecting AI models to tools, data sources, and other agents. It provides structured agent orchestration with clear context boundaries — making systems transparent and debuggable.
Context engineering requires hands-on practice to truly understand. This live workshop lets you build a working system with a world-class instructor answering your questions in real time.
Six modules. Six hours. A production-ready context-engineered AI system by the time you finish.
Understand why prompts fail at scale and how semantic blueprints give AI structured, goal-driven contextual awareness.
Design and orchestrate multi-agent workflows using the Model Context Protocol. Build transparent, traceable agent systems.
Build RAG pipelines that deliver accurate, cited responses. Engineer memory systems that persist context reliably across agents.
Architect a transparent, explainable context engine where every decision is traceable and debuggable in production.
Implement safeguards against prompt injection and data poisoning. Enforce trust boundaries in multi-agent environments.
Deploy your context-engineered system to production. Apply patterns for scaling, monitoring, and reliability.
Concrete working deliverables — not just theory and slides.
A working Glass-Box Context Engine with transparent, traceable reasoning
Multi-agent workflow orchestrated with the Model Context Protocol
High-fidelity RAG pipeline with memory and citations
Safeguards against prompt injection and data poisoning
Reusable architecture patterns for production AI systems
Certificate of completion from Packt Publishing
Denis Rothman brings decades of production AI engineering experience to this live workshop.
Denis Rothman is a bestselling AI author with over 30 years of experience in artificial intelligence, agent systems, and optimization. He has authored multiple cutting-edge AI books published by Packt and is renowned for making complex AI architecture concepts practical and immediately applicable. He guides you step by step through building production-ready context-engineered multi-agent systems — answering your questions live throughout the 6-hour session.
Intermediate to advanced workshop. Solid Python and basic LLM experience required.
Everything you need to know before registering.
The most critical production safeguards are: prompt injection detection (catching attempts to override the agent's semantic blueprint with adversarial instructions), input schema validation (ensuring requests conform to defined types before any LLM processing), output citation verification (confirming factual claims are grounded in retrieved sources), content moderation (screening outputs for harmful content before delivery), and inter-agent access controls (enforcing that agents can only access the knowledge resources their semantic blueprint authorises). This workshop implements all five.
Architectural prompt injection detection runs before the user input reaches any agent. A classifier layer analyses the input for patterns that indicate injection attempts: instructions that contradict the system's role definition, role-playing prompts that try to establish a different identity for the agent, commands that attempt to override the semantic blueprint's constraints, and content that embeds instructions in data formats (JSON, XML) that the agent is asked to process. Detected injection attempts are rejected with a structured error response before any LLM processing occurs.
Inter-agent trust boundaries are implemented through MCP access control: each agent server defines which other agents are authorised to invoke its tools, and the MCP authentication layer enforces these authorisations on every tool invocation. The Glass-Box logging layer records every inter-agent tool invocation with the calling agent's identity, making trust boundary violations detectable. The semantic blueprint for each agent specifies the knowledge resources it is authorised to access, enforcing data access controls at the context assembly stage.
Production LLM agent output moderation covers: content safety classification (detecting harmful, offensive, or inappropriate content in generated responses), citation coverage validation (flagging responses where factual claims are not grounded in retrieved sources), schema conformance checking (verifying that structured outputs match their declared schema), and domain boundary checking (flagging responses that address topics outside the agent's defined knowledge domain). Moderation failures trigger structured error responses with appropriate fallback logic rather than silently delivering problematic outputs.
Safeguard decision auditing uses the Glass-Box logging layer to record every safeguard evaluation: the safeguard type, the input that triggered evaluation, the evaluation result (pass or fail), the specific criteria that caused a failure, and the action taken (reject, flag for review, modify response). These audit records enable: retrospective analysis of safeguard effectiveness, evidence for compliance reviews, identification of safeguard false positives that indicate overly strict rules, and systematic improvement of safeguard rules based on observed failure patterns.
Safeguards must be maintained as adversarial techniques evolve. The workshop covers an adaptive safeguard improvement cycle: the Glass-Box audit data provides a dataset of inputs that triggered safeguards and those that bypassed them, a regular review process analyses this dataset to identify new adversarial patterns, updated safeguard rules are tested against historical data before deployment, and A/B testing in production verifies that new rules improve detection without increasing false positive rates. This continuous improvement cycle keeps safeguards effective against evolving threats.
6 hours. Bestselling AI author. Production context-engineered multi-agent system by the end. Seats are limited.
Register Now →Saturday April 25 · 9am to 3pm EDT · Online · Packt Publishing · Cohort 2