
Krishnayak introduces a bootcamp focused on building enterprise-grade, secure, observable AI applications, covering protection from prompt injections, data leakage, and lifecycle governance for production deployments.
Master building production-ready AI systems with security by design, guardrails, LLM gateways, and observability to prevent data leakage, untrusted inputs, prompt injection, and governance gaps.
Design an enterprise-grade agentic AI application architecture with guardrails, LLM gateways, memory layers, and observability to deliver production-ready, secure, and scalable generative AI solutions.
Discover free weekly live AI webinars with three 3-hour sessions and live mentor Q&A. Book your slot on the website to join live master classes and even 8-hour coding sessions.
Discover the latest LangChain updates, covering docs, agents, multi-model integration, tool calls, messages, memory, streaming, middleware, guardrails, and UV package manager setup.
See how LangChain enables autonomous agents to call tools and use context. Build a basic weather tool in a virtual environment and run it with an OpenAI API key.
Learn to integrate LangChain with OpenAI, Google Gemini, and Grok by loading API keys, initializing chat models, and invoking models like GPT-4.1 and Gemini 2.5.
Explore streaming and batch techniques with Langchain to optimize LLM interactions. Experience streaming delivering output as it is generated, and batch enabling parallel processing to boost performance and reduce cost.
Learn to create tools in langchain, define a tool with a decorator and docstring, bind it to an llm, and use a tool execution loop to fetch weather data.
Explore LangChain messages as the core context units for LLMs—system, human, AI, and tool messages with metadata and conversation history, and distinguish text prompts from message prompts.
Learn how to enforce structured output from LLMs with schema-driven prompts, using Pydantic field validation, nested structures, and model with structure techniques.
Apply typedict to generate structured output without runtime validation, contrasting it with pydantic models. Create a movie schema with typing extensions and annotated fields to produce a dict-based result.
Discover how data classes enable structured output through a contact info schema, using Pydantic, typing extensions, and a GPT-5 LangChain agent to produce validated results.
Explore middleware in LangChain, focusing on the summarization middleware that compresses history and preserves recent context. Learn to use hooks and triggers—token, message, or fraction based—and built-in middlewares like logging.
Implement human in the loop middleware to pause autonomous agents for approval and perform interrupt checks in high-stakes tasks such as a financial transaction.
Explore guardrails around AI agents, detailing deterministic and model-based approaches, and learn to implement them with LangChain middleware, including PII detection, human-in-the-loop, before/after agent hooks.
Explore the fundamentals of building agentic AI applications with Langgraph, including chatbots, tool integration, memory, human-in-the-loop, graph concepts, and multi-agent workflows toward deployment.
Set up a Python project workspace with uv, create a virtual environment, install Lang Graph, Lang Chain, and Lang Smith, and build a basic chatbot using Lang Graph APIs.
Build a basic AI chatbot using LangGraph's state graph. Learn edges, nodes, and state, reducer-based message history, and LLM prompts to drive the conversation.
Learn to build a React agent architecture with LangGraph by binding LLMs to tools, enabling tool calls with Tavili search and custom functions for a chatbot.
Explore memory implementation in LangGraph using a memory saver checkpoint for persistent checkpointing across interactions and streaming with update and value modes.
Learn how to implement human in the loop feedback within an AI agent workflow, using an interrupt mechanism to pause tool calls and incorporate human guidance before continuing.
Learn to debug and monitor Langraph workflows with Langsmith and Langraph Studio, explaining observability for Langchain AI apps, including tools, memory, and multi-agent patterns.
Learn to implement multi-agent systems with LangGraph, exploring simple, supervised, and hierarchical architectures using researchers, analysts, and writers, plus grok tools for web search and summary generation.
Learn to build MCP servers and a client within an app using LangChain adapters, enabling tool calls like addition, multiplication, and weather via stdio and streamable http transports.
Master observability for AI systems by tracking logging, tracing, metrics, user feedback, and evaluation signals across the pipeline, turning data into dashboards and alerts that improve latency, cost, and trust.
Explore frameworks for observability in AI security, focusing on LangSmith and Pydentic LogFire. Learn how these tools support logging, tracing, metrics, evaluation signals, and agent performance with multi-language SDKs.
Learn how LangSmith, a LangChain observability framework, traces LLM calls and agentic flows, visualizes runs and traces, and measures cost, latency, and tokens with default and custom tracing.
Learn to enable automatic tracing with LangSmith and LangChain, and to implement manual tracing using the traceable decorator for enriched, metadata-rich traces and observability.
Explore simple rag and agentic rag, including document chunking, vectorization with google embeddings, and a fias vector store, then retrieve, prompt, and orchestrate multi-agent workflows with traces.
Develop an app to observe and trace an agentic workflow in Langrath Studio (Langsmith), exploring a five-node graph: planner, document reader, web in richer, synthesizer, and report writer.
Convert graph logic into a Langgraph Studio app with session IDs, caching, and a Streamlit UI, orchestrating planner, document reader, web enricher, synthesizer, and report writer with observable traces.
Learn to use the pydantic logfire observability framework to trace your entire application, including llm execution. Compare this with llm tracing using langsmith and understand spans, traces, and waterfall concepts.
Set up logfire for AI observability by configuring tokens and API keys, initializing a notebook, and demonstrating logging with configure, info, and spans to build LLM traces.
Learn structured logging for LLM calls using pydantic models with logfire. Capture requests, responses, tokens, latency, and observability spans across grok and Gemini.
Trace a simple rag pipeline from data ingestion to retrieval, embedding documents with Gemini through Lang chain, storing in a FIOS vector store, and logging with log fire for traceability.
Trace a react agent that reasons before acting, using a retriever tool to query a vector database, enforce guardrails, and answer policy and general questions.
Design a multi-agent workflow led by a planner that routes queries to explain, analyze, creator, or web search agents, with a formatter finalizing the response and log fire tracing.
Explore testing trace and agentic app execution by building a modular graph-enabled Streamlit app that initializes a shared cache, configures a multi-agent workflow, and logs traces with log fire.
Apply guardrails as safety controls and policies that validate, filter, and restrict inputs and outputs of LLMs to ensure safe, reliable, and trustworthy AI.
Nemo guardrails from NVIDIA adds a security layer to large language models, using fast embed similarity with input, output, and custom rails to enable secure, guided RAG chatbots.
Learn to write rails in Nemo Guardrails using Colang, define user, bot, and flow, and combine YAML config with model instructions for secure AI interactions.
Develop Nemo guardrails from scratch by setting up a virtual environment, installing LangChain and dependencies, and implementing guardrails to protect raw LLM interactions.
Implement the first input guardrail to classify queries as on topic or off topic, and respond with guarded replies using colang and yaml configurations.
Explore input rails for guarding against off-topic, jailbreak, sensitive-topic, and dialogue behaviors using Nemo guard and llama guard layers, colang configurations, and conversational flows.
Learn to build custom rails and actions that detect PII and urgency, bridging python logic with colang flows, and apply input and output rails to secure LLM conversations.
Study output rails as the last line of defense between the LLM and the user, using an output sanitizer to remove leaked credentials and other sensitive details from responses.
Learn how to build a secured HR policy assistant bot with grok models, guardrails, and a rag pipeline using FIOS vector store and HR documents.
Test a secured HR assistant by building a streamlit user interface with a sidebar, docs and chat tabs, featuring nemo guardrails and LLM gateway configurations, plus vector store integration.
Explore how AWS guardrails manage input and output in AI systems using topic policy, content policy, word policy, sensitive information policy, and grounding policy within Bedrock.
Learn to create guardrails for a cooking chatbot with AWS bedrock and SDK, configuring topic, content, and word policies, and compare guardrails with and without protection.
Explore guardrail types—inline guards with an LLM (invoke model and converse) and the AWS guardrails API—compare single-shot and multi-turn flows, and understand trace structure and input/output sources.
Block unsafe content with content filters and guardrails across hate, insults, sexual content, violence, and misconduct, while balancing confidence and threshold to prevent false positives and negatives.
Set up AWS Bedrock guardrails with high-threshold filters for hate, insult, misconduct, and prompt attack. Compare high and low thresholds to assess guardrail testing and trace analysis.
Learn to enforce safety in AI chatbots by implementing denied topics, word policy, and PII policy with guardrails, using the Converse API, and understanding block versus anonymize.
Learn to control hallucinations in retrieval augmented generation by applying grounding guardrails that validate llm output against source documents using grounding and relevance scores.
Master versioning and drafts to safely deploy guardrails, monitor performance and costs, and implement automated testing and ci/cd workflows in production.
Explore how AWS guardrails cost compares with open-source options, analyzing policy counts, text units, and API calls, and explain why AWS guardrails can be more cost-efficient and easier to manage.
Explore the guardrails ai framework, why to use it, and components like guardrails hub and validators. Learn to apply guardrails during streaming, integrate with lang chain, and deploy in production.
Guardrails AI aims to make probabilistic LLM outputs strict and predictable using Pydentic style schemas, through guardrails hub validators, open source and enterprise options, and broad ecosystem integrations.
Explain guardrails hub and validators, including input and output validators, on-fail actions, and built-in vs custom validators, with practical demos on PII, toxicity, competitor checks, and topic restrictions.
Explore on fail actions for guardrails in LLM-based refund workflows, using max refund validators to auto-approve under thresholds and route failed outputs to re-ask, fix, filter, refrain, or exception paths.
Understand on fail actions in guardrails, including reask, fix, filter, refrain, and exception, with PII redaction and validator-driven prompts demonstrated through real examples.
implement guardrails hub validators and onfill action in a notebook, installing dependencies, configuring remote inference with an api key, and validating pii, toxicity, and restricted topic.
Delve into implementing guardrails validators, including PII detection, toxic language, competitor checks, and restricted topic, using a guard object for local and remote inference and on-file actions.
Implement on file actions in guardrails by orchestrating validators and actions, such as fix, filter, reframe, and exception, demonstrated with the competitor check validator in a Jupyter notebook.
Demonstrates implementing on-fail actions in guardrails, including filter, refrain, exception, and re-ask, using structured guard objects, parsing, and iterative re-asks with an LLM.
Explore input and output structure validation with Guardrails AI, turning unstructured text into typed structured data using Pydantic schemas, extraction prompts, and optional tool calling.
Explore the guardrails AI guard object and how to apply guardrails during streaming, including LLM call flows, validators, on-file actions, and streaming validation architecture.
Configure guardrails ai as a runnable in the lang chain, convert the guard object for reuse across workflows, and validate outputs with the competitor check validator.
Explore how to deploy guardrails in production and scale with a central guardrails architecture. Learn how central policy, orchestration, and observability enable reusable policies across microservices and multi-language apps.
Complete AI Security Bootcamp
Artificial Intelligence is transforming every industry, and Large Language Models (LLMs) and Agentic AI are rapidly becoming the foundation of modern software. However, as organizations move AI applications from prototypes to production, security, reliability, and governance have become just as important as model performance.
This comprehensive bootcamp is designed to teach you how to build secure, observable, and production-ready AI applications using the latest tools, frameworks, and best practices adopted across the industry.
Unlike traditional Generative AI courses that focus only on prompting or building chatbots, this course dives deep into the engineering practices required to deploy AI systems safely in real-world environments. You'll learn how to protect LLM applications against prompt injection, jailbreak attacks, data leakage, hallucinations, unsafe outputs, and other common security risks while implementing enterprise-grade monitoring, evaluation, and governance.
The course begins by covering the fundamentals of building AI applications using LangChain and LangGraph, providing a strong foundation for developing intelligent workflows and multi-agent systems. From there, you'll explore the essential pillars of Production AI Security.
You'll learn AI observability using LangSmith and Pydantic Logfire, enabling you to trace, debug, monitor, and optimize AI applications running in production. You'll understand how to identify bottlenecks, inspect agent execution paths, monitor token usage, and troubleshoot failures efficiently.
Next, you'll master AI Guardrails using industry-leading frameworks including NVIDIA NeMo Guardrails, AWS Bedrock Guardrails, and Guardrails AI. You'll learn how to enforce safety policies, validate user inputs, moderate model outputs, implement content filtering, protect against prompt injection, and build responsible AI systems suitable for enterprise deployment.
The course also explores LLM Gateways, one of the fastest-growing areas in AI infrastructure. You'll learn how to manage multiple LLM providers using Portkey AI Gateway and TensorZero, enabling intelligent model routing, request logging, authentication, fallback strategies, cost optimization, rate limiting, caching, and centralized governance.
Another major focus of the course is LLM Evaluation. You'll learn how to evaluate AI systems using DeepEval, measure answer quality, retrieval performance, hallucination rates, faithfulness, and custom evaluation metrics. You'll also explore automated testing strategies that help ensure your AI applications remain reliable as they evolve.
To strengthen your AI systems further, you'll perform AI Red Teaming using PyRIT, learning how attackers exploit vulnerabilities in LLM applications and how to defend against prompt injection, jailbreaks, malicious instructions, and unsafe behaviors before deploying to production.
Performance optimization is another critical aspect of enterprise AI. You'll learn how to integrate Redis for semantic caching, response caching, and rate limiting to improve latency, reduce operational costs, and build scalable AI services capable of handling high traffic.
Beyond securing AI applications, you'll also learn how to build modern Deep Agents and AI-powered coding assistants using Claude Code. You'll understand advanced agent architectures, planning, memory, tool calling, orchestration, and autonomous workflows used in today's production Agentic AI systems.
Throughout the bootcamp, every concept is taught through practical coding sessions, real-world examples, architecture discussions, and hands-on projects. Instead of simply learning APIs, you'll build complete AI systems that follow production engineering best practices.
What You'll Learn
Build production-ready LLM and Agentic AI applications.
Develop workflows using LangChain and LangGraph.
Implement AI observability with LangSmith and Pydantic Logfire.
Secure AI systems using NVIDIA NeMo Guardrails, AWS Bedrock Guardrails, and Guardrails AI.
Manage multiple LLM providers using Portkey AI Gateway and TensorZero.
Evaluate AI systems using DeepEval and custom evaluation pipelines.
Perform AI Red Teaming with PyRIT.
Optimize performance using Redis caching and rate limiting.
Build advanced Deep Agents and AI coding assistants with Claude Code.
Design scalable, secure, reliable, and enterprise-grade AI architectures.
Who This Course Is For
This course is ideal for:
AI Engineers
Machine Learning Engineers
Generative AI Developers
Software Engineers
Backend Developers
MLOps and LLMOps Engineers
Data Scientists
Security Engineers
Students and professionals looking to specialize in Production AI Security
By the end of this course, you'll possess one of the most in-demand skill sets in modern AI engineering—the ability to build, secure, monitor, evaluate, and deploy production-grade LLM and Agentic AI applications. Whether you're preparing for enterprise projects, client deployments, or advancing your AI career, this bootcamp will provide the practical knowledge and hands-on experience needed to confidently build trustworthy AI systems in the real world.