
Explore how the model context protocol (MCP) standardizes tool integration for AI models and LLMs, replacing REST APIs with a USB-C like interface for data sources and tools.
Explore the key MCP components—MCP client, MCP host, and MCP server—and how they interact via the MCP protocol to connect apps with tools, services, and generative AI workflows.
Explore how the MCP model context protocol enables the MCP host, client, and servers to coordinate tools and APIs, pass context to the LLM, and deliver accurate AI responses.
Explore practical MCP server development using a host, MCP client, and MCP servers, with cursor ID, cloud desktop, VS Code, and an LM.
Explore how the model context protocol links MCP hosts, servers, and language models via cloudy desktop, demonstrated with Claude desktop integration.
Install and overview of cursor ide for mcp development, showing how to configure mcp servers (Airbnb, DuckDuckGo search), integrate with cloud desktop, and run custom weather and agent tasks.
Learn to configure the Model Context Protocol with cloud desktop and cursor, add MCP servers via JSON, and use three dot AI to access web search and research tools.
Learn to build MCP servers that connect your host and cloud desktop to execute terminal commands, create directories and files, write content, and automate tasks via a custom MCP tool.
Learn to install cloud desktop on Windows or Mac, configure config.json to connect with the MCP host and client, and test messaging on the free plan.
Create the MCP server directory and terminal server workspace, then initialize the project with UV in a terminal, using mkdir -p, cd, and PowerShell on Windows or mac OS.
Create an MCP server in Python by setting up a virtual environment, installing the MCP package, and building a custom MCP tool with docstrings and a fast MCP workflow.
Learn to connect your MCP server to the cloud desktop by editing the JSON config and installing via UV run MCP install, then run commands to manage files.
Install cursor IDE from cursor.com to run an MCP host and client. Connect to MCP servers with MCP client and use AI code editor for code suggestions and debugging.
Activate the virtual environment, run main.py to start the MCP server, configure Cursor to connect with Cursor IDE, and test by creating cursor_output/terminal_server_test.txt via the MCP tool.
Build an MCP client with Python using the Gemini API and obtain a Gemini API key from Google AI Studio, then save it in a .env file for MCP server.
Create the MCP client project in a clients directory, initialize it, set up a virtual environment, move the .env file, and install dependencies from requirements.txt, including Google JNI SDK.
Walk through building a from-scratch MCP client in Python, including environment setup, server connection, tool-to-gemini conversion, and a Gemini-powered query chat loop.
Test your MCP client with the MCP server by running client.py, launching the chat window, and using the run commands tool to create and write to MCP client.txt.
Docker is an open source platform that builds, ships, and runs applications in containers, ensuring consistency and portability. It containerizes MCP servers to avoid environment conflicts.
Learn to install docker on Windows, Mac, and Linux, enabling WSL and Ubuntu, and update to WSL 1.3.0 or later. Verify with docker --version and docker ps.
Containerize an MCP server with docker by building a docker file, creating a container image, and testing a terminal server on port 5000.
Explore creating MCP clients with LangChain MCP adapters to simplify client code, load tools from multiple MCP servers through LangGraph agents, and connect to a custom terminal server.
Build an MCP client with LangGraph and LangChain adapters to connect to a Terminal Server, load MCP tools, and run an interactive Gemini-powered agent.
Explore building an MCP client with multiple server support using MCP adapters to connect to a terminal server and a fetch MCP server, powered by Docker and a config.json workflow.
Build an mcp client with multiple mcp server support using adapters and a config.json; dockerize servers, load tools, and create react agents with the Gemini API and Google API key.
Understand how to implement MCP servers and clients with server-sent events, compare stdio and SSE transports, and deploy a scalable real-time API from localhost to the cloud.
Organize the project into client, server, and workspace folders and set up a virtual environment, install requirements from requirements.txt, and open the MCP client and server in VS Code.
Explore the MCP SSE server code, building an API with tools like run command and add numbers, served by starlet and unicorn using server-sent events.
This walkthrough explains implementing an MCP client over server-sent events using HSC, converting MCP tools to Gemini, and processing user queries via the Gemini API in a chat loop.
Dockerize the MCP server by creating a Python 3.11 based image, copying source code, installing requirements, exposing port 8081, and running the server to connect with the MCP client.
Test the MCP server locally by running the docker image as a container, map ports, and launch the client against localhost:8081 to perform tool-based queries using the server sent event.
Create an AWS account and deploy your MCP servers to the cloud using server-sent events, exploring the free tier with $300 credit and logging in via the AWS console.
Learn to create and configure an AWS EC2 instance, set up security rules for port 8081, and prepare the environment by installing Docker for deploying your project.
Learn to install Docker on an EC2 instance by updating the machine, using apt upgrade, and running Docker commands to verify installation with docker ps and docker --version.
Deploy the MCP SSE server on the AWS cloud by cloning the GitHub repository into an EC2 instance, building and verifying the Docker image.
Run the MCP SSE server in a detached Docker container, expose port 8081, connect the MCP client to the server URL, and verify tool execution before deploying to AWS.
Set up the weather MCP project folder structure by creating a tool folder, a weather tool (weather.py), a constructor, and a requirements.txt file using uv init.
Initialize and activate a virtual environment, then install the MCP CLI. Add dependencies via a requirements.txt and install them with uv add - requirements.txt to build the custom weather tool.
Build a Python weather tool by turning a get weather function into an MCP tool. Test the weather checker server using MCP inspector to verify real-time weather data.
The Model Context Protocol (MCP) is transforming how modern AI systems operate. It is the emerging standard that allows Large Language Models (LLMs) to interact intelligently with external tools, APIs, and data sources. By learning MCP, you will understand how context flows between AI models and their environments, enabling the creation of truly autonomous and context-aware systems.
This course, Complete Model Context Protocol (MCP) Bootcamp, provides an in-depth understanding of how MCP works and how to implement it effectively in real-world AI applications. You will explore MCP’s architecture, its role in the Agentic AI ecosystem, and how it integrates with frameworks like LangChain, LangGraph, and CrewAI. The course is fully practical, project-based, and designed for professionals who want to build advanced AI workflows.
Introduction to Model Context Protocol (MCP):
Understand what MCP is and why it was introduced.
Learn how MCP changes the way LLMs communicate and share information.
Explore the problems MCP solves in modern Generative AI development.
Core Concepts and Architecture:
Study the main components of MCP, including models, tools, and context layers.
Understand how context is represented, managed, and exchanged.
Learn the design principles that make MCP scalable and extensible.
Building AI Systems with MCP:
Implement MCP-driven workflows using Python.
Connect language models with real-world APIs and databases.
Create context-aware applications capable of retrieving and reasoning with live data.
Build retrieval-augmented systems that integrate knowledge retrieval and response generation.
Integration with Leading Frameworks:
Use MCP with LangChain to enhance RAG pipelines.
Integrate MCP with LangGraph for stateful and graph-based reasoning.
Combine MCP with CrewAI to create multi-agent architectures.
Understand how MCP works with open-source and cloud-based LLMs such as OpenAI, Anthropic, and Mistral.
Projects You Will Build:
Project 1: Build a context-aware AI assistant using MCP.
Project 2: Connect an LLM to real-world APIs through MCP.
Project 3: Create an Autonomous RAG system with LangChain and MCP.
Project 4: Develop a multi-agent workflow using CrewAI and MCP.
Project 5: Deploy an MCP-powered AI system using Docker and GitHub Actions.
Security, Deployment, and Optimization:
Learn best practices for securing MCP communications and configurations.
Set up environments with Docker and VS Code for reproducible workflows.
Automate deployments and testing with GitHub Actions.
Who Should Take This Course:
AI engineers looking to build context-aware and autonomous systems.
Data scientists and ML developers exploring Agentic AI architectures.
Software engineers who want to connect LLMs with APIs and external tools.
Researchers and students interested in the evolution of context engineering.
Key Learning Outcomes:
Gain a complete understanding of how MCP enables structured model-to-tool communication.
Learn how to design and deploy intelligent systems that use dynamic context.
Acquire practical experience through multiple end-to-end projects.
Master the integration of MCP with frameworks used in modern AI development.
Technologies and Tools Covered:
Model Context Protocol (MCP)
LangChain, LangGraph, CrewAI
Python, OpenAI, Mistral, Anthropic
Vector Databases (FAISS, Chroma, Pinecone)
Docker, GitHub Actions, VS Code
About the Instructor:
Krish Naik has over 13 years of experience in the data analytics and AI industry and more than 7 years of experience teaching Machine Learning, Deep Learning, NLP, and Generative AI. Known for his practical, hands-on teaching approach, he has trained millions of learners to master real-world AI and data science concepts.
By the end of this course, you will have the skills to design, implement, and deploy MCP-powered AI systems. You will understand how MCP redefines model communication, how it enhances RAG systems, and how it enables the creation of intelligent, connected, and scalable Agentic AI applications.
Enroll today and become one of the first professionals to master the Model Context Protocol — the foundation of the next generation of AI development.